Method and device to programme microcontroller

FIELD: electricity.

SUBSTANCE: programming device (100) to programme a controller (10) in an electronic driver (200) comprises a controlled source (30) of voltage for generation of AC voltage suitable for power supply to the electronic driver (200), and a programming controller (20) to control the voltage source (30). The programming device (100) is designed to modulate the power supply frequency with the purpose to ensure power supply of the electronic driver (200) and transmission of programming data to the electronic driver (200).

EFFECT: facilitation of communication with a controller with minimisation of changes made to a driver.

13 cl, 5 dwg

 

The technical field to which the invention relates

The present invention, in General, refers to the device with AC power, which includes a control device such as a microcontroller or the like In a specific embodiment, the present invention relates to a driver for controlling the light source such as led or a gas discharge lamp; hereinafter the present invention is specifically described here for the case of this driver, but it should be noted that the invention can be applied in many other situations.

Background of the invention

Figure 1 shows a block diagram of the electronic driver 1 to control the light source 2 with a power driver from the network. In particular, the driver 1 has input terminals 3, 4 for connection to the network and output terminals 8, 9 for connecting the lamp 2. As is known to experts in the field of technology there are several options for implementing such electronic driver. Because these drivers are well known, and the precise embodiment of the driver has nothing to do with the implementation of the present invention, a detailed description of embodiment of the driver are omitted here. However, it is essential that the driver 1 includes a device 10 controls driving operation of the driver, and that this controller will is replaced with the possibility of programming (i.e. you can change the software and/or parameters stored in the storage device). The control device can be implemented, for example, in the form of a Central processor, microprocessor, microcontroller, etc., and hereinafter referred to as the controller.

For the proper functioning of the driver 1, the controller 10 must be setup and configured, which is usually done on the test bench manufacturer. The process configuration can produce as staff, and configures the device, which itself may be implemented as a software application running on a computer (PC, laptop). In any case, the process requires data to the controller and from the controller.

Up until the controller 10 is not built into the driver, to communicate with the controller is relatively easy. However, once the controller 10 is built to communicate with the controller becomes much more difficult. To provide access to the controller from the outside it is necessary to provide physical contact with the controller using special connectors and/or to provide the driver 1 separate connector. However, these solutions are relatively expensive.

The invention

The present invention is the provision of solving the above problems.

Given the th, the need for communication with the controller, basically, there are only at the production stage driver, a particular object of the present invention is to provide a simple and cheap way of communicating with the controller, make the minimum possible changes to the driver.

In one aspect, the present invention provides a controlled power source capable of creating an alternating voltage the frequency of which can be controlled. It should be noted that in WO-98/21803 describes a system in which the frequency of the current supply network is managed by the order management systems of energy consumption on a national scale. This system, obviously, is not suitable for configuration of one individual electronic driver. There are only minor changes in the frequency and duration of the signals is sufficiently large, of the order of several seconds per bit. Additionally, it is noted that all the documents WO 2009/040718 A2, US 2005/231128 A1 and US 2003/030386 A1 describe the controlled power source capable of creating an alternating voltage the frequency of which can be modulated to transmit data. The modulated AC voltage is used to power the source of electromagnetic radiation such as light, so that the data contained in the modulation, is transmitted through electr the magnetic radiation, generated by the source.

In the second aspect, the present invention provides testing equipment, equipped with such a controllable power source; a driver in such equipment it is possible to provide a controlled power source from the network, that is, a source of alternating voltage whose frequency is modulated. For the specialist in this area should be clear that the frequency modulation enables transfer of data.

In the third aspect, the present invention provides a driver that is able to perform the demodulation of frequency-modulated voltage power supply.

In the fourth aspect, the present invention provides a method of downloading information from a voltage source in the device receiving the energy from this voltage source.

Additionally, it is preferred that the controller can communicate in the opposite direction to the device programming without the need for special lines. Therefore, in the fifth aspect, the present invention provides an electronic driver contains a controller, configured to modulate the current consumed from the voltage source.

In the sixth aspect, the present invention provides test equipment, containing a current sensor for detecting Tulyaganova current.

In the seventh aspect, the present invention provides a method of loading information into the voltage source from the device, powered from this voltage source.

