Commercial power and solar energy hybrid driven induction lamp circuit

Abstract

The utility model relates to a commercial power and solar energy hybrid driven induction lamp circuit, which comprises a main control circuit, a power supply circuit, a lighting circuit, an induction circuit and an infrared remote control circuit connected with the main control circuit, the main control circuit is matched with the power supply circuit to detect whether a power adapter is powered on, and a power supply loop is turned on / off according to set logic. And meanwhile, daytime and night are judged by detecting the voltage of the solar panel, the working state of the lighting circuit is controlled, a battery electric quantity detection end is arranged in the power supply circuit and used for detecting the battery voltage, and a battery power supply loop is turned on / off according to set logic. Under the conditions of insufficient sunlight such as continuous cloudy and rainy weather and the like and the condition that the solar cell panel cannot charge the battery, the mains supply is used for supplying power to the lamp through the power adapter, and the problem that the solar lamp cannot be used in severe weather for a long time is solved; and meanwhile, solar energy, a storage battery and commercial power are sequentially used for supplying power to work so as to ensure that clean energy is preferentially used.

Description

Technical Field

[0001] The utility model belongs to the field of lighting circuits, and in particular relates to an induction lamp circuit driven by a combination of municipal electricity and solar energy. Background Art

[0002] At present, solar lamps on the market are basically powered by batteries. The batteries are charged by solar panels during the day and powered by batteries at night. In continuous rainy weather, solar panels cannot provide enough energy to charge the batteries, which shortens the working time of the lamps at night or even makes them unable to work. Utility Model Content

[0003] The purpose of the utility model is to overcome the deficiencies in the prior art, thereby providing an induction lamp circuit driven by a combination of mains electricity and solar energy.

[0004] The technical solution adopted by the utility model to solve its technical problems is:

