Two-wire carrier point controlled light emitting diode system

Abstract

A two-wire carrier point control light emitting diode system includes a micro control circuit, an AC power detector and a plurality of light emitting diode lamps; the micro control circuit includes a first switch and a micro control module. When the light emitting diode lamps need to be controlled to emit light, the micro control module detects a voltage state of an AC power through the AC power detector; the micro control module continuously switches on / off state of the first switch in a half wave period along with the voltage variation of the AC power to change the voltage transmitted to the light emitting diode lamps to generate a plurality of light emitting control signals; the light emitting diode lamps are configured to receive the light emitting control signals and emit light according to the light emitting control signals. The control lines of the light emitting diode system are omitted to save wire and cost.

Description

Technical Field

[0001] This invention relates to a carrier-controlled light-emitting diode system, and more particularly to a two-wire carrier-controlled light-emitting diode system. Background Technology

[0002] A related technology light-emitting diode system mainly includes a related technology microcontroller circuit and a plurality of related technology light-emitting diode lamps; the related technology light-emitting diode lamps receive a power supply from a power supply through a plurality of power lines, and simultaneously receive light emission data provided by the related technology microcontroller circuit through a plurality of control lines; after each of the related technology light-emitting diode lamps receives the power supply from the power supply and the light emission data provided by the related technology microcontroller circuit, each of the related technology light-emitting diode lamps emits light according to the light emission data.

[0003] However, with the rising prices of raw materials, if the LED system of this technology includes more LED lamps of this technology, then the LED system of this technology will require more control lines, which will undoubtedly increase the cost of the LED system of this technology. Summary of the Invention

[0004] To address the aforementioned problems, the present invention aims to provide a two-wire carrier-controlled light-emitting diode system.

[0005] To achieve the above-mentioned objectives of the present invention, the two-wire carrier-controlled LED system of the present invention is applied to an AC power supply. The two-wire carrier-controlled LED system includes: a microcontroller circuit; an AC power detector electrically connected to the microcontroller circuit; and a plurality of LED lamps electrically connected to the microcontroller circuit and the AC power detector, receiving the AC power supply as their operating power. The microcontroller circuit includes: a first switch electrically connected to the LED lamps; and a microcontroller module electrically connected to the AC power detector and the first switch. When it is necessary to control the LED lamps to emit light, the microcontroller module detects the voltage state of the AC power supply through the AC power detector. The microcontroller module continuously switches the conduction state of the first switch within one half-wave cycle along the voltage change of the AC power supply to change the voltage transmitted to the LED lamps to generate a plurality of light emission control signals. The LED lamps are configured to receive the light emission control signals and emit light according to the light emission control signals.

[0006] Optionally, the signal strength of these light-emitting control signals is sufficient for the LED lamps to recognize them and is greater than the reset voltage of the LED lamps.

[0007] Optionally, the AC power detector includes: a detection resistor electrically connected to the microcontroller module and the LED lamps; and a detection capacitor electrically connected to the microcontroller module, the detection resistor, and the first switch, wherein the microcontroller module detects the voltage state of the AC power supply through the detection resistor and the detection capacitor.

[0008] Optionally, the microcontroller module includes: a microcontroller electrically connected to the first switch; a first clamping diode electrically connected to the microcontroller; a second clamping diode electrically connected to the microcontroller and the first clamping diode; and a resistor electrically connected to the detection resistor, the detection capacitor, the microcontroller, the first clamping diode, and the second clamping diode, wherein the first clamping diode and the second clamping diode clamp the AC power supply to obtain a first square wave signal and transmit the first square wave signal to the microcontroller so that the microcontroller can determine and detect the voltage state of the AC power supply, wherein the microcontroller circuit further includes: a microcontroller operating voltage source electrically connected to the microcontroller and the first clamping diode.

[0009] Optionally, it further includes: a first capacitor electrically connected to the microcontroller's operating voltage source, the detection capacitor, the microcontroller, and the first switch; a rectifier diode electrically connected to the microcontroller's operating voltage source and the first capacitor; a clamping diode electrically connected to the detection capacitor, the microcontroller, the first switch, the first capacitor, and the rectifier diode; and a second capacitor electrically connected to the detection resistor, the light-emitting diodes, the rectifier diode, and the clamping diode.

