CN103037596A - Intelligent electricity-saving control device for street lamp - Google Patents
Intelligent electricity-saving control device for street lamp Download PDFInfo
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- CN103037596A CN103037596A CN2013100034376A CN201310003437A CN103037596A CN 103037596 A CN103037596 A CN 103037596A CN 2013100034376 A CN2013100034376 A CN 2013100034376A CN 201310003437 A CN201310003437 A CN 201310003437A CN 103037596 A CN103037596 A CN 103037596A
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Abstract
The invention discloses an intelligent electricity-saving control device for a street lamp, which comprises a main circuit, a voltage signal sampling circuit, a current signal sampling circuit, a street lamp startup mode control circuit, a microcomputer time control switch control circuit, a direct-current voltage-stabilizing circuit, an electricity-saving gear conversion circuit, an overcurrent judgment and conversion circuit, a time control and automatic control conversion selection circuit and a function conversion driving circuit. The intelligent electricity-saving control device has the beneficial effects that not only can the lighting requirements of the street lamp be satisfied, but also the effects of filtering clutters, optimizing and adjusting power supply parameters, improving the electricity consumption efficiency and reducing the surplus or redundant electric energy can be realized; under the condition of ensuring that the street lamp normally works, the electric energy is saved through a time control or automatic control mode to a maximal degree, so that the expenditure of electric charge is reduced; and the electricity saving rate is controlled within the scope of 15-40 percent; and meanwhile, the intelligent electricity-saving control device also has the protection functions of restraining transient overpressure, surge current, short circuit, overload, overcurrent and the like, and the service life of the street lamp can be prolonged by above two times, so that the expenditure of maintenance expenses or replacement expenses is reduced.
Description
Technical field
The present invention relates to a kind of control circuit, relate in particular to a kind of intelligent control circuit for the operation of control electricity saving of road lamp.
Background technology
The development of China's city illumination grows out of nothing, from less to more, by the road lighting of simple function, develop into an important step that becomes each big city urban construction today, wherein the Landscape Lighting lighting engineering is being played the part of important role in the city.Along with deepening continuously of city lighting engineering, the series of problems that traditional street lamp and electric power system thereof exist is more aobvious outstanding, in the street lamp power supply, road lamp power supply course of conveying, voltage loss for fear of supply line, the low-pressure side output voltage of common distribution transformer will transport the operating voltage of guaranteeing light fixture and reach rated voltage with higher voltage, secondly, because the mains supply system loading reduces after midnight, the electric power system line voltage can significantly go up, sometimes even near 245V, therefore light fixture reality bears the rated operational voltage that voltage in most cases can be higher than light fixture, and, too high operating voltage can make the light fixture heating excessively in the light fixture course of work, even damage too early, produce simultaneously unnecessary electricity charge spending, China big and medium-sized cities are after 12 of midnights according to investigations, almost empty on the road, even if Beijing, Shanghai, the bustling city that Guangzhou is such, after the 2:00 AM, also rare pedestrian on the road, nearly urban district small hours people and vehicle are very rare, from this period until early morning 6 street lamps extinguish, on the road of the low magnitude of traffic flow, still keep higher illuminance obviously to there is no need, caused very large waste.Advocate today of energy-saving and emission-reduction in country, the economical method that the street lamp that the city of the domestic overwhelming majority and area have almost coincidentally adopted developed country just to abandon at the seventies is turned off the light every small cup, disadvantage wherein is self-evident---not only caused the road illumination skewness, bury hidden danger to public security and traffic safety, and can not avoid the rising of line voltage after midnight to the impairment in street lamp life-span, therefore can not be referred to as truly energy-conservation.Since the nearly more than ten years, the city nightscape lighting turns the important step that urban operating mechanism is built into, and corresponding achievement has also been obtained in various places, has formed very large contradiction when government advocates energy-saving and emission-reduction development green low-carbon economy and sets up nightscape lighting.Take coastal certain open city as example, under the pressure of the pressure of financial strain, heavy illumination electricity charge spending beyond one's means has to again turn off the closely lamp of half to large quantities of street lamps after installation, and the result in recent years part street lamp of new clothes forms ornaments, causes covert waste.Therefore, the Technological Improvement of Energy-Saving Techniques of street lamp has been imperative.
Summary of the invention
Technical problem to be solved by this invention provides a kind of intelligent road lamp electricity-saving control device, this device not only can satisfy the lighting demand of street lamp, can filtering clutter aspect economize on electricity, optimize and revise power supply parameter, improve power supply quality, reduce unnecessary electric energy loss, improve system power factor etc.; Protection road lamp aspect can over-voltage suppression, overcurrent, short circuit, overload, the protection such as overheated; The advanced utility functions such as fault alarm indication aspect can overcurrent, overload, overload auto by pass.
For solving the problems of the technologies described above, technical scheme of the present invention is: the intelligent road lamp electricity-saving control device, comprise the main circuit that is connected with electrical network, the output of described main circuit is parallel with voltage signal sampling circuit, current signal sampling circuit, street lamp start-up mode control circuit, microcomputer time-controlled switch control circuit and direct current regulation circuit, the output of described voltage signal sampling circuit is electrically connected with economize on electricity gear change-over circuit, the output of described current signal sampling circuit is electrically connected with overcurrent and judges and change-over circuit, the output of described street lamp start-up mode control circuit is electrically connected with time control and circuit is selected in the automatic control conversion, the output of described microcomputer time-controlled switch control circuit is electrically connected with the function conversion driving circuit, described function conversion driving circuit is electrically connected described main circuit, the output of described microcomputer time-controlled switch control circuit also is electrically connected respectively described economize on electricity gear change-over circuit and described time control and automatic control conversion and selects circuit, and described economize on electricity gear change-over circuit and described overcurrent are judged and change-over circuit is electrically connected respectively described function conversion driving circuit, and the output of described direct current regulation circuit is electrically connected respectively described economize on electricity gear change-over circuit, described overcurrent is judged and change-over circuit, circuit and described street lamp start-up mode control circuit are selected in described time control and automatic control conversion.
As preferred technical scheme, described main circuit comprises the splicing ear R that connects power network line, S, T, N, described splicing ear R, S, be connected with air switch QF on the outlet line of T, the output of described air switch QF is electrically connected with the main contact of contactor KM1, between the input of described air switch QF and described contactor KM1 main contact, be serially connected with current transformer TA, output at described contactor KM1 main contact is serially connected with electromagnetic voltage adjusting transformer TB, described electromagnetic voltage adjusting transformer TB two ends are parallel with the main contact of bypass contactor KM2, the output of described electromagnetic voltage adjusting transformer TB is provided with lead-out terminal U, V and W, be electrically connected with respectively contactor KM4 on the auxiliary winding of described electromagnetic voltage adjusting transformer TB, the main contact of contactor KM5 and contactor KM6, described contactor KM4, the main contact of contactor KM5 and contactor KM6 is electrically connected with the main contact of contactor KM3, and the output of the dynamic circuit connector main contact of described contactor KM3 is connected with public zero curve.
As preferred technical scheme, described voltage signal sampling circuit comprises rectifier diode D1, the output of described rectifier diode D1 is serially connected with resistance R 1, resistance R 2 successively, the output of described resistance R 2 is electrically connected described economize on electricity gear change-over circuit, the output of described resistance R 1 is connected to common by rectifier diode D2, and the parallel circuits that the output of described resistance R 2 is connected with capacitor C by voltage stabilizing didoe DW1 connects described common.