In the eighth aspect, the present invention provides a means for two-way communication over the power lines.

Additional preferred development are mentioned in the dependent claims.

Brief description of drawings

These and other aspects, features and advantages of the present invention are explained below with the help of the following description of one or more preferred options with reference to the drawings, in which identical positions denoted by the same or similar parts and in which is shown the following:

figure 1 - block diagram of the electronic driver, powered from an electrical outlet;

figure 2 - schematic illustration of a programming device for an electronic driver;

figure 3 is a graph of output voltage programming device as a function of time;

4 is a block diagram of the electronic driver according to the present invention;

5 is a graph of the current consumed from the source voltage as a function of time.

Detailed description of the invention

Figure 2 schematically illustrates the device 100 programming for electronic driver that contains the device 20 p is ogromnogo control and source 30 voltage, suitable for providing voltage Vs power supply driver electronic lamps and considered as a replacement of the normal mains supply. For example, the voltage source configured to generate an alternating voltage with amplitude of about 330 at its output terminals 38, 39 connected to the output terminals 108 of the device 100 programming. In the input stage of the driver lamp (or other device that receives this voltage) input voltage is first rectified, for example, using a diode bridge, as it should be clear to the person skilled in the technical field, proper operation of the lamp driver (or other device) to a greater or lesser extent, depends on the frequency of the input AC voltage. For conventional power sources, in particular, for the normal mains power supply, the power frequency is almost constant (i.e., 50 Hz in Europe). A separate aspect of the present invention is that the frequency of the supply voltage is modulated to transmit data to the driver of the lamp (or other device). The source 30 voltage has an input 31 of the control, and the device 20 program management has an output 21 of the control connected to the data input 31 management; source 30 voltage is arranged to establish its in the output frequency in accordance with a control signal, taken at the control input 31.

Frequency modulation can be performed in many ways, as should be known to specialists in this field of technology, and in principle all modulation schemes can be applied when implementing the present invention. However, the present invention offers a very simple modulation scheme, which is described below and shown in figure 3. In this scheme, the source 30 voltage can operate in three operating conditions that differ from other output frequencies. The first state will be shown as a normal state in which no data is transmitted in this state, the output voltage has the first frequency, for example 50 Hz. The second condition will be shown as the first state data, which is transmitted one data bit having the first value (for example, "1"): in this state, the output voltage has a second frequency, such as 125 Hz, easily distinguishable from the first frequency. The third condition will be shown as the second state data, which is transmitted one data bit having a second value (for example, "0"): in this state, the output voltage has a third frequency, for example, 250 Hz, easily distinguishable from the first and second frequencies.

The purpose of communication, you can define successive time frames of equal length and set the output frequency, DL is each time frame. However, this will require timing and synchronization. In a simple embodiment, the data block length is defined as the period of time, beginning and ending with the zero-crossing, if possible, with a predetermined number of zero-crossing within a given interval. Thus, the data block may have a duration corresponding to the phase of 360° voltage signal, but in the preferred currently embodiment, the data block corresponds to the phase of 180° voltage signal; it not only provides high speed data transfer, but also provides the advantage of ease of decoding.

Figure 3 shows a graph of the output voltage Vs as a function of time for a typical situation. First, the device 20 software control is not sending any data; the control signal Vc to source 30 voltage has a first value that causes the source 30 voltage to operate in the first state indicating that the output voltage Vs has a first frequency, for example 50 Hz. Suppose that at time t0, the device 20 program management is going to transmit data. It generates its control signal Vc source 30 voltage with a second value indicating a data bit "1", and in response, the source 30 voltage, starts the time t1, corresponding to the next zero-crossing, makes the transition to the second state in which it generates the output voltage Vs at the second frequency, in this case, 125 Hz. The source 30 voltage remains in the second state until the next zero crossing at time t2, so that the output voltage Vs corresponds to a half-period or phase 180° at the second frequency. This means that in this example, the interval between two zero-crossing at time t1 and t2 is equal to 4 MS. After the time t2, the voltage source of the 30 ready to obey the next command device 20 software control.

