LED lamp control circuit and corresponding LED clip lamp

Abstract

The utility model provides an LED lamp control circuit and a corresponding LED clip lamp, a touch control module can output a touch control data signal and a clock signal, and an infrared induction module can output an infrared induction signal. The control module can perform pulse width modulation operation on the touch data signal and the clock signal, or perform pulse width modulation operation on the infrared induction signal and the clock signal, and the control module can generate a white light signal and a warm light signal. The lamp panel module can receive a white light signal and a warm light signal, and the white light signal and the warm light signal can control the on-off of an LED lamp in the lamp panel module, or adjust the brightness of the LED lamp, or adjust the color temperature of the LED lamp. The music rhythm module can output sound signals, and the control module can perform pulse width modulation operation on the sound signals to generate adjusting signals. The atmosphere lamp module can receive an adjusting signal, and the adjusting signal can adjust different modes of RGB lamp beads in the atmosphere lamp module.

Description

Technical Field

[0001] The utility model relates to the technical field of circuits, and in particular to an LED lamp control circuit and a corresponding LED clip lamp. Background Art

[0002] In today's world, LED clip lights are a new type of desk lamp, widely used in areas such as office lighting and study lighting. However, existing clip lights are limited to dimming and color adjustment, limiting their use to limited scenarios and failing to meet diverse user needs. Consequently, existing clip lights suffer from a limited functionality.

[0003] Therefore, it is necessary to provide an LED lamp control circuit and a corresponding LED clip lamp to solve the above technical problems. Utility Model Content

[0004] The utility model provides an LED lamp control circuit and a corresponding LED clip lamp, which effectively solves the technical problem that the existing clip lamps have relatively single functions.

[0005] The utility model provides an LED lamp control circuit, which includes:

[0006] A touch module, used for outputting touch data signals and clock signals;

[0007] Infrared sensing module, used for outputting infrared sensing signals;

[0008] a control module, configured to perform a pulse width modulation operation on the touch data signal and the clock signal to generate the white light signal and the warm light signal; or to perform a pulse width modulation operation on the infrared sensing signal and the clock signal to generate the white light signal and the warm light signal;

[0009] A light board module, configured to receive the white light signal and the warm light signal, wherein the white light signal and the warm light signal are used to control the switch of the LED lamp inside the light board module, or the white light signal and the warm light signal are used to adjust the brightness of the LED lamp inside the light board module, or the white light signal and the warm light signal are used to adjust the color temperature of the LED lamp inside the light board module;

[0010] Music rhythm module, used to output sound signals;

[0011] Wherein, the control module is used to perform a pulse width modulation operation on the sound signal to generate a regulating signal;

[0012] The atmosphere light module is used to receive the adjustment signal, and the adjustment signal is used to adjust different modes of the RGB lamp beads inside the atmosphere light module.

[0013] Furthermore, the control module includes a first control chip and a second control chip, the first control chip includes a touch data input pin, a clock input pin, an infrared sensor input pin, a first transmission pin, and a second transmission pin, the first control chip includes a third transmission pin, a fourth transmission pin, a first PWM output pin, a second PWM output pin, a sound signal input pin, and a regulation signal output pin;

[0014] The touch data input pin is connected to the touch module, and the touch data is used to receive the touch data signal. The clock input pin is connected to the touch module, and the clock input pin is used to input a clock signal. The infrared sensing input pin is connected to the infrared sensing module, and the infrared sensing input pin is used to input the infrared sensing signal. The first transmission pin is connected to the third transmission pin, and is used to transmit the touch data signal or the infrared sensing signal. The second transmission pin is connected to the fourth transmission pin, and is used to transmit the clock signal.

[0015] The second control chip is used to perform a pulse width modulation operation on the touch data signal and the clock signal to generate the white light signal and the warm light signal; or the second control chip is used to perform a pulse width modulation operation on the infrared sensing signal and the clock signal to generate the white light signal and the warm light signal, the first PWM output pin and the second PWM output pin are connected to the light board module, the first PWM output pin is used to output the white light signal, and the second PWM output pin is used to output the warm light signal;

[0016] The sound signal input pin is connected to the music rhythm module, the sound signal input pin is used to input the sound signal, and the second control chip is used to perform pulse width modulation operation on the sound signal to generate an adjustment signal; the adjustment signal output pin is connected to the atmosphere light module, and the adjustment signal output pin is used to output the adjustment signal.

[0017] Furthermore, the music rhythm module includes a microphone, a first transistor and a second transistor, the microphone is connected to the base of the first transistor and a 5V power supply, the collector of the first transistor is connected to the 5V power supply, the emitter of the first transistor is grounded, the base of the second transistor is connected to the collector of the first transistor, the emitter of the second transistor is connected to the 5V power supply, and the collector of the second transistor is connected to the sound signal input pin.