As preferred technical scheme, described economize on electricity gear change-over circuit comprises the adjustable resistance RP1 that is connected in parallel on described resistance R 2 outputs, adjustable resistance RP2 and relay K A4 break contact, the output contact resistance R3 of described adjustable resistance RP1, the input of the adjustable end contact resistance R4 of described adjustable resistance RP1, the other end of described resistance R 4 connects 3 pin of integrated circuit (IC) 2A1, one end of resistance R 6 and capacitor C 2, the output of described resistance R 6, the other end of the output of capacitor C 2 and described relay K A4 break contact links to each other with common, the end of the 2 pin contact resistance R5 of described integrated circuit (IC) 2A1, the other end of described resistance R 5 and resistance R 9, one end of resistance R 13 is connected with the negative pole of voltage stabilizing didoe DW20, and an end of the other end of described resistance R 9 and relay K A5 make contact links to each other with described direct current regulation circuit respectively; The other end of described resistance R 6 connects 1 pin of described integrated circuit (IC) 2A1 and an end of resistance R 7, the base stage of other an end connecting triode VT1 of described resistance R 7, the emitter of described triode VT1 connects an end of relay K A6 make contact, and be connected with common, the emitter of the collector electrode connecting triode VT2 of described triode VT1, the end of the base stage contact resistance R8 of described triode VT2, the other end of described resistance R 8 connects the other end of described relay K A5 make contact, one end of resistance R 17 and an end of resistance R 18, the collector electrode of described triode VT2 connects the other end of described relay K A6 make contact, the negative pole of resistance R 11 capacitor C 3, one end of described relay K A1 coil and the anode of diode D3, the negative pole of the other end connecting luminous diode LED2 of described resistance R 11, the positive pole of the positive pole of described LED 2 and capacitor C 3, the other end of described relay K A1, the negative electrode of diode D3 links to each other with described direct current regulation circuit respectively; The end of the other end contact resistance R14 of described adjustable resistance RP2, the end of the adjustable end contact resistance R12 of described adjustable resistance RP2, the other end of described resistance R 12 connects 5 pin of described integrated circuit (IC) 2A2, one end of resistance R 15 and capacitor C 5, the other end of described resistance R 14 and described capacitor C 5 links to each other with common port, the end of the 6 pin contact resistance R13 of described integrated circuit (IC) 2A2, the other end of described resistance R 13 and resistance R 9, the negative pole of voltage stabilizing didoe DW2 is connected, the other end of described resistance R 15 connects 7 pin of described integrated circuit (IC) 2A2 and an end of resistance R 16, the base stage of the other end connecting triode VT3 of described resistance R 16, the emitter of described triode VT3 connects an end of relay K A7 make contact and is connected with common port, the emitter of the collector electrode connecting triode VT4 of described triode VT3, the end of the base stage contact resistance R18 of described triode VT4, the other end of described resistance R 8 connects the other end of relay K A5 make contact, one end of resistance R 17 and resistance R 18, the collector electrode of described triode VT4 connects the other end of described relay K A7 make contact, resistance R 19, the negative pole of capacitor C 4, one end of relay K A2 coil and the anode of diode D4, the negative pole of the other end connecting luminous diode LED3 of described resistance R 19, the positive pole of the positive pole of described LED 3 and capacitor C 4, the other end of described relay K A2 coil, the negative electrode of described diode D4 links to each other with described direct current regulation circuit respectively; One end of resistance R 10 connects common port, the negative pole of the other end connecting luminous diode LED1 of described resistance R 10, and the positive pole of described LED 1 links to each other with described direct current regulation circuit.
As preferred technical scheme, described current signal sampling circuit comprises the signal amplifying transformer T1 that is connected electrically in current transformer TA output, the two ends of described signal amplifying transformer T1 are parallel with resistance R 42 and adjustable resistance PR3, described resistance R 42 is connected with adjustable resistance PR3 and is connected common, the moving contact of described adjustable resistance PR3 is electrically connected the anode of diode D5, described diode D5 the input of negative electrode contact resistance R20, the output of described resistance R 20 is connected to the negative electrode of diode D6 and the input of resistance R 21, the output of described resistance R 21 connects described overcurrent and judges and change-over circuit, and the output of described resistance R 21 passes through the parallel circuits ground connection of capacitor C 6 and voltage stabilizing didoe DW3, simultaneously the minus earth of diode D6.
As preferred technical scheme, described overcurrent is judged and change-over circuit comprises the adjustable resistance RP4 that input is connected with the output of described resistance R 21, the output head grounding of described adjustable resistance RP4, the moving contact contact resistance R22 of described adjustable resistance RP4, the other end of described resistance R 22 connects the input of capacitor C 7,10 pin of the input of resistance R 25 and integrated circuit (IC) 2A3, the end of the 9 pin contact resistance R23 of described integrated circuit (IC) 2A3, the end of the other end contact resistance R24 of described resistance R 23, the anode of diode D7, the negative electrode of described diode D7 connects the other end of described capacitor C 7 and the other end of described adjustable resistance RP4, and be connected with common port, the other end of described resistance R 24 is electrically connected described direct current regulation circuit, the other end of resistance R 25 connects 8 pin and the resistance R 26 of described integrated circuit (IC) 2A3, one end of resistance R 28 and resistance R 29, the other end of described resistance R 26 connects the positive pole of capacitor C 8 and the end of R27, the positive pole of the other end connecting luminous diode LED4 of described resistance R 28, the base stage of the other end connecting triode VT5 of described resistance R 27, the emitter of described triode VT5 connects the negative pole of described capacitor C 8 and the negative pole of described LED 4, and link to each other with common port, the collector electrode of described triode VT5 connects the anode of diode D8 and an end of relay K A3 coil, the base stage of the other end connecting triode VT6 of described resistance R 29, the emitter of described triode VT6 connects common port, the end of the collector electrode contact resistance R30 of described triode VT6, the other end of described resistance R 30 connects the negative pole of buzzer BL, and the positive pole of buzzer BL is connected described direct current regulation circuit with the negative electrode of described diode D8 and the other end of described relay K A3 coil.
As preferred technical scheme, described street lamp start-up mode control circuit comprises the resistance R 32 that is connected with an end of described contactor KM1 dynamic circuit connector auxiliary contact, the other end of described resistance R 32 connects the anode of diode D13, the negative electrode of described diode D13 connects the negative electrode of diode D14, the positive pole of capacitor C 11,1 pin of the negative pole of voltage stabilizing didoe DW3 and integrated circuit (IC) 3A4, the positive pole anodal and described C11 of 2 pin of described integrated circuit (IC) 3A4 and described diode D14 links to each other with common port, the end of the 6 pin contact resistance R31 of described integrated circuit (IC) 3A4, the other end of described resistance R 31 links to each other with common port, and 5 pin of described integrated circuit (IC) 3 connect described direct current regulation circuit; 4 pin of described integrated circuit (IC) 3A4 connect the end of adjustable resistance RP5 and an end of resistance R 33 and resistance R 34, the moving contact of described adjustable resistance RP5 connects the other end of himself, the other end of described resistance R 33, the positive pole of capacitor C 12, one end of resistance R 37 and 12 pin of described integrated circuit (IC) 3A4, the positive pole of the other end connecting luminous diode LED5 of described resistance R 34, the 13 pin contact resistance R35 of described integrated circuit (IC) 3A4 and an end of resistance R 36, the negative pole of the other end connecting luminous diode LED5 of described resistance R 36, the negative pole of described capacitor C 12 also links to each other with common port, and the other end of described resistance R 35 links to each other with described direct current regulation circuit; The other end of described resistance R 37 connects 14 pin of described integrated circuit (IC) 3A4 and an end of resistance R 38, the base stage of the other end connecting triode VT7 of described resistance R 38, the collector electrode of described triode VT7 connects an end of described relay K A4 coil, 2 pin of the anode of diode D15 and start-up mode change over switch K1, the negative pole of the 3 pin connecting luminous diode LED6 of described start-up mode change over switch K1, the end of the anodal contact resistance R39 of described LED 6, the other end of described resistance R 39 connects the negative electrode of diode D15, describedly succeed the other end of electrical equipment KA4 coil and link to each other with described direct current regulation circuit; 1 pin of described start-up mode change over switch K1 links to each other with common port with the emitter of described triode VT7.