Suppose that the data to be transmitted, include the second bit is "0", as indicated by the third value of the control signal Vc. In response, the source 30 of the voltage, since the time t2 is a transition through zero, makes the transition to the third state in which it generates the output voltage Vs at the third frequency, such as 250 Hz. The source 30 voltage remains in the second state until the next zero-crossing, so that the output voltage Vs shows half of the period or phase of 180° at the third frequency. This means that in this example, the interval between two zero-crossing is equal to 2 MS.

The above procedure continues for all data bits. The figure shows that the mouth of austo 20 software control at time t3, so the source 30 voltage continues to operate in its first state, with the time intervals between transitions through zero, equal to 10 MS. It should be clear that the length of one bit of data may also correspond to n·180°, where n is any real number.

Also, it should be clear that the frequency does not need to be very accurate. For example, in the above example, the frequency range from 100 Hz or lower, the corresponding time intervals of 5 MS or more, may indicate the absence of data; frequency range from 100 Hz to 200 Hz, corresponding to time intervals between 5 MS to 2.5 MS, can point to data of "1", and the frequency range from 200 Hz and above, the corresponding time intervals of 2.5 MS or less, can point to data of "0".

Additionally, to increase the speed of data transfer, you can use more than two different frequencies of data. For example, a set of four possible frequencies of data you can send two bits of data.

Figure 4 shows the block diagram comparable to Fig 1, an electronic driver 200 according to the present invention, illustrating the driver 200 that receives the supply voltage Vs, which is supplied by the source 30 voltage device 100 programming. The driver 200 includes a rectifier 210, such as a diode bridge, the output terminals 211, 212 which is connected to the input terminals 3, 4 driver for receiving the AC voltage Vs from the power source, and output terminals 218, 219 are connected with lines 205, 206 power driver 200. The controller 10, in which the terminals 15, 16 are connected to these lines 205, 206 power supply, receives the rectified voltage, for example, after smoothing filter (not shown), which is intended to remove frequency components.

It is assumed that the controller 10 has an analog input 11 of the data, which is typical for most controllers. Measuring signal representing the rectified voltage is then applied to this analog input 11 of the data. This measuring signal is generated resistive voltage divider composed of two series-connected resistors 221, 222, connected between lines 205, 206 power supply. The controller 10 is configured by programming using the appropriate software, to sample a signal at its input 11 with a suitable high sampling frequency and to process this information to identify the data transferred through the supply voltage, for example, by initially allocating time intervals between zero-crossing. In other words, the controller 10 is designed for demodulation frequency is Tulyaganova supply voltage. Additionally, the controller 10 is designed for processing the thus received data to adjust its settings and/or configurations that should be clear to a person skilled in the technical field.

Alternatively, for example, if the controller does not have analog input data, it is possible that the driver 200 contained additional data processing module for receiving the rectified mains power supply analog input selection bits of data and transmission of data bits to the digital input of the controller. But this option requires additional hardware component and, therefore, is more expensive, while the preferred implementation, discussed above, has the advantage that it can be simply implemented in the software of the controller.

One of the possible embodiments of the present invention, the programming of the controller 10 is open, i.e. without feedback as confirmation. In a preferred embodiment, the controller 10 is able to communicate in the opposite direction of the device 100 programming using a power supply line. When communication can be made simple statement, but it can also be drawn on the status report or a list of tech is related settings. In any case, the electronic driver 200 must have a means of communication.

It is possible, of course, to provide electronic driver device 200 for applying a high frequency communication signal to the power supply voltage Vs, which can be accepted and processed by the device 100 programming. However, this is complicated and expensive. To avoid this, the present invention offers a solution, the advantage is that it can be implemented within the software of the controller 10. In this embodiment, the implementation of outputs 8, 9 electronic driver 200 is connected to a suitable load such as a lamp 2, so that the electronic driver 200 generates the output current and, therefore, consumes the input current from the programming device, and further, the controller 10 is intended to modulate the input current. To be able to detect this modulation of the input current driver, the device 100 programming can be equipped with a current sensor 40 for measuring the output current signal generated at the outputs 108, 109 programming device, and transmitting the measurement signal to the input 24 of the current measurement from the device 20 program management. Specialist in the art it should be clear that the device 20 software control can be performed (programmed) with an option of processing the measurement signal from the sensor 40 current to retrieve data transmitted by the controller 10.