[0010] Optionally, the microcontroller circuit further includes: a second switch electrically connected to the LED lamps, the microcontroller, and the first switch, wherein the microcontroller module continuously switches the on state of the first switch or the on state of the second switch within a full-wave cycle along the voltage change of the AC power supply to change the voltage transmitted to the LED lamps to generate the light-emitting control signals.

[0011] Optionally, it further includes: a first capacitor electrically connected to the microcontroller's operating voltage source, the detection capacitor, the microcontroller, and the first switch; a rectifier diode electrically connected to the detection resistor and the light-emitting diodes; a clamping resistor electrically connected to the microcontroller's operating voltage source, the detection capacitor, the microcontroller, the first switch, and the first capacitor; a second capacitor electrically connected to the detection capacitor, the microcontroller, the first switch, the first capacitor, the rectifier diode, and the clamping resistor; and a voltage divider resistor electrically connected to the microcontroller's operating voltage source, the first capacitor, the rectifier diode, the clamping resistor, and the second capacitor, wherein the clamping resistor is used to clamp the AC power supply to power the microcontroller.

[0012] Optionally, each of the LED lamps includes: a positive voltage terminal electrically connected to the AC power detector; a negative voltage terminal electrically connected to the microcontroller circuit; an LED driver electrically connected to the negative voltage terminal; a first Zener diode electrically connected to the negative voltage terminal and the LED driver; a third capacitor electrically connected to the negative voltage terminal, the LED driver, and the first Zener diode; a lamp terminal resistor electrically connected to the LED driver, the first Zener diode, and the third capacitor; a first diode electrically connected to the LED driver, the first Zener diode, the third capacitor, and the lamp terminal resistor; and a fourth capacitor electrically connected to the LED driver, the first Zener diode, the third capacitor, and the lamp terminal resistor. A first diode is electrically connected to the positive terminal of the voltage; a second Zener diode is electrically connected to the negative terminal of the voltage, the LED driver, the first Zener diode, the third capacitor, and the fourth capacitor; and a second diode is electrically connected to the LED driver, the lamp terminal resistor, the first diode, the fourth capacitor, and the second Zener diode, wherein the first Zener diode, the third capacitor, the lamp terminal resistor, the first diode, the fourth capacitor, the second Zener diode, and the second diode process the light emission control signals to obtain a second square wave signal; the second square wave signal is between a first breakdown voltage of the first Zener diode and a second breakdown voltage of the second Zener diode.

[0013] Optionally, each of the LED lamps further includes: a red LED electrically connected to the LED driver, the lamp terminal resistor, the first diode, and the second diode; a green LED electrically connected to the LED driver, the lamp terminal resistor, the first diode, the second diode, and the red LED; and a blue LED electrically connected to the LED driver, the lamp terminal resistor, the first diode, the second diode, the red LED, and the green LED.

[0014] Optionally, if the signal length of the light-emitting control signals is greater than the half-wave period, the microcontroller module switches the first switch in the next half-wave period with the same AC power supply voltage change to complete the generation of the light-emitting control signals.

[0015] Optionally, if the signal length of the light emission control signals is greater than the half-wave period, the microcontroller module switches the first switch or the second switch in the next consecutive half-wave period to generate the light emission control signals.

[0016] Optionally, the microcontroller module first switches the first switch and then switches the second switch to generate the light-emitting control signals; wherein, when one of the first switch and the second switch is switched, the other of the first switch and the second switch stops switching.

[0017] Optionally, the first switch is connected in series with the second switch; when the AC power supply is in the positive half-cycle, the microcontroller switches the first switch to generate the light-emitting control signals; when the AC power supply is in the negative half-cycle, the microcontroller switches the second switch to generate the light-emitting control signals.

[0018] The advantage of this invention is that it eliminates the control lines of the LED system, thus saving on wiring and costs.

[0019] To gain a deeper understanding of the techniques, means, and effects employed by this invention to achieve its intended purpose, please refer to the following detailed description and accompanying drawings. It is believed that the purpose, features, and characteristics of this invention can be understood in a thorough and specific manner from these drawings. However, the accompanying drawings are provided for reference and illustration only and are not intended to limit this invention. Attached Figure Description

[0020] Figure 1 This is a block diagram of a first specific embodiment of the two-line carrier point-controlled light-emitting diode system of the present invention.

[0021] Figure 2 This is a block diagram of a second specific embodiment of the two-line carrier point-controlled light-emitting diode system of the present invention.