[0018] Further, when the microphone receives music or sound, the microphone is configured to output a high-level microphone signal based on the music or sound, the base of the first transistor receives the high-level microphone signal, the first transistor is turned on based on the high-level microphone signal, the first transistor generates a high-level ripple signal based on the high-level microphone signal, the base of the second transistor receives the high-level ripple signal, the second transistor is turned on based on the high-level ripple signal, the second transistor generates a sound signal based on the high-level ripple signal, and the collector of the second transistor is configured to output the sound signal;

[0019] When the microphone does not receive music or sound, the microphone is used to output a low-level microphone signal based on the music or sound, the base of the first transistor receives the low-level microphone signal, the first transistor is cut off based on the low-level microphone signal, the first transistor generates a low-level ripple signal based on the low-level microphone signal, the base of the second transistor receives the low-level ripple signal, the second transistor is cut off based on the low-level ripple signal, and the second transistor does not generate the sound signal.

[0020] Furthermore, the music rhythm module also includes a filter capacitor, one end of which is connected to the microphone and the base of the first transistor, and the other end of which is grounded. The filter capacitor is used to filter out environmental interference of the microphone signal.

[0021] Furthermore, the music rhythm module also includes a coupling capacitor, which is connected in series between the microphone and the base of the first transistor. The coupling capacitor is used to limit the bandwidth of the microphone signal and remove noise interference from the microphone signal.

[0022] Furthermore, the music rhythm module also includes a first voltage-dividing resistor and a second voltage-dividing resistor, one end of the first voltage-dividing resistor is connected to the collector of the second transistor, the other end of the first voltage-dividing resistor is connected, one end of the second voltage-dividing resistor is connected to the sound signal input pin, and the other end of the second voltage-dividing resistor is grounded, the first voltage-dividing resistor and the second voltage-dividing resistor are used to perform a voltage-dividing operation on the sound signal to adjust the rhythm sensitivity of the sound or music.

[0023] Furthermore, the model of the first control chip is DLT8F71SA, and the signal of the second control chip is DLT8H04SA-SOP8.

[0024] Furthermore, the LED lamp control circuit also includes a power supply module and a power supply, the power supply is used to output a power supply voltage, the power supply module is used to perform voltage conversion operations on the power supply voltage to generate a power supply voltage, and the power supply voltage is used to power the first control chip and the second control chip.

[0025] An LED clip lamp comprises any one of the above-mentioned LED lamp control circuits.

[0026] Compared with the prior art, the present invention has the following beneficial effects: the present invention provides an LED lamp control circuit, which is provided with a control module. The control module can control the switching of the LED lamp inside the light board module based on a white light signal and a warm light signal, or can adjust the brightness of the LED lamp inside the light board module based on the white light signal and the warm light signal, or can adjust the color temperature of the LED lamp inside the light board module based on the white light signal and the warm light signal.

[0027] This LED light control circuit is equipped with a music rhythm module and an ambient light module. The music rhythm module outputs a sound signal. The control module performs pulse width modulation on the sound signal, thereby generating a control signal. The ambient light module receives the control signal, which is used to adjust the different modes of the RGB lamp beads within the ambient light module. Therefore, an LED clip light equipped with this LED light control circuit not only provides dual-color temperature LED lighting but also adds the function of ambient lighting with RGB lamp beads. This effectively solves the technical problem of existing clip lights being relatively limited in functionality. This LED clip light equipped with this LED light control circuit can create an overall sense of ambiance in the illuminated space, allowing users to use it in a variety of daily life scenarios, effectively enriching their daily needs and providing a good user experience. This LED clip light equipped with this LED light control circuit can meet users' lighting and ambiance needs, eliminating the need to purchase separate RGB lamp beads, saving space and reducing the cost of purchasing the lighting fixture. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments. The drawings described below are only drawings corresponding to some embodiments of the present invention.

[0029] Figure 1 This is a block diagram of an embodiment of an LED lamp control circuit of the present invention.

[0030] Figure 2 This is a circuit diagram of a touch module of an embodiment of an LED lamp control circuit of the present invention.

[0031] Figure 3 This is a circuit diagram of an infrared sensing module of an embodiment of an LED lamp control circuit of the present invention.

[0032] Figure 4 This is a circuit diagram of a control module of an embodiment of an LED lamp control circuit of the present invention.

[0033] Figure 5 This is one of the circuit diagrams of the light board module of an embodiment of the LED light control circuit of the present invention.

[0034] Figure 6 This is the second circuit diagram of the light board module of an embodiment of the LED light control circuit of the present invention.

[0035] Figure 7 This is a circuit diagram of a music rhythm module in an embodiment of the LED light control circuit of the present invention.

[0036] Figure 8 This is a circuit diagram of an ambient light module according to an embodiment of the LED light control circuit of the present invention.

[0037] Figure 9 This is a circuit diagram of a power supply module of an embodiment of an LED lamp control circuit of the present invention.

[0038] In the figure, 10, LED light control circuit; 11, touch module; 12, infrared sensor module; 13, control module; 14, light board module; 141, yellow light group; 1411, yellow LED light; 142, white light group; 1421, white LED light; 15, music rhythm module; 16, atmosphere light module; 161, RGB lamp beads; 17, power supply module; 18, power supply. DETAILED DESCRIPTION

[0039] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without making creative efforts shall fall within the scope of protection of the present invention.