Since this is the modulation current, it is noted that the controller 10 has an output 19, which generates the control signal Sc, which determines the instantaneous value of current supplied to the load 2. Usually electronic driver 200 includes device 230 correction power factor, receiving this control signal, and take all further control current. Since the devices of the PFC is well known, further explanation is not required here. For the subsequent discussion, it is assumed that the control signal Sc is usually a signal of constant value, indicating a constant average current.

Preferably, the modulation current is amplitude modulation. Specialist in the art should know that amplitude modulation can be performed in various ways, and, in principle, all modulation schemes can be applied when implementing the present invention. However, the present invention also offers a very simple modulation scheme described below with reference to figure 5. In this scheme, the modulation includes the suppression of the current at a sufficiently high frequency suppression, for example, 500 Hz. It can also be seen as multiplying by a 500 Hz square wave. Every bit of information and corresponds to one half-cycle of supply voltage, that is, the period between two successive zero-crossing. Per bit, the high-frequency signal suppression is either present or not, which corresponds to two different values for one bit of data that are readily recognizable.

Figure 5 shows a graph of the current consumed from the source 30 voltage, as a function of time, when this graph is a good example, which assumes that the device 100 programming does not transmit data to the electronic driver 200, so that the current has a nominal frequency of 50 Hz. The navigation function of the current through zero is designated as t0, t1, t2, t3, etc. the Time intervals between successive zero-crossing marked as temporary frames. In the time frame between t0 and t3, the controller 10 does not send data to the device 100 programming, thus forming an unperturbed wave current. In the time frame between t3 and t4, the controller 10 transmits one bit of information ("0") by the generation of current pulses: this bit is interpreted as a start bit, the beginning sequence of a predetermined number of bits. In the time frame between t4 and t5, the controller 10 does not generate the current pulses, transmitting one bit of data ("1"), while in the time frame between t5 and t6, the controller 10 transmits one data bit ("0") by generating a pulse current is.

Summarizing, the present invention provides a device 100 programming for programming the controller 10 in the electronic driver 200 that contains the managed source 30 voltage, suitable for generating an alternating voltage and power electronic driver 200 is disabled outlet and a programmable controller 20 to control the source 30 voltage. The device 100 programming is designed to modulate the frequency of the supply order as supply power to the electronic driver 200 and the data programming in the electronic driver 200.

Although the invention is illustrated and described in detail above, those skilled in the art it should be clear that such illustration and description should be considered as illustrative and typical, and not as restrictive. The invention is not limited to the considered variants of implementation, on the contrary, there are several variations and modifications within the scope of the invention defined by the attached claims.

Other changes in the above embodiments, the implementation can be understood and implemented by experts in the technical field the invention, for the study of the drawings, description and appended claims. In the formula izobreteny word "comprising" does not exclude other elements or steps, and references in the singular does not exclude a plurality. A single processor or other unit may fulfill the functions of several items specified in the claims. The fact that certain characteristics are repeated in various dependent clauses, does not mean that the combination of these characteristics cannot be used as an advantage. Any reference signs in the claims should not be construed as limiting the scope.

In the above description, the present invention has been explained with reference to flowcharts that illustrate functional blocks of the device according to the present invention. It is clear that one or more of these functional blocks may be implemented in hardware, in this case, the function of such functional blocks implemented by separate hardware components, but it is also possible that one or more of these functional blocks may be implemented as software, so that the function of such a functional block is performed by one or more lines of computer program or a programmable device such as a microprocessor, microcontroller, digital signal processor, etc.

1. A method of transferring data from the consuming device (200) source AC is spent voltage (30) along the line AC voltage, containing phases, which receive current from a voltage source and modulate the amplitude of the current consumed from a voltage source; a voltage source includes programming the controller (20) and the sensor (40) current to measure the current consumed from the source (30) voltage, and the current sensor has an output connected to the measuring input (24) programming the controller (20);
while programming the controller (20) configured to decode the amplitude-modulated information from the output signal of the sensor; however, the consuming device is a driver for the light source.