[0022] Figure 3 This is a circuit diagram of a specific embodiment of the microcontroller circuit and the AC power detector for a second specific embodiment of the two-wire carrier point-controlled light-emitting diode system of the present invention.

[0023] Figure 4 The circuit diagram is shown in another embodiment of the microcontroller circuit and the AC power detector of the two-wire carrier point-controlled light-emitting diode system of the present invention, which is a second specific embodiment of the present invention.

[0024] Figure 5This is a circuit diagram of the LED lamp of the present invention.

[0025] Figure 6 To utilize Figure 3 A waveform diagram of a specific embodiment of the first switch used to generate the light-emitting control signals.

[0026] Figure 7 To utilize Figure 4 A waveform diagram of a specific embodiment of the first switch and the second switch used to generate the light emission control signals.

[0027] Figure 8 This is a waveform diagram of a specific embodiment of the light emission control signals of the present invention after being processed by the light-emitting diode lamp.

[0028] In the picture: 10: Two-wire carrier-controlled LED system; 102: Microcontroller circuit; 104: AC power detector; 106: LED lamp; 108: AC power supply; 110: Light emission control signal; 112: Microcontroller; 114: First switch; 116: First clamping diode; 118: Second clamping diode; 120: Resistor; 122: Microcontroller operating voltage source; 124: Detection resistor; 126: Detection capacitor; 128: First capacitor; 130: Rectifier diode; 132: Clamping latching diode; 134: Second capacitor; 136: Second switch; 138: Voltage divider Resistor; 140: Positive voltage terminal; 142: Negative voltage terminal; 144: LED driver; 146: First Zener diode; 148: Third capacitor; 150: Lamp terminal resistor; 152: First diode; 154: Fourth capacitor; 156: Second Zener diode; 158: Second diode; 160: Red LED; 162: Green LED; 164: Blue LED; 166: Address data; 168: Light emission data; 170: AC power supply; 172: Local address code; 174: Pulse signal; 176: Microcontroller module; a1: Preset value. Detailed Implementation

[0029] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, so that those skilled in the art can better understand and implement the present invention. However, the embodiments described are not intended to limit the present invention.

[0030] Please refer to Figure 1This is a block diagram of a first specific embodiment of the two-wire carrier-controlled LED system 10 of the present invention. The two-wire carrier-controlled LED system 10 of the present invention is applied to an AC power supply 108. The two-wire carrier-controlled LED system 10 includes a microcontroller circuit 102, an AC power detector 104, and a plurality of LED lamps 106, all of which are electrically connected to each other. The LED lamps 106 receive the AC power supply 108 as their operating power source. The LED lamps 106 are configured to receive a plurality of light emission control signals 110 and emit light according to these light emission control signals 110 (i.e., the LED lamps 106 are driven by the light emission control signals 110 to change their light emission, as will be described in detail later). The AC power supply 108 may be a 120-volt AC power supply, but is not limited thereto; the LED lamps 106 are connected in parallel with each other.

[0031] Furthermore, please refer to Figure 2 This is a block diagram of a second specific embodiment of the two-line carrier point-controlled light-emitting diode system 10 of the present invention. Figure 2 The components shown are Figure 1 For the sake of simplicity, identical components will not be described again here. The two-wire carrier-controlled LED system 10 also includes an AC power supply 170, which is electrically connected to the microcontroller circuit 102, the AC power detector 104, and the LED lamps 106; the AC power supply 170 generates and outputs the AC power 108. Each of the LED lamps 106 includes a unique address code 172, and the light emission control signal 110 includes address data 166 and light emission data 168. When each of the LED lamps 106 receives the light emission control signals 110, each of the LED lamps 106 is configured to compare the address data 166 and the local address code 172; if the address data 166 is equal to the local address code 172, then the LED lamp 106 is configured to emit light according to the light emission data 168; if the address data 166 is not equal to the local address code 172, then the LED lamp 106 is configured to ignore the light emission data 168.