[0040] Directional terms mentioned in this invention, such as "upper", "lower", "front", "back", "left", "right", "inside", "outside", "side", "top" and "bottom", are only used with reference to the directions of the drawings. The directional terms used are used to illustrate and understand the invention, and are not intended to limit the invention.

[0041] The terms "first" and "second" in the present invention are used for descriptive purposes only and should not be understood as indicating or implying relative importance, nor as limiting the order of precedence.

[0042] In the figures, structurally similar elements are denoted by the same reference numerals.

[0043] Please refer to Figure 1 The utility model provides an LED lamp control circuit 10. The LED lamp control circuit 10 is applied to an LED clip lamp. The LED lamp control circuit 10 includes a touch module 11, an infrared sensing module 12, a control module 13, a light board module 14, a music rhythm module 15 and an atmosphere light module 16. The touch module 11 is used to output a touch data signal and a clock signal, and the infrared sensing module 12 is used to output an infrared sensing signal. The control module 13 is used to perform pulse width modulation operations on the touch data signal and the clock signal, and the control module 13 can generate a white light signal and a warm light signal. Alternatively, the control module 13 is used to perform pulse width modulation operations on the infrared sensing signal and the clock signal, and the control module 13 can generate a white light signal and a warm light signal.

[0044] Please refer to Figure 1 and Figure 2 The light board module 14 is used to receive white light signals and warm light signals, which are used to control the on / off of the LED lights inside the light board module 14. Alternatively, the white light signals and warm light signals are used to adjust the brightness of the LED lights inside the light board module 14, and the white light signals and warm light signals are used to adjust the color temperature of the LED lights inside the light board module 14. The touch module 11 includes a touch chip U1, which includes a touch data output pin TK1 / PWM4 / IO4 and a clock output pin TK2 / IO5. The touch data output pin TK1 / PWM4 / IO4 is used to output the touch data signal, and the clock output pin TK2 / IO5 is used to output the clock signal.

[0045] The touch module 11 also includes brightness adjustment buttons TK2 and TK3, color temperature adjustment button TK4, and an on / off button TK1. The on / off button TK1 is connected to the touch chip's TK7 / IO10 pin. When a user presses the on / off button TK1, the touch data output pin TK1 / PWM4 / IO4 outputs a touch data signal associated with turning the LED light on or off within the light board module 14. Based on this touch data signal and a clock signal, the control module 13 generates a white light signal and a warm light signal to control the on / off of the LED light within the light board module 14.

[0046] Furthermore, the brightness adjustment button TK3 is connected to the touch chip's TK3 / IO6 pin, and the brightness adjustment button TK2 is connected to the touch chip's TK8 / IO11 pin. When the user presses the brightness adjustment buttons TK3 and TK2, the touch data output pins TK1 / PWM4 / IO4 output touch data signals corresponding to the brightness of the LEDs within the light board module 14. Based on these touch data signals and the clock signal, the control module 13 generates white light signals and warm light signals to adjust the brightness of the LEDs within the light board module 14.

[0047] Furthermore, the color temperature adjustment button TK4 is connected to the TK9 / IO12 pin of the touch control chip. When the user presses the color temperature adjustment button TK4, the touch data output pin TK1 / PWM4 / IO4 outputs a touch data signal associated with the color temperature of the LED lights within the light board module 14. Based on this touch data signal and the clock signal, the control module 13 generates a white light signal and a warm light signal to adjust the brightness of the LED lights within the light board module 14.

[0048] Please refer to Figure 1 and Figure 3 The infrared sensing module 12 includes an infrared sensor IR1. The infrared sensor includes an IR pin. The infrared remote controller IR1 can transmit different carrier signals based on the carrier code value. Based on the carrier signal, the infrared sensor IR1 can output an infrared sensing signal through the IR pin.

[0049] When the infrared remote controller IR1 transmits a carrier signal associated with the internal LED light switch of the light board module 14, the IR pin of the infrared sensor IR1 can output an infrared sensing signal associated with the internal LED light switch of the light board module 14 based on the carrier signal. Therefore, based on the infrared sensing signal and the clock signal, the control module 13 can generate a white light signal and a warm light signal to control the internal LED light switch of the light board module 14.

[0050] When the infrared remote controller IR1 transmits a carrier signal related to the brightness of the LED lights inside the light board module 14, the IR pin of the infrared sensor IR1 can output an infrared sensing signal related to the brightness of the LED lights inside the light board module 14 based on the carrier signal. Therefore, based on the infrared sensing signal and the clock signal, the control module 13 can generate a white light signal and a warm light signal to adjust the brightness of the LED lights inside the light board module 14.

[0051] When infrared remote control IR1 transmits a carrier signal associated with the color temperature of the LED lights inside light board module 14, the IR pin of infrared sensor IR1 can output an infrared sensing signal associated with the color temperature of the LED lights inside light board module 14 based on the carrier signal. Therefore, based on the touch data signal and the clock signal, control module 13 can generate a white light signal and a warm light signal to adjust the color temperature of the LED lights inside light board module 14.