[0005] A mains and solar hybrid driven induction lamp circuit, comprising a main control circuit, a power supply circuit, a lighting circuit, an induction circuit and an infrared remote control circuit connected to the main control circuit, characterized in that the main control circuit is composed of a single chip microcomputer, a diode three, a diode four, a capacitor nine, and a capacitor ten, wherein the single chip microcomputer pin 1 is connected to a network labeled BAT-EN, the single chip microcomputer pin 2 is connected to a network labeled IR-DATA, the single chip microcomputer pin 3 is connected to a network labeled SUN-V, the single chip microcomputer pin 6 is connected to a network labeled CDS-EN, the single chip microcomputer pin 7, one end of the capacitor nine, and the capacitor eleven are grounded respectively, the single chip microcomputer pin 9, the other end of the capacitor nine, the other end of the capacitor ten, the cathode of the diode four, and the cathode of the diode five are connected to a network labeled +VCC, the anode of the diode four is connected to a network labeled DC-5V, the anode of the diode five is connected to a network labeled BAT, the single chip microcomputer pin 10 is connected to a network labeled IR-EN, the single chip microcomputer pin 12 is connected to a network labeled PIR-IN, the single chip microcomputer pin 13 is connected to a network labeled DC5V-EN, MCU pin 16 is connected to the network labeled WW, MCU pin 17 is connected to the network labeled CW, MCU pin 19 is connected to the network labeled DC5V-CK, and MCU pin 20 is connected to the network labeled BAT-CK;The power supply circuit is composed of a solar panel, a power adapter, a resistor 5, a resistor 6, a resistor 8, a resistor 9, a resistor 14, a resistor 15, a resistor 16, a resistor 17, a resistor 18, a resistor 19, a resistor 20, a resistor 21, a MOS field effect tube 1, a MOS field effect tube 2, a MOS field effect tube 3, a MOS field effect tube 4, a MOS field effect tube 5, a MOS field effect tube 6, a MOS field effect tube 7, a MOS field effect tube 8, a transistor 1, a transistor 2, a storage battery, and a diode 2, wherein the solar panel 1 foot, the resistor 21 end, the storage battery negative pole, the resistor 18 end, the resistor 21 end, and the transistor 2 emitter , the 3rd pin of the power adapter, the first end of resistor 8, the first end of resistor 14, and the emitter of transistor 1 are grounded respectively, the first end of resistor 15 and the positive electrode of diode 2 are connected to the 2nd pin of the solar panel, the other end of resistor 15 and the other end of resistor 20 are connected to the network label SUN-V, the negative electrode of diode 2, the first end of resistor 16, the drain of MOS field effect tube 5, the drain of MOS field effect tube 7, and the positive electrode of the storage battery are connected to the network label BAT, the other end of resistor 16 and the other end of resistor 18 are connected to the network label BAT-CK, the source of MOS field effect tube 5, the source of MOS field effect tube 6, the source of MOS field effect tube 7, and the source of MOS field effect tube 8 are connected to resistor 10 The first end of resistor 7, the gate of MOS field effect tube 5, the gate of MOS field effect tube 6, the gate of MOS field effect tube 7, the gate of MOS field effect tube 8, and the collector of transistor 2 are connected to the other end of resistor 17, the drain of MOS field effect tube 6, the drain of MOS field effect tube 8 are output network label VIN, the first end of resistor 19, the other end of resistor 21 are connected to the base of transistor 2, and the other end of resistor 19 is connected to the network label BAT-EN, the 1st pin of power adapter and the 2nd pin of power adapter are connected to the mains, the 4th pin of power adapter, the first end of resistor 5, the drain of MOS field effect tube 1, and the drain of MOS field effect tube 3 are connected to the network label DC-5V, and the fifth end of resistor 10 is connected to the base of transistor 2. The other end and the other end of resistor eight are connected to the network label DC5V-CK, the source of MOS field effect tube one, the source of MOS field effect tube two, the source of MOS field effect tube three, and the source of MOS field effect tube four are connected to the first end of resistor sixteen, the source of MOS field effect tube one, the source of MOS field effect tube two, the source of MOS field effect tube three, the source of MOS field effect tube four, and the collector of transistor one are connected to the other end of resistor sixteen, the drain of MOS field effect tube two, and the drain of MOS field effect tube four are output to the network label VIN, the first end of resistor nine and the other end of resistor fourteen are connected to the base of transistor one, and the other end of resistor nine is connected to the network label DC5V-EN;The lighting circuit consists of a 3000K color temperature lamp bead group, a 5000K color temperature lamp bead group, a resistor 1, a resistor 2, a resistor 3, a resistor 4, a resistor 11, a resistor 12, a MOS tube 10, and a MOS tube 11. The positive pole of the 3000K color temperature lamp bead group and the positive pole of the 5000K color temperature lamp bead group are connected to the network label VIN, the negative pole of the 3000K color temperature lamp bead group is connected to the first end of resistor 1, and the other end of resistor 1 is connected to the drain of MOS tube 10, the first end of resistor 3 and the first end of resistor 4 are connected to the gate of MOS tube 10, and the other end of resistor 3 is connected to the network label WW, the negative pole of the 5000K color temperature lamp bead group is connected to the first end of resistor 2, and the other end of resistor 2 is connected to MOS tube 11 drain, one end of resistor 11 and one end of resistor 35 are connected to the gate of MOS tube 11, the other end of resistor 11 is connected to the network label CW, the other end of resistor 4, the other end of resistor 35, the source of MOS tube 10, and the source of MOS tube 11 are grounded respectively; the sensing circuit is composed of a human body sensing chip, a voltage stabilizing chip, a pyroelectric sensor, a transistor 11, a resistor 22, a resistor 23, a resistor 24, a resistor 25, a resistor 27, a resistor 28, a resistor 29, a resistor 30, a resistor 33, a capacitor 12, a capacitor 13, a capacitor 14, a capacitor 15, and a capacitor 18, wherein one end of capacitor 18, one end of capacitor 15, and a stabilizing chip are connected to the drain of MOS tube 11, one end of resistor 11 and a stabilizing chip. The Vin end of the voltage regulator chip is connected to the network label +VCC, the GND end of the voltage regulator chip, the other end of capacitor 18, the other end of capacitor 15, the pyroelectric sensor pin 1, the resistor 24, the capacitor 14, the resistor 33, the resistor 31, the resistor 25, the resistor 22, the transistor 11 emitter, the capacitor 12, the capacitor 13, and the human body sensing chip pin 8 are grounded respectively, the voltage regulator chip Vout end, the pyroelectric sensor pin 3, the other end of capacitor 13, the other end of capacitor 12, the human body sensing chip pin 1 is connected to the network label +2V5, the pyroelectric sensor pin 2, the other end of resistor 24, the capacitor 10 The other end of resistor 4 is connected to the 2nd foot of the human body sensing chip, one end of resistor 28 and the other end of resistor 33 are connected to the 3rd foot of the human body sensing chip, the other end of resistor 28 is connected to the network number CDS-EN, the other end of resistor 30 and one end of resistor 29 are connected to the 4th foot of the human body sensing chip, the other end of resistor 29 and one end of resistor 27 are connected to the network number +2V5, the other end of resistor 27 and the other end of resistor 25 are connected to the 5th foot of the human body sensing chip, one end of resistor 23 is connected to the 6th foot of the human body sensing chip, the other end of resistor 23 and the other end of resistor 22 are connected to the base of transistor 11, and the collector of transistor 11 is connected to the network number PIR-IN. ;