As preferred technical scheme, described time control and automatic control conversion select circuit to comprise change over switch K2,1 pin of described change over switch K2 links to each other with described direct current regulation circuit, the end of the 2 pin contact resistance R40 of described change over switch K2, the positive pole of the other end connecting luminous diode LED7 of described resistance R 40, the end of the 3 pin contact resistance R41 of described change over switch K2 and an end of relay K A5 coil, the positive pole of the other end connecting luminous diode LED8 of described resistance R 41, the negative pole of the negative pole of described LED 8 and LED 7, the other end and the common port of relay K A5 coil are connected.
As preferred technical scheme, described microcomputer time-controlled switch control circuit comprises three microcomputer time-controlled switch controllers, after interconnecting, " T " end of three described microcomputer time-controlled switch controllers links to each other with common port, connect with input power after the terminal that three described microcomputer time-controlled switch controllers are marked with " advancing " interconnects and be connected, " going out " terminal of one of them described microcomputer time-controlled switch controller connects an end of described contactor KM1 coil, the other end of described contactor KM1 coil is connected with common port, " going out " terminal of another described microcomputer time-controlled switch controller connects an end of described contactor KM6 coil, " going out " terminal of last described microcomputer time-controlled switch controller connects an end of described contactor KM7 coil, described contactor KM6 be connected the other end of contactor KM7 coil and connect an end of relay K A5 break contact, the other end of described relay K A5 break contact is connected with common port.
As to improvement of the technical scheme, described function conversion driving circuit comprises the moving contact of the relay K A3 that is connected with power line and the moving contact of described bypass relay K A2, the make contact of described relay K A3 connects an end of described bypass contactor KM2 coil and an end of indicator light " bypass ", the other end of described bypass contactor KM2 connects an end of described contactor KM3 dynamic circuit breaker auxiliary contact and the other end of indicator light " bypass ", the break contact of described relay K A3 connects an end of described contactor KM3 coil and an end of indicator light " economize on electricity ", the other end of described contactor KM3 coil connects an end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact and the other end of indicator light " economize on electricity ", and the other end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact connects the other end of described contactor KM3 dynamic circuit breaker auxiliary contact and links to each other with common; The break contact of described bypass contactor KM2 connects the moving contact of relay K A1, the break contact of described relay K A1 connects an end of described contactor KM4 coil and an end of indicator light " economize on electricity I ", the other end of described contactor KM4 coil connects the other end of indicator light " economize on electricity I " and an end of contactor KM5-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-1 dynamic circuit breaker auxiliary contact, the make contact of described relay K A1 connects an end of described contactor KM5 coil and an end of indicator light " economize on electricity II ", the other end of described contactor KM5 coil connects the other end of indicator light " economize on electricity II " and an end of contactor KM4-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-2 dynamic circuit breaker auxiliary contact, described relay K A2 make contact connects an end of described contactor KM6 coil and an end of indicator light " economize on electricity III ", the other end of described contactor KM6 coil connects the other end of indicator light " economize on electricity III " and an end of described contactor KM4-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-2 dynamic circuit breaker auxiliary contact connects an end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-1 dynamic circuit breaker auxiliary contact links to each other with common.
Owing to adopted technique scheme, the present invention not only can satisfy the lighting requirement of street lamp, but also can realize filtering clutter, optimize and revise power supply parameter, improve power consumption efficiency, reduce the waste of unnecessary or dump energy, under guaranteeing with the street lamp normal operating conditions, by time control or autocontrol mode saves energy to greatest extent, thereby reduce the expenditure of the electricity charge, power saving rate is generally 15% to 40%.This device also has the defencive functions such as the instantaneous overvoltage of inhibition, surge current, short circuit, overload, overcurrent simultaneously, can make the useful life more than the road lamp prolongation twice, thereby has reduced the expenditure of maintenance cost or renewal cost.
Description of drawings
The following drawings only is intended to the present invention done and schematically illustrates and explain, not delimit the scope of the invention.Wherein:
Fig. 1 is the structured flowchart of the embodiment of the invention;
Fig. 2 is the course of work curve chart of the embodiment of the invention;
Fig. 3 is the structure principle chart of embodiment of the invention main circuit;
Fig. 4 is the structure principle chart of the embodiment of the invention;
Among the figure: the 1-main circuit; The 2-voltage signal sampling circuit; 3-economize on electricity gear change-over circuit; The 4-current signal sampling circuit; The 5-overcurrent is judged and change-over circuit; 6-street lamp start-up mode control circuit; Circuit is selected in 7-time control and automatic control conversion; 8-microcomputer time-controlled switch control circuit; 9-function conversion driving circuit; The 10-direct current regulation circuit.
Embodiment
Understand for technical characterictic of the present invention, purpose and effect being had more clearly, now contrast description of drawings the specific embodiment of the present invention.
As shown in Figure 1, the intelligent road lamp electricity-saving control device, comprise the main circuit 1 that is connected with electrical network, the output of described main circuit 1 is parallel with voltage signal sampling circuit 2, current signal sampling circuit 4, street lamp start-up mode control circuit 6, microcomputer time-controlled switch control circuit microcomputer time-controlled switch control circuit 8 and direct current regulation circuit 10, the output of described voltage signal sampling circuit 2 is electrically connected with economize on electricity gear change-over circuit 3, the output of described current signal sampling circuit 4 is electrically connected with overcurrent and judges and change-over circuit 5, the output of described street lamp start-up mode control circuit 6 is electrically connected with time control and the automatic control conversion selects circuit time control and automatic control conversion to select circuit 7, the output of described microcomputer time-controlled switch control circuit microcomputer time-controlled switch control circuit 8 is electrically connected with function conversion driving circuit function conversion driving circuit 9, described function conversion driving circuit function conversion driving circuit 9 is electrically connected described main circuit 1, the output of described microcomputer time-controlled switch control circuit microcomputer time-controlled switch control circuit 8 also is electrically connected respectively described economize on electricity gear change-over circuit 3 and described time control and automatic control conversion and selects circuit time control and automatic control conversion to select circuit 7, and described economize on electricity gear change-over circuit 3 and described overcurrent are judged and change-over circuit 5 is electrically connected respectively described function conversion driving circuit 9, and the output of described direct current regulation circuit 10 is electrically connected respectively described economize on electricity gear change-over circuit 3, described overcurrent is judged and change-over circuit 5, described time control and automatic control conversion select circuit time control and automatic control conversion to select circuit 7 and described street lamp start-up mode control circuit 6.
The intelligent road lamp electricity-saving control device can and not need at the voltage (namely under the automatic control state) of setting to work under 100% regulation voltage (being under the time control state) two states that throws light on.Under according to time period time control state, the course of work curve of lighting load terminal voltage U and time t as shown in Figure 2.
