AT522218A1 - Connection line for lighting control system and data transmission method - Google Patents

Abstract

The invention relates to a connecting line (100) comprising a number of resilient elements (11; 11a, ..., 11n), each resilient element (11; 11a, ..., 11n), in particular at one end (112a,. .., 112n), at least one contact element (12; 12a, ..., 12n), - at least one resilient element (11; 11a, ..., 11n) and at least one contact element (12; 12a, .. ., 12n) together each form a contact unit (10; 10a, ..., 10n), - the resilient elements (11; 11a, ..., 11n) being arranged such that the contact elements (12; 12a, ..., 12n) are integrated into an electrically conductive connection when the resilient elements (11; 11a, ..., 11n) are exposed to a predetermined spring load, - the spring travel of the resilient elements (11; 11a,. .., 11n) is selected in at least one direction in such a way that by applying pressure or releasing pressure at least one contact unit (10; 10a, ..., 10n) the respective resilient elements (11; 11a, ..., 11n) are pressurized or released to such an extent that the electrically conductive connection is interrupted.

Description

It is known from the prior art that control units or LED drivers are often used for controlling and dimming lighting means such as light-emitting diodes or LEDs. When using a large number of light-emitting diodes, which are controlled and dimmed individually and in particular independently of one another, a correspondingly large number of control units is also required in this case. The control units usually receive data from a controller for dimming the

LEDs that are controlled directly or indirectly by the control unit.

With such an arrangement of a large number of control units or LED drivers, for example, the daisy chain connection known from the prior art is often used. With such a daisy chain connection, the control units are connected in series and a controller prepares the data for each individual control unit and sends the data to the control units via a data line. Only the first control unit is directly connected to the controller, while the other control units are only connected to their respective predecessors. Each individual control unit receives all of the data transmitted to it, but only stores or processes the data that is intended for it, while it transmits the remaining data to the next LED driver.

This circuit makes it possible for each individual one of the control units to receive the data intended for it without being identified by an address or itself

must be configured individually before use.

The disadvantage of such a daisy chain connection, however, is that the respective control units have a predefined place within the chain and the data lines and the control units are permanently fixed on, for example, a printed circuit board or the control units in an application are wired at a predetermined location, which also means the respective associated LEDs are arranged in a given place. A subsequent change in the position of the individual LEDs or a subsequent change in the circuit board layout or the cabling are therefore only possible with a great deal of effort and provide additional training

accordingly high risk of error.

The invention solves this problem with a connecting line comprising a number of contact units with the features of claim 1.

According to the invention, the connecting line comprises a number of resilient elements, each resilient element, in particular at one end, having at least one contact element,

- wherein at least one resilient element and at least one contact element together each form a contact unit,

- wherein the resilient elements are arranged in such a way that the contact elements located on them are integrated into an electrically conductive connection when the resilient elements are exposed to a predetermined spring load,

- The spring travel of the resilient elements in at least one direction is selected such that the respective resilient elements are pressurized or relieved of pressure by applying pressure or releasing pressure from at least one contact unit to such an extent that the electrically conductive connection is interrupted.

Such a connecting line advantageously makes it possible to use any number of control units or lighting means at any point within the connecting line, to supply them with data and, if necessary, to remove them again. The contact elements of adjacent contact units touch one another directly or indirectly, so that they are connected in an electrically conductive manner and data can be passed on via a continuous electrically conductive connection established in this way.

A connecting line which is particularly easy to manufacture and in which control units or lighting means can be integrated into such a connecting line even more individually and independently of the detailed arrangement of the contact units within a connecting line can be provided if a number of

resilient elements arranged next to one another are provided,

- wherein when a contact unit is pressurized or released from pressure, the resilient elements are pressurized or relieved of pressure to such an extent that the electrically conductive connection between the respective adjacent contact elements is interrupted.

Since each contact unit has at least one resilient element, each individual contact element can be pressed, for example, by exerting a compressive force in the direction of the end of the respective resilient elements opposite the contact element, so that the electrically conductive connection between the respective adjacent contact elements is interrupted. In this way it is possible to integrate components with, for example, control units such as LED drivers at any position within the connecting line. Such a component or module is integrated into the connection line at the position of a pushed-through contact unit and establishes an electrically conductive connection to the respective adjacent contact elements of the relevant contact unit.

A particularly simple and uncomplicated structure of the connection line can be achieved if the resilient elements, in particular with the ends opposite the contact elements, are attached to a substrate or are held and / or carried by this substrate, in particular are secured against slipping or falling out of the substrate .

In order to ensure that the electrically conductive connection between adjacent contact units is actually interrupted by actuating at least one resilient element, it can be provided that the substrate is electrically isolated from the respective contact element, so that an electrical connection via the contact elements only exists when they are in the electrically conductive connection are integrated, in particular in direct contact with one another.

A connecting line with a particularly simple structure and easy to manufacture can be provided if the resilient elements are used as compression springs, in particular as

Coil springs are formed.

A particularly reliable way of establishing an electrical connection between adjacent contact elements, which reduces the susceptibility to errors in a

A particularly simple configuration of the contact elements, which reduces the electrical contact transition resistance between adjacent contact units to a minimum in a particularly simple manner, can be provided if the contact elements are hat-shaped,

wherein the contact elements have resilient components, the resilient components being designed in such a way that, when a predetermined application of pressure prevails, a clamping effect prevails due to the resulting spring forces and the contact elements are integrated into an electrically conductive connection in this way,

in particular that the resilient components are arranged in the direction of the respective adjacent contact elements and are designed in such a way that between adjacent contact elements, if they are subjected to the same pressure application, a clamping effect prevails due to the spring forces generated in this way and the respective adjacent contact elements are in electrically conductive contact.

A particularly space-saving configuration of a connecting line can be provided if the resilient elements are arranged in alignment.

Contact elements that are particularly easy to manufacture can be provided if the contact elements are formed from bent metal sheets, in particular copper-beryllium sheets,

wherein the metal sheets each have at least one straight part which runs normal to the pressure direction of the pressure force acting in each case on the resilient element, and

The metal sheets each have at least one, in particular two, side parts connected to the straight part, the side parts each being designed as a semi-hollow cylinder, so that between side parts of adjacent contact elements that make contact with one another there is a spring effect normal to the pressure direction of the pressure force acting on the resilient element.

A further simplification of the manufacture of the contact elements can be achieved

when the contact elements are made in one piece, in particular bent from a sheet of metal.

A simple option for combining a connecting line with, for example, a data bus line and / or a line for voltage supply can be provided if a number of further continuous lines are provided on the profile

uninterruptible connecting lines is arranged.

According to the invention, a module is also provided, in particular for use with a connecting line according to the invention, the module comprising:

- At least one contacting element on which one, in particular electrically non-conductive, projection and at least one module contact element, in particular two module contact elements, are arranged,

a carrier body from which the at least one contacting element is guided, a further resilient element optionally being arranged between the carrier body and the contacting element, and

- At least one circuit board carried and / or held by the carrier body.

