RU2587979C2 - Set of electrical equipment for connection of radiant energy source (infrared radiation, visible radiation and ultraviolet radiation) compact electric energy-saving lamp to source of electric energy - Google Patents

Abstract

FIELD: electricity.

SUBSTANCE: proposed set of lighting equipment includes a compact electric energy saving lamps, not aligned with electronic starting controller, cartridges, not aligned with electronic starting controller, and holder, integrated with electronic starting controller, a connector of electric wires, electrical plug and electronic automatic electric switch with sensor and remote control.

EFFECT: simplified design of separate elements and the whole set of lighting equipment, having low material consumption, as well as high reliability, fire and electric safety and repairability of the whole set of lighting equipment and its separate units and parts.

8 cl, 72 dwg

Description

The invention relates to the field of electrical engineering and can be most fully used to create a set of lighting electrical equipment.

The invention relates to a set of lighting electrical equipment for connecting a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source.

A known set of electrical equipment for a compact electric energy-saving lamp [1], containing as a source of radiant energy a curved gas discharge tube, an electronic ballast, ending with a pin base. Elements of electronic ballasts together with a source of radiant energy are structurally combined into one product - a compact electric energy-saving lamp. The main disadvantages of the adopted design solution, in the considered compact electric energy-saving lamp, are: high operating costs. Since the service life of elements of electronic ballasts and other elements of an energy-saving electric lamp, including a source of radiant energy, is different. This circumstance leads to unjustified costs for the Consumer, who has to throw away the entire electric energy-saving lamp in case of failure of any one element.

Known precast [2] for an electric lamp containing: a plastic housing of complex shape, consisting of an upper part with a cavity (socket) for the cap of the electric lamp and the lower part rigidly connected to it. Conducting jumpers are fixed in the body of the electric cartridge. Moreover, in the upper part of the cartridge case, in the socket for the cap, are located the spring parts of the conductive jumpers, which provide electrical contact with the cap of the electric lamp. Conducting jumpers are located in the lower part of the body of the electric cartridge, providing electrical contact with a source of electrical energy. The main disadvantages of this cartridge are: the complexity of the housing design and the use of dual-use parts. Parts that provide current supply to the base of the electric lamp, simultaneously perform the function of a contact spring, which leads to the dependence of contact pressure on the temperature of the base of the electric lamp and the environment. This circumstance, in the operating modes of the electric cartridge, leads to a decrease in contact pressing (pressure), therefore, to a deterioration in electrical contact. Which in turn leads to a decrease in the reliability and service life of the entire electrons. The scope of such an electron cartridge is limited.

Known electric cartridge [3], the structural elements of a contact twisted torsion spring, of which each together with a conductive jumper form a clamp. Each such clamp provides the necessary amount of force with which the conductive conductors of the connected electrical wires and the conductive jumper are pressed against each other. The clamp is located in a housing made of insulating material. Contact twisted torsion spring is made of rectangular wire and contains one incomplete coil. An incomplete turn of the contact spring on one side along an arc whose diameter is equal to or greater than the diameter of the incomplete turn passes into the working section, the free end of which is parallel to the vertical axis of the body of the connector of the electrical wires. On the other hand, an incomplete turn of the contact spring along an arc whose diameter is equal to or greater than the diameter of the incomplete turn passes into the working arm. The working arm of the contact spring ends with the mounting section. The end of the mounting section of the contact spring is directed parallel to the vertical axis of the housing of the connector of the electrical wires. The bulges of the arcs of the working section and the working shoulder are directed towards each other. At the working area of the contact spring, a through rectangular hole is made. The width of the through rectangular hole is greater than the width of the larger conductive core of the connected electrical wires or the width of the conductive jumper. The horizontal edge of the through rectangular hole, located closer to the incomplete turn, is working. The height of the through rectangular hole is greater than or equal to the sum of the thicknesses of the conductive core of the connected electrical wires and the length of the free travel of the upper edge of the working section of the contact spring. The main disadvantage of this cartridge is not a rational use of the material of the contact spring. Relative design complexity, limited scope.

Known [4] is a set of lighting electrical equipment for connecting a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source, containing a compact electric energy-saving lamp with a pin base, located in one housing, an electric cartridge and an electronic ballast (EAFRA) and electrical switch.

Elements (EAPRA) [protection unit, power supply, program unit and controller] are combined into one unit, which is structurally made as a monolithic module, with protruding beyond its limits, for example, on the left side, pin phase (plus) and pin zero ( minus) screwless clamp and, for example, on the right side with a network pin phase (plus) and network pin zero (minus) screwless clamp.

In addition to the monolithic module of the electronic ballast (EAPRA), an electro-cartridge in the case, conductive tips of conductive conductors of electric wires, a cable sleeve, a fixing tube are placed.

The body of the monolithic module of the electronic ballast (EAPR) is made of insulating material. Each pin screwless clamp, a monolithic module of an electronic ballast (EAPRA), consists of a pin electrical terminal, made in the form of a conductive plate, on the wide face of which a wave contact spring is mechanically and electrically fixed.

The pin phase (positive) screwless clamp and the pin zero (minus) screwless clamp are located along the central axis of symmetry of the electrons cartridge perpendicular to the short external faces of the proposed monolithic module and are designed to connect to them the pin electrical terminals of a compact electric energy-saving lamp.

The network pin phase (positive) screwless terminal and the network pin zero (negative) screwless terminal are located along the central axis of symmetry of the electroparton perpendicular to the short outer faces of the proposed monolithic module and are designed to connect conductive terminals to them, respectively, which conductive conductors of electric wires going from a source of electrical energy.

On one narrow side face of the proposed monolithic module, for example, the right side, a recess for the latch is made perpendicular to the wide upper face. On the wide rear face of the EAPRA monolithic module, a rear cooler made of a material with high thermal conductivity is fixed. On the wide front face of the EAPRA monolithic module, a front cooler made of a material with high thermal conductivity is fixed. Each cooler mounted on a monolithic EAFRA module is connected to the elements located inside it, and this connection is made in such a way that it is potential-free i.e. the cooler is not under electric potential, in addition, this connection has the lowest possible thermal resistance. In the plane of the wide rear face and the wide front face, the monolithic EAPRA module, the dimensions of the cooler along the entire perimeter of contact do not exceed the dimensions of the face with which they touch; the monolithic EAPRA module is fixed in a special slot on the left half and the right half of the electro-cartridge. The electric cartridge consists of: a housing, two identical conductive tips and the proposed monolithic EAFRA module.

The body of the electron cartridge is three cylinders of different diameters sequentially conjugated with bases. The largest diameter of the middle cylinder, the diameters of the extreme cylinders are different and the diameter of one of them, for example, the left cylinder, is larger than the diameter of the far right cylinder, but their main axes are located on the same line. One of the outermost cylinders, for example, the left cylinder, the cartridge housing, and the middle cylinder of the cartridge housing are truncated by two planes parallel to its central axis of the cylinders and the plane of the connector of the halves of the housing of the proposed cartridge. In the area of the electro-cartridge case, formed, for example, by a left truncated cylinder, there is a socket for a pin base of a compact electric energy-saving lamp and a pressure ring for a plafond. In the area of the cartridge case formed by the middle truncated cylinder, there is a monolithic EAF module, two conductive tips with electric wires coming from an electric energy source. Moreover, the conductive conductors of these electrical wires are connected to conductive terminals. The area of the housing of the electron cartridge, which is formed by a cylinder with the smallest diameter, for example, the right cylinder, forms a cylindrical protrusion in which the cable sleeve and mounting tube are located.

The cartridge case consists of a left half and a mirror-symmetric right half, which are made of electrical insulating material. In the area of the electro-cartridge case, formed, for example, by the left truncated cylinder, on each half and the cartridge case from one end, for example, on the left, a half of the socket for the socle protrusion of a compact electric energy-saving lamp is made. Moreover, the diameter of the socket for the base protrusion is larger than the outer diameter of the base protrusion of a compact electric energy-saving lamp. In the inner cavity of one half of the cartridge case, for example, the right half, in the middle of the side surface of the right half of the socket for the socle protrusion, a key cut is made to fix the position of the compact electric energy-saving lamp in the inner cavity of the cartridge. In the area of the electro-cartridge case formed by the middle truncated cylinder, in the inner cavity of the electro-cartridge case, on both sides of its horizontal axis of symmetry and parallel to it, to the right of the end face of the socket for the base protrusion of a compact electric energy-saving lamp, recesses are made for its pin electrical leads. Moreover, a recess was made for the pin phase (positive) electrical output of the compact electric energy-saving lamp above the horizontal axis of symmetry of the electric cartridge, and a recess for the pin zero (negative) electrical output of the compact electric energy-saving lamp was made below the horizontal axis of symmetry of the electric cartridge.

In the inner cavity of both halves of the cartridge case, as a continuation of each recess for the pin electrical outlet, a socket for a pin phase (plus) screwless clamp is made above the horizontal axis of symmetry of the electric cartridge, and a socket for a pin zero (negative) screwless clamp is made below the horizontal axis of symmetry of the cartridge. Moreover, these sockets are made mirror symmetric, while in the socket located above the horizontal axis of symmetry of the electron cartridge, the phase (positive) pin of the compact electric energy-saving lamp is located under a wave-shaped contact spring, and in the socket located below the horizontal axis of symmetry of the electron cartridge, the pin is zero (minus) The electrical terminal of the compact electric energy-saving lamp is located above the wave-shaped contact spring.

In the inner cavity of both halves of the cartridge case to the right of the upper socket for the phase pin (plus) screwless clamp and the lower socket for the pin zero (minus) screwless clamp, a socket for a monolithic EAFM module is made. On the inner edge, for example, a long lower edge, slots for a monolithic EAPRA module, on the right half of the cartridge housing made a protrusion - latch.

In the inner cavity of both halves of the cartridge case on the right side of the slot for the monolithic EATRA module, on both sides of the horizontal axis of symmetry of the cartridge, above the horizontal axis of symmetry of the cartridge, a slot for a network phase (plus) pin screwless clamp is made, and below the horizontal axis of symmetry of the cartridge made a socket for a network zero (minus) pin screwless clamp. Moreover, these nests are made mirror symmetric, while in the nest located above the horizontal axis of symmetry of the electric cartridge, the conductive tip to which the conductive core of the electric wire connected from the source of electrical energy is connected via an electric switch is located above the wave-shaped contact spring, and below the horizontal axis of symmetry of the electric cartridge a conductive tip to which a conductive core of an electric wire connected from the source is connected electrically th energy directly, is under a wave-shaped contact spring.

Inside the area of the housing of the electric cartridge, which is formed by a cylinder with the smallest diameter, there is a socket for a cable sleeve and a fixing tube. In the inner cavity of this socket, on each half of the cartridge case, a rectangular protrusion is made in the center of its lateral surface, preventing the sleeve from moving around its axis.

In the inner cavity of one half of the body of the electro-cartridge, for example the right half, mounting protrusions are made. Mounting recesses are made in the inner cavity of the other half of the electro-cartridge case, for example, the left half.

A rectangular mounting recess is made along the outer perimeter of the narrow side walls of one half of the electro-cartridge case, for example, the left half. A rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the second half of the electro-cartridge case, for example, the right half.

As an electric switch, an electronic switch with manual control is used.

The electric cable coming from the electric energy source to the electric cartridge is passed through a mounting tube fixed inside the cable sleeve. A cable sleeve with a fastening tube fixed inside it is inserted into the socket inside the cylindrical protrusion of the electric cartridge. The end of the conductive core of the phase (positive) electric wire going from the source of electrical energy through an electric switch is fixed, for example, in the socket of the conductive tip and is fixed in the network phase (plus) pin screwless terminal on the proposed monolithic module. The end of the conductive core of the zero (negative) electric wire coming from the electric energy source is directly fixed, for example, in the socket of the conductive tip and fixed in the network zero (negative) screwless screw terminal on a monolithic EAFRA module.

The monolithic EAPRA module is fixed in the socket for it, for example, on the left half of the cartridge housing. In this case, the network phase (positive) pin screwless terminal, the network zero (negative) pin screwless terminal, the phase (positive) pin screwless terminal and the zero (negative) pin screwless terminal are inserted into the slots for them, respectively.

A phase (positive) electric wire going from an electric energy source through an electric switch, a fixing tube and a cable sleeve to a network phase (positive) pin screwless terminal is laid in a channel on the left half of the cartridge case. Zero (minus) electric wire going from the source of electric energy through the mounting tube and cable sleeve to the network zero (negative) pin screwless clamp is laid in the channel on the right half of the cartridge case.

The mounting protrusions in the inner cavity of the right half of the cartridge housing are inserted into the mounting recesses of its left half. The halves of the cartridge housing are tightly pressed against each other. At the same time, the mounting protrusion along the outer contour of the right half of the electro-cartridge case is inserted into the mounting recess along the outer contour of the left half of the electro-cartridge case.

The pin base of the compact electric energy-saving lamp is inserted into the socket for it in the electros cartridge case, and its protrusion-key is located in the key recess in the inner cavity of the right half of the electro-cartridge case.

The pin phase (positive) electrical terminal is inserted into the phase (plus) pin screwless terminal, and the pin zero (negative) terminal is inserted into the zero (negative) screwless terminal. Phase (positive) pin electrical terminal of a compact electric energy-saving lamp and a conductive tip, with a conductive residential phase (plus) electrical wire connected to it from an electric power source using a phase (plus) pin screwless terminal and a network phase (plus) pin screwless clamps on the proposed monolithic module are electrically interconnected.

A pin zero (minus) electrical outlet of a compact energy-saving electric lamp and a conductive tip, with a conductive core of a zero (minus) electric wire connected to it from an electric power source using a zero (minus) pin screwless clamp and a network zero (minus) pin screwless the clamps on the monolithic EAPRA module are electrically interconnected.

The main disadvantage of this set of lighting electrical equipment for connecting a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is: the possibility of reducing its reliability and high operating costs when using compact electric energy-saving lamps in groups. This is due to the need to use a large number (equal to the number of simultaneously used monolithic compact electric energy-saving lamps) EAF modules.

In addition, the use of an electronic electric switch with manual control does not fully automate the lighting process.

According to the set of essential features, the closest technical solutions to implement the proposed method for connecting the radiant energy source of a compact electric energy-saving lamp to an electric energy source and create the necessary set of energy-saving lighting electrical equipment are the technical solutions described in [3] and [4] (prototype).

The aim of this invention is to significantly reduce costs in the production and operation of a set of lighting electrical equipment that provides the most rational connection of a radiant energy source of a group of compact electric energy-saving lamps to a source of electrical energy.

Ensuring automation of the process of lighting facilities, its maintainability, increasing its reliability, electrical and fire safety, and expanding its scope.

In order to expand the scope, improve reliability, electrical and fire safety, ensure automation of the production process and maintainability of components for a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps to a source of electric energy, increasing labor productivity at e on production and operation, a significant reduction in costs during its production and operation, to ensure automation of the lighting process of objects, the proposed set of lighting electrical equipment used a compact electric energy-saving lamp, not combined with an electronic ballast (EAF), connected using its phase (plus) pin electrical output and zero (minus) electrical output with an electric cartridge not combined with an electronic ballast m apparatus (EAPR), an electric wire connector is used, which provides a group connection of compact electric energy-saving lamps, which, with the help of its phase (plus) pin electric output and zero (negative) pin electric output, is connected to an electric cartridge structurally combined with an electronic ballast ( EAPR), and with the help of an electric plug, and its phase (plus) screwless pin electrical clamp and zero (minus) screwless pcs revogo electric clamp coupled to the proposed elektropatronom not aligned with the electronic ballast (EAPR) and used electronic automatic electric breaker with remote control and touch.

The proposed set of lighting electrical equipment for connecting a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source contains: two or more compact electric energy-saving lamps, electric cartridges that are not combined with an electronic ballast (EAPR), electric plugs), an electric wire connector, an electric cartridge structurally combined with an electronic trigger regulating device (EAPR) and electronic automatic electric switch with touch and remote control.

A compact electric energy-saving lamp consists of: a source of radiant energy, a shell and a pin base. To connect to a source of electrical energy, the radiant energy source is equipped with an electrical terminal that is connected to its phase (positive) electrode, as well as an electrical terminal connected to its zero (negative) electrode.

The shell of a compact electric energy-saving lamp has a translucent zone or the whole is made of translucent material and at one end, for example on the right, ends with a pin base.

The pin base of a compact electric energy-saving lamp consists of a base protrusion, a pin phase (plus) electrical output and a pin zero (negative) electrical output. The base lug is hermetically connected to the casing of a compact electric energy-saving lamp.

A plane key parallel to the central axis of the base protrusion and perpendicular to the wide edges of its pin phase (plus) electrical output and pin zero (negative) electrical output is cut out, fixing the position of the compact electric energy-saving lamp in the socket for its base in the inner cavity of the electrocartridge.

The pin electrical leads are hermetically soldered into the base ledge. Each electrical terminal of a radiant energy source, a compact electric energy-saving lamp, is mechanically and electrically connected to a corresponding pin electrical terminal.

Each pin electrical terminal, for example a phase terminal (positive) terminal, is a rectangular plate made of conductive material. Perpendicular to the wide face of each pin electrical terminal, for example a phase (positive) terminal electric terminal, on its both sides, in the area which is located in the base of the base projection, stop cutouts, for example rectangular ones, are made. Nests for supporting protrusions of a wave-shaped contact spring. The profile of each of these jacks repeats the surface profile of the contact spring portion facing the working face of the pin electrical terminal, for example, the phase (positive) terminal electrical terminal, at the junction of the support turn and the free end of the first power turn, and at the junction of the support turn with the first power coil and second power coil. The upper edges of these nests are rounded.

On the central horizontal axis, for example, a pin phase (positive) electrical terminal, sockets for a spherical protrusion of the wave-like contact spring are made in the center of each socket for a support protrusion of a wave-like contact spring. The attachment points of each socket for a spherical protrusion of a wave-like contact spring and each socket for a support protrusion of a wave-shaped contact spring are rounded, respectively.

An electron cartridge, in which a compact electric energy-saving lamp is fixed, and which is not structurally combined with an electronic ballast (EAPR), consists of: a housing, two identical screwless screw terminals, a cable sleeve, and a mounting ring.

The housing of the electron cartridge in which a compact electric energy-saving lamp is fixed, and which is not structurally combined with an electronic ballast (EAPR), is two cylinders of different diameters sequentially conjugated by bases, the diameter of these cylinders decreasing, for example, from left to right, and their main axes are located on one line.

In the area of the case of the electric cartridge under consideration, which is formed by the cylinder with the largest diameter, there is a socket for a pin base of a compact electric energy-saving lamp, pin screwless clamps and a fixing ring. The housing zone of the electroparticle under consideration, which is formed by a cylinder with the smallest diameter, forms a cylindrical protrusion in which a cable sleeve, a fixing tube and an electric cable are located.

The housing of the electron cartridge in which a compact electric energy-saving lamp is fixed, and which is not structurally combined with an electronic ballast (EAPR), consists of left and right mirror-symmetric halves made of electrical insulating material. On each half of the cartridge case, from one end, for example the left, half of the socket for the pin base of a compact electric energy-saving lamp is made. Moreover, the diameter of the socket for the pin base is larger than the outer diameter of the base protrusion of a compact electric energy-saving lamp.

A key-protrusion is made in the inner cavity of one half of the electro-cartridge case, for example, the right half, in the middle of the side surface of the socket for the base protrusion, to fix the position of the compact electric energy-saving lamp in the socket for the base protrusion.

In the inner cavity of the electro-cartridge case, on both sides of its horizontal axis of symmetry and parallel to it, to the right of the end face of the socket for the base protrusion of a compact electric energy-saving lamp, recesses are made for its pin electrical terminals. Moreover, a recess is made above the horizontal axis of symmetry of the electric cartridge for a pin phase (positive) electrical output. And below the horizontal axis of symmetry of the electric cartridge, a recess is made for the pin zero (minus) electrical output.

In the inner cavity of both halves of the cartridge case, as a continuation of each recess for the phase (plus) and zero (minus) pin electrical leads, respectively, a nest is made for the conductive tip of the electric wire and a wave-shaped contact spring, which form an electric pin screwless clamp, respectively phase (positive ) and zero (minus). Moreover, in the socket located above the horizontal axis of symmetry of the electron cartridge, the tip is located under the wave-like contact spring, and below the horizontal axis of symmetry of the electro-cartridge, the tip is above the wave-like contact spring.

On each half of the cartridge case in its inner cavity, starting from the end surface of the socket for the sleeve to the end surface of the socket for the conductive tip of the electric wire, channels are made for electric wires coming from the electronic start-up of the regulating apparatus (ECG) of the considered electron cartridge.

Inside the area of the housing of the electric cartridge, which is formed by a cylinder with the smallest diameter, there is a socket for an electric cable, cable sleeve and mounting tube. On each half of the cartridge case in the inner cavity of this socket, a rectangular protrusion is made in the center of its lateral surface, preventing the sleeve from moving around its axis.

In the inner cavity of one half of the body of the electro-cartridge, for example the right half, mounting protrusions are made. Mounting recesses are made in the inner cavity of the other half of the electro-cartridge case, for example, the left half. A rectangular mounting recess is made along the outer perimeter of the narrow side walls of one half of the electro-cartridge case, for example, the left half. A rectangular fastening protrusion is made along the outer perimeter of the narrow side walls of the second half of the housing, the electro-cartridge, for example, the right half.

The conductive tip used in the electron cartridge is made of a conductive material and is designed to connect a conductive core of electric wires supplying electricity to the electrons. A straight section is located at one end of the conductive tip, such as the left. On the other end of the conductive tip, for example, on the right, there is a section for attaching the conductive core of the electric wire. Inside the site for attaching a conductive core of an electric wire, a socket for a conductive core of an electric wire is made. The lower surface of the rectilinear portion and the portion for mounting the conductive core of the electrical wire of the conductive tip are located in the same plane. The upper surface of the rectilinear portion of the conductive tip is working. The left, upper and lower short edges of the conductive tip are rounded.

The electric plug used in the proposed set of lighting electrical equipment consists of: a housing, a phase (plus) plug and a zero (minus) plug.

The housing of the proposed electric plug consists of left and right mirror-symmetric halves made of electrical insulating material.

The housing of the proposed electric plug is two cylinders of different diameters sequentially conjugated by the bases, and the diameters of these cylinders decrease, for example, from right to left, and their main axes are located on one line.

One of the cylinders of the electric plug housing, for example, the right one, is truncated by two planes parallel to the central axis of the cylinders and the plane of the electric plug connector, and the angles between the short and long external faces of this part of the electric plug housing are rounded.

In the internal cavity of this zone of the electric plug housing, there are sockets for the phase (plus) and zero (minus) plugs and electric wires coming from the corresponding conductive tips of the electron cartridge in which a compact electric energy-saving lamp is fixed. On the end face of both halves of this zone of the electric plug case, there are inlet openings for the phase (plus) and zero (minus) plugs.

On each half of the body of the electric plug in its inner cavity, starting from the end surface of the socket for the conductive tip of the electric wire to the end surface of the socket for the electric cable, channels are made for electric wires going to the electron cartridge, in which a compact electric energy-saving lamp is mounted.

The housing area of the electric plug, which is formed by a cylinder with the smallest diameter, forms a cylindrical protrusion, in the inner cavity of which there is a socket for an electric cable. A notch is made on the outer side surface of both halves of this zone of the electric plug body to prevent fingers from slipping when inserting and removing the proposed electric plug from the electrical clamps at the place of operation.

On the outer end surface of one of the halves of the body of the electric plug, for example, the right, between the inlets for the phase (plus) and zero (minus) plug in the middle of the end face, a key-protrusion is made to fix the position of the electric plug at the place of operation.

In the inner cavity of one half of the body of the electric plug, for example the right half, mounting tabs are made. Mounting recesses are made in the inner cavity of the other half of the body of the electric plug, for example the left half. A rectangular mounting recess is made along the outer perimeter of the narrow side walls of one half of the body of the electric plug, for example, the left half. A rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the second half of the housing, the electric plug, for example the right half.

As a phase (plus) plug and a zero (minus) plug in the proposed electric plug, a conductive tip is used, which is made of a conductive material and is designed to connect a conductive core of electric wires supplying electricity to the electric plug.

On the protruding beyond the body of the electric plug, the part of the conductive tip used as a phase (plus) plug and a zero (minus) plug, on its wide face, opposite the working face, perpendicular to the narrow side face, nests are made, respectively, for the support turns of a wave-like contact spring. The profile of each of these jacks repeats the surface profile of the contact spring portion at the junction of the support turn and the free end of the first power turn, and at the junction of the support turn with the first power turn and the second power turn, facing the working face of the plug of the electric plug. The upper edges of these nests are rounded.

On the central horizontal axis of each plug, in the center of each socket for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring. The interface of the socket for the spherical protrusion of the wave-shaped contact spring and the socket for the support coil of the wave-shaped contact spring are rounded.

An electric cable going to the electron cartridge, in which a compact electric energy-saving lamp is fixed, is laid in a socket for it in the inner cavity of the electric plug housing zone, which is formed by a cylinder with the smallest diameter,

A phase (positive) electric wire coming from the electron cartridge, in which a compact electric energy-saving lamp is fixed, is laid in the upper part of the socket for electric wires, for example, on the left half of the housing of the proposed electric plug, and the end of its conductive core. fixed, for example, in the socket of the upper conductive tip.

A zero (negative) electric wire coming from the electron cartridge, in which a compact electric energy-saving lamp is fixed, is laid in the lower part of the socket for electric wires, for example, on the left half of the housing of the proposed electric plug, and the end of its conductive core. fixed, for example, in the socket of the lower conductive tip.

The mounting protrusions in the inner cavity of the right half are inserted into the mounting recesses of the left half of the housing of the proposed electric plug. The body halves of the proposed electric plug are firmly pressed against each other. Moreover, the mounting protrusion along the external contour of the right half of the housing of the proposed electric plug is inserted into the mounting recess along the external contour of the left half of the housing of the proposed electric plug.

The electroparton combined with an electronic ballast (EAPR) consists of: a housing, a monolithic module of an electronic ballast (EAPR), two conductive lugs and a cable sleeve,

The body of the electron cartridge is two cylinders of different diameters, between which is a parallelepiped, the opposite smaller faces of which are paired with the base of one of these cylinders. Moreover, the largest diameter, for example, the left cylinder. The main axes of these cylinders and the parallelepiped are located on the same line.

In the area of the electric cartridge housing, formed, for example, by the left cylinder, there is a socket for a pin base of a compact electric energy-saving lamp and a mounting ring.

In the area of the electric cartridge housing formed by the parallelepiped, the proposed monolithic module is located, two conductive lugs with electric wires coming from an electronic automatic electric switch with touch and remote control and an electric energy source. Moreover, the conductive conductors of these electrical wires are connected to conductive terminals located in the internal cavity of the electron cartridge, combined with an electronic ballast (EAPR).

The area of the housing of the electron cartridge, which is formed by a cylinder with the smallest diameter, for example, the right cylinder, forms a cylindrical protrusion in which the cable sleeve and mounting tube are located.

The cartridge case consists of a left half and a mirror-symmetric right half, which are made of electrical insulating material.

In the area of the cartridge case, formed, for example, by the left cylinder, on each half of the cartridge case from one end, for example, the left, half of the socket for the socle protrusion of a compact electric energy-saving lamp is made. Moreover, the diameter of the socket for the base protrusion is larger than the outer diameter of the base protrusion of a compact electric energy-saving lamp. A key-protrusion is made in the inner cavity of one half of the electro-cartridge case, for example, the right half, in the middle of the lateral surface of the right half of the socket for the base protrusion, to fix the position of the compact electric energy-saving lamp in the inner cavity of the electro-cartridge. On the outer surface of this zone of both halves of the cartridge housing, a thread is made for the mounting ring.

In the area of the electro-cartridge case formed by the parallelepiped, in the inner cavity of the electro-cartridge case, on both sides of its horizontal axis of symmetry and parallel to it, to the right of the end face of the socket for the base protrusion of a compact electric energy-saving lamp, recesses are made for its pin electrical leads. Moreover, a recess was made for the pin phase (positive) electrical output of the compact energy-saving electric lamp above the horizontal axis of symmetry of the electric cartridge, and a recess for the pin zero (negative) electrical output of the compact energy-saving electric lamp was made below the horizontal axis of symmetry of the electric cartridge.

In the inner cavity of both halves of the housing of this zone of the electric cartridge, as a continuation of each recess for the pin electrical outlet, above the horizontal axis of symmetry of the electric cartridge, a socket for a phase (plus) pin screwless clamp is made, and below the horizontal axis of symmetry of the electric cartridge, a socket for zero (negative) screwless screw is made clamping. Moreover, these sockets are made mirror symmetric, while in the socket located above the horizontal axis of symmetry of the electron cartridge, the phase (positive) pin of the compact electric energy-saving lamp is located under a wave-shaped contact spring, and in the socket located below the horizontal axis of symmetry of the electron cartridge, the pin is zero (minus) The electrical terminal of the compact electric energy-saving lamp is located above the wave-shaped contact spring.

In the inner cavity of both halves of the housing of this zone of the electric cartridge to the right of the upper slot for the phase (plus) pin screwless clamp and the lower slot for the zero (negative) pin screwless clamp, a slot for the proposed monolithic electronic ballast module is made. On the inner side, for example, a long lower side, the nests for the proposed solid-state electronic ballast module, on the right half of the electro-cartridge case, a protrusion is made - a latch that ensures a certain position of the monolithic electronic ballast module relative to the electro-cartridge case.

In the inner cavity of both halves of the housing of this zone of the electro-cartridge, on the right side of the socket for the proposed solid-state electronic ballast module, on both sides of the horizontal axis of symmetry of the electro-cartridge, parallel to it, above the horizontal axis of symmetry of the electro-cartridge, a socket for a network phase (plus) pin screwless clamp is made, and below the horizontal axis of symmetry of the electron cartridge made a socket for the network zero (minus) pin screwless clamp. Moreover, these sockets are made mirror symmetric, while in the socket located above the horizontal axis of symmetry of the electron cartridge, the conductive tip to which the conductive core of the electric wire connected from the electronic circuit breaker with touch and remote control is connected is located under a wave-shaped contact spring, and in the socket located below the horizontal axis of symmetry of the electron cartridge, the conductive tip to which the conductive core is connected ektricheskogo wire going electronic automatic electric switch with touch and remote control, it is under an undulating contact spring.

Between the socket for the network phase (plus) pin screwless clamp and the socket for the cable sleeve, a channel is made for the electric wire coming from the electronic automatic electrical switch with touch and remote control.

Between the socket for the network zero (negative) pin screwless clamp and the socket for the cable sleeve, a channel is made for the electric wire coming from the electronic automatic electric switch with touch and remote control.

Inside the area of the housing of the electric cartridge, which is formed by a cylinder with the smallest diameter, there is a socket for a cable sleeve and a fixing tube. In the inner cavity of this socket, on each half of the cartridge case, a rectangular protrusion is made in the center of its lateral surface, preventing the sleeve from moving around its axis. In the inner cavity of one half of the body of the electro-cartridge, for example the right half, mounting protrusions are made. Mounting recesses are made in the inner cavity of the other half of the electro-cartridge case, for example, the left half.

A rectangular mounting recess is made along the outer perimeter of the narrow side walls of one half of the electro-cartridge case, for example, the left half. A rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the second half of the electro-cartridge case, for example, the right half.

Elements of the proposed electronic ballasting apparatus (EAF) are combined into one structural unit, while an infrared photodetector that allows you to remotely control electronic ballasts using the remote control is mounted on the outer surface of the electronic ballast module housing.

The proposed electronic ballast (EAF) is made in the form of a monolithic module, with protruding beyond, for example, on the left side, a pin phase (plus) screwless consumer clamp and a pin zero (negative) screwless consumer clamp, and, for example, on the right side network pin phase (plus) screwless clamp and network pin zero (minus) screwless clamp. The housing of the proposed monolithic module is made of an insulating material with reduced thermal resistance.

Each screwless clamp of the proposed solid-state electronic ballast module consists of a pin electrical terminal made in the form of a conductive plate, on the wide edge of which a wave contact spring is mechanically and electrically fixed.

Phase (plus) pin screwless consumer clamp and zero (minus) pin screwless consumer clamp, located parallel to the central axis of symmetry of the electroparton perpendicular to the short outer faces of the housing of the proposed monolithic module, are designed to connect to them the pin electrical terminals of the proposed connector of electrical wires.

The network phase (positive) screwless screw terminal and the network zero (negative) screwless screw terminal located parallel to the central axis of symmetry of the electroparton perpendicular to the short external faces of the proposed solid-state electronic ballast module are designed to connect conductive terminals to them, to which, respectively, conductive conductors of electrical wires are connected coming from electronic circuit breaker with touch and remote control.

On one narrow side face of the housing, the proposed solid-state electronic ballast module, for example, the right side, a recess for the latch is made perpendicular to the wide upper face. On the wide rear face of the body of the proposed solid-state electronic ballast module, a rear cooler is made of a material with high thermal conductivity. On the wide front face of the body of the proposed solid-state electronic ballast module, a front cooler is mounted made of a material with high thermal conductivity. Each cooler mounted on the housing of the proposed monolithic electronic ballast module is connected to the elements located inside it. Moreover, this connection is made in such a way that it is potentialless i.e. the cooler is not under electric potential.

In addition, this compound has the lowest possible thermal resistance. In the plane of the wide rear face and the wide front face of the housing, the proposed solid-state electronic ballast module, the dimensions of the cooler along the entire perimeter of touch do not exceed the dimensions of the face with which they touch.

The photosensitive element of the remote control unit, for example, an infrared photodetector, is mounted on the outer side surface of the body of the monolithic electronic ballast module, on which coolers are mounted, for example, in the area of the body of the monolithic electronic ballast module between the network pin phase (plus) terminal and the network pin zero (minus) screwless clamp.

The proposed monolithic electronic ballast module is mounted in a slot for it, on the left half and the right half of the cartridge housing. At the same time, the network phase (positive) pin screwless terminal, the network zero (negative) pin screwless terminal, the phase (positive) pin screwless terminal of the consumer and the zero (negative) pin screwless terminal of the consumer are inserted into the slots for them.

The electric cable going from the electronic automatic electric switch with touch and remote control to the electric cartridge combined with an electronic ballast (EAF) is passed through a mounting tube fixed inside the cable sleeve. The cable sleeve with the fixing tube fixed inside it is inserted into the socket inside the cylindrical protrusion of this electrons.

A phase (positive) electric wire going from the electronic automatic electrical switch with touch and remote control through the mounting tube and cable sleeve to the network phase (positive) pin screwless terminal is laid in the channel on the left half of the case of the electroparticle under consideration. Zero (minus) electric wire coming from the electronic automatic electric switch with touch and remote control, through the mounting tube and cable sleeve to the network zero (minus) pin screwless clamp, is laid in the channel on the right half of the case of the electroparticle under consideration.

The end of the conductive core of the phase (positive) electric wire coming from the electronic circuit breaker with touch and remote control is fixed, for example, in the socket of the conductive tip, which, in turn, is fixed in a network phase (positive) screwless screw terminal on the housing of the proposed monolithic module Electronic ballasts. The end of the conductive core of the zero (negative) electric wire coming from the electronic circuit breaker with touch and remote control is fixed, for example, in the socket of the conductive tip, which, in turn, is fixed in the network zero (negative) screwless screw terminal on the housing of the proposed monolithic module Electronic ballasts.

The mounting protrusions in the inner cavity of the right half of the housing of the proposed electrons are inserted into the mounting recesses of its left half. The halves of the housing of the proposed cartridge are tightly pressed against each other. Moreover, the mounting protrusion along the outer contour of the right half of the housing of the proposed electrocart is inserted into the mounting recess along the outer contour of the left half of the housing of the proposed electrocart.

The proposed connector of electric wires contains: a housing made of an insulating material, a phase (plus) conductive bus, on which are screwless pin electrical clamps and a zero (minus) conductive bus, on which are screwless pin electrical clamps.

Each considered screwless pin electrical clamp consists of a conductive plate on which, for example, by the method of cold welding, a wave-shaped contact spring is fixed.

The housing of the proposed connector of electrical wires consists of a base and a cover, has a complex shape and is made of electrical insulation material.

One side of the housing of the proposed connector of electrical wires, for example the left, is made in the form of a rectangular parallelepiped, and the other side, for example, the right, is made in the form of mating cylinders of different sizes. The diameters of these cylinders decrease from left to right.

The smallest cylinder is a basement ledge.

A thread is made on the side surface of a medium-diameter cylinder, which, using a mounting ring, allows the proposed connector of electric wires to be fixed in the socket for the pin base of a compact electric energy-saving lamp, in the body of an electron cartridge, which is structurally combined with an electronic ballast (EAPR).

The cylinder with the largest diameter serves as an abutment for the fixing ring with internal thread.

In the inner cavity of the base of the housing, the electrical conductor connector under consideration, parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus with sockets for screwless pin electrical clamps and a slot for a zero (minus) conductive bus with slots (for screwless pin electric clamps.

On the long wide edge of the base of the proposed connector of electrical wires, in the plane opposite to that on which its base and cover are connected, there are inlets for a phase (plus) plug and a zero (minus) plug of an electric plug connected to an electric cartridge in which a compact electric energy saving lamp.

Moreover, each such inlet communicates with a corresponding socket for a screwless pin electrical clamp.

In the inner cavity of the base of the housing, the connector of the electrical wires in question, mounting recesses and ventilation recesses are made, which alternate with each other. A rectangular mounting recess is made along the outer perimeter of the narrow side walls of the base of the housing, the electrical wire connector in question.

In the inner cavity of the housing cover, the electrical conductor connector in question, parallel to its horizontal axis and to each other, there is a socket for a phase (plus) conductive bus and a slot for a zero (minus) conductive bus.

In the inner cavity of the housing cover, the connector of the electrical wires in question, mounting protrusions and ventilation recesses are made, which alternate with each other.

A rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the housing cover, the electrical wire connector in question.

A cutout is made on the cover of the housing under consideration of the electric wire connector in the center of the lateral edge of the socle ledge, with a plane parallel to the central horizontal axis of the proposed electric wire connector, fixing the position of the proposed electric wire connector in the internal cavity of the electric cartridge, which is structurally combined with an electronic ballast (EAPR) .

The phase (plus) conductive bus and the zero (minus) conductive bus are made in the form of a plate of complex shape from a conductive material.

At one end of the phase (positive) conductive bus, for example, on the left end, more than two conductive plates perpendicular to it and lying with it in the same plane are made perpendicular to its narrow long face. On each such conductive plate mechanically and electrically, for example by cold welding, a rectilinear mounting section of the proposed wave-like contact spring is fixed, forming a phase (plus) screwless pin electrical clamp.

At one end of the zero (minus) conductive bus, for example, on the left end, perpendicular to its narrow long face, more than two conductive plates are made perpendicular to it and lying with it in the same plane. On each such conductive plate, mechanically and electrically, for example by cold welding, a rectilinear fastening section of the proposed wave-shaped contact spring is fixed, forming a zero (minus) screwless pin electrical clamp.

The plot, for example, of the right end of the phase (positive) conductive bus, protruding beyond the base of the proposed connector of the electrical wires forms a phase (positive) pin electrical output.

A section, for example, of the right end, of a zero (minus) conductive bus, protruding beyond the base of the proposed connector of electric wires forms a zero (minus) pin electrical outlet.

On the site, for example, the right end, the phase (plus) pin electrical terminal and the zero (minus) pin electric terminal, protruding beyond the base of the proposed connector of electrical wires, on its wide face, facing away from the horizontal axis of the proposed connector of electric wires, perpendicular to a narrow face , made nests for supporting turns of a wave-like contact spring.

The profile of each of these jacks repeats the surface profile of the contact spring portion facing the working face of the pin electrical terminal), at the junction of the support coil and the free end of the first power coil, and at the junction of the support coil with the first power coil and the second power coil. The top edges of these nests are rounded.

On the central horizontal axis of the phase (plus) pin electrical terminal and the zero (minus) pin electrical terminal, in the center of each socket for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring. The interface of each socket for the spherical protrusion of the wave-like contact spring and the socket for the support coil of the wave-shaped contact spring are rounded.

A horizontal line passing through the center of the cross section of the end of each pin electrical outlet extending beyond the proposed connector of electrical wires is parallel to the long edge of the pin electrical output and the central horizontal axis of the proposed connector of electrical wires. Moreover, this horizontal line and the central horizontal axis of the proposed connector of electrical wires are located in the same horizontal plane.

The distance between the centers of normal sections of the segments of the pin electrical terminals extending beyond the proposed connector of the electrical wires is equal to the distance between the centers of the plugs of a standard electric plug.

A phase (positive) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding slot for it.

Zero (minus) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket for it.

The free end of the wave-shaped contact spring of each pin of the electrical clamp, on which there is an incomplete supporting coil, faces the inlet on the base body of the proposed connector of electrical wires.

Part of the phase (plus) conductive bus and the zero (minus) conductive bus located above the base of the proposed connector of electrical wires is inserted into the corresponding socket on the cover of the proposed connector of electrical wires. After that, the lid of the housing, the connector of the electrical wires in question, is pressed tightly to its base. In this case, the fixing protrusions of the cover are inserted into the corresponding mounting recesses of the base.

Each ventilation recess of the cover and the opposing ventilation recess of the base form a single ventilation cavity. A rectangular protrusion around the perimeter of the lid is located in a rectangular recess along the perimeter of the base.

The proposed connector of electric wires is fixed in the socket for the pin base of a compact electric energy-saving lamp, in the housing of the electroparton, which is structurally combined with an electronic ballast (EAF), and fixed in it with a mounting ring that is screwed onto a cylindrical mounting protrusion of the proposed connector of electric wires.

The pin phase (positive) electrical terminal of the proposed connector of the electric wires is inserted into the phase (positive) screwless electric clamp of the electric cartridge, which is structurally combined with an electronic ballast (EAPR).

The pin zero (minus) electrical terminal of the proposed connector of the electric wires is inserted into the zero (minus) screwless pin electric clamp of the electric cartridge, which is structurally combined with an electronic ballast (EAPR).

A phase inlet (positive) plug and a zero (minus) plug in the electrical plug connected to an electron cartridge in which a compact, energy-saving, energy-saving fastener is inserted into a pair of inlets that communicate with a phase (plus) pin screwless screwless terminal and a zero (negative) pin screwless terminal lamp. Moreover, the housing of the electric plug is oriented in relation to the housing of the proposed connector of electrical wires using a locking protrusion on the end surface of the electrical plug and a locking recess on the base housing of the proposed connector of electrical wires.

Similarly connected to the proposed connector of electric wires, the number of compact electric energy-saving lamps for which it is designed.

In the proposed electronic automatic electric switch with touch and remote control, an electric circuit breaker and a block of protection against overload, overvoltage and short circuit currents) are used similar to those used in the electronic ballast control device (EAPR) of the proposed set of lighting electrical equipment.

The proposed circuit breaker includes an optothyristor, consisting of a radiating infrared diode and a photodetector, which provides galvanic isolation, eliminating spontaneous switching on by induction currents. In addition, it uses a touch sensor that allows you to control the circuit breaker by directly touching it, for example, with the hand of a person, and excluding the moving mechanical parts.

Elements of the proposed electronic automatic electrical switch with touch and remote control are combined into one structural unit, which is made in the form of a monolithic module.

The housing of the proposed monolithic module of an electronic automatic electrical switch with touch and remote control is made of electrical insulation material with reduced thermal resistance and is a parallelepiped. On the end faces of which, for example, on the left side are inlet openings providing access to the pin phase (plus) screwless clamp of the consumer and to the pin zero (negative) screwless clamp of the consumer. And on the opposite end face, for example, on the right side, there are inlet openings providing access to the network pin phase (plus) screwless terminal and to the network pin zero (negative) terminal screw.

The screwless screw terminals are completely located in the internal cavity of the proposed module. Each screwless clamp of the proposed monolithic module of an electronic automatic electric switch with touch and remote control consists of a pin electrical terminal made in the form of a conductive plate, on the wide edge of which a wave-shaped contact spring is mechanically and electrically fixed.

The phase (positive) pin screwless clamp of the consumer and the zero (minus) pin screwless clamp of the consumer are designed to connect to them the conductive terminals of the electrical wires, respectively, going to the proposed monolithic electronic ballast module.

The network phase (positive) pin screwless clamp and the network zero (negative) pin screwless clamp are used to connect conductive lugs to them, to which, respectively, conductive conductors of electric wires are connected, respectively, coming from an electric energy source.

In the middle of the long side faces of the module in question, perpendicular to its base are mounting sockets, which ensure its fastening at the place of operation.

A niche is made in the middle of the junction of the upper and right end faces of the module in question, perpendicular to its base, in which an infrared photodetector is located, which allows remote control of the proposed switch using a remote control. An infrared photodetector functionally connected to a switching semiconductor device, for example, an opto-prism device located in the internal cavity of the proposed module.

And on the upper edge of the module is located the contact area of the sensor sensor, which allows you to control the proposed switch by direct contact, for example, human hands, and excluding movable mechanical parts.

The pin base of a compact electric energy-saving lamp is inserted into the socket for it in the casing of the electric cartridge not combined with an electronic ballast (EAPR). At the same time, its pin phase (positive) electrical terminal and pin zero (negative) electrical terminal are inserted and secured respectively to the pin phase (positive) electric terminal and pin zero (negative) electric terminal of this electric cartridge.

The end of the conductive core of one electric wire of an electric cable, for example, a phase (positive) connecting an electric cartridge that is not combined with an electronic ballast (EAF), with an electric plug, mechanically and electrically, for example, by crimping, is connected, for example, with a conductive tip of a phase (positive ) an electric clamp of an electric pin screwless clamp of the proposed electrons, and its second end is connected to the phase (plus) plug of the electric plug.

The end of the conductive core of the second electric wire of the electric cable, for example, the zero (minus) connecting the electric cartridge, not combined with an electronic ballast (EAF), with an electric plug, mechanically and electrically, for example, by crimping, is connected, for example, with the conductive tip of the zero (negative ) an electric clamp of an electric pin screwless clamp of the proposed electrons, and its second end is connected to the zero (minus) plug of the electric plug.

The plugs of each proposed electrical plug connected to an electric cartridge not combined with an electronic ballast (EAPR), in which the proposed compact electric energy-saving lamp is mounted, are inserted into the inlet openings of the proposed electric wire connector. In this case, the phase (positive) plug is located in the phase (positive) electrical clamp of the proposed connector of electric wires, and the zero (minus) plug is located in the zero (negative) electrical clamp of the proposed connector of electric wires.

All electrical plugs connected to the proposed connector of electric wires are oriented with respect to its housing and each other with the help of a key protrusion on the surface of each proposed electric plug and a fixing recess located between the inlet holes on the base surface of the considered connector of electric wires.

The pin base of the proposed connector of the electrical wires is fixed in the socket for the pin base of the compact electric energy-saving lamp, in the housing of the electron cartridge, which is structurally combined with the electronic ballast (EAF), and fixed in it with a mounting ring that is screwed onto the cylindrical mounting protrusion of the proposed connector of the electrical wires.

In this case, the pin phase (positive) electrical terminal of the proposed connector of electrical wires is inserted into the phase (positive) screwless terminal of the electronic ballast module (EAPR), structurally combined with the proposed electrons, and the pin zero (minus) electrical terminal of the proposed connector of electrical wires is inserted into zero (minus) screwless pin electrical clamp module electronic ballast (EAF), structurally combined about the proposed elektropatronom,

A conductive tip is inserted into the network phase (positive) screwless screw terminal of the proposed electronic automatic electrical switch with touch and remote control, in which the conductive core of the electric wire coming from the phase (plus) terminal of the electric energy source is fixed mechanically and electrically, for example, by crimping.

A conductive tip is inserted into the network zero (minus) screwless screw terminal of the proposed electronic automatic electrical switch with touch and remote control, in which the conductive core of the electric wire coming from the zero (minus) terminal of the electric source is fixed mechanically and electrically, for example, by crimping energy.

The phase (positive) electric wire coming from the electric energy source, and the phase (positive) electric wire going to the electric cartridge, structurally combined with the proposed module of the electronic ballast, are passed through the cable sleeve installed inside the cylindrical protrusion of the proposed electronic automatic electric switch with touch and remote control.

Zero (minus) electric wire coming from the electric energy source, and phase (plus) electric wire coming from the proposed electronic automatic electric switch with touch and remote control, going to the consumer, are passed through a cable sleeve installed in the socket in the cylindrical protrusion of the housing an electron cartridge combined with an electronic ballast (EAF), and their conductive conductors are connected to conductive terminals that are fixed, respectively enno in network zero (minus) terminal and network-phase (positive) electric pin screwless clamp proposed monolithic module electronic ballast (ECG).

An infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the field of group application of compact electric energy-saving lamps, increase reliability, reduce material consumption and costs during manufacturing and operation, significantly increase labor productivity during installation work in the operating environment, in the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) groups of compact electric energy-saving lamps to an electric energy source, an electric wire connector is used, which provides a group connection of compact electric energy-saving lamps, and, the design of which provides reliable mechanical and electrical connection of the required number of similar connectors of electric wires to each other, and with the help of their free, phase ( positive) pin electrical output and zero (minus) pin electrical output this assembly connect with elektropatronom structurally combined with electronic control gear (EAPR).

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps, electrons that are not combined with an electronic ballast (EAF), mounted in an electrons that are not structurally combined with an electronic ballasts (EAF), and each conductive tip of which is connected with a phase (plus) plug and zero (minus) electrical plug, the proposed assembly of connectors for electric wires, an electric cartridge, a design clearly combined with an electronic ballast (EAPR), and an electronic circuit breaker with touch and remote control.

The proposed connector of electrical wires contains: a housing made of electrical insulating material, a phase (plus) conductive bus, on which are screwless pin electrical clamps and a zero (minus) conductive bus, on which are screwless pin electrical clamps, and a plug.

The housing of the proposed connector of electrical wires consists of a base and a cover, has a complex shape and is made of electrical insulation material. When viewed from left to right, in the housing of the proposed connector of electric wires, three zones are distinguished: the first zone is the zone of the socket for the base, the second zone is the zone of screwless clamps, the third zone is the zone of the socle; the first zone is made in the form of mating cylinders, the diameters of which increase from left to right.

In the inner cavity of the first zone of the housing, the electrical conductor connector under consideration, in the smallest cylinder, a socket for the base is made, as a continuation of this socket, a recess for the right phase (plus) pin electrical output is made to the right and, as a continuation of this recess, a socket for phase (plus) screwless pin clamp. A recess was also made for the right zero (negative) pin electrical terminal and, as a continuation of this recess, a socket for the zero (negative) screwless pin clamp. A protrusion-key is made in the inner cavity of one half of the housing of the proposed connector of electric wires, for example, of a cover, in the middle of the side surface of the socket for the base, to fix the position of the second proposed connector of electric wires in relation to the connector of the electric wires fixed in the housing of the cartridge, which is structurally combined with an electronic ballast (EAPR).

A thread is made on the side surface of the cylinder of smaller diameter, intended for fastening in the socket for the base of the proposed connector of electrical wires, the pin base of another similar connector of electrical wires.

The cylinder with the largest diameter serves as an abutment for the fastening ring with an internal thread, which is screwed onto the cylinder with a smaller diameter, when securing in the socket for the base of the proposed connector of the electrical wires of the pin base of another similar connector of electrical wires.

The second zone is a zone of screwless clamps for connecting electrons, in which the proposed compact electric energy-saving lamps are mounted, made in the form of a direct parallelepiped.

In the second zone, there is a phase (positive) conductive bus with a screwless pin clamp for connecting the phase (positive) pin electrical output of another similar connector of electric wires and screwless pin clamps for connecting the phase (positive) electric plugs of electric plugs, each of which is connected to the electronome in which a compact electric energy-saving lamp is mounted.

In the second zone, there is a zero (minus) conductive bus with a screwless pin clamp for connecting a zero (minus) pin electrical output for connecting phase (plus) electric plugs of electric plugs, each of which is connected to an electron cartridge, in which a compact electric energy-saving lamp is mounted.

The third zone, the basement location zone, is made in the form of three mating cylinders of different sizes. The diameters of these cylinders decrease from left to right. The smallest cylinder is a basement ledge. A thread is made on the side surface of the medium-diameter cylinder to fasten the proposed connector of electrical wires in a socket for a pin base of a compact electric energy-saving lamp, or in a socket for a pin base of a similar connector of electrical wires.

The cylinder with the largest diameter serves as an abutment for the fixing ring with an internal thread, which is screwed onto the cylinder with the average diameter when fixing the proposed connector of electric wires in the socket for the pin base of a compact electric energy-saving lamp, or in the socket for the pin base of a similar connector of electric wires.

In the inner cavity of the base of the housing, the electrical conductor connector under consideration, parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus with sockets for screwless pin electrical clamps and a slot for a zero (minus) conductive bus with slots (for screwless pin electric clamps.

On a long wide edge, the base of the housing, opposite to that which connects the base and the cover of the proposed connector of electric wires, there are inlets for plugs of electric plugs, each of which is connected to an electric cartridge, in which a compact electric energy-saving lamp is mounted. Moreover, each such inlet communicates with a socket for the corresponding screwless pin electrical clamp.

In the inner cavity of the base of the housing, the connector of the electrical wires in question, mounting recesses and ventilation recesses are made, which alternate with each other.

A rectangular mounting recess is made along the outer perimeter of the narrow side walls of the base of the housing, the electrical wire connector in question.

In the inner cavity of the housing cover, the electrical conductor connector in question, parallel to its horizontal axis and to each other, there is a socket for a phase (plus) conductive bus and a slot for a zero (minus) conductive bus.

In the inner cavity of the housing cover, the connector of the electrical wires in question, mounting protrusions and ventilation recesses are made, which alternate with each other.

A rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the housing cover, the electrical wire connector in question.

On the cover of the housing of the electrical wire connector under consideration, a cutout is made in the center parallel to the horizontal axis of the proposed electrical wire connector in a plane parallel to the central horizontal axis of the electrical wire connector in the internal cavity of the electric cartridge structurally combined with an electronic ballast (EAPR) or another similar connector for electrical wires.

The phase (plus) conductive bus and the zero (minus) conductive bus are made in the form of a plate of complex shape from a conductive material. Each conductive bus has a long section, the center of which lies on a straight parallel horizontal axis of the electrical connector under consideration and conductive plates located in the plane parallel to its horizontal axis and perpendicular to the narrow long edge of the conductive bus.

The right end and the left end of the phase (positive) conductive bus is a pin electrical outlet.

The right end and the left end of the zero (minus) conductive bus is a pin electrical outlet.

On the left pin electrical terminal of the phase (positive) conductive bus and the left pin electrical terminal of the zero (negative) conductive bus, mechanically and electrically, for example by cold welding, a rectilinear mounting portion of a wave-shaped contact spring is fixed, forming a corresponding phase (positive) screwless pin electric clamp and zero (minus) screwless pin electrical clamp.