[0032] Please refer to Figure 3 This is a circuit diagram of a specific embodiment of the microcontroller circuit 102 and the AC power detector 104 of the two-wire carrier point-controlled light-emitting diode system 10 of the present invention in a second specific embodiment. Figure 3 The components shown are Figure 2For the sake of simplicity, identical components will not be described again here. The two-wire carrier-controlled LED system 10 also includes a first capacitor 128, a rectifier diode 130, a clamping diode 132, and a second capacitor 134; the microcontroller circuit 102 includes a first switch 114, a microcontroller module 176, and a microcontroller operating voltage source 122; the microcontroller module 176 includes a microcontroller 112, a first clamping diode 116, a second clamping diode 118, and a resistor 120; the AC power detector 104 includes a detection resistor 124 and a detection capacitor 126; all these components are electrically connected to each other. Figure 3 The microcontroller 112 may be of the model number, but the present invention is not limited to DJ6244 or DJ6246, or any microcontroller that can achieve the same function.

[0033] When it is necessary to control the LED lamps 106 to emit light, the microcontroller module 176 detects the voltage state of the AC power supply 108 through the AC power detector 104; the microcontroller module 176 continuously switches the conduction state of the first switch 114 along the voltage change of the AC power supply 108 within one half-wave cycle to change the voltage transmitted to the LED lamps 106 to generate the light emission control signals 110.

[0034] The microcontroller module 176 detects the voltage state of the AC power supply 108 through the detection resistor 124 and the detection capacitor 126. The first clamping diode 116 and the second clamping diode 118 clamp the AC power supply 108 to obtain a first square wave signal and transmit the first square wave signal to the microcontroller 112 so that the microcontroller 112 can determine and detect the voltage state of the AC power supply 108.

[0035] The signal strength of the light-emitting control signals 110 is sufficient for the LED lamps 106 to recognize them and is greater than the reset voltage of the LED lamps 106. The significance of the sufficient signal strength of the light-emitting control signals 110 is twofold: first, the potential difference (e.g., 2-3 volts) is large enough for the LED lamps 106 to recognize the light-emitting control signals 110; if the potential difference is too small, the LED lamps 106 will not be able to recognize the light-emitting control signals 110; second, the minimum voltage value of the signal strength of the light-emitting control signals 110 is greater than the reset voltage of the LED lamps 106, thus preventing the LED lamps 106 from resetting.

[0036] Please refer to Figure 6 It is used for Figure 3 A waveform diagram of a specific embodiment of the first switch 114 that generates the light-emitting control signals 110; Figure 6The preset value a1 shown (i.e., the signal strength of the aforementioned light-emitting control signals 110 is strong enough) can be an operating voltage value of the LED lamps 106, and the light-emitting control signals 110 include a plurality of pulse signals 174. If the signal length of the light-emitting control signals 110 is greater than the half-wave period, the microcontroller module 176 switches the first switch 114 in the next half-wave period with the same AC power supply voltage change to complete the generation of the light-emitting control signals 110; here, the signal length is defined as the signal length of all the light-emitting control signals 110 (i.e., all the pulse signals 174). Furthermore, the present invention can also be applied to AC power supplies after rectification, thus eliminating the need to wait for a half-wave period interval.

[0037] Please refer to Figure 4 This is a circuit diagram of another specific embodiment of the microcontroller circuit 102 and the AC power detector 104 of the two-wire carrier point-controlled light-emitting diode system 10 of the present invention. Figure 4 The components shown are Figure 3 For the sake of simplicity, identical components will not be described again here. The two-wire carrier-controlled LED system 10 also includes a first capacitor 128, a rectifier diode 130, a clamping diode 132, a second capacitor 134, and a voltage divider resistor 138; the microcontroller circuit 102 also includes a second switch 136; all these components are electrically connected to each other. Figure 4 The microcontroller 112 may be, for example, but is not limited to, the DJ6374, or any microcontroller that can achieve the same function. The clamping diode 132 is used to clamp the AC power supply 108 to supply power to the microcontroller 112.

[0038] The microcontroller module 176 continuously switches the on state of the first switch 114 or the on state of the second switch 136 within a full-wave cycle along the voltage change of the AC power supply 108 to change the voltage transmitted to the LED lamps 106 and generate the light-emitting control signals 110. The first switch 114 is connected in series with the second switch 136; when the AC power supply 108 is in the positive half-cycle, the microcontroller module 176 switches the first switch 114 to generate the light-emitting control signals 110; when the AC power supply 108 is in the negative half-cycle, the microcontroller module 176 switches the second switch 136 to generate the light-emitting control signals 110.