A module designed in this way advantageously provides the possibility of integrating, for example, control units, LED drivers, light emitting diodes, data inputs and / or outputs or at least one memory, each of which can be arranged on the circuit board, in a simple manner, for example in a connecting line according to the invention and to transmit data to the module or via the

Forward module.

A simple possibility by which it is possible, for example, that a module is automatically deactivated or removed from the circuit without having to remove it from the entire arrangement by changing a state, in particular a mechanical or hardware-related state, but with proper functioning remains unaffected for other modules in an arrangement, for example, it can be ensured if the board is equipped with at least one contacting pin,

in particular two contacting pins that are electrically connected,

- wherein the at least one contacting pin is designed in particular to hold the at least one module contact element against that of the other

resilient element to hold back pressure exerted.

A simple combination with further connecting lines, such as data bus lines or lines for power supply, can be provided for a module if a number of further contact elements are provided,

which are designed to be contacted with further connecting lines.

A simple way of establishing a data flow via the module can be provided if the module comprises at least one signal input and at least one signal output, the signal input being connected to at least one of the contact elements and the signal output being connected to at least one other contact element.

Particularly efficient processing or forwarding of data via the module can be ensured if the module is characterized by at least one control unit which is connected to at least one signal input and at least one signal output as well as to one or more further connecting lines, in particular a data bus line, as well is optionally connected to a further connection line for the voltage supply and / or a further connection line serving as ground.

- wherein a predetermined inactive signal is present at the signal output of the control unit in an initial state, and

- The control unit is designed to

- in the event of an activation signal at the signal input, to process the data made available via the at least one further connection line, in particular the data bus line, and to set or prepare related actions, in particular to activate and deactivate lighting means,

- the end of the transmitted data and / or the size of the transmitted data from the transmitted data and / or by recognizing a deactivation signal on your

Determine signal input, and

7752

The possibility of emitting light signals or controlling and / or dimming lighting means such as light-emitting diodes or LEDs can be ensured with a module according to the invention by at least one electrically controllable lighting means, in particular an LED, connected downstream of the control unit.

According to the invention, an arrangement with a connecting line according to the invention and at least one module according to the invention is also provided,

- wherein the, in particular electrically non-conductive, projection is designed to separate a respective contact unit from the other contact units by applying pressure and thus to separate the electrical connection to the contact units adjacent to the respective contact unit, and

- wherein the at least one module contact element, in particular the two module contact elements, with at least one contact element one to the respective contact unit

adjacent contact unit is conductively connected.

Such an arrangement advantageously ensures that modules can be integrated at any point within the connecting line, so that, for example, control units such. B. LED drivers or light-emitting diodes that are arranged on the module, positioned at any point, removed and again

can be used.

By applying pressure by means of the projection, the resilient elements of a relevant contact unit are pressed in the direction of the end of the resilient elements opposite the —contact element, and the electrical connection between adjacent contact units is interrupted. The module contact element or the two module contact elements establish electrical contact with the adjacent contact units, so that electrical current or data can flow through the module.

A particularly simple, compact and user-friendly configuration of a module can be provided if the module is provided with a further resilient element, in particular a further compression spring, in the direction opposite to the pressure direction of the resilient elements of the contact units,

is pressurized.

In the case of “daisy chain connections” in particular, provision is often made for the data lines provided for data transmission to be used unidirectionally. In order to ensure in such applications that a component or a module is correctly integrated into the circuit, it can be provided that the module, in particular the carrier body of the module, has a preferred insertion direction and is designed in such a way that contact is made between the contact elements of the contact units and the module contact elements of the module is only possible in one way.

According to the invention, an overall arrangement is also provided comprising at least one arrangement according to the invention with a module according to the invention and at least one central control unit, the central control unit being connected directly or indirectly to the signal input of the at least one module, which is electrically connected to the first contact unit of the connecting line, and optionally directly or indirectly is connected to the signal output of a module and / or at least one further connection line, in particular a data bus line, electrically connected to the last arranged contact unit of the connection line, and - the central control unit being designed to transmit data to the contact unit of the Connection line electrically connected signal input of a module and possibly to the at least one further connection line, in particular the data bus line, to be transmitted and / or given If necessary, to read data from the signal output of a module that is electrically connected to the last contact unit of the connecting line.

Such an overall arrangement advantageously ensures that all modules can be controlled by the central control unit via a single connection line and, if necessary, additionally via one or more further connection lines, i.e. for example data to be processed and, if necessary, control signals

can be transmitted from the central control unit to the modules.

the control unit is designed to provide and maintain an activation signal at its signal output upon detection of the end of the data transmission directed to it, and to temporarily store the data transmitted to it, possibly further processed, and

- The central control unit is designed to send a deactivation signal to synchronize the output or the other tasks to be performed for each control unit after the data transmission has ended to the at least one control unit, in particular all control units, on the connection line or at least one further connection line, in particular the data bus line put,

- the control unit being designed in each case to set a deactivation signal at its signal output immediately upon detection of a deactivation signal at its signal input and to display the temporarily stored data or

carry out the other tasks to be performed.

A particularly simple possibility of combining an overall arrangement according to the invention with another data transmission method can be achieved if the at least one control unit is designed to

- Signals pending at its signal input, possibly triggered with a predetermined time delay by an external clock signal pending on a further connecting line and / or based on predetermined binary or non-binary signal codings, to the signal output changed or unchanged to forward, store, process or otherwise To prepare or carry out actions based on the signals, and

- if no signal change is detected at the signal input or at a clock input in a given period of time or if a specific, binary or non-binary signal code is detected at the signal input, at a specific point in time, in particular given by an external one, on the connection line or the at least one further connecting line, in particular the data bus line, to process and store the latch signal applied to the signal input or taken from the signal and possibly temporarily stored, to carry out actions dependent on the signals or one or more light sources, in particular LEDs, as a function these signals to control or to

dim.

When using the daisy chain process, data may be transmitted over the data line at very high frequencies. If, for example, such a daisy chain method is used in combination with a connection line, this can lead, especially in extensive applications with long data lines, to the fact that the data signal is more susceptible to due to the many contact transitions that such a connection line entails electromagnetic interference, and possibly the signal is falsified or weakened by possible contact resistances.

To counteract these potential disadvantages, the invention provides a data transmission method for transmitting data between a number of participants in a master-slave data bus system, at least one central control unit being provided as a master, at least one control unit, in particular a control unit arranged on a module , is provided as a slave, - a signal input of the first control unit is electrically connected to a signal output of the at least one control unit via a connection line, in particular a connection line according to the invention, and then the signal input of a respective subsequent control unit is electrically conductive with the signal output of the respective preceding control unit, is connected in particular by a connecting line according to the invention, - all control units additionally at least via a further connecting line, in particular a data bus line, to the central n control unit are connected, - in an initial state at the signal output of the individual control units, a predetermined inactive signal is applied, and - the control unit - when an activation signal is applied to the signal input, which is available via the at least one further connection line, in particular the data bus line, or the connection line processed data and / or related actions and / or prepared, in particular dims or otherwise controls a lamp of a module, - the end of the transmitted data and / or the amount of transmitted data either - from the transmitted data and / or by detecting a Deactivation signal determined at its signal input, or

- determined by determining the data volume transmitted since the last activation signal and by comparing this determined data volume with a predetermined amount of data stored in a control unit, and - providing a further activation signal at its signal output when the end of the data transmission directed to the control unit is recognized.