On each conductive plate located in a plane parallel to the horizontal axis of the electrical wire connector under consideration and perpendicular to a narrow long face of the phase (plus) conductive bus and zero (negative) conductive bus, mechanically and electrically, for example, by cold welding, a rectilinear mounting section of a wave-like contact spring, thus forming respectively a phase (plus) screwless pin electrical clamp and zero (minus) bezv intovoy pin electric clamp.

On the site, for example, the right end, the phase (plus) pin electrical terminal and the zero (minus) pin electric terminal, on its wide face, facing away from the horizontal axis of the proposed connector of electric wires, perpendicular to the narrow face, nests for supporting turns of a wave-shaped contact spring are made. The profile of each of these nests repeats the surface profile of the contact spring section near the support coil, facing the working face of the pin electrical outlet. The upper edges of these nests are rounded. On the central horizontal axis of the phase (plus) pin electrical terminal and the zero (minus) pin electrical terminal, in the center of each socket for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring. The interface of each socket for the spherical protrusion of the wave-like contact spring and the socket for the support coil of the wave-shaped contact spring are rounded.

A horizontal line passing through the center of the cross section of the pin electrical terminal, each end of the phase (positive) conductive bus and the pin electrical output of each end of the zero (negative) conductive bus, is parallel to its long edge and the central horizontal axis of the proposed connector of electric wires. Moreover, this horizontal line and the central horizontal axis of the proposed connector of electrical wires are located in the same horizontal plane. The distance between the centers of normal sections of the segments of the pin electrical terminals extending beyond the proposed connector of the electrical wires is equal to the distance between the centers of the plugs of a standard electric plug.

The plug, designed to close the free base socket of the proposed connector of electrical wires, is made in the form of three mating cylinders of different sizes. The diameters of these cylinders decrease from left to right. The smallest cylinder is a base protrusion. A thread is made on the side surface of the medium-diameter cylinder to fix the plugs in the housing of the proposed connector of electric wires in the socket for the pin base. The cylinder with the largest diameter serves as an abutment for the fastening ring with an internal thread, which is screwed onto the cylinder with an average diameter when fixing the plug in the socket for the pin base. In the inner cavity of the plug, on the end wall of the thrust protrusion, a stiffening protrusion is made, and a hole for the halyard is made in its center. In the center of the lateral edge of the base protrusion of the plug, with a plane parallel to its central horizontal axis, a cutout is made that fixes the position of the plug in the inner cavity of the base socket of the electros cartridge structurally combined with an electronic ballast (EAPR) or the proposed connector of electrical wires.

Phase (positive) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket in the internal cavity of the base of the proposed connector of electrical wires.

Zero (minus) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket in the internal cavity of the base of the proposed connector of electrical wires.

In this case, the free end of the wave-shaped contact spring of each pin electrical clamp located on the conductive plate perpendicular to the conductive bus, faces the inlet on the base housing of the proposed connector of electrical wires. After that, the lid of the housing, the connector of the electrical wires in question, is pressed tightly to its base.

In this case, the fixing protrusions of the cover are inserted into the corresponding mounting recesses of the base. Each ventilation recess of the cover and the opposing ventilation recess of the base form a single ventilation cavity. A rectangular protrusion around the perimeter of the lid is located in a rectangular recess along the perimeter of the base. The pin phase (positive) electrical terminal of the proposed connector of the electric wires is inserted into the phase (positive) screwless electric clamp of the electric cartridge, which is structurally combined with an electronic ballast (EAPR). The pin zero (minus) electrical terminal of the proposed connector of the electric wires is inserted into the zero (minus) screwless pin electric clamp of the electric cartridge, which is structurally combined with an electronic ballast (EAPR).

The base of the proposed connector of electric wires is fixed in the socket for the pin base of a compact electric energy-saving lamp, in the housing of the electroparton, structurally combined with an electronic ballast (EAF), and fixed in it with a mounting ring that is screwed onto a cylindrical mounting protrusion of the proposed connector of electrical wires. The base of the second proposed connector of electrical wires similar to the first connector of electrical wires, already connected to an electron cartridge, structurally combined with an electronic ballast (EAPR), is fixed in the socket for the pin base of the first proposed connector of electrical wires, and is fixed in it with a mounting ring that is screwed onto a cylindrical mounting tab of the proposed electrical wire connector.

Similarly, connected in series to the proposed connector of electrical wires, the required number of similar proposed connectors of electrical wires, depending on the power of the electronic ballasts, placed in the housing of the cartridge, combined with it. In the basement socket of the leftmost proposed connector of electrical wires, the proposed plug is fixed.

A phase inlet (positive) plug and a zero (minus) plug in the electrical plug connected to an electron cartridge in which a compact, energy-saving, energy-saving fastener is inserted into a pair of inlets that communicate with a phase (plus) pin screwless screwless terminal and a zero (negative) pin screwless terminal lamp. Moreover, the housing of the electric plug is oriented in relation to the housing of the proposed connector of electrical wires using a locking protrusion on the end surface of the electrical plug and a locking recess on the base housing of the proposed connector of electrical wires.

Similarly connected to the proposed connector of electric wires, the number of compact electric energy-saving lamps for which it is designed.

Similarly connected to the proposed connector of electric wires, the number of compact electric energy-saving lamps (1) for which it is designed.

A conductive tip is inserted into the network phase (positive) screwless screw terminal of the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire coming from the phase (positive) terminal of the electric energy source is fixed mechanically and electrically, for example, by crimping .

A conductive tip is inserted into the network zero (negative) screwless screw terminal of the proposed electronic automatic electric switch with touch and remote control, in which mechanically and electrically, for example, by crimping, the conductive core of the electric wire coming from the zero (negative) terminal of the electric power source is fixed .

A conductive tip is inserted into the phase (positive) screwless screw terminal of the consumer, in which mechanically and electrically, for example, by crimping, the conductive core of the electric wire that goes to the electron cartridge combined with the electronic ballast is fixed.

A conductive tip is inserted into the network (minus) screwless screw terminal of the consumer, in which the conductive core of the electric wire going to the electron cartridge combined with the electronic ballast is mechanically and electrically, for example, crimped.

In the network screwless pin phase (positive) clamp of the electric module of the proposed electronic ballast (EAPR) module, located in the housing of the electron cartridge, a conductive tip is inserted, in which mechanically and electrically, for example, by crimping, a conductive core of an electric wire coming from the phase (plus) is fixed screwless terminal of electronic circuit breaker with touch and remote control.

In the network screwless pin zero (minus) electrical clamp of the proposed module of the electronic ballast (EAPR), located in the body of the electron cartridge, a conductive tip is inserted, in which mechanically and electrically, for example, by crimping, a conductive core of an electric wire coming from zero (minus) is fixed screwless terminal of electronic circuit breaker with touch and remote control.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

An infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the field of group application of compact electric energy-saving lamps, increase reliability, reduce material consumption and costs during manufacture and operation, in the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of the compact electric group energy-saving lamps to an electric energy source, an electric connector is used eskih wires and electronic control gear (EAPR) having an annular shape and disposed concentrically.

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps, a connector for electrical wires, an electronic ballast (EAPR) and an electronic automatic electrical switch with touch and remote control.

The proposed connector of electrical wires contains: a housing made of an insulating material, a phase (plus) conductive bus and a zero (minus) conductive bus with screwless pin electrical clamps disposed thereon.

The housing of the proposed connector of electric wires is made in the form of a ring and consists of a base and a cover.

In the inner cavity of the base body, the electrical conductor connector under consideration, coaxial to its side surfaces, there is a slot for a phase (plus) conductive bus with sockets for phase (plus) screwless pin electrical clamps and a slot for a zero (negative) conductive bus with sockets for zero ( minus) screwless pin electrical clamps. Moreover, the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus together, in plan, are the sides of a polygon, for example, fourteen angles, the corners of which are rounded. These nests are separated from both ends by insulating mounting recesses.

In the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a socket for the phase (positive) screwless pin electrical clamp.

In the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a slot for zero (minus) screwless pin electrical clamp.

A slot for a phase (plus) conductive bus with slots for phase (plus) screwless pin electrical terminals and a slot for a zero (minus) conductive bus with slots for zero (negative) screwless pin electrical terminals do not communicate with each other.

In the inner cavity of the base housing, on both sides of the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus, and between the slots for screwless pin electrical clamps made mounting recesses.

Around the perimeter of the outer edge of the side faces of the base case, a rectangular mounting recess is made.

Along the perimeter of the outer edge of the inner side face of the base case, a support ring protrusion is made for an electronic ballast (electronic ballast). On the supporting annular protrusion made a slot for the electronic ball retainer.

In the inner cavity of the housing of the cover of the electrical wire connector under consideration, coaxially to its side surfaces, there is a slot for a phase (plus) conductive bus with sockets for phase (plus) screwless pin electrical clamps and a slot for a zero (minus) conductive bus with sockets for zero (minus) ) screwless pin electrical clamps. Moreover, the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus together, in plan, are the sides of a polygon, for example, fourteen angles, the corners of which are rounded. These nests are interconnected from both ends by insulating mounting tabs.

In the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a socket for the phase (positive) screwless pin electrical clamp.

In the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a slot for zero (minus) screwless pin electrical clamp.

A slot for a phase (positive) conductive bus with sockets for phase (plus) screwless pin electrical terminals and a slot for a zero (minus) conductive bus with slots for zero (negative) screwless terminal electrical terminals are not communicated.

On the upper end face, the cover body, perpendicular to it, inlet openings are located. Moreover, each such inlet communicates with a corresponding socket, respectively, for the phase (plus) screwless pin electrical clamp or for the zero (negative) screwless pin electrical clamp located on the corresponding conductive bus.

In the inner cavity of the base housing, on both sides of the socket for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus and between the sockets for screwless pin electrical clamps are made protrusions.

Around the perimeter of the outer edge of the side faces of the lid body, a rectangular mounting protrusion is made.

A phase (positive) conductive bus with phase (positive) screwless pin electrical clamps located on it is inserted into the corresponding socket in the internal cavity of the base of the proposed electrical wire connector. Moreover, its left extreme phase (positive) screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the left side of its base.

A zero (minus) conductive bus with zero (minus) screwless pin electrical clamps located on it is inserted into the corresponding socket for it in the internal cavity of the base of the proposed connector of electric wires. Moreover, its rightmost zero (minus) screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the right side of its base.

After that, the cover of the connector of electric wires under consideration is pressed tightly to its base.

The free end of the wave-shaped contact spring of each pin electrical clamp located on the phase (plus) conductive bus and zero (minus) conductive bus, faces the inlet on the cover body of the proposed connector of electrical wires. In this case, the fixing protrusions of the cover are inserted into the corresponding mounting recesses of the base. A rectangular protrusion around the perimeter of the lid is located in a rectangular recess around the perimeter of the base, and the lid is pressed tightly to the base.

Electronic ballast (EAF) is made in the form of a monolithic module having the shape of a ring; on the outer side surface of the electronic ballast housing there is a guide protrusion, fixing its position in the inner ring of the proposed connector of electrical wires. In this case, the guide protrusion on the lateral surface of the electronic ballast housing is located in its socket on the support ring of the base housing.

On the upper edge of the electronic ballast housing, on mutually perpendicular lines, there are inlet openings for the network phase (positive) screwless pin electrical clamp and zero (minus) screwless pin electrical clamp, as well as for the phase (plus) screwless pin electrical clamp and zero (minus) screwless pin electrical consumer clamp located inside the electronic ballast housing. Moreover, the free end of the wave-shaped contact spring of each of this pin electrical clamp faces the inlet on the upper face of the housing of the proposed electronic ballasts.

The guide protrusion on the side surface of the electronic ballast housing is located in the socket for it on the support ring of the base housing of the proposed connector of electrical wires. In this case, the inlet holes of the phase (plus) screwless pin electrical clamp of the consumer and the network phase (plus) screwless pin electrical clamp are located mirror symmetrically and in line with the inlet of the zero (negative) screwless pin electrical clamp of the consumer, which are mirror symmetrical with the inlets network zero (minus) screwless pin electrical clamp.

At the end of each electric wire connecting an electron cartridge, in which a compact electric energy-saving lamp is fixed, and which is not structurally combined with an electronic ballast, (EAPR), the proposed connector of electric wires, the proposed electronic ballasts, electronic automatic electrical switch with touch and remote control and a source of electrical energy, fixed, for example, by cold welding, a conductive tip.

In the inner cavity of one of the structural elements of the chandelier, for example, in the inner cavity of the cap covering the hook, to which the chandelier is attached and the electric wires that are suitable for it, are placed, the proposed electric wire connector and electronic ballast (EAPR). In this case, the electronic ballast is located inside the annular body of the proposed connector of electrical wires, and its guide protrusion on the side surface of the housing is located in a socket for it on the support ring of the base housing of the proposed connector of electrical wires, this assembly is strung onto the tube with the help of which the chandelier is mounted on the site .

The leftmost phase (positive) pin electrical clamp of the proposed connector of electric wires and the phase (positive) pin electrical clamp for electric wire coming from the electronic ballast to the proposed connector of electrical wires are located mirror symmetrically.

Each conductive lug mounted on the conductive core of the phase (positive) electric wire coming from the electrons, in which the compact electric energy-saving lamp is fixed, is inserted into a pin electrical clamp located on the phase (positive) conductive bus.

Each conductive tip mounted on a conductive core of a zero (negative) electric wire coming from an electron cartridge, in which a compact electric energy-saving lamp is fixed, is inserted into a pin electrical clamp located on a zero (negative) conductive bus.

A piece of electrical wire, at the ends of which a conductive tip is fixed, the phase (positive) pin electrical clamp of the proposed connector of electrical wires and the phase (positive) pin electrical clamp of the electronic ballasts are interconnected.

A piece of electrical wire, at the ends of which a conductive tip is fixed, the zero (minus) pin electric clamp of the proposed connector of electric wires and the zero (minus) pin electric clip of electronic ballasts are interconnected.

A conductive tip is inserted into the network phase (positive) screwless screw terminal of the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire coming from the phase (positive) terminal of the electric energy source is fixed mechanically and electrically, for example, by crimping .

A conductive tip is inserted into the network zero (minus) screwless screw terminal of the proposed electronic automatic electrical switch with touch and remote control, in which the conductive core of the electric wire coming from the zero (minus) terminal of the electric source is fixed mechanically and electrically, for example, by crimping energy.

A conductive tip is inserted into the phase (positive) screwless screw terminal of the consumer, the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping, on the second end, on the conductive core, of this An electric wire is also fixed to a conductive tip, which is inserted into the network phase (positive) pin screwless terminal of the proposed electronic accelerating apparatus (EAPR) located in the inner ring of the proposed connector of electrical wires.

In the zero (minus) screwless screw terminal of the consumer, the proposed electronic automatic electrical switch with touch and remote control, a conductive tip is inserted, in which mechanically and electrically, for example, by crimping, a conductive core of an electric wire is fixed, at the second end, to a conductive core, of this An electric wire is also fixed with a conductive tip, which is inserted into the network zero (minus) pin screwless terminal of the proposed electronic of ballast (EAPR) located in the inner ring of the proposed connector electrical wires.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

An infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the field of group application of compact electric energy-saving lamps, increase reliability, reduce costs during manufacture and operation, in the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps to the source of electrical energy, used the assembly - [SEP-EPRA] - electric connector wires and an electronic ballast, having a ring-shaped shape and arranged concentrically according to claim 3, and the proposed assembly - [SEP-EPRA] - an electrical wire connector having a ring-shaped shape, on which protrude on the surface opposite to the one on which the inlets are pin electrical leads, and an electronic ballast, having a ring-shaped shape, on which on the surface opposite to the one on which the inlets are located pin electrodes an insulating findings allow to connect them electrically with each other and with other similar assembly.

In the proposed assembly [SEP-EPRA] - the connector of the electrical wires and the electronic ballast are located concentrically and are electrically connected to each other.

The proposed set of lighting electrical equipment contains: compact electric energy-saving lamps, each of which is fixed in an electric cartridge, at least one assembly - [SEP-EPRA] - an electric wire connector and an electronic ballast, having a ring-shaped shape and arranged concentrically according to claim 3, and, at least, the proposed assembly is [SEP-EPRA], electrically interconnected, an electronic automatic switch with touch and remote control.

The proposed connector of electric wires contains: a housing consisting of a base and a cover made of insulating material, a phase (plus) conductive bus and a zero (minus) conductive bus with screwless pin electrical clamps located on them.

Below the extreme section of the phase (positive) conductive bus of the phase (positive) screwless pin electrical clamp, for example, the left, as its continuation is the phase (positive) pin electrical terminal.

Below the extreme section of the zero (minus) conductive bus of the zero (minus) screwless pin electrical clamp, for example the right one, as its continuation is located the zero (minus) pin electrical pin.

The housing of the proposed connector of electric wires is made in the form of a ring and consists of a base and a cover.

In the inner cavity of the base housing, of the electrical wire connector under consideration, coaxially to its side surfaces, there is a socket for a phase (positive) conductive bus with sockets for phase (positive) screwless pin electrical terminals and a socket for a phase (positive) pin electrical terminal, as well as a socket for zero (minus) conductive bus with sockets for zero (minus) screwless pin electrical terminals and a socket for zero (minus) pin electrical terminal but. Moreover, the slot for the phase (positive) conductive bus along with the slot for the zero (negative) conductive bus in the plan are the sides of the polygon, for example, fourteen angles, the corners of which are rounded.

In the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side edge of the base body of the proposed connector of the electrical wires, there is a socket for the phase (positive) screwless pin electrical clamp. In continuation of the extreme socket for the phase (positive) screwless pin electrical clamp, for example the left, there is a socket for the phase (positive) screwless pin electrical outlet.

In the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side edge of the base body of the proposed connector (10) of electric wires, there is a slot for zero (minus) screwless pin electrical clamp. In the continuation of the extreme socket of the zero (minus) screwless pin electrical clamp, for example the right, there is a socket for the zero (negative) pin electrical pin.

A socket for a phase (positive) conductive bus, with its associated sockets for phase (positive) screwless pin electrical terminals and a socket for a phase (positive) pin electrical output, and a slot for a zero (negative) conductive bus, with its associated sockets for zero (minus) screwless pin electrical clamps and a socket for zero (plus) pin electrical output, between each other are separated by insulating mounting recesses from both ends.

In the internal cavity of the base housing, between the sockets for each phase (plus) screwless pin electrical clamp and the sockets for each zero (minus) screwless pin electrical clamp, mounting recesses are made.

On the surface of the lower edge of the base of the housing of the proposed connector of electrical wires, at diametrically opposite ends of the diameter parallel to its horizontal axis, from one end, for example the left, there is a support protrusion, in the center of which is an insulating protrusion, with an opening that is part of the phase socket ( a positive) pin electrical terminal, and on the other end, for example the right, there is a support protrusion, in the center of which an insulating protrusion is located, with an opening that is part slot zero (minus) output pin.

Around the perimeter of the upper edges of the side faces of the base case, a rectangular mounting recess is made.

Along the perimeter of the lower edge of the inner side face of the base body of the proposed connector of electric wires, a support ring protrusion is made for the electronic start-up of the regulatory apparatus. A slit is made on the supporting annular protrusion for fixing the electronic start-up of the regulating apparatus in the internal cavity of the proposed connector of electric wires.

In the inner cavity of the lid body, the electrical conductor connector in question, coaxially with its side surfaces, there is a slot for a phase (plus) conductive bus with slots for screwless pin electrical clamps, as well as a slot for a zero (minus) conductive bus with slots for screwless pin electric clamps.

Moreover, the slot for the phase (positive) conductive bus along with the slot for the zero (negative) conductive bus in the plan are the sides of the polygon, for example, fourteen angles, the corners of which are rounded.

In the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side face of the cover body of the proposed connector of electric wires, there is a socket for the phase (positive) screwless pin electrical clamp.

In the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side face of the cover body of the proposed connector of electric wires, there is a slot for the zero (minus) screwless pin electrical clamp.

The slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus are separated from each other by insulating mounting tabs.

In the inner cavity of the housing of the cover of the proposed connector of electrical wires, between the sockets for each phase (plus) screwless pin electrical clamp and the sockets for each zero (minus) screwless pin electrical clamp made protrusions.

On the surface of the upper outer face of the cover body of the proposed connector of electrical wires, as an extension of each socket for a phase (plus) screwless pin electrical clamp and a socket for zero, an inlet for a conductive tip is made, which is mechanically and electrically connected to the conductive core of the corresponding electrical wire or going from an electron cartridge, in which a compact electric energy-saving lamp is mounted.

In place of the inlet, on the surface of the upper outer edge of the lid body, which is interfaced with a socket for a phase (positive) pin screwless clamp, during which, on the basis of the proposed connector of electric wires, there is a socket for a phase (plus) pin output, in addition to the input hole for the insulating protrusion of the phase (positive) pin electrical terminal of the electronic ballast.

In place of the inlet, on the upper surface of the lid body, which is interfaced with a socket for a zero (negative) screwless clamp, during which, on the basis of the proposed connector of electric wires, there is a socket for a zero (negative) pin, in addition to the inlet, a socket for an insulating protrusion is made zero (minus) pin electrical output electronic ballast.

A phase (positive) conductive bus with screwless pin electrical clamps located on it and a phase (positive) pin electrical pin fixed to it is inserted into the corresponding socket in the base cavity of the proposed connector for electric wires. Moreover, its left extreme screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the left side of its base.

A zero (negative) conductive bus with screwless pin electrical clamps located on it and a zero (negative) pin electrical pin fixed to it is inserted into the corresponding socket for it in the internal cavity of the base of the proposed connector of electric wires. At the same time, its rightmost screwless pin electrical clamp with a zero (minus) pin electrical pin fixed to it is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the right side of its base.

The free end of the wave-shaped contact spring of each pin of the electrical clamp located on the phase (plus) conductive bus and the zero (negative) conductive bus, faces the corresponding inlet on the cover body of the proposed connector of electrical wires.

The mounting protrusions of the cover of the proposed connector of electrical wires are inserted into the corresponding mounting recesses of the base of the proposed connector of electrical wires.

A rectangular protrusion around the perimeter of the cover of the proposed connector of electrical wires, is located in a rectangular recess around the perimeter of the base of the proposed connector of electrical wires.

After that, the cover of the proposed connector of electric wires is pressed tightly to its base.

The ring-shaped housing of the proposed electronic ballast (EAPR), made in the form of a monolithic round cylinder with a central circular cylindrical hole through which passes the mounting tube of the chandelier. Moreover, the length of the generatrix of the housing of the electronic ballast is much less than its radius. Starting from the second assembly [SES-EPRA], the radius of the central circular cylindrical hole of the electronic ballast for each subsequent assembly, connected in parallel to the previous one and located above it, increases by an amount greater than the diameter of the electric wire coming from the proposed connector of electric wires to a compact electric energy-saving the lamp.

On the side surface of the housing of the proposed electronic ballast apparatus is a guide protrusion, fixing its position in the inner cavity of a thick-walled cylinder of the housing of the proposed connector of electrical wires. The guide protrusion on the side surface of the housing of the electronic ballast is located in its slot on the support ring of the base housing.

On the upper base of the annular monolithic housing of the proposed electronic ballast, on the horizontal axis passing through its center, at one end, for example on the left, there is an inlet for a phase (plus) screwless pin electrical clamp, in which a conductive core of an electric wire is connected, going to the phase (positive) screwless pin electrical clamp of the proposed connector of electrical wires, and at the diametrically opposite end, for example measures on the right, there is an inlet for a zero (minus) screwless pin electrical clamp, in which a conductive core of the electric wire is connected that goes to the zero (negative) screwless pin electric clamp of the proposed connector of electric wires.

On the upper base of the annular monolithic body of the electronic ballast, on the axis passing through its center perpendicular to the horizontal axis, at one end, for example at the top, there is an inlet for the network phase (plus) screwless pin electrical clamp of the conductive core of the electrical wire coming from the electronic automatic electric switch with touch and remote control, and at the diametrically opposite end, for example at the lower, Jeno inlet for mains zero (negative), screwless clamping pin electrical conductor of the electrical wire extending from the power source.

The free end of the wave-shaped contact spring of each pin of the electric clamp faces the inlet on the housing of the proposed ring-shaped electronic ballast.

On the lower outer surface of the housing of the proposed ring-shaped electronic ballast, at diametrically opposite ends of the diameter parallel to its horizontal axis, at one end, for example, the left, there is a support protrusion, in the center of which is an insulating protrusion, with an opening that is part of the phase ( positive) pin electrical terminal, to which a conductive core of the output phase (positive) electrical wire of the proposed electronic circuit is connected control apparatus, and on the diametrically opposite end, for example, on the right, there is a support protrusion, in the center of which there is an insulating protrusion, with an opening that is part of the socket for the zero (minus) pin electrical output, to which the conductive core of the output zero (minus) is connected electrical wire electronic ballast.

On the lower outer surface of the housing of the proposed ring-shaped electronic ballast, at diametrically opposite ends of the diameter perpendicular to its horizontal axis, at one end, for example at the top, there is a support protrusion, in the center of which an insulating protrusion is located, with an opening that is part of the network socket a phase (positive) pin electrical terminal to which a conductive core of the output phase (positive) electric wire is connected is proposed electronic control gear, and on the diametrically opposite end, for example, on the lower end, there is a support protrusion, in the center of which there is an insulating protrusion, with an opening that is part of the socket for the zero (minus) pin electrical output, to which the conductive core of the output zero ( negative) electric wire of the proposed electronic ballast.

The housing of the proposed ring-shaped electronic ballast is inserted into the internal cavity of the thick-walled cylinder, the housing of the proposed ring-shaped connector of electric wires and fixed therein by a guide protrusion located on the side surface of the body of the electronic ballast.

Each conductive core of electric wires coming from electrons, in each of which a compact electric energy-saving lamp is fixed, is connected electrically and mechanically, for example by crimping, with a conductive tip.

The phase (positive) pin electrical terminal located on the lower surface of the base of the proposed connector of electrical wires is inserted into the phase (positive) pin electrical terminal located, for example, on the left, on the upper surface of the previous connector of electrical wires.

A zero (minus) screwless pin electrical terminal located on the lower surface of the base of the proposed connector of electrical wires is inserted into a zero (negative) screwless pin electrical terminal located, for example, on the right, on the upper surface of the previous connector of electric wires.

Each conductive tip, to which a conductive core of an electric wire is connected, coming from a pin screwless terminal of an electric cartridge in which a phase (plus) pin electrical terminal of a compact electric energy-saving lamp is fixed, is inserted into a phase (plus) pin electric terminal on the top surface of the cover of the electrical wire connector in question .

Each conductive tip, to which a conductive core of an electric wire is connected, coming from a pin screwless clamp of an electric cartridge in which a zero (minus) pin electrical pin of a compact electric energy-saving lamp is fixed, is inserted into a zero (minus) pin electric clip on the top surface of the cover of the electrical wire connector in question .

The phase (positive) pin electrical terminal located on the lower surface of the base of the proposed connector of electrical wires is inserted into the phase (positive) pin electrical terminal located, for example, on the left, on the upper surface of the previous connector of electrical wires.

A zero (minus) screwless pin electrical terminal located on the lower surface of the base of the proposed connector of electrical wires is inserted into a zero (negative) screwless pin electrical terminal located, for example, on the upper surface of the previous connector of electric wires.

The phase (positive) pin electrical terminal located on the lower surface of the monolithic body of the proposed electronic ballast (EPG) is inserted into the phase (positive) pin electric terminal located, for example, on the left, on the upper surface of the monolithic body of the previous electronic ballast.

A zero (negative) screwless pin electrical terminal located on the lower surface of the monolithic body of the proposed electronic ballast is inserted into a zero (negative) screwless pin electric terminal located, for example, on the right surface of the monolithic body of the previous electronic ballast.

The leftmost phase (positive) pin electrical clamp of the consumer on the upper surface of the cover of the proposed connector of electric wires and the phase (positive) pin electrical clamp on the upper face of the proposed electronic ballast, located on a horizontal axis passing through the center of the cover of the proposed connector of electric wires and the proposed electronic ballasts, located mirror symmetrically and interconnected by an electric wire, to the ends of the conductive core, which are secured, for example by crimping, conductive tips.

The far right zero (minus) pin electrical clamp of the consumer on the upper surface of the cover of the proposed connector of electrical wires and zero (negative) pin electrical clamp on the upper surface of the monolithic body of the proposed electronic ballast, located on a horizontal axis passing through the center of the cover of the proposed connector of electrical wires and electronic ballasts, located mirror symmetrically and interconnected electrically Kim wire conductor ends, which are fixed, for example by molding, conductive tips.

In the inlet for the network phase (positive) screwless pin electrical clamp, on the upper surface of the annular monolithic body of the proposed electronic ballast, inserted conductive tip, electrically and mechanically connected to the conductive core of the electric wire coming from the electronic automatic electrical switch with touch and remote control.

In the inlet for the network zero (minus) screwless pin electrical clamp, on the upper surface of the annular monolithic body of the electronic ballast, a conductive tip is inserted that is electrically and mechanically connected to a conductive core of an electric wire coming from an electric energy source.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

An infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the scope of application of compact electric energy-saving lamps, increase reliability, reduce operating costs, in the proposed set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to an electric source energy, used compact electric energy-saving lamp, with pin base a thread and a thread on its outer surface located outside of the electro-cartridge, similar to a thread on the outer surface of the housing of the used electro-cartridge, in the area of the socket for the basement are compact electric energy-saving lamps.

The proposed set of lighting electrical equipment contains: the proposed compact electric energy-saving lamps, each of which is fixed in an electric cartridge, two or more than two, for example, assemblies - [SEP-EPRA] - an electric wire connector and an electronic ballast, having a ring-shaped shape and arranged concentrically, according to p. 3, and the assembly - [SEP-EPRA] - an electrical wire connector having an annular shape, on which on the surface opposite to that on which the input e holes, the pin electrical leads protrude and, and the electronic ballast, having a ring-shaped shape, on which on the surface opposite to the one on which the input holes are pin electrical terminals, according to claim 4, allowing them to be connected electrically to each other and to the other a similar assembly, and an electronic automatic electrical switch with touch and remote control.

The proposed compact electric energy-saving lamp consists of: a source of radiant energy, a shell and a pin base; the shell of a compact electric energy-saving lamp has a translucent zone or the whole is made of translucent material and at one end, for example on the right, ends with a pin base.

The pin base of a compact electric energy-saving lamp consists of a base protrusion, a mounting protrusion, a pin phase electrical output and a pin zero (minus) electrical output.

The housing of the pin base is made in the form of mating cylinders: a base protrusion and a mounting protrusion, of different diameters. The mounting protrusion with one base is hermetically connected to the casing of a compact electric energy-saving lamp, and the second with a base protrusion.

On the side surface of the mounting protrusion, a thread is made similar to the thread on the outer surface of the housing of the used electric cartridge, in the area of the socket for the pin base, compact electric energy-saving lamps.

Perpendicular to the plane of the free base of the cylinder of the socle projection, a pin phase (positive) electrical terminal and a pin zero (negative) electrical terminal protrude from the pin base.

A fixing cutout is made on the side surface of the cylinder of the base ledge, which allows the compact electric energy-saving lamp to be fixed in the socket for the pin base of the compact electric energy-saving lamp, in the inner cavity of the used electric cartridge, in a strictly defined position.

The pin electrical leads are hermetically soldered into the base ledge. Each electrical lead of a radiant energy source, a compact electric energy-saving lamp, is mechanically and electrically connected to the corresponding pin electrical lead.

Each pin electrical terminal, for example a phase terminal (positive) terminal, is a rectangular plate made of conductive material.

Perpendicular to the wide face of each pin electrical outlet, for example a phase (positive) pin electrical outlet, on its both sides, in the area that is located in the base of the base protrusion, stop cutouts, for example rectangular, are made that prevent its horizontal movement.

Nests for supporting protrusions of a wave-shaped contact spring.

The profile of each of these jacks repeats the surface profile of the contact spring portion facing the working face of the pin electrical terminal, for example, the phase (positive) terminal electrical terminal, at the junction of the support turn and the free end of the first power turn, and at the junction of the support turn with the first power coil and second power coil. The upper edges of these nests are rounded.

On the central horizontal axis, for example, a pin phase (positive) electrical terminal, sockets for a spherical protrusion of the wave-like contact spring are made in the center of each socket for a support protrusion of a wave-like contact spring. The interface of the socket for the spherical protrusion of the wave-like contact spring and the socket for the support protrusion of the wave-shaped contact spring are rounded.

The pin base protrusion of a compact electric energy-saving lamp is inserted into the socket for it in the electro-cartridge case, while the flat surface of the fixing cut-out on the side surface of the socle protrusion is located on the fixing protrusion on the right half of the electro-cartridge case.

The phase (plus) pin electrical terminal of the compact electric energy-saving lamp is inserted into the pin phase (plus) screwless terminal in the housing of the used cartridge.

The zero (minus) pin electrical terminal of the compact electric energy-saving lamp is inserted into the pin zero (minus) screwless clamp in the housing of the used electrons.

The pin electrical leads of the proposed compact electric energy-saving lamp provide a reliable mechanical and electrical connection of the proposed compact electric energy-saving lamp and the used electron cartridge.

A fastening ring with an internal thread made of an insulating material is screwed onto the fastening protrusion of the proposed compact electric energy-saving lamp, while part of the fastening ring remains on the outer surface of the housing of the used electros cartridge, above the area for the base protrusion.

The conductive core of the electric wire coming from the pinless screwless terminal of each electric cartridge, in which the phase (plus) pin electrical output of the proposed compact electric energy-saving lamp is fixed, through the proposed ring-shaped connectors of electric wires and ring-shaped electronic starting regulating devices, as well as an electronic automatic electrical switch with a touch and remote control, electrically connected to the phase (plus) terminal source but electrical energy.

The conductive core of the electric wire coming from the pin screwless clamp of each electric cartridge in which the zero (minus) pin electrical outlet of the proposed compact electric energy-saving lamp is fixed, through the proposed ring-shaped connectors of electric wires and ring-shaped electronic starter control devices, is electrically connected to the zero (minus) terminal of the source electrical energy.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

An infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open.

At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the scope of application of compact electric energy-saving lamps, the proposed set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to a source of electric energy, uses a compact electric energy-saving lamp with a threaded base, and its translucent shell at one end, for example, on the right, it ends with a fastening protrusion, which, with its left base, is hermetically mated with its shell, and with the right, with a socle protrusion, and on the outer surface of the fastening protrusion a thread is made similar to the thread on the outer surface of the housing of the used electros cartridge, energy-saving lamps.

In addition, an electric cartridge was used, consisting of: a housing made of an insulating material, a threaded metal sleeve, two conductive lugs, a cable sleeve, a clamping ring and an insert with a phase (plus) conductive jumper and a zero (minus) conductive jumper complex forms. Moreover, the section parallel to the long side face of the insulator partition, for example, on the left end, on the right side of the phase (plus) conductive jumper, is bent at a right angle so that it is perpendicular to the right base of the insulator cylinder and secured onto it, for example, by cold welding contact spring section. A section parallel to the long side face of the insulator partition, for example, on the right end, on the right side of the zero (minus) conductive jumper, is bent at a right angle so that it is perpendicular to the right base of the insulator, and a fastening section of the contact is fixed, for example, by cold welding springs.

The proposed set of lighting electrical equipment contains: the proposed compact electric energy-saving lamps, each of which is fixed in the proposed electrons, two or more than two, for example, assemblies - [SEP-EPRA] - an electric wire connector and an electronic ballast, having a ring-shaped shape and arranged concentrically, according to p. 3, and the assembly - [SEP-EPRA] - an electric wire connector having a ring-shaped shape, on which on the surface opposite to that on which input holes are made, pin electrical leads protrude and, and an electronic ballast, having an annular shape, on which opposite electric pin holes are located on the surface opposite to the input holes, according to claim 4, allowing them to be connected electrically to each other, and with another similar assembly, and an electronic circuit breaker with touch and remote control.

The proposed compact electric energy-saving lamp consists of: a source of radiant energy, a shell and a threaded base.

The radiant energy source is equipped with a phase (plus) electrode and a zero (minus) electrode, respectively, connected to each of them is a phase (plus) electrical terminal and a zero (negative) electric terminal, used to connect the electrodes to the threaded base.

The shell of a compact electric energy-saving lamp has a translucent zone or the whole is made of a translucent material and at one end, for example, on the right, ends with a fastening protrusion, which with its left base is hermetically mated with the shell of a compact electric energy-saving lamp, and the right with a socle protrusion. On the side surface of the mounting protrusion, a thread is made similar to the thread on the outer surface of the housing of the used electric cartridge, in the area of the socket for the threaded base of the proposed compact electric energy-saving lamps. A standard threaded base is fixed to the base ledge. A mounting ring with a female thread is screwed onto the mounting lug.

The threaded base of a compact electric energy-saving lamp consists of a conductive metal cup, on whose side surface Edison threads are made, and a conductive contact plate, which are interconnected by an annular insulator. A conductive core of the electrical output of the zero (negative) electrode is connected to a metal cup of a threaded base. A conductive core of the electrical output of the phase (plus) electric electrode is connected to the contact plate of the threaded base.

The metal cup of the threaded base is designed to connect the zero (minus) electrical output of the optical radiation source (light source) and the zero (minus) output coming from the electric energy source through the assemblies - [EP-EPRA].

The contact plate of the threaded base of a compact electric energy-saving lamp is designed to electrically connect the phase (positive) output of the radiant energy source and the phase (positive) output coming from the electric energy source through an electronic circuit breaker with touch and remote control and, for example, through assemblies - [BOT-EPRA] -connector of electric wires and electronic ballast, having a ring-shaped shape and arranged concentrically, about p. 3, and the assembly - [SEP-EPRA] - an electric wire connector having a ring-shaped shape, on which opposite the one on which the inlet holes are located, pin electrical terminals and an electronic ballast control device having a ring-shaped shape on the surface opposite to the one on which the inlets are located, the pin electrical outlets protrude according to claim 4, allowing them to be connected electrically to each other, and to another similar assembly,

The base lug of the shell of a compact electric energy-saving lamp is fixedly mounted in the inner cavity of the metal cup of the threaded base.

The proposed electron cartridge consists of: a housing made of electrical insulation material, a threaded metal sleeve, an insert, two conductive terminals, a cable sleeve and a mounting ring.

The housing of the electrons is two cylinders of different diameters sequentially conjugate with the bases, and the diameters of these cylinders decrease, for example, from left to right, and their main horizontal axes are located on one line.

A threaded metal sleeve, a liner with a phase (plus) screwless clamp and a pin zero (negative) screwless clamp, two conductive lugs, with a conductive residential electric wire fixed in each of them, are located in the area of the electric cartridge case, which is formed by the cylinder with the largest diameter, coming from the assembly - [BOT-EPRA] and mounting ring.

The area of the cartridge housing, which is formed by the cylinder with the smallest diameter, forms a cylindrical protrusion of the cartridge, in which the cable sleeve and the mounting tube are located.

The cartridge case consists of two mirror-symmetric halves made of electrical insulating material. An input cylindrical hole for a threaded base of a compact electric energy-saving lamp is made on each half of the electroparticle case, from one end, for example, to the left. Moreover, the diameter of the inlet is larger than the outer diameter of the threaded base of the proposed compact electric energy-saving lamp. On each half of the body of the electric cartridge, at the second end, for example, the right end, a cylindrical recess is made inside the outer cylindrical protrusion for the electric cable and its sleeve. Inside this cylindrical recess, along it, in the area intended for the cable sleeve, a locking protrusion is made to prevent the cable sleeve from moving around the horizontal axis.

On the outer side surface of each half of the housing of the electric cartridge, above the socket for the threaded base of a compact electric energy-saving lamp and insert, a thread is made for the mounting ring.

In the inner cavity of each half of the cartridge case, as a continuation of the inlet for the threaded base, a cylindrical recess with Edison thread for a threaded metal sleeve is made.

In the inner cavity of each half of the cartridge case, as a continuation of the cylindrical recess with Edison thread for a threaded metal sleeve, a cylindrical socket for the cartridge insert was made. At the right end of this cylindrical socket, on its lateral surface a cylindrical socket is made for the cylinder of the insulator of the cartridge insert.

At the left end of this cylindrical socket there is a cylindrical cavity for the left side of the phase (plus) conductive jumper and the left side of the zero (minus) conductive jumper.

At the right end of this cylindrical socket, on its lateral surface a cylindrical socket is made for the cylinder of the insulator of the cartridge insert. In the middle of this nest, on its lateral surface, on both halves of the electro-cartridge case, a left protrusion and a right protrusion are made, respectively, which ensures fixing of the insert in the electro-cartridge case.

On the other side of the socket for the cylinder of the insulator of the cartridge insert, for example, on the right side, above the horizontal axis of the proposed cartridge, there is a socket for a phase (plus) screwless clamp, and below the horizontal axis of the cartridge is a slot for a zero (minus) screwless clamp.

From the right end of each of these nests to a cylindrical recess for an electric cable and cable sleeve, a channel for a phase (positive) electric wire supplying electric energy to the electrons and a channel for zero (negative) electric wire supplying electric energy to the electrons is made.

The cartridge insert intended for mechanical and electrical connection of conductive conductors of electric wires coming from the assembly - [СЭП-ЭПРА], with a contact plate and a metal cup of a threaded base, consists of an insulator, phase (plus) conductive jumper, zero (minus) conductive jumper as well as a pin phase (plus) screwless clamp and a pin zero (negative) screwless clamp.

The insulator of the cartridge insert is a cylinder made of an insulating material.

On one base of the insulator, for example, the right base, at its center, along its diameter, perpendicular to the horizontal axis of the insulator, is a partition. On the partition, perpendicular to the base of the insulator, through ventilation holes are made. At both ends of the diameter of the base of the insulator passing through the middle of the partition, parallel to its long faces, at the diagonally opposite ends of the partition, adjacent to it, a support ledge is made.

On both sides of the long side faces of the partition and on both sides of the cylinder diameter of the insulator body, perpendicular to the long side faces of the partition, there are ventilation openings. Moreover, for example, to the left of the partition, through circular ventilation holes are made. On the other side of the partition, for example, to the right of the partition, through curly ventilation holes are made. These vents are perpendicular to the base of the insulator.

At both ends of the diameter of the cylinder of the insulator passing through the middle of the long faces of the partition, and perpendicular to it, rectangular recesses were made for sections of the conductive bridges connecting their left and right parts. Moreover, the distance between the end inner faces of these recesses is less than the diameter of the insulator cylinder by an amount greater than the sum of the thickness of the sections of the phase (plus) conductive jumper and the zero (minus) conductive jumper connecting their left and right parts.

Between the inner end faces of these recesses and the long faces of the partition, on the base of the insulator, for example, on the right side, there are: curly notches to the left of the partition for sections of the right side of the phase (plus) conductive jumper and to the right of the partition, curly notches for sections of the right side of the zero (negative) conductive jumpers. And on the left side of the base of the insulator are made: to the left of the partition, curly grooves for sections of the left side of the phase (plus) conductive jumper and to the right of the partition, curly grooves for sections of the left side of the zero (negative) conductive jumper. At both ends of the diameter of the cylinder of the insulator passing through the middle of the partition, and in parallel with it, a rectangular cutout is made to fix the liner in the housing of the proposed electrons.

Phase (plus) conductive jumper and zero (minus) conductive jumper made in the form of plates of complex shape.

The zero (minus) conductive jumper consists of the right part and the left part, which are interconnected by a section parallel to the generatrix of the liner insulator cylinder, the right part of the zero (minus) conductive jumper consists of a section perpendicular to the long side edge of the insulator partition and a section parallel to it.

One end, for example, the right side of the zero (minus) conductive jumper, which is parallel to the long side edge of the insulator partition, is bent at a right angle so that it is perpendicular to the right base of the insulator. The second end, for example, the left, right side of the zero (minus) conductive jumper, which is parallel to the long side edge of the insulator partition, abuts against the support protrusion of the insulator of the liner.

The left part of the zero (minus) conductive jumper consists of a section perpendicular to the long lateral edge of the insulator partition and a section parallel to it. The ends of the section of zero (minus) conductive jumper parallel to the long side edge of the insulator partition are extended, free, and are located at an angle to the plane of the left base of the insulator. The free ends of the left side of the zero (minus) conductive jumper end with sections parallel to the plane of the left base of the insulator. They are intended for mechanical and electrical connection, through a metal cup of a threaded base, with the electrical output of the zero (minus) electrode of the radiant energy source of a compact electric energy-saving lamp.

A stopper hole is made in the area of the right side of the zero (minus) conductive jumper, which is perpendicular to the baffle of the insulator body. A stopper hole is made in the area of the left side of the zero (minus) conductive jumper, which is perpendicular to the baffle of the insulator body. Both of these sections are connected by a section parallel to the generatrix of the liner insulator cylinder.

The right part of the zero (minus) conductive jumper, and the left part of the zero (minus) conductive jumper are located in a recess on the right and left base of the insulator cylinder, and are fixed by locking tabs. The right part and the left part of the zero (minus) conductive jumper, when not installed on the insulator, are inclined to each other.

Phase (plus) conductive jumper consists of the right part and the left part, which are interconnected by a section parallel to the generatrix of the liner insulator cylinder.

The right part of the phase (plus) conductive jumper consists of a section perpendicular to the long side face of the insulator partition and a section parallel to it. One end of the section parallel to the long side face of the insulator partition, for example, the left end of the right side of the phase (plus) conductive jumper, is bent at a right angle so that it is perpendicular to the right base of the insulator cylinder. The second end of this section, for example, the right, abuts against the support protrusion of the insulator of the liner.

The left part of the phase (positive) conductive jumper consists of a section perpendicular to the long side face of the insulator partition. One end of this section, for example, the right is free and is located at an angle to the plane of the left base of the cylinder of the insulator. The free end of the portion of the left side of the phase (positive) conductive jumper is intended for electrical connection through the contact plate of the threaded base with the electrical output of the phase (positive) electrode of the radiant energy source of a compact electric energy-saving lamp.

A stopper hole is made in a section perpendicular to the baffle of the insulator, on the right side of the phase (plus) conductive jumper. In the area perpendicular to the baffle of the insulator, on the left side of the phase (plus) conductive jumper, a stopper hole is made. A section perpendicular to the baffle of the insulator, the right side and a portion perpendicular to the baffle of the insulator, the left side of the phase (positive) conductive jumper are connected by a section parallel to the generatrix of the cylinder of the insulator liner .. The right side of the phase (positive) conductive jumper and the left part of the phase (positive) conductive jumper in the recess, respectively, on the right and left base of the cylinder of the insulator and are fixed by locking protrusions.

The right part and the left part of the phase (plus) conductive jumper, when not installed on the insulator, are inclined to each other.

The threaded metal sleeve of the electric cartridge is made in the form of a hollow cylinder, on the inner and outer side surface of which Edison thread is made for the threaded cap of a compact energy-saving electric lamp. The threaded metal sleeve of the cartridge is fixed in the inner cavity of the cartridge housing in such a way that any movement is prevented.

The conductive tip used in the electron cartridge is made of a conductive material and is designed to connect a conductive core of electric wires supplying electricity to the electrons.

The wave-shaped contact spring of the electric cartridge is made of rectangular wire and contains an even number (more than two), for example four incomplete turns, made, in the general case, of different radii; incomplete turns of a wave-shaped contact spring are interconnected in series. Convexes of incomplete turns of a wave-like contact spring have a different direction and alternate sequentially.

Phase (plus) conductive jumper and zero (minus) conductive jumper, with a wave-shaped contact spring fixed in the corresponding place on them, are inserted into the corresponding places on the insulator of the insert. The assembled cartridge insert is inserted into the cylindrical socket intended for it, for example, on the left half of the cartridge case. In this case, the locking protrusion on the surface of the insert socket is located in a cutout for it in the insert insulator housing, and the pin phase (plus) screwless terminal and the pin zero (minus) screwless terminal in the corresponding socket, in the cartridge case.

The fastening tube is screwed into the inner cavity of the cable sleeve of the electro-cartridge. An electric cable with electric wires supplying electric energy to the electron cartridge is stretched through the internal cavity of this assembly. The cable sleeve, with the fixing tube fixed in it, is inserted into the socket for it, for example, on the left half of the cylindrical protrusion of the electric cartridge. The electric wires, after exiting the cable gland, are laid in channels for them, for example, on the left half of the cartridge case.

The conductive core of the zero (minus) electric wire coming to the electrons cartridge under consideration is electrically and mechanically connected to a conductive tip, for example, a crimp, which is inserted into a pin zero (minus) screwless clamp and pressed by a wave-shaped contact spring to the working edge of the end of the right side of the zero (minus) ) a conductive jumper that is bent at a right angle so that it is perpendicular to the right base of the insulator.

The conductive core of the phase (positive) electric wire that comes to the electroparticle under consideration is electrically and mechanically connected to the conductive tip, for example, by crimping, which is inserted into a phase (positive) pin screwless clamp and pressed by a wave-shaped contact spring to the working face of the end of the right part of the phase (positive ) a conductive jumper that is bent at a right angle so that it is perpendicular to the right base of the insulator.

Between themselves, the halves of the electron cartridge case are fastened with fixing recesses in the inner cavity and fixing recesses along the perimeter of the left half of the cartridge case, on the one hand, and fixing protrusions in the inner cavity and fixing protrusions along the perimeter of the right half of the cartridge case on the other hand.

The mounting protrusions are inserted into the mounting recesses, and the halves of the cartridge housing are tightly pressed against each other.

The conductive core of the phase (positive) electric wire coming from the proposed electroparton is electrically and mechanically connected to the conductive tip. The conductive core of the zero (minus) electrical wire coming from the proposed electrons, electrically and mechanically connected to the conductive tip.

The electropatron is installed at the place of use by means of a mounting tube.

The fastening ring is screwed onto the housing of the proposed electron cartridge until it stops. The threaded base of the energy-saving electric lamp is screwed into the threaded metal sleeve of the electric cartridge until it stops.

In this case, the contact plate of the threaded base is pressed against the free area of the left side of the phase (plus) jumper of the cartridge insert.

The upper part of the metal cup with Edison thread of the threaded base is pressed against the free areas of the left part of the zero (minus) jumper of the cartridge insert.

A fixing ring, with an internal thread, made of an insulating material, is screwed onto the mounting protrusion of the proposed compact electric energy-saving lamp.

At the same time, a part of the mounting ring remains on the outer surface of the housing of the proposed cartridge, above the area for the threaded metal sleeve of the liner, and the proposed compact electric energy-saving lamp is reliably mechanically and electrically connected to the proposed cartridge.

The conductive core of the phase (positive) electrical wire coming from the phase (positive) screwless terminal clamp of the proposed electrons is fixed on the fastening section of the conductive tip, and through the assemblies - [SEP-EPRA] and an electronic automatic electrical switch with touch and remote control, electrically connected to the phase (positive) terminal of the electric energy source.

The conductive core of the phase (positive) electrical wire coming from the phase (positive) screwless terminal clamp of the proposed electrons is fixed on the fastening section of the conductive tip, and, through the proposed ring connectors of electric wires and ring electronic starting regulating devices, as well as an electronic circuit breaker with touch and remote control, electrically connected to the phase (plus) terminal of the electric energy source.

The conductive core of the zero (minus) electric wire coming from the pin zero (minus) screwless clamp of the proposed electrons is fixed on the mounting section of the conductive tip, and, through the proposed assemblies - [SEP-EPRA], is electrically connected to the zero (minus) clamp of the electric source energy.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

But the infrared photodetector of the switching semiconductor device or the sensor sensor of the proposed electronic automatic electrical switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the field of group application of compact electric energy-saving lamps, increase reliability, reduce material consumption and costs during manufacturing and operation, significantly increase labor productivity during installation work in the operating environment, in the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) groups ompaktnyh electric energy saving lamp to an electrical source of energy used, having a ring shape, a modular electrical connector wires and electronic control gear (EAPR) disposed concentrically, each of which consists of two modules.

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps, each mounted in an electric cartridge, at least one set of ring-shaped, modular design, an electric wire connector - an electronic ballast and electronic control gear (EAPR) and an electronic automatic switch with touch and remote control.

The proposed electrical wire connector consists of two halves, which are formed by dividing the body of the electric wire connector according to claim 3, by a plane passing through its center and the middle, diametrically opposed, insulating mounting protrusions inserted into insulating recesses, perpendicular to the surface on which the inlets are located its phase (plus) and zero (minus) electrical clamps.

At the same time, on one half of the case, for example, on its left half, for example, on its left end, there is a trapezoidal protrusion for mechanical connection such as "dovetail", and on the other, for example its right end, there is a trapezoidal socket for mechanical connection like " dovetail". On the other half of the case, for example, on its right half, for example on its left end, there is a trapezoidal nest for mechanical dovetail connection, and on the other, for example its right end, there is a trapezoidal protrusion for mechanical dovetail connection ,

On the trapezoidal protrusion of the left half and on the trapezoidal protrusion of the right half, the proposed connector of electric wires, in its lower part, on the base side, a support recess is made, the size of which, along the central circle of the proposed ring-shaped connector of electric wires, hereinafter - the depth, is, for example , one third of the depth of the trapezoidal protrusion.

In the trapezoidal socket of the left half and in the trapezoidal socket of the right half, the proposed connector of electric wires, in its lower part, on the base side, a support protrusion is made, the size of which, along the central circle of the proposed ring-shaped connector of electric wires, is, for example, one third of the depth of the trapezoidal nest.

Structurally designed in this way, the right half of the proposed connector of electric wires is presented as an independent product, in the form, for example, of a phase (plus) module. Structurally designed in the same way, the left half of the proposed connector of electric wires is presented as an independent product, in the form, for example, of a zero (minus) module. Moreover, both of these modules are structurally identical, which are obtained one from the other from any half of the proposed connector of electric wires by rotating it one hundred eighty degrees (in any direction) around the axis passing through the center of the circles of its body i.e. The proposed electrical wire connector is assembled using one unified module.

Under operating conditions, the proposed connector of electrical wires is installed in such a way that the fixing tube of the electric chandelier is located in its central hole; why one of the modules, for example, a phase (plus) unified module of the proposed connector of electric wires is installed in such a way that the fixing tube of the electric chandelier is located in its central hole, and the other, for example, the zero (minus) unified module is installed above it. In this case, the protrusion for the dovetail mechanical connection of the phase (plus) unified module is located above the nest for the dovetail mechanical connection of the zero (negative) unified module, and the socket for the dovetail mechanical connection of the phase (plus) unified the module is located above the protrusion for mechanical dovetail type connection of the zero (minus) unified module, after which both modules are moved vertically towards each other, to the stop but. The protrusion for the dovetail mechanical connection of the zero (minus) unified module is located in the dovetail mechanical connection of the phase (plus) unified module, and the protrusion for the dovetail mechanical connection of the phase (plus) unified the module is located in the dovetail mechanical connection of the zero (minus) unified module.

The proposed thus, the connector of the electric wires is mounted on a special ledge on the mounting tube of the electric chandelier.