[0006] Preferably, the infrared remote control circuit consists of an infrared receiving head, resistor thirty-one, resistor thirty-four, and capacitor nineteen, wherein pin 1 of the infrared receiving head is connected to one end of resistor thirty-one, the other end of resistor thirty-one is connected to the network label IR-DATA, pin 2 of the infrared receiving head and one end of capacitor nineteen are grounded respectively, one end of resistor thirty-four and the other end of capacitor nineteen are connected to pin 3 of the infrared receiving head, and the other end of resistor thirty-four is connected to the network label IR-EN.

[0007] Preferably, the model of the single chip microcomputer is FT61F0A5-TRB.

[0008] Preferably, the model of the human body sensing chip is SW02A.

[0009] Preferably, the model of the voltage stabilizing chip is HT7125.

[0010] Compared with the prior art, the utility model has the following advantages and effects:

[0011] 1) The induction lamp circuit can use the mains electricity to power the lamp through the power adapter when there is insufficient sunlight such as continuous rainy weather and the solar panel cannot charge the battery, thus solving the problem that the solar lamp cannot be used in long-term bad weather;

[0012] 2) The induction lamp circuit is powered by solar energy, battery storage, and city electricity in order to ensure that clean energy is used first;

[0013] 3) The induction lamp circuit can avoid the situation where ordinary solar lamps cannot be used when the remote control is lost after the lamp is turned off. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a circuit diagram of the main control circuit in the embodiment of the utility model.

[0015] Figure 2 Schematic diagram of a power supply circuit in an embodiment.

[0016] Figure 3 Schematic diagram of a lighting circuit in an embodiment.

[0017] Figure 4 FIG. 4 is a circuit diagram of the sensing circuit in the embodiment.

[0018] Figure 5 Schematic diagram of the infrared remote control circuit in the embodiment.

[0019] The drawings described herein are used to provide further understanding of the present application and constitute a part of the present application. The illustrative embodiments of the present application and their descriptions are used to explain the present application and do not constitute improper limitations on the present application. DETAILED DESCRIPTION

[0020] In order to make the above-mentioned purposes, features and advantages of the present invention more obvious and understandable, the specific implementation methods of the present invention are described in detail below with reference to the accompanying drawings.