Such a data transmission method can be used in particular in combination with a connecting line according to the invention and used to transmit data to, for example, a control unit according to the invention or a module according to the invention, without these having to be identified by an address themselves or having to be configured individually before use. In the case of an application with a connecting line, the disadvantages described above are avoided, since this data transmission method does not transmit high frequencies via the connecting line. However, the advantages described above can be used.

An approximate synchronization, which can be used for the approximately simultaneous execution of further actions on different users of the data transmission system, can be provided if - the at least one central control unit after the data transmission to the at least one control unit has ended - on either at least one further connecting line, in particular the data bus line, sets a deactivation signal to synchronize the output or the other tasks to be performed for each control unit, or - sets a deactivation signal to synchronize the output or the other tasks to be performed for each control unit on the connection line on which the activation signal is transmitted, and - The at least one control unit - upon detection of the end of the data transmission directed to it, provides and maintains an activation signal at its signal output, and the data transmitted to it, ge possibly further processed, temporarily stored, or actions prepared depending on the transmitted data, and / or - when a deactivation signal is detected at its signal input, a deactivation signal is immediately set at its signal output and the

processes or displays cached data, in particular implements actions that have already been prepared or performs other tasks to be carried out.

To improve the reduction of overshoots in a long data bus line, it can be provided that the at least one control unit recognizes from the data transmitted to it and / or from a further signal transmitted on at least one further connecting line, in particular a data bus line, whether it is the control unit that was last arranged a connecting line, in particular a connecting line according to the invention, and

depending on this, if necessary, takes action, in particular an electronic module for terminating an on a further connecting line, preferably

a data bus line, transmitted clock signal, activated or deactivated.

In order to detect whether the data was correctly transmitted and there was no error, for example in the contact, it can be provided that a respective control unit recognizes that it is the last control unit and detects whether it has received the data correctly has, in this case sends a corresponding signal or a corresponding data coding back to the central control unit via its signal output.

Further advantages and configurations of the invention emerge from the description and the accompanying drawings.

The invention is shown schematically in the following on the basis of particularly advantageous, but not restrictive, exemplary embodiments in the drawings and is described by way of example with reference to the drawings.

The following shows schematically:

1 shows a first embodiment of a connecting line according to the invention,

1a shows a first embodiment of a module according to the invention,

2 shows a first embodiment of an arrangement according to the invention,

3 shows a connecting line according to the invention, arranged in a profile with four further, uninterruptible connecting lines,

4 shows a second exemplary embodiment of an arrangement according to the invention with a connecting line and a module,

5 shows a second embodiment of a module according to the invention,

6 shows a further view of the module from FIG. 5,

7 shows a circuit example of an overall arrangement according to the invention, or a method according to the invention for data transmission,

FIG. 8 shows a schematic representation of the data transmitted and displayed over time in the circuit example from FIG. 7.

In Fig. 1, a first embodiment of a connecting line according to the invention is shown schematically. As can be seen in Fig. 1, the connecting line 100 comprises a number of n contact units 10a, ..., 10n, each of the n contact units 10a, ..., 10n consisting of a resilient element 11a, ..., 11n and one Contact element 12a, ..., 12n is formed. However, it is by no means absolutely necessary that a contact unit 10a, ..., 10n has exactly one resilient element 11a, ..., 11n and exactly one contact element 12a, ..., 12n. As an alternative to this, a contact unit 10a, ..., 10n can, for example, also have several resilient elements 11a, ..., 11n and / or several contact elements 12a, ..., 12n.

The resilient elements 11a,..., 11n are each fastened with one end 111a,..., 111n on a common, electrically non-conductive, substrate 2. The resilient elements 11a, ..., 11n are arranged next to one another and are aligned. At the other end 112a, ..., 112n of each resilient element 11a, ..., 11n, i.e. a resilient contact element 12a,..., 12n is arranged in each case at that end which lies opposite the substrate 2. However, it is by no means absolutely necessary that the ends 111a,..., 111n of the resilient elements 11a,..., 11n opposite the contact elements 12a,..., 12n are fastened to the substrate 2. As an alternative to this, it is also possible, for example, to fasten it laterally on the spring body.

The resilient elements 11a, ..., 11n are arranged on the substrate 2 in such a way that, in the case of mutually adjacent contact units 10a, ..., 10n, the contact elements 12a, ..., 12n located on them contact each other in an electrically conductive manner when the respective resilient elements 11a, ..., 11n are exposed to the same spring load. This means, for example, that in the connection line 100 shown in FIG. 1, the contact elements 12a, ..., 12n of all contact units 1083, ..., 10n are in electrically conductive contact with one another when the resilient elements 11a, ..., 11n For example, they are not subjected to pressure and are therefore not subjected to any spring loading, so that current and data between the contact units 10a,..., 10n

can flow or be transmitted.

The spring travel of the resilient elements 11a, ..., 11n is selected in one direction, normal to the substrate 2 in the exemplary embodiment in FIG. 1, in such a way that the resilient elements 11a, ..., 11n, by applying pressure or releasing pressure from a respective contact unit 10 are pressurized to the extent that the electrically conductive connection between each adjacent contact elements 12a, ..., 12n

is interrupted.

If in the exemplary embodiment in FIG. 1, for example, a pressure force is exerted normally in the direction of the common base 2 on one of the contact units 10a, ..., 10n or their resilient element 11a, ..., 11n, this is in the direction of the common base 2 is pressed together and the associated contact element 12 loses contact with the respectively adjacent contact elements 12a,..., 12n, so that the electrical current flow in this area of the connecting line 100 is interrupted.

As can be seen in Fig. 1, the resilient elements 11a, ..., 11n are designed as compression springs, which are spiral springs in the embodiment shown. As an alternative to this, however, other springs known from the prior art can also be used as resilient elements 11a,..., 11n.

The common ground 2 is electrically isolated from the contact elements 12a, ..., 12n, so that an electrically conductive connection between the contact elements 12a, ..., 12n only exists when they are in direct contact.

However, it is by no means absolutely necessary for the contact units 10a,..., 10n to be in direct contact with one another. As an alternative to this, one or more arbitrary other electrically conductive elements that are not designed to be resilient can, for example, also optionally, between two contact units 10a. ..., 10n with resilient elements 11a, ..., 11n or their contact elements 12a, ..., 12n. In this case, such non-resilient, electrically conductive elements are in contact with both contact elements 12a, ..., 12n, so that the contact elements 12a, ..., 12n are integrated into an electrically conductive connection when the resilient elements 11a,. .., 11n are exposed to a predetermined spring load.