Lighting load is in start-up course, if starting resistor too high or too low useful life that all can affect light fixture, existing phenomenon can appear puncturing in overtension easily, causes an ancient egg-shaped, holed wind instrument of illuminating lamp bad.If brownout can make again illuminating lamp repeatedly start the accelerated ageing that flicker causes lamp.For guaranteeing the optimum voltage value when street lamp just starts, this device is by street lamp start-up mode control circuit 6 control of delaying time, be added in voltage on the illuminating lamp during startup and be set as the I shelves economize on electricity voltage (voltage between phase line and the zero line: 210V~220V), through 5~10 minutes, the illuminating lamp soft start is complete enter stable operation after, send instruction by microcomputer time-controlled switch, according to the economize on electricity gear magnitude of voltage operation of setting.Such as 0~0.1 this time period among Fig. 2.From 0.1~1 this time period (as: evening 6: 30~10: 00) street lamp according to the stable operation of this section setting voltage value, power saving rate is about 15%, impact little (human eye is difficult to aware) on illumination, when the time arrives 1~2 this time period (as: 10: 00~12: 00 evening), street lamp can continue operation according to the economize on electricity gear magnitude of voltage of this section setting again, this moment, illumination can descend to some extent, power saving rate is about 25%, when the time arrives 2~3 these time periods (as: 12: 00~6: 00 morning), street lamp again can be according to the economize on electricity gear magnitude of voltage stable operation of this section setting, at this moment, illumination can further reduce again, but street lamp is extinguished, but can reach about 40% at the power saving rate of this time period.After the period 3 among time arrival Fig. 2 (after 6 of mornings), under the control of microcomputer time-controlled switch, street lamp all extinguishes.Period 3~4 is daytime, and street lamp does not work.This device repeats again the above-mentioned course of work after darkness.
Select in the circuit 7 in time control and automatic control conversion, if with switchboard panel to " automatic control " position, this device will withdraw from " time control " control model automatically, enter into voltage voltage stabilizing automatic control mode, when input voltage changes, automatic adjustment by the economize on electricity gear remains in the scope of setting output voltage.
This shows, owing to taked technique scheme, present embodiment not only can satisfy the lighting requirement of street lamp, but also can realize filtering clutter, optimizes and revises power supply parameter, improves power consumption efficiency, reduce the waste of unnecessary or dump energy, under guaranteeing with the street lamp normal operating conditions, by time control or autocontrol mode, to greatest extent saves energy, thereby reduce the expenditure of the electricity charge, power saving rate is generally 15 ~ 40%.This device also has the defencive functions such as the instantaneous overvoltage of inhibition, surge current, short circuit, overload, overcurrent simultaneously, can make the useful life more than the road lamp prolongation twice, thereby has reduced the expenditure of maintenance cost or renewal cost.
As shown in Figure 3 and Figure 4, main circuit described in the present embodiment 1 comprises the splicing ear R that connects power network line, S, T, N, power network line is that the low voltage electric network power supply (namely exchanges 380V, 50Hz or 60Hz three-phase four-wire system circuit) described splicing ear R, S, be connected with air switch QF on the outlet line of T, the output of described air switch QF is electrically connected with the main contact of contactor KM1, between the input of described air switch QF and described contactor KM1 main contact, be serially connected with current transformer TA, output at described contactor KM1 main contact is serially connected with electromagnetic voltage adjusting transformer TB, described electromagnetic voltage adjusting transformer TB two ends are parallel with the main contact of bypass contactor KM2, the output of described electromagnetic voltage adjusting transformer TB is provided with lead-out terminal U, V and W, be electrically connected with respectively contactor KM4 on the auxiliary winding of described electromagnetic voltage adjusting transformer TB, the main contact of contactor KM5 and contactor KM6, described contactor KM4, the main contact of contactor KM5 and contactor KM6 is electrically connected with the main contact of contactor KM3, and the output of the dynamic circuit connector main contact of described contactor KM3 is connected with public zero curve.The effect of this circuit is: by the control of relevant control circuit, when the available machine time (such as 6: 30 evenings of every day) of setting arrives, the main contact of described contactor KM1 is closed, three-phase alternating current passes through the main winding of electromagnetic voltage adjusting transformer TB to street lamp power supply, road lamp power supply, the main winding of electromagnetic voltage adjusting transformer TB is subjected to the control of auxiliary winding (totally three groups consist of three gears), and the main winding pressure drop of electromagnetic voltage adjusting transformer TB is different when being in different gears.In addition, the second function of the main winding of electromagnetic voltage adjusting transformer TB is the em filtering effect, can suppress the generation of harmonic wave, reduce the amplitude of the impulse current (surge current) of street lamp when just starting and the overvoltage of instantaneous variation, also has electromagnetism energy storage effect, play the raising power factor, reduced the effect of reactive loss and line loss.When the power load off-rating, behind the delay time of setting, the main contact of KM3 disconnects, the main contact of KM2 is closed, automatically be transformed into bypass condition, ensure that street lamp continues power supply, can be transferred to the power-saving running state again automatically when load drops to set point.Described voltage signal sampling circuit 2 comprises rectifier diode D1, the output of described rectifier diode D1 is serially connected with resistance R 1, resistance R 2 successively, the output of described resistance R 2 is electrically connected described economize on electricity gear change-over circuit 3, the output of described resistance R 1 is connected to common by rectifier diode D2, and the parallel circuits that the output of described resistance R 2 is connected with capacitor C by voltage stabilizing didoe DW1 connects described common.The effect of this circuit is: to the voltage signal shaping of taking a sample of input.
Described economize on electricity gear change-over circuit 3 comprises the adjustable resistance RP1 that is connected in parallel on described resistance R 2 outputs, adjustable resistance RP2 and relay K A4 break contact, the output contact resistance R3 of described adjustable resistance RP1, the input of the adjustable end contact resistance R4 of described adjustable resistance RP1, the other end of described resistance R 4 connects 3 pin of integrated circuit (IC) 2A1, one end of resistance R 6 and capacitor C 2, the output of described resistance R 6, the other end of the output of capacitor C 2 and described relay K A4 break contact links to each other with common, the end of the 2 pin contact resistance R5 of described integrated circuit (IC) 2A1, the other end of described resistance R 5 and resistance R 9, one end of resistance R 13 is connected with the negative pole of voltage stabilizing didoe DW20, and an end of the other end of described resistance R 9 and relay K A5 make contact links to each other with described direct current regulation circuit 10 respectively; The other end of described resistance R 6 connects 1 pin of described integrated circuit (IC) 2A1 and an end of resistance R 7, the base stage of other an end connecting triode VT1 of described resistance R 7, the emitter of described triode VT1 connects an end of relay K A6 make contact, and be connected with common, the emitter of the collector electrode connecting triode VT2 of described triode VT1, the end of the base stage contact resistance R8 of described triode VT2, the other end of described resistance R 8 connects the other end of described relay K A5 make contact, one end of resistance R 17 and an end of resistance R 18, the collector electrode of described triode VT2 connects the other end of described relay K A6 make contact, the negative pole of resistance R 11 capacitor C 3, one end of described relay K A1 coil and the anode of diode D3, the negative pole of the other end connecting luminous diode LED2 of described resistance R 11, the positive pole of the positive pole of described LED 2 and capacitor C 3, the other end of described relay K A1, the negative electrode of diode D3 links to each other with described direct current regulation circuit 10 respectively; The end of the other end contact resistance R14 of described adjustable resistance RP2, the end of the adjustable end contact resistance R12 of described adjustable resistance RP2, the other end of described resistance R 12 connects 5 pin of described integrated circuit (IC) 2A2, one end of resistance R 15 and capacitor C 5, the other end of described resistance R 14 and described capacitor C 5 links to each other with common port, the end of the 6 pin contact resistance R13 of described integrated circuit (IC) 2A2, the other end of described resistance R 13 and resistance R 9, the negative pole of voltage stabilizing didoe DW2 is connected, the other end of described resistance R 15 connects 7 pin of described integrated circuit (IC) 2A2 and an end of resistance R 16, the base stage of the other end connecting triode VT3 of described resistance R 16, the emitter of described triode VT3 connects an end of relay K A7 make contact and is connected with common port, the emitter of the collector electrode connecting triode VT4 of described triode VT3, the end of the base stage contact resistance R18 of described triode VT4, the other end of described resistance R 8 connects the other end of relay K A5 make contact, one end of resistance R 17 and resistance R 18, the collector electrode of described triode VT4 connects the other end of described relay K A7 make contact, resistance R 19, the negative pole of capacitor C 4, one end of relay K A2 coil and the anode of diode D4, the negative pole of the other end connecting luminous diode LED3 of described resistance R 19, the positive pole of the positive pole of described LED 3 and capacitor C 4, the other end of described relay K A2 coil, the negative electrode of described diode D4 links to each other with described direct current regulation circuit 10 respectively; One end of resistance R 10 connects common port, the negative pole of the other end connecting luminous diode LED1 of described resistance R 10, and the positive pole of described LED 1 links to each other with described direct current regulation circuit 10.The Main Function of this circuit is: under according to time period time control state, relay K A5 is failure to actuate, triode VT2, triode VT4 cut-off, by three economize on electricity gears of relay K A6, relay K A7 control time, when relay K A6, relay K A7 were failure to actuate, system was in economize on electricity I shelves, when relay K A6 contact closure, then system is in the economize on electricity of II shelves, and when relay K A7 contact closure, then system is in the economize on electricity of III shelves.When circuit conversion is automatic control mode, this device will withdraw from " time control " control model automatically, relay K A5 contact closure, triode VT2, triode VT4 conducting, system enters into voltage voltage stabilizing automatic control mode, when input voltage changes, automatically adjust the economize on electricity gear by the voltage comparator that integrated circuit (IC) 2 A1, integrated circuit (IC) 2A2 and peripheral circuit form by the control to relay K A1, relay K A2, output voltage is remained in the scope of setting.