[0021] Example

[0022] like Figure 1-5 As shown, this embodiment includes a main control circuit, a power supply circuit, a lighting circuit, a sensing circuit, and an infrared remote control circuit connected to the main control circuit. The main control circuit realizes the operation of the entire induction lamp circuit through the single-chip microcomputer U2, which is specifically composed of the single-chip microcomputer U2, diode three D3, diode four D4, capacitor nine C9, and capacitor ten C10. Among them, the 1st pin of the single-chip microcomputer U2 is connected to the network label BAT-EN (output high level, powered by the storage battery BATT1), the 2nd pin of the single-chip microcomputer U2 is connected to the network label IR-DATA (decoding infrared signal), the 3rd pin of the single-chip microcomputer U2 is connected to the network label SUN-V (determine day and night), the 6th pin of the single-chip microcomputer U2 is connected to the network label CDS-EN (output high level at night, the induction circuit enables work), the 7th pin of the single-chip microcomputer U2, one end of the capacitor nine C9, and one end of the capacitor ten C10 are grounded respectively, the 9th pin of the single-chip microcomputer U2, the other end of the capacitor nine C9, the other end of the capacitor ten C10, the cathode of the diode four D4, and the cathode of the diode three D3 are connected to the network label +VCC, and the positive pole of the diode four D4 is connected to the network label DC-5V, The positive pole of diode D3 is connected to the network label BAT, pin 10 of microcontroller U2 is connected to the network label IR-EN, pin 12 of microcontroller U2 is connected to the network label PIR-IN, pin 13 of microcontroller U2 is connected to the network label DC5V-EN (output high level, powered by power adapter DB1), pin 16 of microcontroller U2 is connected to the network label WW, pin 17 of microcontroller U2 is connected to the network label CW, pin 19 of microcontroller U2 is connected to the network label DC5V-CK, and pin 20 of microcontroller U2 is connected to the network label BAT-CK.

[0023] like Figure 2As shown, the power supply circuit supplies energy for the entire induction lamp circuit, and is specifically composed of a solar panel SOP1, a power adapter DB1, a resistor five R5, a resistor six R6, a resistor eight R8, a resistor nine R9, a resistor fourteen R14, a resistor fifteen R15, a resistor sixteen R16, a resistor seventeen R17, a resistor eighteen R18, a resistor nineteen R19, a resistor two R2 ten R20, a resistor two R2 eleven R21, a MOS field effect transistor one M1, a MOS field effect transistor two M2, a MOS field effect transistor three M3, a MOS field effect transistor four M4, a MOS field effect transistor five M5, a MOS field effect transistor six M6, a MOS field effect transistor seven M7, a MOS field effect transistor eight M8, a transistor one Q1, a transistor two Q2, a storage battery BATT1, and a diode two D2. Among them, the solar panel SOP1 1 foot, resistor R2 11 R21 end, storage battery BATT1 negative pole, resistor 18 R18 one end, resistor R2 11 R21 one end, transistor 2 Q2 emitter, power adapter DB1 3 foot, resistor 8 R8 one end, resistor 14 R14 one end, transistor 1 Q1 emitter are grounded respectively, resistor 15 R15 one end, diode 2 D2 positive pole connected to solar panel SOP1 2 foot, resistor 15 R15 other end, resistor 2 R2 + R20 other end connected to network label SUN-V, diode 2 D2 negative pole, resistor 16 R16 one end, MOS field effect tube 5 M5 drain, MOS field effect tube 7 M7 drain, storage battery BATT1 positive pole connected to network label BAT, resistor 16 R16 other end, resistor 18 R18 other end connected to network label BAT-CK, MOS field effect tube 5 M5 source, MOS field effect tube 6 M6 source, MOS field effect tube 7 M7 source, MOS field effect tube 8 M8 source The base of transistor 2 is connected to one end of resistor R17, the gate of MOS field effect tube 5 M5, the gate of MOS field effect tube 6 M6, the gate of MOS field effect tube 7 M7, the gate of MOS field effect tube 8 M8, and the collector of transistor 2 Q2 are connected to the other end of resistor R17, the drain of MOS field effect tube 6 M6, and the drain of MOS field effect tube 8 M8 are output network label VIN, one end of resistor R19, the other end of resistor R21 and R21 are connected to the base of transistor 2 Q2, and the other end of resistor R19 is connected to the network label BAT-EN, the 1st pin of power adapter DB1 and the 2nd pin of power adapter DB1 are connected to the mains, the 4th pin of power adapter DB1, one end of resistor R5, the drain of MOS field effect tube 1 M1, and the drain of MOS field effect tube 3 M3 are connected to the network label DC-5V,The other end of resistor R5 and resistor R8 are connected to the network label DC5V-CK. The source of MOS field effect tube M1, the source of MOS field effect tube M2, the source of MOS field effect tube M3, and the source of MOS field effect tube M4 are connected to one end of resistor R16. The source of MOS field effect tube M1, the source of MOS field effect tube M2, the source of MOS field effect tube M3, and the source of MOS field effect tube M4 are connected to the other end of resistor R16. The drain of MOS field effect tube M2 and the drain of MOS field effect tube M4 are output to the network label VIN. One end of resistor R9 and the other end of resistor R14 are connected to the base of transistor Q1. The other end of resistor R9 is connected to the network label DC5V-EN.