Such additional, non-resilient elements are optionally also opposite

electrically insulated from the substrate 2, so that an electrically conductive connection only exists when the contact units 10a, ..., 10n are not subjected to pressure.

The contact elements 12a, ..., 12n are hat-shaped. In this context, hat-shaped is understood to mean that the contact elements 12a,..., 12n each have at least one straight part 121a,..., 121n as well as two with the straight part

Part 1213, ..., 121n connected side parts 122a, ..., 122n, 123a, ..., 123n.

In the exemplary embodiment in FIG. 1, the contact elements 12a, ..., 12n comprise resilient components which are arranged in the direction of the respective adjacent contact elements 12a, ..., 12n and are designed such that between respective adjacent contact elements 12a, ... , 12n, a clamping effect prevails. This clamping effect is due to the spring force caused by the resilient components that prevails between adjacent contact elements 12a, ..., 12m and the respective adjacent contact elements 12a, ..., 12n are in electrically conductive contact.

In the exemplary embodiment in FIG. 1, the contact elements 12a, ..., 12n are made of bent metal sheets, namely, for. B. copper-beryllium sheets formed. The metal sheets each have a straight part 121a, ..., 121m which runs normal to the direction of pressure under which the resilient element 11a, ..., 11n is loaded. Furthermore, the metal sheets each have two side parts 122a, ..., 122n, 123a, ..., 123n connected to the straight part 121a, ..., 121n. The side parts 122a, ..., 122n, 123a, ..., 123n are each curved, i.e. designed in a semi-hollow cylindrical shape. As a result of this shape, a spring action is created between adjacent side parts 122a, ..., 122n, 123a, ..., 123n of respective adjacent contact elements 12a, ..., 12n that are in contact with one another, normal to the direction of pressure on the resilient element 11a, ... , 11n each acting pressure force.

In the embodiment in Fig. 1, the contact elements 12a, ..., 12n are each made in one piece, i.e. bent from a continuous sheet of metal. As an alternative to this, the contact elements 12a, ..., 12n can also be made by welding or by producing another material connection known from the prior art of the straight part 121a, ..., 121n to the respective side parts 122a, ... , 122n, 123a, ..., 123n.

A connecting line 100 according to the invention, as shown in cross section, for example, in FIG. 1, can also be arranged in a profile 3 in order to be able to arrange the connecting line 100, for example, in a power rail. Such a connecting line 100 arranged in a profile 3 is shown in FIG. 3.

The profile 3 is U-shaped in FIG. 3, but can also have a different shape. The resilient elements 11a, ..., 11n are supported on one side of the profile 3 and the contact elements 12a, ..., 12n are arranged on element carriers 32. When the resilient elements 11a,..., 11n are subjected to pressure, the element carriers 32 are guided on two opposite sides 31a, 31b of the profile 3. In the exemplary embodiment in FIG. 3, these are the two other, mutually opposite sides of the U-shaped profile 3.

In the exemplary embodiment in FIG. 3, the profile 3 has extensions on the side on which the resilient elements 11a, ..., 11n are supported, which are used to fix the profile 3 in a further profile 4, for example in a power rail . The resilient elements 11a,..., 11n of the connecting line 100 are supported on one side of the further profile 4.

In the exemplary embodiment in FIG. 3, four additional, continuous, uninterruptible connecting lines 20a, ..., 20d are arranged on the profile 3. For this purpose, the profile 3, as in the exemplary embodiment shown, can have guide channels for the further uninterruptible connecting lines 20a,..., 20d. The further connecting lines 20a,..., 20d can be, for example, a data bus or voltage supply line, a line serving as ground or a clock line.

2 shows an exemplary embodiment of an arrangement 200 according to the invention with a connecting line 100 and two modules 300. Any number of modules 300 can be combined with the connecting line 100. A detailed view of such a module 300 is shown in FIG. 1a. In the exemplary embodiments in FIG. 1 a and FIG. 2, the module 300 comprises a projection 33 and two module contact elements 34a, 34b.

Such a module 300 can be used at any point within a connecting line 100, the projection 33 being the respective contact unit 10, which is located at the point of the connecting line 100 at which the module 300 is arranged, by being pressurized by the other contact units 10a, ..., 10n of the connecting line 100 separates. In this way, the electrical connection between the respective contact unit 10 and the contact units 10a,..., 10n adjacent thereto is interrupted. The module contact elements 34a, 34b are in this case with the contact elements 12a, ..., 12n of the respective

relevant contact unit 10 adjacent contact units 10a, ..., 10n conductive

connected.

If, in the exemplary embodiment in FIG. 2, pressure is applied to the module 300 that is arranged at the position of the contact unit 10c, the resilient element 11c is pressed in the direction of the common base 2 and the electrical connection to the Acontact units 10b, 10d is interrupted. The module contact elements 34a, 34b are connected to the contact elements 12b, 12d so that electrical current flows through the module 300 instead of the contact unit 10c.

FIG. 4 shows a second exemplary embodiment of an arrangement 200 according to the invention in the form of a sectional illustration. The structure of the connecting line 100 corresponds to the structure shown in FIG. 3 and the connecting line 100, as in FIG. 3, is arranged in a profile 3. In the second embodiment, a module 301 is pressurized with a further resilient element 35 in the direction opposite to the pressure direction of the resilient elements 11a,..., 11n of the contact units 10a,..., 10n. In the exemplary embodiment shown, the further resilient element 35 is a further compression spring, specifically a spiral spring; however, another spring known from the prior art can also be used as a further resilient element 35.

In FIG. 4, the resilient elements 11a,..., 11n of the connecting line 100 are supported on one side of a profile 3 and the contact elements 12a,..., 12n are each arranged in an element carrier 32. The profile 3 is arranged in a further profile 4, for example in a busbar, and the resilient elements 11a,..., 11n of the connecting line 100 are supported on one side of the further profile 4. The profile 3 and the further profile 4 are each U-shaped in the embodiment. The further resilient element 35 of the module 301 is supported on the opposite side of the further profile 4. The projection 33 of the module 301 contacts the element carrier 32 of a respective contact unit 10 concerned.

In the exemplary embodiments of a module 300, 301 shown in FIGS. 1a, 2 and 4, the module 300 or a carrier body 37 of the module 301 has a preferred insertion direction and is designed in such a way that contact is made between the contact elements 12a, ..., 12n of the contact units 10a, ..., 10n and the module contact elements 34a, 34b is only possible in one way. This means,

that this preferred insertion direction specifies a direction in which the electrical current or data flow via the module 300, 301. If the module 300, 301 is inserted incorrectly, no data flow is possible, or incorrect insertion is not possible at all.

FIGS. 5 and 6 show in detail a second exemplary embodiment of a module 301 according to the invention, which can be used in an arrangement 200 shown in FIG. 4. The module 301 has a contacting element 36 on which the projection 33 and the module contact elements 34a, 34b are arranged. The contacting element 36 is guided by a carrier body 37 and the further resilient element 35 is arranged between the carrier body 37 and the contacting element 36.