[0052] The music rhythm module 15 is used to output sound signals, and the control module 13 is used to perform pulse width modulation on the sound signals, and the control module 13 can generate adjustment signals. The atmosphere light module 16 is used to receive the adjustment signals, and the adjustment signals are used to adjust the different modes of the RGB lamp beads 161 inside the atmosphere light module 16.

[0053] Please refer to Figures 2 to 9 The following is a detailed description of the specific structure of the data interaction circuit 10:

[0054] Please refer to Figure 2 The touch module 11 also includes a switch indicator LED1, a brightness indicator LED2, and a color temperature indicator LED2. The switch indicator LED1 is connected to the TK5 / IO8 pin of the touch chip U1 and is used to indicate the on / off state of the LED lamp inside the indicator board module 14. The brightness indicator LED2 is connected to the TK4 / IO7 pin of the touch chip U1 and is used to indicate the brightness of the LED lamp inside the indicator board module 14. The color temperature indicator LED3 is connected to the TK6 / IO9 pin of the touch chip and is used to indicate the on / off color temperature of the LED lamp inside the indicator board module 14.

[0055] Please refer to Figure 2 and Figure 3 When a finger presses the aforementioned key, it increases the capacitance of the key, thereby changing the original oscillation frequency of the touch module 11 or the charge and discharge time of the RC circuit. Furthermore, this effect enables the touch chip to detect human touch and output corresponding touch data signals and clock signals, thereby controlling the on / off, brightness, and color temperature of the LED lights within the light board module 14.

[0056] Please refer to Figure 4 The control module 13 includes a first control chip U2 and a second control chip U3. The model of the first control chip U2 is DLT8F71SA. The first control chip U2 includes a touch data input pin IO2 / PWM2 / AN0, a clock input pin IO9 / AN6, an infrared sensor input pin IO13 / AN9, a first transmission pin IO0 / PWM0, and a second transmission pin IO4 / RST. The first control chip U3 includes a third transmission pin PAO / AINO / SWDIO, a fourth transmission pin PA5 / SWCLK, a first PWM output pin PA2 / AIN2 / NRST / PWM0, a second PWM output pin PA4 / AIN3 / PWM1, an audio signal input pin PA1 / AIN1, and a modulation signal output pin PA3 / RGB_OUT.

[0057] Please refer to Figure 2 、 Figure 3 and Figure 4 , touch data input pin IO2 / PWM2 / AN0 is connected to touch data output pin TK1 / PWM4 / IO4 of touch module 11, and touch data input pin IO2 / PWM2 / AN0 is used to receive touch data signals. Clock input pin IO9 / AN6 is connected to clock output pin TK2 / IO5 of touch module 11, and clock input pin IO9 / AN6 is used to input clock signals. Infrared sensor input pin IO13 / AN9 is connected to the IR pin of infrared sensor module 12, and infrared sensor input pin IO13 / AN9 is used to input infrared sensing signals. First transmission pin IO0 / PWM0 is connected to third transmission pin PAO / AINO / SWDIO, and first transmission pin IO0 / PWM0 and third transmission pin PAO / AINO / SWDIO are used to transmit touch data signals or infrared sensing signals. Second transmission pin IO4 / RST is connected to fourth transmission pin PA5 / SWCLK, and second transmission pin IO4 / RST and fourth transmission pin PA5 / SWCLK are used to transmit clock signals.

[0058] Please refer to Figure 4 、 Figure 5 and Figure 6The signal of the second control chip U3 is DLT8H04SA-SOP8. The second control chip U3 is used to perform pulse width modulation on the touch data signal and clock signal, and the second control chip U3 can generate a white light signal and a warm light signal. Alternatively, the second control chip is used to perform pulse width modulation on the infrared sensing signal and clock signal, and the second control chip U3 can generate a white light signal and a warm light signal. The first PWM output pin PA2 / AIN2 / NRST / PWM0 and the second PWM output pin PA4 / AIN3 / PWM1 are connected to the light board module 14. The first PWM output pin PA2 / AIN2 / NRST / PWM0 is used to output a white light signal, and the second PWM output pin PA4 / AIN3 / PWM1 is used to output a warm light signal. The light board module 14 includes a first MOS transistor Q1, a second MOS transistor Q2, multiple yellow light groups 141, and multiple white light groups 142. The yellow light groups 141 and the white light groups 142 are connected in parallel, and the yellow light groups 141 and the white light groups 142 are arranged alternately. The yellow light group 141 includes multiple yellow LED lamps 1411, which are connected in series. The white light group 142 includes multiple white LED lamps 1421, which are connected in series. The base of the first MOS transistor Q1 is connected to the first PWM output pin PA2 / AIN2 / NRST / PWM0, and the source and drain of the first MOS transistor Q1 are connected to the cathode of the white light group 142. The positive electrode of the white light group 142 is connected to the power supply 18, and the source of the first MOS transistor is grounded. The base of the second MOS transistor Q2 is connected to the second PWM output pin PA4 / AIN3 / PWM1, and the source and drain of the second MOS transistor Q2 are connected to the cathode of the white light group 142. The positive electrode of the yellow light group 141 is connected to the power supply 18, and the source of the second MOS transistor Q2 is grounded.