[0039] Please refer to Figure 7 It is used for Figure 4The waveform diagram shows a specific embodiment of the first switch 114 and the second switch 116 used to generate the light emission control signals 110. If the signal length of the light emission control signals 110 is greater than the half-wave period, the microcontroller module 176 switches the first switch 114 or the second switch 136 in the next consecutive half-wave period to complete the generation of the light emission control signals 110; that is, switching between positive and negative half-cycles (different voltage changes); the microcontroller module 176 first switches the first switch 114 and then switches the second switch 136 to complete the generation of the light emission control signals 110; when one of the first switch 114 and the second switch 136 is switched, the other of the first switch 114 and the second switch 136 stops switching.

[0040] Furthermore, in Figure 3 and Figure 4 In this configuration, the microcontroller operating voltage source 122 is connected to the microcontroller 112 and the cathode of the first clamping diode 116; the anode of the first clamping diode 116 is connected to the microcontroller 112, the cathode of the second clamping diode 118, and one end of the resistor 120; the anode of the second clamping diode 118 is grounded; and the other end of the resistor 120 is connected to the AC power detector 104. The detection resistor 124 can be, for example, but not limited to, a 1M ohm resistor or a 2M ohm resistor. The AC power detector 104 may not necessarily include the detection capacitor 126. The first capacitor 128 can be, for example, but not limited to, a 10uF capacitor. The clamping diode 132 can be, for example, but not limited to, a 5.1-volt clamping diode. Figure 3 The rectifier diode 130 may be of the type, but the present invention is not limited to 1N4148. Figure 4 The rectifier diode 130 may be of the type, but the present invention is not limited to 1N4007. Figure 3 The second capacitor 134 can be, for example, but is not limited to, a 0.68uF / 250 volt capacitor. Figure 4 The second capacitor 134 may be, for example, but the present invention is not limited to, a 47uF capacitor.

[0041] Please refer to Figure 5 This is a circuit diagram of the LED lamp 106 of the present invention; Figure 5 The components shown are Figure 2For the sake of simplicity, the same components will not be described again here. Each of these LED lamps 106 includes a positive voltage terminal 140, a negative voltage terminal 142, an LED driver 144, a first Zener diode 146, a third capacitor 148, a lamp terminal resistor 150, a first diode 152, a fourth capacitor 154, a second Zener diode 156, a second diode 158, a red LED 160, a green LED 162, and a blue LED 164; these components are electrically connected to each other. Figure 5 The LED driver 144 may be of the type, but is not limited to DJ5179 or ST2599A, or any LED driver that can achieve the same function.

[0042] The first Zener diode 146, the third capacitor 148, the lamp terminal resistor 150, the first diode 152, the fourth capacitor 154, the second Zener diode 156, and the second diode 158 process the light emission control signals 110 to obtain a second square wave signal; the second square wave signal is between a first breakdown voltage (e.g., 2 volts) of the first Zener diode 146 and a second breakdown voltage (e.g., 5.1 volts) of the second Zener diode 156; please refer to Figure 8 This is a waveform diagram (i.e., the second square wave signal) of a specific embodiment of the light emission control signals 110 of the present invention after being processed by the light-emitting diode lamp 106.

[0043] Furthermore, the LED driver 144 is configured to store the local address code 172; the first Zener diode 146 may be, for example, but not limited to, a 2-volt Zener diode; the third capacitor 148 may be, for example, but not limited to, a 10uF capacitor; the first diode 152 may be, for example, but not limited to, a 1N4148; the fourth capacitor 154 may be, for example, but not limited to, a 0.68uF / 250-volt capacitor; the second Zener diode 156 may be, for example, but not limited to, a 5.1-volt Zener diode; and the second diode 158 may be, for example, but not limited to, a 1N4148.

[0044] Furthermore, the negative voltage terminal 142 is connected to the LED driver 144, the anode of the first Zener diode 146, one end of the third capacitor 148, and the anode of the second Zener diode 156. The positive voltage terminal 140 is connected to one end of the fourth capacitor 154. The other end of the fourth capacitor 154 is connected to the cathode of the second Zener diode 156 and the anode of the second diode 158. The cathode of the second diode 158 is connected to the LED driver 144, one end of the lamp terminal resistor 150, the cathode of the first diode 152, the anode of the red LED 160, the anode of the green LED 162, and the anode of the blue LED 164. The other end of the lamp terminal resistor 150 is connected to the cathode of the first Zener diode 146, the other end of the third capacitor 148, and the anode of the first diode 152. The cathodes of the red LED 160, the green LED 162, and the blue LED 164 are connected to the LED driver 144.