The module 301 further comprises a board 5 carried or held by the carrier body 37, as can be seen in FIG. 4. The circuit board 5 is connected in an electrically conductive manner to two contacting pins 38a, 38b, which is shown in FIG. 6. The carrier body 37 has a U-shaped cross section with a longer and a shorter leg. The circuit board 5 is arranged on the longer leg of the carrier body 37. The contacting pins 38a, 38b are arranged between the board 5 and the shorter leg of the carrier body 37 in such a way that the contacting pins 38a, 38b can be connected to the module contact elements 34a, 34b of the contacting element 36 in an electrically conductive manner. In the exemplary embodiment in FIG. 6, the contacting pins 38a, 380 hold the module contact elements 34a, 34b back against the pressure exerted by the further resilient element 35.

As can be seen in FIGS. 5 and 6, the module contact elements 34a, 34b each comprise an extension 340a, 340b which is in electrically conductive contact with the contact elements 12a, ..., 12n, which are adjacent to a relevant contact unit 10 when the relevant contact unit 10 is subjected to pressure from the projection 33 or from the further resilient element 35 and its resilient element 11 is pushed through. The contact elements 12a,..., 12n of the contact units 10a,..., 10n adjacent to the relevant, pressed contact unit 10 serve as a signal output or signal input into or out of the connecting line 100.

As can be seen in FIG. 4, a module 301 can also have a number of further contact elements 39a,..., 39d, which are connected to the further connecting lines

20a, ..., 20d are in contact or establish an electrically conductive contact between the board 5 and the further connecting lines 20a, ..., 20d.

The modules 300, 301 shown in FIGS. 1a, 2, 4, 5 and 6 each have at least one signal input 71 and at least one signal output 72, the signal input 71 being connected to one of the contact elements 12a,..., 12n of the connecting line 100 and the signal output 72 is connected to another contact element 12a, ..., 12n of the connecting line 100.

Furthermore, the modules 300, 301 each have a control unit 7 which is connected to the signal input 71 and to the signal output 72 as well as to at least one further connecting line 20a,..., 20d. This further connecting line 20a,..., 20d can in particular be a data bus line. If necessary, the control unit 7 is also connected to, for example, a further connection line for the voltage supply and / or a further connection line serving as ground. Furthermore, a module 300, 301 can include at least one electrically controllable lighting means 6, for example an LED, connected downstream of the control unit 7, as shown in FIGS. 1 a and 2.

7 shows a circuit example of an overall arrangement 400 according to the invention with a connecting line 100, a further connecting line 20a, a number of n modules 301a,..., 301n, and a central control unit 8, the data communication between the central control unit 8 and the n Modules 301a, ..., 301n can take place by means of a data transmission method according to the invention, which will be discussed in more detail below. Each of the modules 301a, ..., 301n has a control unit 7a, ..., / n and a signal output 71a, ..., 7 / 1n. In addition, the modules 301a, ..., 301n-1 have a signal output 72a, ..., 7 / 2n-1. The module 301n arranged last does not have a signal output 72n in the exemplary embodiment shown, but a signal output 72n can optionally also be arranged on the module 301n.

Another input 73a,..., 73n is also optional and an overall arrangement 400 can also include only one connecting line 100. In the exemplary embodiment shown, three lighting means 6, for example light-emitting diodes, are connected to each of the modules 301a,..., 301n. Alternatively, any other number of illuminants 6 can be connected to a module 301a,..., 301n. In the exemplary embodiment shown in FIG. 7, the modules 301a,..., 301n also have a memory

74a, ... 74n, but such a memory 74a, ..., 74n is by no means absolutely necessary.

The modules 301a, ..., 301n are integrated in a connection line 100 and the further input 73a, ..., / 3n is each connected to a further connection line 20a, which in the exemplary embodiment shown is a data bus line. In the exemplary embodiment shown in FIG. 7, a central control unit 8 is also provided, the first data output SSO1 of which is connected to the first contact unit 10a of the connecting line 100 or the signal input electrically contacted with it. Thus, data to be transmitted first reach the signal input 71a of the module 301a arranged first. The signal output 72a of the first module 301a is connected to the signal input 71b of the second module 301b, the signal output 72b of the second module 301b to the signal input 71c of the third module 301c, etc.

The central control unit 8 also has a second data output SSO2, which is connected to a data bus line 20a and is fed to all control units 7a, ..., 7N.

FIG. 8 shows a schematic time diagram of the data transmitted and displayed in the overall arrangement 400 from FIG. 7, or the data transmission method according to the invention. In an initial state, the central control unit 8 transmits an inactive signal to the first control unit 7a via the connecting line 100, which signal is present at the signal output 72a of the respective control unit 7a. In this way, this inactive signal is also present at the signal input 71b of the subsequent control unit 7b and is sent by the respective control unit 7b, ..., 7m to their

Signal output 72b, ..., 72n forwarded if it is available.

For example, in order to trigger the emission of light signals, the central control unit 8 transmits a first activation signal IC1 to the signal input 71a of the control unit 7a. The control unit 7a detects the presence of this activation signal IC1 and processes data D1 which are received from the central control unit 8 via the further connecting line 20a, i.e. the data bus line can be made available to the signal input 71a of the control unit 7a. As an alternative to this, the data D1 can also be made available from the central control unit 8 via the connection line 100 to the signal input 71a of the control unit 7a.

The control unit 7a takes, for example, actions relating to the data D1 to be processed or prepares them. In this case, for example, signals with which lighting means 6 are activated or deactivated are temporarily stored.

In the exemplary embodiment in FIG. 7, the control unit 7a detects the end of the transmitted data D1. This can be done, for example, by recognizing from the transmitted data and / or by detecting a deactivation signal L present at its signal input 71a, which the central control unit 8 also transmits via the connecting line 100.

After the end of the data transmission to the at least one control unit 7a, ..., 7N, the central control unit 8 can, for example, on the further connecting line 20a, i. the data bus line, such a deactivation signal L for synchronizing the output or the other tasks to be carried out for each control unit 7a, ...,

7n put.

Alternatively, the central control unit 8 can also set such a deactivation signal L on the connecting line 100, via which the activation signal IC1, S1, S2 is transmitted, for synchronizing the output or the other tasks to be performed for each control unit 7a, ..., 7n.

As an alternative to e.g. the detection of a deactivation signal L, the respective control unit 7a, ..., / M can also determine the volume of the data already transmitted to it since the last activation signal was present and by comparing this determined volume with a predetermined amount of data stored in a control unit

7a, ..., / M is stored in order to determine the end of the data transmission.

If the signal arriving at the respective control unit 7a, ..., / n has a rising edge, for example, it is recognized by the control unit 7a, ..., / n as an activation signal and the transmitted data are processed. However, if the incoming signal has a falling edge, it is recognized as a synchronization signal and the actions relating to the transmitted data are carried out.

The control units 7a, ..., 7n can optionally transfer the data D1, D1, D2

further process, temporarily store, or prepare actions depending on the transmitted data D1, D1, D2.