Described current signal sampling circuit 4 comprises the signal amplifying transformer T1 that is connected electrically in current transformer TA output, the two ends of described signal amplifying transformer T1 are parallel with resistance R 42 and adjustable resistance PR3, described resistance R 42 is connected with adjustable resistance PR3 and is connected common, the moving contact of described adjustable resistance PR3 is electrically connected the anode of diode D5, described diode D5 the input of negative electrode contact resistance R20, the output of described resistance R 20 is connected to the negative electrode of diode D6 and the input of resistance R 21, the output of described resistance R 21 connects described overcurrent and judges and change-over circuit 5, and the output of described resistance R 21 passes through the parallel circuits ground connection of capacitor C 6 and voltage stabilizing didoe DW3, simultaneously the minus earth of diode D6.The effect of this circuit is: the current signal of input is taken a sample to amplify process.
Described overcurrent is judged and change-over circuit 5 comprises the adjustable resistance RP4 that input is connected with the output of described resistance R 21, the output head grounding of described adjustable resistance RP4, the moving contact contact resistance R22 of described adjustable resistance RP4, the other end of described resistance R 22 connects the input of capacitor C 7,10 pin of the input of resistance R 25 and integrated circuit (IC) 2A3, the end of the 9 pin contact resistance R23 of described integrated circuit (IC) 2A3, the end of the other end contact resistance R24 of described resistance R 23, the anode of diode D7, the negative electrode of described diode D7 connects the other end of described capacitor C 7 and the other end of described adjustable resistance RP4, and be connected with common port, the other end of described resistance R 24 is electrically connected described direct current regulation circuit 10, the other end of resistance R 25 connects 8 pin and the resistance R 26 of described integrated circuit (IC) 2A3, one end of resistance R 28 and resistance R 29, the other end of described resistance R 26 connects the positive pole of capacitor C 8 and the end of R27, the positive pole of the other end connecting luminous diode LED4 of described resistance R 28, the base stage of the other end connecting triode VT5 of described resistance R 27, the emitter of described triode VT5 connects the negative pole of described capacitor C 8 and the negative pole of described LED 4, and link to each other with common port, the collector electrode of described triode VT5 connects the anode of diode D8 and an end of relay K A3 coil, the base stage of the other end connecting triode VT6 of described resistance R 29, the emitter of described triode VT6 connects common port, the end of the collector electrode contact resistance R30 of described triode VT6, the other end of described resistance R 30 connects the negative pole of buzzer BL, and the positive pole of buzzer BL is connected described direct current regulation circuit 10 with the negative electrode of described diode D8 and the other end of described relay K A3 coil.The effect of this circuit is: the voltage signal that will become from the current conversion of current signal sampling circuit 4, by the setting of adjustable resistance RP4 to signal value, through integrated circuit (IC) 2 A3 comparators this set point is compared judgement, when signal during greater than this set point, alarm lamp LED 4 is bright, buzzer BL sends chimes of doom simultaneously, through behind certain delay time, if load current is during still greater than set point, relay K A3 coil obtains electricity, and control main circuit 1 transfers the power-saving running state to the bypass operation.(as: set point is 100A, then transfers the bypass operation during greater than 100A to, then returns the power-saving running state during less than 80A, just then system can automatically return to the power-saving running state if after load current is reduced to set point.
Described street lamp start-up mode control circuit comprises the resistance R 32 that is connected with an end of described contactor KM1 dynamic circuit connector auxiliary contact, the other end of described resistance R 32 connects the anode of diode D13, the negative electrode of described diode D13 connects the negative electrode of diode D14, the positive pole of capacitor C 11,1 pin of the negative pole of voltage stabilizing didoe DW3 and integrated circuit (IC) 3A4, the positive pole anodal and described C11 of 2 pin of described integrated circuit (IC) 3A4 and described diode D14 links to each other with common port, the end of the 6 pin contact resistance R31 of described integrated circuit (IC) 3A4, the other end of described resistance R 31 links to each other with common port, and 5 pin of described integrated circuit (IC) 3 connect described direct current regulation circuit; 4 pin of described integrated circuit (IC) 3A4 connect the end of adjustable resistance RP5 and an end of resistance R 33 and resistance R 34, the moving contact of described adjustable resistance RP5 connects the other end of himself, the other end of described resistance R 33, the positive pole of capacitor C 12, one end of resistance R 37 and 12 pin of described integrated circuit (IC) 3A4, the positive pole of the other end connecting luminous diode LED5 of described resistance R 34, the 13 pin contact resistance R35 of described integrated circuit (IC) 3A4 and an end of resistance R 36, the negative pole of the other end connecting luminous diode LED5 of described resistance R 36, the negative pole of described capacitor C 12 also links to each other with common port, and the other end of described resistance R 35 links to each other with described direct current regulation circuit; The other end of described resistance R 37 connects 14 pin of described integrated circuit (IC) 3A4 and an end of resistance R 38, the base stage of the other end connecting triode VT7 of described resistance R 38, the collector electrode of described triode VT7 connects an end of described relay K A4 coil, 2 pin of the anode of diode D15 and start-up mode change over switch K1, the negative pole of the 3 pin connecting luminous diode LED6 of described start-up mode change over switch K1, the end of the anodal contact resistance R39 of described LED 6, the other end of described resistance R 39 connects the negative electrode of diode D15, describedly succeed the other end of electrical equipment KA4 coil and link to each other with described direct current regulation circuit; 1 pin of described start-up mode change over switch K1 links to each other with common port with the emitter of described triode VT7.The effect of this partial circuit is: when pulling the change over switch K1 of street lamp start-up mode control circuit 6 to " ON " position, street lamp carries out soft start through the delay time (being generally about 5 minutes) of setting under the voltage of setting, if K1 is pulled to " OFF " position, then street lamp will directly start.