[0059] Please refer to Figure 4 、 Figure 7 and Figure 8 The sound signal input pin PA1 / AIN1 is connected to the music rhythm module 15, and the sound signal input pin PA1 / AIN1 is used to input the sound signal. The second control chip U3 is used to perform pulse width modulation on the sound signal, and the second control chip U3 can generate an adjustment signal. The adjustment signal output pin PA3 / RGB_OUT is connected to the atmosphere light module 16, and the adjustment signal output pin PA3 / RGB_OUT is used to output the adjustment signal. The atmosphere light module 16 includes multiple RGB lamp beads 161. Based on the adjustment signal, the RGB lamp beads 161 can produce a rhythmic rhythm effect as the music changes.

[0060] Please refer to Figure 7The music rhythm module 15 includes a microphone MIC1, a first transistor Q4, and a second transistor Q3. Microphone MIC1 is connected to the base of the first transistor Q4 and a 5V power supply, while the collector of the first transistor Q4 is connected to the 5V power supply. The emitter of the first transistor Q4 is grounded, and the base of the second transistor Q3 is connected to the collector of the first transistor. The emitter of the second transistor Q3 is connected to the 5V power supply, while the collector of the second transistor Q3 is connected to the sound signal input pin PA1 / AIN1.

[0061] Please refer to Figure 7 When microphone MIC1 receives music or sound, it outputs a high-level microphone signal based on the music or sound. The base of the first transistor Q4 receives the high-level microphone signal and turns on based on the high-level microphone signal. The first transistor Q4 generates a high-level ripple signal based on the high-level microphone signal. The base of the second transistor Q3 receives the high-level ripple signal and turns on based on the high-level ripple signal. The second transistor Q3 generates a sound signal based on the high-level ripple signal and the collector of the second transistor Q3 outputs the sound signal.

[0062] Please refer to Figure 7 When microphone MIC1 does not receive music or sound, microphone MIC1 is configured to output a low-level microphone signal based on the music or sound. The base of the first transistor Q4 receives the low-level microphone signal and is turned off based on the low-level microphone signal. The first transistor Q4 generates a low-level ripple signal based on the low-level microphone signal. The base of the second transistor Q3 receives the low-level ripple signal. The second transistor Q3 is turned off based on the low-level ripple signal and does not generate a sound signal.

[0063] Please refer to Figure 7 The music rhythm module 15 also includes a filter capacitor C14. One end of filter capacitor C14 is connected to the microphone MIC1 and the base of the first transistor Q4, and the other end of filter capacitor C14 is grounded. Filter capacitor C14 is used to filter out environmental interference from the microphone signal. The music rhythm module 15 also includes a coupling capacitor C13, which is connected in series between the microphone MIC1 and the base of the first transistor Q4. Coupling capacitor C13 is used to limit the bandwidth of the microphone signal and remove noise interference from the microphone signal.

[0064] Please refer to Figure 7The music rhythm module 15 also includes a first voltage-dividing resistor R15 and a second voltage-dividing resistor R16. One end of the first voltage-dividing resistor R15 is connected to the collector of the second transistor Q3, and the other end of the first voltage-dividing resistor R15 is connected to the sound signal input pin PA1 / AIN1. The other end of the second voltage-dividing resistor R16 is connected to ground. The first and second voltage-dividing resistors R15 and R16 are used to divide the sound signal to adjust the sensitivity of the sound or music rhythm.

[0065] Please refer to Figure 7 The music rhythm module 15 also includes a resistor R11, which is a pull-up resistor. One end of the resistor R11 is connected to a 5V power supply, and the other end of the resistor R11 is connected to the collector of the first transistor Q4. The resistor R11 can pull up the collector of the first transistor Q4 to a high level state. The music rhythm module 15 also includes a resistor R10, a resistor R12, and a resistor R13. The resistors R10, R12, and R13 are voltage divider resistors. The resistors R10, R12, and R13 can divide the voltage output by the 5V power supply, so that when the resistance of the microphone MIC1 increases, the voltage divided by the microphone MIC1 will become higher. When the resistance of the microphone MIC1 decreases, the voltage divided by the microphone MIC1 will become lower. The music rhythm module 15 also includes a capacitor C12, which is a coupling capacitor. One end of the capacitor C12 is connected to the collector of the first transistor Q4, and the other end of the capacitor C12 is connected to the base of the second transistor Q3. The capacitor C12 is used to limit the bandwidth of the ripple signal and remove noise interference from the ripple signal.

[0066] Please refer to Figure 7 The music rhythm module 15 includes a capacitor C15, which is connected in parallel with a second voltage-dividing resistor R16. The capacitor C15 is used to filter interference from the sound signal. The music rhythm module 15 includes a capacitor C11, one end of which is connected to a resistor R10. The other end of the capacitor C11 is grounded. The capacitor C11 can be used to filter interference from the output voltage of the 5V power supply. The music rhythm module 15 includes a resistor R14, which is a pull-down resistor. The resistor R14 can be used to filter out external interference, thereby preventing external interference from adversely affecting the second transistor Q3. In addition, the resistor R14 can also act as a voltage divider, so that the resistor R14 can be used to increase the turn-on threshold voltage of the second transistor Q3.