The respective control units 7a, ..., / n can optionally set a deactivation signal at their signal output 72a, ..., / 72n immediately upon detection of a deactivation signal L at their signal input 71a, ..., 71n and the

further process or display temporarily stored data D1, D2, D3, in particular implement actions that have already been prepared or other tasks to be performed

To run.

If the control unit 7a in the exemplary embodiment in FIG. 8 has determined the end of the data transmission directed to it, it provides a second activation signal S1 at its signal output 72a and from then on ignores the data present on the further connection line 20a or the connection line 100.

In the exemplary embodiment in FIG. 8, the central control unit 8 also transmits further data D2, D3 for the subsequent modules 301b,..., 301n to the signal input 71a of the module 301a arranged first.

Like the first control unit 7a, the second control unit 7b is also designed to recognize an activation signal applied to its signal input 71b and then to process the data present on the further connecting line as data directed to it. If the control units 7b detects the end of the data transmission directed to them, it activates the third control unit following it by changing its signal output and henceforth ignores the data arriving on the further connecting line.

In the exemplary embodiment shown in FIG. 7, the modules 301a, ..., 301n store the data D1, D2, D3 transmitted to them in a memory 74a, ..., 74n. Before being stored, the data D1, D2, D3 transmitted to the relevant module 301a,..., 301n are optionally processed further by the control unit 7a,..., 7n.

In order to control the modules 301a, ..., 301m for the almost simultaneous delivery of signals, the central control unit 8 transmits a synchronization signal L in the form of a falling edge to the control units 7a, ..., / n after the data transmission on the connecting line 100. This synchronization signal L is used to synchronize the output of the signals or the other tasks to be performed for each of the control units 7a, ..., 7n.

If one of the control units 7a, ..., / n detects the synchronization signal, for example in the form of a specific, binary or non-binary signal code at its signal input 71a, ..., 7 / 1n, it sets a corresponding synchronization signal at its signal output 72a, ..., 72n and displays the cached data D1, D2, D3 or executes the tasks to be performed, ie in the embodiment in Fig. 7, lighting means 6 are e.g. turned on.

Optionally, a control unit 7a, ..., 7n can have data D1, D2, D3 present at its signal input 71a, ..., 71n, possibly triggered with a predefined time delay by an external trigger signal present on the further connecting line 20a, ..., 20d and / or on the basis of predetermined binary or non-binary signal codings, forward to the signal output 72a, ..., 72m. The control unit 7a,..., / N can pass on the data changed or unchanged, store, process or prepare or carry out other actions on the basis of the data D1, D2, D3 present.

If the control unit 7a, ..., / n detects no signal change at its signal input 71a, ..., 71m or at its clock input 73a, ..., 73n, or is present at the signal input 71a, ... , 7 / 1n a specified code in binary or non-binary signal coding, the control unit 7a, ..., / n can be designed to process and store signals that are present or taken from the signal and, if necessary, temporarily stored, to carry out actions dependent on the signals or to control or dim one or more illuminants (6), in particular LEDs, as a function of these signals.

Optionally, a respective control unit 7a,..., 7n can also be designed to use the data D1, D2, D3 transmitted to it and / or through another on at least one further connecting line 20a, ..., 20d, in particular the data bus line , transmitted signal to recognize whether it is the control unit 7a,..., 7N of the connecting line 100 arranged last.

In the event that the respective control unit 7a, ..., 7 / n determines that it is actually the most recently arranged control unit, the control unit 7a, ..., 7n can take actions, such as an electronic assembly for the termination of a activate or deactivate further connecting line 20a, ..., 20d, preferably a data bus line, transmitted clock signal CLK. In this case, the relevant control unit 7a, ..., / n, can optionally also check whether it has corrected the data

has received, and a corresponding signal or a corresponding data coding via its signal output 72a, ..., 72n to the central control unit 8

to transfer.

Optionally, the central control unit 8 can also be connected to the contact unit 10n arranged last or its signal output 72n. In the event that the central control unit 8 is also connected to the signal output 72n of the module 301n arranged last, the central control unit 8 reads data which are made available at the signal output 72n of the module 301n arranged last. This has the additional advantage that the central control unit 8 can immediately detect the end of the data processing or output when a related signal is present at the signal output 72n of the module 301n arranged last.

As an alternative to the data transmission method according to the invention or to the configuration of the overall arrangement 400 described in FIG. 7, it can also do without a further connecting line 20a or data bus line. In this case, the control units 7a, ..., / n each have only one signal input 71a, ..., 71n and possibly a signal output 72a, ..., 72n and both the data to be displayed and the signal processing or signal processing. Signals triggering the display are transmitted via the connecting line 100. In this case, the relevant control unit processes the signals it receives.

To ensure a sufficient voltage supply, the modules 301a, ..., 301n and the central control unit 8 can also be connected to one, two or more further connecting lines with different voltage levels for the voltage supply

be connected.

Claims (1)