The proposed electronic control gear (EAPR) consists of two halves, which are obtained by dividing the electronic control gear (EAPR) according to claim 3 by a plane passing through its center, perpendicular to the surface on which the input openings of its network and consumer electrical clamps are located, between the network phase (plus) screwless clamp and zero (minus) screwless consumer clamp, as well as between the network zero (negative) screwless clamp and phase (plus) screwless clamp imom consumer. At the same time, on one half of the housing of the proposed annular electronic ballast (EAPR), for example, on the left half, at its ends, respectively, are the left connecting protrusion and the right connecting protrusion, and on the other half of the housing of the proposed ring-shaped electronic ballast (EAPR) for example, on the right half, at its ends, respectively, are located the left connecting recess and the right connecting recess.

On one connecting protrusion, the left half of the proposed ring-shaped electronic ballast (EAPR), for example on the left connecting protrusion, there is a phase (positive) pin electrical outlet, and on its other connecting protrusion, for example on the right connecting protrusion, there is a zero (minus) screwless clamp. Structurally designed in this way, the left half of the proposed ring-shaped electronic ballast (EAPR) is presented as an independent product, in the form of a structural element - phase (plus) module (FM electronic ballast), which is used to assemble the proposed ring-shaped electronic ballast (EAPR).

On one connecting recess, the right half of the proposed ring-shaped electronic ballast (EAPR), for example, on the left connecting recess, there is a phase (positive) screwless clamp, and on its other connecting recess, for example, on the right connecting recess, there is a zero (minus) pin electric output. Structurally designed in this way, the right half of the proposed ring-shaped electronic ballast (EAPR) is presented as an independent product, in the form of a structural element - zero (negative) module (NM EPR), which was used to assemble the proposed ring-shaped electronic ballast (EAPR).

The proposed phase (plus) module (FM ballasts) and zero (minus) module (NM ballasts) using a phase (plus) screwless electrical clamp and phase (positive) pin electrical output, as well as zero (negative) screwless electrical clamp and zero ( minus) pin electrical output are interconnected, forming the proposed ring-shaped electronic ballast (EAPR).

In this case, the phase (positive) pin electrical terminal, on the left connecting protrusion, of the phase (positive) module (FM electronic ballast) is located in the phase (positive) screwless clamp on the left connecting notch, the zero (negative) module (NM electronic ballast), and the zero (minus) pin electrical terminal on the right connecting recess of the zero (negative) module (NM electronic ballasts), is located in the zero (negative) screwless clamp on the right connecting protrusion of the phase (plus) module (FM electronic ballasts).

At the place of constant operation, the proposed ring-shaped electronic ballast (EAPR) is installed so that the mounting tube of the electric chandelier is located in its central hole.

Why one of the modules of the proposed ring-shaped electronic ballast (EAPR), for example a phase (plus) module (FM electronic ballast), is installed above the proposed connector of electric wires, and a second module, for example zero (negative) module (NM electronic ballast) is installed above the phase (positive) module (FM electronic ballasts), after which both modules move vertically towards each other, until they stop.

In this case, the phase (positive) pin electrical output, on the left protrusion, of the phase (positive) module (FM electronic ballast), is located in the phase (positive) screwless clamp, connecting recess, zero (negative) module (NM electronic ballast), and zero (negative) ) a pin electrical terminal, a connection recess of the zero (negative) module (NM electronic ballast), is located in the zero (negative) screwless clamp of the connecting protrusion of the phase (plus) module (FM electronic ballast).

The assembled, thus proposed ring-shaped electronic ballast (EAF), is installed in the inner ring of the proposed connector of electrical wires, so that its locking protrusion is located inside the locking notch in the annular supporting protrusion of the proposed ring-shaped connector of electric wires, and the housing of the proposed ring-shaped electronic ballast (EAFR) rests on him.

A conductive tip fixed to the end of a conductive core of an electric wire coming from the phase (plus) terminal of an electric energy source and a conductive tip fixed to an end to a conductive core of an electric wire coming from a zero (minus) terminal of an electric energy source, are fixed in the corresponding input screwless electric clamps of the proposed electronic automatic electrical switch with touch and remote control.

The conductive lug mounted on the end of the conductive core of the electric wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control is fixed in the network phase (positive) screwless terminal of the phase (positive) module (FM electronic ballast).

A conductive tip fixed to the end of the conductive core of the electric wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control is fixed in the network zero (plus) screwless terminal of the zero (negative) module (NM electronic ballast).

A piece of electrical wire, at each end of which, on its conductive core, a conductive tip is fixed, is positioned so that one of its conductive tip is located in the network phase (plus) screwless clamp, phase (plus) module (FM electronic ballast), and the second one The conductive tip is located in the phase (plus) screwless clamp of the proposed ring-shaped connector of electrical wires, for example on its left half and, for example, through which its horizontal axis passes.

A piece of another electrical wire, at each end of which, on its conductive core, a conductive tip is fixed, is arranged in such a way that one of its conductive tips is located in the network zero (minus) screwless clamp, zero (minus) module (NM electronic ballast), and the second its conductive tip is located in the zero (negative) screwless clamp of the proposed ring-shaped connector of electrical wires, for example on its right half and, for example, through which it passes horizontally I axis.

At the end of the conductive core of each electrical wire coming from the electron cartridge of a compact electric energy-saving lamp, a conductive tip is fixed.

The conductive tip of the phase (positive) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is placed in a phase (positive) screwless clamp, for example, on a phase (plus) unified module of the proposed ring-shaped connector of electric wires.

The conductive tip of the zero (minus) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is located in the zero (minus) screwless clamp, for example, on the zero (minus) unified module of the proposed ring-shaped connector of electric wires.

Each electric cartridge of the proposed set of lighting electrical equipment has a compact electric energy-saving lamp.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

A photodetector of a switching semiconductor device or a touch sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

In order to expand the field of group application of compact electric energy-saving lamps, increase reliability, reduce material consumption and costs during manufacturing and operation, significantly increase labor productivity during installation work in operating conditions, in the proposed set of lighting electrical equipment, which provides the most rational connection of a radiation source ( infrared radiation, visible radiation and ultraviolet radiation) compact The electrical energy saving bulbs to an electrical power source is used, a set of - (FEP EAPRA) consisting of, disposed concentrically and parallel-connected, ring-shaped electrical connector wires (BOT) collected via the unified module and electronic control gear (EAPR). assembled from a phase (plus) module (FM electronic ballasts) and zero (negative) module (IM ballasts), is connected in parallel with a set - (SES-EAPRA), consisting of located, concentrically and parallelly connected, ring-shaped connector of electric wires (SES), assembled using a standardized module with a pin electrical outlet, on the surface opposite to that on which the inlet openings of its electrical clamps are located, and an electronic ballast (EAPR). assembled from a phase (positive) module (FM electronic ballast) with a phase (positive) pin electrical output of the consumer and a network phase (positive) pin electrical output, on the surface opposite to that on which the input holes of their electrical clamps, respectively, and zero (minus) are located ) module (NM electronic ballasts) with a zero (minus) pin electrical output of the consumer and a network zero (minus) pin electrical output on the surface opposite to the one on which the inlet openings of their electric electrical clamps, respectively.

The used unified module of the connector of electric wires on the surface opposite to that on which the input holes of the electric clamps are located, as a continuation of its conductive bus, for example, opposite the electric clamp located next to the trapezoidal protrusion for the mechanical dovetail protrusion from the case of the universal module protrudes a pin electrical outlet.

At the exit point of the pin electrical outlet, from the housing of the unified phase (plus) module of the proposed connector of the electrical wires, there is a support protrusion, in the center of which is an insulating protrusion, with an opening that is part of the socket for the pin electrical outlet.

The pin electrical outlet allows you to connect electrically in parallel, the required number of such unified modules, as well as to connect, the proposed, assembled from unified modules, a connector for electrical wires, with a connector for electrical wires according to claim 3, or with a connector for electric wires according to 7.

At the used phase (plus) module of the proposed electronic ballast, on the surface opposite to that on which the inlet of the network phase (plus) electrical clamp is located and the inlet of the phase (positive) electrical clamp of the consumer, opposite the electrical clamp protrudes from the housing of the proposed module accordingly, the phase (positive) pin electrical output of the consumer and the network phase (positive) pin electrical output.

At the exit point of these pin electrical leads, from the housing of the unified phase (plus) module (FM EAPRA) there is a support protrusion, with an insulating protrusion located in the center of each of them, with an opening that is part of the socket for the pin electrical lead.

At the used zero (minus) module of the proposed electronic ballast, on the surface opposite to that on which the inlet of the network zero (minus) electrical clamp and the inlet of the zero (minus) electrical clamp of the consumer protrudes from the housing of the proposed module, opposite each electrical clamp accordingly, the zero (minus) pin electrical output of the consumer and the network zero (minus) pin electrical output.

At the exit point of these pin electrical leads, from the housing of the unified zero (negative) module (NM EAFRA), there is a support protrusion, with an insulating protrusion located in the center of each of them, with an opening that is part of the socket for the pin electrical outlet, respectively.

The phase (positive) pin electrical output of the consumer and the network phase (positive) pin electrical output, phase (positive) module (FM electronic ballasts) of the proposed electronic ballast apparatus (electronic ballasts) allow electrically connected in parallel, the required number of similar modules (FM electronic ballasts).

The zero (minus) pin electrical output of the consumer and the network zero (minus) pin electrical output, zero (minus) module (NM electronic ballasts) of the proposed electronic ballasts (electronic ballasts) allow you to connect each other electrically in parallel, the required number of similar modules (NM electronic ballasts).

These pin electrical leads can also be connected, assembled from a phase (plus) module (FM electronic ballast) and zero (negative) module (FM electronic ballast), the proposed electronic ballast (EPRA) or electronic ballast according to claim 3, or with an electronic ballast apparatus according to claim 7.

Under operating conditions, the proposed connector of the electrical wires and the proposed electronic ballast are arranged concentrically and are properly electrically interconnected.

In this case, the phase (positive) electrical clamp of the consumer, the proposed electronic ballast, is electrically connected to the phase (positive) electrical clamp of the consumer of the proposed connector of electric wires.

And the zero (minus) electrical clamp of the consumer, the proposed electronic ballast, is electrically connected to the zero (minus) electrical clamp of the consumer of the proposed connector of electric wires.

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps, each mounted in an electric cartridge, at least one assembly: a set of ring-shaped, modular design, an electric wire connector is an electronic ballast (EAF), according to claim 7, which is connected in parallel with a set of ring-shaped, modular design, connector of electric wires - electronic ballast (EAPR), with phase (plus) pin electric eskim output and zero (negative) electrical terminal pin on a surface opposite to that on which the inlets their electrical terminals, respectively, remote control of an electronic automatic electric breaker with remote control and touch.

The proposed remote control of an electronic automatic electric switch with touch and remote control functionally consists of a button associated with a piezoelectric element, a transducer - an amplifier emitting an LED, and is made in the form of a key fob simulating an electric bulb with a threaded base truncated by two planes parallel to its horizontal axis of symmetry ; the place of the bulb of the light bulb is occupied by the housing of the amplifier of the converter, on its side surface, for example the front, (in place of the secant plane) there is a button connected to the piezoelectric element, for example, on its right end face, there is a radiating LED; and on its opposite end face, for example, on the right, a mounting protrusion simulating a truncated threaded base of a light bulb, in which a thread is imitated on the narrow side faces, and on its short free face there is a section simulating a threaded base insulator and a phase contact ledge of a light bulb with a threaded base, and on its wide face made a hole for attaching a chain or twine.

The proposed electrical wire connector consists of, appropriately mechanically and electrically connected, two proposed identical unified modules.

For a unified module of the connector of electric wires, on the surface opposite to that on which the input holes of the electric clamps are located, as a continuation of its conductive bus, for example, opposite the electric clamp located next to the trapezoidal protrusion for the mechanical dovetail connection from the body of the unified module protrudes a pin electrical outlet.

The second unified module, necessary for assembling the proposed connector of electric wires, is obtained if one of the two necessary unified modules is rotated, around the center of the circumference of its body, one hundred and eighty degrees, in any direction.

In operating conditions, the proposed connector of electrical wires is installed above a set of ring-shaped, modular design, the connector of electrical wires is an electronic ballast (EAF), according to p. 7

First, the conductive tip of the phase (positive) electric wire coming from each of the proper amount. for example, six pieces, electro-cartridges of compact electric energy-saving lamps, are placed in a phase (plus) screwless clamp, for example, on the left half of the proposed ring-shaped connector of electrical wires according to claim 7, and a conductive tip of a zero (negative) electric wire coming from each of the appropriate number , for example, six pieces, electric cartridges of compact electric energy-saving lamps, are placed in a zero (minus) screwless clamp, for example, on the right half a ring-shaped connector of electric wires according to claim 7.

Then, one of the unified modules, for example, the proposed connector of electric wires, is installed below, for example, another unified module, and the fixing tube of the electric chandelier is located in their central hole.

The protrusion for the mechanical connection of the dovetail type, for example, the lower unified module, the proposed connector of electric wires, is located under the socket for the mechanical connection of the dovetail type of the upper unified module, the proposed connector of the electric wires, and the socket for the mechanical connection of the type " dovetail ", for example, the lower unified module of the proposed connector of electric wires, is located under the protrusion for mechanical connection type "Swallowtail" unified upper module, the proposed connector electrical wires.

After that, both modules are moved vertically towards each other, to the stop. Moreover, the protrusion for the dovetail mechanical connection, for example, the lower unified module, the proposed connector of electric wires, is located in the socket for the mechanical dovetail type, for example, the upper unified module, the proposed connector of the electric wires, and the protrusion for the mechanical dovetail connections, for example, the upper unified module of the proposed electrical wire connector, is located in the socket for mechanical connection type "dovetail", for example, the lower unified module of the proposed connector electrical wires.

Thus assembled, the proposed connector of the electric wires is moved along the mounting tube of the electric chandelier located in its central hole, until it stops with the previously installed ring-shaped connector of the electric wires according to claim 7.

As a result, one pin electrical terminal of the proposed connector of electric wires is located, for example, in the phase (plus) electrical terminal of the consumer of the ring-shaped connector of electric wires according to claim 7, and its second pin terminal is located, for example, in the zero (negative) terminal of the consumer , an annular connector of electrical wires according to claim 7.

The proposed electronic ballast (EAPR) consists of a phase (plus) module (FM electronic ballasts) and zero (negative) module (IM ballasts) according to claim 7, which are made with pin electrical leads located on the surface opposite to the one on which inlets of electrical clamps.

The used phase (plus) module, the proposed electronic ballast, on the surface opposite to that on which the inlets of the network phase (plus) electrical clamp and phase (plus) electrical consumer clamp are located, from the housing of the proposed phase (positive) module, opposite each electrical clamp, protrudes a pin electrical outlet. The protruding pin electrical terminals allow you to connect each other electrically in parallel, the required number of proposed phase (plus) modules.

The used zero (minus) module, the proposed electronic ballast, on the surface opposite to that on which the inlets of the network zero (minus) electrical clamp and zero (minus) electrical consumer clamp are located, from the housing of the proposed zero (minus) module, opposite each electrical clamp, protrudes a pin electrical outlet. The protruding pin electrical terminals allow you to connect each other electrically in parallel, the required number of proposed zero (plus) modules.

The proposed phase (plus) module FM EPRA) and the zero (minus) module (NM EPRA) using the connecting protrusions and connecting recesses, as well as screwless electrical clamps and pin electrical terminals located on them, are properly connected to each other, forming the proposed ring-shaped electronic ballast (EAPR) with an annular body. In this case, the phase (positive) pin electrical output, on the left protrusion, of the phase (positive) module (FM electronic ballast), is located in the phase (positive) screwless clamp, left connecting recess, zero (negative) module (NM ballast), and zero ( the negative) pin electrical terminal of the right connecting recess of the zero (negative) module (NM electronic ballast) is located in the zero (negative) screwless clamp of the right connecting protrusion of the phase (plus) module (FM electronic ballast).

At the place of constant operation, the proposed ring-shaped electronic ballast (EAF) is installed after a set of ring-shaped, modular design connector of electric wires is installed - the electronic ball-and-ball device (EAF), according to claim 7 and the proposed, modular design ring-shaped connector of electric wires, and installed so that the mounting tube of the electric chandelier is located in its central hole.

One module of the proposed ring-shaped electronic ballast (EAPR), for example a phase (plus) module (FM electronic ballasts), is installed above the proposed, modular design of the ring-shaped connector of electric wires, and a second module, for example zero (negative) module (NM ballasts) is installed above phase (plus) module (FM electronic ballasts), after which both modules move vertically towards each other, until they stop. In this case, the phase (positive) pin electrical output, on the left protrusion, of the phase (positive) module (FM electronic ballast), is located in the phase (positive) screwless clamp, left connecting recess, zero (negative) module (NM ballast), and zero ( the negative) pin electrical terminal of the right connecting recess of the zero (negative) module (NM electronic ballast) is located in the zero (negative) screwless clamp of the right connecting protrusion of the phase (plus) module (FM electronic ballast).

The assembled, thus proposed ring-shaped electronic ballast (EAPR), is installed in the inner ring of the previously installed, modular design ring-shaped connector of electrical wires, so that its guide protrusion is located inside the guide cutout in the annular thrust protrusion of the proposed ring-shaped connector of electrical wires, and the body of the proposed ring-shaped electronic ballast (EAPR) abuts against it.

As a result, the phase (positive) electrical output of the consumer and the phase (positive) electrical output of the proposed electronic ballast (EAPR) are located, respectively, in the phase (positive) electrical terminal of the consumer and in the phase (positive) network terminal of the ring-shaped electronic ballast apparatus (EAPR) according to claim 7, and the zero (minus) electrical output of the consumer and the zero (minus) network electrical protrusion of the proposed electronic ballast apparatus (EAPR), are located, respectively, in the zero (negative) electrical clamp of the consumer and in the zero (negative) network electrical clamp of the ring-shaped electronic ballast (EAF) according to claim 7.

A piece of electrical wire, at each end of which a conductive tip is fixed on its conductive core, is arranged in such a way that one of its conductive tip is located in the phase (plus) screwless clamp, the consumer of the phase (plus) module of the proposed ring-shaped electronic ballast (EAPR), and its second conductive tip is located in the phase (plus) screwless clamp of the proposed ring-shaped connector of electrical wires, for example on its uniform Wann module and, for example, through which its horizontal axis.

A piece of another electrical wire, at each end of which a conductive tip is attached to its conductive core, is arranged in such a way that one of its conductive tips is located in the zero (minus) screwless clamp of the consumer, the zero (minus) module of the proposed ring-shaped electronic ballast (EAF), and its second conductive tip is located in the zero (minus) screwless clamp of the proposed ring-shaped connector of electrical wires, for example and its unified module and, for example, through which its horizontal axis passes.

A conductive tip fixed to the end of the conductive core of the electric wire coming from the phase (plus) terminal of the electric power source and a conductive tip fixed to the end of the conductive core of the electric wire coming from the zero (minus) terminal of the electric power source are fixed to the corresponding input screwless electric clamps, respectively, of the proposed electronic automatic electrical switch with touch and remote control.

The conductive lug mounted on the end of the conductive core of the electric wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control is fixed in the network phase (positive) screwless terminal of the phase (positive) module (FM electronic ballast).

A conductive tip fixed to the end of the conductive core of the electric wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control is fixed in the network zero (plus) screwless terminal of the zero (negative) module (NM electronic ballast).

The conductive tip, mounted on the conductive core of the phase (positive) electrical wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is inserted into the network phase (positive) screwless terminal located in the phase (positive) module (FM electronic ballasts).

The conductive tip, mounted on the conductive core of the zero (negative) electrical wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is inserted into the network zero (negative) terminal located in the zero (negative) module (NM electronic ballasts).

At the end of the conductive core of each electrical wire coming from the electric cartridge of a compact electric energy-saving lamp, a conductive tip is fixed.

The conductive tip of the phase (positive) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is placed in a phase (positive) screwless clamp, for example, on the unified module of the proposed ring-shaped connector of electric wires, and after filling in all phase (positive) screwless clamps on it , in phase (plus) screwless clamps on a unified module of the proposed ring-shaped connector of electrical wires.

The conductive tip of the zero (minus) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is placed in the zero (minus) screwless clamp, for example, on the unified module of the proposed ring-shaped connector of electric wires, and after filling all zero (minus) screwless clamps on it , in zero (minus) screwless clamps on a unified module of the proposed ring-shaped connector of electrical wires.

Each electric cartridge of the proposed set of lighting electrical equipment has a compact electric energy-saving lamp.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to an electric energy source is assembled.

A photodetector of a switching semiconductor device or a touch sensor of the proposed electronic automatic electric switch with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

Figure 1 - figure 16 shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to an electric energy source , which uses a compact electric energy-saving lamp, not combined with an electronic ballast (EAF), connected to using the power of its phase (positive) pin electrical output and zero (negative) electrical output with an electric cartridge that is not combined with an electronic ballast (EAF), we used an electric wire connector that provides a group connection of compact electric energy-saving lamps, which, with the help of its phase (positive ) of a pin electrical terminal and a zero (minus) pin electrical terminal connected to an electric cartridge structurally combined with an electronic trigger control device (EAPR), and the help of an electric plug, and its phase (plus) screwless pin electrical clamp and zero (minus) screwless pin electrical clamp, is connected to the proposed electrons, not combined with an electronic ballast (EAF), and also used electronic automatic electric switch with touch and remote control. Figure 1 shows a General view of the proposed set of lighting electrical equipment; figure 2 shows the assembly of the proposed set of lighting electrical equipment without housing parts, the proposed connector of the electrical wires and the proposed electro-cartridge, combined with an electronic ballast (EAPR); figure 3 shows a General view of a compact electric energy-saving lamp with a pin base; figure 4 shows the Assembly of the cartridge, not combined with an electronic ballast (EAPR), without the right half of the housing; figure 5 shows the assembly of the proposed compact electric energy-saving lamp with a pin base and the proposed electrocartridge, not combined with an electronic ballast (EAF), without the right half of the housing; figure 6 shows a General view of the proposed electric plug; figure 7 shows the assembly of the proposed electric plug without the right half of the housing; on Fig depicts the assembly of the proposed electric plug without the right half of the housing and the proposed electro-cartridge, not combined with an electronic ballast (EAPR), without the right half of the housing; figure 9 shows a General view of the proposed connector of electric wires; figure 10 shows the assembly of the conductive bus of the proposed connector of electric wires with located on it screwless pin electrical clamps; figure 11 shows the base of the proposed connector of electric wires in the inner cavity, which is placed conductive busbars located on them with screwless pin electrical clamps; in Fig.12 shows the base of the proposed connector of electrical wires; in Fig.13 shows the cover of the proposed connector of electric wires in the inner cavity, which is placed conductive busbars located on them with screwless pin electrical clamps; on Fig shows the cover of the proposed connector of electric wires; on Fig depicts the Assembly of the cartridge, combined with an electronic ballast (EAPR), without the right half of the housing; Fig.16 shows a General view of the proposed electronic automatic electrical switch with touch and remote control.

In Fig.17 - Fig.26 shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to a source of electrical energy , which uses an electric wire connector, the design of which provides reliable mechanical and electrical serial connection The desired number of similar connectors of electric wires is connected to each other, and using its free, phase (plus) and zero (minus) pin electrical leads is connected to an electric cartridge, structurally combined with an electronic ballast (EAF), and an electronic automatic electrical switch with a touch and remote control. On Fig shows a General view of the proposed set of lighting electrical equipment; on Fig depicts the assembly of the proposed set of electrical equipment without housing parts of the proposed connector of the electric wires and the proposed electrocartridge, combined with an electronic ballast (EAPR); on Fig shows a General view of the proposed connector of electric wires with a plug; in Fig.20 shows a General view of the proposed connector of electrical wires without a plug; on Fig depicts the assembly of a conductive bus with located on it screwless pin electrical clamps; in Fig.22 shows the base of the proposed connector of electric wires, in the inner cavity of which are conductive busbars with screwless pin electrical clamps located on them; in Fig.23 shows the cover of the proposed connector of electric wires in the inner cavity, which is placed conductive busbars located on them with screwless pin electrical clamps; on Fig shows the base housing of the proposed connector of electrical wires; on Fig shows the housing of the cover of the proposed connector of electric wires; in Fig.26 shows a plug covering a free socket for the cap of the proposed connector of electrical wires.

In Fig.27 - Fig.35 shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment, which provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to a source of electrical energy , in which the connector of electric wires and an electronic ballast (EAPR) are used, having an annular shape of the body and located nnye concentrically. On Fig depicts a General view of the proposed set of lighting electrical equipment; on Fig depicts the assembly of the proposed electrical kit without body parts of the proposed ring-shaped connector of electrical wires; on Fig shows a General view and assembly of the proposed ring-shaped connector of electrical wires and a ring-shaped electronic ballast (EAPR); Fig.3O shows a General view and section of the proposed ring-shaped connector of electrical wires with connected electrical wires going to a compact electric energy-saving lamps; on Fig shows a General view and section of the proposed ring connector of electrical wires; on Fig shows the cover of the proposed ring connector of electrical wires and its cross section; on Fig shows the base of the proposed ring-shaped connector of electrical wires and its cross section; Fig.34 shows the assembly of a conductive busbar used in the proposed ring-shaped connector of electrical wires; on Fig depicts a General view of the proposed ring-shaped electronic ballast (EAPR).

On Fig - Fig 42 shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a group of compact electric energy-saving lamps to an electric energy source. In the proposed set of lighting electrical equipment used assembly - [SEP-EPRA] - connector of electric wires and an electronic ballast, having a ring-shaped shape and arranged concentrically, the design of which provides the proper, reliable mechanical and electrical connection of the required number of similar assemblies - [SEP-EPRA] - an electric wire connector and an electronic ballast, between each other, and an electronic automatic electrical switch with a sensor th and remote control. On Fig shows a General view of the Assembly - set - (SES and EAPRA) without protruding pin electrical leads and connected in parallel with the set - (SEC and EAPRA) with protruding pin electrical leads; on Fig depicts a rear view and a side view of the Assembly - the proposed kit - (BOT and EAFRA) with protruding pin electrical leads; on Fig depicts a General view of the Assembly - set - (BOT and EAFRA), interconnected in parallel, with protruding pin electrical terminals; Fig.39 shows a view of the proposed electronic start-up regulatory apparatus (ECG) with protruding pin electrical leads; on Fig shows a view of the proposed connector of electric wires (BOT) with protruding pin electrical leads; on Fig shows a front view, a top view and a section of the proposed connector of electric wires (BOT) with protruding pin electrical leads; on Fig shows a front view and a top view of the phase (positive) conductive bus of the proposed connector of electric wires (BOT) with located on it phase (plus) screwless pin electrical clamps and phase (plus) pin electrical terminal.

In Fig. 43 - Fig. 47 shows a general view, assembly, some sections and details of the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electrical energy, in which uses a compact electric energy-saving lamp with a pin base and a thread on its outer surface located outside of the electric cartridge, similar to the thread on the outer surface of the housing of the used cartridge, in the area of the socket for the base of the compact electric energy-saving lamps. On Fig depicts a General view of the assembly of the proposed set of lighting electrical equipment; in Fig.44 shows a General view of the assembly of the proposed compact electric energy-saving lamp with an electric cartridge; on Fig depicts a General view of the proposed compact electric energy-saving lamp; on Fig depicts the assembly of the proposed compact electric energy-saving lamp with an electric cartridge without the right half of its housing and without a mounting ring; Fig. 47 shows the assembly of the proposed compact electric energy-saving lamp with an electric cartridge and with a partial cut-out of the mounting ring.

On Fig - Fig shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electrical energy, in which uses a compact electric energy-saving lamp, with a threaded base, and its translucent sheath at one end, for example on the right ends with a mounting protrusion, which, with its left base, is hermetically mated with its shell, and the right, with the base protrusion, and on the outer surface of the mounting protrusion a thread is made similar to the thread on the outer surface of the housing of the used electrons, in the area of the socket for the base there are compact electric energy-saving lamps. And also used an electron cartridge, consisting of: a housing made of electrical insulation material, a threaded metal sleeve, two conductive lugs, a cable sleeve, a clamping ring and an insert that has a phase (plus) conductive jumper and a zero (negative) conductive jumper on the insulator forms in which the section is bent at right angles so that it is perpendicular to the right base of the cylinder of the insulator is fixed, for example, by cold welding , The fixing portion of the contact spring. On Fig depicts a General view of the assembly of the proposed set of lighting electrical equipment, which uses a compact electric energy-saving lamp, as well as the proposed electron cartridge; in Fig.49 shows the assembly of the proposed compact electric energy-saving lamp with the proposed electro-cartridge without the right half of its body and mounting ring; in Fig.5 0 shows a General view of the proposed compact electric energy-saving lamp; in Fig.51 shows the assembly of the proposed electropart without the right half of its body; in Fig.52 shows the assembly of the liner of the proposed cartridge; Fig. 53 shows an assembly of a phase (positive) conductive jumper of a liner of the proposed electron cartridge; Fig.54 shows the assembly of the zero (minus conductive jumper liner used elektropatrona; Fig.55 shows the left half of the housing, the proposed elektronik; Fig.56 shows the right half of the housing, the proposed elektropatron.

On Fig - Fig shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electrical energy, in which is used, assembled using a unified module, an annular connector of electrical wires and an electronic ballast (EAP) ) Modular design, disposed concentrically, each of which consists of two module halves. On Fig depicts a General view of the assembly of the proposed set of lighting electrical equipment; on Fig depicts the assembly of the proposed set of lighting electrical equipment without body parts of the proposed connector of electrical wires; in Fig.59 shows the assembly of the proposed connector of electric wires and electronic ballast (EAPR); on Fig shows the assembly of a unified module of the proposed connector of electric wires; Fig.61 shows the assembly of the base of the unified module of the proposed connector of electrical wires; Fig.62 shows the cover of the unified module of the proposed connector of electrical wires; Fig.63 shows a General view of the proposed electronic ballast apparatus (EAF); Fig.64 shows a General view of the phase (plus) module of the proposed electronic ballast (EAF); Fig.65 shows a General view of the zero (minus) module of the proposed electronic ballast apparatus (EAF).

Fig.66 - Fig.72 shows a General view, assembly, some sections and details of the proposed set of lighting electrical equipment that provides the most rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electrical energy, in which set - (BEP-EAPRA), consisting of, arranged concentrically and parallelly connected, an annular connector of electric wires (BOT), collect nnogo using standardized modules and electronic control gear (EAPR). assembled from a phase (plus) module (FM electronic ballast) and zero (negative) module (NM electronic ballast), is connected in parallel with a set - (SEP-EAPRA), - consisting of located, concentrically and parallelly connected, ring-shaped connector of electric wires (SES) assembled using a standardized module with a pin electrical outlet, on the surface opposite to that on which the inlet openings of its electrical clamps are located, and an electronic ballast (EAPR). assembled from a phase (plus) module (FM electronic ballasts) and zero (negative) module (NM ballasts) with a phase (plus) pin electrical terminal and zero (negative) pin electrical terminal, on the surface opposite to the one on which the input openings of their electric clamps, respectively; On Fig shows a General view of the assembly of the proposed set of lighting electrical equipment; on Fig depicts a General view of the assembly of the proposed set of lighting electrical equipment, which uses a connector for electric wires and an electronic ballast (EAF), which provide parallel connection of connectors of electric wires similar to the proposed and parallel connection of electronic ballasts (EAF) similar to the proposed; Fig.68 shows a General view of the phase (plus) unified module (SES) with a pin electrical output, on the surface opposite to that on which the inlet openings of its electrical clamps are located; Fig shows a General view of the phase (positive) module (FM electronic ballasts), providing the creation and parallel connection between similar electronic ballasts (EAF); Fig.70 shows a General view of the zero (negative) module (NM electronic ballasts), providing the creation and parallel connection between electronic ballasts (EAF) similar to the proposed; Fig.71 shows a block diagram of a remote control electronic electronic circuit breaker with touch and remote control; Fig.72 shows a General view of the remote control electronic circuit breaker with touch and remote control.

In Fig.1 - Fig.16 presents a set of lighting electrical equipment that provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7), in which a compact electric energy-saving lamp (1) was used, not combined with an electronic ballast (5.3) (EAPR), connected with its phase (plus) pin electric the output (1.3.2) and the zero (minus) electrical output (1.3.3) with an electric cartridge (2), not combined with an electronic ballast (5.3) (EAPR), an electric wire connector (3) is used, which provides a group connection of compact electric energy-saving lamps (1), which, with the help of its phase (plus) pin electrical output (3.3.1) and zero (negative) pin electrical output (3.4.1) is connected to the electrons (5), structurally combined with an electronic ballast ( 5.3) (E АПР), and with the help of an electric plug (4.5), and its phase (plus) screwless pin electrical clamp (3.3.2) and zero (minus) screwless pin electrical clamp (3.4.2), connected to the proposed cartridge (2), not combined with an electronic ballast (5.3) (EAPR), and also used an electronic automatic switch (6) with touch and remote control.

The proposed set of lighting electrical equipment for connecting a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) contains: two or more compact electric energy-saving lamps (1), electrons (2), not combined with an electronic ballast (EAF) (5.3), electric plugs (4.5), connector of electric wires (3), electric cartridge (5), structurally combined first with electronic ballast (EAPR) (5.3) and electronic automatic electrical switch (6) with touch and remote control.

The proposed compact electric energy-saving lamp (1) consists of: a source (1) of radiant energy, a shell (1.2) and a pin base (1.3). To connect to the electric energy source (7), the radiant energy source (1.1) is equipped with an electrical terminal (1.1.1.1), which is connected to its phase (plus) electrode (1.1.1), as well as an electrical terminal (1.1.2.1) connected with its zero (minus) electrode (1.1.2).

The shell (1.2) of the compact electric energy-saving lamp (1) has a translucent zone or the whole is made of translucent material and at one end, for example on the right, ends with a pin cap (1.3).

The pin base (1.3) of the compact electric energy-saving lamp (1) consists of the base pin (1.3.1), the pin phase (plus) electrical terminal (1.3.2) and the pin zero (minus) electric terminal (1.3.3). The base projection (1.3.1) is hermetically connected to the casing (1.2) of the compact electric energy-saving lamp (1).

With a plane parallel to the central axis of the base protrusion (1.3.1) and perpendicular to the wide faces of its pin phase (plus) electrical output (1.3.2) and pin zero (negative) electrical output (1.3.3), a key cut-out (1.3.1.1 ), fixing the position of the compact electric energy-saving lamp (1) in the socket (2.1.1-2.2.1) for its cap (1.3) in the inner cavity (2.1.4) of the electrons (2).

The pin electrical leads (1.3.2) and (1.3.3) are hermetically soldered into the base ledge (1.3.1). Each electrical terminal (1.1.1.1) and (1.1.2.1) of the source (1.1) of radiant energy, a compact electric energy-saving lamp (1) is mechanically and electrically connected to the corresponding pin electrical terminal, respectively (1.3.2) and (1.3.3) .

Each pin electrical terminal, for example a phase terminal (positive) terminal (1.3.2), is a rectangular plate made of conductive material. Perpendicular to the wide face (1.3.2.1) and (1.3.3.1) of each pin electrical terminal (1.3.2) and (1.3.3), for example, a phase (plus) terminal electric terminal (1.3.2), on its both sides, in the zone, which is located in the housing of the basement protrusion (1.3.1), made cut-outs (1.3.2.7), for example rectangular. Perpendicular to the narrow edge of each pin electrical terminal (1.3.2) and (1.3.3), for example, a phase (positive) pin electrical terminal (1.3.2) that extends beyond the body of a compact electric energy-saving lamp (1) and beyond its base protrusion (1.3.1), on its wide edge (1.3.2.1), facing away from the horizontal axis of the compact electric energy-saving lamp (1), the sockets (1.3.2.3) and (1.3.3.3) are made for the support protrusions ((2.6.3) wave-shaped contact spring (2.6). The profile of each of this socket (1.3.2.3) and (1.3.3.3) repeats the profile of the surface area of the contact spring (2.6), facing the working face of the pin electrical terminal, for example, the phase (positive) terminal electric terminal (1.3.2), at the junction of the support coil (2.6.3) and the free end of the first power coil (2.6. 1), and at the junction of the support turn (2.6.3) with the first power turn (2.6.1) and the second power turn (2.6.2). The upper edges of these nests (1.3.2.3) and (1.3.3.3) are rounded.

On the central horizontal axis, for example, a pin phase (plus) electrical terminal (1.3.2), in the center of each socket (1.3.2.3) and (1.3.3.3), for the support protrusion (2.6.3) of the wave-shaped contact spring (2.6), sockets are made (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-shaped contact spring (2.6).

The interface between each socket (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-like contact spring (2.6) and each socket (1.3.2.3) and (1.3.3.3) for the support protrusion (2.6.3 ) the wave-shaped contact spring (2.6) is rounded respectively (1.3.2.6) and (1.3.3.6).

The electro-cartridge (2), in which a compact electric energy-saving lamp (1) is fixed, and which is not structurally combined with an electronic ballast (EAPR) (5.3) consists of: a housing (2.1-2.2), two identical screwless terminals (2.3-2.6 ), cable gland (2.4), and mounting ring (2.5).

The housing (2.1-2.2) of the electron cartridge (2) in which a compact electric energy-saving lamp (1) is fixed, and which is not structurally combined with an electronic ballast (EAPR) (5.3), is two cylinders of different diameters sequentially conjugated by the bases, and the diameter of these cylinders decreases, for example, from left to right, and their main axes are located on the same line.

In the area (2.1.11) of the housing (2.1-2.2), the electric cartridge (2) under consideration, which is formed by the cylinder with the largest diameter, there is a socket (2.1.1-2.2.1) for the pin cap (1.3) of the compact electric energy-saving lamp ( 1), pin screwless clamps (2.3 -2.6) and mounting ring (2.5). The area (2.1.13) of the housing (2.1-2.2) of the electroparticle under consideration (2), which is formed by the cylinder with the smallest diameter, forms a cylindrical protrusion (2.1.13-2.2.13) in which the cable sleeve (2.4) is located, the fixing tube (2.7) and electric cable (2.8).

The housing (2.1-2.2) of the electron cartridge (2) in which a compact electric energy-saving lamp (1) is fixed, and which is not structurally combined with an electronic ballast (EAPR) (5.3) consists of left and right mirror symmetric halves (2.1) and (2.2 ) made of electrical insulating material. On each half (2.1) and (2.2) of the housing (2.1-2.2) of the electric cartridge (2) from one end, for example the left, half of the socket (2.1.1) for the pin cap (1.3) of the compact electric energy-saving lamp (1) is made. Moreover, the diameter of the socket (2.1.1-2.2.1) for the pin base (1.3) is larger than the outer diameter of the base protrusion (1.3.1) of the compact electric energy-saving lamp (1).

In the inner cavity (2.2.4) of one half of the body (2.1-2.2) of the electrospring (2), for example, the right half (2.2), a key-protrusion is made in the middle of the side surface of the socket (2.2.1) for the base protrusion (1.3.1) (2.2.1.1), to fix the position of the compact electric energy-saving lamp (1) in the socket (2.1.1-2.2.1) for the base protrusion (1.3.1).

In the inner cavity (2.1.4-2.2.4) of the housing (2.1-2.2) of the electrons (2), on both sides of its horizontal axis of symmetry and parallel to it, to the right of the end face of the socket (2.1.1-2.2.1) for the base ledges (1.3.1) of a compact electric energy-saving lamp (1), recesses (2.1.2-2.2.2) and (2.1.4-2.2.2) were made for its pin electrical terminals, respectively (1.3.2) and (1.3. 3). Moreover, a recess (2.1.2-2.2.2) has been made above the horizontal axis of symmetry of the electrosprotron (2) for the pin phase (positive) electrical output (1.3.2). And below the horizontal axis of symmetry of the electric cartridge (2), a notch (2.1.4-2.2.2) is made for the pin zero (minus) electrical output (1.3.3).

In the inner cavity (2.1.4-2.2.4) of both halves (2.1) and (2.2) of the body (2.1-2.2) of the electrons (2), as a continuation of each recess (2.1.2-2.2.2) and (2.1.4 -2.2.2) for the phase (plus) and zero (minus) pin electrical terminals, respectively (1.3.2) and (1.3.3), a socket (2.1.5-2.2.5) for the conductive tip (2.3) of the electric wire is made and a wave-like contact spring (2.6), which form an electric pin screwless clamp (2.3-2.6), respectively phase (plus) and zero (minus). Moreover, in the nest (2.1.5-2.2.5) located above the horizontal axis of symmetry of the electron cartridge (2), the tip (2.3) is located under the wave-like contact spring (2.6), and below the horizontal axis of symmetry of the electron cartridge (2), the tip (2.3) is above the wave-like contact spring (2.6).

On each half (2.1) and (2.2) of the housing (2.1-2.2) of the electrons (2) in its inner cavity (2.1.4 -2.2.4), starting from the end surface of the socket for the sleeve (2.4) to the end surface of the socket (2.1 .5-2.2.5) for the conductive tip (2.3) of the electric wire, channels (2.1.6-2.2.6) for the electric wires (2.8.1) and (2.8.2) coming from the electric cartridge under consideration (2) are made.

Inside the area (2.1.13-2.2.13) of the housing (2.1-2.2) of the electrons (2), which is formed by the cylinder with the smallest diameter, there is a socket for an electric cable (2.8), a cable sleeve (2.4) and a fixing tube (2.7) . On each half (2.1) and (2.2) of the case (2.1 -2.2) of the electrosprotron (2) in the inner cavity of this socket, a rectangular protrusion (2.1.13.2 -2.2.13.13.2) is made in the center of its lateral surface, preventing the movement of the sleeve (2.4) around its axis.

In the inner cavity (2.2.4) of one half of the casing (2.1-2.2) of the electric cartridge (2), for example, the right half (2.2), fixing projections (2.2.7) are made. In the inner cavity (2.1.4) of the other half of the housing (2.1-2.2) of the electrons (2), for example, the left half (2.1), mounting recesses (2.1.7) are made. A rectangular mounting recess (2.1.8) has been made along the outer perimeter of the narrow side walls of one half of the body (2.1-2.2) of the electric cartridge (2), for example, the left half (2.1). A rectangular mounting protrusion (2.2.8) has been made along the outer perimeter of the narrow side walls of the second half of the housing (2.1-2.2) of the electric cartridge (2), for example, the right half (2.2).

The conductive tip (2.3) used in the electrons (2) is made of conductive material and is designed to connect the conductive wires of the wires (2.8.1) and (2.8.2), which supply electricity to the electrons (2). At one end of the conductive tip (2.3), for example the left, there is a rectilinear section (2.3.1). At the other end of the conductive tip (2.3), for example, the right, there is a section (2.3.2) for attaching the conductive core of the electric wire. Inside the section (2.3.2) for fastening the conductive core of the electric wire, a socket (2.3.2.1) for the conductive core of the electric wire (2.8.1) or (2.8.2) is made.

The lower surface of the rectilinear section (2.3.1) and the section (2.3.2) for fastening the conductive core of the electrical wire of the conductive tip (2.3) are located in the same plane. The upper surface of the rectilinear section (2.3.1) of the conductive tip (2.3) is working. The left, upper and lower short edges of the conductive tip (2.3) are rounded (2.3.1.2).

The electric plug (4.5) used in the proposed set of lighting electrical equipment consists of: a housing (4.5.1.-4.5.2), a phase (plus) plug (4.5.3) and a zero (minus) plug (4.5.4).

The housing (4.5.1.-4.5.2) of the proposed electric plug (4.5) consists of left and right mirror symmetric halves, respectively (4.5.1) and (4.5.2), made of electrical insulating material.

The housing (4.5.1.-4.5.2) of the proposed electric plug (4.5) consists of two cylinders of different diameters sequentially conjugated by bases, the diameters of these cylinders decreasing, for example, from right to left, and their main axes are located on the same line.

One of the cylinders of the body (4.5.1.-4.5.2) of the electric plug (4.5), for example the right one, is truncated by two planes parallel to the central axis of the cylinders and the plane of the plug of the electric plug (4.5), and the angles between the short and long external faces of this part of the body electric plugs (4.5) are rounded.

In the internal cavity of this zone (4.5.1.1-4.5.2.1) of the housing (4.5.1.-4.5.2) of the electric plug (4.5), there are nests (4.5.1.1.1-4.5.2.1.1) for the phase (positive ) and the zero (minus) plug (4.5.3) and (4.5.4), respectively, and the electric wires (2.8.1) and (2.8.2) coming from the corresponding conductive terminals (2.3) of the electrocart (2), in which is attached to a compact electric energy-saving lamp (1). On the end face of both halves of this zone (4.5.1.1-4.5.2.1) of the housing (4.5.1.-4.5.2) of the electric plug (4.5), the inlet openings (4.5.1.4-4.5.2.4) and (4.5.1.5- 4.5.2.5), respectively, for the phase (plus) and zero (minus) plugs.

On each half (4.5.1) and (4.5.2) of the body (4.5.1-4.5.2) of the electric plug (4.5) in its internal cavity, starting from the end surface of the socket (4.5.1.1.1-4.5.2.1. 1) for the conductive tip (2.3) of the electric wire (2.8.1) and (2.8.2), to the end surface of the socket (4.5.1.2.1-4.5.2.2.1) for the electric cable (2.8), channels (4.5 .1.2.4-4.5.2.2.4) for electric wires (2.8.1) and (2.8.2) going to the electrons (2) in which a compact electric energy-saving lamp (1) is fixed.

The zone (4.5.1.2-4.5.2.2) of the body of the electric plug (4.5), which is formed by the cylinder with the smallest diameter, forms a cylindrical protrusion, in the inner cavity of which there is a socket (4.5.1.2-4.5.2.2) for the electric cable (2.8 ) On the outer side surface of both halves (4.5.1) and (4.5.2) of this zone (4.5.1.2-4.5.2.2) of the electric plug body (4.5), a notch (4.5.1.2.2.-4.5.2.2.2) is made , preventing the fingers from slipping when inserting and removing the proposed electric plug (4.5) from the electrical clamps at the place of its operation.

On the outer end surface of one of the halves of the electric plug (4.5), for example, the right half (4.5.2), between the inlets (4.5.2.4) and (4.5.2.5) for the phase (plus) and zero (minus) plugs, respectively (4.5.3) and (4.5.4), a protrusion key (4.5.2.1.6) is made in the middle of the end face to fix the position of the electric plug (4.5) at the place of use.

In the inner cavity of one half of the casing (4.5.1-4.5.2) of the electric plug (4.5), for example, the right half (4.5.2), mounting tabs (4.5.2.1.3) are made. In the inner cavity of the other half of the body (4.5.1-4.5.2) of the electric plug (4.5), for example, the left half (4.5.1), mounting recesses (4.5.1.1.3) are made. A rectangular mounting recess (4.5.1.2.3) is made along the outer perimeter of the narrow side walls of one half of the body (4.5.1-4.5.2) of the electric plug (4.5), for example, the left half (4.5.1). A rectangular mounting protrusion (4.5.2.2.3) is made along the outer perimeter of the narrow side walls of the second half of the body (4.5.1-4.5.2) of the electric plug (4.5), for example, the right half (4.5.2).

As the phase (plus) plug (4.5.3) and zero (minus) plug (4.5.4) in the proposed electric plug (4.5), a conductive tip (2.3) is used, which is made of conductive material and is intended to connect a conductive core of electrical wires ( 2.8.1) and (2.8.2) supplying electricity to the electric plug (4.5).

On the part of the electrical plug (4.5) that extends beyond the housing (4.5.1-4.5.2), the part of the conductive tip (2.3) used as a phase (plus) plug (4.5.3) and a zero (minus) plug (4.5. 4), on its wide face, opposite to the working face (2.3.1.1), perpendicular to the narrow side face, the slots (1.3.2.3) and (1.3.3.3) are made, respectively, for the support turns (2.6.3) of the wave-shaped contact spring ( 2.6). The profile of each of this socket (1.3.2.3) and (1.3.3.3) repeats the surface profile of the contact spring section (2.6) at the junction of the support coil (2.6.3) and the free end of the first power coil (2.6.1), and at the junction support coil (2.6.3) with the first power coil (2.6.1) and the second power coil (2.6.2), facing the working face (2.3.1.1) of the plug (4.5.3) and (4.5.4) of the electric plug (4.5). The upper edges of these nests (2.3.1.1) are rounded.

On the central horizontal axis of each plug (4.5.3) and (4.5.4), in the center of each socket (1.3.2.3) and (1.3.3.3) for the support coil (2.6.3) of the wave-shaped contact spring (2.6), the sockets are made (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-shaped contact spring (2.6). The pairing points of the socket (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-like contact spring (2.6) and the socket (1.3.2.3) and (1.3.3.3) for the support coil (2.6.3) wave-like contact springs (2.6) are rounded.

An electric cable (2.8) going to the electrons (2), in which a compact electric energy-saving lamp (1) is fixed, is laid in a socket (4.5.1.2.1-4.5.2.2.1) for it in the internal cavity of the zone (4.5.1.2 -4.52.2) of the body (4.5.1-4.5.2) of the electric plug (4.5), which is formed by a cylinder with the smallest diameter.

Phase (positive) electric wire (2.8.1), coming from the electric cartridge (2), in which a compact electric energy-saving lamp (1) is fixed, is laid in the upper part of the socket (4.5.1.1.2) for electric wires, for example, on the left half (4.5.1) of the housing (4.5.1-4.5.2) of the proposed electrical plug (4.5), and the end of its conductive core. fixed, for example, in the socket (2.3.2.1) of the upper conductive tip (2.3).

Zero (minus) electric wire (2.8.2), coming from the electric cartridge (2), in which a compact electric energy-saving lamp (1) is fixed, is laid in the lower part of the socket (4.5.1.1.2) for electric wires, for example, on the left half (4.5.1) of the housing (4.5.1-4.5.2) of the proposed electrical plug (4.5), and the end of its conductive core. fixed, for example, in the socket (2.3.2.1) of the lower conductive tip (2.3).

The mounting protrusions (4.5.2.1.3) in the inner cavity of the right half (4.5.2) are inserted into the mounting recesses (4.5.1.1.3) of the left half (4.5.1) of the housing (4.5.1-4.5.2) of the proposed electric plug (4.5). The body halves (4.5.1-4.5.2) of the proposed electric plug (4.5) are tightly pressed against each other. In this case, the mounting protrusion (4.5.2.2.3) along the external contour of the right half (4.5.2) of the housing of the proposed electric plug (4.5) is inserted into the mounting recess (4.5.12.3) along the external contour of the left half (4.5.1) of the housing of the proposed electric forks (4.5).

The electric cartridge (5), combined with an electronic ballast (EAPR) (5.3) consists of: a housing (5.1-5.2), a monolithic module (5.3) of an electronic ballast (EAPR), two conductive lugs (2.3) and a cable sleeve (2.4) ,

The housing (5.1-5.2) of the electrons (5) is two cylinders of different diameters (5.1.2-5.2.2) and (5.1.5-5.2.5), between which the parallelepiped (5.1.4-5.2.4) is located, the opposite smaller faces of which are associated with the base of one of these cylinders (5.1.2-5.2.2) and (5.1.5-5.2.5). Moreover, the largest diameter, for example, the left cylinder (5.1.2-5.2.2). The main axes of these cylinders (5.1.2-5.2.2) and (5.1.5-5.2.5), and the parallelepiped (5.1.4-5.2.4) are located on the same line.

In the area (5.1.2-5.2.2) of the housing (5.1-5.2) of the electrons (5), formed, for example, by the left cylinder there is a socket (5.1.3-5.2.3) for the pin base (1.3) of a compact electric energy-saving lamp (1 ) and the fixing ring (2.5).

In the area (5.1.4-5.2.4) of the casing (5.1-5.2) of the electro-cartridge (5) formed by the parallelepiped, the proposed monolithic module (5.3) of the electronic ballast (EAPR), two conductive tips (2.3) with electric wires (7.1) are located .3) and (7.1.4), coming from an electronic circuit breaker (6) with touch and remote control and a source (7) of electrical energy. Moreover, the conductive conductors of these electrical wires (7.1.3) and (7.1.4) are connected to the conductive terminals (2.3) located in the inner cavity of the electrons (5), combined with an electronic ballast (EAF) (5.3).

The area (5.1-5.2) of the cartridge case (5), which is formed by a cylinder (5.1.5-5.2.5) with the smallest diameter, for example, the right cylinder, forms a cylindrical protrusion in which the cable sleeve (2.4) and the mounting tube (2.7) are located )

The housing (5.1-5.2) of the electrons (5) consists of the left half (5.1) and the mirror-symmetric right half (5.2), which are made of electrical insulating material.

In the area of the housing (5.1-5.2) of the electrons (5), formed, for example, by the left cylinder (5.1.2-5.2.2), on each half (5.1) and (5.2) of the electro-cartridge (5) from one end, for example the left, half of the socket (5.1.3) and (5.2.3) were made for the base protrusion (1.3.1) of the compact electric energy-saving lamp (1). Moreover, the diameter of the socket (5.1.3-5.2.3) for the base protrusion (1.3.1) is larger than the outer diameter of the base protrusion (1.3.1) of the compact electric energy-saving lamp (1).

In the inner cavity (5.2.1) of one half of the body (5.1-5.2) of the electrons (5), for example, the right half (5.2), in the middle of the lateral surface of the right half of the socket (5.1.3-5.2.3) for the base protrusion (1.3. 1) a key protrusion (5.2.3.5) is made to fix the position of the compact electric energy-saving lamp (1) in the inner cavity (5.1.1-5.2.1) of the electrons (5). On the outer surface of this zone (5.1.2-5.2.2) of both halves (5.1) and (5.2) of the cartridge housing (5), a thread (5.1.2.1-5.2.2.1) was made for the mounting ring (2.5).

In the area of the cartridge case (5) formed by the parallelepiped (5.1.4-5.2.4), in the inner cavity (5.1.1-5.2.1) of the cartridge case (5), on both sides of its horizontal axis of symmetry and parallel to it, to the right recesses (5.1.3.1-5.2.3.1) and (5.1.3.2-5.2.3.2) were made from the end face of the socket (5.1.3-5.2.3) for the socle protrusion (1.3.1) of the compact electric energy-saving lamp (1) for its pin electrical terminals (1.3.2) and (1.3.3). Moreover, a recess (5.1.3.1-5.2.3.1) was made above the horizontal axis of symmetry of the electric cartridge (5.1.3.1-5.2.3.1) for the pin phase (plus) electrical output (1.3.2) of a compact energy-saving electric lamp (1), and below the horizontal axis of symmetry of the electric cartridge (5) a notch has been made (5.1.3.2-5.2.3.2) for the pin zero (minus) electrical output (1.3.3) of the compact energy-saving electric lamp (1).