2. The method according to claim 1, in which the phase modulation includes a stage at which generate at least one current pulse with a pulse amplitude essentially equal to zero.

3. The method according to claim 1, in which the phase modulation includes a stage on which to multiply the current by the high-frequency signal having a rectangular waveform, the time interval between two consecutive zero-crossing.

4. Method two-way communication between a source (30) AC voltage and consuming device (200) line AC voltage, and the consuming device preferably is a driver for the light source;
the method includes transmitting data from the source p the belt tension to the consuming device, contains the stage at which generate an alternating voltage at a predetermined fundamental frequency and use frequency modulation to modulate the fundamental frequency;
characterized in that it further comprises a stage on which simultaneously transmit data from the consuming device to a source of alternating voltage by using a method according to any one of claims 1 to 3.

5. The method according to claim 4, in which when data is transferred from a source of alternating voltage to the consuming device information bits corresponds to the time interval between two zero-crossing, and the fundamental frequency is kept constant between the two zero-crossing, the value of the fundamental frequency is selected as the beginning of the mentioned time interval.

6. The method according to claim 5, in which the two above-mentioned zero-crossing are two consecutive zero-crossing.

7. The method according to claim 5, in which the fundamental frequency is selected from a set consisting of at least two possible values of the frequency, indicating two possible values of the bit data, the method preferably contains one or more of the following characteristics (a)-(b):
(a) the set of possible frequency values for the fundamental frequency includes at least one frequency value, indicating that no information is PE is udaetsya;
b) the relationship between the two possible values of the frequency is always higher than 1.1, preferably higher than 1.5, even more preferably higher than 2.

8. The method according to claim 4, in which at each passage through zero the value of the base frequency is selected from a set consisting of at least two possible values of the frequency, for transmitting at least one bit of information at a time interval until the next zero-crossing.

9. The method according to claim 4, in which data transmission from a source of alternating voltage to the consuming device includes a stage on which define at least three different frequencies power, namely nominal frequency (fn), the first frequency data (fl)greater than the nominal frequency (fn), and the second frequency data (f2)greater than the nominal frequency (fn) and greater than the first frequency data (f1)and f1/fn≥1.1 and f2/fl≥1,1;
the method contains the steps that
- during normal operation, provide a sinusoidal voltage at the rated frequency (fn);
to send the data bit having the first value, provide a sinusoidal voltage at the first frequency data (f1) on the interval from the first to the second zero-crossing, and the number of zero-crossing within a given segment preferably is equal to zero;
to send bits of data, having the th second value, provide a sinusoidal voltage at the second frequency data (f2) on the interval from the first to the second zero-crossing, and the number of zero-crossing within a given segment preferably is zero.

10. The device (100) programming for programming the controller (10) in the electronic driver (200), and the programming device includes a controlled voltage source (30) for generating an AC voltage suitable for power electronic driver (200), and programming the controller (20) for source control (30) voltage;
while the programming device (100) is arranged to implement the method according to claim 1 to provide power electronic driver (200) and to transmit data to the electronic driver (200),
characterized in that it further comprises a sensor (40) current to measure the current consumed from the source (30) voltage, and the output of this current sensor connected to the measuring input (24) programming the controller (20);
while programming the controller (20) configured to decode the amplitude-modulated information from the output signal of the sensor.

11. E-the driver (200)containing the input terminals (3, 4) for receiving frequency-modulated voltage (Vs) supply from the device programs the Finance of claim 10, the electronic driver (200) contains:
controller (10), the input terminals (15, 16) power supply which is connected to the internal lines (205, 206) power
characterized in that the controller (10) has a terminal (11) of the input data, and the fact that electronic driver further comprises means (221, 222) out of the signal connected to the internal supply lines (205, 206), for discharge from the modulated voltage (Vs) supply signal representing the modulated data;
this means (221, 222) out signal has an output connected to the terminal (11) input of the controller (10).

12. Electronic driver according to claim 11, in which means (221, 222) out signal is a resistive voltage divider, with the controller (10) is programmed to sample the signal at its input (11) for demodulating the input signal.