1. Connecting line (100) comprising a number of resilient elements (11; 11a, ..., 11n), each resilient element (11; 11a, ..., 11m), in particular at one end (112a, ... , 112n), at least one contact element (12; 12a, ..., 12n), - wherein at least one resilient element (11; 11a, ..., 11m) and at least one contact element (12; 12a, ..., 12n) together each form a contact unit (10; 10a, ..., 10n), - The resilient elements (11; 11a, ..., 11n) are arranged such that the contact elements (12; 12a, ..., 12n) located on them are integrated into an electrically conductive connection when the resilient elements ( 11; 11a, ..., 11n) are exposed to a given spring load, - wherein the spring travel of the resilient elements (11; 11a, ..., 11m) is selected in at least one direction in such a way that the respective resilient elements (10; 10a, ..., 10n) by applying or releasing pressure from at least one contact unit (10; 10a, ..., 10n) 11; 11a, ..., 11n) are pressurized or relieved of pressure to such an extent that the electrically conductive connection is interrupted. 2. Connecting line (100) according to claim 1, characterized in that a number of resilient elements (11; 11a, ..., 11n) arranged next to one another are provided, - wherein the resilient elements (11; 11a, ..., 11m) are arranged in such a way that in the case of respectively adjacent contact units (10; 10a, ..., 10n) the contact elements (12; 12a, ..., located on them) 12n) are in electrically conductive contact with one another when the resilient elements (11; 11a, ..., 11n) are exposed to the same spring load, - wherein when a contact unit (10; 10a, ..., 10n) is pressurized or released from pressure, the resilient elements (11; 11a, ..., 11n) are pressurized or released to such an extent that the electrically conductive connection between the respective adjacent contact elements (12; 12a, ..., 12n) is interrupted. 3. Connecting line (100) according to claim 1 or 2, characterized in that the resilient elements (11; 11a, ..., 11m), in particular with the contact elements (12; 12a, ..., 12n) opposite ends ( 111a, ..., 111n), are attached to a base (2) or are held and / or carried by this base (2), in particular are secured against slipping or falling out by the base (2). 4. Connecting line (100) according to one of claims 1 to 3, characterized in that the substrate (2) is electrically isolated from the respective contact element (12; 12a, ..., 12n), so that an electrical connection via the contact elements ( 12; 12a, ..., 12n) only exists if they are integrated into the electrically conductive connection, in particular in direct contact with one another. 5. Connecting line (100) according to one of the preceding claims, characterized in that the resilient elements (11; 11a, ..., 11n) are designed as compression springs, in particular as spiral springs. 6. connecting line (100) according to any one of the preceding claims, characterized in that the contact elements (12; 12a, ..., 12n) are resilient. 7. Connecting line (100) according to one of the preceding claims, characterized in that the contact elements (12; 12a, ..., 12n) are hat-shaped, - The contact elements (12; 12a, ..., 12n) having resilient components, - wherein the resilient components are designed in such a way that when a predetermined application of pressure prevails, a clamping effect prevails due to the resulting spring forces and the contact elements (12; 12a, ..., 12m) are so integrated into an electrically conductive connection, in particular that the resilient components are arranged in the direction of the respective adjacent contact elements (12; 12a, ..., 12n) and are designed in such a way that between respective adjacent contact elements (12; 12a, ..., 12n), provided they are subjected to the same pressure are, a clamping effect prevails due to the resulting spring forces and the respective adjacent contact elements (12; 12a, ..., 12n) are in electrically conductive contact. 8. Connecting line (100) according to one of the preceding claims, characterized in that the resilient elements (11; 11a, ..., 11n) are arranged in alignment. 9. connecting line (100) according to any one of the preceding claims, characterized in that the contact elements (12; 12a, ..., 12n) are formed from bent metal sheets, in particular copper-beryllium sheets, wherein the metal sheets each have at least one straight part (121a, ..., 121n) which is normal to the direction of pressure of the respective resilient element acting compressive force runs, and 10. Connecting line (100) according to one of the preceding claims, characterized in that the contact elements (12; 12a, ..., 12n) are made in one piece, in particular are bent from a metal sheet. 11. Connecting line (100) according to one of the preceding claims, characterized in that the connecting line (100) is arranged in an, in particular U-shaped, profile (3), wherein the resilient elements (11; 11a, ..., 11m ) the contact units (10; 10a, ..., 10n) are supported on one side of the profile (3) and the contact elements (12; 12a, ..., 12n) are arranged in or on element carriers (32), the Element carriers (32) are guided on two opposite sides (31a, 31b) of the profile (3), in particular the two other opposite sides of the U-shaped profile. 12. Connecting line (100) according to claim 11, characterized in that a number of further continuous uninterruptible connecting lines (20a, ..., 20d) are arranged on the profile (3). 13. Module (300, 301), in particular for use with a connecting line (100) according to one of claims 1 to 12, comprising - At least one contacting element (36) on which one, in particular electrically non-conductive, projection (33) and at least one module contact element (34a; 34b), in particular two module contact elements (34a, 34b), are arranged, - A carrier body (37) from which the at least one contacting element (36) is guided, a further resilient element (35) optionally being arranged between the carrier body (37) and the contacting element (36), and - At least one board (5) carried and / or held by the carrier body (37), 15. Module (300, 301) according to claim 13 or 14, characterized by a number of further contact elements (39a, ..., 39d) which are designed to be contacted with further connecting lines (20a, ..., 20d) will. 16. Module (300, 301) according to one of claims 13 to 15, characterized by at least one signal input (71a, ..., 71n) and at least one signal output (72a, ..., / 2n), wherein the signal input (71a , ..., 7 / 1n) is connected to at least one of the contact elements (12; 12a, ..., 12n) and the signal output (72a, ..., 72n) is connected to at least one other contact element (12; 12a,. .., 12n) is connected. 17. Module (300, 301) according to one of claims 13 to 16, characterized by at least one control unit (7a, ..., 7n) connected to at least one signal input (71a, ..., 71n) and at least one signal output (72a, ..., / 2n) and optionally to one or more further connecting lines (20a, ..., 20d), in particular a data bus line, and optionally to a further connecting line (20a, ..., 20d) for the voltage supply and / or another connecting line (20a, ..., 20d) serving as ground is connected, - wherein in an initial state at the signal output (72a, ..., 72n) of the control unit (7a, ..., 7 / n) is a predetermined inactive signal, and - The control unit (7a, ..., 7n) is designed to - when an activation signal (IC1, S1, S2) is present at the signal input (71a, ..., 71n), which is transmitted via the connecting line (100) or at least one further connecting line (20a, ..., 20d), in particular the data bus line, process the data made available (D1, D2, D3) and take or prepare related actions, in particular to activate and deactivate light sources (6), - the end of the transmitted data (D1, D2, D3) and / or the size of the transmitted data (D1, D2, D3) from the transmitted data (D1, D2, D3) and / or by recognizing a deactivation signal at their signal input ( 71a, ..., 71n), and - when the end of the data transmission directed to the control unit (7a, ..., / 7n) is detected, a further activation signal (S1, S2) is provided at its signal output (72a, ..., / 2n). 18. Module (300, 301) according to one of claims 13 to 17, characterized by at least one electrically controllable lighting means (6), in particular an LED, connected downstream of the control unit (7a, ..., 7n). 19. Arrangement (200) comprising a connecting line (100) according to one of claims 1 to 12 and at least one module (300, 301) according to one of claims 13 to 18, - wherein the, in particular electrically non-conductive, projection (33) is designed to a respective contact unit (10; 10a, ..., 10n) by applying pressure from the other contact units (10; 10a, ..., 10n) disconnect and thus disconnect the electrical connection to the respective contact units (10; 10a, ..., 10n) adjacent to the respective contact unit (10; 10a, ..., 10n), and - wherein the at least one module contact element (34a, 34b), in particular the two module contact elements (34a, 34b), with at least one contact element (12; 12a, ..., 12n) one to the respective contact unit (10; 10a, ..., 10n) adjacent contact unit (10; 10a, ..., 10n) is conductively connected. 