[0067] Please refer to Figure 9The LED light control circuit 10 also includes a power supply module 17 and a power supply 18. The power supply is configured to output a 24V power supply voltage. The power supply module 17 performs voltage conversion on the power supply voltage, thereby generating a 5V power supply voltage that can power the first control chip U2 and the second control chip U3. The power supply module 17 includes a voltage conversion chip U4, model HT7550-1, which includes a VIN pin and an OUT pin. The VIN pin is connected to the power supply 18 and receives the power supply voltage. The voltage conversion chip U4 performs voltage conversion on the power supply voltage. The voltage conversion chip U4 generates the power supply voltage, and the OUT pin outputs the power supply voltage. The OUT pin transmits the 5V power supply voltage to the music rhythm module 15, allowing the power supply module 17 to replace the 5V power supply. The power supply module 17 can power the microphone MIC1, the first transistor Q4, and the second transistor Q3. Moreover, the power supply voltage can also power the touch chip U1 and the infrared sensor IR1 , and the power supply 18 can power the RGB lamp beads 161 of the atmosphere light module 16 .

[0068] When LED light control circuit 10 switches to music rhythm mode, the 5V power supply provides a voltage to microphone MIC1 through resistor R13. Filter capacitor C14 is used to filter out environmental interference from the microphone signal, and coupling capacitor C13 is used to limit the bandwidth of the microphone signal and remove noise interference, thereby improving signal quality and clarity.

[0069] When music or sound is played, it changes the resistance of microphone MIC1. When the resistance of microphone MIC1 increases, the voltage received by microphone MIC1 increases. When the resistance of microphone MIC1 decreases, the voltage received by microphone MIC1 decreases. The microphone signal output by microphone MIC1 passes through capacitor C13 and is then coupled to the base of the first transistor Q4. Because the music rhythm module is equipped with resistor R11, the collector of the first transistor Q4 is always in a high-level state. When the microphone signal coupled to the base of the first transistor Q4 is at a high level, the collector and emitter of the first transistor Q4 are turned on, thereby connecting the collector of the first transistor Q4 to ground. Consequently, the collector of the first transistor Q4 is pulled from a high level to a low level.

[0070] When the signal coupled to the base of the first transistor Q4 is low, the collector and emitter of the first transistor Q4 are cut off, and the collector of the first transistor Q4 is high. Therefore, microphone MIC1 can convert music or sound into a microphone signal. The first transistor Q4 converts this microphone signal into a ripple signal, a continuous signal that fluctuates in level with the music. This ripple signal is output from the collector of the first transistor Q4, coupled through capacitor C12, and input into the base of Q3.

[0071] When the signal coupled to the base of the second transistor Q3 is high, the emitter and collector of the second transistor Q3 are cut off, and the music rhythm module 15 outputs no signal. When the signal coupled to the base of the second transistor Q3 is low, the emitter and collector of the second transistor Q3 are turned on. The second transistor Q3 converts the ripple signal into a sound signal, and the music rhythm module 15 can output the sound signal. Furthermore, the first voltage divider resistor R15 and the second voltage divider resistor R16 can divide the sound signal.

[0072] Ultimately, the sound signal flows into the second control chip U3, which collects and processes it through an algorithmic analysis process. Once the algorithm arrives at the result, the second control chip U3 outputs corresponding pulses, thereby controlling the RGB lamp beads 161 of the ambient light to produce a rhythmic effect in response to the music. Furthermore, the user can adjust the resistance values of the first and second voltage-dividing resistors R15 and R16, thereby varying the voltage divider of the sound signal and adjusting the sensitivity to the musical rhythm.

[0073] The operating principle of the present invention is as follows: When the LED light control circuit 10 is in operation, the touch control module 11 can first output a touch data signal via the touch data output pin TK1 / PWM4 / IO4, and the touch control module 11 can output a clock signal via the clock output pin TK2 / IO5. The control module 13 then receives the touch data signal via the touch data input pin IO2 / PWM2 / AN0 and the clock signal via the clock input pin IO9 / AN6. The control module 13 can pulse-width modulate the touch data signal and the clock signal, thereby generating a white light signal and a warm light signal. Alternatively, the infrared sensor module 12 can output an infrared sensing signal via the IR pin, and the touch module 11 can output a clock signal via the clock output pin TK2 / IO5. The control module 13 then receives the infrared sensing signal via the infrared sensor input pin IO13 / AN9 and the clock signal via the clock input pin IO9 / AN6. The control module 13 can pulse-width modulate the infrared sensing signal and the clock signal, thereby generating a white light signal and a warm light signal. Then, the control module 13 may output a white light signal through the first PWM output pin PA2 / AIN2 / NRST / PWM0 , and the control module 13 may output a warm light signal through the second PWM output pin PA4 / AIN3 / PWM1 .