[0045] The advantage of this invention is that it eliminates the control lines of the LED system, thus saving on wiring and costs.

[0046] The above-described embodiments are merely preferred embodiments provided to fully illustrate the present invention, and the scope of protection of the present invention is not limited thereto. Equivalent substitutions or modifications made by those skilled in the art based on the present invention are all within the scope of protection of the present invention. The scope of protection of the present invention is defined by the claims.

Claims

1. A two-wire carrier-controlled light-emitting diode system, applied to an AC power supply, characterized in that, This two-wire carrier-controlled light-emitting diode system includes: A microcontroller circuit; An AC power detector is electrically connected to the microcontroller circuit; and A plurality of light-emitting diode lamps are electrically connected to the microcontroller circuit and the AC power detector, and receive the AC power as their operating power. Each of the light-emitting diode lamps contains a unique address code. The microcontroller circuit includes: A first switch, electrically connected to the LED lamps; and A microcontroller module is electrically connected to the AC power detector and the first switch. When it is necessary to control the LED lamps to emit light, the microcontroller module detects the voltage state of the AC power supply through the AC power detector; the microcontroller module continuously switches the conduction state of the first switch within one half-wave cycle along the voltage change of the AC power supply to change the voltage transmitted to the LED lamps and generate multiple light emission control signals; the LED lamps are configured to receive the light emission control signals and emit light according to the light emission control signals; the light emission control signals include address data and light emission data; when each of the LED lamps receives the light emission control signals, the LED lamps... Each is configured to compare the address data and the local address code; if the address data is equal to the local address code, the LED lamp is configured to emit light according to the light emission data; if the address data is not equal to the local address code, the LED lamp is configured to ignore the light emission data; if the signal length of the light emission control signals is greater than the half-wave period, the microcontroller module switches the first switch in the next half-wave period with the same AC power supply voltage change to complete the generation of the light emission control signals; the signal strength of the light emission control signals is sufficient for the LED lamps to recognize and is greater than the reset voltage of the LED lamps.

2. A two-wire carrier-controlled light-emitting diode system, applied to an AC power supply, characterized in that, This two-wire carrier-controlled light-emitting diode system includes: A microcontroller circuit; An AC power detector is electrically connected to the microcontroller circuit; and A plurality of light-emitting diode lamps are electrically connected to the microcontroller circuit and the AC power detector, and receive the AC power as their operating power. Each of the light-emitting diode lamps contains a unique address code. The microcontroller circuit includes: A first switch is electrically connected to these LED lamps; A second switch is electrically connected to the LED lamps, the microcontroller circuit, and the first switch, the first switch being connected in series with the second switch; and A microcontroller module is electrically connected to the AC power detector, the first switch, and the second switch. When it is necessary to control the LED lamps to emit light, the microcontroller module detects the voltage state of the AC power supply through the AC power detector; the microcontroller module continuously switches the on state of the first switch or the on state of the second switch along the voltage change of the AC power supply within a full-wave cycle to change the voltage transmitted to the LED lamps and generate multiple light emission control signals; these light emission control signals include address data and light emission data; when each of the LED lamps receives the light emission control signals, each of the LED lamps is configured to compare the address data and the local address code; if the If the address data is equal to the local address code, the LED lamp is configured to emit light according to the light emission data; if the address data is not equal to the local address code, the LED lamp is configured to ignore the light emission data; when the AC power is in the positive half-cycle, the microcontroller switches the first switch to generate the light emission control signals; when the AC power is in the negative half-cycle, the microcontroller switches the second switch to generate the light emission control signals; if the signal length of the light emission control signals is greater than half a wave period, the microcontroller switches the first switch or the second switch in the next consecutive half-wave period to complete the generation of the light emission control signals, and the signal strength of the light emission control signals is sufficient for the LED lamps to recognize and is greater than the reset voltage of the LED lamps; wherein, the microcontroller switches the first switch first and then switches the second switch to complete the generation of the light emission control signals; and when one of the first switch and the second switch is switched, the other of the first switch and the second switch stops switching.