13. Electronic driver according to claim 11, having a load (2)connected to its output terminals (8, 9), the controller (10) is arranged to control the current consumed from the input terminals (3, 4)and the controller (10) is arranged to implement the method according to claim 1;
the controller (10) is preferably configured to generate current pulses that are synchronized with the supply voltage.



 

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FIELD: transport engineering; railway traffic control light signals.

SUBSTANCE: proposed controlled light-emitting diode light signal contains N transformers whose primary windings are connected in series aiding and connected to supply source through contact of signal relay and power electrodes of transistor, and each of N secondary windings of transformers is connected through protective diodes with corresponding group of light-emitting diodes consisting of K light-emitting diodes connected in series aiding. Each of K x N light-emitting diodes of groups is optically coupled with each of parallel connected K x N photoresistors. Light signal contains resistor and comparator circuit where first point of connection of parallel-connected photoresistors is connected to point of connection of contact of signal relay and transformer, and second point of connection of parallel-connected photoresistor is connected to first output of resistor and input of comparator circuit. Comparator circuit consists of differential amplifier whose first input is connected with common contact of voltage drop relay, its front and resting contacts are connected to first and second sources of reference voltage, respectively, second input of differential amplifier being input of comparator circuit whose output connected to control input of pulse generator being output of differential amplifier. Second output of resistor is connected with point of connection of one of power electrodes of transistor and supply source. Invention makes it possible to control brightness of light-emitting diodes and stabilize radiation, and it provides possibility of double reduction of voltage and blackout.

EFFECT: provision of reliable control of light signal.

1 dwg

FIELD: municipal equipment of residential houses and industrial buildings, namely automatic systems for controlling electric parameters, namely apparatuses for automatic control of different-designation illuminating devices.

SUBSTANCE: apparatus includes primary pulse-type photo-converter with built-in photo detector forming output pulse-width modulated information signal; secondary converter including micro-controller, shaping amplifier, switch, display module, power unit, inductor, unit for controlling illumination, switching controller of power supply of mains. Secondary converter includes in addition real-time clock and standby power source. Primary pulse-type photo-converter is connected with secondary converter by means of two-wire line that is connected with inlet of shaping amplifier and first terminal of inductor at one side and outlet of primary pulse type converter at other side. Outlet of shaping amplifier is connected with first inlet of micro-controller whose second inlet is connected with switch. Third inlet of micro-controller is connected with outlet of real-time clock. First outlet of micro-controller is connected with first inlet of power unit. Second outlet of micro-controller is connected with inlet of display module. Inlet of illumination control module is connected with third outlet of micro-controller. AC supply mains is connected with second inlet of power unit whose first outlet is connected with second terminal of inductor. Second outlet of power unit is connected with inlet of standby power source whose outlet is connected with respective inlet of real time clock. Outlet of illumination control unit is connected with connected in parallel first inlets of N switching controllers of power of mains. AC mains is connected with second (connected in parallel) inlets of N switching controllers of power of mains. Connected in parallel outlets of said switching controllers through load (illuminating lamps) are connected with zero wire of AC mains.

EFFECT: enhanced operational reliability and safety of apparatus.

7 cl, 1 dwg

FIELD: electrical engineering; starting and operating circuits for gas-discharge lamps.

SUBSTANCE: proposed device designed for use in gas-discharge lamps of high starting voltage amounting to about 4 kV, such as high-pressure sodium vapor lamps, xenon and metal halide lamps that enables starting two lamps at a time from ac 220 V supply mains has dc current supply whose output is connected through series-interconnected converter and rectifier to input of inverter whose common input is connected to common inputs of inverter and rectifier and output, to its inverting output through two series-connected lamps; novelty is introduction of two voltage sensors, current sensor, second inverter, voltage multiplier, switch, capacitor, two delay circuits, OR circuit and NAND circuit; common output of dc current supply is connected to common inputs of two voltage sensors, multiplier, and through current sensor, to common inputs of converter and switch; output of dc current supply is connected to input of second inverter whose output is connected through multiplier to midpoint of two lamps and to capacitor electrode, other electrode of capacitor being connected to input of inverter; output of first voltage sensor is connected to input of NAND circuit and to input of first delay circuit whose inverting output is connected to input of OR circuit whose other input is connected to output of second voltage sensor and output, to clear inputs of converter and inverter, to control input of switch, and to input of second delay circuit whose output is connected to other input of NAND circuit; output of the latter is connected to clear input of second inverter; switch input is connected to rectifier output and current sensor output is connected to control input of converter.