[0024] like Figure 3 As shown, the lighting circuit is connected to the WW\CW end of the single-chip computer U2 to control the color temperature and brightness of the lamp bead group. The lighting circuit consists of a 3000K color temperature lamp bead group LEDS1, a 5000K color temperature lamp bead group LEDS2, a resistor R1, a resistor R2, a resistor R3, a resistor R4, a resistor R11, a resistor R12, a MOS tube M10, and a MOS tube M11. The positive electrode of the 3000K color temperature lamp bead group LEDS1 and the positive electrode of the 5000K color temperature lamp bead group LEDS2 are connected to the network label VIN, the negative electrode of the 3000K color temperature lamp bead group LEDS1 is connected to one end of the resistor R1, and the other end of the resistor R1 is connected to the drain of the MOS tube M10. One end of resistor R3 and one end of resistor R4 are connected to the gate of MOS tube M10, the other end of resistor R3 is connected to the network label WW, the negative pole of 5000K color temperature lamp bead group LEDS2 is connected to one end of resistor R2, the other end of resistor R2 is connected to the drain of MOS tube M11, one end of resistor R11 and one end of resistor R30 are connected to the gate of MOS tube M11, the other end of resistor R11 is connected to the network label CW, the other end of resistor R4, the other end of resistor R30, the source of MOS tube M10 and the source of MOS tube M11 are grounded respectively.

[0025] like Figure 4As shown, the sensing circuit detects human movement signals and outputs them to the single-chip computer U2. The sensing circuit is composed of a human body sensing chip U3, a voltage stabilizing chip U4, a pyroelectric sensor PIR1, a transistor eleven Q11, a resistor twenty-two R22, a resistor twenty-three R23, a resistor twenty-four R24, a resistor twenty-five R25, a resistor twenty-seven R27, a resistor twenty-eight R28, a resistor twenty-nine R29, a resistor thirty R30, a resistor thirty-three R33, a capacitor twelve C12, a capacitor thirteen C13, a capacitor fourteen C14, a capacitor fifteen C15, and a capacitor eighteen C18. One end of the capacitor eighteen C18, one end of the capacitor fifteen C15, and the Vin end of the voltage stabilizing chip U4 are connected to the network label +VCC, and the GND end of the voltage stabilizing chip U4, the other end of the capacitor eighteen C18, the other end of the capacitor fifteen C15, and the pyroelectric sensor PIR1 Pin 1, one end of resistor R24, one end of capacitor C14, one end of resistor R33, one end of resistor R31, one end of resistor R25, one end of resistor R22, emitter of transistor Q11, one end of capacitor C12, one end of capacitor C13, and 8 pins of human body sensing chip U3 are grounded respectively, Vout end of voltage regulator chip U4, 3 pins of pyroelectric sensor PIR1, the other end of capacitor C13, the other end of capacitor C12, and 1 pin of human body sensing chip U3 are connected to network label +2V5, 2 pins of pyroelectric sensor PIR1, the other end of resistor R24, and the other end of capacitor C14 are connected to 2 pins of human body sensing chip U3, one end of resistor R28 and the other end of resistor R33 are connected to human body sensing chip U3 Pin 3, the other end of resistor R28 is connected to the network labeled CDS-EN, the other end of resistor R30 and one end of resistor R29 are connected to pin 4 of the human body sensing chip U3, the other end of resistor R29 and one end of resistor R27 are connected to the network labeled +2V5, the other end of resistor R27 and the other end of resistor R25 are connected to pin 5 of the human body sensing chip U3, one end of resistor R23 is connected to pin 6 of the human body sensing chip U3, the other end of resistor R23 and the other end of resistor R22 are connected to the base of transistor Q11, and the collector of transistor Q11 is connected to the network labeled PIR-IN.