Described time control and automatic control conversion select circuit 7 to comprise change over switch K2,1 pin of described change over switch K2 links to each other with described direct current regulation circuit 10, the end of the 2 pin contact resistance R40 of described change over switch K2, the positive pole of the other end connecting luminous diode LED7 of described resistance R 40, the end of the 3 pin contact resistance R41 of described change over switch K2 and an end of relay K A5 coil, the positive pole of the other end connecting luminous diode LED8 of described resistance R 41, the negative pole of the negative pole of described LED 8 and LED 7, the other end and the common port of relay K A5 coil are connected.The effect of this circuit is: by change over switch K2, select " time control " still operational mode of " automatic control ", and corresponding mode indicator light is lit.
Described microcomputer time-controlled switch control circuit 8 comprises three microcomputer time-controlled switch controllers, after interconnecting, " T " end of three described microcomputer time-controlled switch controllers links to each other with common port, connect with input power after the terminal that three described microcomputer time-controlled switch controllers are marked with " advancing " interconnects and be connected, " going out " terminal of one of them described microcomputer time-controlled switch controller connects an end of described contactor KM1 coil, the other end of described contactor KM1 coil is connected with common port, " going out " terminal of another described microcomputer time-controlled switch controller connects an end of described contactor KM6 coil, " going out " terminal of last described microcomputer time-controlled switch controller connects an end of described contactor KM7 coil, described contactor KM6 be connected the other end of contactor KM7 coil and connect an end of relay K A5 break contact, the other end of described relay K A5 break contact is connected with common port.The effect of this circuit is: under " time control " control model, utilize time range that three time switchs set to the street lamp gear control of economizing on electricity.
Described function conversion driving circuit 9 comprises the moving contact of the relay K A3 that is connected with power line and the moving contact of described bypass relay K A2, the make contact of described relay K A3 connects an end of described bypass contactor KM2 coil and an end of indicator light " bypass ", the other end of described bypass contactor KM2 connects an end of described contactor KM3 dynamic circuit breaker auxiliary contact and the other end of indicator light " bypass ", the break contact of described relay K A3 connects an end of described contactor KM3 coil and an end of indicator light " economize on electricity ", the other end of described contactor KM3 coil connects an end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact and the other end of indicator light " economize on electricity ", and the other end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact connects the other end of described contactor KM3 dynamic circuit breaker auxiliary contact and links to each other with common; The break contact of described bypass contactor KM2 connects the moving contact of relay K A1, the break contact of described relay K A1 connects an end of described contactor KM4 coil and an end of indicator light " economize on electricity I ", the other end of described contactor KM4 coil connects the other end of indicator light " economize on electricity I " and an end of contactor KM5-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-1 dynamic circuit breaker auxiliary contact, the make contact of described relay K A1 connects an end of described contactor KM5 coil and an end of indicator light " economize on electricity II ", the other end of described contactor KM5 coil connects the other end of indicator light " economize on electricity II " and an end of contactor KM4-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-2 dynamic circuit breaker auxiliary contact, described relay K A2 make contact connects an end of described contactor KM6 coil and an end of indicator light " economize on electricity III ", the other end of described contactor KM6 coil connects the other end of indicator light " economize on electricity III " and an end of described contactor KM4-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-2 dynamic circuit breaker auxiliary contact connects an end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-1 dynamic circuit breaker auxiliary contact links to each other with common.The effect of this circuit is: the on-off of the drive coil by control contactor KM2~KM6, control the logical and disconnected of their main contacts, realize the control of systemic-function, switching such as economize on electricity, bypass, three economize on electricity gears, when being in which kind of running status or economize on electricity gear, corresponding indicator light just can be lighted.
Direct current regulation circuit 10 comprises power transformer T2, input 1 pin of power transformer T2 is connected with " the U phase " of input power, 2 pin of power transformer T2 link to each other with common port, the output 3 of power transformer T2 with are connected pin and connect the input of bridge rectifier D9~D12, the output cathode end of bridge rectifier D9~D12 connects the positive pole of capacitor C 9 and 1 pin (input) of integrated voltage stabilizer IC1,3 pin (output) of integrated voltage stabilizer IC1 connect the anodal of capacitor C 10 and as DC power supply+12V output, and the output negative pole end of bridge rectifier D9~D12 connects the negative pole of 3 pin of the negative pole of capacitor C 9 and integrated voltage stabilizer IC1 and capacitor C 10 and as the common port of whole system circuit.The effect of this circuit is to supply with the stable DC voltage that one of interlock circuit is not affected by power-supply fluctuation.
In the present embodiment, main components is selected: integrated voltage stabilizer IC1 can select LM7812, integrated circuit (IC) 2(A1~A4) can select LM324, integrated circuit (IC) 3 can be selected TIL117, triode VT1~VT7 can select 9013, relay K A1~KA5 can select the relay of 12V10A, relay K A6 and relay K A7 can select the relay of 220V10A, contactor KM1~KM3 selects the 220V A.C. contactor, the capacity of its main contact should be determined according to the rated current of main circuit, contactor KM4~KM6 is the 220V A.C. contactor, the capacity of main contact is that 20% of main circuit rated current is selected, microcomputer time-controlled switch controller 1#~3# can buy from the market, and model specification can be selected voluntarily.
Be provided with some necessary signal designations in this device, have the functions such as overload sound and light alarm, this device is when occurring can automatically transferring the bypass power supply state to when power load surpasses the machine rated value.After load current is reduced to set point, can automatically enter electricity-saving state again, ensure the safety and reliability of power supply.
The above only is the schematic embodiment of the present invention, is not to limit scope of the present invention.Any those skilled in the art, the equivalent variations of having done under the prerequisite that does not break away from design of the present invention and principle and modification all should belong to the scope of protection of the invention.
Claims (10)
1. intelligent road lamp electricity-saving control device, it is characterized in that: comprise the main circuit that is connected with electrical network, the output of described main circuit is parallel with voltage signal sampling circuit, current signal sampling circuit, street lamp start-up mode control circuit, microcomputer time-controlled switch control circuit and direct current regulation circuit, the output of described voltage signal sampling circuit is electrically connected with economize on electricity gear change-over circuit, the output of described current signal sampling circuit is electrically connected with overcurrent and judges and change-over circuit, the output of described street lamp start-up mode control circuit is electrically connected with time control and circuit is selected in the automatic control conversion, the output of described microcomputer time-controlled switch control circuit is electrically connected with the function conversion driving circuit, described function conversion driving circuit is electrically connected described main circuit, the output of described microcomputer time-controlled switch control circuit also is electrically connected respectively described economize on electricity gear change-over circuit and described time control and automatic control conversion and selects circuit, and described economize on electricity gear change-over circuit and described overcurrent are judged and change-over circuit is electrically connected respectively described function conversion driving circuit, and the output of described direct current regulation circuit is electrically connected respectively described economize on electricity gear change-over circuit, described overcurrent is judged and change-over circuit, circuit and described street lamp start-up mode control circuit are selected in described time control and automatic control conversion.