EFFECT: enhanced efficiency, service life, power factor, and light stability; reduced power requirement.

1 cl, 2 dwg

FIELD: lighting equipment.

SUBSTANCE: device with control device has emission source, diffuser, electric outputs. Emission source has at least two light diodes of different colors with given space distributions of emission and localized in space as at least one group, board and control device, containing programmed channels for separate control over emission of light diodes of each color by feeding periodically repeating power pulses, lengths of which for light diodes of different color are independent from each other, while relations of lengths of period of power pulse, its increase front, decrease and pause are determined for light diodes of each color. Diffuser, inside which board with light diodes is positioned, is made at least partially enveloping the area of effect of emission of light diodes of emission source.

EFFECT: better aesthetic and emotional effect, close to optimal psycho-physiological effect of decorative multicolor lamp with vastly improved gamma of color effects, resulting in hypnotizing effect, increase of its attractiveness, efficiency, and broadening of its functional capabilities and addition of new consumer functions, lower costs and simplified usage.

20 cl, 15 dwg, 1 tbl

FIELD: mechanical engineering, in particular, equipment for forming emergency lighting in industrial quarters.

SUBSTANCE: device additionally has digital counters and comparators, included in each light source between power source and transformer control circuit.

EFFECT: higher energy efficiency.

2 cl, 3 dwg

FIELD: mechanical engineering, in particular, equipment for forming emergency lighting in industrial quarters.

SUBSTANCE: device additionally includes band filters, included in each light source between output of controlled modulator and transformer control circuit, and amplitude modulator, connected along control chain to adjustable generator and connected between power source and light source.

EFFECT: higher energy efficiency.

3 dwg

FIELD: mechanical engineering, in particular, emergency lighting equipment for industrial quarters.

SUBSTANCE: device additionally includes delay circuits and pulse generators, included in each light source between power source and transformer control circuit.

EFFECT: higher energy efficiency.

3 dwg

FIELD: engineering of devices for controlling electric light sources, in particular, lighting or illumination systems, which use light diodes in their construction.

SUBSTANCE: by means of personal computer, using specialized graphic software, a frame of required light diode illumination is formed. By means of color pattern, each imitator of light diode module is colored. After forming of one frame, other frames are formed, which require to be colored in similar way. Number of frames is determined by given model of illumination. As a result, animated cinematic is produced, which reflects appearance of illumination model. After that, programmed model is transferred to flash memory of controller through RS-485 interface port. Then, controller outputs aforementioned data into loop line with light diode modules.

EFFECT: using device for decorative or primary lighting of architectural objects makes possible fast generation of complicated and various models and types of illumination and backlight, with possible control over each module.

2 cl, 10 dwg

FIELD: technology for providing power to auxiliary devices of a light.

SUBSTANCE: power of one or several auxiliary devices 26 of light is extracted from lamp power impulse series, fed by phase light controller 28. Direct current power block 44 is connected to output 38,40 of light controller 28 to produce and store direct current energy for powering auxiliary devices. Controller 48 of lamp is connected to output 38,40 of light controller 28 to transfer power of power impulses to lamp 24. Lamp controller 48 has adjustable impulse transfer characteristic for powering the lamp not to interfere with its operation due to alterations to power consumed by auxiliary devices. Adjustable impulse transfer characteristic may be provided with switching device 76, which either interrupts or blocks selected parts of lamp power impulses. Adjustable impulse transfer characteristic maintains constant apparent brightness of lamp, independently on changes of power consumption by auxiliary devices. In disabled state or in preliminary heating mode transfer of power to lamp 24 is decreased to avoid emission of visible light. In full brightness mode lamp power impulses are practically left unchanged by lamp controller 48.

EFFECT: provision of power to auxiliary devices without using auxiliary force cables and without interfering with operation of light.

3 cl, 16 dwg

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