In the inner cavity (5.1.1-5.2.1) of both halves (5.1) and (5.2) of the housing of this zone (5.1.4-5.2.4) of the electrons (5), as an extension of each recess (5.1.3.1-5.2.3.1 ) and (5.1.3.2-5.2.3.2) for the pin electrical terminal (1.3.2) and (1.3.3), above the horizontal axis of symmetry of the electrons (5), a socket (5.1.3.3-5.2.3.3) is made for phase (plus) ) of the pin screwless clamp (5.3.2), and below the horizontal axis of symmetry of the electric cartridge (5), a socket (5.1.3.4-5.2.3.4) is made for the zero (minus) pin screwless clamp (5.3.3). Moreover, these nests (5.1.3.3-5.2.3.3) and (5.1.3.4-5.2.3.4) are made mirror symmetric, while in the nest (5.1.3.3-5.2.3.3) located above the horizontal axis of symmetry of the electron cartridge (5) with a pin the phase (plus) electrical terminal (1.3.2) of the compact electric energy-saving lamp (1) is located under the wave-like contact spring (2.6), and in the socket (5.1.3.4-5.2.3.4) located below the horizontal axis of symmetry of the electrons (5) with a pin the zero (minus) electrical terminal (1.3.3) of the compact electric energy-saving lamp (1) is located above the wave ase contact spring (2.6).

In the inner cavity (5.1.1-5.2.1) of both halves (5.1) and (5.2) of the housing of this zone (5.1.4-5.2.4) of the electrons (5) to the right of the upper socket (5.1.3.3-5.2.3.3) for the phase (plus) pin screwless clamp (5.3.2) and the lower socket (5.1.3.4-5.2.3.4) for the zero (negative) pin screwless clamp (5.3.3), a socket (5.1.4.1-5.2.4.1) is made for the proposed monolithic electronic ballast module (5.3). On the inner side, for example, the long lower side, of this nest (5.1.4.1-5.2.4.2), on the right half (5.2) of the electro-cartridge case (5), a protrusion-latch (5.2.4.6) is made, which ensures a certain position of the monolithic module (5.3) Electronic ballasts with respect to the housing (5.1-5.2) of the electric cartridge (5).

In the inner cavity (5.1.1-5.2.1) of both halves (5.1) and (5.2) of the housing of this zone (5.1.4-5.2.4) of the electrons (5), on the right side of the socket (5.1.4.1-5.2.4.1 ) for the proposed monolithic module (5.3) of electronic ballasts, on both sides of the horizontal axis of symmetry of the electron cartridge (5), parallel to it, above the horizontal axis of symmetry of the electron cartridge (5), a socket (5.1.4.2-5.2.4.2) is made for the network phase (positive) a screwless clamp terminal (5.3.4), and a socket (5.1.4.3-5.2.4.3) is made for the network zero (negative) screwless screw terminal below the horizontal axis of symmetry of the electric cartridge (5) ajima (5.35). Moreover, these sockets (5.1.4.2-5.2.4.2) and (5.1.4.3-5.2.4.3) are made mirror symmetric, while in the socket (5.1.4.2-5.2.4.2) located above the horizontal axis of symmetry of the electrons (5) conductive the tip (2.3), to which the conductive core of the electric wire (7.1.3) is connected, coming from the electronic circuit breaker (6) with touch and remote control, is located under the wave-shaped contact spring (2.6), and in the socket (5.1.4.2- 5.2.4.2) located below the horizontal axis of symmetry of the electrons (5) conductive akonechnik (2.3), which is connected to the conductive core of the electrical wire (7.1.4), extending from the electronic automatic electric switch (6) with touch and RC, is under an undulating contact spring (2.6).

A channel (5.1.4.4 -5.2) is made between the socket (5.1.4.2-5.2.4.2) for the network phase (plus) pin screwless terminal (5.3.4) and the socket (5.1.5.1-5.2.5.1) for the cable sleeve (2.4) .4.4) for an electric wire (7.1.3) coming from an electronic circuit breaker (6) with touch and remote control.

A channel (5.1.4.5-5.2) is made between the socket (5.1.4.3-5.2.4.3) for the network zero (negative) pin screwless clamp (5.3.5) and the socket (5.1.5.1-5.2.5.1) for the cable sleeve (2.4) .4.5) for an electric wire (7.1.4) coming from an electronic circuit breaker (6) with touch and remote control.

Inside the zone (5.1.5-5.2.5) of the electro-cartridge case (5), which is formed by the cylinder with the smallest diameter, there is a socket (5.1.5.1-5.2.5.1) for the cable sleeve ((2.4) and the fixing tube (2.7). In the inner cavity of this nest (5.1.5.1-5.2.5.1), on each half (5.1) and (5.2) of the cartridge housing (5), a rectangular protrusion (5.1.5.2) and (5.2.5.2) is made in the center of its lateral surface preventing the movement of the sleeve (2.4) around its axis.

In the inner cavity of one half of the body of the electric cartridge (5), for example, the right half (5.2), mounting tabs (5.2.5.3) are made. In the inner cavity of the other half of the body of the electric cartridge (5), for example the left half (5.1), mounting recesses (5.1.5.3) are made.

A rectangular mounting recess (5.1.5.4) has been made along the outer perimeter of the narrow side walls of one half of the electro-cartridge case (5), for example, the left half (5.1). A rectangular fastening protrusion (5.2.5.4) is made along the outer perimeter of the narrow side walls of the second half of the electro-cartridge case (5), for example, the right half (5.2).

Elements of the proposed electronic ballast (EAP) (5.3) are combined into one structural unit, while the infrared photodetector (6.2.2.2), which allows you to remotely control electronic ballasts (5.3) using the remote control, is mounted on the outer surface of the module housing (5.3) .

The proposed electronic ballast (EAPR) is made in the form of a monolithic module, (5.3) with protruding beyond, for example, on the left side, a pin phase (plus) screwless clamp (5.3.2) of the consumer and a pin zero (minus) screwless clamp ( 5.3.3) of the consumer and, for example, on the right side with a network pin phase (plus) screwless terminal (5.3.4) and a network pin zero (negative) screwless terminal (5.3.5). The housing (5.3.1) of the proposed monolithic module (5.3) is made of electrical insulating material.

Each screwless clamp (5.3.2) (5.3.3) (5.342) and (5.3.5) of the proposed solid-state electronic ballast module (5.3) consists of a pin electrical terminal, respectively (5.3.2.1), (5.3.3.1), (5.3.4.1) and (5.3.5.1), made in the form of a conductive plate, on the wide edge of which a wave contact spring is mechanically and electrically fixed (2.6).

The phase (positive) pin screwless clamp (5.3.2) of the consumer and the zero (negative) pin screwless clamp (5.3.3) of the consumer located parallel to the central axis of symmetry of the electron cartridge (5) perpendicular to the short outer edges of the housing (5.3.1) of the proposed monolithic module (5.3), are designed to connect to them the pin electrical terminals (4.5.3) and (4.5.4) of the proposed connector (3) of electrical wires.

The network phase (plus) pin screwless clamp (5.3.4) and the network zero (negative) pin screwless clamp (5.3.5) located parallel to the central axis of symmetry of the electroparton perpendicular to the short outer edges of the proposed monolithic module (5.3) electronic ballasts are designed to be connected to conductive lugs (2.3) to which, respectively, are connected conductive conductors of electric wires (7.1.3) and (7.1.4), coming from an electronic automatic electrical switch (6) with touch and remote control phenomenon.

On one narrow lateral face of the housing (5.3.1), the proposed monolithic module (5.3) of the electronic ballasts, for example, the right side, a recess (5.3.8) is made for the lock (5.2.4.6) perpendicular to the wide upper face. On the wide rear edge of the housing (5.3.1) of the proposed monolithic module (5.3) of electronic ballasts, a rear cooler (5.3.6), made of a material with high thermal conductivity, is fixed. On the wide front face of the housing (5.3.1) of the proposed monolithic module (5.3) of the electronic ballast, a front cooler (5.3.7) is mounted, made of a material with high thermal conductivity.

Each cooler (5.3.6) and (5.3.7) installed on the housing (5.3.1) of the proposed monolithic module (5.3) of the electronic ballast is connected to the elements located inside it. Moreover, this connection is made in such a way that it is potentialless i.e. the cooler (5.3.6) and (5.3.7) is not under electric potential. In addition, this compound has the lowest possible thermal resistance. In the plane of the wide rear face and the wide front face of the housing (5.3.1), the proposed solid-state electronic ballast module (5.3), the dimensions of the cooler (5.3.6) and (5.3.7) around the entire perimeter of contact do not exceed the dimensions of the face with which they touch .

The photosensitive element (6.2.2.2) of the remote control unit, for example, an infrared photodetector, is mounted on the outer side surface of the housing (5.3.1) of the monolithic ECG module (5.3), on which coolers (5.3.6) and (5.3.7) are mounted, for example , in the area of the housing (5.3.21) of the monolithic ECG module (5.3) between the network pin phase (plus) terminal (5.3.4) and the network pin zero (minus) screwless terminal (5.3.5).

The proposed monolithic module (5.3) of the electronic ballast is fixed in the socket (5.1.4.1-5.2.4.1) for it, on the left half (5.1) and the right half (5.2) of the cartridge housing (5). In this case, the network phase (positive) pin screwless terminal (5.3.4), the network zero (negative) pin screwless terminal (5.3.5), the phase (positive) pin screwless terminal (5.3.2) of the consumer and the zero (negative) pin screwless the clamp (5.3.3) of the consumer is inserted into the slots for them, respectively (5.1.4.2 -5.2.4.2), (5.1.4.3-5.2.4.3), (5.1.3.3-5.2.3.3) and (5.1.3.4-5.2 .3.4).

The electric cable (5.4), going from the electronic automatic electric switch (6) with touch and remote control to the electrons (5) combined with the electronic ballast (5.3) (EAPR), is passed through a mounting tube (2.7) fixed inside the cable sleeve ( 2.4). The cable gland (2.4) with the fixing tube (2.7) fixed inside it is inserted into the socket (5.1.5.1-5.2.5.1) inside the cylindrical protrusion (5.1.5 5.2.5) of this electrocart (5).

Phase (positive) electric wire (7.1.3), coming from the electronic circuit breaker (6) with touch and remote control through the mounting tube (2.7) and cable sleeve (2.4) to the network phase (plus) pin screwless terminal (5.3. 4), laid in the channel (5.1.4.4) on the left half (5.1) of the body of the electroparticle under consideration (5). Zero (minus) electric wire (7.1.4), coming from the electronic automatic electric switch (6) with touch and remote control, through the mounting tube (2.7) and cable sleeve (2.4) to the network zero (minus) pin screwless terminal (5.3) .5), laid in the channel (5.2.4.5) on the right half (5.2) of the body of the electroparticle under consideration (5).

The end of the conductive core of the phase (plus) electrical wire (7.1.3) coming from the electronic circuit breaker (6) with touch and remote control is fixed, for example, in the socket (2.3.2.1) of the conductive tip (2.3), which in turn , is fixed in the network phase (positive) pin screwless clamp (5.3.4) on the housing (5.3.1) of the proposed monolithic module (5.3) electronic ballasts. The end of the conductive core of the zero (negative) electric wire (7.1.4) coming from the electronic circuit breaker (6) with touch and remote control is fixed, for example, in the socket (2.3.2.1) of the conductive tip (2.3), which in turn , fixed in the network zero (minus) pin screwless clamp (5.3.5) on the housing (5.3.1) of the proposed monolithic module (5.3) electronic ballasts.

The mounting protrusions (5.2.5.3) in the inner cavity (5.2.1) of the right half of the housing (5.2) of the proposed electrocart (5) are inserted into the mounting recesses (5.1.5.3) of its left half (5.1). The halves (5.1) and (5.2) of the housing of the proposed electrons (5) are tightly pressed against each other. At the same time, the fastening protrusion (5.2.5.4) along the outer contour of the right half (5.2) of the housing of the proposed electro cartridge (5) is inserted into the mounting recess (5.1.5.4) along the outer contour of the left half (5.1) of the housing of the proposed electro cartridge (5).

The proposed connector (3) of electrical wires contains: a housing (3.1-3.2) made of electrical insulation material, a phase (plus) conductive bus (3.3), on which are located screwless pin electrical terminals (3.3.2) and zero (minus) conductive bus (3.4), on which, screwless pin electrical clamps are located (3.4.2).

Each considered screwless pin electrical clamp (3.3.2) and (3.4.2) consists of a conductive plate, respectively (3.3.2.1) and (3.4.2.1), respectively, on which, for example, by the method of cold welding, a wave-shaped contact spring is fixed (2.6 )

The housing (3.1 .-. 3.2) of the proposed connector (3) of the electric wires consists of a base (3.1) and a cover (3.2), has a complex shape and is made of electrical insulating material.

One side of the housing (3.1 .-. 3.2) of the proposed connector (3) of electric wires, for example, the left side (3.1.1-3.2.1), is made in the form of a rectangular parallelepiped, and its other side, for example, the right [(3.1.2- 3.1.3-3.1.4) - (3.2.2-3.2.3-3.2.4)], made in the form of mating cylinders (3.1.2-3.2.2), (3.1.3-3.2.3) and ( 3.1.4-3.2.4) of different sizes. The diameters of these cylinders (3.1.2-3.2.2), (3.1.3-3.2.3) and (3.1.4-3.2.4) decrease from left to right.

The smallest cylinder is a base ledge (3.1.2-3.2.2).

A thread (3.1.3.1-3.2.3.1) is made on the side surface of the cylinder (3.1.3-3.2.3) of medium diameter, which, using the fastening ring (2.5), allows the proposed connector (3) of electrical wires to be fixed in the socket (5.1. 3-5.2.3) for the pin base (1.3) of the compact electric energy-saving lamp (1), in the housing of the electron cartridge (5), structurally combined with the electronic ballast (5.3) (EAPR).

The cylinder (3.1.4-3.2.4) with the largest diameter serves as a stop for the fastening ring (2.5) with an internal thread (2.5.1).

In the internal cavity (3.1.1.1-3.2.1.1) of the base (3.1) of the housing (3.1-3.2), the connector (3) of the electrical wires under consideration, a socket (3.1.5) for phase (positive) is located parallel to its horizontal axis and to each other conductive bus (3.3) with sockets (3.1.7) for screwless pin electrical clamps (3.3.2) and socket (3.1.6) for zero (minus) conductive bus (3.4) with sockets (3.1.8) for screwless pin electric clamps (3.4.2).

On the long wide edge of the base (3.1) of the proposed connector (3) of electric wires, in the plane opposite to that on which its base (3.1) and the cover (3.2) are connected, the inlets (3.1.9) for the phase (plus) plug are located (4.5.3) and the zero (minus) plug (4.5.4) of the electric plug (4.5) connected to the electric cartridge (2) in which a compact electric energy-saving lamp (1) is fixed.

Moreover, each such inlet (3.1.9) communicates with the corresponding socket (3.1.7) or (3.1.8) for a screwless pin electrical clamp, respectively, (3.3.2) and (3.4.2).

In the inner cavity of the base (3.1) of the housing (3.1-3.2), the connector (3) of the electrical wires in question, mounting recesses (3.1.11) and ventilation recesses (3.1.12) are made, which alternate with each other. A rectangular mounting recess (3.1.10) is made along the outer perimeter of the narrow side walls of the base (3.1) of the housing (3.1-3.2), the connector (3) of the electrical wires in question.

In the inner cavity (3.2.1.1) of the cover (3.2) of the housing (3.1-3.2), of the electrical connector (3) under consideration, a socket (3.2.5) for a phase (positive) conductive bus (3.3) is located parallel to its horizontal axis and to each other ) and socket (3.2.6) for the zero (minus) conductive bus (3.4).

In the inner cavity (3.2.1.1) of the cover (3.2) of the housing (3.1-3.2), of the connector (3) of the electrical wires under consideration, fixing projections (3.2.8) and ventilation recesses (3.2.9) are made, which alternate with each other.

A rectangular mounting protrusion (3.2.7) is made along the outer perimeter of the narrow side walls of the cover (3.2) of the housing (3.1-3.2), the connector (3) of the electrical wires in question.

On the cover (3.2) of the housing (3.1-3.2), of the electrical connector (3) under consideration, in the center of the lateral edge of the base protrusion (3.2.2), a cutout is made (3.2) in a plane parallel to the central horizontal axis of the proposed electrical connector (3). .2.1), fixing the position of the proposed connector (3) of electric wires in the inner cavity (5.1.1-5.2.1) of the electrons (5), structurally combined with an electronic ballast (EAF) (5.3).

Phase (plus) conductive bus (3.3) and zero (minus) conductive bus (3.4) are made in the form of a plate of complex shape from conductive material.

At one end of the phase (positive) conductive bus (3.3), for example, on the left end, more than two conductive plates (3.3.2.1) perpendicular to it and lying on the same plane with it are made perpendicular to its narrow long face. On each such conductive plate (3.3.2.1) mechanically and electrically, for example by cold welding, a rectilinear mounting section (2.6.4) of the proposed wave-shaped contact spring (2.6) is fixed, forming a phase (plus) screwless pin electrical clamp (3.3. 2.1-2.6).

At one end of the zero (minus) conductive bus (3.4), for example, on the left end, more than two conductive plates (3.4.2.1) perpendicular to it and lying with it in the same plane are made perpendicular to its narrow long face. On each such conductive plate (3.4.2.1) mechanically and electrically, for example, by cold welding, a rectilinear mounting section (2.6.4) of the proposed wave-like contact spring (2.6) is fixed, forming a zero (minus) screwless pin electrical clamp (3.4. 2.1-2.6).

The plot, for example, of the right end of the phase (positive) conductive bus (3.3), protruding beyond the base protrusion (3.1.2-3.2.2) of the proposed connector (3) of the electrical wires forms a phase (positive) pin electrical terminal (3.3.1) .

The section, for example, of the right end, of the zero (minus) conductive bus (3.4), protruding beyond the base protrusion (3.1.2-3.2.2) of the proposed connector (3) of the electrical wires forms a zero (minus) pin electrical terminal (3.4.1) .

On the site, for example, the right end, the phase (plus) pin electrical terminal (3.3.1) and the zero (minus) pin electric terminal (3.4.1), protruding beyond the base protrusion (3.1.2-3.2.2) of the proposed connector ( 3) electrical wires, on its wide face, facing away from the horizontal axis of the proposed connector (3) of electric wires, perpendicular to the narrow face, nests are made, respectively (3.3.1.1) and (3.4.1.1) for the support turns (2.6.3) wave-like contact spring (2.6).

The profile of each of this socket (3.3.1.1) and (3.4.1.1) repeats the surface profile of the contact spring section (2.6), facing the working face of the pin electrical outlet, respectively (3.3.1) and (3.4.1) at the junction of the support turn (2.6.3) and the free end of the first power turn (2.6.1), and at the junction of the support turn (2.6.3) with the first power turn (2.6.1) and the second power turn (2.6.2). The upper edges of these nests (3.3.1.1) and (3.4.1.1) are rounded.

On the central horizontal axis of the phase (plus) pin electrical terminal (3.3.1) and the zero (minus) pin electric terminal (3.4.1), in the center of each socket (3.3.1.1) and (3.4.1.1) for the reference coil (2.6 .3) the wave-shaped contact spring (2.6) made nests respectively (3.3.1.2) and (3.4.1.2) for the spherical protrusion (2.6.3.1) of the wave-shaped contact spring (2.6). The interface points of each socket (3.3.1.2) and (3.4.1.2) for the spherical protrusion of the wave-like contact spring and the nests (3.3.1.1) and (3.4.1.1) for the support coil (2.6.3) of the wave-shaped contact spring (2.6) are rounded.

A horizontal line passing through the center of the cross section of the end of each pin of the electrical output (3.3.1) and (3.4.1), extending beyond the proposed connector (3) of the electrical wires, is parallel to the long edge of the pin of the electrical output (3.3.1) and (3.4 .1), and the central horizontal axis of the proposed connector (3) of the electrical wires. Moreover, this horizontal line and the central horizontal axis of the proposed connector (3) of the electrical wires are located in one horizontal plane.

The distance between the centers of the normal cross-sections of the segments of the pin electrical terminals (3.3.1) and (3.4.1) extending beyond the proposed connector (3) of the electric wires is equal to the distance between the centers of the plugs of the standard electric plug.

A phase (positive) conductive bus (3.3) with screwless pin electrical clamps (3.3.2) located on it is inserted into the corresponding socket (3.1.5) for it.

A zero (minus) conductive bus (3.4) with screwless pin electrical clamps (3.4.2) located on it is inserted into the corresponding socket (3.1.6) for it.

The free end of the wave-shaped contact spring (2.6) of each pin electrical clamp (3.3.2) and (3.4.2), on which there is an incomplete support coil (2.6.3), is facing the inlet (3.1.9) on the base case ( 3.1) the proposed connector (3) electrical wires.

A part of the phase (plus) conductive bus (3.3) and the zero (minus) conductive bus (3.4) located above the base (3.1) of the proposed connector (3) of the electrical wires is inserted into the corresponding socket (3.2.6) on the cover (3.2) of the proposed connector (3) electrical wires. After that, the cover (3.2) of the housing (3.1-3.2), of the considered connector (3) of the electric wires, is pressed tightly to its base (3.1). In this case, the mounting protrusions (3.2.8) of the cover (3.2) are inserted into the corresponding mounting recesses (3.1.11) of the base (3.1).

Each ventilation recess (3.2.9) of the cover (3.2) and the opposing ventilation recess (3.1.12) of the base (3.1) form a single ventilation cavity. A rectangular protrusion (3.2.7) around the perimeter of the lid (3.2) is located in a rectangular recess (3.1.10) around the perimeter of the base (3.1).

The proposed connector (3) of electric wires is fixed in the socket (5.1.3-5.2.3) for the pin base (1.3) of the compact electric energy-saving lamp (1), in the housing of the electron cartridge (5), structurally combined with the electronic ballast (5.3) ( EAF), and is fixed in it by a mounting ring (2.5), which is screwed onto a cylindrical mounting protrusion (3.1.3-3.2.3), of the proposed connector (3) of electrical wires.

The pin phase (positive) electrical terminal (3.3.1) of the proposed connector (3) of the electric wires is inserted into the phase (positive) screwless electric clamp (5.3.2) of the electrons (5), which is structurally combined with the electronic ballast (5.3) (EAPR )

The pin zero (minus) electrical terminal (3.4.1) of the proposed connector (3) of the electrical wires is inserted into the zero (minus) screwless pin electric clamp (5.3.3) of the electrons (5) which is structurally combined with the electronic ballast (5.3) (EAPR) )

A phase (positive) plug (4.5) is inserted into the pair of inlets (3.1.9) that communicate with the phase (plus) pin screwless screw terminal (3.3.2) and the zero (minus) pin screwless screw terminal (3.4.2). 3) and zero (minus) plug (4.5.4) of the electric plug (4.5) connected to the electric cartridge (2) in which a compact electric energy-saving lamp (1) is fixed. In this case, the housing (4.5.1-4.5.2) of the electric plug (4.5) is oriented with respect to the housing (3.1-3.2) of the proposed connector (3) of the electric wires with the help of the locking protrusion (4.5.2.1.6) on the end surface of the electric plug ( 4.5) and a fixing recess (3.1.9.1) on the base body (3.1) of the proposed connector (3) of the electrical wires.

Similarly connected to the proposed connector (3) of electric wires, the number of compact electric energy-saving lamps (1), for which it is designed.

In the proposed electronic automatic electric switch (6) with touch and remote control, an electric circuit breaker and a block of overload, overvoltage and short circuit currents) are used similar to those used in the electronic ballast (5.3) (EAPR) of the proposed set of lighting electrical equipment.

The proposed circuit breaker includes an opto-thyristor, consisting of a radiating infrared diode and a photodetector (6.2), which provides galvanic isolation, eliminating spontaneous switching on by induction currents. In addition, it uses a touch sensor (6.3), which allows you to control the switch (6) by directly touching it, for example, with the hand of a person, and excluding the moving mechanical parts.

Elements of the proposed electronic automatic electrical switch (6) with touch and remote control are combined into one structural unit, which is made in the form of a monolithic module (6.1).

The housing of the proposed monolithic module (6.1) of an electronic automatic electrical switch (6) with touch and remote control is made of electrical insulation material with reduced thermal resistance and is a parallelepiped. On the end faces of which, for example, on the left side, are inlet openings (6.1.3), providing access to the phase-in (plus) screwless clamp terminal (6.4.1) of the consumer and to the zero-pin (negative) screwless terminal (6.4.2) consumer. And on the opposite end face, for example, on the right side, there are inlets (6.1.3) that provide access to the network pin phase (plus) screwless terminal (6.4.3) and to the network pin zero (negative) screwless terminal (6.4. four).

The screwless clamp terminals (6.4.1), (6.4.2), (6.4.3) and (6.4.4) are completely located in the internal cavity of the proposed module (6.1). Each screwless clamp (6.4.1), (6.4.2), (6.4.3) and (6.4.4), the proposed monolithic module (6.1) of the electronic automatic electrical switch (6) with touch and remote control, consists of a pin electric output (6.15), made in the form of a conductive plate, on the wide face of which a wave-like contact spring is mechanically and electrically fixed (2.6).

The phase (positive) pin screwless clamp (6.4.1) of the consumer and the zero (negative) pin screwless clamp (6.4.2) of the consumer are designed to connect the conductive terminals (2.3) of the electrical wires to them, respectively (7.1.3) and (7.1. 4) going to the proposed monolithic module (5.3) electronic ballasts.

The network phase (plus) pin screwless terminal (6.4.3) and the network zero (minus) pin screwless terminal (6.4.4) are used to connect conductive terminals (2.3) to them, respectively, to which conductive conductors of electric wires are connected, respectively ( 7.1.1) and (7.1.2) coming from the source of electrical energy (7).

In the middle of the long side faces of the module in question (6.1), perpendicular to its base are the mounting sockets (6.1.2), which ensure its fastening at the place of operation.

In the middle of the junction of the upper and right end faces of the module under consideration (6.1), a niche (6.1.1) is made perpendicular to its base, in which an infrared photodetector (6.2) is located, allowing remote control of the proposed switch (6) using a remote control. An infrared photodetector (6.2) is functionally connected to a switching semiconductor device, for example, an opto-prism device located in the internal cavity of the proposed module (6.1).

And on the upper edge of the module (6.1) there is a contact area (6.3) of the sensor sensor, which allows you to control the proposed switch (6) by direct touch, for example, a person’s hand, and excluding moving mechanical parts.

The pin base (1.3) of the compact electric energy-saving lamp (1) is inserted into the socket (2.1.1-2.2.1) for it in the housing (2.1-2.2) of the electrons (2), not combined with the electronic ballast (5.3) (EAPR) . At the same time, its phase-in (plus) electrical terminal (1.3.2) and the zero (negative) terminal electrical terminal (1.3.3) are inserted and secured respectively in the phase-phase (positive) terminal electric clamp (2.3-2.6) and zero (negative) terminal ) an electric clip (2.3-2.6) of this electrons (2).

The end of the conductive core of one electric wire of an electric cable (2.8), for example, phase (positive) (2.8.1), connecting an electric cartridge (2), not combined with an electronic ballast (EAF) (5.3), with an electric plug (4.5), mechanically and electrically, for example, by crimping, is connected, for example, to the conductive tip (2.3) of the phase (plus) electrical clamp of the electric pin screwless clamp (2.3-2.6) of the proposed electrons (2), and its second end is connected to the phase (plus) plug ( 4.5.3) electric cal fork (4.5).

The end of the conductive core of the second electric wire of the electric cable (2.8), for example, zero (minus) (2.8.2) connecting the electric cartridge (2), not combined with the electronic ballast (5.3) (EAF), with the electric plug (4.5), mechanically and electrically, for example, by crimping, is connected, for example, with the conductive tip (2.3) of the zero (minus) electrical clamp of the electric pin screwless clamp (2.3-2.6) of the proposed electrons (2), and its second end is connected to the zero (minus) plug ( 4.5.4) electric plugs (4.5).

Plugs (4.5.3) and (4.5.4) of each proposed electric plug (4.5) connected to an electric cartridge (2) not combined with an electronic ballast (5.3) (EAPR) in which the proposed compact electric energy-saving lamp (1) is mounted inserted into the inlets (3.1.9) of the proposed connector (3) of the electrical wires. In this case, the phase (positive) plug (4.5.3) is located in the phase (positive) electrical clamp (3.3.2) of the proposed connector (3) of the electric wires, and the zero (minus) plug (4.5.4) is located in the zero (minus) electrical clamp (3.4.2) of the proposed connector (3) of electrical wires.

All electric plugs (4.5) connected to the proposed connector (3) of electric wires are oriented with respect to its housing and each other with the help of a key protrusion (4.5.2.1.6) on the surface of each proposed electric plug (4.5) and a fixing recess ( 3.1.9.1) located between the inlets (3.1.9) on the surface of the base (3.1) of the connector (3) of the electrical wires in question.

The pin base (3.1.2-3.2.2) of the proposed connector (3) of the electrical wires is fixed in the socket (5.1.3-5.2.3) for the pin base (1.3) of the compact electric energy-saving lamp (1), in the electro-cartridge case (5) structurally combined with an electronic ballast (EAPR) (5.3), and fixed in it with a mounting ring (2.5), which is screwed onto a cylindrical mounting protrusion (5.1.2-5.2.2), of the proposed connector of electrical wires (5).

In this case, the phase-in (positive) electrical terminal (3.3.1) of the proposed connector (3) of the electrical wires is inserted into the phase (positive) screwless electrical clamp (5.3.2) of the module (5.3) of the electronic ballast (EAPR), structurally combined with the proposed an electric cartridge (5), and a pin zero (minus) electrical terminal (3.4.1) of the proposed connector (3) of electric wires is inserted into a zero (minus) screwless pin electrical clamp (5.3.3) of the module (5.3.3) of the electronic ballast (E OL) structurally combined with the proposed elektropatronom (5)

In the network phase (positive) screwless screw terminal (6.4.3) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.1) coming from the phase (plus) terminal of the source of electric energy (7).

In the network zero (minus) pin screwless clamp (6.4.4) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.2), coming from the zero (minus) terminal of the source (7) of electrical energy.

A conductive tip (2.3) is inserted into the phase (positive) screwless screw terminal (6.4.1) of the consumer, in which the conductive core of the electric wire (7.1.3) is connected mechanically and electrically, for example, by crimping, to the electric cartridge (5), combined with Electronic ballasts.

A conductive tip (2.3) is inserted into the network (negative) screwless screw terminal (6.4.2) of the consumer, in which the conductive core of the electric wire (7.1.4) going to the electric cartridge (5) combined with the electronic ballast is mechanically and electrically, for example, crimped .

In the network screwless phase (positive) phase clamp electric clamp (5.3.4) of the proposed module (5.3) of the electronic ballast (5.3) (EPR) located in the body of the electric cartridge (5), a conductive tip (2.3) is inserted in which mechanically and electrically, for example, by crimping, a conductive core of an electric wire (7.1.3) is fixed, coming from a phase (plus) pin screwless terminal (6.4.1) of an electronic automatic electrical switch (6) with touch and remote control.

In the network screwless pin zero (minus) electrical clamp (5.3.5) of the proposed module (5.3) of the electronic ballast (EAPR) located in the body of the electric cartridge (5), a conductive tip (2.3) is inserted in which mechanically and electrically, for example, by crimping , the conductive core of the electric wire (7.1.4), coming from the zero (minus) pin screwless clamp (6.4.2) of the electronic automatic electric switch (6) with touch and remote control, is fixed.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

An infrared photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. In this case, the electrodes (1.1.1) and (1.1.2) of the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) do not receive power and the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) does not radiate radiant energy.

The proposed set of lighting electrical equipment works to connect a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to a source of electrical energy (7) as follows: after an infrared photodetector (6.2) is an optothyristor of the proposed electronic circuit breaker (6) with touch and remote control, a control signal will be sent, or direct read only touch on the touch sensor (6.3), for example, human hand, it is activated and begins to pass current. In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

The proposed technical solutions allow us to create a set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (1) to the source (7) of electric energy, increase labor productivity in the process of its production and operation, significantly reduce costs in its production and operation ui. Significantly increase the reliability of lighting electrical equipment, its fire and electrical safety, ensure maintainability, save materials and components.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application ..

The proposed technical solutions can be used for any electric lamps that use a pin base, but they can be most effectively used for compact electric energy-saving lamps (1) in group applications, providing the possibility of automating the process of lighting objects.

The proposed technical solutions will improve the safety of a set of lighting electrical equipment after its operation is completed, as it will greatly simplify the work on its disposal.

In Fig.17 - Fig.26 presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7). in which the connector of electric wires (8) is used, which provides a group connection of compact electric energy-saving lamps (1), and whose design provides reliable mechanical and electrical connection of the required number of similar connectors of electric wires (8) with each other, and with the help of their free, phase (plus) pin electrical output (8.3.1) and zero (minus) pin electrical output (8.4.1) to connect this assembly with an electric cartridge (5), structurally combined with electronic ballast (5.3) (EAPR).

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps (1), electric cartridges (2), not combined with an electronic ballast (5.3) (EAPR), mounted in an electric cartridge (2), which is not structurally combined with an electronic ballast (5.3) (EAF), and, each conductive tip (2.3) of which is connected to a phase (plus) plug (4.5.3) and zero (minus) (4.5.4) electric plug (4.5), the proposed assembly of connectors (8 ) electrical wires Dov, an electric cartridge (5), structurally combined with an electronic ballast (5.3) (EAPR), and an electronic automatic electrical switch (6) with touch and remote control.

The proposed connector (8) of the electrical wires contains: a housing (8.1-8.2) made of an insulating material, a phase (plus) conductive bus (8.3), on which are screwless pin electrical terminals (8.3.2) (8.3.3) and zero (minus) conductive bus (8.4), on which are screwless pin electrical terminals (8.4.2), (8.4.3), and a plug (8.5).

The housing (8.1-8.2) of the proposed connector (8) of the electrical wires consists of a base (8.1) and a cover (8.2), has a complex shape and is made of electrical insulating material. In the housing (8.1-8.2) of the proposed connector (8) of electrical wires, when viewed from left to right, three zones are distinguished: the first zone (8.1.1-8.2.1) - the zone of the socket ((8.1.1.1 -8.2.1.1) for the base (3.1.2-3.2.2), the second zone (8.1.2-8.2.2) - the zone of screwless clamps (8.3.2), (8.3.3) and (8.4.2), (8.4.3), the third zone (8.1.3-8.2.3) - basement zone (3.1.2-3.2.2).

The first zone (8.1.1-8.2.1) is made in the form of mating cylinders, the diameters of which increase from left to right.

In the inner cavity of the first zone (8.1.1-8.2.1) of the housing (8.1-8.2), the connector (8) of the electrical wires in question, a socket (8.1.1.1-8.2.1.1) is made in the smallest cylinder for the base (3.1.2 -3.2.2), as a continuation of this socket (8.1.1.1-8.2.1.1), to the right of it, a recess (8.1.1.2-8.2.1.2) is made for the right phase (plus) pin electrical terminal (8.3.1) and As a continuation of this recess (8.1.1.2-8.2.1.2), a socket (8.1.1.4-8.2.1.4) for a phase (plus) screwless pin clamp (8.3.3). And also a notch (8.1.1.3-8.2.1.3) was made for the right zero (minus) pin electrical output (8.4.1) and, as a continuation of this notch (8.1.1.3-8.2.1.3), a socket (8.1.1.5-8.2 .1.5) for the zero (minus) screwless pin clamp (8.4.3). In the inner cavity of one half of the housing (8.1-8.2) of the proposed connector (8) of the electrical wires, for example the cover (8.2), in the middle of the side surface of the socket (8.1.1.1-8.2.1.1) for the base (3.1.2-3.2.2) a key-protrusion (3.2.2.5) was made to fix the position of the second proposed connector (8) of electrical wires with respect to the connector of electric wires (8), mounted in the housing of the electric cartridge (5), structurally combined with an electronic ballast (5.3) (EAPR) .

A thread (8.1.1.6-8.2.1.6) was made on the side surface of the cylinder of smaller diameter, intended for fastening in the socket (8.1.1.1-8.2.1.1) for the cap (3.1.2-3.2.2) of the proposed connector (8) of electric wires , pin base (3.1.2-3.2.2) of another similar connector (8) of electrical wires.

The cylinder (3.1.4-3.2.4) with the largest diameter serves as a stop for the fastening ring (2.5) with an internal thread (2.5.1), which is screwed onto the cylinder with a smaller diameter when secured in the socket (8.1.1-8.2. 1) for the cap (3.1.2-3.2.2) of the proposed connector (8) of the electrical wires of the pin cap (3.1.2-3.2.2) of another similar connector (8) of the electrical wires.

The second zone (8.1.2-8.2.2) - the zone of screwless clamps (8.3.2) and (8.4.2) for connecting electrons (2) in which the proposed compact electric energy-saving lamps (1) are fixed, is made in the form of a direct parallelepiped.

In the second zone (8.1.2-8.2.2), there is a phase (positive) conductive bus (8.3) with a screwless pin clamp (8.3.3) for connecting a phase (positive) pin electrical output (8.3.1) to another similar connector ( 8) electric wires and screwless pin clamps (8.3.2) for connecting phase (plus) electric plugs (4.5.3) of electric plugs (4.5), each of which is connected to an electron cartridge (2), in which a compact electric energy-saving lamp is mounted ( one).

In the second zone (8.1.2-8.2.2), there is a zero (minus) conductive bus (8.4) with a screwless pin clamp (8.4.3) for connecting a zero (minus) pin electrical output (8.4.2) for connecting phase ( plus) electric plugs (4.5.4) of electric plugs (4.5), each of which is connected to an electric cartridge (2), in which a compact electric energy-saving lamp (1) is fixed.

The third zone (8.1.3-8.2.3), the basement location zone (3.1.2-3.2.2), is made in the form of three mating cylinders (3.1.2-3.2.2), (3.1.3-3.2.3 ) and (3.1.4-3.2.4) of different sizes. The diameters of these cylinders (3.1.2-3.2.2), (3.1.3-3.2.3) and (3.1.4-3.2.4) decrease from left to right. The smallest cylinder (3.1.2-3.2.2) is a basement protrusion (3.1.2-3.2.2). A thread (3.1.3.1-3.2.3.1) was made on the side surface of the cylinder (3.1.3-3.2.3) of medium diameter, designed to fix the proposed connector (8) of electrical wires in the socket (5.1.1-5.2.1) for the pin base (1.3) of the compact electric energy-saving lamp (1) or in the socket (8.1.1.1-8.2.1.1) for the pin base (3.1.2-3.2.2) of a similar connector (8) of electric wires.

The cylinder (3.1.4-3.2.4) with the largest diameter serves as a stop for the fastening ring (2.5) with an internal thread (2.5.1), which is screwed onto the cylinder (3.1.3-3.2.3) with an average diameter when fixing the proposed the connector (8) of the electrical wires in the socket (5.1.1 -5.2.1) for the pin base (1.3) of the compact electric energy-saving lamp (1), or in the socket (8.1.1.1-8.2.1.1) for the pin base (3.1.2 -3.2.2) a similar connector (8) of electrical wires.

In the inner cavity of the base (8.1) of the housing (8.1-8.2), the connector (8) of the electrical wires under consideration, parallel to its horizontal axis and to each other, there is a socket (8.1.2.1) for a phase (plus) conductive bus (8.3) with sockets (8.1 .1.4) for screwless pin electrical terminals (8.3.2) and socket (8.1.2.3) for zero (minus) conductive busbar (8.4) with sockets (8.1.1.5) for screwless pin electrical terminals (8.4.2).

On a long wide edge, the base (8.1) of the housing, opposite to that which connects the base (8.1) and the cover (8.2) of the proposed connector (8) of the electrical wires, there are inlets (3.1.9) for the plugs (4.5.3) and (4.5.4) electric plugs (4.5), each of which is connected to an electric cartridge (2), in which a compact electric energy-saving lamp (1) is fixed.

Moreover, each such inlet (3.1.9) communicates with a socket (8.1.1.4) or (8.2.1.1) for the corresponding screwless pin electrical clamp (8.3.2) or (8.4.2).

In the inner cavity of the base (8.1) of the housing, the connector (8) of the electrical wires in question, mounting recesses (3.1.11) and ventilation recesses (3.1.12) are made, which alternate with each other.

A rectangular mounting recess (3.1.10) is made along the outer perimeter of the narrow side walls of the base (8.1) of the housing, the connector (8) of the electrical wires in question.

In the inner cavity of the cover (8.2) of the housing, (8.1-8.2) of the connector (8) of the electric wires under consideration, parallel to its horizontal axis and to each other, there is a socket (8.2.2.1) for a phase (plus) conductive bus (8.3) and a socket (8.2 .2.3) for a zero (minus) conductive bus (8.4).

In the inner cavity of the lid (8.2) of the housing (8.1-8.2), of the connector (8) of the electrical wires under consideration, fastening protrusions (3.2.8) and ventilation recesses ((3.2.9) are alternated.

A rectangular mounting protrusion (8.2.7) is made along the outer perimeter of the narrow side walls of the cover (8.2) of the housing (8.1-8.2), the connector (8) of the electrical wires in question.

On the cover (8.2) of the housing (8.1-8.2), of the electrical connector (8) under consideration, in the center of the lateral edge of the base protrusion (3.2.2), a plane (parallel to the central horizontal axis of the proposed electrical connector (8)) is cut out (3.2 .2.1), fixing the position of the proposed connector (8) of the electrical wires in the internal cavity of the electric cartridge (5) structurally combined with an electronic ballast (EAF) or other similar connector (8) of electrical wires.

Phase (plus) conductive bus (8.3) and zero (minus) conductive bus (8.4) are made in the form of a plate of complex shape from conductive material. Each busbar (8.3) and (8.4) has a long section, the center of which lies on a straight parallel horizontal axis of the connector (8) of the electrical wires and conductive plates (8.3.2.1) located in the plane parallel to its horizontal axis and perpendicular to a narrow long face conductive busbars (8.3) and (8.4).

The right end and the left end of the phase (positive) conductive bus (8.3) are respectively the pin electrical terminal (8.3.1) and (8.3.3.1).

The right end and the left end of the zero (minus) conductive bus (8.4) is respectively a pin electrical terminal (8.4.1) and (8.4.3.1).

On the left pin electrical terminal (8.3.3.1) of the phase (positive) conductive bus (8.3) and the left pin electric terminal (8.4.3.1) of the zero (negative) conductive bus (8.4), a rectilinear fastening is fixed mechanically and electrically, for example, by cold welding section (2.6.4) of the undulating contact spring (2.6), thus forming a phase (plus) screwless pin electrical clamp (8.3.3) and zero (minus) screwless pin electrical clamp (8.4.3), respectively.

On each conductive plate (8.3.2.1) and (8.4.2.1) located in the plane parallel to the horizontal axis of the connector (8) of the electrical wires under consideration and perpendicular to the narrow long face of the phase (plus) conductive bus (8.3) and zero (minus) conductive tires (8.4), mechanically and electrically, for example, by the method of cold welding, a rectilinear mounting section (2.6.4) of a wave-like contact spring (2.6) is fixed, forming a phase (positive) screwless pin electric them (8.3.2) and zero (negative) electric screwless clamp pin (8.4.2).

On the site, for example, the right end of the phase (positive) pin electrical terminal (8.3.1) and the zero (minus) pin electrical terminal (8.4.1), on its wide edge, facing away from the horizontal axis of the proposed connector (8) of the electrical wires, perpendicular to a narrow face, the slots are made, respectively, (8.3.1.1) and ((8.4.1.1) for the support turns (2.6.3) of the wave-shaped contact spring (2.6). The profile of each of this nest (8.3.1.1) and (8.4.1.1 ) repeats the surface profile of the contact spring section (2.6) near the support coil (2.6.3), turned in with side of the working face of the pin electrical outlet, respectively (8.3.1) and (8.4.1). The upper edges of these sockets (8.3.1.1) and (8.4.1.1) are rounded.

On the central horizontal axis of the phase (plus) pin electrical terminal (8.3.1) and the zero (minus) pin electric terminal (8.4.1), in the center of each socket (8.3.1.1) and (8.4.1.1) for the reference coil (2.6 .3) the wave-shaped contact spring (2.6) is made nests, respectively (8.3.1.2) and (8.4.1.2) for the spherical protrusion (2.6.3.1) of the wave-shaped contact spring (2.6). The pairing points of each socket (8.3.1.2) and (8.4.1.2) for the spherical protrusion (2.6.3.1) of the wave-like contact spring (2.6) and the socket (8.3.1.1) and (8.4.1.1) for the support coil (2.6.3) the wave-shaped contact spring (2.6) is rounded.

A horizontal line passing through the center of the cross section of the pin electrical output (8.3.1) and (8.4.1), each end of the phase (plus) conductive bus (8.3) and the pin electrical output of each end of the zero (negative) conductive bus (8.4), parallel to its long edge and the central horizontal axis of the proposed connector (8) of electrical wires. Moreover, this horizontal line and the central horizontal axis of the proposed connector (8) of the electrical wires are located in one horizontal plane. The distance between the centers of the normal cross-sections of the segments of the pin electrical terminals (8.3.1) and (8.4.1) extending beyond the proposed connector (8) of the electric wires is equal to the distance between the centers of the plugs of the standard electric plug.

The plug (8.5), designed to close the free base socket (8.1.1.1-8.2.1.1) of the proposed connector (8) of electric wires, is made in the form of three mating cylinders (8.5.1), (8.5.3) and (8.5.4 ) different sizes. The diameters of these cylinders decrease from left to right. The smallest cylinder (8.5.1) is a base ledge. A thread (8.5.3.1) was made on the side surface of the cylinder (8.5.3) of average diameter, designed to fix the plug (8.5) in the housing (8.1-8.2) of the proposed connector (8) of the electrical wires, in the socket (8.1.1.1-8.2. 1.1) for the pin base 3.1.2-3.2.2). The cylinder (8.5.4) with the largest diameter serves as a stop for the fastening ring (2.5) with an internal thread (2.5.1), which is screwed onto the cylinder (8.5.3) with an average diameter when the plug (8.5) is fixed in the socket (8.1. 1.1-8.2.1.1) for the pin base 3.1.2-3.2.2). In the inner cavity (8.5.2.2) of the plug (8.5), on the end wall of the thrust protrusion (8.5.4), a protrusion (8.5.2.2.) Of rigidity is made, and a hole (8.5.2.3) is made for the halyard in its center.

In the center of the lateral edge of the base protrusion (3.2.2) of the plug (8.5), with a plane parallel to its central horizontal axis, a cutout is made - a retainer (8.5.1.4) that fixes the position of the plug (8.5) in the inner cavity of the base socket of the electron cartridge (5) constructively combined with an electronic ballast (EAPR) or the proposed connector (8) of electrical wires.

A phase (positive) conductive bus (8.3) with screwless pin electrical clamps (8.3.3) and (8.3.2) located on it is inserted into the corresponding slots (8.1.2.1) and (8.1.2.2) for it in the internal cavity of the base ( 8.1) of the proposed connector (8) of electrical wires.

A zero (minus) conductive bus (8.4) with screwless pin electrical clamps (8.4.2) and (8.4.3) located on it is inserted into the corresponding slots (8.1.2.3) and (8.1.2.4) for it in the internal cavity of the base ( 8.1) of the proposed connector (8) of electrical wires.

In this case, the free end of the wave-shaped contact spring (2.6) of each pin electrical clamp (8.3.2) and (8.4.2) located on the conductive plate, respectively (8.3.2.1) and (8.4.2.1) of the perpendicular conductive bus, respectively (8.3) and (8.4), facing the inlet (3.1.9) on the base body (8.1) of the proposed connector (8) of the electrical wires. After that, the cover (8.2) of the housing, the connector (8) of the electrical wires in question, is pressed tightly to its base (8.1).

In this case, the mounting protrusions (3.2.8) of the cover (8.2) are inserted into the corresponding mounting recesses (3.1.11) of the base (8.1). Each ventilation recess (3.2.9) of the cover (8.2) and the opposing ventilation recess (3.1.12) of the base (8.1) form a single ventilation cavity. A rectangular protrusion (3.2.7) around the perimeter of the lid (8.2) is located in a rectangular recess (3.1.10) around the perimeter of the base (8.2).

The pin phase (positive) electrical terminal (8.3.1) of the proposed connector (8) of the electric wires is inserted into the phase (positive) screwless electric clamp (5.3.2) of the electrons (5), which is structurally combined with the electronic ballast (5.3) (EAPR )

The pin zero (minus) electrical terminal (8.4.1) of the proposed connector (8) of the electric wires is inserted into the zero (minus) screwless pin electric clamp (5.3.3) of the electrons (5), which is structurally combined with the electronic ballast (5.3) ( EAFR).

The base (3.1.2-3.2.2) of the proposed connector (8) of the electric wires is fixed in the socket (5.1.3-5.2.3) for the pin base (1.3) of the compact electric energy-saving lamp (1), in the housing of the electric cartridge (5), structurally combined with an electronic ballast (EAPR) (5.3), and fixed in it with a mounting ring (2.5), which is screwed onto a cylindrical mounting protrusion (3.1.3-3.2.3), of the proposed connector (8) of electrical wires.

The base (3.1.2-3.2.2) of the second proposed connector (8) of electric wires similar to the first connector (8) of electric wires, already connected to the electrons (5), structurally combined with an electronic ballast (EAPR) (5.3), is fixed in socket (8.1.1.1-8.21.1) for the pin base (3.1.2-3.2.2) of the first proposed connector (8) of the electrical wires, and is fixed in it by a fixing ring (2.5), which is screwed onto a cylindrical mounting protrusion 3.1.3 -.3.2.3), the proposed connector (8) of electrical wires.

Similarly, connected in series with the proposed connector (8) of electrical wires, the required number of analogous to the proposed connectors (8) of electrical wires, depending on the power of the electronic ballast (5.3) (EAPR), located in the housing of the cartridge (5), combined with it.

In the base socket (5.1.3-5.2.3) of the leftmost proposed connector (8) of the electrical wires, the proposed plug (8.5) is fixed.

A phase (plus) plug (4.5) is inserted into a pair of inlets (3.1.9) that communicate with the phase (plus) pin screwless screw terminal (8.3.2) and the zero (minus) pin screwless screw terminal (8.4.2). 3) and zero (minus) plug (4.5.4) of the electric plug (4.5) connected to the electric cartridge (2) in which a compact electric energy-saving lamp (1) is fixed. In this case, the housing (4.5.1-4.5.2) of the electrical plug (4.5) is oriented with respect to the housing (8.1-8.2) of the proposed connector (8) of the electrical wires using the locking protrusion (4.5.2.1.6) on the end surface of the electrical plug ( 4.5) and the fixing recess (3.1.9.1) on the base body (8.1) of the proposed connector (8) of the electrical wires.

Similarly connected to the proposed connector (8) of electrical wires, the number of compact electric energy-saving lamps (1), for which it is designed.

In the network phase (positive) screwless screw terminal (6.4.3) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.1) coming from the phase (plus) terminal of the source of electric energy (7).

In the network zero (minus) pin screwless clamp (6.4.4) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.2), coming from the zero (minus) terminal of the source (7) of electrical energy.

A conductive tip (2.3) is inserted into the phase (positive) screwless screw terminal (6.4.1) of the consumer, in which the conductive core of the electric wire (7.1.3) is connected mechanically and electrically, for example, by crimping, to the electric cartridge (5), combined with Electronic ballasts.

A conductive tip (2.3) is inserted into the network (negative) screwless screw terminal (6.4.2) of the consumer, in which the conductive core of the electric wire (7.1.4) going to the electric cartridge (5) combined with the electronic ballast is mechanically and electrically, for example, crimped .

In the network screwless phase (positive) phase clamp electric clamp (5.3.4) of the proposed module (5.3) of the electronic ballast (5.3) (EPR) located in the body of the electric cartridge (5), a conductive tip (2.3) is inserted in which mechanically and electrically, for example, by crimping, a conductive core of an electric wire (7.1.3) is fixed, coming from a phase (plus) pin screwless terminal (6.4.1) of an electronic automatic electrical switch (6) with touch and remote control.

In the network screwless pin zero (minus) electrical clamp (5.3.5) of the proposed module (5.3) of the electronic ballast (EAPR) located in the body of the electric cartridge (5), a conductive tip (2.3) is inserted in which mechanically and electrically, for example, by crimping , the conductive core of the electric wire (7.1.4), coming from the zero (minus) pin screwless clamp (6.4.2) of the electronic automatic electric switch (6) with touch and remote control, is fixed.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

An infrared photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. In this case, the electrodes (1.1.1) and (1.1.2) of the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) do not receive power and the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) does not radiate radiant energy.

The proposed set of lighting electrical equipment works to connect a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to a source of electrical energy (7) as follows: after an infrared photodetector (6.2) is an optothyristor of the proposed electronic circuit breaker (6) with touch and remote control, a control signal will be sent, or direct read only touch on the touch sensor (6.3), for example, human hand, it is activated and begins to pass current. In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

In Fig.27 - Fig.35 presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to the source (7) of electrical energy, in which used a connector (10) of electric wires and an electronic ballast (9) (EAPR), having a ring-shaped shape and arranged concentrically.

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps (1), an annular-shaped connector for electric wires (10) and an electronic ballast (9) (EAPR) located concentrically, as well as an electronic automatic electrical switch (6) with touch and remote control.

The proposed connector (10) of the electrical wires contains: a housing (10.1-10.2) made of electrical insulation material, a phase (plus) conductive bus (10.3) and a zero (minus) conductive bus (10.4) with screwless pin electrical clamps located on them, respectively (10.3.1) and (10.4.1).

The housing (10.1-10.2) of the proposed connector (10) of the electrical wires is made in the form of a ring and consists of a base (10.1) and a cover (10.2).

In the inner cavity of the base body (10.1), the connector (10) of the electrical wires under consideration, coaxially to its side surfaces, there is a socket (10.1.1) for a phase (positive) conductive bus (10.3) with sockets (10.1.1.1) for phase (positive) screwless pin electrical clamps (10.3.1) and socket (10.12) for zero (minus) conductive bus (10.4) with sockets (10.1.2.1) for zero (minus) screwless pin electric clamps (10.4.1).

Moreover, the socket (10.1.1) for the phase (positive) conductive bus (10.3) and the socket (10.1.2) for the zero (negative) conductive bus (10.4) together, in plan, are the sides of a polygon, for example, fourteen angles whose angles rounded off. These nests (10.1.1) and (10.1.2) are separated from both ends by insulating fixing recesses (10.1.6).

In the middle of each linear section of the socket for (10.1.1) for the phase (positive) conductive bus (10.3) facing the outer side edge of the housing (10.1-10.2) of the proposed connector (10) of electrical wires, there is a socket (10.1.1.1) for the phase (positive) screwless pin electrical clamp (10.3.1).

In the middle of each linear section of the socket (10.1.2) for the zero (minus) conductive bus (10.4) facing the outer side edge of the housing (10.1-10.2) of the proposed connector (10) of electrical wires, there is a socket (10.1.2.1) for zero ( minus) screwless pin electrical clamp (10.4.1).

Socket (10.1.1) for a phase (positive) conductive bus (10.3) with sockets (10.1.1.1) for phase (positive) screwless pin electrical terminals (10.3.1) and a socket (10.1.2) for zero (negative) conductive buses (10.4) with sockets (10.1.2.1) for zero (minus) screwless pin electrical terminals (10.4.1) are not communicated with each other.

In the inner cavity of the base housing (10.1), on both sides of the socket (10.1.1) for the phase (positive) conductive bus (10.3) and the slot (10.1.2) for the zero (negative) conductive bus (10.4) and between the screwless sockets pin electrical clamps (10.3.1) and (10.4.1) made mounting recesses (10.1.5).