2. intelligent road lamp electricity-saving control device as claimed in claim 1, it is characterized in that: described main circuit comprises the splicing ear R that connects power network line, S, T, N, described splicing ear R, S, be connected with air switch QF on the outlet line of T, the output of described air switch QF is electrically connected with the main contact of contactor KM1, between the input of described air switch QF and described contactor KM1 main contact, be serially connected with current transformer TA, output at described contactor KM1 main contact is serially connected with electromagnetic voltage adjusting transformer TB, described electromagnetic voltage adjusting transformer TB two ends are parallel with the main contact of bypass contactor KM2, the output of described electromagnetic voltage adjusting transformer TB is provided with lead-out terminal U, V and W, be electrically connected with respectively contactor KM4 on the auxiliary winding of described electromagnetic voltage adjusting transformer TB, the main contact of contactor KM5 and contactor KM6, described contactor KM4, the main contact of contactor KM5 and contactor KM6 is electrically connected with the main contact of contactor KM3, and the output of the dynamic circuit connector main contact of described contactor KM3 is connected with public zero curve.
3. intelligent road lamp electricity-saving control device as claimed in claim 1, it is characterized in that: described voltage signal sampling circuit comprises rectifier diode D1, the output of described rectifier diode D1 is serially connected with resistance R 1, resistance R 2 successively, the output of described resistance R 2 is electrically connected described economize on electricity gear change-over circuit, the output of described resistance R 1 is connected to common by rectifier diode D2, and the parallel circuits that the output of described resistance R 2 is connected with capacitor C by voltage stabilizing didoe DW1 connects described common.
4. intelligent road lamp electricity-saving control device as claimed in claim 3, it is characterized in that: described economize on electricity gear change-over circuit comprises the adjustable resistance RP1 that is connected in parallel on described resistance R 2 outputs, adjustable resistance RP2 and relay K A4 break contact, the output contact resistance R3 of described adjustable resistance RP1, the input of the adjustable end contact resistance R4 of described adjustable resistance RP1, the other end of described resistance R 4 connects 3 pin of integrated circuit (IC) 2A1, one end of resistance R 6 and capacitor C 2, the output of described resistance R 6, the other end of the output of capacitor C 2 and described relay K A4 break contact links to each other with common, the end of the 2 pin contact resistance R5 of described integrated circuit (IC) 2A1, the other end of described resistance R 5 and resistance R 9, one end of resistance R 13 is connected with the negative pole of voltage stabilizing didoe DW20, and an end of the other end of described resistance R 9 and relay K A5 make contact links to each other with described direct current regulation circuit respectively; The other end of described resistance R 6 connects 1 pin of described integrated circuit (IC) 2A1 and an end of resistance R 7, the base stage of other an end connecting triode VT1 of described resistance R 7, the emitter of described triode VT1 connects an end of relay K A6 make contact, and be connected with common, the emitter of the collector electrode connecting triode VT2 of described triode VT1, the end of the base stage contact resistance R8 of described triode VT2, the other end of described resistance R 8 connects the other end of described relay K A5 make contact, one end of resistance R 17 and an end of resistance R 18, the collector electrode of described triode VT2 connects the other end of described relay K A6 make contact, the negative pole of resistance R 11 capacitor C 3, one end of described relay K A1 coil and the anode of diode D3, the negative pole of the other end connecting luminous diode LED2 of described resistance R 11, the positive pole of the positive pole of described LED 2 and capacitor C 3, the other end of described relay K A1, the negative electrode of diode D3 links to each other with described direct current regulation circuit respectively; The end of the other end contact resistance R14 of described adjustable resistance RP2, the end of the adjustable end contact resistance R12 of described adjustable resistance RP2, the other end of described resistance R 12 connects 5 pin of described integrated circuit (IC) 2A2, one end of resistance R 15 and capacitor C 5, the other end of described resistance R 14 and described capacitor C 5 links to each other with common port, the end of the 6 pin contact resistance R13 of described integrated circuit (IC) 2A2, the other end of described resistance R 13 and resistance R 9, the negative pole of voltage stabilizing didoe DW2 is connected, the other end of described resistance R 15 connects 7 pin of described integrated circuit (IC) 2A2 and an end of resistance R 16, the base stage of the other end connecting triode VT3 of described resistance R 16, the emitter of described triode VT3 connects an end of relay K A7 make contact and is connected with common port, the emitter of the collector electrode connecting triode VT4 of described triode VT3, the end of the base stage contact resistance R18 of described triode VT4, the other end of described resistance R 8 connects the other end of relay K A5 make contact, one end of resistance R 17 and resistance R 18, the collector electrode of described triode VT4 connects the other end of described relay K A7 make contact, resistance R 19, the negative pole of capacitor C 4, one end of relay K A2 coil and the anode of diode D4, the negative pole of the other end connecting luminous diode LED3 of described resistance R 19, the positive pole of the positive pole of described LED 3 and capacitor C 4, the other end of described relay K A2 coil, the negative electrode of described diode D4 links to each other with described direct current regulation circuit respectively; One end of resistance R 10 connects common port, the negative pole of the other end connecting luminous diode LED1 of described resistance R 10, and the positive pole of described LED 1 links to each other with described direct current regulation circuit.
5. intelligent road lamp electricity-saving control device as claimed in claim 4, it is characterized in that: described current signal sampling circuit comprises the signal amplifying transformer T1 that is connected electrically in current transformer TA output, the two ends of described signal amplifying transformer T1 are parallel with resistance R 42 and adjustable resistance PR3, described resistance R 42 is connected with adjustable resistance PR3 and is connected common, the moving contact of described adjustable resistance PR3 is electrically connected the anode of diode D5, described diode D5 the input of negative electrode contact resistance R20, the output of described resistance R 20 is connected to the negative electrode of diode D6 and the input of resistance R 21, the output of described resistance R 21 connects described overcurrent and judges and change-over circuit, and the output of described resistance R 21 passes through the parallel circuits ground connection of capacitor C 6 and voltage stabilizing didoe DW3, simultaneously the minus earth of diode D6.
6. intelligent road lamp electricity-saving control device as claimed in claim 2, it is characterized in that: described overcurrent is judged and change-over circuit comprises the adjustable resistance RP4 that input is connected with the output of described resistance R 21, the output head grounding of described adjustable resistance RP4, the moving contact contact resistance R22 of described adjustable resistance RP4, the other end of described resistance R 22 connects the input of capacitor C 7,10 pin of the input of resistance R 25 and integrated circuit (IC) 2A3, the end of the 9 pin contact resistance R23 of described integrated circuit (IC) 2A3, the end of the other end contact resistance R24 of described resistance R 23, the anode of diode D7, the negative electrode of described diode D7 connects the other end of described capacitor C 7 and the other end of described adjustable resistance RP4, and be connected with common port, the other end of described resistance R 24 is electrically connected described direct current regulation circuit, the other end of resistance R 25 connects 8 pin and the resistance R 26 of described integrated circuit (IC) 2A3, one end of resistance R 28 and resistance R 29, the other end of described resistance R 26 connects the positive pole of capacitor C 8 and the end of R27, the positive pole of the other end connecting luminous diode LED4 of described resistance R 28, the base stage of the other end connecting triode VT5 of described resistance R 27, the emitter of described triode VT5 connects the negative pole of described capacitor C 8 and the negative pole of described LED 4, and link to each other with common port, the collector electrode of described triode VT5 connects the anode of diode D8 and an end of relay K A3 coil, the base stage of the other end connecting triode VT6 of described resistance R 29, the emitter of described triode VT6 connects common port, the end of the collector electrode contact resistance R30 of described triode VT6, the other end of described resistance R 30 connects the negative pole of buzzer BL, and the positive pole of described buzzer BL is connected described direct current regulation circuit with the negative electrode of described diode D8 and the other end of described relay K A3 coil.