[0074] Subsequently, the light board module 14 may receive the white light signal and the warm light signal, which are used to control the on / off of the LED light inside the light board module 14. Alternatively, the white light signal and the warm light signal may adjust the brightness of the LED light inside the light board module 14. Alternatively, the white light signal and the warm light signal may adjust the color temperature of the LED light inside the light board module 14.

[0075] When LED light control circuit 10 switches to music rhythm mode, the 5V power supply provides a voltage to microphone MIC1 through resistor R13. Filter capacitor C14 is used to filter out environmental interference from the microphone signal, and coupling capacitor C13 is used to limit the bandwidth of the microphone signal and remove noise interference, thereby improving signal quality and clarity.

[0076] When music or sound is played, it changes the resistance of microphone MIC1. When the resistance of microphone MIC1 increases, the voltage received by microphone MIC1 increases. When the resistance of microphone MIC1 decreases, the voltage received by microphone MIC1 decreases. The microphone signal output by microphone MIC1 passes through capacitor C13 and is then coupled to the base of the first transistor Q4. Because the music rhythm module is equipped with resistor R11, the collector of the first transistor Q4 is always in a high-level state. When the microphone signal coupled to the base of the first transistor Q4 is at a high level, the collector and emitter of the first transistor Q4 are turned on, thereby connecting the collector of the first transistor Q4 to ground. Consequently, the collector of the first transistor Q4 is pulled from a high level to a low level.

[0077] When the signal coupled to the base of the first transistor Q4 is low, the collector and emitter of the first transistor Q4 are cut off, and the collector of the first transistor Q4 is high. Therefore, microphone MIC1 can convert music or sound into a microphone signal. The first transistor Q4 converts this microphone signal into a ripple signal, a continuous signal that fluctuates in level with the music. This ripple signal is output from the collector of the first transistor Q4, coupled through capacitor C12, and input into the base of Q3.

[0078] When the signal coupled to the base of the second transistor Q3 is high, the emitter and collector of the second transistor Q3 are cut off, and the music rhythm module 15 outputs no signal. When the signal coupled to the base of the second transistor Q3 is low, the emitter and collector of the second transistor Q3 are turned on. The second transistor Q3 converts the ripple signal into a sound signal, and the music rhythm module 15 can output the sound signal. Furthermore, the first voltage divider resistor R15 and the second voltage divider resistor R16 can divide the sound signal.

[0079] Ultimately, the sound signal flows into the second control chip U3, which collects and processes it through an algorithmic analysis process. Once the algorithm arrives at the result, the second control chip U3 outputs corresponding pulses, thereby controlling the RGB lamp beads 161 of the ambient light to produce a rhythmic effect in response to the music. Furthermore, the user can adjust the resistance values of the first and second voltage-dividing resistors R15 and R16, thereby varying the voltage divider of the sound signal and adjusting the sensitivity to the musical rhythm.

[0080] The utility model provides an LED lamp control circuit, which is provided with a control module. The control module can control the switching of an LED lamp inside a light board module based on a white light signal and a warm light signal, or can adjust the brightness of the LED lamp inside the light board module based on the white light signal and the warm light signal, or can adjust the color temperature of the LED lamp inside the light board module based on the white light signal and the warm light signal.

[0081] This LED light control circuit is equipped with a music rhythm module and an ambient light module. The music rhythm module outputs a sound signal. The control module performs pulse width modulation on the sound signal, thereby generating a control signal. The ambient light module receives the control signal, which is used to adjust the different modes of the RGB lamp beads within the ambient light module. Therefore, an LED clip light equipped with this LED light control circuit not only provides dual-color temperature LED lighting but also adds the function of ambient lighting with RGB lamp beads. This effectively solves the technical problem of existing clip lights being relatively limited in functionality. This LED clip light equipped with this LED light control circuit can create an overall sense of ambiance in the illuminated space, allowing users to use it in a variety of daily life scenarios, effectively enriching their daily needs and providing a good user experience. This LED clip light equipped with this LED light control circuit can meet users' lighting and ambiance needs, eliminating the need to purchase separate RGB lamp beads, saving space and reducing the cost of purchasing the lighting fixture.

[0082] In summary, although the present invention has been disclosed above with reference to preferred embodiments, the above preferred embodiments are not intended to limit the present invention. A person skilled in the art may make various changes and modifications without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention shall be based on the scope defined by the claims.

Claims

1. An LED lamp control circuit, characterized in that: These include, A touch module, used for outputting touch data signals and clock signals; Infrared sensing module, used for outputting infrared sensing signals; Music rhythm module, used to output sound signals; a control module, configured to perform a pulse width modulation operation on the touch data signal and the clock signal to generate a white light signal and a warm light signal; or to perform a pulse width modulation operation on the infrared sensing signal and the clock signal to generate the white light signal and the warm light signal; and the control module to perform a pulse width modulation operation on the sound signal to generate a regulation signal; A light board module, configured to receive the white light signal and the warm light signal, wherein the white light signal and the warm light signal are used to control the switch of the LED lamp inside the light board module, or the white light signal and the warm light signal are used to adjust the brightness of the LED lamp inside the light board module, or the white light signal and the warm light signal are used to adjust the color temperature of the LED lamp inside the light board module; The atmosphere light module is used to receive the adjustment signal, and the adjustment signal is used to adjust different modes of the RGB lamp beads inside the atmosphere light module.