Around the perimeter of the outer edge of the side faces of the base case (10.1), a rectangular mounting recess (10.1.4) is made.

Along the perimeter of the outer edge of the inner side face of the base case (10.1), a support ring protrusion (10.1.3) is made for the electronic start-up of the regulating apparatus (9) (electronic ballast). On the supporting ring ledge (10.1.3), a socket (10.1.3.1) is made for the lock (9.1.2) of the electronic ballast (9).

In the inner cavity of the housing of the cover (10.2), of the connector (10) of the electric wires under consideration, coaxially to its side surfaces, there is a socket (10.2.1) for a phase (plus) conductive bus (10.3) with sockets (10.2.1.1.) For phase (plus) ) screwless pin electrical terminals (10.3.1) and a socket (10.2.2) for zero (minus) conductive busbars (10.4) with sockets (10.2.2.1) for zero (minus) screwless pin electrical terminals (10.4.1).

Moreover, the socket (10.2.1) for the phase (positive) conductive bus (10.3) and the socket (10.2.2) for the zero (negative) conductive bus (10.4) together, in plan, are the sides of a polygon, for example, fourteen angles whose corners rounded off. These nests (10.2.1) and (10.2.2) are separated from both ends by insulating mounting tabs (10.2.6).

In the middle of each linear section of the socket (10.2.1) for the phase (positive) conductive bus (10.3) facing the outer side edge of the housing (10.1-10.2) of the proposed connector (10) of electrical wires, there is a socket (10.2.1.1) for phase ( plus) screwless pin electrical clamp (10.3.1).

In the middle of each linear section of the socket (10.2.2) for the zero (minus) conductive bus (10.4) facing the outer side edge of the housing (10.1-10.2) of the proposed connector (10) of electrical wires, there is a socket (10.2.2.1) for zero ( minus) screwless pin electrical clamp (10.4.1).

Socket (10.2.1) for a phase (positive) conductive bus (10.3) with sockets (10.2.1.1) for phase (positive) screwless pin electrical terminals (10.3.1) and a socket (10.2.2) for zero (negative) conductive buses (10.4) with sockets (10.2.2.1) for zero (minus) screwless pin electrical terminals (10.4.1) are not communicated.

On the upper end face, the cover body (10.2), perpendicular to it, inlet openings (10.2.3) are located.

Moreover, each such inlet (10.2.3) communicates with a socket (10.2.1.1) or (10.2.2.1), respectively, for a phase (plus) screwless pin electrical clamp or for a zero (minus) screwless pin electrical clamp (10.4.1 ) located on the corresponding conductive bus (10.3) or (10.4).

In the inner cavity of the base housing (10.2), on both sides of the socket (10.2.1) for the phase (positive) conductive bus (10.3) and the slot (10.2.2) for the zero (negative) conductive bus (10.4) and between the screwless sockets pin electrical clamps (10.3.1) and (10.4.1) made mounting tabs (10.2.5).

Around the perimeter of the outer edge of the side faces of the lid body (10.2), a rectangular mounting protrusion (10.2.4) is made.

A phase (positive) conductive bus (10.3) with phase (positive) screwless pin electrical clamps (10.3.1) located on it is inserted into the corresponding socket (10.1.1) for it in the internal cavity of the base (10.1) of the proposed connector (10) electrical wires.

Moreover, its leftmost phase (positive) screwless pin electrical clamp (10.3.1) is located on the horizontal axis of symmetry of the proposed connector (10) of electrical wires on the left side of its base (10.1).

A zero (minus) conductive bus with zero (minus) screwless pin electrical clamps (10.4.1) located on it is inserted into the corresponding socket (10.1.2) for it in the internal cavity of the base (10.1) of the proposed connector (10) of electrical wires.

Moreover, its rightmost zero (minus) screwless pin electrical clamp (10.4.1) is located on the horizontal axis of symmetry of the proposed connector (10) of electrical wires on the right side of its base (10.1).

After that, the cover (10.2) of the connector (10.2) of the electrical wires in question is pressed tightly to its base (10.1).

The free end of the wave-shaped contact spring (2.6) of each pin electrical clamp (10.3.1) and (10.4.1) located on the phase (plus) conductive bus (10.3) and zero (minus) conductive bus (10.4) is facing the input holes (10.2.3) on the cover body (10.2) of the proposed connector (10) of the electrical wires.

In this case, the mounting protrusions (10.2.5) of the cover (10.20 are inserted into the corresponding mounting recesses (10.1.5) of the base (10.1). A rectangular protrusion (10.2.4) along the perimeter of the cover (10.2) is located in a rectangular recess (10.1.4) along the perimeter of the base (10.1), and the cover (10.2) is firmly pressed against the base (10.1).

Electronic ballast (EAF) (9) is made in the form of a monolithic module (9.1), having the shape of a ring; on the outer side surface of the electronic ballast housing (9) there is a guide protrusion (9.1.2), fixing its position in the inner ring of the proposed connector (10) of the electrical wires.

In this case, the guide protrusion (9.1.2) on the lateral surface of the electronic ballast housing (9) is located in the socket (10.1.3.1) for it on the support ring (10.1.3) of the base case (10.1).

On the upper edge of the electronic ballast housing (9), on mutually perpendicular lines there are inlets (9.1.5) for the network phase (plus) screwless pin electrical clamp (9.1.4) and zero (minus) screwless pin electric clamp, (9.1.5 ) as well as for the phase (plus) screwless pin electrical clamp (9.1.6) and zero (minus) screwless pin electrical clamp (9.1.7) of the consumer located inside the electronic ballast housing (9). Moreover, the free end of the wave-shaped contact spring (2.6) of each of this pin electrical clamp faces the inlet (9.1.5) on the upper edge of the housing (9.1) of the proposed electronic ballasts (9).

The guide protrusion on the side surface of the housing (9.1) of the electronic ballast (9) is located in the socket (10.1.3.1) for it on the support ring ((10.1.3) of the base housing (10.1) of the proposed connector (10) of the electrical wires.

In this case, the inlets (9.1.3) and (10.2.3) of the phase (positive) screwless pin electrical clamp of the consumer ((10.3.1) and the network phase (positive) screwless pin electrical clamp (9.1.6) are located mirror symmetrically and on one line with the inlet (10.2.3) of the zero (negative) screwless pin electrical clamp (10.4.1) of the consumer, which are located mirror symmetrically with the inlets (9.1.3) of the network zero (negative) screwless pin electric clamp (9.1.5 )

At the end of each electric wire connecting the electron cartridge (2), in which a compact electric energy-saving lamp (1) is fixed, and which is not structurally combined with an electronic ballast (EAF) (5.3), the proposed connector of electric wires (10), the proposed Electronic ballasts (9), an electronic automatic electrical switch (6) with touch and remote control and a source (7) of electrical energy, are fixed, for example, by cold welding, a conductive tip (2.3).

In the inner cavity of one of the structural elements of the chandelier, for example, in the inner cavity of the cap covering the hook, to which the chandelier is attached and the electric wires that are suitable for it, are placed, the proposed connector (10) of electric wires and an electronic ballast (EAF) (9).

In this case, the electronic ballast (9) is located inside the annular housing (10.1-10.2) of the proposed connector (10) of the electric wires, and its guide protrusion (9.1.2) on the side surface of the housing (9.1) is located in the socket (10.1.3) for it on the support ring (10.1.3.1) of the base body (10.1) of the proposed connector (10) of electric wires, this assembly is strung on a tube with the help of which the chandelier is mounted at the place of operation.

The leftmost phase (positive) pin electric clamp (10.3.1) of the proposed connector (10) of electric wires and the phase (positive) pin electric clamp (9.1.6) for the electric wire coming from the electronic ballast (9) to the proposed connector (10) electric wires arranged mirror symmetrically.

Each conductive tip (2.3), mounted on the conductive core of the phase (positive) electric wire (2.8.1), coming from the electrons, in which the compact electric energy-saving lamp (1) is fixed, is inserted into the pin electrical clamp (10.3.1) located on the phase (plus) conductive bus (10.3).

Each conductive tip (2.3), mounted on the conductive core of the zero (negative) electric wire (2.8.2), coming from the electrons, in which the compact electric energy-saving lamp (1) is fixed, is inserted into the pin electrical clamp (10.4.1) located on the zero (minus) conductive bus (10.4).

A piece of electrical wire (7.1.5), at the ends of which a conductive tip (2.3) is fixed, a phase (positive) pin electrical clamp (10.3.1) of the proposed connector (10) of electrical wires and a phase (positive) pin electrical clamp (9.1.6 ) Electronic ballasts (9) are interconnected.

A piece of electric wire (7.16), at the ends of which a conductive tip (2.3) is fixed, a zero (minus) pin electrical clamp (10.4.1) of the proposed connector (10) of electric wires and a zero (minus) pin electric clamp (9.1.7) electronic ballasts (9) interconnected.

In the network phase (positive) screwless screw terminal (6.4.3) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.1) coming from the phase (plus) terminal of the source of electric energy (7).

In the network zero (minus) pin screwless clamp (6.4.4) of the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.2), coming from the zero (minus) terminal of the source (7) of electrical energy.

A conductive tip (2.3) is inserted into the phase (plus) screwless screwless terminal (6.4.1) of the consumer, the proposed electronic automatic electrical switch (6) with touch and remote control, in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.3), at the second end, on the conductive core of this electric wire, the conductive terminal (2.3) is also fixed, which is inserted into the network phase (plus) pin screwless terminal (9.1.4) emogo electronic ballast (9) (EAPR) located in the inner ring of the proposed electrical connector wires (10).

In the zero (minus) screwless screw terminal (6.4.2) of the consumer, the proposed electronic circuit breaker (6) with touch and remote control, a conductive tip (2.3) is inserted in which the conductive core of the electric wire is fixed mechanically and electrically, for example, by crimping (7.1.4), at the second end, on the conductive core of this electric wire, the conductive terminal (2.3) is also fixed, which is inserted into the network zero (minus) pin screwless terminal (9.1.5) pre Laga electronic ballast (9) (EAPR) located in the inner ring of the proposed electrical connector wires (10).

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

A photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open; however, the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1) do not receive power and the radiant energy source (1.1) of the compact electric energy-saving lamp (1.1) does not emit radiant energy.

The proposed set of lighting electrical equipment works for connecting a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) as follows: after using an infrared photodetector (6.2.2.2 ) the optothyristor of the proposed electronic circuit breaker (6) with touch and remote control will send a control signal, or will happen directly vennoe touching the touch sensor (6.2.2.1), such as a human hand, it is activated and begins to pass current.

In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

The proposed technical solutions allow us to create a set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (1) to the source (7) of electric energy, increase labor productivity in the process of its production and operation, significantly reduce costs in its production and operation ui. Significantly increase the reliability of lighting electrical equipment, its fire and electrical safety, ensure maintainability, save materials and components.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application ..

The proposed technical solutions can be used for any electric lamps that use a pin base, but they can be most effectively used for compact electric energy-saving lamps (1) in group applications, providing the possibility of automating the process of lighting objects.

The proposed technical solutions will improve the safety of a set of lighting electrical equipment after its operation is completed, as it will greatly simplify the work on its disposal.

On Fig - Fig 42 presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to the source (7) of electrical energy.

In the proposed set of lighting electrical equipment used assembly - [SEP-EPRA] (10-9) - connector (10) of electric wires and an electronic ballast (9), having a ring-shaped shape and arranged concentrically, according to claim 3, and the proposed assembly - [ SEP-EPRA] (12-11) - a connector (12) of electric wires having a ring-shaped shape, on which opposite the one on which the inlet openings are located (10.2.3), pin electrical leads (12.3.1) and ( 12.4.1), and electronic ballast arat (11), having an annular shape, on which on the surface opposite to that on which the inlet openings (9.1.3) are located, the pin electrical leads (11.1.1.3), (11.1.2.3), (11.13.3) and (11.1 .4.3), allowing them to be connected electrically among themselves, and with another similar assembly.

In the proposed assembly [SEP-EPRA] (12-11), the connector (12) of the electric wires and the electronic ballast (11) are concentrically and electrically connected to each other.

The proposed set of lighting electrical equipment contains: compact electric energy-saving lamps (1), each of which is fixed in an electric cartridge (2), at least one assembly [(9-10)] - [SEP-EPRA] - connector (10) and electronic ballasts (9), having an annular shape and arranged concentrically according to claim 3, and at least one assembly (11-12) - [SEP-EPRA], electrically interconnected, electronic automatic with touch and remote control electric switch (6).

The proposed connector (12) of electric wires contains: a housing (12.1-12.2), consisting of a base (12.1) and a cover (12.2) made of electrical insulating material, a phase (plus) conductive busbar (12.3) and zero (minus) conductive bus (12.4) with the screwless pin electrical clamps (10.3.1) and (104.1) located on them, respectively.

Below the extreme section of the phase (positive) conductive bus (12.3) of the phase (positive) screwless pin electrical clamp (10.3.1), for example, the left one, as its continuation is located the phase (positive) pin electrical terminal (12.3.1).

Below the extreme section of the zero (minus) conductive bus (12.4) of the zero (minus) screwless pin electrical clamp (10.4.1), for example, the right one, as its continuation is located the zero (minus) pin electrical terminal (12.4.1).

The housing of the proposed connector (12) of electrical wires is made in the form of a ring and consists of a base (10.1) and a cover (10.1).

In the inner cavity of the base housing (12.1), the connector (12) of the electric wires under consideration, a socket (10.1.1) for a phase (plus) conductive bus (12.3) with sockets (10.1.1.1) for phase (plus) is located coaxially with its side surfaces screwless pin electrical clamps (10.3.1) and a socket (12.1.1.2) for a phase (plus) pin electrical output (12.3.1), as well as a socket (10.1.2) for a zero (negative) conductive bus (12.4) with sockets (10.1.2.1) for zero (minus) screwless pin electrical terminals (10.4.1) and socket ( 12.1.2.2) for the zero (minus) pin electrical output (12.4.1). Moreover, the socket (10.1.1) for the phase (positive) conductive bus (12.3) together with the socket (10.1.2) for the zero (negative) conductive bus (12.4) in plan are the sides of a polygon, for example, fourteen angles whose corners are rounded .

In the middle of each linear section of the socket (10.1.1) for the phase (positive) conductive bus (12.3) facing the outer side edge of the base body (12.1) of the proposed connector (12) of electrical wires, there is a socket (10.1.1.1) for phase (positive) screwless pin electrical clamp (10.3.1). In continuation of the extreme socket (10.1.1.1) for the phase (positive) screwless pin electrical clamp (10.3.1), for example, the left, there is a socket (12.1.2.2) for the phase (positive) screwless pin electrical terminal (12.3.1).

In the middle of each linear section of the socket (10.1.2) for the zero (negative) conductive bus (12.4) facing the outer side edge of the base body (10.1) of the proposed connector (10) of electric wires, there is a socket (10.1.2.1) for zero (negative) ) screwless pin electrical clamp (10.4.1). In continuation of the extreme socket (10.1.2.1) of the zero (negative) screwless pin electrical clamp (10.4.1), for example, the right, there is a socket (12.1.2.2) for the zero (negative) pin electrical terminal (12.4.1).

Socket (10.1.1) for a phase (positive) conductive bus (12.3), with its associated sockets (10.1.1.1) for phase (positive) screwless pin electrical terminals (10.3.1) and a socket (12.1.1.2) for phase (positive) pin electrical output (12.3.1), and socket (10.1.2) for the zero (negative) conductive bus (12.4), with its associated sockets (10.1.2.1) for zero (negative) screwless pin electrical terminals ( 10.4.1) and a socket (12.1.2.2) for the zero (plus) pin electrical terminal (12.4.1), are separated from each other by insulating mounting recesses (10.1.6).

In the internal cavity of the base case (12.1), between the sockets (10.1.1.1) for each phase (plus) screwless pin electrical clamp (10.3.1) and the sockets (10.1.2.1) for each zero (negative) screwless pin electric clamp (10.4 .1) fixing recesses (10.1.5) are made.

On the surface of the lower edge of the base (12.1) of the housing of the proposed connector (12) of electrical wires, at diametrically opposite ends of the diameter parallel to its horizontal axis, from one end, for example the left, there is a support protrusion (12.1.1), in the center of which is an insulating protrusion (12.1.1.1), with a hole that is part of the socket (12.1.1.2) for the phase (plus) pin electrical terminal (12.3.1), and on the other end, for example the right, there is a support ledge (12.1.2), the center of which is an insulating lining unitary enterprise (12.1.2.1), with a hole that is part of the socket (12.1.2.2) for the zero (minus) pin terminal (12.4.1).

Along the perimeter of the upper edges of the side faces of the base case (12.1), a rectangular mounting recess is made (10.41.4).

Along the perimeter of the lower edge of the inner side face of the base body (12.1) of the proposed connector (12) of electric wires, a support ring protrusion (10.1.3) is made for the electronic start-up of the regulating apparatus (11). A slit (10.1.3.1) is made on the supporting annular protrusion (10.1.3) to fix the electronic trigger of the regulating apparatus (11) in the inner cavity of the proposed connector (12) of electric wires.

In the inner cavity of the housing of the cover (12.2), of the connector (12) of the electrical wires under consideration, coaxially to its side surfaces is a socket (12.2.1) for a phase (positive) conductive bus (12.3) with sockets (12.2.1.1) for screwless pin electrical terminals (10.3.1), as well as the socket (10.2.2) for the zero (minus) conductive bus (12.4) with the sockets (10.2.2.1) for screwless pin electrical terminals (10.4.1).

Moreover, the socket (10.2.1) for the phase (positive) conductive bus (12.3) together with the socket (10.2.2) for the zero (negative) conductive bus (12.4) in plan are the sides of a polygon, for example, fourteen angles whose corners are rounded .

In the middle of each linear section of the socket (10.2.1) for the phase (positive) conductive bus (12.3) facing the outer side face of the cover body (12.2) of the proposed connector (12) of electrical wires, there is a socket (10.2.1.1) for phase (positive) ) screwless pin electrical clamp (10.3.1).

In the middle of each linear section of the socket (10.2.2) for the zero (minus) conductive bus (12.4) facing the outer side edge of the cover body (12.2) of the proposed connector (12) of electric wires, there is a socket (10.2.2.1) for zero (negative) ) screwless pin electrical clamp (10.4.1).

The slot (10.2.1) for the phase (positive) conductive bus (12.3) and the slot (10.2.2) for the zero (negative) conductive bus (12.4) are separated from each other by insulating mounting tabs (10.2.6).

In the inner cavity of the cover body (12.2) of the proposed connector (12) of electric wires, between the sockets (10.2.1.1) for each phase (plus) screwless pin electrical clamp (10.3.1) and the sockets (10.2.2.1) for each zero (minus) ) screwless pin electrical clamp (10.4.1) made mounting tabs (10.2.5).

On the surface of the upper outer edge of the cover body (12.2) of the proposed connector (12) of electric wires, as an extension of each socket (10.2.1.1) for a phase (plus) screwless pin electrical clamp (10.3.1) and a socket (10.2.2.1) for zero (minus) screwless pin electrical clamp (10.4.1) made an inlet (10.2.3) for the conductive tip (2.3), which is mechanically and electrically connected to the conductive core of the corresponding electrical wire (2.8.1) or (2.8.2), coming from the electron cartridge (2) in which m is fastened compact electric energy saving lamp (1).

In place of the inlet (9.1.3), on the surface of the upper outer edge of the cover body (12.2), which is interfaced with the socket (10.1.1.1) for the phase (plus) pin screwless clamp (10.3.1), during which on the base ( 12.1) of the proposed connector (12) of electric wires there is a socket (12.1.1.2) for a phase (positive) pin terminal (12.3.1), in addition to the inlet (9.1.3), a socket (10.2.3.1) for the insulating protrusion (11.1. 1.1) phase (positive) pin electrical output (11.1.1.3) of the electronic start-up of the regulating apparatus (11).

In place of the inlet (9.1.3), on the upper surface of the cover body (12.2), which is interfaced with the socket (10.2.2.1) for the zero (minus) screwless clamp (10.4.1), during which on the basis of (12.1) the proposed the electrical wire connector has a socket (12.1.2.2) for the zero (negative) pin terminal (12.4.1), in addition to the inlet (9.1.3), a socket (10.2.3.1) for the insulating protrusion (11.1.3.1) of the zero (negative) is made pin electrical output (11.1.3.3) electronic start-up regulating apparatus (11).

A phase (plus) conductive bus (12.3) with screwless pin electrical terminals (10.3.1) located on it and a phase (plus) pin electrical terminal (12.3.1) fixed to it is inserted into the corresponding socket (10.1.1) for it in the internal cavity of the base (12.1) of the proposed connector (12) of electrical wires. Moreover, its left extreme screwless pin electrical clamp (10.3.1) is located on the horizontal axis of symmetry of the proposed connector (12) of electrical wires on the left side of its base (12.1).

A zero (negative) conductive bus (12.4) with screwless pin electrical clamps (10.4.1) located on it and a zero (negative) pin electrical pin 912.4.1 attached to it is inserted into the corresponding socket (10.1.2) for it in the internal the base cavity (12.1) of the proposed connector (12.1) of the electrical wires. At the same time, its rightmost screwless pin electrical clamp (10.4.1) with a zero (minus) pin electrical terminal fixed to it (12.4.1) is located on the horizontal axis of symmetry of the proposed connector (12) of electrical wires on the right side of its base (12.1 )

The free end of the wave-shaped contact spring (2.6) of each pin electrical clamp (10.3.1) and (10.4.1) located on the phase (plus) conductive bus (12.3) and zero (minus) conductive bus (12.4) is turned towards the corresponding the inlet (9.1.3) on the cover body (12.2) of the proposed connector (12) of the electrical wires.

The mounting protrusions (10.2.5) of the cover (12.2) of the proposed connector (12) of the electrical wires are inserted into the corresponding mounting recesses (10.1.5) of the base (12.1) of the proposed connector (12) of the electrical wires.

A rectangular protrusion (10.2.4) around the perimeter of the cover (12.2) of the proposed connector (12) of electrical wires is located in a rectangular recess (10.1.4) along the perimeter of the base (12.1) of the proposed connector (12) of electrical wires.

Then the cover (12.2) of the proposed connector (12) of the electric wires is pressed tightly to its base (12.1).

The ring-shaped body (11.1) of the proposed electronic start-up of the regulating apparatus (11) (EAPR) is made in the form of a monolithic round cylinder with a central circular cylindrical hole (9.1.8) through which the mounting tube (2.7) of the chandelier passes. Moreover, the length of the generatrix of the housing (11.1) of the electronic ballast (11) is much less than its radius. Starting from the second assembly [EP-EPRA], the radius of the central circular cylindrical hole (9.1.8) of the electronic ballast (11) for each subsequent assembly, connected in parallel to the previous one and located above it, increases by an amount larger than the diameter of the electric wire coming from the proposed connector (12) of electric wires to a compact electric energy-saving lamp (1).

On the side surface of the housing (11.1) of the proposed electronic ballast (11) is a guide protrusion (9.1.2), fixing its position in the inner cavity of the thick-walled cylinder of the housing (12.1) of the proposed connector (12) of electrical wires. The guide protrusion (9.1.2) on the side surface of the housing (11.1) of the electronic ballast (11) is located in the socket (10.1.3.1) for it on the support ring ((10.1.3) of the base housing (12.1).

On the upper base of the annular monolithic housing (11.1) of the proposed electronic ballast (11), on the horizontal axis passing through its center, at one end, for example, on the left, is the inlet (9.1.3) for a phase (positive) screwless pin electric clamp (9.1.6), in which the conductive core of the electric wire (2.8.1) is fixed, going to the phase (plus) screwless pin electrical clamp (10.3.1) of the proposed connector of electric wires (12), and diametrically on the opposite end, for example, on the right, there is an inlet (9.1.3) for a zero (minus) screwless pin electrical clamp (9.1.7), in which a conductive core of the electric wire (2.8.2) is connected, going to the zero (minus) screwless pin electrical clamp (10.4.1) of the proposed connector of electrical wires (12).

On the upper base of the annular monolithic body (11) of the electronic ballast (11), on the axis passing through its center perpendicular to the horizontal axis, at one end, for example, at the upper end, there is an inlet (9.1.3) for the network phase (positive) screwless pin electrical clamp (9.1.4) of the conductive core of the electric wire (7.1.1) coming from the electronic circuit breaker (6) with touch and remote control, and at the diametrically opposite end, for example ep at the bottom, is disposed an inlet (9.1.3) for the network zero (minus) electric screwless clamping pin (9.1.5) of the electric conductor wire extending from the source (7) energy.

The free end of the wave-shaped contact spring (2.6) of each pin electrical clamp (9.1.4), (9.1.5), ((9.1.6) and (9.1.7) faces the inlet (9.1.3) on the housing (11.1 ) of the proposed annular electronic ballast (11).

On the lower outer surface of the housing (11.1) of the proposed annular electronic ballast (11), at diametrically opposite ends of the diameter parallel to its horizontal axis, at one end, for example, the left, there is a support protrusion (11.1.1), in the center of which is an insulating protrusion (11.1.1.1), with a hole that is part of the socket (11.1.1.2) for the phase (positive) pin electrical terminal (11.1.1.3), to which the conductive core of the output phase (positive) electric wire is connected of the proposed electronic ballast (11), and on the diametrically opposite end, for example on the right, there is a support protrusion (11.1.3), in the center of which is an insulating protrusion (11.1.3.1), with an opening that is part of the socket (11.1.3.2 ) for the zero (minus) pin electrical terminal (11.1.3.3), to which the conductive core of the output zero (minus) electric wire of the electronic ballast (11) is connected.

On the lower outer surface of the housing (11.1) of the proposed ring-shaped electronic ballast (11), at diametrically opposite ends of the diameter perpendicular to its horizontal axis, at one end, for example, at the top, there is a support protrusion (11.1.2), in the center of which there is an insulating protrusion (11.1.2.1), with a hole that is part of the socket (11.1.2.2) for the network phase (positive) pin electrical output (11.1.2.3), to which the conductive core of the output phase (plus) electric is connected the natural wire of the proposed electronic ballast (11), and on the diametrically opposite end, for example at the lower, there is a support protrusion (11.1.4), in the center of which is an insulating protrusion (11.1.4.1), with an opening that is part of the socket (11.1 .4.2) for the zero (minus) pin electrical terminal (11.1.4.3) to which the conductive core of the output zero (minus) electric wire of the proposed electronic ballast (11) is connected.

The housing (11-1) of the proposed ring-shaped electronic ballast (11) is inserted into the inner cavity of the thick-walled, cylinder, housing (12.1-12.2) of the proposed ring-shaped connector (12) of the electrical wires and is fixed in it by a guide protrusion (9.1.2) located on the side the surface of the housing (11.1) of the electronic ballast (11).

Each conductive core of electric wires coming from the electrons (2), in each of which a compact electric energy-saving lamp (1) is fixed, is connected electrically and mechanically, for example by crimping, to the conductive tip (2.3).

A phase (positive) pin electrical terminal (12.3.1) located on the lower surface of the base (12.1) of the proposed connector (12) of electrical wires is inserted into a phase (positive) pin electric terminal (10.3.1) located, for example, on the left the upper surface of the previous connector (10) of the electrical wires.

A zero (negative) screwless pin electrical terminal (12.4.1) located on the lower surface of the base of the proposed connector (12) of electrical wires is inserted into a zero (negative) screwless pin electrical terminal (10.4.1) located, for example, on the right, on the top the surface of the previous connector (10) of the electrical wires.

Each conductive tip (2.3), to which a conductive core of an electric wire (2.8.1) is connected, coming from a pin screwless clamp (2.3-2.6) of an electric cartridge (2) in which a phase (positive) pin electrical terminal (1.3.2) is fixed, is compact an electric energy-saving lamp (1), inserted into the phase (positive) pin electrical clamp (10.3.1) on the upper surface of the cover (12.2) of the connector (12) of the electrical wires in question.

Each conductive tip (2.3), to which a conductive core of an electric wire (2.8.2) is connected, coming from a pin screwless clamp (2.3-2.6) of an electric cartridge (2) in which a zero (negative) pin electrical terminal (1.3.3) is fixed, is compact an electric energy-saving lamp (1), is inserted into the zero (minus) pin electrical clamp (10.4.1) on the upper surface of the cover (12.2) of the connector (12) of the electrical wires in question.

A phase (positive) pin electrical terminal (12.3.1) located on the lower surface of the base (12.1) of the proposed connector (12) of electrical wires is inserted into a phase (positive) pin electric terminal (10.3.1) located, for example, on the left the upper surface of the previous connector (10) of the electrical wires.

A zero (negative) screwless pin electrical terminal (12.4.1) located on the lower surface of the base (12.1) of the proposed connector (12) of electrical wires is inserted into a zero (negative) screwless pin electrical terminal (10.4.1) located, for example, on the right, on the upper surface of the previous connector (10) of the electrical wires.

A phase (positive) pin electrical terminal (11.1.1.3) located on the lower surface of the monolithic body (11.1) of the proposed electronic ballast (ECG) (11) is inserted into a phase (positive) pin electric terminal (9.1.4), located, for example , on the left, on the upper surface of the monolithic casing (9.1) of the previous electronic ballast (9).

A zero (minus) screwless pin electrical terminal located on the lower surface of the monolithic body (11.1) of the proposed electronic ballast (11) is inserted into a zero (minus) screwless pin electric terminal (9.1.5) located, for example, on the right, on the upper surface monolithic housing (9.1) of the previous electronic ballast (9).

The leftmost phase (positive) pin electric clamp (10.3.1) of the consumer on the upper surface of the cover (12.2) of the proposed connector (12) of electric wires and phase (positive) pin electric clamp (9.1.4) on the upper face of the proposed electronic ballast ( 11) located on the horizontal axis passing through the center of the cover (12.2) of the proposed connector (12) of the electrical wires and the proposed electronic ballast (11), are located symmetrically symmetrical and interconnected The electrical wire at the ends of the conductor, which are secured, for example by molding, the conductive lugs (2.3).

The far right zero (minus) pin electrical clamp (10.4.1) of the consumer on the upper surface of the cover (12.2) of the proposed connector (12) of electric wires and zero (negative) pin electrical clamp (9.1.5) on the upper surface of the monolithic housing (11.1) of the proposed electronic ballast (11) located on the horizontal axis passing through the center of the cover (12.2) of the proposed connector (12) of the electric wires and the electronic ballast (11) are located mirror symmetrically and with interconnected by an electric wire at the ends of the conductive core, which is secured, for example by crimping, conductive tips. (2.3)

In the inlet (9.1.3) for the network phase (positive) screwless pin electrical clamp (9.1.6), on the upper surface of the annular monolithic body (11.1) of the proposed electronic ballast (11), a conductive tip (2.3) is inserted, electrically and mechanically connected to a conductive core of an electric wire (7.1.1) coming from an electronic circuit breaker (6) with touch and remote control.

In the inlet (9.1.3) for the network zero (negative) screwless pin electrical clamp (9.1.7), on the upper surface of the annular monolithic body of the electronic ballast (11), a conductive tip (2.3) is inserted, electrically and mechanically connected to the conductive core an electric wire (7.1.2) coming from a source (7) of electrical energy.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

An infrared photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. In this case, the electrodes (1.1.1) and (1.1.2) of the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) do not receive power and the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) does not radiate radiant energy.

The proposed set of lighting electrical equipment works to connect a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to a source of electrical energy (7) as follows: after an infrared photodetector (6.2) is an optothyristor of the proposed electronic circuit breaker (6) with touch and remote control, a control signal will be sent, or direct read only touch on the touch sensor (6.3), for example, human hand, it is activated and begins to pass current. In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

The proposed technical solutions allow us to create a set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (1) to the source (7) of electric energy, increase labor productivity in the process of its production and operation, significantly reduce costs in its production and operation ui. Significantly increase the reliability of lighting electrical equipment, its fire and electrical safety, ensure maintainability, save materials and components.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application ..

The proposed technical solutions can be used for any electric lamps that use a pin base, but they can be most effectively used for compact electric energy-saving lamps (1) in group applications, providing the possibility of automating the process of lighting objects.

The proposed technical solutions will improve the safety of a set of lighting electrical equipment after its operation is completed, as it will greatly simplify the work on its disposal.

On Fig - Fig.47 presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (13) to the source (7) of electrical energy, in which a compact electric energy-saving lamp (13) was used, with a pin cap (13.1) and a thread (13.1.2.1) on its outer surface located outside the electrons (2), similar to a thread (2.1.9-2.2.9) on the externally surface of the housing (2.1-2.2) used elektropatrona (2) in the zone (2.1.11-2.2.11) socket (2.1.1-2.2.1) to the base (1.3) of the compact electric energy saving lamp (1).

The proposed set of lighting electrical equipment contains: the proposed compact electric energy-saving lamps (13), each of which is fixed in an electric cartridge (2) two or more than two, for example, assemblies - [SEP-EPRA] (10-9) - connector (10) of electric wires and an electronic ballast (9), having an annular shape and arranged concentrically, according to claim 3, and the assembly - [SEP-EPRA] (12-11) - a connector (12) of electric wires having an annular shape, on which the surface is opposite the one on which the inlets (10.2.3) are located, the pin electrical leads (12.3.1) and (12.4.1) protrude, and the electronic ballast (11) having an annular shape, on which is opposite to the one on which the inlets are located ( 9.1.3) the pin electrical leads (11.1.1.3), (11.1.2.3), (11.13.3) and (11.1.4.3), according to claim 4, protrude, allowing them to be connected electrically to each other, and to another similar assembly, and electronic automatic with touch and remote control electric switch (6).

The proposed compact electric energy-saving lamp (13 consists of: a source of radiant energy (1.1), a shell (1.2) and a pin cap (13.1).

The shell (1.2) of the compact electric energy-saving lamp (13) has a translucent zone or the whole is made of translucent material and at one end, for example on the right, ends with a pin cap (13.1).

The pin base (13.1) of the compact electric energy-saving lamp (13) consists of the base pin (13.1.1), the fastening tab (13.1.2), the pin phase electrical terminal (1.3.2) and the pin zero (minus) electrical terminal (1.3. 3).

The housing of the pin base (13.1) is made in the form of mating cylinders: a base protrusion (13.1.1) and a mounting protrusion (13.1.2), of different diameters. The mounting protrusion (13.1.2) is hermetically connected with one base to the sheath (1.2) of the compact electric energy-saving lamp (13), and the second with the base protrusion (13.1.1).

On the side surface of the mounting protrusion (13.1.2), a thread (13.1.2.1) is made similar to the thread (2.1.9-2.2.9) on the outer surface of the housing (2.1-2.2) of the used electrocart (2), in the socket area (2.1.11 -2.2.11) for the pin base (1.3) of a compact electric energy-saving lamp (1).

Perpendicular to the plane of the free base of the cylinder of the base projection (13.1.1), the pin phase (plus) electrical terminal (1.3.2) and the pin zero (minus) electrical terminal (1.3.3) protrude from the pin base (13.1).

A fixing cut-out (13.1.1.1) has been made on the side surface of the cylinder of the basement protrusion (13.1.1), which allows to fix the compact electric energy-saving lamp (13), in the socket (2.1.1-2.2.1) for the pin base (1.3) of the compact electric energy-saving lamps (13), in the inner cavity of the used electrons (2), strictly in a certain position.

The pin electrical leads (1.3.2) and (1.3.3) are hermetically soldered into the base ledge (13.1.1). Each electrical terminal (1.1.1.1) and (1.1.2.1) of the source (1.1) of radiant energy, a compact electric energy-saving lamp (13) is mechanically and electrically connected to the corresponding pin electrical terminal (1.3.2) and (1.3.3).

Each pin electrical terminal (1.3.2) and (1.3.3), for example a phase (positive) pin terminal (1.3.2), is a rectangular plate made of conductive material.

Perpendicular to the wide face of each pin electrical terminal (1.3.2) and (1.3.3), for example, a phase (plus) terminal electrical terminal (1.3.2), on its both sides, in the area that is located in the base of the base of the protrusion (13.1. 1), lock cutouts (1.3.2.7) are made, for example, rectangular, which prevent its horizontal movement.

Perpendicular to the narrow face of each pin electrical terminal (1.3.2) and (1.3.3), for example, a phase (positive) pin electrical terminal (1.3.2) that extends beyond the body of a compact electric energy-saving lamp (13) and beyond its base protrusion (13.1.1), on its wide face, facing away from the horizontal axis of a compact electric energy-saving lamp (13), the sockets (1.3.2.3) and (1.3.3.3) are made for the supporting protrusions (2.6.3) of the wave-shaped contact spring (2.6) .

The profile of each of these jacks (1.3.2.3) and (1.3.3.3) repeats the surface profile of the contact spring section (2.6), facing the working face of the pin electrical terminal (1.3.2) and (1.3.3), for example, the phase pin (positive ) the electrical output (1.3.2), at the junction of the support coil (2.6.3) and the free end of the first power coil (2.6.1), and at the junction of the support coil (2.6.3) with the first power coil (2.6.1 ) and the second power coil (2.6.2). The upper edges of these nests (1.3.2.3) and (1.3.3.3) are rounded.

On the central horizontal axis, for example, the pin phase (plus) electrical terminal (1.3.2), in the center of each socket (1.3.2.3) and (1.3.3.3) for the support protrusions (2.6.3) of the wave-shaped contact spring (2.6), are made sockets (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-shaped contact spring (2.6). The pairing points of the socket (1.3.2.5) and (1.3.3.5) for the spherical protrusion (2.6.3.1) of the wave-like contact spring (2.6) and the socket (1.3.2.3) and (1.3.3.3) for the support protrusions (2.6.3) of the wave-like contact spring (2.6).

The pin base protrusion (13.1.1) of the compact electric energy-saving lamp (13) is inserted into the socket (2.1.1-2.2.1) for it in the electric cartridge housing (2), while the flat surface of the fixing cut-out (13.1.1.1) is on the side surface the base protrusion (13.1.1) is located on the locking protrusion (2.2.1.1) on the right half (2.2) of the cartridge housing (2).

The phase (positive) pin electrical terminal (1.3.2) of the compact electric energy-saving lamp (13) is inserted into the phase (positive) pin-type screwless terminal (2.3-2.6) in the housing of the used electrocart (2).

The zero (minus) pin electrical terminal (1.3.3) of the compact electric energy-saving lamp (13) is inserted into the pin zero (minus) screwless clamp (2.3-2.6) in the case of the used electrons (2).

The pin electrical leads (1.3.2) and (1.3.3) of the proposed compact electric energy-saving lamp (13) provide a reliable mechanical and electrical connection of the proposed compact electric energy-saving lamp (13) and the used electrocart (2).

The fastening ring (2.5), with an internal thread (2.5.1) made of an insulating material, is screwed onto the fastening protrusion (13.1.2) of the proposed compact electric energy-saving lamp (13), while part of the fastening ring (2.5) remains on the outer surface the housing (2.1-2.2) of the used electric cartridge (2), above the zone (2.1.11-2.2.11) for the base protrusion (13.1.1).

The conductive core of the electric wire (7.1.1), coming from the pin screwless clamp (2.3 -2.6) of each electrons (2), in which the phase (plus) pin electric terminal (1.3.2) of the proposed compact electric energy-saving lamp (13) is fixed, through the proposed ring-shaped connectors (10-12) of electric wires and ring-shaped electronic starting control devices (9-11), as well as an electronic automatic switch with touch and remote control electric switch (6), is electrically connected to the phase mu (plus) terminal of the source (7) of electric energy.

The conductive core of the electric wire (7.1.2), coming from the pin screwless clamp (2.3-2.6) of each electrons (2) in which the zero (minus) pin electrical terminal (1.3.3) of the proposed compact electric energy-saving lamp (13) is fixed, through ring-shaped connectors (10-12) of electric wires and ring-shaped electronic start-up regulating devices, are electrically connected to the zero (minus) terminal of the source (7) of electrical energy.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

An infrared photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. In this case, the electrodes (1.1.1) and (1.1.2) of the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) do not receive power and the source (1.1) of radiant energy of the compact electric energy-saving lamp (1) does not radiate radiant energy.

The proposed set of lighting electrical equipment works to connect a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to a source of electrical energy (7) as follows: after an infrared photodetector (6.2) is an optothyristor of the proposed electronic circuit breaker (6) with touch and remote control, a control signal will be sent, or direct read only touch on the touch sensor (6.3), for example, human hand, it is activated and begins to pass current. In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

The proposed technical solutions can significantly expand the field of application of compact electric energy-saving lamps (1), increase the reliability of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy from a compact electric energy-saving lamp (13) to a source (7) of electric energy.

Significantly increase the reliability of the proposed set of lighting electrical equipment, its fire and electrical safety, reduce costs during its operation.

The proposed technical solutions will improve the safety of a set of lighting electrical equipment after its operation is completed, as it will greatly simplify the work on its disposal.

The proposed technical solutions can be used for any electric lamps, but the greatest effect can be obtained by using compact electric energy-saving lamps.

On Fig - Fig presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (14) to a source (7) of electrical energy, used compact an electric energy-saving lamp (14) with a threaded base (14.1), and its translucent sheath (1.2) at one end, for example on the right, ends with a mounting protrusion (13.1.2), which the left base is hermetically mated to its shell (1.2), and the right, to the base ledge (14.1.4),

A thread (13.1.2.1) is made on the outer surface of the mounting protrusion (13.1.2), similar to the thread on the outer surface of the housing (15.1-15.2) of the used electrons (15), in the area of the socket (15.1.12-15.2.12) for the base ( 14.1) compact electric energy-saving lamps (14).

In addition, an electric cartridge (15) was used, consisting of: a housing (15.1-15.2) made of electrical insulation material, a threaded metal sleeve (15.4), two conductive terminals (2.3), a cable sleeve (2.4), a mounting ring (2.5) and an insert (15.3), which has a phase (plus) conductive jumper (15.3.3) and a zero (minus) conductive jumper (15.3.2) of complex shape fixed to the insulator (15.3.1). Moreover, the section (15.3.3.4) parallel to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3), for example, on the left end, on the right side of the phase (plus) conductive jumper (15.3.3), is bent at a right angle so that it is located perpendicular to the right base of the cylinder (15.3.1.1) of the insulator (15.3), and a fastening section (2.6.4) of the contact spring (2.6) is fixed, for example, by cold welding. The section (15.3.2.4) parallel to the long lateral edge of the partition wall (15.3.1.2) of the insulator (15.3.1), for example, on the right end, the right side of the zero (minus) conductive jumper (15.3.2), is bent at a right angle so that it is located perpendicular to the right base of the cylinder (15.3.1.1) of the insulator (15.3.1), and a fastening section (2.6.4) of the contact spring (2.6) is fixed on it, for example, by cold welding.

The proposed set of lighting electrical equipment contains: the proposed compact electric energy-saving lamps (14), each of which is fixed in the proposed electrons (15) two or more than two, for example, assemblies - [SEP-EPRA] (10-9) - connector (10) electrical wires and an electronic ballast (9), having a ring-shaped shape and arranged concentrically, according to claim 3, and assembly - [BOT - electronic ballasts] (12-11) - a connector (12) of electric wires having a ring-shaped shape, on which the opposite the one on which the inlet openings (10.2.3) are located are the pin electrical terminals (12.3.1) and (12.4.1), and the electronic ballast (11) having an annular shape, on which on the surface opposite to that on which the inlet openings (9.1.3) are located; the pin electrical leads (11.1.1.3), (11.1.2.3), (11.13.3) and (11.1.4.3) protrude, according to claim 4, allowing them to be connected electrically to each other, and with another similar assembly, and an electronic automatic switch with touch and remote control electric switch (6).

The proposed compact electric energy-saving lamp (14) consists of: a source (1.1) of radiant energy, a shell (1.2) and a threaded base (14.1).

The radiant energy source (1.1) is equipped with a phase (plus) electrode (1.1.1) and a zero (minus) electrode (1.1.2), and a phase (plus) electrical terminal (1.1.1.1) and zero (respectively) are connected to each of them minus) electrical terminal (1.1.2.1), used to connect the electrodes (1.1.1) and (1.1.2) to the threaded base (14.1).

The casing (1.2) of the compact electric energy-saving lamp (14) has a translucent zone or the whole is made of a translucent material and at one end, for example, on the right, ends with a fastening protrusion (13.1.2), which is tightly mated with the casing (1.2) of its compact left base electric energy-saving lamp (14), and right with a socle ledge (14.1.4). On the side surface of the mounting protrusion (13.1.2), a thread (13.1.2.1) is made similar to that of the thread (15.1.9-15.2.9) on the outer surface of the housing (15.1-15.2) of the used electric cartridge (15), in the area of the socket (15.1.12 -15.2.12) for the threaded base (14.1) of the proposed compact electric energy-saving lamps (14). A standard threaded base (14.1) is fixed to the base ledge (14.1.4). A fastening ring (2.5) with an internal thread (2.5.1) is screwed onto the mounting protrusion (13.2).

The threaded base (14.1) of the compact electric energy-saving lamp (14) consists of a conductive metal cup (14.1.1), on whose side surface Edison threads are made, and a conductive contact plate (14.1.2), which are interconnected by an annular insulator (14.1. 3). A metal conductor (14.1.1) of the threaded base (14.1) is connected to a conductive core of the electrical output (1.1.2.1) of the zero (negative) electrode (1.1.2). To the contact plate (14.1.2) of the threaded base (14.1) is connected a conductive core of the electrical terminal (1.1.1.1) of the phase (plus) electric electrode (1.1.1).

The metal cup (14.1.1) of the threaded base (14.1) is designed to connect the zero (negative) electrical output (1.1.2.1) of the optical radiation source (1.10) (light source) and the zero (negative) electrical output (7.1.2) coming from source (7) of electrical energy through the assembly - [SES-EPRA].

The contact plate (14.1.2) of the threaded base (14.1) of the compact electric energy-saving lamp (14) is intended for the electrical connection of the phase (positive) output (1.1.1.1) of the radiant energy source (1.1) and the phase (positive) output (7.1.1) coming from an electric energy source (7) through an electronic circuit breaker (6) with touch and remote control and through, for example, assemblies - [СЭП-ЭПРУ] (10-9) - connector (10) of electric wires and an electronic ballast (9) having an annular f rmu and located concentrically, according to claim 3, and the assembly - [SEP-EPRA] (12-11) - a connector (12) of electric wires having a ring-shaped shape, on which on the surface opposite to that on which the inlets are located (10.2. 3), the pin electrical leads (12.3.1) and (12.4.1) protrude, and the electronic ballast (11) having a ring-shaped shape, on which the pin protrudes on the surface opposite to the one on which the inlets (9.1.3) are located electrical conclusions (11.1.1.3), (11.1.2.3), (11.13.3) and (11.1.4.3), according to claim 4, allowing Uniform them electrically with each other and with other similar assembly.

The base protrusion (14.1.4) of the shell (1.2) of the compact electric energy-saving lamp (14) is fixedly fixed in the inner cavity of the metal cup (14.1.1) of the threaded base (14.1).

The proposed cartridge (15) consists of: a housing (15.1-15.2) made of electrical insulation material, a threaded metal sleeve (15.4), a liner (15.3), two conductive terminals (2.3), a cable sleeve (2.4) and a mounting ring (2.5) .

The housing (15.1-15.2) of the electrons (15) is two cylinders of different diameters sequentially conjugated by the bases, and the diameters of these cylinders decrease, for example, from left to right, and their main horizontal axes are located on the same line.

In the area (15.1.12-15.2.12) of the housing (15.1-15.2) of the electrosprotron (15), which is formed by the cylinder with the largest diameter, there is a threaded metal sleeve (15.4), an insert (15.3) with a phase (plus) pin screwless clamp (15.3.3.5-2.6) and a pin zero (minus) screwless clamp (153.2.5-2.6), two conductive lugs (2.3), with conductive conductors of electric wires (2.7.1) and (2.72) fixed from them, coming from the assembly - [BOT-EPRA] [(9-10) - (11-12)] and the mounting ring (2.5).

The area (15.1.13-15.2.13) of the housing (15.1-15.2) of the electrons (15), which is formed by the cylinder with the smallest diameter, forms a cylindrical protrusion (15.1.6-15.2.6) of the electrons (15), in which the cable sleeve (2.4) and mounting tube (2.7).

The housing (15.1-15.2) of the electrons (15) consists of two mirror-symmetric halves (15.1) and (15.2) made of insulating material. On each half (15.1) and (15.2) of the cartridge case (15), from one end, for example the left, an inlet cylindrical hole (15.1.1-15.2.1) is made for the threaded cap (14.1) of a compact electric energy-saving lamp (14), Moreover, the diameter of the inlet (15.1.1-15.2.1) is larger than the outer diameter of the threaded base (14.1) of the proposed compact electric energy-saving lamp (14).

On each half (15.1) and (15.2) of the cartridge case (15), at the second end, for example, the right end, a cylindrical recess (15.1.6.1-15.2.6.1) is made inside the outer cylindrical protrusion (15.1.6.1-15.2.6.1) for electric cable (2.8) and its bushings (2.4). Inside this cylindrical recess (15.1.6.1-15.2.6.1), along it, in the area intended for the cable sleeve (2.4), a locking protrusion (15.1.6.2-15.2.6.2) is made to prevent the cable sleeve (2.4) from moving around the horizontal axis.

On the outer side surface of each half (15.1) and (15.2) of the electric cartridge housing (15), above the socket (15.1.12-15.2.12) for the threaded base (14.1) of the compact electric energy-saving lamp (14) and the insert (15.3), made thread (15.1.9-15.2.9) for the fixing ring (2.5).

In the inner cavity of each half (15.1) and (15.2) of the cartridge case (15), as a continuation of the inlet (15.1.1-15.2.1) for the threaded base (14.1), a cylindrical recess (15.1.2-15.2.2) is made with Edison thread for a threaded metal sleeve (15.4).

In the inner cavity of each half (15.1) and (15.2) of the cartridge case (15), as a continuation of a cylindrical recess (15.1.2-15.2.2) with Edison thread for a threaded metal sleeve (15.4), a cylindrical socket (15.1.3- 15.2.3) for the insert (15.3) of the electric cartridge (15).

At the left end of this cylindrical socket (15.1.3-15.2.3) there is a cylindrical cavity (15.1.3.1-15.2.3.1) for the left side (15.3.3.6) of the phase (plus) conductive jumper (15.3.3) and the left side ( 15.3.2.6) zero (minus) conductive jumper (15.3.2).

On the right end of this cylindrical socket (15.1.3-15.2.3), on its lateral surface, a cylindrical socket (15.1.3.2-15.2.3.2) is made for the cylinder (15.3.1.1) of the insulator (15.3) of the insert (15.3) of the electro-cartridge ( fifteen). In the middle of this nest (15.1.3.2-15.2.3.2), on its lateral surface, on both halves (15.1) and (15.2) of the electric cartridge housing (15), a left protrusion (15.1.3.3) and a right protrusion (15.2. 3.3), which ensures the fixation of the liner (15.3) in the housing of the proposed electro-cartridge (15)

On the other side of the receptacle (15.1.3.1-15.2.3.1) for the cylinder (15.3.1.1) of the insulator (15.3) of the insert (15.3) of the electric cartridge (15), for example, on the right side, above the horizontal axis of the proposed electric cartridge (15), there is a socket (15.1 .4.1-15.2.4.1) for the phase-in (positive) pinless screw terminal (15.3.3.5-2.6), and below the horizontal axis of the proposed electrotron (15), there is a socket (15.1.4.2-15.2.4.2) for the zero (negative) pin screwless clamp (15.3.2.5-2.6).

From the right end of each of this socket (15.1.4.1-15.2.4.1) and (15.1.4.2-15.2.4.2) to the cylindrical recess (15.1.6.3-15.2.6.3) for the electric cable (2.8) and cable sleeve (2.4) made a channel (15.1.5.1-15.2.5.1) for a phase (positive) electric wire (2.8.1) supplying electric energy to the electric cartridge (15) and a channel (15.1.5.2-15.2.5.2) for a zero (negative) electric wire (2.8 .2), supplying electricity to the cartridge (15).

The insert (15.3) of the electric cartridge (15), intended for mechanical and electrical connection of conductive conductors of electric wires (2.8.1) and (2.8.2), coming from the assembly - [SEP-EPRA] [(9-10) - (11- 12)], with a contact plate (14.1.2) and a metal cup (14.1.1) of a threaded base (14.1), consists of an insulator (15.3.1), a phase (plus) conductive jumper (15.3.3), zero (minus) ) a conductive jumper (15.3.2), as well as a pin phase (plus) screwless terminal (15.3.3.5-2.6) and a pin zero (negative) screwless terminal (15.3.2.5).

The insulator (15.3.1) of the insert (15.3) of the electric cartridge (15) is a cylinder made of an insulating material.

On one base of the insulator (15.3.1), for example, the right base, along its center, along its diameter, perpendicular to the horizontal axis of the insulator, is a partition (15.3.1.2). On the partition (15.3.1.2), perpendicular to the base of the insulator (15.3.1), through ventilation holes (15.3.1.3) are made. At both ends of the diameter of the base of the insulator (15.3.1) passing through the middle of the partition (15.3.1.2), parallel to its long faces, at the diagonally opposite ends of the partition (15.3.1.2), adjacent to it, a support ledge (15.3.1.4) is made .

On both sides of the long side faces of the partition (15.3.1.2) and on both sides of the cylinder diameter of the insulator body (15.3.1), passing perpendicular to the long side faces of the partition (15.3.1.2), there are ventilation holes (15.3.1.5) and (15.3. 1.6). Moreover, for example, to the left of the partition (15.3.1.2), through circular ventilation holes (15.3.1.5) are made. On the other side of the partition (15.3.1.2), for example, to the right of the partition (15.3.1.2), through figured ventilation holes (15.3.1.6) are made. These vents (15.3.1.5) and (15.3.1.6) are perpendicular to the base of the insulator (15.3.1).

At both ends of the diameter of the cylinder of the insulator (15.3.1) passing through the middle of the long edges of the partition (15.3.1.2), and perpendicular to it, rectangular recesses (15.3.1.9) and (15.3.1.10) were made for sections of the phase (plus) conductive jumper (15.3.3) and (minus) conductive jumper (15.3.2) connecting their left parts, respectively (15.3.3.6), (15.3.2.6) and the right parts, respectively (15.3.3.1), (15.3.2.1). Moreover, the distance between the end internal faces of these recesses (15.3.1.9) and (15.3.1.10) is less than the cylinder diameter (15.3.1.1) of the insulator (15.3.1) by an amount greater than the sum of the thickness of the sections of the phase (plus) conductive jumper (15.3.3 ) and the zero (minus) conductive jumper (15.3.2) connecting their left parts (15.3.3.6), (15.3.2.6) and the right parts (15.3.3.1), (15.3.2.1).