20. Arrangement (200) according to claim 19, characterized in that the module (300, 301) in the direction of pressure of the resilient elements (11; 11a, ..., 11n) of the contact units (10; 10a, ..., 10n) opposite direction with a further resilient element (35), in particular a further compression spring, can be pressurized. 21. Arrangement (200) according to claim 19 or 20, characterized in that the resilient elements (11; 11a, ..., 11n) of the connecting line (100) on one side of a further profile (4), in particular a further u- shaped profile, are supported and the further resilient element (35) of the module (300, 301) is supported on the opposite side of the further profile (4). 22. Arrangement (200) according to one of claims 19 to 21, characterized in that the module (300, 301), in particular the carrier body (37) of the module (300, 301), has a preferred insertion direction and is designed such that a Contact between the contact elements (12; 12a, ..., 12n) of the contact units (10; 10a, ..., 10n) and the module contact elements (34a, 34b) of the module (300, 301) is only possible in one way is. 23. Overall arrangement (400) comprising at least one arrangement (200) according to one of claims 19 to 22, wherein the at least one module (300, 301) is designed in particular according to one of claims 13 to 18, and at least one central control unit (8) - The central control unit (8) being connected directly or indirectly to the signal input (71a, ..., 71n) of the at least one electrically connected to the first contact unit (10; 10a, ..., 10n) of the connecting line (100) Module (300, 301) and optionally directly or indirectly to the signal output (72a, ..., 72n) of a module (300) electrically connected to the last contact unit (10; 10a, ..., 10n) of the connecting line (100) , 301) and / or at least one further connection line (20a, ..., 20d), in particular a data bus line, is connected, and - the central control unit (8) being designed to transmit data to the contact unit arranged first (10; 10a, ..., 10n) of the connecting line (100) electrically connected signal input (71a, ..., 71n) of a module (300, 301) and optionally to the at least one further connecting line (20a, ..., 20d), in particular the data bus line , to transmit and / or, if necessary, data from the contact unit (10; 10a, ..., 10n) of the connecting line (100) electrically connected signal output (72a, ..., 72n) of a module (300, 301). 24. Overall arrangement (400) according to claim 23, characterized in that - That the control unit (7a, ..., 7n) is designed to provide an activation signal at its signal output (72a, ..., / 72n) upon detection of the end of the data transmission directed to it (D1, D2, D3) and to maintain, and to temporarily store the data (D1, D2, D3) transmitted to them, possibly further processed, and - that the central control unit (8) is designed to, after the data transmission to the at least one control unit (7a, ..., 7n), in particular all control units (7a, ..., 7n), on the connecting line (100) or at least one - wherein the control unit (7a, ..., 7n) is designed to send a deactivation signal to its signal output (72a, ..., 71m) when a deactivation signal (L) is detected at its signal input (71a, ..., 71m). 72n) and display the temporarily stored data (D1, D2, D3) or the others perform the tasks to be performed. 25. Overall arrangement (400) according to one of claims 23 or 24, characterized in that the at least one control unit (7a, ..., 7n) is designed to - Signals present at their signal input (71a, ..., 71n), possibly triggered with a predetermined time delay by an external clock signal applied to a further connecting line (20a, ..., 20d) and / or on the basis of predetermined binary or non-binary To forward signal codings to the signal output (72a, ..., 7 / 2n) changed or unchanged, to store, to process or to prepare or carry out other actions based on the signals, and - if no signal change is detected at the signal input (71a, ..., 71n) or at a clock input (73, ..., 7 / 3n) within a specified period or if a specific, binary or non-binary signal code is detected at the signal input (71a, ..., 71n), at a specific point in time, in particular predetermined by an external latch signal (L.) applied to the at least one further connecting line (20a, ..., 200), in particular the data bus line ), to process signals which are present at the signal input (71a, "., 71n) or are taken from the signal and, if necessary, temporarily stored, to carry out actions dependent on the signals, or one or more illuminants (6), in particular LEDs, as a function of these signals for controlling or dimming. 26. A method for transmitting data between a number of participants in a master-slave data bus system, at least one central control unit (8) being provided as a master, at least one control unit (7a, ..., 7n), in particular one on a module (300, 301) arranged control unit (7a, ..., 7n) according to claim 17 or 18, is provided as a slave, - a signal input (71a, ..., 71n) of the first control unit (7a) via a connecting line , in particular a connecting line (100) according to one of claims 1 to 12, with a signal output (SS01) of the at least one Control unit (8) is electrically connected and then in each case the signal input (71b, ..., 71n) of a respective subsequent control unit (7b, ..., 7n) with the signal output (72a, ..., / 2n) of the previous one Control unit (7a, ..., 7N) is connected in an electrically conductive manner, in particular by a connecting line (100) according to one of claims 1 to 12, - all control units (7a, ..., / 7n) additionally at least via one other Connecting line (20a, .., 20d), in particular a data bus line, are connected to the central control unit (8), - in an initial state at the signal output (72a, ..., 7 / 2n) of the individual control units (7a, .. ., 7n) a predetermined inactive signal is applied, and - wherein the control unit (7a, ..., 7n) - when an activation signal (IC1, S1, S2) is applied to the signal input (71a, ..., 71n), which via the at least one further connecting line (20a, ..., 200), in particular the data bus line, or the connecting line (100) to the The data (D1, D2, D3) provided are processed and / or actions relating to this are set and / or prepared, in particular a lighting means (6) of a module (300, 301) according to claim 18 dims or otherwise controls, - the end of the transmitted data ( D1, D2, D3) and / or the amount of transmitted data (D1, D2, D3) either - from the transmitted data (D1, D2, D3) and / or by recognizing a deactivation signal (L) at its signal input (71a, ..., 7 / 1n), or - by determining the data volume transmitted since the last activation signal and by comparing this determined data volume with a predetermined data volume which is stored in a control unit (7a, ..., 7n), and - upon detection of the end of the data transmission directed to the control unit (7a, ..., 7n), a further activation signal (S1, S2) is provided at its signal output (72a, ..., 72n). 27. The method according to claim 26, characterized in that the at least one central control unit (8), after the data transmission to the at least one control unit (7a, ..., 7n) has ended, - on either at least one further connecting line (20a, .. ., 200), in particular the data bus line, sets a deactivation signal (L) to synchronize the output or the further tasks to be performed for each control unit (7a, ..., 7n), or - sets a deactivation signal (L) on the connecting line (100) on which the activation signal (IC1, S1, S2) is transmitted to synchronize the output or the other tasks to be performed for each control unit (7a, ..., 7n), and - that the at least one control unit (7a, ..., 7n) - upon detection of the end of the data transmission (D1, D2, D3) directed to it, an activation signal (S1, S2) at its signal output (72a, ..., 72n ) provides and maintains, and the data (D1, D2, D3) transmitted to them, possibly further processed, temporarily stored, or actions prepared as a function of the transmitted data, and / or - when a deactivation signal (L) is detected at their signal input ( 71a, ..., / 1n) immediately sets a deactivation signal at their signal output (72a, ..., 72n) and further processes or displays the temporarily stored data (D1, D2, D3), in particular implements actions that have already been prepared or performs other tasks to be performed . 28. The method according to claim 26 or 27, characterized in that the at least one control unit (7a, ..., / n) from the data (D1, D2, D3) transmitted to it and / or by another on at least one further Connecting line (20a, ..., 20d), in particular a data bus line, detects whether the last control unit (7a, ..., / n) of a connecting line (100), in particular a connecting line (100) to one of the Claims 1 to 12, is and depending on this, if necessary, takes action, in particular an electronic module for terminating a clock signal (CLK) transmitted on a further connecting line (20a, ..., 20d), preferably a data bus line, activated or deactivated. 29. The method according to claim 28, characterized in that a respective control unit (7a, ..., 7n) which recognizes that it is the last control unit (7a, ..., / n) and recognizes whether it is the Has received data correctly, in this case sends back a corresponding signal or a corresponding data coding via its signal output (72a, ..., / 2n) to the central control unit (8).