2. The LED lamp control circuit according to claim 1, characterized in that: The control module includes a first control chip and a second control chip, the first control chip includes a touch data input pin, a clock input pin, an infrared sensor input pin, a first transmission pin, and a second transmission pin, the first control chip includes a third transmission pin, a fourth transmission pin, a first PWM output pin, a second PWM output pin, a sound signal input pin, and a regulation signal output pin; The touch data input pin is connected to the touch module, and the touch data is used to receive the touch data signal. The clock input pin is connected to the touch module, and the clock input pin is used to input a clock signal. The infrared sensing input pin is connected to the infrared sensing module, and the infrared sensing input pin is used to input the infrared sensing signal. The first transmission pin is connected to the third transmission pin, and is used to transmit the touch data signal or the infrared sensing signal. The second transmission pin is connected to the fourth transmission pin, and is used to transmit the clock signal. The second control chip is used to perform a pulse width modulation operation on the touch data signal and the clock signal to generate the white light signal and the warm light signal; or the second control chip is used to perform a pulse width modulation operation on the infrared sensing signal and the clock signal to generate the white light signal and the warm light signal, the first PWM output pin and the second PWM output pin are connected to the light board module, the first PWM output pin is used to output the white light signal, and the second PWM output pin is used to output the warm light signal; The sound signal input pin is connected to the music rhythm module, the sound signal input pin is used to input the sound signal, and the second control chip is used to perform pulse width modulation operation on the sound signal to generate an adjustment signal; the adjustment signal output pin is connected to the atmosphere light module, and the adjustment signal output pin is used to output the adjustment signal.

3. The LED lamp control circuit according to claim 2, characterized in that: The music rhythm module includes a microphone, a first transistor and a second transistor. The microphone is connected to the base of the first transistor and a 5V power supply, the collector of the first transistor is connected to the 5V power supply, the emitter of the first transistor is grounded, the base of the second transistor is connected to the collector of the first transistor, the emitter of the second transistor is connected to the 5V power supply, and the collector of the second transistor is connected to the sound signal input pin.

4. The LED lamp control circuit according to claim 3, characterized in that: When the microphone receives music or sound, the microphone is configured to output a high-level microphone signal based on the music or sound, the base of the first transistor receives the high-level microphone signal, the first transistor is turned on based on the high-level microphone signal, the first transistor generates a high-level ripple signal based on the high-level microphone signal, the base of the second transistor receives the high-level ripple signal, the second transistor is turned on based on the high-level ripple signal, the second transistor generates a sound signal based on the high-level ripple signal, and the collector of the second transistor is configured to output the sound signal; When the microphone does not receive music or sound, the microphone is used to output a low-level microphone signal based on the music or sound, the base of the first transistor receives the low-level microphone signal, the first transistor is cut off based on the low-level microphone signal, the first transistor generates a low-level ripple signal based on the low-level microphone signal, the base of the second transistor receives the low-level ripple signal, the second transistor is cut off based on the low-level ripple signal, and the second transistor does not generate the sound signal.

5. The LED lamp control circuit according to claim 4, characterized in that: The music rhythm module further includes a filter capacitor, one end of which is connected to the microphone and the base of the first transistor, and the other end of which is grounded. The filter capacitor is used to filter out environmental interference of the microphone signal.

6. The LED lamp control circuit according to claim 4, characterized in that: The music rhythm module further includes a coupling capacitor, which is connected in series between the microphone and the base of the first transistor. The coupling capacitor is used to limit the bandwidth of the microphone signal and remove noise interference from the microphone signal.

7. The LED lamp control circuit according to claim 3, characterized in that: The music rhythm module also includes a first voltage-dividing resistor and a second voltage-dividing resistor, one end of the first voltage-dividing resistor is connected to the collector of the second transistor, the other end of the first voltage-dividing resistor is connected, one end of the second voltage-dividing resistor is connected to the sound signal input pin, and the other end of the second voltage-dividing resistor is grounded. The first voltage-dividing resistor and the second voltage-dividing resistor are used to perform a voltage-dividing operation on the sound signal to adjust the rhythm sensitivity of the sound or music.

8. The LED lamp control circuit according to claim 2, characterized in that: The model of the first control chip is DLT8F71 SA, and the signal of the second control chip is DLT8H04SA-SOP8.

9. The LED lamp control circuit according to claim 2, characterized in that: The LED lamp control circuit also includes a power supply module and a power supply, the power supply is used to output a power supply voltage, the power supply module is used to perform a voltage conversion operation on the power supply voltage to generate a power supply voltage, and the power supply voltage is used to power the first control chip and the second control chip.

10. An LED clip light, characterized in that: It comprises the LED lamp control circuit according to any one of claims 1 to 9.

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