Between the inner end faces of these recesses (15.3.1.9) and (15.3.1.10) and the long edges of the partition (15.3.1.2), on the base of the insulator (15.3.1), for example, on the right side, are made: to the left of the partition (15.3.1.2) curly grooves (15.3.1.7) for sections of the right side of the phase (plus) conductive jumper (15.3.3) and to the right of the partition (15.3.1.2) curly grooves (15.3.1.8) for sections of the right side of the zero (negative) conductive jumper (15.3. 2). And on the left side of the base of the insulator (15.3.1) to the left of the partition (15.3.1.2) made: curly grooves (15.3.1.11) for sections of the left side of the phase (plus) conductive jumper ((15.3.3) and to the right of the partition (15.3.1.2 ) figured recesses (15.3.1.12) for sections of the left side of the zero (minus) conductive jumper (15.3.2) .At both ends of the cylinder diameter of the insulator (15.3.1) passing through the middle of the partition (15.3.1.2), and parallel to it rectangular cut-out (15.3.1.14) for fixing the liner (15.3.) in the housing of the proposed electro-cartridge. (15)

Phase (plus) conductive jumper (15.3.3) and zero (minus) conductive jumper (15.3.2) is made in the form of plates of complex shape.

The zero (minus) conductive jumper (15.3.2) consists of the right side (15.3.2.1) and the left side (15.3.2.6), which are interconnected by a section (15.3.2.13) parallel to the generatrix of the insulator cylinder (15.3.1) of the insert ( 15.3). the right part (15.3.2.1) of the zero (minus) conductive jumper (15.3.2) consists of a section (15.3.2.2) perpendicular to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1) and a section (15.3.2.4) parallel her.

One end, for example the right, of the right part (15.3.2.1) of the zero (minus) conductive jumper (15.3.2), which is parallel to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1), is bent at a right angle in such a way that it is perpendicular to the right base of the insulator (15.3.1). The second end, for example, the left, right side (15.3.2.1) of the zero (negative) conductive jumper (15.3.2), which is parallel to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1), abuts against the support ledge (15.3 .1.14) of the insulator (15.3.1) of the insert (15.3).

The left part (15.3.2.6) of the zero (negative) conductive jumper (15.3.2) consists of a section perpendicular (15.3.2.8) of the long lateral edge of the partition wall (15.31.2) of the insulator (15.3.1) and a section (15.3.2.7) parallel her. The ends (15.3.2.9) and (15.3.2.11) of the section (15.3.2.7) of the zero (minus) conductive jumper (15.3.2) parallel to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1) are extended, free, and are located at an angle to the plane of the left base of the insulator (15.3.1). The free ends (15.3.2.9) and (15.3.2.11) of the left side of the zero (negative) conductive jumper (15.3.2) end respectively with sections (15.3.2.10) and (15.3.2.12) parallel to the plane of the left base of the insulator (15.3.1) . They are intended for mechanical and electrical connection, through a metal cup (14.1.1) of a threaded base (14.1), with an electrical output (.1.2.1) of 1 zero (minus) electrode (1.1.2) of a compact electric radiant energy source (1.1) energy saving lamp (14).

In the area (15.3.2.2) of the right side (15.3.2.1) of the zero (minus) conductive jumper (15.3.2), which is perpendicular to the partition (15.3.1.2) of the insulator body (15.3.1), a stopper hole (15.3.2.3) is made . On the section (15.3.2.8) of the left side (15.3.2.6) of the zero (negative) conductive jumper (15.3.2), which is perpendicular to the partition (15.3.1.2) of the insulator body (15.3.1), a stopper hole (15.3.2.3) is made .

Both of these sections are connected by a section (15.3.2.13) parallel to the generatrix of the cylinder of the insulator (15.3.1) of the liner (15.3).

The right part (15.3.2.1) of the zero (minus) conductive jumper (15.3.2), and the left part (15.3.2.6) of the zero (minus) conductive jumper (15.3.2) are located in the recess (15.3.1.8) and (15.3. 1.12) respectively on the right and left base of the cylinder (15.3.1.1) of the insulator (15.3.1) and are fixed by the locking protrusions (15.3.1.13). The right part (15.3.2.1) and the left part (15.3.2.6) of the zero (minus) conductive jumper (15.3.2), when not installed on the insulator (15.3.1), are inclined to each other.

Phase (plus) conductive jumper (15.3.3), consists of the right side (15.3.3.1) and the left side (15.3.3.6), which are interconnected by a section (15.3.3.10) parallel to the cylinder generatrix (e3.3.1.1) insulator (15.3.1) of the liner (15.3).

The right part (15.3.3.1) of the phase (positive) conductive jumper (15.3.3) consists of a section (15.3.3.2) perpendicular to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1) and a section (15.3.3.4) parallel her. One end of the section (15.3.3.4) parallel to the long side edge of the partition wall (15.3.1.2) of the insulator (15.3.1), for example, the left end, of the right side (15.3.3.1) of the phase (plus) conductive jumper (15.3.3), is bent under a right angle so that it is perpendicular to the right base of the cylinder (15.3.1.1) of the insulator (15.3.1). The second end of this section (15.3.3.1), for example, the right one, abuts against the support ledge (15.3.1.4) of the insulator (15.3.1) of the insert (15.3).

The left part (15.3.3.6) of the phase (positive) conductive jumper (15.3.3) consists of a section (15.3.3.7) perpendicular to the long lateral edge of the partition wall (15.3.1.2) of the insulator (15.3.1). One end of this section (15.3.3.7), for example, the right is free and is located at an angle to the plane of the left base of the cylinder (15.3.1.1) of the insulator (15.3.1). The free end (15.3.3.9) of the section (15.3.3.7) of the left part of the phase (plus) conductive jumper (15.3.3.6) is intended for electrical connection through the contact plate (14.1.2) of the threaded base (14.1) with the electrical terminal (1.1.1.1 ) phase (plus) electrode (1.1.1) of the source (1.1) of radiant energy from a compact electric energy-saving lamp (14).

On the section (15.3.3.2), perpendicular to the partition (15.3.1.2) of the insulator (15.3.1), the right side (15.3.3.1) of the phase (plus) conductive jumper (15.3.3), a stopper hole (15.3.3.8) is made. In the area (15.3.3.2) perpendicular to the partition (15.3.1.2) of the insulator (15.3.1), the left side (15.3.3.6) of the phase (plus) conductive jumper (15.3.3), a stopper hole (15.3.3.8) is made. Section (15.3.3.5) perpendicular to the partition (15.3.1.2) of the insulator (15.3.1), the right side (15.3.3.1) and section (15.3.3.7), perpendicular to the partition (15.3.1.2) of the insulator (15.3.1), the left side (15.3.3.6) of the phase (positive) conductive jumper (15.3.3) are connected by a section (15.3.3.10) parallel to the cylinder generatrix (15.3.1.1) of the insulator (15.3.1.1) of the liner (15.3). The right part (15.3.3.1) of the phase (plus) conductive jumper (15.3.3) and the left part (15.3.3.6) of the phase (plus) conductive jumper (15.3.3) are located in the recess (15.3.1.7) and (15.3.1.11 ) respectively on the right and left base of the cylinder (15.3.1.1) of the insulator (15.3.1) and are fixed by the locking protrusions (15.3.1.13).

The right side (15.3.3.1) and the left side (15.3.3.6) of the phase (plus) conductive jumper (15.3.3), when not installed on the insulator (15.3.1), are inclined to each other.

The threaded metal sleeve (14.1) of the electric cartridge (15) is made in the form of a hollow cylinder (15.4.1), on the inner and outer side surface of which is made Edison thread (15.4.2) for the threaded cap (14.1) of a compact energy-saving electric lamp (14) . The threaded metal sleeve (15.4) of the electro-cartridge (15) is fixed in the inner cavity (15.1.11-15.2.11) of the body (15.1-15.2) of the electro-cartridge (15) in such a way that any movement is prevented.

The conductive tip (2.3) used in the electrons (15) is made of conductive material and is designed to connect the conductive wires of the wires (2.8.1) and (2.8.2), which supply electricity to the electrons (15).

The wave-shaped contact spring (2.6) of the electric cartridge (15) is made of rectangular wire and contains an even number (more than two), for example four incomplete turns (2.6.1), (2.6.2) and (2.6.3), made in general case of different radius; incomplete turns (2.6.1), (2.6.2) and (2.6.3) of the wave-shaped contact spring (2.6) are connected to each other in series. The convexities of incomplete turns (2.6.1), (2.6.2) and (2.6.3) of the wave-shaped contact spring (2.6) have a different direction and alternate sequentially.

Phase (plus) conductive jumper (15.3.3) and zero (minus) conductive jumper (15.3.2), with a wave-shaped contact spring fixed in the corresponding place on them (2.6), are inserted into the corresponding places on the insulator (15.3.1) of the insert (15.3). The assembled insert (15.3) of the electric cartridge (15) is inserted into the cylindrical socket (15.1.3.2) intended for it, for example, on the left half (15.1) of the cartridge case (15). In this case, the locking protrusion (15.1.3.3) on the surface of the socket (15.1.3.2) for the liner (15.3) is located in the notch (15.3.1.14) for it in the insulator housing (15.3.1) of the liner (15.3), and the phase pin ( plus) screwless clamp (15.3.3.5-2.6) and pin zero (minus) screwless clamp (15.3.2.5-2.6) in the corresponding socket (15.1.4.1) and (151.4.2), in the cartridge housing (15).

The fastening tube (2.7) is screwed into the inner cavity of the cable sleeve (2.4) of the electric cartridge (15). An electric cable (2.8) with electric wires (2.8.1) and (2.8.2), which supply electricity to the electrons, is drawn through the internal cavity of this assembly (15). The cable sleeve (2.4), with the fixing tube (2.7) fixed in it, is inserted into the socket (15.1.6.1) for it, for example, on the left half of the cylindrical protrusion (15.1.6) of the electrocart (15). The electric wires (2.8.1) and (2.8.2), after exiting the cable gland (2.4), are laid in the channels (15.1.5) for them, for example, on the left half of the housing (15.1) of the electric cartridge (15).

The conductive core of the zero (minus) electrical wire (2.8.2) coming to the considered electrons (15) is electrically and mechanically connected to the conductive tip (2.3), for example, by crimping, which is inserted into the pin zero (minus) screwless clamp (15.3. 2.5-2.6) and is pressed by a wave-like contact spring (2.6) to the working edge of the end of the right side (15.3.2.5) of the zero (negative) conductive jumper (15.3.2), which is bent at a right angle so that it is perpendicular to the right base of the insulator (fifteen .3.1).

The conductive core of the phase (positive) electric wire (2.8.1) coming to the electroparticle under consideration (15) is electrically and mechanically connected to the conductive tip (2.3), for example, by crimping, which is inserted into the phase (positive) pin screwless terminal (15.3. 3.5-2.6) and is pressed by a wave-like contact spring (2.6) to the working face of the end of the right side (15.3.3.5) of the phase (plus) conductive jumper (15.3.3), which is bent at a right angle so that it is perpendicular to the right base of the insulator (15.3.1).

Between themselves, the halves (15.1) and (15.2) of the cartridge case (15) are fastened with fixing recesses (15.1.7 -15.2.7) in the internal cavity (15.1.11-15.2.11) and fixing recesses (15.1.8) in the perimeter of the left half (15.1) of the cartridge housing (15) on one side, and the mounting protrusions (15.2.7) in the inner cavity (15.1.11-15.2.11) and the mounting protrusions (15.2.8) along the perimeter of the right half (15.2) the cartridge housing (15), on the other hand.

The mounting protrusions (15.2.7) and (15.2.8) are inserted into the mounting recesses (15.1.7-15.2.7), (15.2.8) and the halves (15.1) and (15.2) of the electric cartridge housing (15) are tightly pressed against each other to a friend.

The conductive core of the phase (positive) electric wire (2.8.1) coming from the proposed electrons (15) is electrically and mechanically connected to the conductive tip (2.3).

The conductive core of the zero (minus) electrical wire (2.8.2), coming from the proposed elektropatron (15), is electrically and mechanically connected to the conductive tip (2.3).

The electric cartridge (15) is installed at the place of use with the help of a mounting tube (2.7).

The fastening ring (2.5) is screwed onto the housing of the proposed electro-cartridge (15) until it stops. The threaded base (14.1) of the energy-saving electric lamp (14) is screwed into the threaded metal sleeve (15.4) of the electric cartridge (15) until it stops.

At the same time, the contact plate (14.1.2) of the threaded base (14.1) is pressed against the free section (15.3.3.9) of the left side (15.3.3.6) of the phase (plus) jumper (15.33) of the insert (15.3) of the electric cartridge (15).

The upper part of the metal cup (14.1.1) with the Edison thread of the threaded base (14.1) is pressed against the free sections (15.3.2.11) and (15.3.2.12) of the left side (15.3.2) of the zero (negative) jumper (15.3.2) of the liner (15.3) Electron cartridge (15).

The mounting ring (2.5), with an internal thread (2.5.1), made of electrical insulating material, is screwed onto the mounting protrusion (13.1.2) of the proposed compact electric energy-saving lamp (14).

At the same time, a part of the fixing ring (2.5) remains on the outer surface of the housing of the proposed electro-cartridge (15), above the zone (15.1.12-15.2.12) for the threaded metal sleeve (15.4) of the insert (15.3), and the proposed compact electric energy-saving lamp (14 ) is reliably mechanically and electrically connected to the proposed electro-cartridge (15).

The conductive core of the phase (positive) electrical wire (2.8.1), coming from the pin phase (positive) screwless clamp (15.3.3.5-2.6) of the proposed electros cartridge (15), is fixed on the mounting section (2.3.2) of the conductive terminal (2.3) , and, through the proposed assemblies - [BOT - EPRA], [(9-10) - (11-12)] and an electronic circuit breaker (6) with touch and remote control, is electrically connected to the phase (plus) terminal of the source ( 7) electrical energy.

The conductive core of the zero (minus) electric wire (2.8.2), coming from the pin zero (minus) screwless clamp (15.3.2.5-2.6) of the proposed electrons (15), is fixed on the mounting section (2.3.2) of the conductive tip (2.3) , and, through the proposed assemblies - [SEP-EPRA], [(9-10) - (11-12)], it is electrically connected to the zero (minus) terminal of the source (7) of electric energy.

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of the proposed compact electric energy-saving lamp (14) to the source (7) of electrical energy is assembled.

An infrared photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open. At the same time, no power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (14) and the radiant energy source (1.1) of the compact electric energy-saving lamp (14) does not radiate radiant energy.

The proposed set of lighting electrical equipment works for connecting a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (14) to a source of electric energy (7) as follows: after an opto-thyristor is applied to an infrared photodetector (6.2) of the proposed electronic circuit breaker (6) with touch and remote control, a control signal will be sent, or direct Touching the sensor (6.3), for example, with the hand of a person, it activates and begins to pass an electric current.

In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (14), and the latter emits radiant energy.

The proposed technical solutions allow us to create a universal set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (15) and traditional electric incandescent lamps to the source (7) of electrical energy.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application.

The most effectively proposed technical solution can be used for compact electric energy-saving lamps in their group application.

On Fig - Fig presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to the source (7) of electrical energy, in which used, having an annular shape, of modular design, a connector (17) of electric wires and an electronic ballast (EAF) (16), of a modular design, located concentrically and, and each of them consists of two modules.

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps (1), each mounted in an electric cartridge (2), at least one set of ring-shaped, modular design connector (17) of electric wires - an electronic ballast (EAP) (16) and electronic circuit breaker (6) with touch and remote control.

The proposed connector (17) of electric wires consists of two halves (17.1) and (17.2), which are formed by dividing the body of the connector (10) of electric wires according to claim 3, by a plane passing through its center and middle, diametrically opposite, insulating mounting protrusions ( 10.2.6) inserted into insulating recesses (10.1.6), perpendicular to the surface on which the inlets (10.2.3) of its phase (plus) (10.3.1) and zero (minus) (10.4.1) electrical clamps are located .

At the same time, on one half of the body (17.1-17.2), for example, on its left half (17.1), for example, on its left end, there is a trapezoidal protrusion (17.1.1.2-17.1.2.2) for mechanical dovetail connection, and on the other, for example its right end, there is a trapezoidal nest (17.1.1.1-17.1.2.1) for the mechanical dovetail connection. On the other half of the case (17.1-17.2), for example, on its right half (17.2), for example, on its left end, there is a trapezoidal nest (17.2.1.1-17.2.2.1) for mechanical dovetail connection, and on the other for example, at its right end, there is a trapezoidal protrusion (17.2.1.2-17.2.2.2) for mechanical dovetail type joints,

On the trapezoidal protrusion (17.1.1.2) of the left half (17.1) and on the trapezoidal protrusion (17.2.1.2) of the right half (17.2), the proposed connector (17) of the electrical wires, in its lower part, from the base (17.1.1) and (17.2.1), the reference notch was made (17.1.1.4) and (17.2.1.4), respectively.

The size of which, along the central circle of the proposed ring-shaped connector (17) of electric wires, hereinafter referred to as depth, is, for example, one third of the depth of the trapezoidal protrusion (17.1.1.2) and (17.2.1.2), respectively.

In the trapezoidal socket (17.1.1.2) of the left half (17.1) and in the trapezoidal socket (17.2.1.2) of the right half (17.2), the proposed connector (17) of the electric wires, in its lower part, from the base (17.1.1) and (17.2.1), the support ledge (17.1.1.3) and (17.2.1.3) are made, respectively.

The size of which, along the central circle of the proposed ring-shaped connector (17) of the electrical wires, is, for example, one third of the depth of the trapezoidal socket (17.1.1.3) and (17.2.1.3), respectively.

Structurally designed in this way, the right half (17.1) of the proposed connector (17) of the electrical wires is presented as an independent product, in the form, for example, of a phase (plus) module.

Structurally designed in the same way, the left half (17.2) of the proposed connector (17) of the electrical wires is presented as an independent product, in the form, for example, of a zero (minus) module.

Moreover, both of these modules (17.1) and (17.2) are structurally identical, which are obtained one from the other from any half of the proposed connector (17) of electric wires by rotating it one hundred eighty degrees (in any direction) around an axis passing through the center of its circles corps.

Under operating conditions, the proposed connector (17) of the electric wires is installed in such a way that the fixing tube (2.7) of the electric chandelier is located in its central hole (9.1.8).

Why one of the modules, for example, a phase (plus) module (17.1) of the proposed connector (17) of the electrical wires is installed so that the fixing tube (2.7) of the electric chandelier is located in its central hole (9.1.8), and the other, for example, the zero (minus) module (17.2) is installed above it.

The protrusion (17.1.1.2) for the dovetail mechanical connection of the phase (plus) module (17.1) is located under the nest (17.2.1.1) for the dovetail mechanical connection of the zero (negative) module (17.2), and the nest (17.1.1.1) for the dovetail mechanical connection of the phase (plus) module (17.1) is located under the protrusion (17.2.1.1) for the dovetail mechanical connection of the zero (negative) module (17.2). after which both modules (17.1) and (17.2) are moved vertically towards each other, to the stop.

At the same time, the protrusion (17.2.1.2) for the dovetail mechanical connection of the zero (negative) module (17.2) is located in the nest (17.1.1.1) for the dovetail mechanical connection of the phase (plus) module (17.1), and the protrusion (17.1.1.2) for the dovetail mechanical connection of the phase (plus) module (17.1) is located in the nest (17.2.1.1) for the dovetail mechanical connection of the zero (negative) module (17.2).

The proposed thus proposed connector (17) of the electrical wires is mounted on a special protrusion on the mounting tube (2.7) of the electric chandelier.

The proposed electronic ballast (EAF) (16) consists of two halves (16.1) and (16.2), which are obtained by dividing the electronic ballast (EAF) (9) according to claim 3 with a plane passing through its center, perpendicular to the surface, on which are the inlets (9.1.3) of its network and consumer electrical terminals (9.1.4), (9.1.5) and (9.1.6), (9.1.7), respectively, between the network phase (plus) screwless terminal (9.1 .4) and zero (minus) screwless clamp (9.1.7) of the consumer, as well as between the network zero (min mustache) screwless clamp (9.1.5) and phase (plus) screwless clamp (9.1.6) of the consumer. At the same time, on one half of the housing (16.1-16.2) of the proposed annular electronic ballast (EAPR) (9), for example, on the left half (16.1), at its ends, respectively, are the left connecting protrusion (16.1.1) and the right connecting protrusion (16.1.2), and on the other half of the housing (16.1-16.2) of the proposed ring-shaped electronic ballast (EAPR) (9), for example, on the right half (16.2), at its ends, respectively, the left connecting recess ( 16.2.1) and the right connecting recess (16.2.2).

On one connecting protrusion, the left half (16.1) of the proposed annular electronic ballast (EAPR) (16), for example on the left connecting protrusion (16.1.1), there is a phase (positive) pin electrical terminal (16.1.1.1), and on the other its connecting protrusion, for example on the right connecting protrusion (16.1.2), is located zero (minus) screwless clamp (16.1.2.1). Structurally designed in this way, the left half (16.1) of the proposed ring-shaped electronic ballast (EAPR) (16) is presented as an independent product, in the form of a structural element - phase (plus) electronic ballast module - (FM electronic ballast) (16), which is used when assembling the proposed annular electronic ballast (EAPR) (16).

On one connecting recess, the right half (16.2) of the proposed annular electronic ballast (EAPR) (16), for example, on the left connecting recess (16.1.2), there is a phase (plus) screwless clamp (16.2.1.1), and on the other connecting recess, for example, on the right connecting recess (16.2.2), there is a zero (minus) pin electrical terminal (16.2.2.1). Structurally designed in this way, the right half (16.2) of the proposed ring-shaped electronic ballast (EAD) (16) is presented as an independent product, in the form of a structural element - zero (minus) module (NM electronic ballast) (16.2), which was used during assembly the proposed ring-shaped electronic ballast (EAPR) (16).

Proposed phase (plus) module (16.1) (FM electronic ballasts) and zero (minus) module (16.2) (NM electronic ballasts) using a phase (plus) screwless electrical clamp (16.2.1.1) and phase (positive) pin electrical output (16.1 .1.1), as well as zero (minus) screwless electrical clamp (16.1.2.1) and zero (minus) pin electrical output (16.2.2.1) are interconnected, forming the proposed ring-shaped electronic ballast (EAF) (16) with a ring-shaped housing .

In this case, the phase (positive) pin electrical terminal (16.1.1.1), on the left connecting protrusion (16.1.1), of the phase (positive) module (FM electronic ballast) (16.1), is located in the phase (positive) screwless clamp (16.2.1.1 ) on the left connecting recess (16.2.1), the zero (minus) module (electronic ballast) (16.2), and the zero (minus) pin electrical output (16.2.2.1) on the right connecting recess (16.2.2) zero (minus) module (16.2) (NM electronic ballasts), located in the zero (minus) screwless clamp (16.1.2.1) on the right connecting protrusion (16.1.2) of the phase (plus) module (16.1) (FM E RA).

At the place of constant operation, the proposed ring-shaped electronic ballast (EAPR) (16) is installed in such a way that the mounting tube (2.7) of the electric chandelier is located in its central hole (9.1.8).

Why one of the modules of the proposed ring-shaped electronic ballast (EAPR) (16), for example phase (plus) module (16.1) (FM electronic ballasts), is installed above the proposed connector (17) of electric wires, and the second module, for example, zero (minus) module (16.2) (NM electronic ballasts), is installed above the phase (plus) module (16.1) (FM electronic ballasts), after which both modules 916.1) and (16.2) are moved vertically towards each other, to the stop. In this case, the phase (positive) pin electrical terminal (16.1.1.1), on the left connecting protrusion (16.1.1), of the phase (positive) module (FM electronic ballast) (16.1), is located in the phase (positive) screwless clamp (16.2.1.1 ) on the left connecting recess (16.2.1), the zero (minus) module (NM electronic ballasts) (16.2), and the zero (minus) pin electrical terminal (16.2.2.1) on the right connecting recess (16.2.2) zero (minus) module (16.2) (NM electronic ballasts), located in the zero (minus) screwless clamp (16.1.2.1) on the right connecting protrusion (16.1.2) of the phase (plus) module (16.1) (FM E RA).

The assembled, thus proposed ring-shaped electronic ballast (EAPR) (16), is installed in the inner ring of the proposed connector (17) of electric wires, so that its locking protrusion (9.1.2) is located inside the fixing cut-out (10.1.3.1) in an annular supporting protrusion (10.1.3) of the proposed annular connector (17) of electric wires, and the housing (16.1-16.2) of the proposed annular electronic ballast (EAPR) (16) abuts against it.

A conductive tip (2.3), mounted on the end of the conductive core of the electric wire (7.1.1), coming from the phase (plus) terminal of the source (7) of electrical energy and a conductive tip (2.3), mounted on the end of the conductive core of the electric wire (7.1.2) ), coming from the zero (minus) terminal of the source of electric energy (7), are fixed in the corresponding input screwless electrical terminals (6.4.3) and (6.4.4), respectively, of the proposed electronic circuit breaker (6) with touch and tantsionnym control.

The conductive tip (2.3) mounted on the end of the conductive core of the electric wire (7.1.3) coming from the output phase (plus) screwless clamp (6.4.1) of the proposed electronic circuit breaker (6) with touch and remote control is fixed in the network phase ( plus) screwless clamp (9.1.4) of the phase (plus) module (16.1) (FM electronic ballasts).

The conductive tip (2.3), mounted on the end of the conductive core of the electric wire (7.1.4) coming from the output zero (minus) screwless clamp (6.4.2) of the proposed electronic circuit breaker (6) with touch and remote control is fixed in the network zero (positive) screwless clamp (9.1.5) of the zero (negative) module (16.2) E (FM electronic ballasts).

A conductive tip (2.3) mounted on a conductive core of a phase (plus) electrical wire (7.1.5) coming from the output phase (plus) screwless clamp (6.4.1) of the proposed electronic automatic electrical switch (6) with touch and remote control, inserted into the network phase (positive) screwless clamp (9.1.4) located in the phase (positive) module (16.1) (FMEPRA).

A conductive tip (2.3), mounted on a conductive core of a zero (negative) electrical wire (7.1.6), coming from the output zero (negative) screwless clamp (6.4.2) of the proposed electronic automatic electrical switch (6) with touch and remote control, inserted into the network zero (minus) terminal (9.1.5) located in the zero (minus) module (16.2) (NM electronic ballasts).

A piece of electrical wire (7.1.7), on each end of which a conductive tip (2.3) is fixed on its conductive core, is positioned so that one of its conductive tip (2.3) is located in the phase (plus) screwless clamp (9.1.6), consumer, phase (plus) module (16.1) (FM electronic ballasts), and its second conductive tip is located in the phase (plus) screwless clamp (10.3.1) of the proposed ring-shaped connector (17) of electrical wires, for example, on its left half (17.1) and for example through which you go its horizontal axis.

A piece of another electrical wire (7.1.8), on each end of which a conductive tip (2.3) is fixed on its conductive core, is positioned so that one of its conductive tip (2.3) is located in the network zero (minus) screwless clamp (9.1.5 ), zero (minus) module (16.2) (NM electronic ballasts), and its second conductive tip (2.3) is located in the zero (minus) screwless clamp (10.4.1) of the proposed ring-shaped connector (17) of electric wires, for example, on its right half (17.2) and, for example, through which passes its horizontal axis.

At the end of the conductive core of each electric wire (2.8.1) and (2.8.2), coming from the electric cartridge (2) of the compact electric energy-saving lamp (1), a conductive tip (2.3) is fixed.

The conductive tip (2.3) of the phase (positive) electric wire (2.8.1) coming from each electron cartridge (2) of the compact electric energy-saving lamp (1) is placed in a phase (plus) screwless clamp (10.3.1), for example, on a phase (positive) unified module (17.1) of the proposed ring-shaped connector (17) of electrical wires.

The conductive tip (2.3) of the zero (minus) electric wire (2.8.2) coming from each electron cartridge (2) of the compact electric energy-saving lamp (1) is placed in the zero (minus) screwless clamp (10.4.1, for example, on the zero ( minus) unified module (17.2) of the proposed ring-shaped connector (17) of electrical wires.

Each electric cartridge (2) of the proposed set of lighting electrical equipment has a compact electric energy-saving lamp (1).

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

A photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open; however, the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1) do not receive power and the radiant energy source (1.1) of the compact electric energy-saving lamp (1.1) does not emit radiant energy.

The proposed set of lighting electrical equipment works for connecting a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) as follows: after using an infrared photodetector (6.2.2.2 ) the optothyristor of the proposed electronic circuit breaker (6) with touch and remote control will send a control signal, or will happen directly vennoe touching the touch sensor (6.2.2.1), such as a human hand, it is activated and begins to pass current.

In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (15), and the latter emits radiant energy.

The proposed technical solutions allow us to create a universal set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (15) and traditional electric incandescent lamps to the source (7) of electrical energy.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application.

The most effectively proposed technical solution can be used for compact electric energy-saving lamps in their group application.

On Fig - Fig presents a set of lighting electrical equipment that provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to the source (7) of electrical energy, in which , used, kit - (17-16) (BEP-EAPRA), consisting of, arranged concentrically and parallelly connected, an annular connector (17) of electric wires (BEP), assembled using a unified about the module (17.1) and the electronic ballast (16) (EAPR). assembled from the phase (plus) module (16.1) (FM electronic ballasts) and the zero (minus) module (16.2) (NM electronic ballasts), connected in parallel with the set - (18-19) (BEP-EAF), consisting of arranged concentrically and in parallel connected, an annular connector (19) of electrical wires (SES), assembled using a unified module (19.1) with a pin electrical terminal (12.3.1), on the surface opposite to that on which the inlet holes (10.2.3) of its electric clamps (10.3.1), and electronic ballast (18) (EAF). assembled from a phase (positive) module (18.1) (FM electronic ballasts) with a phase (positive) pin electrical output (11.1.1.3) of the consumer and a network phase (positive) pin electrical output (11.1.2.3), on the surface opposite to that on which the inlets (9.1.3) of their electrical clamps (9.1.6) and (9.1.4), respectively, and the zero (minus) module (18.2) (NM electronic ballasts) with zero (minus) pin electrical output (11.1.3.3) are located ) of the consumer and the network zero (minus) pin electrical terminal (11.1.4.3), on the surface opposite to that, n and which are the inlets (9.1.3) of their electrical clamps (9.1.7) and (9.1.5), respectively.

The used unified module (19.1) of the connector of electric wires (19) on the surface opposite to that on which the inlet holes (10.2.3) of the electrical clamps (10.3.1) are located, as a continuation of its conductive busbar (12.3), for example, opposite the electrical clamp (10.3.1), located next to the trapezoidal protrusion (19.1.1.2-19.1.2.2) for the mechanical dovetail connection, a pin electrical outlet (12.3.1) protrudes from the body of the universal module (19.1).

At the exit point of the pin electrical terminal (12.3.1), from the housing of the unified phase (plus) module (19.1) of the proposed connector (19) of electrical wires, there is a support protrusion (12.1.2), in the center of which is an insulating protrusion (12.1.2.1) , with an opening that is part of the socket (12.1.1.2) for the pin electrical outlet (12.3.1).

The pin electrical outlet (12.3.1) allows you to connect electrically in parallel, the required number of such unified modules (19.1), as well as connect, the proposed, assembled from unified modules (19.1) and (19.2), the connector (19) of the electrical wires, connector (10) of electrical wires according to claim 3, or with a connector (17) of electrical wires according to claim 7.

The phase (plus) module (18.1) of the proposed electronic ballast (18) is used on the surface opposite to that on which the inlet (9.1.3) of the network phase (plus) electric clamp (9.1.4) and inlet (9.1. 3) phase (positive) electrical clamp (9.1.6) of the consumer, from the housing of the proposed module (18.1), opposite each electrical clamp (9.1.4) and (9.1.6), respectively, the phase (positive) pin electrical outlet (11.1 .1.3) consumer and network phase (positive) pin oh electrical outlet (11.1.2.3).

At the exit point of these pin electrical leads (11.1.1.3) and (11.1.2.3), from the housing of the unified phase (plus) module (18.1) (FM EAPRA), there is a support ledge, respectively (11.1.1) and (11.1.2) and, in the center of each of them there is an insulating protrusion, respectively (11.1.1.1) and (11.1.2.1), with an opening that is part of the socket, respectively (11.1.1.2) and (11.1.2.2) for the pin electrical outlet, respectively ( 11.1.1.3) and (11.1.2.3).

The used zero (minus) module (18.2) of the proposed electronic ballast (18) is on the surface opposite to that on which the inlet (9.1.3) of the network zero (minus) electrical clamp (9.1.5) and the inlet (9.1. 3) zero (negative) electrical clamp (9.1.7) of the consumer, from the housing of the proposed module (18.2), opposite each electrical clamp (9.1.7) and (9.1.5), respectively, the zero (negative) pin electrical terminal (11.1 .3.3) consumer and network zero (minus howl) a pin electrical outlet (11.1.4.3).

In the place of exit of these pin electrical leads (11.1.3.3) and (11.1.4.3), from the housing of the unified zero (negative) module (18.2) (IM EAPRA), there is a support ledge, respectively (11.1.3) and (11.1.4) , and in the center of each of them is an insulating protrusion, respectively (11.1.3.1) and (11.1.4.1), with an opening that is part of the socket, respectively (11.1.3.2) and (11.1.4.2) for the pin electrical outlet, respectively ( 11.1.3.3) and (11.1.4.3).

The phase (positive) pin electrical output (11.1.1.3) of the consumer and the network phase (positive) pin electrical output (11.1.2.3), phase (positive) module (18.1) (FM electronic ballast) of the proposed electronic ballast (18) (electronic ballast) allow connecting electrically in parallel, the required number of similar modules (18.1) (FM electronic ballasts).

Zero (minus) pin electrical output (11.1.3.3) of the consumer and network zero (minus) pin electrical output (11.1.4.3), zero (minus) module (18.2) (NM electronic ballasts) of the proposed electronic ballast (18) (electronic ballasts) allow connecting electrically in parallel, the required number of similar modules (18.2). (NM electronic ballasts).

These pin electrical leads (11.1.1.3), (11.1.2.3), (11.1.3.3) and (11.1.4.3) also allow connecting assembled from the phase (plus) module (18.1) (FM electronic ballasts) and zero (negative) module (18.2) (FM ballasts), the proposed electronic ballast (18) (ballasts) or with an electronic ballast (9) according to claim 3, or with an electronic ballast (16) according to claim 7.

Under operating conditions, the proposed connector (19) of the electrical wires and the proposed electronic ballast (18) are concentrically arranged and, accordingly, are electrically connected to each other.

In this case, the phase (positive) electrical clamp (9.1.6) of the consumer of the proposed electronic ballast (18) is electrically connected to the phase (positive) electrical clamp (10.3.1) of the consumer of the proposed connector of electric wires (19).

And the zero (minus) electrical clamp (9.1.7) of the consumer of the proposed electronic ballast (18) is electrically connected to the zero (minus) electrical clamp (10.4.1) of the consumer of the proposed connector of electric wires (19).

At the exit point of the phase (positive) pin electrical terminal (12.3.1), from the housing of the unified phase (positive) module (19.1) of the proposed connector (19) of electrical wires, there is a support protrusion (12.1.1), in the center of which is an insulating protrusion (12.1.1.1), with a hole that is part of the socket (12.1.1.2) for the phase (plus) pin electrical terminal (12.3.1).

At the exit point of the zero (negative) pin electrical output (12.4.1), from the housing of the unified zero (negative) module (19.2) of the proposed connector (19) of electrical wires, there is a support protrusion (12.1.1), in the center of which is an insulating protrusion (12.1.1.1), with a hole that is part of the socket (12.1.1.2) for the zero (minus) pin electrical terminal (12..1).

The proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps (1), each mounted in an electric cartridge (2), at least one assembly: a set of ring-shaped, modular design connector (17) of electric wires - an electronic ballast (16) (EAPR), according to claim 7, which is parallel connected to a set of ring-shaped, modular design, the connector (19) of electric wires is an electronic ballast (EAPR) (18), with phase (plus) pcs with an electric eared output (12.3.1) and a zero (minus) pin electrical output (12.4.1), on the surface opposite to that on which the inlets (9.1.3) of their electrical clamps are located, respectively (10.3.1) and (10.4 .1), the remote control (20) of the electronic circuit breaker (6) with touch and remote control.

The proposed remote control (20) for electronic electronic circuit breaker (6) with touch and remote control functionally consists of a button (20.1.1) associated with the piezoelectric element, a transducer - amplifier (20.1.2), emitting LED (20.1.3) and made in the form of a keychain simulating an electric bulb with a threaded base, truncated by two planes parallel to its horizontal axis of symmetry; the bulb (bulb) takes the place of the housing (20.2.1) of the amplifier - converter (20.2.1.1)), on its lateral surface, for example, the front (in place of the cutting plane), there is a button (20.1.1) connected to the piezoelectric element, for example, on its right end face, there is a radiating LED (20.1.3), and on its opposite end face, for example, on the right side, a mounting protrusion (20.2.2) that simulates a truncated threaded base of a light bulb, in which a thread is imitated on narrow lateral sides (20.2. 2.2), and in his short freedom days of the face, there is a section simulating the insulator (20.2.2.3) of the threaded base and the phase contact ledge (20.2.2.4) of the light bulb with the threaded base, and a hole (20.2.2.1) is made on its wide face for attaching the chain or twine.

The proposed connector (19) of the electrical wires consists of, appropriately mechanically and electrically connected, two proposed identical unified modules (19.1) and (19.2).

For a unified module (19.1) of the connector (19) of electric wires, on the surface opposite to that on which the input holes (9.1.3) of the electrical clamps (10.3.1) are located, as a continuation of its conductive bus (12.3.1), for example, opposite an electric clamp (10.3.1) located next to the trapezoidal protrusion (19.1.1.1) for a mechanical dovetail connection, a pin electrical outlet (12.3.1) protrudes from the housing of the unified module (19.1).

A second unified module, for example, a unified module (19.2), necessary for assembling the proposed connector (19) of electric wires, is obtained if one of the two required unified modules, for example, a unified module (19.2), is turned around the center of the circle of its housing by one hundred eighty degrees , in any direction.

In operating conditions, the proposed connector (19) of electrical wires is installed above a set of ring-shaped, modular design, the connector (17) of electrical wires is an electronic ballast (EAPR) (16), according to claim 7

First, the conductive tip (2.3) of the phase (plus) electric wire (2.8.3), coming from each of the appropriate number, for example, six pieces, electrons (2) of compact electric energy-saving lamps (1), is placed in a phase (plus) screwless clamp (10.3.1), for example, on the left half (17.1) of the proposed ring-shaped connector (17) of electric wires according to claim 7, and the conductive tip (2.3) of the zero (negative) electric wire (2.8.4) coming from each of the appropriate quantities, for example six pieces, e ktropatronov (2) of compact electric energy saving lamps (1) arranged in the zeroth (minus) screwless clamp (10.4.1), for example, on the right half (17.2) of the proposed ring-shaped connector (17) of electric wires according to claim. 7.

After that, one of the unified modules, for example (19.1) of the proposed connector (19) of electric wires, is installed below, for example, another unified module (19.2), and the fixing tube (2.7) of the electric chandelier is located in their central hole (9.1.8).

In this case, the protrusion (19.1.1.2-19.1.2.2) for the mechanical dovetail connection, for example, the lower unified module (19.1), the proposed connector (19) of electric wires, is located under the socket (19.2.1.1-19.2.2.1) for the dovetail mechanical connection of the upper unified module (19.2), the proposed connector (19) of electric wires, and the socket (19.1.1.1-19.1.2.1) for the dovetail mechanical connection, for example, the lower unified module, proposed the connector (19) of the electrical wires located n under the protrusion (19.2.1.2-19.2.2.2) for the mechanical dovetail connection of the upper unified module (19.2), the proposed connector (19) of electrical wires.

Then both modules (19.1) and (19.2) are moved vertically towards each other, until they stop. In this case, the protrusion (19.1.1.2-19.1.2.2) for the mechanical dovetail connection, for example, the lower unified module (19.1), the proposed connector (19) of the electric wires, is located in the socket (19.2.1.1-19.2.2.1) for a mechanical dovetail connection, for example, the upper unified module (19.2), the proposed connector (19) of electrical wires, and a protrusion (19.2.1.2-19.2.2.2) for a mechanical dovetail connection, for example, the upper unified module (19.2), the proposed connector (19) electrical wires c, located in the socket (19.1.1.1-19.1.2.1) for the mechanical dovetail connection, for example, the lower unified module (19.1), the proposed connector (19) of electric wires.

Thus assembled, the proposed connector (19) of the electric wires is moved along the fixing tube (2.7) of the electric chandelier located in its central hole (9.1.8), as far as the stop with the previously installed ring-shaped connector (17) of the electric wires according to claim 7 .

As a result, one pin electrical terminal (12.3.1) of the proposed connector (19) of electric wires is located, for example, in a phase (plus) electric terminal (10.3.1) of the consumer of the ring-shaped connector (17) of electric wires according to claim 7, and its second pin electrical outlet (12.4.1) is located, for example, in the zero (minus) electrical clamp (10.4.1) of the consumer, the ring-shaped connector (17) of the electrical wires according to claim 7.

The proposed electronic ballast (18) (EAPR) consists of a phase (plus) module (18.1) (FM electronic ballasts) and zero (minus) module (18.2) (NM electronic ballasts) according to claim 7, which are made with pin electrical leads (11.1 .1.3), (11.1.2.3), (11.1.3.3) and (11.1.4.3) located on the surface opposite to that on which the inlets (9.1.3) of the electrical clamps are located, respectively (9.1.6), ( 9.14), (9.1.7) and (9.1.5).

The used phase (plus) module (18.1), the proposed electronic ballast (18), on the surface opposite to that on which the inlets (9.1.3) of the network phase (plus) electrical clamp (9.1.4) and phase (plus) are located ) of the consumer’s electrical clamp (9.1.6), from the housing of the proposed phase (plus) module (18.1), opposite each electrical clamp (9.1.4) and (9.1.6), there is a pin electrical outlet, (11.1.2.3) and ( 11.1.1.3) respectively. The protruding pin electrical leads (11.1.2.3) and (11.1.1.3) allow you to connect electrically in parallel, the required number of proposed phase (plus) modules (18.1).

The used zero (minus) module (18.2), the proposed electronic ballast (18), on the surface opposite to that on which the inlets (9.1.3) of the network zero (minus) electrical clamp (9.1.5) and zero (minus) are located ) of the consumer’s electrical clamp (9.1.7), from the housing of the proposed zero (negative) module (18.2), opposite each electrical clamp (9.1.5) and (9.17), there is a pin electrical outlet (11.1.4.3) and (11.1.3.3 ) respectively. The protruding pin electrical terminals (11.1.4.3) and (11.1.3.3) allow you to connect electrically in parallel, the required number of proposed zero (plus) modules (18.2).

The proposed phase (plus) module (18.1) (FM electronic ballasts) and zero (negative) module (18.2) (NM electronic ballasts) using the connecting protrusions (16.1.1) and (16.1.2), and the connecting recesses (16.2.1) and (16.2.2), as well as screwless electrical terminals (16.1.2.1) and (16.2.1.1) located on them, and pin electrical terminals (16.1.1.1) and (162.2.1), are properly connected to each other, forming the proposed electronic ballast (18) (EAPR) with an annular body. In this case, the phase (positive) pin electrical terminal (16.1.1.1), on the left protrusion (16.1.1), of the phase (positive) module (18.1) (FM electronic ballast), is located in the phase (positive) screwless clamp (16.2.1.1) , the left connecting recess (16.2.1), the zero (minus) module (18.2) (NM electronic ballasts), and the zero (minus) pin electrical output (16.2.2.1), the right connecting recess (16.2.2) of the zero (negative) module (18.2) (NM electronic ballasts), located in the zero (minus) screwless clamp (16.1.2.1) of the right connecting protrusion (16.1.2) of the phase (plus) module (18.1) (FM electronic ballasts).

At the place of continuous operation, the proposed ring-shaped electronic ballast (18) (EAF) is installed after a set of ring-shaped, modular design connector (17) of electric wires is installed - the electronic ballast (16) (EAF), according to claim 7 and the proposed modular design, the ring-shaped connector (19) of the electrical wires, moreover, is installed in such a way that the mounting tube (2.7) of the electric chandelier is located in its central hole (9.1.8).

One module of the proposed ring-shaped electronic ballast (18) (EPR), for example, phase (plus) module (18.1) (FM electronic ballasts), is installed above the proposed, modular design of the ring-shaped connector (19) of electric wires, and the second module, for example, zero (minus) ) module (18.2) (NM electronic ballasts), is installed above the phase (plus) module (18.1) (FM electronic ballasts), after which both modules (18.1) and (18.2) are moved vertically towards each other, to the stop. In this case, the phase (positive) pin electrical terminal (16.1.1.1), on the left protrusion (16.1.1), of the phase (positive) module (18.1) (FM electronic ballast), is located in the phase (positive) screwless clamp (16.2.1.1) , the left connecting recess (16.2.1), the zero (minus) module (18.2) (NM electronic ballasts), and the zero (minus) pin electrical output (16.2.2.1), the right connecting recess (16.2.2) of the zero (negative) module (18.2) (NM electronic ballasts), located in the zero (minus) screwless clamp (16.1.2.1) of the right connecting protrusion of the phase (plus) module (18.1) (FM electronic ballasts).

The assembled thus proposed ring-shaped electronic ballast (18) (EAPR) is installed in the inner ring of the previously installed, modular design ring-shaped connector (19) of the electric wires, so that its guide protrusion (9.1.2) is located inside the guide a cut-out (10.1.3.1) in the annular thrust protrusion (10.1.3) of the proposed ring-shaped connector (19) of electric wires, and the housing of the proposed ring-shaped electronic ballast (18) (EAPR ) rests on him.

As a result, the phase (positive) electrical output (11.1.1.3) of the consumer and the phase (positive) network electrical output (11.1.2.3) of the proposed electronic ballast (EAPR) (18) are located, respectively, in the phase (positive) electrical clamp consumer (9.16) and in the phase (plus) network electrical clamp (9.1.4) of the ring-shaped electronic ballast (16) (EAPR) according to claim 7, and the zero (minus) electrical output (11.1.3.3) of the consumer and zero (minus) ) network electrical protrusion (11.1.4.3), proposed electronic control gear (18) (EAPR), are located respectively in the zero (negative) electrical clamp (9.1.7) of the consumer and in the zero (negative) mains electrical clamp (9.1.5) of the ring-shaped electronic control gear (16) (EAPR ) according to claim 7.

A piece of electrical wire, at each end of which a conductive tip (2.3) is fixed on its conductive core, is positioned so that one of its conductive tip (2.3) is located in the phase (plus) screwless clamp (9.14), the consumer of the phase (plus) module ( 18.1) of the proposed ring-shaped electronic ballast (18) (EAPR), and its second conductive tip (2.3) is located in the phase (plus) screwless clamp (10.3.1) of the proposed ring-shaped connector (19) of electric wire in the example at its standardized module (19.1) and, for example, through which its horizontal axis.

A piece of another electrical wire, at each end of which a conductive tip (2.3) is fixed on its conductive core, is positioned so that one of its conductive tip (2.3) is located in the zero (minus) screwless clamp of the consumer (9.1.7), zero (minus) ) module (18.2) of the proposed ring-shaped electronic ballast (18) (EAF), and its second conductive tip (2.3) is located in the zero (minus) screwless clamp (10.4.1) of the proposed ring-shaped connector (19) wires, for example, on its unified module (19.2) and, for example, through which its horizontal axis passes.

A conductive tip (2.3), mounted on the end of the conductive core of the electric wire (7.1.1), coming from the phase (plus) terminal of the source (7) of electrical energy and a conductive tip (2.3), mounted on the end of the conductive core of the electric wire (7.1.2) ), coming from the zero (minus) terminal of the source of electric energy (7), are fixed in the corresponding input screwless electrical terminals (6.4.3) and (6.4.4), respectively, of the proposed electronic circuit breaker (6) with touch and tantsionnym control.

A conductive tip (2.3) mounted on the end of the conductive core of the electric wire (7.1.3) coming from the output phase (plus) screwless clamp (6.4.1) of the proposed electronic circuit breaker (6) with touch and remote control is fixed in the network phase ( plus) screwless clamp (9.1.4) of the phase (plus) module (18.1) (FM electronic ballasts).

The conductive tip (2.3) mounted on the end of the conductive core of the electric wire (7.1.4) coming from the output zero (minus) screwless clamp (6.4.2) of the proposed electronic circuit breaker (6) with touch and remote control is fixed in the network zero ( plus) screwless clamp (9.1.5) of the zero (minus) module (18.2) (NM electronic ballasts).

A conductive tip (2.3) mounted on a conductive core of a phase (plus) electrical wire (7.1.5) coming from the output phase (plus) screwless clamp (6.4.1) of the proposed electronic circuit breaker (6) with touch and remote control, inserted into the network phase (positive) screwless clamp (9.1.4) located in the phase (positive) module (18.1) (FMEPRA).

A conductive tip (2.3), mounted on a conductive core of a zero (minus) electrical wire (7.1.6), coming from the output zero (minus) screwless clamp (6.4.2) of the proposed electronic automatic electrical switch (6) with touch and remote control, inserted in the network zero (negative) terminal (9.1.5) located in the zero (negative) module (18.2) (NMEPRA).

At the end of the conductive core of each electric wire (2.8.1) and (2.8.2), coming from the electric cartridge (2) of the compact electric energy-saving lamp (1), a conductive tip (2.3) is fixed.

The conductive tip (2.3) of the phase (positive) electric wire (2.8.1) coming from each electron cartridge (2) of a compact electric energy-saving lamp (1) is placed in a phase (plus) screwless clamp (10.3.1), for example, on a unified module (17.1) of the proposed ring-shaped connector (17) of electric wires, and after filling in all phase (plus) screwless terminals (10.3.1) on it, in phase (plus) screwless terminals (10.3.1) on the unified module (19.1) of the proposed ring-shaped connector (19) is electrically FIR wires.

The conductive tip (2.3) of the zero (minus) electric wire (2.8.2) coming from each electron cartridge (2) of the compact electric energy-saving lamp (1) is placed in the zero (minus) screwless clamp (10.4.1), for example, on a unified module (17.2) of the proposed ring-shaped connector (17) of electrical wires, and after filling all zero (minus) screwless terminals (10.4.1) on it, in zero (minus) screwless terminals (10.4.1) on the unified module (19.2) of the proposed ring-shaped connector (19) e ektricheskih wires.

Each electric cartridge (2) of the proposed set of lighting electrical equipment has a compact electric energy-saving lamp (1).

Thus, the electric circuit of a set of lighting electrical equipment, which provides the most rational connection of a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) is assembled.

A photodetector (6.2) of a switching semiconductor device or a sensor (6.3) of the proposed electronic circuit breaker (6) with touch and remote control is not activated and the electric circuit of the proposed set of lighting electrical equipment is open; however, the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1) do not receive power and the radiant energy source (1.1) of the compact electric energy-saving lamp (1.1) does not emit radiant energy.

The proposed set of lighting electrical equipment works to connect a source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp (1) to an electric energy source (7) as follows: after the light-transmitting zone of the emitting LED (20.1. 3) the remote control (20) of the electronic circuit breaker (6) with touch and remote control will be directed towards the light guide the sensing zone of the infrared photodetector (6.2.2.2) of the optothyristor, the proposed electronic automatic electric switch (6) with touch and remote control, and a force will be created on the button (20.1.1) associated with the piezoelectric element of the transducer - amplifier (20.1.2), A control signal will be sent to the optothyristor, which is activated and begins to pass an electric current.

In this case, power is supplied to the electrodes (1.1.1) and (1.1.2) of the radiant energy source (1.1) of the compact electric energy-saving lamp (1), and the latter emits radiant energy.

The proposed technical solutions allow us to create a universal set of lighting electrical equipment on the basis of standardized units and parts, which provides the most rational connection of the source (1.1) of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) from a group of compact electric energy-saving lamps (1) and traditional electric incandescent lamps to the source (7) of electrical energy.

The proposed set of lighting electrical equipment provides an extension of the field of application of compact electric energy-saving lamps.

The proposed technical solutions will allow for a deep modernization of the set of lighting electrical equipment for incandescent lamps, while improving their design and production, reducing costs for the Manufacturer and Consumer, and maintaining reasonable areas of their application.

The most effectively proposed technical solution can be used for compact electric energy-saving lamps in their group application, for example, in an infinite variety of electric chandeliers.

Information sources:

1. Lamp cap and socket arrangement. Page bookmark CA 2700009 A1; publication data: 10.21.2010; Inventor (s): Wursching Istvan [HU]; Fulor Jozsef [HU]; Papp Ferenc [HU]; Talosi Karoly [HU]. Applicants): Gen. Electric [US]. Int Cl .: H01J 5/56; H01J 61/52; H01R 33/76.

2. Molded electrical socket.

Inventor (s): Chven Robert H [US]; Forish John A [US]. Applicants): Federal Mogul Corp [US]; Owen Robert H [US]; Forish John A [US]. Application number (s): WO 2009US59170 20091001, publication data: 08/04/2010, Int Cl .: H01R 13/504, H01R 33/02, H01R 33/76.

3. Connector of electric wires. Authors: Derevenko K.A. Derevenko A.K. Patent holder: Derevenko A.K. Patent RU 2421854 C1. Published. 06/20/2011. Kl. H01R 4/48 (2006.01).

4. A method for connecting a radiant energy source of a compact electric energy-saving lamp to an electric energy source and a device for its implementation. Authors: Derevenko K.A. Derevenko A.K. Applicant: Derevenko K.A. Application No. 2012151274 dated 11/30/2012.