3. The two-wire carrier-controlled light-emitting diode system as described in claim 1 or 2, characterized in that, The AC power detector includes: A detection resistor is electrically connected to the microcontroller module and the LED lamps; and A detection capacitor is electrically connected to the microcontroller module, the detection resistor, and the first switch. The microcontroller module detects the voltage state of the AC power supply through the detection resistor and the detection capacitor.

4. The two-wire carrier-controlled light-emitting diode system as described in claim 3, characterized in that, This microcontroller module includes: A microcontroller is electrically connected to the first switch; A first clamping diode is electrically connected to the microcontroller; A second clamping diode is electrically connected to the microcontroller and the first clamping diode; and A resistor is electrically connected to the detection resistor, the detection capacitor, the microcontroller, the first clamping diode, and the second clamping diode. The first clamping diode and the second clamping diode clamp the AC power supply to obtain a first square wave signal and transmit the first square wave signal to the microcontroller so that the microcontroller can determine and detect the voltage state of the AC power supply. The microcontroller circuit also includes: A microcontroller operating voltage source is electrically connected to the microcontroller and the first clamping diode.

5. The two-wire carrier-controlled light-emitting diode system as described in claim 4, characterized in that, Also includes: A first capacitor is electrically connected to the operating voltage source of the microcontroller, the detection capacitor, the microcontroller, and the first switch; A rectifier diode is electrically connected to the operating voltage source of the microcontroller and the first capacitor; A clamping rectifier diode is electrically connected to the detection capacitor, the microcontroller, the first switch, the first capacitor, and the rectifier diode; and A second capacitor is electrically connected to the detection resistor, the light-emitting diodes, the rectifier diode, and the clamping diode.

6. The two-wire carrier-controlled light-emitting diode system as described in claim 4, characterized in that, Also includes: A first capacitor is electrically connected to the operating voltage source of the microcontroller, the detection capacitor, the microcontroller, and the first switch; A rectifier diode is electrically connected to the sensing resistor and the light-emitting diode lamps; A clamping sensor diode is electrically connected to the microcontroller's operating voltage source, the detection capacitor, the microcontroller, the first switch, and the first capacitor; A second capacitor, electrically connected to the detection capacitor, the microcontroller, the first switch, the first capacitor, the rectifier diode, and the clamping acknowledgment diode; and A voltage divider resistor is electrically connected to the microcontroller's operating voltage source, the first capacitor, the rectifier diode, the clamping accommodator diode, and the second capacitor. The clamping diode is used to clamp the AC power supply to power the microcontroller.

7. The two-wire carrier-controlled light-emitting diode system as described in claim 1 or 2, characterized in that, Each of these LED lamps contains: One positive voltage terminal is electrically connected to the AC power detector; One negative voltage terminal is electrically connected to the microcontroller circuit; A light-emitting diode driver is electrically connected to the negative terminal of the voltage. A first Zener diode is electrically connected to the negative terminal of the voltage and the LED driver; A third capacitor is electrically connected to the negative terminal of the voltage, the LED driver, and the first Zener diode; A lamp terminal resistor is electrically connected to the LED driver, the first Zener diode, and the third capacitor; A first diode is electrically connected to the LED driver, the first Zener diode, the third capacitor, and the lamp terminal resistor; A fourth capacitor is electrically connected to the positive terminal of this voltage. A second Zener diode is electrically connected to the negative terminal of the voltage, the LED driver, the first Zener diode, the third capacitor, and the fourth capacitor; and A second diode is electrically connected to the LED driver, the lamp terminal resistor, the first diode, the fourth capacitor, and the second Zener diode. The first Zener diode, the third capacitor, the lamp terminal resistor, the first diode, the fourth capacitor, the second Zener diode, and the second diode process the light emission control signals to obtain a second square wave signal; the second square wave signal is between a first breakdown voltage of the first Zener diode and a second breakdown voltage of the second Zener diode.

8. The two-wire carrier-controlled light-emitting diode system as described in claim 7, characterized in that, Each of these LED lamps also includes: A red light-emitting diode is electrically connected to the light-emitting diode driver, the lamp terminal resistor, the first diode, and the second diode; A green light-emitting diode is electrically connected to the light-emitting diode driver, the lamp terminal resistor, the first diode, the second diode, and the red light-emitting diode; and A blue light-emitting diode is electrically connected to the light-emitting diode driver, the lamp terminal resistor, the first diode, the second diode, the red light-emitting diode, and the green light-emitting diode.

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