7. intelligent road lamp electricity-saving control device as claimed in claim 4, it is characterized in that: described street lamp start-up mode control circuit comprises the resistance R 32 that is connected with an end of described contactor KM1 dynamic circuit connector auxiliary contact, the other end of described resistance R 32 connects the anode of diode D13, the negative electrode of described diode D13 connects the negative electrode of diode D14, the positive pole of capacitor C 11,1 pin of the negative pole of voltage stabilizing didoe DW3 and integrated circuit (IC) 3A4, the positive pole anodal and described C11 of 2 pin of described integrated circuit (IC) 3A4 and described diode D14 links to each other with common port, the end of the 6 pin contact resistance R31 of described integrated circuit (IC) 3A4, the other end of described resistance R 31 links to each other with common port, and 5 pin of described integrated circuit (IC) 3 connect described direct current regulation circuit; 4 pin of described integrated circuit (IC) 3A4 connect the end of adjustable resistance RP5 and an end of resistance R 33 and resistance R 34, the moving contact of described adjustable resistance RP5 connects the other end of himself, the other end of described resistance R 33, the positive pole of capacitor C 12, one end of resistance R 37 and 12 pin of described integrated circuit (IC) 3A4, the positive pole of the other end connecting luminous diode LED5 of described resistance R 34, the 13 pin contact resistance R35 of described integrated circuit (IC) 3A4 and an end of resistance R 36, the negative pole of the other end connecting luminous diode LED5 of described resistance R 36, the negative pole of described capacitor C 12 also links to each other with common port, and the other end of described resistance R 35 links to each other with described direct current regulation circuit; The other end of described resistance R 37 connects 14 pin of described integrated circuit (IC) 3A4 and an end of resistance R 38, the base stage of the other end connecting triode VT7 of described resistance R 38, the collector electrode of described triode VT7 connects an end of described relay K A4 coil, 2 pin of the anode of diode D15 and start-up mode change over switch K1, the negative pole of the 3 pin connecting luminous diode LED6 of described start-up mode change over switch K1, the end of the anodal contact resistance R39 of described LED 6, the other end of described resistance R 39 connects the negative electrode of diode D15, describedly succeed the other end of electrical equipment KA4 coil and link to each other with described direct current regulation circuit; 1 pin of described start-up mode change over switch K1 links to each other with common port with the emitter of described triode VT7.
8. such as the described intelligent road lamp electricity-saving control device of the arbitrary claim of claim 4-7, it is characterized in that: described time control and automatic control conversion select circuit to comprise change over switch K2,1 pin of described change over switch K2 links to each other with described direct current regulation circuit, the end of the 2 pin contact resistance R40 of described change over switch K2, the positive pole of the other end connecting luminous diode LED7 of described resistance R 40, the end of the 3 pin contact resistance R41 of described change over switch K2 and an end of relay K A5 coil, the positive pole of the other end connecting luminous diode LED8 of described resistance R 41, the negative pole of the negative pole of described LED 8 and LED 7, the other end and the common port of relay K A5 coil are connected.
9. intelligent road lamp electricity-saving control device as claimed in claim 8, it is characterized in that: described microcomputer time-controlled switch control circuit comprises three microcomputer time-controlled switch controllers, after interconnecting, " T " end of three described microcomputer time-controlled switch controllers links to each other with common port, connect with input power after the terminal that three described microcomputer time-controlled switch controllers are marked with " advancing " interconnects and be connected, " going out " terminal of one of them described microcomputer time-controlled switch controller connects an end of described contactor KM1 coil, the other end of described contactor KM1 coil is connected with common port, " going out " terminal of another described microcomputer time-controlled switch controller connects an end of described contactor KM6 coil, " going out " terminal of last described microcomputer time-controlled switch controller connects an end of described contactor KM7 coil, described contactor KM6 be connected the other end of contactor KM7 coil and connect an end of relay K A5 break contact, the other end of described relay K A5 break contact is connected with common port.
10. intelligent road lamp electricity-saving control device as claimed in claim 9, it is characterized in that: described function conversion driving circuit comprises the moving contact of the relay K A3 that is connected with power line and the moving contact of described bypass relay K A2, the make contact of described relay K A3 connects an end of described bypass contactor KM2 coil and an end of indicator light " bypass ", the other end of described bypass contactor KM2 connects an end of described contactor KM3 dynamic circuit breaker auxiliary contact and the other end of indicator light " bypass ", the break contact of described relay K A3 connects an end of described contactor KM3 coil and an end of indicator light " economize on electricity ", the other end of described contactor KM3 coil connects an end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact and the other end of indicator light " economize on electricity ", and the other end of described bypass contactor KM2 dynamic circuit breaker auxiliary contact connects the other end of described contactor KM3 dynamic circuit breaker auxiliary contact and links to each other with common; The break contact of described bypass contactor KM2 connects the moving contact of relay K A1, the break contact of described relay K A1 connects an end of described contactor KM4 coil and an end of indicator light " economize on electricity I ", the other end of described contactor KM4 coil connects the other end of indicator light " economize on electricity I " and an end of contactor KM5-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-1 dynamic circuit breaker auxiliary contact, the make contact of described relay K A1 connects an end of described contactor KM5 coil and an end of indicator light " economize on electricity II ", the other end of described contactor KM5 coil connects the other end of indicator light " economize on electricity II " and an end of contactor KM4-1 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-1 dynamic circuit breaker auxiliary contact connects an end of contactor KM6-2 dynamic circuit breaker auxiliary contact, described relay K A2 make contact connects an end of described contactor KM6 coil and an end of indicator light " economize on electricity III ", the other end of described contactor KM6 coil connects the other end of indicator light " economize on electricity III " and an end of described contactor KM4-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM4-2 dynamic circuit breaker auxiliary contact connects an end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM5-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-2 dynamic circuit breaker auxiliary contact, the other end of described contactor KM6-1 dynamic circuit breaker auxiliary contact links to each other with common.
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Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN1668159A (en) * | 2005-02-03 | 2005-09-14 | 程涛 | Intelligent electricity-saving device for lighting supply source |
CN2779791Y (en) * | 2005-02-03 | 2006-05-10 | 程涛 | Intelligent electricity-saving device for lighting supply source |
CN201430709Y (en) * | 2009-07-01 | 2010-03-24 | 邢建忠 | Special remote wireless control multiplex protection power-saving system for street lamp |
CN202276532U (en) * | 2011-11-04 | 2012-06-13 | 上海勇顺电气(集团)有限公司 | Control box for energy-saving street lamp |
CN203039975U (en) * | 2013-01-06 | 2013-07-03 | 山东瑞斯高创股份有限公司 | Intelligent electricity-saving control device for street lamp |
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2013
- 2013-01-06 CN CN201310003437.6A patent/CN103037596B/en not_active Expired - Fee Related
Patent Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN1668159A (en) * | 2005-02-03 | 2005-09-14 | 程涛 | Intelligent electricity-saving device for lighting supply source |
CN2779791Y (en) * | 2005-02-03 | 2006-05-10 | 程涛 | Intelligent electricity-saving device for lighting supply source |
CN201430709Y (en) * | 2009-07-01 | 2010-03-24 | 邢建忠 | Special remote wireless control multiplex protection power-saving system for street lamp |
CN202276532U (en) * | 2011-11-04 | 2012-06-13 | 上海勇顺电气(集团)有限公司 | Control box for energy-saving street lamp |
CN203039975U (en) * | 2013-01-06 | 2013-07-03 | 山东瑞斯高创股份有限公司 | Intelligent electricity-saving control device for street lamp |
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