Claims (8)

one.  Set of lighting electrical equipment,  providing a rational connection of sources of radiant energy (infrared radiation,  visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electrical energy,  characterized in  what is used in it:  compact electric energy-saving lamps,  not combined with an electronic ballast (EAPR);  electric cartridges  not combined with electronic ballasts (EAPR);  electrical wire connector  providing group connection of compact electric energy-saving lamps;  electric cartridge  structurally combined with an electronic ballast (EAPR);  electric plugs;  electronic circuit breaker with touch and remote control;  the proposed set of lighting electrical equipment contains:  two or more compact electric energy-saving lamps,  two or more electrons  not combined with an electronic ballast (EAPR),  two or more electrical plugs,  electrical wire connector  providing group connection of compact electric energy-saving lamps,  electric cartridge  structurally combined with an electronic ballast (EAPR),  and electronic automatic electrical switch with touch and remote control;  Each proposed compact electric energy-saving lamp consists of:  source of radiant energy  shell and pin cap;  the radiant energy source of the proposed compact electric energy-saving lamp for connecting to an electric energy source is equipped with an electrical output,  which is connected to its phase (positive) electrode,  as well as an electrical outlet,  connected to its zero (minus) electrode;  the shell of the proposed compact electric energy-saving lamp has a translucent zone or the whole is made of translucent material and at the right end ends with a pin base;  the pin base of the proposed compact electric energy-saving lamp consists of a base ledge,  a pin phase (positive) electrical terminal and a pin zero (negative) electrical terminal;  the base protrusion is hermetically connected to the shell of the proposed compact electric energy-saving lamp;  the plane  parallel to the central axis of the base protrusion and perpendicular to the wide faces of its pin phase (plus) electrical output and pin zero (negative) electrical output,  cut-out key  fixing the position of the proposed compact electric energy-saving lamp in the socket for its base in the inner cavity of the electron cartridge;  pin electrical leads are hermetically soldered into the base ledge;  each electrical terminal of the radiant energy source of the proposed compact electric energy-saving lamp is mechanically and electrically connected to a corresponding pin electrical terminal;  each pin electrical outlet,  e.g. pin phase (positive) electrical output,  is a rectangular plate,  made of conductive material;  perpendicular to the wide face of each pin electrical outlet,  on her both sides  in the zone  which is located in the basement protrusion housing,  rectangular locking cutouts made;  perpendicular to the narrow edge of each pin electrical outlet,  protruding beyond the body of a compact electric energy-saving lamp and beyond its base protrusion,  on its wide brink  facing from the horizontal axis of the proposed compact electric energy-saving lamp,  made nests for supporting protrusions of a wave-like contact spring;  the profile of each of these nests repeats the surface profile of the contact spring portion,  facing the working side of the pin electrical output,  at the junction of the support coil and the free end of the first power coil,  and at the junction of the support coil with the first power coil and the second power coil;  the upper edges of these nests are rounded;  on the central horizontal axis of each proposed pin electrical outlet in the center of each socket for a support protrusion of a wave-like contact spring, a socket for a spherical protrusion of a wave-like contact spring is made;  the interface of the socket for the spherical protrusion of the wave-like contact spring and each socket for the support protrusion of the wave-shaped contact spring is rounded;  each electroparton offered,  not combined with an electronic ballast (EAPR),  consists of:  enclosures  two identical pinless screwless terminals and cable sleeve;  the case of this electrons is two cylinders of different diameters,  sequentially paired with bases  and the diameter of these cylinders decreases,  from left to right,  and their main axes are located on the same line;  a thread is made on the outer side surface of the cylinder body of a larger diameter,  which serves to secure the ceiling with a mounting ring;  in the inner cavity of the housing zone of the electroparticle under consideration,  which is formed by the cylinder with the largest diameter,  a socket for a pin base of a compact electric energy-saving lamp,  screwless pin clamps;  the area of the body of the considered electrons,  which is formed by the cylinder with the smallest diameter,  forms a cylindrical protrusion,  in the inner cavity of which is located the cable sleeve,  fixing tube and electric cable;  the case of the electropartile under consideration consists of left and right mirror symmetric halves,  made of electrical insulating material;  in the inner cavity of each half of the case of the electroparticle under consideration, a half of the socket for the pin base of the proposed compact electric energy-saving lamp is made from the left end;  moreover, the diameter of the socket for the pin base is larger than the outer diameter of the base protrusion of a compact electric energy-saving lamp;  in the inner cavity of the right half of the housing of the electroparticle under consideration,  in the middle of the side surface of the socket for the base ledge made a ledge key,  for fixing the position of the proposed compact electric energy-saving lamp in the socket for its base protrusion;  in the inner cavity of the housing of the electroparticle under consideration,  on both sides of its horizontal axis of symmetry and parallel to it,  to the right of the end face of the socket for the base protrusion of the proposed compact electric energy-saving lamp,  notches were made for its pin electrical terminals;  moreover, a recess is made above the horizontal axis of symmetry of the electric cartridge under consideration for a pin phase (positive) electrical output;  and below the horizontal axis of symmetry of the electroparticle under consideration, a recess is made for the pin zero (minus) electrical output;  in the inner cavity of both halves of the housing of the electroparticle under consideration,  as a continuation of each recess for a phase (plus) and zero (minus) pin electrical output,  made a socket for an electric pin screwless clamp,  respectively phase (plus) and zero (minus);  and in the nest,  located above the horizontal axis of symmetry of the electron cartridge,  the tip is under the wave-shaped contact spring,  and below the horizontal axis of symmetry of the electric cartridge, the tip is above the wave-shaped contact spring;  on each half of the case of the electroparticle in question in its inner cavity,  starting from the end surface of the socket for the sleeve to the end surface of each socket for a pin screwless clamp,  a channel is made for an electric wire,  coming from an electronic ballast (electronic ballast),  the considered electrons;  inside the housing area of the considered electrons,  which is formed by the cylinder with the smallest diameter,  There is a socket for an electric cable,  cable sleeve and mounting tube;  on each half of the case of the electroparticle in question in the internal cavity of this socket,  a rectangular protrusion is made in the center of its lateral surface,  preventing the movement of the sleeve around its axis;  in the inner cavity of the right half of the housing of the electroparticle under consideration, mounting tabs are made;  in the inner cavity of the left half of the housing of the electroparticle under consideration, mounting recesses are made;  a rectangular mounting recess is made along the outer perimeter of the narrow side walls of the left half of the housing of the electropartile under consideration;  along the outer perimeter of the narrow side walls of the right half of the body,  considered electrons  made a rectangular mounting ledge;  conductive tip  used in the cartridge in question,  made of conductive material and is designed to connect a conductive core of electrical wires,  supplying electricity to the cartridge;  a straight section is located on the left end of the conductive tip;  from the right end of the conductive tip,  a section for attaching a conductive core of an electric wire is located;  on the site for attaching the conductive core of the electric wire, a nest for the conductive core of the electric wire is made;  the lower surface of the rectilinear portion and the portion for mounting the conductive core of the electrical wire of the conductive tip are located in one plane;  the upper surface of the rectilinear portion of the conductive tip is working;  left,  the upper and lower short edges of the conductive tip are rounded;  electrical plug,  used in the proposed set of lighting electrical equipment,  consists of:  enclosures  phase (plus) plug and zero (minus) plug;  the housing of the proposed electric plug consists of left and right mirror symmetrical halves,  made of electrical insulating material;  the housing of the proposed electric plug is two cylinders of different diameters,  sequentially paired with bases  and the diameters of these cylinders decrease,  eg,  from right to left,  and their main axes are located on the same line;  the right cylinder of the housing of the proposed electric plug is truncated in two planes,  parallel to the central axis of the cylinders and the plane of the plug of the electric plug,  and the angles between the short and long outer edges of this part of the body of the electric plug are rounded;  in the internal cavity of this zone of the housing of the proposed electric plug are nests for phase (plus) and zero (minus) plug and electrical wires,  coming from the corresponding conductive tips of the proposed cartridge,  in which the proposed compact electric energy-saving lamp is fixed;  on the end face of both halves of this zone of the housing of the proposed electric plug are the outlet openings for the phase (plus) and zero (minus) plugs;  on each half of the body of the proposed electric plug in its inner cavity,  starting from the end surface of the socket for the conductive tip of the electric wire to the end surface of the socket for the electric cable,  made channels for electrical wires,  going to the proposed cartridge;  the area of the housing of the proposed electric plug,  which is formed by the cylinder with the smallest diameter,  forms a cylindrical protrusion,  in the inner cavity of which there is a socket for an electric cable;  a notch is made on the outer side surface of both halves of this area of the housing of the proposed electric plug,  preventing slipping of the fingers when inserting and removing the proposed electric plug from the electrical clamps at the place of its operation;  on the outer end surface of the right half of the electric plug housing between the outlet openings for the phase (plus) and zero (minus) plugs, a protrusion key is made in the middle of the end face,  to fix the position of the proposed electric plug at the place of operation;  mounting protrusions are made in the inner cavity of the right half of the body of the electric plug;  fixing cavities are made in the inner cavity of the left half of the housing of the proposed electric plug;  a rectangular mounting recess is made along the outer perimeter of the narrow side walls of the left half of the housing of the proposed electric plug;  along the outer perimeter of the narrow side walls of the right half of the body,  the proposed electric plug is made a rectangular mounting ledge;  as a phase (plus) plug and a zero (minus) plug in the proposed electric plug, a conductive tip is used,  which is made of conductive material and is designed to connect a conductive core of electrical wires,  supplying electricity to the electric plug;  on the part of the conductive tip protruding outside the housing of the proposed electrical plug,  used as a phase (plus) plug and a zero (minus) plug,  on its wide brink  opposite working edge  perpendicular to a narrow side face,  made nests for supporting turns of a wave-like contact spring;  the profile of each of these jacks repeats the surface profile of the contact spring portion at the junction of the support coil and the free end of the first power coil,  and at the junction of the support coil with the first power coil and the second power coil,  facing the working face of the plug of the electric plug;  the upper edges of these nests are rounded;  on the central horizontal axis of each plug in the center of each socket for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring;  the interface of the socket for the spherical protrusion of the wave-like contact spring and the socket for the support coil of the wave-shaped contact spring are rounded;  electrical cable,  going to the proposed cartridge,  in which the proposed compact electric energy-saving lamp is fixed,  laid in a nest for it in the inner cavity of the housing zone of the proposed electric plug,  which is formed by a cylinder with the smallest diameter;  phase (positive) electric wire,  coming from the proposed electro cartridge,  laid in the upper part of the socket for electric wires on the left half of the housing of the proposed electric plug,  and the end of its conductive core is fixed in the socket of the upper conductive tip;  zero (minus) electric wire,  coming from the proposed electro cartridge,  laid in the lower part of the socket for electrical wires on the left half of the housing of the proposed electric plug,  and the end of its conductive core is fixed in the socket of the lower conductive tip;  mounting tabs in the inner cavity of the right half are inserted into the mounting grooves of the left half of the housing of the proposed electric plug;  halves of the body of the proposed electric plugs are tightly pressed against each other;  a rectangular mounting protrusion along the outer perimeter of the narrow side walls of the right half of the housing of the proposed electric plug is located in a rectangular recess along the outer perimeter of the narrow side walls of the left half of the housing of the proposed electric plug;  electric cartridge  combined with an electronic ballast (EAPR),  consists of:  enclosures  monolithic module of an electronic ballast (EAPR),  two conductive tips  cable sleeve and mounting ring;  the cartridge case consists of two cylinders of different diameters,  between which is the parallelepiped,  opposite  smaller faces which are associated with the base of one of these cylinders;  the largest diameter  eg,  at the left cylinder;  the main axes of these cylinders and the parallelepiped are located on the same line;  in the housing area  proposed cartridge  formed by the left cylinder is a socket for the pin base of the connector of the electrical wires,  providing group connection of compact electric energy-saving lamps and a mounting ring;  in the area of the housing of the proposed electrons,  formed by a parallelepiped,  the proposed monolithic module of the electronic ballast (EAPR),  two conductive terminals with electric wires,  coming from an electronic automatic electric switch with touch and remote control and a source of electrical energy;  moreover, the conductive wires of these electrical wires are connected to conductive terminals,  located in the inner cavity of the electron cartridge,  combined with an electronic ballast (EAPR);  area of the cartridge housing,  which is formed by the cylinder with the smallest diameter,  forms a cylindrical protrusion,  in which the cable gland and mounting tube are located;  Electron cartridge case  combined with an electronic ballast (EAPR),  consists of the left half and the mirror-symmetric right half,  which are made of electrical insulating material;  in the area of the body of this electrons,  formed by the left cylinder  on each half of the cartridge case from the left end, half of the socket for the base of the connector of the electric wires is made,  providing group connection of compact electric energy-saving lamps;  moreover, the diameter of the socket for the base protrusion is larger than the outer diameter of the base protrusion of the connector of the electric wires,  providing group connection of compact electric energy-saving lamps;  in the inner cavity of the right half of the housing of this proposed elektropatron,  in the middle of the lateral surface of the right half of the socket for the base protrusion made key ledge,  for fixing the position of a compact electric energy-saving lamp in the inner cavity of the electrons;  on the outer surface of this zone of both halves of the cartridge case made a thread for the mounting ring;  in the housing area of this proposed electro cartridge,  formed by a parallelepiped,  in his inner cavity,  on both sides of its horizontal axis of symmetry and parallel to it,  to the right of the end face of the socket for the base protrusion of the connector of the electric wires,  providing group connection of compact electric energy-saving lamps,  notches were made for its pin electrical terminals;  moreover, a recess is made above the horizontal axis of symmetry of the proposed electron cartridge for its pin phase (positive) electrical output,  and a recess is made below the horizontal axis of symmetry of the electric cartridge for its pin zero (minus) electrical output;  in the inner cavity of both halves of the housing of this zone of the electric cartridge to the right of the upper slot for the phase (plus) pin screwless clamp and the lower slot for the zero (negative) pin screwless clamp, a socket for the proposed solid-state electronic ballast module is made;  on the inner long lower edge of the socket for the proposed monolithic electronic ballast module,  on the right half of the housing of the proposed cartridge is made ledge-retainer,  providing a certain position of the monolithic electronic ballast module relative to the housing of the proposed electro cartridge;  in the inner cavity of both halves of the housing of this zone of the proposed electroparton on the right side of the socket for the proposed monolithic electronic ballast module,  on both sides of the horizontal axis of symmetry of the electron cartridge,  parallel to her  above the horizontal axis of symmetry of the electric cartridge made a socket for the network phase (plus) pin screwless clamp,  and below the horizontal axis of symmetry of the electric cartridge made a socket for the network zero (minus) pin screwless clamp;  moreover, these nests are made mirror symmetrical,  while in the nest,  located above the horizontal axis of symmetry of the proposed electrons,  conductive tip  to which a conductive core of an electric wire is connected,  coming from an electronic circuit breaker with touch and remote control,  located under a wave-shaped contact spring;  but in the nest  located below the horizontal axis of symmetry of the proposed electrons,  conductive tip  to which a conductive core of an electric wire is connected,  coming from an electronic circuit breaker with touch and remote control,  located under a wave-shaped contact spring;  a channel for an electrical wire is made between the socket for the network phase (positive) pin screwless clamp and the socket for the cable sleeve,  coming from the proposed electronic automatic electrical switch with touch and remote control;  a channel for an electrical wire is made between the socket for the network zero (negative) pin screwless clamp and the socket for the cable sleeve,  coming from the proposed electronic automatic electrical switch with touch and remote control;  inside the housing area of the proposed electrons,  which is formed by the cylinder with the smallest diameter,  There is a socket for a cable sleeve and a fixing tube;  in the inner cavity of this nest,  on each half of the housing of the proposed electro cartridge,  a rectangular protrusion is made in the center of its lateral surface,  preventing the movement of the sleeve around its axis;  in the inner cavity of the right half of the housing of the proposed electron cartridge made mounting tabs;  fixing cavities are made in the inner cavity of the left half of the housing of the proposed electro cartridge;  a rectangular mounting recess is made along the outer perimeter of the narrow side walls of the left half of the housing of the proposed electro cartridge;  a rectangular mounting protrusion is made along the outer perimeter of the narrow side walls of the right half of the housing of the proposed electropartile;  the elements of the proposed electronic ballast apparatus (EAF) are combined into one structural unit,  with an infrared photodetector,  allowing you to remotely control electronic ballasts using the remote control,  mounted on the outer surface of the electronic ballast module housing;  the proposed electronic ballast (EAF) is made in the form of a monolithic module,  with speakers beyond  From the left side,  pin phase (plus) screwless consumer clamp and pin zero (minus) screwless consumer clamp;  and on the right side with a network pin phase (plus) screwless terminal and a network pin zero (negative) screwless terminal;  the housing of the proposed monolithic module is made of electrical insulation material with reduced thermal resistance;  each screwless clamp  proposed monolithic electronic ballast module,  consists of a pin electrical outlet,  made in the form of a conductive plate,  on the wide edge of which a wave contact spring is mechanically and electrically fixed;  phase (positive) pin screwless screw of the consumer and zero (negative) pin screwless screw of the consumer,  located parallel to the central axis of symmetry of the electron cartridge perpendicular to the short outer faces of the housing of the proposed monolithic module,  designed to connect to them the pin electrical terminals of the proposed connector of electrical wires;  network phase (plus) pin screwless clamp and network zero (negative) pin screwless clamp,  located parallel to the central axis of symmetry of the electron cartridge perpendicular to the short outer faces of the proposed monolithic electronic ballast module,  designed to connect conductive tips to them,  to which  respectively,  conductive conductors of electric wires are connected,  coming from an electronic automatic electrical switch with touch and remote control;  on the narrow side right side of the case,  proposed monolithic electronic ballast module,  perpendicular to the wide upper face, a notch was made for the retainer;  on the wide rear edge of the housing of the proposed monolithic electronic ballast module mounted rear cooler,  made of a material with high thermal conductivity;  on the wide front face of the housing of the proposed monolithic electronic ballast module mounted front cooler,  made of a material with high thermal conductivity;  every cooler  mounted on the housing of the proposed monolithic electronic ballast module,  connected to elements  located inside it;  moreover, this connection is made in such a way  that it is potentialless  t e.  the cooler is not under electric potential;  Besides,  this compound has the lowest possible thermal resistance;  in the plane of the wide rear face and the wide front face of the body,  proposed monolithic electronic ballast module,  the dimensions of the cooler around the entire perimeter of the touch do not exceed the dimensions of the face,  which they confront;  an infrared photodetector is mounted on the outer side surface of the body of a monolithic electronic ballast module,  on which coolers are fixed,  in the area of the body of the solid electronic ballast module between the network pin phase (plus) terminal and the network pin zero (minus) screwless terminal;  the proposed monolithic electronic ballast module is fixed in the slot for it,  on the left half and the right half of the cartridge;  wherein the network phase (positive) pin screwless clamp,  network zero (minus) pin screwless clamp,  the phase (plus) pin screwless screw of the consumer and the zero (negative) pin screwless screw of the consumer are inserted into the slots for them;  electrical cable,  going from the electronic automatic electric switch with touch and remote control to the cartridge,  combined with an electronic ballast (EAPR),  passed through the mounting tube,  fixed inside the cable gland;  a cable sleeve with a fastening tube fixed inside it is inserted into the socket inside the cylindrical protrusion of this electropart;  phase (positive) electric wire,  coming from an electronic automatic electric switch with touch and remote control through a mounting tube and cable sleeve to a network phase (plus) pin screwless terminal,  laid in the channel on the left half of the body of the electroparticle under consideration;  zero (minus) electric wire,  coming from the proposed electronic circuit breaker with touch and remote control,  through the mounting tube and cable gland to the network zero (minus) pin screwless clamp,  laid in the channel on the right half of the housing of the proposed electrons;  the end of the conductive core of the phase (positive) electrical wire,  coming from an electronic circuit breaker with touch and remote control,  fixed in the socket of the conductive tip,  which, in turn, is fixed in a network phase (plus) pin screwless clamp on the housing of the proposed monolithic electronic ballast module;  the end of the conductive core of the zero (negative) electrical wire,  coming from the proposed electronic circuit breaker with touch and remote control,  fixed in the socket of the conductive tip,  which in turn is fixed in a network zero (minus) pin screwless clamp on the housing of the proposed monolithic electronic ballast module;  mounting protrusions in the inner cavity of the right half of the housing of the proposed electrons are inserted into the mounting recesses of its left half;  the halves of the housing of the proposed electrons are tightly pressed against each other;  wherein the fastening protrusion along the outer contour of the right half of the housing of the proposed electro cartridge is inserted into the mounting recess along the outer contour of the left half of the housing of the proposed electro cartridge;  the proposed connector electrical wires contains:  case  made of electrical insulating material,  phase (plus) conductive bus,  on which are screwless pin electrical clamps,  and zero (minus) conductive bus,  on which are screwless pin electrical clamps;  each considered screwless pin electrical clamp consists of a conductive plate,  on which,  eg,  a wave-shaped contact spring is fixed by cold welding;  the housing of the proposed connector of electric wires consists of a base and a cover,  has a complex shape and is made of insulating material;  the left side of the housing of the proposed connector of electric wires is made in the form of a rectangular parallelepiped,  and its right side is made in the form of mating cylinders of different sizes;  the diameters of these cylinders decrease from left to right;  the smallest cylinder is a base ledge;  a thread is made on the side surface of a medium-diameter cylinder,  which with the help of a mounting ring allows you to fix the proposed connector of the electrical wires in the socket for the pin base,  in the cartridge case  structurally combined with an electronic ballast (EAPR);  the cylinder with the largest diameter serves as a stop for the fixing ring with an internal thread;  in the inner cavity of the base of the housing,  the electrical connector in question  parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus with sockets for screwless pin electrical clamps and a slot for a zero (minus) conductive bus with sockets,  for screwless pin electrical clamps;  on a long wide edge of the base of the proposed connector of electrical wires,  in the plane  opposite to that  on which its base and cover are connected,  the inlets for the phase (plus) plug and the zero (minus) plug of the electric plug are located;  each such inlet being in communication with a corresponding socket for a screwless pin electrical clamp;  in the inner cavity of the base of the housing,  the electrical connector in question  mounting recesses and ventilation recesses made  which alternate with each other;  along the outer perimeter of the narrow side walls of the base of the housing,  the electrical connector in question  made a rectangular mounting recess;  in the inner cavity of the housing cover,  the electrical connector in question  parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus and a slot for a zero (minus) conductive bus;  in the inner cavity of the housing cover,  the electrical connector in question  made fixing ledges and ventilation grooves,  which alternate with each other;  along the outer perimeter of the narrow side walls of the housing cover,  the electrical connector in question  made a rectangular mounting ledge;  on the housing cover  the electrical connector in question  in the center of the lateral edge of the basement ledge,  the plane  parallel to the Central horizontal axis of the proposed connector of electrical wires,  cut out  fixing the position of the proposed connector of electrical wires in the inner cavity of the electroparticle  structurally combined with an electronic ballast (EAPR);  phase (plus) conductive bus and zero (minus) conductive bus made in the form of a plate of complex shape from conductive material;  at one end of the phase (positive) conductive bus,  for example, on the left end,  more than two conductive plates are made perpendicular to its narrow long face,  perpendicular to her and lying with her in the same plane;  on each such conductive plate mechanically and electrically,  for example by cold welding,  fixed rectilinear mounting section of the proposed wave-shaped contact spring,  forming a phase (plus) screwless pin electrical clamp;  at one end of the zero (minus) conductive bus,  for example, on the left end,  more than two conductive plates are made perpendicular to its narrow long face,  perpendicular to her and lying with her in the same plane;  on each such conductive plate mechanically and electrically,  for example by cold welding,  fixed rectilinear mounting section of the proposed wave-shaped contact spring,  while forming a zero (minus) screwless pin electrical clamp;  section of the right end of the phase (positive) conductive bus,  protruding beyond the base of the protrusion of the proposed connector of the electric wires forms a phase (positive) pin electrical outlet;  section of the right end of the zero (minus) conductive bus,  protruding beyond the base of the protrusion of the proposed connector of the electric wires forms a zero (minus) pin electrical outlet;  on the plot of the right end of the phase (positive) pin electrical output and zero (negative) pin electrical output,  protruding beyond the base of the proposed connector of electrical wires,  on its wide brink  facing from the horizontal axis of the proposed connector electrical wires,  perpendicular to a narrow face  made nests for supporting turns of a wave-like contact spring;  the profile of each of these nests repeats the surface profile of the contact spring portion,  facing the working side of the pin electrical output,  at the junction of the support coil and the free end of the first power coil,  and at the junction of the support coil with the first power coil and the second power coil,  the upper edges of these nests are rounded;  on the central horizontal axis of the phase (positive) pin electrical output and zero (negative) pin electrical output,  in the center of each slot for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring;  the junctions of each socket for the spherical protrusion of the wave-like contact spring and the socket for the support coil of the wave-shaped contact spring are rounded;  horizontal line,  passing through the center of the cross section of the end of each pin electrical outlet,  extending beyond the scope of the proposed electrical wire connector,  parallel to the long edge of the pin electrical outlet,  and the central horizontal axis of the proposed connector of electrical wires;  moreover, this horizontal line and the central horizontal axis of the proposed connector of electric wires are located in one horizontal plane;  the distance between the centers of the normal sections of the segments of the pin electrical terminals,  extending beyond the scope of the proposed connector electrical wires,  equal to the distance between the centers of the plugs of a standard electric plug;  a phase (positive) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket for it;  zero (minus) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket for it;  the free end of the wave-shaped contact spring of each pin electrical clamp,  on which there is an incomplete reference turn,  facing the inlet on the base body of the proposed connector of electrical wires;  part of the phase (plus) conductive bus and zero (minus) conductive bus,  located above the base of the proposed connector of electrical wires,  inserted into the corresponding socket on the cover,  the proposed connector of electrical wires;  followed by a housing cover,  the electrical connector in question  tightly pressed to its base;  wherein the fixing tabs of the lid are inserted into the corresponding mounting recesses of the base;  each ventilation recess of the cover and the opposing ventilation recess of the base form a single ventilation cavity;  a rectangular protrusion around the perimeter of the lid is located in a rectangular recess around the perimeter of the base;  the proposed connector of electric wires is fixed in the socket for the pin base,  in the cartridge case  structurally combined with an electronic ballast (EAPR),  and fixed in it with a fixing ring,  which is screwed onto a cylindrical mounting protrusion,  the proposed connector of electrical wires;  a pin phase (positive) electrical terminal of the proposed connector of the electric wires is inserted into the phase (positive) screwless electric clamp of the electros cartridge,  which is structurally combined with an electronic ballast (EAPR);  a pin zero (minus) electrical terminal of the proposed connector of the electric wires is inserted into the zero (minus) screwless pin electric clamp of the electrons;  which is structurally combined with an electronic ballast (EAPR);  in a pair of inlets  which communicate with the phase (plus) pin screwless screw terminal and the zero (minus) pin screwless screw terminal,  the phase (plus) plug and the zero (minus) plug of the electric plug are respectively inserted,  connected to an electric cartridge,  in which the proposed compact electric energy-saving lamp is fixed;  wherein the body of the electrical plug will be oriented with respect to the body of the proposed connector of the electrical wires using the locking protrusion on the end surface of the electrical plug and the locking recess on the base housing of the proposed connector of the electrical wires;  similarly connected to the proposed connector of electric wires that number of compact electric energy-saving lamps,  for which it is designed;  in the proposed electronic automatic electric switch with touch and remote control, an electric circuit breaker and an overload protection unit are used,  overvoltage and short circuit currents,  similar to that used in the electronic ballast (EAPR) of the proposed set of lighting electrical equipment;  the proposed circuit breaker includes an optothyristor,  consisting of a radiating infrared diode and a photodetector,  which provides galvanic isolation,  excluding spontaneous inclusion by induction currents;  Besides,  it uses a touch sensor,  allowing you to control the switch by directly touching it,  eg,  by a human hand and excluding the moving mechanical parts;  Elements of the proposed electronic automatic electrical switch with touch and remote control are combined into one structural unit,  which is made in the form of a monolithic module;  the housing of the proposed monolithic module of an electronic automatic electrical switch with touch and remote control is made of electrical insulation material with reduced thermal resistance and is a parallelepiped;  on the end faces of which,  From the left side,  inlets are located  providing access to the pin phase (positive) screwless clamp of the consumer and to the pin zero (negative) screwless clamp of the consumer;  on the right side,  inlets are located  providing access to the network pin phase (positive) screwless terminal and to the network pin zero (negative) screwless terminal;  each screwless clamp  the proposed monolithic module of an electronic automatic electrical switch with touch and remote control,  consists of a pin electrical outlet,  made in the form of a conductive plate,  on the wide edge of which a wave-like contact spring is mechanically and electrically fixed;  a phase (positive) pin screwless clamp of the consumer and a zero (negative) pin screwless clamp of the consumer are designed to connect conductive terminals of electric wires to them,  respectively going to the proposed monolithic electronic ballast module;  the network phase (positive) pin screwless terminal and the network zero (negative) pin screwless terminal are used to connect conductive terminals to them,  to which conductive conductors of electrical wires are connected,  coming from a source of electrical energy;  in the middle of the long side faces of the module in question,  perpendicular to its base are mounting sockets,  ensuring its fastening at the place of operation;  in the middle of the junction of the upper and right end faces of the module in question,  a niche is made perpendicular to its base,  where the infrared photodetector is located,  allowing you to remotely control the proposed switch using the remote control;  infrared photodetector,  functionally connected to a switching semiconductor device,  for example optothyristor,  located in the internal cavity of the proposed module;  on the upper edge of the module is the contact area of the sensor sensor,  which allows you to control the proposed switch by direct touch,  for example, human hands and excluding movable mechanical parts;  the pin base of the compact electric energy-saving lamp is inserted into the socket for it in the housing of the electric cartridge,  not combined with an electronic ballast (EAPR);  at the same time, its pin phase (positive) electrical terminal and the pin zero (negative) electrical terminal are inserted and secured respectively to the phase (positive) electric pin terminal and the zero (negative) terminal electric terminal of this electric cartridge;  the end of the conductive core of the phase (positive) electric wire of the electric cable,  connecting an electron cartridge,  not combined with an electronic ballast (EAPR),  with electric plug  mechanically and electrically,  eg,  crimping,  connected to the conductive tip of the phase (positive) electrical clamp of the electric pin screwless clamp of the proposed electrons,  and its second end is connected to the phase (plus) plug of the electric plug;  the end of the conductive core of the zero (negative) electric wire of an electric cable,  connecting an electron cartridge,  not combined with an electronic ballast (EAPR),  with electric plug  mechanically and electrically,  eg,  crimping,  connected to the conductive tip of the zero (negative) electrical clamp of the electric pin screwless clamp of the proposed electrons,  and its second end is connected to the zero (minus) plug of the electric plug;  plugs of each offered electric plug,  connected to an electric cartridge,  not combined with an electronic ballast (EAPR),  in which the proposed compact electric energy-saving lamp is fixed,  inserted into the inlets of the proposed connector electrical wires;  wherein the phase (positive) plug is located in the phase (positive) electrical clamp of the proposed connector of electrical wires,  and the zero (minus) plug is located in the zero (minus) electrical clamp of the proposed connector of electrical wires;  all electrical plugs  connected to the proposed connector of electric wires,  oriented with respect to its body and each other with the help of a protrusion key on the surface of each proposed electric plug and fixing recess,  located between the inlets on the surface of the lid of the electrical connector in question;  the pin base of the proposed connector of electric wires is fixed in the socket for the pin base of a compact electric energy-saving lamp,  in the cartridge case  structurally combined with an electronic ballast (EAPR),  and fixed in it with a fixing ring,  which is screwed onto a cylindrical mounting protrusion,  the proposed connector of electrical wires;  while the pin phase (positive) electrical terminal of the proposed connector of the electric wires is inserted into the phase (positive) screwless electrical terminal of the electronic ballast module (EAPR),  structurally combined with the proposed electro cartridge,  and the pin zero (minus) electrical terminal of the proposed connector of the electric wires is inserted into the zero (minus) screwless pin electrical clamp of the electronic ballast module (EAF) module,  structurally combined with the proposed electro cartridge;  into the network phase (positive) pin screwless clamp,  the proposed electronic automatic electrical switch with touch and remote control,  conductive tip inserted  in which mechanically and electrically,  eg,  crimping,  the conductive core of the electric wire is fixed,  coming from the phase (positive) terminal of an electric energy source;  in the network zero (minus) pin screwless clamp,  the proposed electronic automatic electrical switch with touch and remote control,  conductive tip inserted  in which mechanically and electrically,  eg,  crimping,  the conductive core of the electric wire is fixed,  coming from the zero (minus) terminal of an electric energy source;  phase (positive) electric wire,  coming from a source of electrical energy,  and phase (positive) electric wire,  going to the electric cartridge  structurally combined with the proposed module electronic ballast (EAPR),  passed through the cable gland,  installed inside the cylindrical protrusion of the housing of the proposed electronic automatic electrical switch with touch and remote control;  zero (minus) electric wire,  coming from a source of electrical energy,  and phase (positive) electric wire,  coming from the proposed electronic circuit breaker with touch and remote control,  going to the consumer  passed through the cable gland,  mounted in a socket in a cylindrical protrusion of the cartridge housing,  combined with an electronic ballast (EAPR),  and their conductive wires are connected to conductive terminals,  which are fixed  respectively,  in the network zero (negative) terminal and the network phase (positive) electric pin screwless terminal of the proposed monolithic module of an electronic ballast (electronic ballast);  an infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic circuit breaker with touch and remote control is not activated,  and the electrical circuit of the proposed set of lighting electrical equipment is open;  however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of each proposed compact electric energy-saving lamp does not emit radiant energy. 2.  A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electrical energy, according to  one,  characterized in  that it uses an electrical wire connector,  providing group connection of compact electric energy-saving lamps,  the design of which provides a reliable mechanical and electrical connection of the required number of similar connectors of electrical wires to each other,  and with the help,  their free  phase (plus) pin electrical output and zero (minus) pin electrical output,  provides the connection of this assembly with an electric cartridge,  structurally combined with an electronic ballast (EAPR);  the proposed set of lighting electrical equipment contains:  the proposed assembly of connectors for electrical wires;  two or more compact electric energy-saving lamps;  electric cartridges  which are not structurally combined with an electronic ballast (EAPR);  electric plugs;  electric cartridge  structurally combined with an electronic ballast (EAPR);  electronic circuit breaker with touch and remote control;  the proposed connector electrical wires contains:  case  made of electrical insulating material,  phase (plus) conductive bus,  on which are screwless pin electrical clamps,  and zero (minus) conductive bus,  on which are screwless pin electrical clamps,  and a stub;  the housing of the proposed connector of electric wires consists of a base and a cover,  has a complex shape and is made of insulating material;  in the housing of the proposed connector of electrical wires when viewed from left to right, there are three zones:  the first zone is the zone of the socket for the base,  the second zone is the zone of screwless clamps,  the third zone is the basement zone;  the first zone is made in the form of mating cylinders,  whose diameters increase from left to right;  in the inner cavity of the first zone of the housing,  the electrical connector in question  in the smallest cylinder a nest for a socle is made,  as a continuation of this nest,  to his right  a recess has been made for the right phase (positive) pin electrical terminal and,  as a continuation of this recess,  socket for phase (plus) screwless pin clamp;  and a recess has been made for the right zero (minus) pin electrical terminal and,  as a continuation of this recess,  socket for zero (minus) screwless pin clamp;  in the inner cavity of the housing cover of the proposed connector of electrical wires,  a protrusion key is made in the middle of the side surface of the socket for the base,  for fixing the position of the second proposed connector of electrical wires in relation to the connector of electrical wires,  fixed in the housing  structurally combined with an electronic ballast (EAPR);  a thread is made on the side surface of a cylinder of a smaller diameter,  designed to be fixed in the socket for the base of the proposed connector of electrical wires,  a pin base of another similar connector for electrical wires;  the cylinder with the largest diameter serves as an abutment for a ring with an internal thread,  which is screwed onto a cylinder with a smaller diameter when secured in the socket for the base of the proposed connector of electrical wires,  a pin base of another similar connector for electrical wires;  the second zone is a zone of screwless clamps for connecting electrons,  in which the proposed compact electric energy-saving lamps are fixed,  made in the form of a straight parallelepiped;  in the second zone  there is a phase (positive) conductive bus with a screwless pin clamp for connecting the phase (positive) pin electrical output of another similar connector of electric wires and screwless pin clamps for connecting the phase (positive) electric plugs of electric plugs,  each of which is connected to an electric cartridge,  in which a compact electric energy-saving lamp is fixed;  in the second zone there is also a zero (minus) conductive bus with a screwless pin clamp for connecting a zero (minus) pin electrical terminal for connecting zero (minus) electric plugs of electric plugs,  each of which is connected to an electric cartridge,  in which a compact electric energy-saving lamp is fixed;  third zone — the basement location zone is made in the form of three mating cylinders of different sizes;  the diameters of these cylinders decrease from right to left;  the smallest cylinder is a base ledge;  a thread is made on the side surface of a medium-diameter cylinder,  designed to fix the proposed connector of electric wires in the socket for the pin base of a compact electric energy-saving lamp,  or in a socket for a pin base of a similar connector for electrical wires;  the cylinder with the largest diameter serves as an abutment for the fixing ring with internal thread,  which is screwed onto a cylinder with an average diameter when fixing the proposed connector of electric wires in the socket for the pin base of a compact electric energy-saving lamp,  or in a socket for a pin base of a similar connector for electrical wires;  in the inner cavity of the base of the housing,  the electrical connector in question  parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus with sockets for screwless pin electrical clamps and a slot for a zero (minus) conductive bus with slots (for screwless pin electric clamps;  on a long wide brink  base of the case,  opposite to that  on which the base and cover are connected,  the proposed connector of electrical wires,  located inlets for plugs of electric plugs,  each of which is connected to an electric cartridge,  in which a compact electric energy-saving lamp is fixed;  each such inlet being in communication with a socket for a corresponding screwless pin electrical clamp;  in the inner cavity of the base of the housing,  the electrical connector in question, mounting recesses and ventilation recesses are made,  which alternate with each other;  along the outer perimeter of the narrow side walls of the base of the housing,  the electrical connector in question  made a rectangular mounting recess;  in the inner cavity of the housing cover,  the electrical connector in question  parallel to its horizontal axis and to each other, there is a slot for a phase (plus) conductive bus and a slot for a zero (minus) conductive bus;  in the inner cavity of the housing cover,  the electrical connector in question  made fixing ledges and ventilation grooves,  which alternate with each other;  along the outer perimeter of the narrow side walls of the housing cover,  the electrical connector in question  made a rectangular mounting ledge;  on the housing cover  the electrical connector in question  in the center of the lateral edge of the basement protrusion plane  parallel to the central horizontal axis of the proposed connector electrical wires,  cut out  fixing the position of the proposed connector of electrical wires in the inner cavity of the electroparticle  structurally combined with an electronic ballast (EAPR),  or other similar electrical wire connector;  phase (plus) conductive bus and zero (minus) conductive bus made in the form of a plate of complex shape from conductive material;  each conductive bus has a long section,  whose center lies on a straight line,  parallel to the horizontal axis of the electrical wire connector in question,  and conductive plates,  located in the plane  parallel to its horizontal axis,  and perpendicular to the narrow long edge of the conductive bus;  the right end and the left end of the phase (positive) conductive bus is a pin electrical terminal;  the right end and the left end of the zero (minus) conductive bus is a pin electrical terminal;  on the left pin electrical output of the phase (positive) conductive bus and the left pin electrical output of the zero (negative) conductive bus mechanically and electrically,  eg,  cold welding method  fixed rectilinear mounting section of a wave-shaped contact spring,  forming in this case, respectively, a phase (plus) screwless pin electrical clamp and zero (minus) screwless pin electrical clamp;  on each conductive plate,  located in the plane  parallel to the horizontal axis of the electrical wire connector in question,  and perpendicular to the narrow long face of the phase (plus) conductive bus and zero (minus) conductive bus,  mechanically and electrically,  eg,  cold welding method  fixed rectilinear mounting section of a wave-shaped contact spring,  forming in this case, respectively, a phase (plus) screwless pin electrical clamp and zero (minus) screwless pin electrical clamp;  Location on,  eg,  right end  phase (plus) pin electrical output and zero (minus) pin electrical output,  on its wide brink  facing from the horizontal axis of the proposed connector electrical wires,  perpendicular to a narrow face  made nests for supporting turns of a wave-like contact spring;  the profile of each of these nests repeats the surface profile of the contact spring section near the support coil,  facing the working side of the pin electrical output;  the upper edges of these nests are rounded;  on the central horizontal axis of the phase (positive) pin electrical output and zero (negative) pin electrical output,  in the center of each slot for a support coil of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring;  the junctions of each socket for the spherical protrusion of the wave-like contact spring and the socket for the support coil of the wave-shaped contact spring are rounded;  horizontal line,  passing through the center of the cross section of the pin electrical outlet,  each end of the phase (positive) conductive bus and the pin electrical output of each end of the zero (negative) conductive bus,  parallel to its long edge and the central horizontal axis of the proposed connector of electrical wires;  moreover, this horizontal line and the central horizontal axis of the proposed connector of electric wires are located in one horizontal plane;  the distance between the centers of the normal sections of the segments of the pin electrical terminals,  extending beyond the scope of the proposed connector electrical wires,  equal to the distance between the centers of the plugs of a standard electric plug;  stub  designed to close the free base socket of the proposed connector of electrical wires,  made in the form of three mating cylinders of different sizes;  the diameters of these cylinders decrease from left to right;  the smallest cylinder is a base ledge;  a thread is made on the side surface of a medium-diameter cylinder,  designed to secure the plugs in the housing of the proposed connector of electrical wires,  in the socket for the pin base;  the cylinder with the largest diameter serves as an abutment for the fixing ring with internal thread,  which is screwed onto a cylinder with an average diameter when fixing the plug in the socket for the pin base;  in the inner cavity of the stub,  a stiffness protrusion is made on the end wall of the thrust ledge,  and in its center is a hole for the halyard;  in the center of the lateral edge of the cap base protrusion plane  parallel to its central horizontal axis,  a cutout is made,  fixing the position of the plugs in the inner cavity of the base socket of the electron cartridge,  structurally combined with an electronic ballast (EAPR) or the proposed connector of electrical wires;  phase (positive) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket for it in the internal cavity of the base of the proposed connector of electrical wires;  zero (minus) conductive bus with screwless pin electrical clamps located on it is inserted into the corresponding socket in the internal cavity of the base of the proposed connector of electric wires;  wherein the free end of the wave-shaped contact spring of each pin electrical clamp,  located on the conductive plate,  perpendicular to the conductive busbar,  facing the inlet on the base body of the proposed connector of electrical wires;  followed by a housing cover,  the electrical connector in question  tightly pressed to its base;  wherein the fixing tabs of the lid are inserted into the corresponding mounting recesses of the base;  each ventilation recess of the cover and the opposing ventilation recess of the base form a single ventilation cavity;  a rectangular protrusion around the perimeter of the lid is located in a rectangular recess around the perimeter of the base;  a pin phase (positive) electrical terminal of the proposed connector of the electric wires is inserted into the phase (positive) screwless electric clamp of the electros cartridge,  which is structurally combined with an electronic ballast (EAPR);  a pin zero (minus) electrical terminal of the proposed connector of the electric wires is inserted into the zero (minus) screwless pin electric clamp of the electrons;  which is structurally combined with an electronic ballast (EAPR);  the base of the proposed connector of electric wires is fixed in the socket for the pin base of a compact electric energy-saving lamp,  in the cartridge case  structurally combined with an electronic ballast (EAPR),  and fixed in it with a fixing ring,  which is screwed onto a cylindrical mounting protrusion,  the proposed connector of electrical wires;  the base of the second proposed connector of electrical wires,  similar to the first connector of electric wires,  already connected to the electric cartridge,  structurally combined with an electronic ballast (EAPR),  fixed in the socket for the pin base of the first proposed connector of electrical wires and fixed in it with a mounting ring,  which is screwed onto a cylindrical mounting protrusion,  the proposed connector of electrical wires;  in the same way, the required number of analogous to the proposed connectors of electric wires is connected sequentially to the proposed connector of electric wires, depending on the power of the electronic ballasting device (EAF),  housed in the body of an electron cartridge,  combined with it;  in the basement socket of the leftmost proposed connector of electric wires, the proposed plug is fixed;  into each pair of inlets,  which communicate with the phase (plus) pin screwless screw terminal and the zero (minus) pin screwless screw terminal,  the phase (plus) plug and the zero (minus) plug of the electric plug are respectively inserted,  connected to an electric cartridge,  in which a compact electric energy-saving lamp is fixed;  while the housing of the electric plug is oriented in relation to the housing of the proposed connector of electrical wires with a locking protrusion on the end surface of the electrical plug and a locking recess on the base housing of the proposed connector of electrical wires;  similarly connected to the proposed connector of electric wires that number of compact electric energy-saving lamps,  for which it is designed;  into the network phase (positive) pin screwless clamp,  the proposed electronic automatic electrical switch with touch and remote control,  conductive tip inserted  in which mechanically and electrically,  eg,  a conductive core of an electric wire is fixed by crimping,  coming from the phase (positive) terminal of an electric energy source;  in the network zero (minus) pin screwless clamp,  the proposed electronic automatic electrical switch with touch and remote control,  conductive tip inserted  in which mechanically and electrically,  eg,  a conductive core of an electric wire is fixed by crimping,  coming from the zero (minus) terminal of an electric energy source;  a conductive tip is inserted into the phase (positive) screwless screw terminal of the consumer, in which mechanically and electrically,  eg,  a conductive core of an electric wire is fixed by crimping,  going to the electric cartridge,  combined with electronic ballasts;  a conductive tip is inserted into the network (negative) screwless screw terminal of the consumer in which mechanically and electrically,  eg,  crimping,  the conductive core of the electric wire is fixed,  going to the electric cartridge,  combined with electronic ballasts;  in a network screwless pin phase (positive) electrical clamp of the proposed module electronic ballast (EAF),  located in the body of the electron cartridge,  conductive tip inserted  in which mechanically and electrically,  eg,  a conductive core of an electric wire is fixed by crimping,  coming from a phase (plus) pin screwless terminal of an electronic automatic electrical switch with touch and remote control;  in a network screwless pin zero (minus) electrical clamp of the proposed module electronic ballast (EAF),  located in the body of the electron cartridge,  a conductive tip is inserted in which mechanically and electrically,  eg,  a conductive core of an electric wire is fixed by crimping,  coming from the zero (minus) pin screwless clamp of an electronic automatic electrical switch with touch and remote control;  thus the electrical circuit of the lighting kit,  which provides a rational connection of a source of radiant energy (infrared radiation,  visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electric energy,  assembled;  an infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic circuit breaker with touch and remote control is not activated,  and the electrical circuit of the proposed set of lighting electrical equipment is open;  while on the electrodes of the radiant energy source of each compact electric energy-saving lamp,  connected to the proposed connector of electric wires,  no power is supplied and the radiant energy sources of these compact electric energy-saving lamps do not emit radiant energy. 3. A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electric energy, according to claim 1, characterized in that it uses a connector for electric wires and an electronic ballast (EAPR) having a ring-shaped shape and arranged concentrically; the proposed set of lighting electrical equipment contains: a connector for electrical wires and an electronic ballast (EAPR), having an annular shape and arranged concentrically; two or more compact electric energy-saving lamps; electric cartridges that are not structurally combined with an electronic ballast (EAPR); electronic circuit breaker with touch and remote control; the proposed connector of electric wires contains: a housing made of an insulating material, a phase (plus) conductive bus and a zero (minus) conductive bus with screwless pin electrical clamps disposed thereon; the housing of the proposed connector of electric wires is made in the form of a ring and consists of a base and a cover; in the inner cavity of the base body, of the electrical wire connector under consideration, coaxially with its side surfaces there is a slot for a phase (plus) conductive bus with sockets for phase (plus) screwless pin electrical clamps and a slot for a zero (minus) conductive bus with sockets for zero (minus ) screwless pin electrical clamps; moreover, the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus together, in plan view, are the sides of a polygon, for example, a quadrangle whose corners are rounded; these nests are separated from each other by insulating mounting recesses; in the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a socket for the phase (positive) screwless pin electrical clamp; in the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a slot for zero (minus) screwless pin electrical clamp; a slot for a phase (positive) conductive bus with sockets for phase (plus) screwless pin electrical terminals and a slot for a zero (negative) conductive bus with sockets for zero (negative) screwless pin electrical terminals are not communicated; in the inner cavity of the base case, on both sides of the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus, and between the slots for screwless pin electrical clamps made mounting recesses; a rectangular mounting recess is made along the perimeter of the outer edge of the side faces of the base case; along the perimeter of the outer edge of the inner side face of the base case, a support annular protrusion is made for the electronic start-up of the regulatory apparatus (ECG); on the supporting ring ledge made a slot for the electronic ball holder; in the inner cavity of the housing of the cover of the electrical wire connector in question, coaxially to its side surfaces, there is a slot for a phase (positive) conductive bus with sockets for phase (plus) screwless pin electrical clamps and a slot for a zero (negative) conductive bus with sockets for zero (minus ) screwless pin electrical clamps; moreover, the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus together, in plan view, are the sides of a polygon, for example, a quadrangle whose corners are rounded; these nests are separated from each other by insulating mounting tabs; in the middle of each linear section of the socket for the phase (positive) conductive bus facing the outer side face of the housing of the proposed connector of the electric wires, there is a socket for the phase (positive) screwless pin electrical clamp; in the middle of each linear section of the socket for the zero (minus) conductive bus facing the outer side face of the housing of the proposed connector of electric wires, there is a slot for zero (minus) screwless pin electrical clamp; a slot for a phase (plus) conductive bus with sockets for phase (plus) screwless pin electrical terminals and a slot for a zero (minus) conductive bus with slots for zero (negative) screwless pin electrical terminals are not communicated; on the upper end face, the cover body, perpendicular to it, inlet openings are located; moreover, each such inlet communicates with the socket, respectively, for a phase (plus) screwless pin electrical clamp or for a zero (negative) screwless pin electrical clamp located on the corresponding conductive bus; in the inner cavity of the base body, on both sides of the slot for the phase (positive) conductive bus and the slot for the zero (negative) conductive bus and between the slots for screwless pin electrical clamps, mounting tabs are made; a rectangular mounting protrusion is made along the perimeter of the outer edge of the side faces of the lid body; a phase (positive) conductive bus with phase (positive) screwless pin electrical clamps located on it is inserted into the corresponding socket in the internal cavity of the base of the proposed connector for electrical wires; while its left extreme phase (positive) screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the left side of its base; a zero (minus) conductive bus with zero (minus) screwless pin electrical clamps located on it is inserted into the corresponding socket for it in the inner cavity of the base of the proposed connector of electric wires; while its rightmost zero (minus) screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the right side of its base; after which the cover of the connector of the electrical wires under consideration is pressed tightly to its base; the free end of the wave-shaped contact spring of each pin electrical clamp located on the phase (plus) conductive bus and zero (negative) conductive bus, facing the inlet on the cover body of the proposed connector of electrical wires; wherein the fixing tabs of the lid are inserted into the corresponding mounting recesses of the base; a rectangular protrusion around the perimeter of the lid is located in a rectangular recess along the perimeter of the base, and the lid is pressed tightly to the base; electronic ballast (EAF) is made in the form of a monolithic module having the shape of a ring; on the outer side surface of the electronic ballast housing there is a guide protrusion, fixing its position in the inner ring of the proposed connector of electrical wires; wherein the guide protrusion on the side surface of the electronic ballast housing is located in a slot for it on the support ring of the base housing; on the upper edge of the electronic ballast housing, on mutually perpendicular lines, there are inlets for the network phase (positive) screwless pin electrical clamp and the zero (minus) screwless pin electrical clamp, as well as for the phase (positive) screwless pin electrical clamp of the zero (minus) screwless pin consumer electrical clamp located inside the electronic ballast housing; moreover, the free end of the wave-shaped contact spring of each pin of the electrical clamp facing the inlet on the cover body of the proposed ballast; a guide protrusion on the side surface of the electronic ballast housing is located in a socket for it on the support ring of the base housing of the proposed connector of electrical wires; wherein the inlet holes of the phase (plus) screwless pin electrical clamp of the consumer and the network phase (plus) screwless pin electrical clamp are located mirror symmetrically and in line with the inlet of the zero (minus) screwless pin electrical clamp of the consumer, which are mirror symmetrical with the inlets network zero (minus) screwless pin electrical clamp; at the end of each electric wire connecting an electron cartridge, in which a compact electric energy-saving lamp is fixed, and which is not structurally combined with an electronic ballast (EAF), and the proposed connector of electric wires, the proposed electronic ballast, an electronic automatic electrical switch with touch and remote control and a source of electrical energy, fixed, for example, by cold welding a conductive tip; in the inner cavity of one of the structural elements of the chandelier, for example, in the inner cavity of the cap covering the hook to which the chandelier and its matching electrical wires are attached, the proposed connector of electrical wires and an electronic ballast (EAF) are placed; wherein the electronic ballast is located inside the annular housing of the proposed connector of electrical wires, and its guide protrusion on the side surface of the housing is located in a socket for it on the support ring of the base housing of the proposed connector of electrical wires, this assembly is strung on a tube with which the chandelier is mounted on the site of operation ; the leftmost phase (positive) pin electrical clamp of the proposed connector of the electric wires and the phase (positive) pin electrical clamp for the electric wire coming from the electronic ballast to the proposed EPP are located symmetrically symmetrically; each conductive tip mounted on a conductive core of a phase (positive) electric wire coming from an electron cartridge, in which a compact electric energy-saving lamp is fixed, is inserted into a pin electrical clamp located on a phase (positive) conductive bus; each conductive tip mounted on a conductive core of a zero (negative) electric wire coming from an electron cartridge, in which a compact electric energy-saving lamp is fixed, is inserted into a pin electrical clamp located on a zero (negative) conductive bus; a piece of electrical wire, at the ends of which a conductive tip is fixed, the phase (plus) pin electric clamp of the proposed connector of electric wires and the phase (plus) pin electric clip of electronic ballasts are interconnected; a piece of electrical wire, at the ends of which a conductive tip is fixed, the zero (minus) pin electrical clamp of the proposed connector of electrical wires and the zero (minus) pin electrical clamp of the electronic ballasts are interconnected; a conductive tip is inserted into the network phase (positive) screwless screw terminal of the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire coming from the phase (plus) terminal of the electric energy source is mechanically and electrically, for example, fixed by crimping; a conductive tip is inserted into the network zero (negative) screwless screw terminal of the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire coming from the zero (negative) terminal of the electric power source is mechanically and electrically, for example, crimped ; a conductive tip is inserted into the phase (positive) screwless screw terminal of the consumer, the proposed electronic automatic electric switch with touch and remote control, in which the conductive core of the electric wire is mechanically and electrically, for example, crimped, on the second end, on the conductive core of this electric wires also fixed conductive tip, which is inserted into the network phase (positive) pin screwless terminal of the proposed electronic skoreguliruyuschego apparatus (EAPR) located in the inner ring of the proposed electrical connector wires; in the zero (minus) screwless screw terminal of the consumer, the proposed electronic automatic electrical switch with touch and remote control, a conductive tip is inserted in which the conductive core of the electrical wire is mechanically and electrically, for example, crimped, on the second end, on the conductive core of this electrical wire a conductive tip is also fixed, which is inserted into the network zero (negative) pin screwless terminal of the proposed electronically of ballast (EAPR) located in the inner ring of the proposed electrical connector wires; thus, the electric circuit of the lighting electric equipment kit, which provides a rational connection of the radiant energy source (infrared radiation, visible radiation and ultraviolet radiation) of the compact electric energy-saving lamp to the electric energy source, is assembled; the infrared photodetector of the switching semiconductor device or the sensor sensor of the proposed electronic automatic electrical switch with touch and remote control is not activated, and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of each proposed compact electric energy-saving lamp does not emit radiant energy. four.  A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electrical energy, according to  3, characterized in that it uses the proposed assembly - [SES-EPRA] - electrical wire connector (SES) - an electronic ballast (EAPR) having an annular shape, on which on the surface opposite to that on which the inlets are located, protruding pin electrical leads, and an electronic ballast, having an annular shape, on which on the surface opposite to the one on which the input holes are located, the pin electrical leads; the proposed set of lighting electrical equipment contains: a connector for electrical wires and an electronic ballast (EAPR), having an annular shape and arranged concentrically; two or more compact electric energy-saving lamps; electric cartridges that are not structurally combined with an electronic ballast (EAPR); electronic circuit breaker with touch and remote control; an electrical wire connector having a ring-shaped shape, on which a pin electrical terminals protrude on a surface opposite to that on which the inlet openings, and an electronic ballast, having a ring-shaped shape, on which a pin protruding on a surface opposite to that on which the input holes are located electrical leads; protruding pin electrical leads from the housing of the proposed connector of electric wires and electronic ballasts, allow you to connect electrically to each other the required number of assemblies [SEP-EPRA], similar to the proposed; the proposed set of lighting electrical equipment contains: compact electric energy-saving lamps, each of which is fixed in an electron cartridge, at least one assembly - [SEP-EPRA] - an electric wire connector and an electronic ballast, having a ring-shaped shape and arranged concentrically in accordance with  3  and,  at least one  proposed assembly - [BOT-EPRA],  electrically interconnected,  electronic circuit breaker with touch and remote control;  The proposed electrical connector for electrical wires contains:  case  consisting of a base and a cover,  made of electrical insulating material,  phase (plus) conductive bus and zero (minus) conductive bus with screwless pin electrical clamps located on them;  below the extreme portion of the phase (positive) conductive bus of the phase (positive) screwless pin electrical clamp,  e.g. left  as its continuation is a phase (positive) pin electrical outlet;  below the extreme section of the zero (minus) conductive bus of the zero (minus) screwless pin electrical clamp,  for example right  how its continuation is located zero (minus) pin electrical output;  the housing of the proposed connector of electric wires is made in the form of a ring and consists of a base and a cover;  in the inner cavity of the base body,  the electrical connector in question  coaxially to its lateral surfaces, there is a socket for a phase (positive) conductive bus with sockets for phase (plus) screwless pin electrical terminals and a socket for phase (positive) pin electrical output,  as well as a slot for a zero (minus) conductive bus with sockets for zero (minus) screwless pin electrical terminals and a socket for a zero (minus) pin electrical terminal;  moreover,  the slot for the phase (positive) conductive bus together with the slot for the zero (negative) conductive bus in the plan are the sides of the polygon,  for example a quadrangle,  whose corners are rounded;  in the middle of each linear section of the slot for the phase (positive) conductive bus,  facing the outer side face of the housing base of the proposed connector of electrical wires,  a socket for a phase (plus) screwless pin electrical clamp is located;  in the continuation of the extreme socket for the phase (positive) screwless pin electrical clamp,  e.g. left  a socket for a phase (plus) screwless pin electrical outlet is located;  in the middle of each linear section of the slot for a zero (minus) conductive bus,  facing the outer side face of the housing base of the proposed connector of electrical wires,  a socket for zero (minus) screwless pin electrical clamp is located;  in the continuation of the extreme socket of the zero (minus) screwless pin electrical clamp,  for example right  a socket for zero (minus) pin electrical output is located;  slot for phase (positive) conductive bus,  with its associated sockets for phase (positive) screwless pin electrical terminals and a socket for phase (positive) pin electrical output,  and a slot for a zero (minus) conductive bus,  with its associated sockets for zero (minus) screwless pin electrical terminals and a socket for zero (plus) pin electrical terminal,  between each other at both ends are separated by insulating mounting recesses;  in the inner cavity of the base body,  between the sockets for each phase (positive) screwless pin electrical clamp and the sockets for each zero (minus) screwless pin electrical clamp,  mounting recesses made;  on the surface of the lower edge of the base of the housing of the proposed connector of electrical wires,  at diametrically opposite ends of the diameter,  parallel to its horizontal axis,  from one end  e.g. left  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for the phase (positive) pin electrical output,  but from the other end  for example right  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for the zero (minus) pin output;  a rectangular mounting recess is made along the perimeter of the upper edges of the side faces of the base case;  along the perimeter of the lower edge of the inner side face of the base body of the proposed connector of electrical wires made reference ring protrusion for the electronic ballast;  a slit is made on the supporting annular protrusion for fixing the electronic ballast,  in the inner cavity of the proposed connector of electrical wires;  in the inner cavity of the lid body,  the electrical connector in question  coaxially to its lateral surfaces, there is a slot for a phase (plus) conductive bus with sockets for screwless pin electrical terminals,  as well as a slot for a zero (minus) conductive bus with sockets for screwless pin electrical terminals;  moreover,  the slot for the phase (positive) conductive bus together with the slot for the zero (negative) conductive bus in the plan are the sides of the polygon,  for example a quadrangle,  whose corners are rounded;  in the middle of each linear section of the slot for the phase (positive) conductive bus,  facing the outer side face of the housing cover of the proposed connector of electrical wires,  a socket for a phase (plus) screwless pin electrical clamp is located;  in the middle of each linear section of the slot for a zero (minus) conductive bus,  facing the outer side face of the housing cover of the proposed connector of electrical wires,  a socket for zero (minus) screwless pin electrical clamp is located;  a slot for a phase (positive) conductive bus and a slot for a zero (negative) conductive bus between each other are separated by insulating mounting tabs;  in the inner cavity of the housing of the cover of the proposed connector of electrical wires,  between the sockets for each phase (positive) screwless pin electrical clamp and the sockets for each zero (minus) screwless pin electrical clamp,  mounting tabs are made;  on the surface of the upper outer edge of the housing of the cover of the proposed connector of electrical wires,  as an extension of each socket for a phase (positive) screwless pin electrical clamp and socket for a zero (negative) screwless pin electrical clamp, an inlet for a conductive tip is made,  which is mechanically and electrically connected to the conductive core of the corresponding electric wire or coming from the electric cartridge,  in which a compact electric energy-saving lamp is fixed;  in place of the inlet  on the surface of the upper outer edge of the lid body,  which is interfaced with a socket for a phase (plus) pin screwless clamp,  during which on the basis of the proposed connector of the electric wires there is a socket for a phase (positive) pin terminal,  in addition to the inlet, a nest was made for the insulating protrusion of the phase (plus) pin electrical terminal of the electronic ballast;  in place of the inlet  on the top surface of the lid body,  which is interfaced with a slot for zero (minus) screwless clamp,  during which on the basis of the proposed connector of the electric wires there is a socket for the zero (minus) pin output,  in addition to the inlet, a nest was made for the insulating protrusion of the zero (minus) pin electrical terminal of the electronic ballast;  a phase (plus) conductive bus with screwless pin electrical terminals located on it and a phase (plus) pin electrical terminal fixed to it is inserted into the corresponding socket in the base cavity of the proposed connector for electric wires;  while its left extreme screwless pin electrical clamp is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the left side of its base;  a zero (minus) conductive bus with screwless pin electrical terminals located on it and a zero (negative) pin electrical terminal fixed to it is inserted into the corresponding socket in the base cavity of the proposed connector for electric wires;  while its rightmost screwless pin electrical clamp with a zero (minus) pin electrical pin fixed to it is located on the horizontal axis of symmetry of the proposed connector of electrical wires on the right side of its base;  the free end of the wave-shaped contact spring of each pin electrical clamp,  located on the phase (plus) conductive bus and zero (minus) conductive bus,  facing the corresponding inlet on the cover body of the proposed connector of electrical wires;  the mounting protrusions of the cover of the proposed connector of electrical wires are inserted into the corresponding mounting recesses of the base of the proposed connector of electrical wires;  a rectangular protrusion around the perimeter of the cover of the proposed connector of electrical wires is located in a rectangular recess along the perimeter of the base of the proposed connector of electrical wires;  after which the cover of the proposed connector of electric wires is pressed tightly to its base;  the ring-shaped housing of the proposed electronic ballast apparatus (EAPR) is made in the form of a monolithic round cylinder with a central circular cylindrical hole,  through which  passes the fixing tube of the chandelier;  moreover, the length of the generatrix of the body of the electronic ballast is much less than its radius;  starting from the second assembly [SES-EPRA], the radius of the central circular cylindrical hole of the electronic ballast for each subsequent assembly,  connected in parallel to the previous one and located above it,  increases by an amount greater than the diameter of the electric wire,  going from the proposed connector of electric wires to a compact electric energy-saving lamp;  on the side surface of the housing of the proposed electronic ballast is a guide protrusion,  fixing its position in the inner cavity of a thick-walled cylinder of the housing of the proposed connector of electrical wires;  a guide protrusion on the side surface of the housing of the electronic ballast is located in the slot for it on the support ring of the base housing;  on the upper base of the annular monolithic body of the proposed electronic ballast,  on the horizontal axis  passing through its center,  at one end,  for example on the left,  an inlet for a phase (positive) screwless pin electrical clamp is located,  in which a conductive core of an electric wire is fixed,  going to the phase (positive) screwless pin electrical clamp of the proposed connector of electrical wires,  and at the diametrically opposite end,  for example on the right,  located inlet for zero (minus) screwless pin electrical clamp,  in which a conductive core of an electric wire is fixed,  going to the zero (minus) screwless pin electrical clamp of the proposed connector of electrical wires;  on the upper base of the annular monolithic housing of the electronic ballast,  on the axis  passing through its center perpendicular to the horizontal axis,  at one end,  for example on the top,  an inlet is located for the network phase (positive) screwless pin electrical clamp of the conductive core of the electrical wire,  coming from an electronic circuit breaker with touch and remote control,  and at the diametrically opposite end,  for example on the bottom,  an inlet is located for the network zero (minus) screwless pin electrical clamp of the conductive core of the electrical wire,  coming from an energy source;  the free end of the wave-shaped contact spring of each pin of the electrical clamp faces the inlet on the housing of the proposed ring-shaped electronic ballast;  on the lower outer surface of the housing of the proposed annular electronic ballast,  at diametrically opposite ends of the diameter,  parallel to its horizontal axis,  at one end,  like left  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for the phase (positive) pin electrical output,  to which a conductive core of the output phase (plus) electrical wire of the proposed electronic ballast apparatus is connected,  and at the diametrically opposite end,  for example on the right,  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for zero (minus) pin electrical output,  to which a conductive core of the output zero (minus) electric wire of the electronic ballast is connected;  on the lower outer surface of the housing of the proposed annular electronic ballast,  at diametrically opposite ends of the diameter,  perpendicular to its horizontal axis,  at one end,  for example on the top,  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for the network phase (positive) pin electrical output,  to which a conductive core of the output phase (plus) electrical wire of the proposed electronic ballast apparatus is connected,  and at the diametrically opposite end,  for example on the bottom,  the support ledge is located  in the center of which is an insulating protrusion,  with a hole  which is part of the socket for zero (minus) pin electrical output,  to which a conductive core of the output zero (minus) electrical wire of the proposed electronic ballast apparatus is connected;  the housing of the proposed ring-shaped electronic ballast is inserted into the inner cavity of the thick-walled cylinder of the housing of the proposed ring-shaped connector of electrical wires and fixed in it with a guide protrusion,  located on the side surface of the body of the electronic ballast;  each conductor of electrical wires,  coming from electric cartridges,  in each of which a compact electric energy-saving lamp is fixed,  electrically and mechanically connected  eg,  crimping with a conductive tip;  phase (positive) pin electrical output,  located on the lower surface of the base of the proposed connector of electrical wires,  inserted into the phase (positive) pin electrical clamp,  located,  eg,  left,  on the upper surface of the previous connector of the electrical wires;  zero (minus) screwless pin electrical output,  located on the lower surface of the base of the proposed connector of electrical wires,  inserted into the zero (minus) screwless pin electrical clamp,  located,  eg,  on right,  on the upper surface of the previous connector of the electrical wires;  each conductive tip  to which a conductive core of an electric wire is connected,  coming from the pinless screwless clamp  in which the phase (positive) pin electrical terminal of the compact electric energy-saving lamp is fixed,  inserted into the phase (positive) pin electrical clamp on the top surface of the lid of the electrical connector in question;  each conductive tip  to which a conductive core of an electric wire is connected,  coming from the pinless screwless clamp  in which the zero (minus) pin electrical terminal of the compact electric energy-saving lamp is fixed,  inserted into the zero (minus) pin electrical clamp on the top surface of the lid of the electrical connector in question;  phase (positive) pin electrical output,  located on the lower surface of the base of the proposed connector of electrical wires,  inserted into the phase (positive) pin electrical clamp,  located,  eg,  left,  on the upper surface of the previous connector of the electrical wires;  zero (minus) screwless pin electrical output,  located on the lower surface of the base of the proposed connector of electrical wires,  inserted into the zero (minus) screwless pin electrical clamp,  located,  eg,  on right,  on the upper surface of the previous connector of the electrical wires;  phase (positive) pin electrical output,  located on the bottom surface of the monolithic housing of the proposed electronic ballast (electronic ballast),  inserted into the phase (positive) pin electrical clamp,  located,  eg,  left,  on the upper surface of the monolithic casing of the previous electronic ballast;  zero (minus) screwless pin electrical output,  located on the bottom surface of the monolithic housing of the proposed electronic ballast,  inserted into the zero (minus) screwless pin electrical clamp,  located,  eg,  on right,  on the upper surface of the monolithic casing of the previous electronic ballast;  the leftmost phase (positive) pin electric clamp of the consumer on the upper surface of the cover of the proposed connector of electric wires and the phase (positive) pin electric clamp on the upper face of the proposed electronic ballast,  located on the horizontal axis,  passing through the center of the cover of the proposed connector of electric wires and the proposed electronic ballast,  located mirror symmetrically and interconnected by an electric wire,  at the ends of the conductive core of which are fixed,  eg,  crimping conductive tips;  the extreme right zero (minus) pin electrical clamp of the consumer on the upper surface of the cover of the proposed connector of electric wires and zero (negative) pin electrical clamp on the upper surface of the monolithic body of the proposed electronic ballast,  located on the horizontal axis,  passing through the center of the cover of the proposed connector of electric wires and electronic ballast,  located mirror symmetrically and interconnected by an electric wire,  at the ends of a conductive core,  which are fixed  for example by crimping,  conductive tips;  into the inlet for the network phase (positive) screwless pin electrical clamp,  on the upper surface of the annular monolithic housing of the proposed electronic ballast,  conductive tip inserted  electrically and mechanically connected to a conductive electrical wire conductor,  coming from an electronic automatic electrical switch with touch and remote control;  into the inlet for the network zero (minus) screwless pin electrical clamp,  a conductive tip is inserted on the upper surface of the annular monolithic body of the electronic ballast,  electrically and mechanically connected to a conductive electrical wire conductor,  coming from a source of electrical energy;  thus the electrical circuit of the lighting kit,  which provides a rational connection of a source of radiant energy (infrared radiation,  visible radiation and ultraviolet radiation) of a compact electric energy-saving lamp to a source of electric energy,  assembled;  an infrared photodetector of a switching semiconductor device or a sensor of the proposed electronic circuit breaker with touch and remote control is not activated,  and the electrical circuit of the proposed set of lighting electrical equipment is open;  however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy. 5. A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to an electric energy source, or according to claim 1, or 2, 3, or 4, characterized in that it uses compact electric energy-saving lamps, with a pin base and a thread on its outer surface, located outside the electric cartridge, similar to a thread on the outer surface of the housing the used cartridge, in the area of the socket for the base of a compact electric energy-saving lamp; each proposed compact electric energy-saving lamp consists of: a source of radiant energy, a shell and a pin base; the shell of a compact electric energy-saving lamp has a translucent zone or the whole is made of translucent material and at one end, for example on the right, ends with a pin base; the pin base of the proposed compact electric energy-saving lamp consists of a base protrusion, a mounting protrusion, a pin phase electrical output and a pin zero (negative) electrical output; the housing of the pin cap is made in the form of mating cylinders: a base protrusion and a mounting protrusion, of different diameters; a mounting protrusion with one base is hermetically connected to the shell of a compact electric energy-saving lamp, and a second has a thread made similar to a thread on the outer surface of the housing of the used cartridge in the area of the socket for a pin base of a compact electric energy-saving lamp; perpendicular to the plane of the free base of the basement protrusion cylinder, a pin phase (positive) electrical terminal and a pin zero (negative) electrical terminal protrude from the pin base; a fixing cutout is made on the side surface of the cylinder of the base ledge, which allows the compact electric energy-saving lamp to be fixed in the socket for the pin base of the compact electric energy-saving lamp, in the inner cavity of the used electron cartridge, in a strictly defined position; pin electrical leads are hermetically soldered into the base ledge; each electrical terminal of the radiant energy source of the compact electric energy-saving lamp is mechanically and electrically connected to a corresponding pin electrical terminal; each pin electrical terminal, for example a phase terminal (positive) terminal, is a rectangular plate made of conductive material; perpendicular to the wide face of each pin electrical terminal, for example a phase (positive) terminal electric terminal, on its both sides, in the area which is located in the base of the base projection, rectangular locking cutouts are made that prevent its horizontal movement; perpendicular to the narrow face of each pin electrical terminal, for example a phase (positive) terminal of the electrical terminal extending beyond the housing of the compact electric energy-saving lamp and beyond its base protrusion, on its wide face facing away from the horizontal axis of the compact electric energy-saving lamp, nests for supporting protrusions of a wave-shaped contact spring; the profile of each of these jacks repeats the surface profile of the contact spring portion facing the working face of the pin electrical terminal, for example the phase (positive) terminal electrical terminal, at the junction of the support turn and the free end of the first power turn, and at the junction of the support turn with the first power coil and second power coil; the upper edges of these nests are rounded; on the central horizontal axis, for example, a phase (positive) pin electrical terminal, in the center of each socket for a support protrusion of a wave-like contact spring, nests are made for a spherical protrusion of a wave-like contact spring; the interface of the socket for the spherical protrusion of the wave-like contact spring and the socket for the support protrusion of the wave-shaped contact spring are rounded; the pin base protrusion of the compact electric energy-saving lamp is inserted into the socket for it in the electrons cartridge housing, while the flat surface of the fixing cut-out on the side surface of the socle ledge is located on the fixing protrusion on the right half of the electro-cartridge case; a phase (plus) pin electrical terminal of a compact electric energy-saving lamp is inserted into a pin phase (plus) screwless terminal in the housing of the used electrocart; the zero (minus) pin electrical terminal of the compact electric energy-saving lamp is inserted into the pin zero (minus) screwless clamp in the housing of the used electrons; pin electrical clamps of the proposed compact electric energy-saving lamp, provide a reliable mechanical and electrical connection of the proposed compact electric energy-saving lamp and the used electrons; a fastening ring, with an internal thread, made of an insulating material, is screwed onto the fastening protrusion of the proposed compact electric energy-saving lamp, while part of the fastening ring remains on the outer surface of the housing of the used electric cartridge, above the area for the base protrusion; a conductive conductor of an electric wire coming from a screwless pin clamp of each electric cartridge, in which a phase (plus) pin electrical terminal of the proposed compact electric energy-saving lamp is fixed, through the proposed ring-shaped connectors of electric wires and ring-shaped electronic ballasts, as well as an electronic automatic switch with touch and remote control, electrically connected to the phase (plus) terminal source electricity; the conductive core of the electric wire coming from the screwless pin clamp of each electric cartridge, in which the zero (minus) pin electrical output of the proposed compact electric energy-saving lamp is fixed, through the proposed ring-shaped connectors of electric wires and ring-shaped electronic ballasts, is electrically connected to the zero (minus) terminal of the source electrical energy; Thus, the electric circuit of a set of lighting electrical equipment, which provides a rational connection of a source of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electrical energy, is assembled; the infrared photodetector of the switching semiconductor device or the sensor sensor of the proposed electronic automatic electrical switch with touch and remote control is not activated, and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of each of the proposed compact electric energy-saving lamps, and the radiant energy source of each of the proposed compact electric energy-saving lamps does not emit radiant energy. 6. A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to an electric energy source, or according to claim 1, or 2, 3, or 4, characterized in that it uses compact electric energy-saving lamps with a threaded base and electric cartridges for them; each proposed compact electric energy-saving lamp with a threaded base consists of: a source of radiant energy, a shell and a threaded base; the radiant energy source is equipped with a phase (plus) electrode and a zero (minus) electrode, each of them is connected, respectively, a phase (plus) electrical terminal and a zero (negative) electric terminal, used to connect the electrodes to the threaded base; the casing of the compact electric energy-saving lamp has a translucent zone or the whole is made of translucent material and at one end, for example, on the right, ends with a fastening protrusion, which with its left base is hermetically mated with the casing of the compact electric energy-saving lamp, and the right with the socle protrusion; a thread is made on the side surface of the mounting protrusion, similar to the thread on the outer surface of the housing of the used electric cartridge, in the area of the socket for the threaded base of the proposed compact electric energy-saving lamp; a standard threaded base is fixed to the base ledge; a ring with a female thread is screwed onto the mounting protrusion; the threaded base of a compact electric energy-saving lamp consists of a conductive metal cup, on whose side surface Edison threads are made, and a conductive contact plate, which are interconnected by an annular insulator; a conductive core of the electrical output of the zero (minus) electrode is connected to a metal cup of the threaded base; a conductive core of the electrical output of the phase (plus) electric electrode is connected to the contact plate of the threaded base; a metal cup of a threaded base is designed to connect the zero (minus) electrical output of the optical radiation source (light source) and the zero (minus) output coming from the electric energy source through the assemblies - [EP-EPRA]; the contact plate of the threaded base of a compact electric energy-saving lamp is intended for electrical connection of the phase (positive) output of the radiant energy source and phase (positive) output coming from the electric energy source through an electronic automatic electrical switch with touch and remote control and through assemblies - [EP-EPRA ]; the basement protrusion of the shell of a compact electric energy-saving lamp is fixedly fixed in the inner cavity of the metal glass of the threaded base; the proposed cartridge includes: a housing made of electrical insulation material, a threaded metal sleeve, a liner, two conductive lugs, a cable sleeve and a mounting ring; the cartridge case consists of two cylinders of different diameters sequentially conjugated by bases, and the diameters of these cylinders decrease, for example, from left to right, and their main horizontal axes are located on the same line; in the area of the cartridge case, which is formed by the cylinder with the largest diameter, there is a threaded metal sleeve, a liner with a pin phase (plus) screwless clamp and a pin zero (minus) screwless clamp, two conductive tips, with a conductive residential electric wire fixed to each of them, coming from the assembly - [BOT-EPRA], and a mounting ring; the area of the cartridge case, which is formed by the cylinder with the smallest diameter, forms a cylindrical protrusion of the cartridge, in which the cable sleeve and the mounting tube are located; the cartridge case consists of two mirror-symmetric halves made of electrical insulating material; on each half of the body of the electric cartridge, from one end, for example the left, an inlet cylindrical hole is made for the threaded base of a compact electric energy-saving lamp; moreover, the diameter of the inlet is larger than the outer diameter of the threaded base of the proposed compact electric energy-saving lamp; on each half of the body of the electric cartridge, at the second end, for example, the right end, a cylindrical recess for the electric cable and its sleeve is made inside the outer cylindrical protrusion; inside this cylindrical recess, along it, in the area intended for the cable sleeve, a locking protrusion is made to prevent the cable sleeve from moving around a horizontal axis; on the outer side surface of each half of the cartridge case, above the socket for the threaded base of a compact electric energy-saving lamp and insert, a thread is made for the mounting ring; in the inner cavity of each half of the cartridge case, as a continuation of the inlet for the threaded base, a cylindrical recess with Edison thread for a threaded metal sleeve is made; in the inner cavity of each half of the cartridge case, as a continuation of the cylindrical recess with Edison thread for a threaded metal sleeve, a cylindrical socket for the cartridge insert was made; on the left end of this cylindrical socket there is a cylindrical cavity for the left side of the phase (plus) conductive jumper and the left side of the zero (minus) conductive jumper; on the right end of this cylindrical socket, on its side surface a cylindrical socket is made for the cylinder of the insulator of the cartridge insert in the middle of this nest, on its lateral surface, on both halves of the electro-cartridge case, respectively, a left protrusion and a right protrusion are made, which ensures fixing the insert in the electro-cartridge case; on the right side of the socket for the cylinder of the insulator of the cartridge insert, above the horizontal axis of the proposed cartridge is a socket for a phase (positive) screwless clamp, and below the horizontal axis of the proposed cartridge is a socket for a pin zero (negative) screwless clamp; from the right end of each of these nests to a cylindrical recess for the electric cable and cable sleeve, a channel is made for a phase (plus) electric wire supplying electric energy to the electric cartridge, and a channel for a zero (negative) electric wire supplying electric energy to the electric cartridge; The cartridge insert intended for mechanical and electrical connection of conductive conductors of electric wires coming from the assembly - [SEP-EPRA], with a contact plate and a metal cup of a threaded base, consists of an insulator, a phase (plus) conductive jumper, zero (minus) conductive jumper as well as a pin phase (plus) screwless clamp and a pin zero (negative) screwless clamp; the insulator of the cartridge insert is a cylinder made of an insulating material; on one base of the insulator, for example, the right base, at its center, along its diameter, perpendicular to the horizontal axis of the insulator, is a partition; through vents are made on the partition perpendicular to the base of the insulator; at both ends of the diameter of the base of the insulator passing through the middle of the partition, parallel to its long faces, on the diagonally opposite ends of the partition, adjacent to it, made a support ledge; ventilation holes are located on both sides of the long side faces of the partition and on both sides of the cylinder diameter of the insulator body, perpendicular to the long side faces of the partition; moreover, for example, to the left of the partition, through circular ventilation holes are made; on the other side of the partition, for example, to the right of the partition, through shaped ventilation holes are made; these vents are perpendicular to the base of the insulator; at both ends of the diameter of the cylinder of the insulator passing through the middle of the long faces of the partition, and perpendicular to it, rectangular recesses were made for sections of the conductive bridges connecting their left and right parts; moreover, the distance between the end inner faces of these recesses is less than the diameter of the insulator cylinder by an amount greater than the sum of the thickness of the sections of the phase (plus) conductive jumper and the zero (minus) conductive jumper connecting their left and right parts; between the inner end faces of these recesses and the long edges of the partition, on the base of the insulator, for example, on the right side, there are: figured recesses for the sections of the right side of the phase (plus) conductive bridge and to the right of the partition, curly recesses for the sections of the right side of the zero (negative) conductive bridge ; and on the left side of the base of the insulator to the left of the partition there are: figured recesses for sections of the left side of the phase (plus) conductive jumper, and to the right of the partition, figured recesses for sections of the left side of the zero (minus) conductive jumper; at both ends of the diameter of the cylinder of the insulator passing through the middle of the partition, and in parallel with it, a rectangular cut is made to fix the liner in the housing of the proposed electrons; phase (plus) conductive jumper and zero (minus) conductive jumper made in the form of plates of complex shape; the zero (minus) conductive jumper consists of the right part and the left part, which are interconnected by a section parallel to the generatrix of the liner insulator cylinder; the right part of the zero (minus) conductive jumper consists of a section perpendicular to the long side face of the insulator partition and a section parallel to it; one end, for example the right, of the right side of the zero (minus) conductive jumper, which is parallel to the long side edge of the insulator partition, is bent at a right angle so that it is perpendicular to the right base of the insulator; the second end, for example, the left, right side of the zero (minus) conductive jumper, which is parallel to the long side face of the insulator partition, abuts against the support protrusion of the insulator of the liner; the left part of the zero (minus) conductive jumper consists of a section perpendicular to the long lateral edge of the insulator partition and a section parallel to it; the ends of the portion of the zero (minus) conductive jumper parallel to the long lateral side of the insulator partition are extended, free, and are located at an angle to the plane of the left base of the insulator; the free ends of the left side of the zero (minus) conductive jumper end with sections parallel to the plane of the left base of the insulator; they are intended for mechanical and electrical connection, through a metal cup of a threaded base, with the electrical output of the zero (minus) electrode of the radiant energy source of a compact electric energy-saving lamp; in the area of the right side of the zero (minus) conductive jumper, which is perpendicular to the partition of the insulator body, a stopper hole is made; in the area of the left side of the zero (minus) conductive jumper, which is perpendicular to the baffle of the insulator body, a stopper hole is made; both of these sections are connected by a section parallel to the generatrix of the liner insulator cylinder; the right part of the zero (minus) conductive jumper and the left part of the zero (minus) conductive jumper are located in the recess, respectively, on the right and left bases of the insulator cylinder and are fixed with locking protrusions; the right part and the left part of the zero (minus) conductive jumper, when not installed on the insulator, are inclined to each other; phase (positive) conductive jumper consists of the right part and the left part, which are interconnected by a section parallel to the cylinder of the liner insulator; the right part of the phase (positive) conductive jumper consists of a section perpendicular to the long side face of the insulator partition and a section parallel to it; one end of the section parallel to the long side face of the insulator partition, for example, the left end of the right side of the phase (plus) conductive jumper is bent at a right angle so that it is perpendicular to the right base of the insulator cylinder; the second end of this section abuts against the support protrusion of the liner insulator; the left part of the phase (plus) conductive jumper consists of a section perpendicular to the long side face of the insulator partition; one end of this section, for example the right one, is free and located at an angle to the plane of the left base of the insulator cylinder; the free end of the portion of the left side of the phase (plus) conductive jumper is intended for electrical connection through the contact plate of the threaded base with the electrical output of the phase (plus) electrode of the radiant energy source of a compact electric energy-saving lamp; on the site perpendicular to the baffle of the insulator, on the right side of the phase (plus) conductive jumper, a stopper hole is made; in the area perpendicular to the baffle of the insulator, on the left side of the phase (plus) conductive bridge, a stopper hole is made; a section perpendicular to the baffle of the insulator, the right side and a section perpendicular to the baffle of the insulator, the left side of the phase (plus) conductive jumper are connected by a section parallel to the cylinder of the insulator liner; the right part of the phase (positive) conductive jumper and the left part of the phase (positive) conductive jumper are located in the recess on the right and left bases of the insulator cylinder, respectively, and are fixed by locking protrusions; the right part and the left part of the phase (plus) conductive jumper, when not installed on the insulator, are inclined to each other; the threaded metal sleeve of the electro-cartridge is made in the form of a hollow cylinder, on the inner and outer side surfaces of which Edison thread is made for the threaded cap of a compact energy-saving electric lamp; the threaded metal sleeve of the cartridge is fixed in the inner cavity of the cartridge housing in such a way that any movement is prevented; the conductive tip used in the electron cartridge is made of conductive material and is designed to connect the conductive core of the electrical wires supplying electricity to the electrons; the wave-shaped contact spring of the electric cartridge is made of rectangular wire and contains an even number (more than two), for example four incomplete turns made, in the general case, of different radii; incomplete turns of a wave-shaped contact spring are interconnected in series; convexities of incomplete turns of a wave-like contact spring have a different direction and alternate sequentially; phase (plus) conductive jumper and zero (minus) conductive jumper, with a wave-shaped contact spring fixed in an appropriate place on them, are inserted in the corresponding places on the insulator of the insert; the assembled cartridge insert is inserted into the cylindrical socket intended for it, for example, on the left half of the cartridge case; in this case, the locking protrusion on the surface of the socket for the liner is located in a cutout for it in the housing of the insulator of the liner, and the pin phase (plus) screwless terminal and the pin zero (negative) screwless terminal in the corresponding socket, in the cartridge case; the fixing tube is screwed into the inner cavity of the cable sleeve of the electroparticle; through the internal cavity of this assembly an electric cable is drawn with electric wires supplying electricity to the electron cartridge; a cable sleeve with a fixing tube fixed in it is inserted into the socket for it, for example, on the left half of the cylindrical protrusion of the electrons; electrical wires after exiting the cable sleeve are laid in channels for them, for example, on the left half of the body of the electric cartridge; the conductive core of the zero (minus) electric wire coming to the electrons in question is electrically and mechanically connected to a conductive tip, for example, a crimp, which is inserted into the pin zero (minus) screwless clamp and pressed by a wave-shaped contact spring to the working edge of the end of the right side of the zero (minus) ) a conductive jumper that is bent at a right angle so that it is perpendicular to the right base of the insulator; the conductive core of the phase (positive) electric wire coming to the electroparticle under consideration is electrically and mechanically connected to the conductive tip, for example, by crimping, which is inserted into a phase (positive) pin screwless clamp and pressed by a wave-shaped contact spring to the working face of the end of the right part of the phase (positive ) a conductive jumper that is bent at a right angle so that it is perpendicular to the right base of the insulator; between each other, the halves of the electron cartridge case are fastened with fixing recesses in the inner cavity and fixing recesses along the perimeter of the left half of the cartridge case on the one hand, and fixing protrusions in the inner cavity and fixing protrusions along the perimeter of the right half of the cartridge case on the other side; the mounting protrusions are inserted into the mounting recesses, and the halves of the cartridge case are tightly pressed against each other; a conductive core of a phase (positive) electric wire coming from the proposed electroparton is electrically and mechanically connected to a conductive tip; a conductive core of zero (minus) electrical wire coming from the proposed electron cartridge, electrically and mechanically connected to a conductive tip; an electric cartridge using a mounting tube is installed at the place of operation; the fastening ring is screwed onto the housing of the proposed electron cartridge until it stops; the threaded base of the energy-saving electric lamp is screwed into the threaded metal sleeve of the electric cartridge until it stops; the contact plate of the threaded base is pressed against the free area of the left side of the phase (plus) jumper of the cartridge insert; the upper part of the metal cup with Edison thread of the threaded base is pressed against the free areas of the left part of the zero (minus) jumper of the cartridge insert; a fastening ring, with an internal thread, made of an insulating material, screwed onto the fastening protrusion of the proposed compact electric energy-saving lamp; at the same time, a part of the fixing ring remains on the outer surface of the housing of the proposed cartridge, above the area for the threaded metal sleeve of the liner, and the proposed compact electric energy-saving lamp is reliably mechanically and electrically connected to the proposed cartridge; the conductive core of the phase (positive) electrical wire coming from the phase (positive) screwless terminal of the proposed electrons cartridge is mounted on the fastening section of the conductive tip and, through the assembly, [SEP-EPRA] and an electronic automatic electrical switch with touch and remote control, electrically connected to the phase (plus) clamp of the source of electrical energy; the conductive core of the zero (minus) electric wire coming from the pin zero (minus) screwless clamp of the proposed electrons, is fixed on the fastening section of the conductive tip and, through the proposed assembly - [SEP-EPRA], is electrically connected to the zero (minus) clamp of the electric energy source ; thus, the electric circuit of the lighting electric equipment kit, which provides a rational connection of the radiant energy source (infrared radiation, visible radiation and ultraviolet radiation) of the compact electric energy-saving lamp to the electric energy source, is assembled; the infrared photodetector of the switching semiconductor device or the sensor sensor of the proposed electronic automatic electrical switch with touch and remote control is not activated, and the electric circuit of the proposed set of lighting electrical equipment is open; however, the electrodes of the radiant energy source of each proposed compact electric energy-saving lamp does not receive power and they do not radiate radiant energy. 7. A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electric energy, according to claim 3, characterized in that it has a ring-shaped, modular design , a connector for electric wires and an electronic ballast (EAPR), of modular design, arranged concentrically, each of them with remains of two modules; the proposed set of lighting electrical equipment contains: two or more compact electric energy-saving lamps, each mounted in an electron cartridge, at least one set of modular design, an electrical wire connector - an electronic ballast (EAPR) and an electronic automatic electrical switch with touch and remote control; the proposed connector of electrical wires consists of two halves, which are formed by dividing the body of the connector of electrical wires according to claim 3 by a plane passing through its center and the middle, located diametrically opposite, insulating mounting protrusions inserted into insulating recesses, perpendicular to the surface on which the input holes of its phase (plus) and zero (minus) electrical clamps; at the same time, on one half of the body, for example on its left half, for example on its left end, there is a trapezoidal protrusion for mechanical dovetail type connection, and on the other, for example its right end, there is a trapezoidal socket for mechanical dovetail type connection "; on the other half of the body, for example on its right half, for example on its left end, there is a trapezoidal nest for mechanical dovetail connection, and on the other, for example its right end, there is a trapezoidal protrusion for mechanical dovetail connection; on the trapezoidal protrusion of the left half and on the trapezoidal protrusion of the right half, the proposed connector of electric wires, in its lower part, on the base side, a support recess is made, the size of which, along the central circle of the proposed ring-shaped connector of electric wires, hereinafter - the depth, is, for example , one third of the depth of the trapezoidal protrusion; in the trapezoidal socket of the left half and in the trapezoidal socket of the right half of the proposed connector of electric wires, in its lower part, from the base side, a support protrusion is made; the size of which, along the central circle of the proposed annular connector of electrical wires, is, for example, one third of the depth of the trapezoidal socket; the right half of the proposed connector of the electric wires structurally designed in this way is presented as an independent product, in the form, for example, of a phase (plus) module; structurally designed in the same way, the left half of the proposed connector of electrical wires is presented as an independent product, in the form, for example, of a zero (minus) module; moreover, both of these modules are structurally identical, which are obtained one from the other from any half of the proposed connector of electric wires by rotating it one hundred eighty degrees (in any direction) around an axis passing through the center of the circles of its body; in operating conditions, the proposed connector of electrical wires is installed in such a way that the fixing tube of the electric chandelier is located in its central hole; why one of the modules, for example a phase (plus) module of the proposed connector of electric wires, is installed in such a way that the fixing tube of the electric chandelier is located in its central hole, and the other, for example, the zero (minus) module is installed above it; wherein the protrusion for the dovetail mechanical connection of the phase (plus) module is located above the nest for the dovetail mechanical connection of the zero (negative) module, and the socket for the dovetail mechanical connection of the phase (plus) module is located above protrusion for mechanical dovetail type connection of the zero (minus) module; after which both modules move vertically towards each other, to the stop; the protrusion for the dovetail mechanical connection of the zero (negative) module is located in the dovetail mechanical connection of the phase (plus) module, and the protrusion for the dovetail mechanical connection of the phase (plus) module is located in a dovetail mechanical connection of a zero (minus) module; the proposed thus proposed connector electrical wires mounted on a special ledge on the mounting tube of the electric chandelier; the proposed electronic ballast (EAF) consists of two halves, which are obtained by dividing the electronic ballast (EAF) according to claim 3 by a plane passing through its center, perpendicular to the surface on which the input holes of its network and consumer electrical clamps are located, between the network phase (plus) screwless clamp and zero (minus) screwless clamp of the consumer, as well as between the network zero (negative) screwless clamp and phase (plus) screwless clamp imom consumer; while on one half of the housing of the proposed ring-shaped electronic ballast (EAPR), for example on the left half, at its ends, respectively, are the left connecting protrusion and the right connecting protrusion, and on the other half of the body of the proposed ring-shaped electronic ballast (EAPR), for example the right half, at its ends, are located respectively the left connecting recess and the right connecting recess; on one connecting protrusion, the left half of the proposed ring-shaped electronic ballast (EAPR), for example on the left connecting protrusion, there is a phase (positive) pin electrical output, and on its other connecting protrusion, for example on the right connecting protrusion, there is a zero (minus) screwless clamp; the left half constructively designed in this way, of the proposed ring-shaped electronic ballast (EAPR), is presented as an independent product, in the form of a structural element - phase (plus) module (FM electronic ballast), which was used to assemble the proposed ring-shaped electronic ballast (EAPR) on one connecting recess, the right half of the proposed annular electronic ballast (EAPR), for example on the left connecting recess, is located ene phase (positive) screwless clamp, and at its other coupling recess, for example on the right coupling recess is zero (negative) electrical terminal pin; the right half constructively designed in this way, the proposed ring-shaped electronic ballast (EAPR), is presented as an independent product, in the form of a structural element - the zero (minus) module (NM electronic ballast), which was used to assemble the proposed ring-shaped electronic ballast (EAPR); the proposed phase (plus) module (FM ballasts) and zero (minus) module (NM ballasts) using a phase (plus) screwless electrical clamp and phase (plus) pin electrical output, as well as zero (negative) screwless electrical clamp and zero ( minus) pin electrical output are interconnected, forming the proposed ring-shaped electronic ballast (EAPR) with a ring-shaped body; in this case, the phase (positive) pin electrical terminal, on the left connecting protrusion, of the phase (positive) module (FM electronic ballast) is located in the phase (positive) screwless clamp on the left connecting notch of the zero (negative) module (NM electronic ballast), and zero (negative) ) the pin electrical terminal on the right connecting recess of the zero (negative) module (NM electronic ballast) is located in the zero (negative) screwless clamp on the right connecting protrusion of the phase (plus) module (FM electronic ballast); at the place of constant operation, the proposed ring-shaped electronic ballast (EAF) is installed so that the mounting tube of the electric chandelier is located in its central hole; one module of the proposed ring-shaped electronic ballast (EAPR), for example a phase (plus) module (FM electronic ballast), is installed above the proposed connector of electric wires, and a second module, for example a zero (negative) module (NM electronic ballast), is installed above the phase (plus) EPRA module (FM EPRA), after which both modules move vertically towards each other, to the stop; in this case, the phase (positive) pin electrical terminal, on the left protrusion, of the phase (positive) module (FM electronic ballast) is located in the phase (positive) screwless clamp, the connecting recess of the zero (negative) module (NM electronic ballast), and the zero (minus) pin the electrical output of the connecting recess of the zero (minus) module (NM electronic ballast) is located in the zero (minus) screwless clamp of the connecting protrusion of the phase (plus) module (FM ballast); the thus proposed ring-shaped electronic ballast (EAF) is installed in the inner ring of the proposed connector of electrical wires so that its locking protrusion is located inside the locking cutout in the annular support protrusion of the proposed ring-shaped connector of electric wires, and the housing of the proposed ring-shaped electronic ballast (EAPR) rests against him; a conductive tip fixed to the end of the conductive core of the electric wire coming from the phase (plus) terminal of the electric power source, and a conductive tip fixed to the end of the conductive core of the electric wire coming from the zero (minus) terminal of the electric power source, are fixed in the corresponding screwless input electrical clamps of the proposed electronic automatic electrical switch with touch and remote control; a conductive tip, mounted on the end of the conductive core of the electric wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is fixed in the network phase (positive) screwless terminal of the phase (plus) module (FM electronic ballast); a conductive tip, mounted on the end of the conductive core of the electric wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is fixed in the network zero (plus) screwless terminal of the zero (negative) module (NM electronic ballast); a conductive tip, mounted on a conductive core of a phase (positive) electrical wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is inserted into the network phase (positive) screwless terminal located in the phase (positive) module (FM electronic ballasts); a conductive tip mounted on a conductive core of a zero (negative) electrical wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electric switch with touch and remote control is inserted into the network zero (negative) terminal located in the zero (negative) module (NM electronic ballasts); a piece of electrical wire, at each end of which, on its conductive core, a conductive tip is fixed, is positioned so that one of its conductive tip is located in the network phase (plus) screwless clamp of the phase (plus) module (FM electronic ballast), and its second conductive the tip is located in the phase (plus) screwless clamp of the proposed annular connector of electrical wires, for example on its left half, and, for example, through which its horizontal axis passes; a piece of another electrical wire, at each end of which, on its conductive core, a conductive tip is fixed, is arranged in such a way that one of its conductive tip is located in the network zero (minus) screwless clamp, zero (minus) module (NM electronic ballast), and the second its conductive tip is located in the zero (minus) screwless clamp of the proposed ring-shaped connector of electrical wires, for example on its right half, and, for example, through which its horizontal passes Single axis; at the end of the conductive core of each electric wire coming from the electron cartridge of a compact electric energy-saving lamp, a conductive tip is fixed; the conductive tip of the phase (positive) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is placed in a phase (positive) screwless clamp, for example, on a phase (plus) unified module of the proposed ring-shaped connector of electric wires; the conductive tip of the zero (minus) electric wire coming from each electro-cartridge of a compact electric energy-saving lamp is located in the zero (minus) screwless clamp, for example, on the zero (minus) unified module of the proposed ring-shaped connector of electric wires; in each electric cartridge of the proposed set of lighting electrical equipment, a compact electric energy-saving lamp is fixed; thus, the electric circuit of the lighting electric equipment kit, which provides the most rational connection of the radiant energy source (infrared radiation, visible radiation and ultraviolet radiation) of the compact electric energy-saving lamp to the electric energy source, is assembled; the photodetector of the switching semiconductor device or the sensor of the proposed electronic circuit breaker with touch and remote control is not activated, and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of each of the proposed compact electric energy-saving lamps, and the radiant energy source of each of the proposed compact electric energy-saving lamps does not emit radiant energy. 8. A set of lighting electrical equipment that provides a rational connection of sources of radiant energy (infrared radiation, visible radiation and ultraviolet radiation) of compact electric energy-saving lamps to a source of electric energy, according to claim 1, characterized in that it contains, along with the assembly (EEP-ECG) used assembly [(EP-EPRA) -P], which provides electrical parallel connection with the assembly (EP-EPRA), as well as parallel electrical connection between two or more similar x assemblies [(FEP ECG) -P]; the proposed set of lighting electrical equipment contains: an assembly (SEP-EAPRA), with one or more assemblies connected in parallel to it [(SEP-EAPRA) -P], compact electric energy-saving lamps, each mounted in an electric cartridge, an electronic automatic electrical switch with touch and remote control and remote control by electronic automatic electric switch with touch and remote control; the proposed assembly [(SEP-EAPRA) -P] consists of concentrically and parallelly connected electrically, an annular connector of electric wires (SEP-P) and an electronic ballast (EAPR-P); the ring-shaped connector of electric wires (SEP-P) is assembled from two structurally identical unified modules: phase (plus) module (FM SEP-P) and zero (negative) module (NM SEP-P), one of which, for example, zero (minus) module (NM SEP), rotated around a vertical axis by one hundred eighty degrees; unlike the unified BOT modules used in the assembly (BOT-EAPRA), in the proposed assembly [(BEP-EAPRA) -P] the unified phase (plus) module (FM BEP-P) and the unified zero (minus) module ( НМ СЭП-П), on the surface opposite to that on which the inlet holes of the electric screwless clamps are located, as a continuation of its conductive bus, for example, opposite the electric screwless clamp located next to the trapezoidal projection for a dovetail mechanical connection, from universal module housing, a pin electrical outlet; these pin electrical leads allow you to connect electrically in parallel, the unified module of the EPA and the proposed unified module (SEP-P), as well as connect, electrically in parallel, the additional required number of similar unified modules (SEP-P); in the place of exit of the pin electrical outlet, on the housing of the universal module, there is a support protrusion, in the center of which an insulating protrusion is located, with an opening that is part of the socket for this pin electrical outlet; in the inlet of each screwless clamp designed for this pin electrical outlet, a socket for its insulating protrusion is made; the proposed electronic ballast (EAPR-P) is assembled from a phase (plus) module (FM EPRA-P) and zero (minus) module (NM EPRA-P); unlike the phase (plus) module (FM EPRA), the phase (plus) module (FM EPRA-P) on the surface opposite to that on which the inlet holes of its electric screwless terminals are located, the phase (plus) pin electrical outlet of the consumer and network phase (positive) pin electrical output; in contrast to the zero (minus) module (NM EPRA), the zero (minus) module (NM EPRA-P) on the surface opposite to that on which the inlet holes of its electric screwless clamps are located, the zero (minus) pin electrical outlet of the consumer and network zero (minus) pin electrical output; the diameter of the inner ring of the annular body, each subsequent proposed electronic ballast (EAPR-P) mounted on the mounting tube of the chandelier in question, is larger than the diameter of the chandelier mounting tube by an amount greater than the sum of the two diameters of the electric wire coming from the electric cartridge, in which a compact electric an energy-saving lamp located on the chandelier in question; the proposed remote control electronic electronic circuit breaker with touch and remote control is functionally structurally made in the form of a keychain simulating an electric bulb with a threaded base, truncated by two planes parallel to its horizontal axis of symmetry, and consists of a button associated with the piezoelectric element of the converter-amplifier emitting LED; in the proposed keychain, the place of the bulb of the light bulb is occupied by the housing of the converter amplifier; on its side surface, for example, the front, is a button connected to the piezoelectric element; on its left end face there is a radiating LED; on its opposite end face there is a mounting protrusion imitating a truncated threaded base of a light bulb, in which a thread is imitated on narrow side faces; and on its wide face a hole was made for fastening a chain or twine; on its right end is a section simulating the insulator of a threaded base and the phase contact protrusion of an electric bulb with a threaded base; in operating conditions, when there are more compact electric, energy-saving lamps located on the chandelier that need to be connected to an electric energy source, more than the number of corresponding screwless electric clamps located on the assembly (SEP-EPRA), to the already installed assembly (SEP-EPRA) electrically parallel connect the proposed assembly [(SEP-EAPRA) -P]; To do this, first of all, remove the terminals fixed at the ends of the electric wires from screwless electrical clamps, with which a unified phase module (FM SEP) is electrically connected to each other with a phase (plus) module (FM EPRA) and a unified zero (minus) module (NM) SEP) with a unified zero (negative module (NM electronic ballast); and also remove the terminals fixed at the ends of the electrical wires from the screwless electrical clamps, with which the electrically connected assembly ballast (EAPR) in assembly (SEP-EPRA) and electronic automatic switch with touch and remote control; one of the modules of the proposed assembly [(SEP-EAPRA) -P], for example, phase (plus) module (FM SEP- P), is installed above the assembly (BEP-EPRA) in such a way that the fixing tube of the chandelier in question is located in the inner hole of the annular body (BEP-P); the second module of the proposed assembly [(BEP-EAAP) -P], for example, unified zero ( negative) module (NM SEP-P) is installed above the phase (plus) module (FM SEP-P) in such a way that the fixing tube of the chandelier in question is located in the inner hole of the annular body (SEP-P); then the unified zero (minus) module (NM SEP-P) is moved along the mounting tube of the proposed chandelier until the trapezoidal protrusion of the unified phase (plus) module (FM SEP-P) lies on the support ledge in the dovetail cut »Of the unified zero (minus) module (NM SEP-P), and the trapezoidal protrusion of the unified zero (minus) module (NM SEP-P) will lie on the support ledge in the" dovetail "section of the unified phase (plus) module (FM SEP- P); assembled in this way (SEP-P), using its protruding phase (positive) pin electrical output and its protruding zero (negative) pin electrical output, and located on the SEP assembly (SEP-EPRA) of the phase (plus) electrical screwless clamp, and a zero (minus) electric screwless clamp, respectively connected with a unified phase (plus) module (FM SEP) and a unified zero (minus) module (NM SEP); further, one of the modules of the proposed assembly [(SEP-EAPRA) -P], for example, a phase (plus) module (FM EPRA-P), is installed above the assembly (SEP-P) so that the fixing tube of the chandelier in question is located in the inner hole ring-shaped housing (FM EPRA-P); the second module of the proposed assembly [(SEP-EAPRA) -P], for example, a unified zero (negative) module (NM EPRA-P), is installed above the assembly (SEP-P) so that it is located above the phase (plus) module (FM EPRA-P), and the fixing tube of the chandelier in question is located in the inner hole of the annular body (NM EPRA-P); the proposed phase (plus) module [(FM EPRA) -P] and zero (minus) module [(NM EPRA) -P] using the connecting protrusions and connecting recesses, as well as the electrical screwless terminals located on them, and the pin electrical terminals, properly connected to each other, forming the proposed electronic ballast [EAF-P] with an annular body; wherein the phase (plus) pin electrical terminal, on the left protrusion, of the phase (plus) module [(FM EPRA) -P] is located in the phase (plus) electric screwless clamp, left connecting recess, zero (minus) module [(NM Ballast) -P], and the zero (minus) pin electrical outlet, the right connecting recess of the zero (minus) module [(NM ballast) -P], is located in the zero (minus) electric screwless clamp of the right connecting protrusion of the phase (plus) module [ (FM EPRA) -P]; assembled from a phase (plus) module (FM EPRA-P) and zero (minus) module (NM EPRA-P), an annular electronic ballast (EAPR-P) is placed in the inner hole of the annular housing (SEP-P), and move it to focus on the support ring around the circumference of the inner diameter of the ring-shaped housing of the proposed (SEP-P); the proposed assembly of [(SEP-EAPRA) -P] using the protruding pin electrical terminals of the unified phase (plus) module (FM SEP-P) and the unified zero (negative) module (NM SEP-P) on the surface opposite to that on which the inlets of the electric screwless clamps are located, they are electrically connected to the assembly (SEP-EAPRA) already installed on the chandelier fixing tube; phase (plus) module (FM EPRA-P) is connected to a unified phase module (FM EPP); the zero (minus) module (NM EPRA-P) is connected to the unified zero (minus) module (NM EPA); a piece of electrical wire, at each end of which, on its conductive core, a conductive tip is fixed, the phase (plus) module (FM EPRA-P) and the phase (plus) module (FM SEP-P) are electrically connected to each other, for which one the conductive tip is placed in a phase (plus) screwless clamp, the consumer of the phase (plus) module (FM EPRA-P), and its second conductive tip is located in the phase (plus) screwless clamp of the phase (plus) unified module (FM SEP-P); a piece of electric wire, at each end of which, on its conductive core, a conductive tip is fixed, the zero (minus) module (NM EPRA-P) and the zero (minus) module (NM SEP-P) are electrically connected, for which one the conductive tip is located in the zero (negative) screwless clamp, the consumer of the zero (negative) module (NM EPRA-P), and its second conductive tip is located in the zero (negative) screwless clamp of the zero (negative) unified module (NM SEP-P); each conductive tip fixed to the free end of the phase (positive) electric wire coming from the electric cartridge located on the proposed chandelier is inserted into the corresponding electric screwless clamp located on the phase unified module (FM SEP-P), in the proposed assembly [(BOT -EAPRA) -P]; each conductive tip mounted on the free end of the zero (negative) electric wire coming from the electric cartridge located on the proposed chandelier is inserted into the corresponding electric screwless clamp located on the zero (negative) unified module (NM SEP-P), in the proposed assembly [(CEP-EAPRA) -P]; a conductive tip, mounted on the end of the electric wire connected to the output phase (positive) terminal of the electronic automatic electrical switch with touch and remote control, is inserted into the phase (positive) electrical screwless clamp located on the phase (positive) module (FM electronic ballast) -P ); a conductive tip fixed to the end of the electric wire connected to the output zero (minus) terminal of the electronic automatic electric switch with touch and remote control is inserted into the zero (minus) electric screwless clamp located on the zero (minus) module (NM EPRA-P) ; a conductive tip fixed to the end of the conductive core of the electric wire coming from the phase (plus) terminal of the electric power source, and a conductive tip fixed to the end of the conductive core of the electric wire coming from the zero (minus) terminal of the electric power source, are fixed in the corresponding screwless input electrical clamps, the proposed electronic automatic electrical switch with touch and remote control; a conductive tip, mounted on the end of the conductive core of the electric wire coming from the output phase (positive) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is fixed in the network phase (positive) screwless terminal of the phase (positive) module [(FM electronic ballast) -P]; a conductive tip, mounted on the end of the conductive core of the electric wire coming from the output zero (negative) screwless terminal of the proposed electronic automatic electrical switch with touch and remote control, is fixed in the network zero (plus) screwless terminal of the zero (negative) module [(NM electronic ballast) -P]; Thus, the electrical circuit of the proposed set of lighting electrical equipment is assembled; the photodetector of the switching semiconductor device or the sensor of the proposed electronic circuit breaker with touch and remote control is not activated, and the electric circuit of the proposed set of lighting electrical equipment is open; however, no power is supplied to the electrodes of the radiant energy source of the compact electric energy-saving lamp, and the radiant energy source of the compact electric energy-saving lamp does not emit radiant energy.

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