[0026] like Figure 5 As shown, the infrared remote control circuit consists of an infrared receiving head IR1, a resistor 31 R31, a resistor 34 R34, and a capacitor 19 C19, wherein the 1st pin of the infrared receiving head IR1 is connected to one end of the resistor 31 R31, the other end of the resistor 31 R31 is connected to the network label IR-DATA, the 2nd pin of the infrared receiving head IR1 and one end of the capacitor 19 C19 are grounded respectively, one end of the resistor 34 R34 and the other end of the capacitor 19 C19 are connected to the 3rd pin of the infrared receiving head IR1, and the other end of the resistor 34 R34 is connected to the network label IR-EN.

[0027] In this embodiment, the specific parameters or models of each electronic component include: the model of the single chip microcomputer U2 is FT61F0A5-TRB; the model of the human body sensing chip U3 is SW02A; the model of the voltage regulator chip U4 is HT7125; the storage battery BATT1 is a 3.7V, 4000 mAh ternary lithium battery. The parameters and models of each electronic component are only a preferred embodiment of this embodiment, but not only this preferred embodiment.

[0028] This embodiment provides a working process and operation method of the above-mentioned induction lamp circuit:

[0029] S1: Initialization of the single chip microcomputer U2 of the control circuit;

[0030] s11, microcontroller U2 reads the internal EEPROM memory unit and verifies whether the data is valid;

[0031] s12, the single-chip computer U2 detects the power of the battery BATT1. If the power of the battery BATT1 is greater than 5%, the power supply circuit of the battery BATT1 is opened, and the system is powered by the battery BATT1. If the power of the battery BATT1 is less than 5%, and the single-chip computer U2 detects that the power adapter DB1 is in working state, the power supply circuit of the battery BATT1 is disconnected, and the power supply circuit of the power adapter DB1 is opened. In this state, the induction lamp circuit is connected to the mains by the power adapter DB1. If the battery power is less than 5% and the power adapter DB1 is not in working state, the entire induction lamp circuit directly enters the sleep state (saving power and waiting for the solar panel SOP1 to charge).

[0032] s13. The single-chip computer U2 drives the lighting circuit and preheats the sensing circuit according to the memorized color temperature and brightness settings, so that the pyroelectric sensor PIR1 is preheated for 5 to 15 minutes (the purpose is to make the pyroelectric sensor PIR1 adapt to the ambient temperature).

[0033] S2: After the preheating time is over, if the memory setting is the power-on state, detect the output voltage sampling end of the solar panel SOP1 to determine whether it is day or night;

[0034] s21. When the detection result is daytime, the induction lamp circuit enters sleep mode, and the solar panel SOP1 charges the storage battery BATT1;

[0035] s22. When the detection result is night, it works according to the working mode set in memory (AUTO mode, DIM mode, ON mode):

[0036] s221, AUTO mode: The system enters AUTO human body sensing mode. When human movement is detected within the sensing range, the lighting circuit is driven to work for 30 seconds according to the color temperature and brightness set in memory. If someone moves during this period, the 30 seconds will be reset; if there is no one after 30 seconds, the lighting circuit will stop working;

[0037] s222, DIM mode: The system enters DIM human body sensing mode. When human movement is detected within the sensing range, the lighting circuit is driven to work for 30 seconds according to the color temperature and brightness set in memory. If someone moves during this period, the 30 seconds will be reset; if no one moves after 30 seconds, the system will switch to low brightness of 30 lumens;

[0038] s223, ON mode: The induction lamp circuit enters the ON mode, turns off the human body induction detection function, and drives the lighting circuit to work at low brightness according to the color temperature and brightness set in memory;

[0039] s23. In the above multiple modes, if the battery BATT1 is powered, the single-chip computer U2 will periodically detect the power of the battery BATT1. Once the power of the battery BATT1 is less than 5%, and the single-chip computer U2 detects that the power adapter DB1 is in working state, the power supply circuit of the battery BATT1 is disconnected, and the power supply circuit of the power adapter DB1 is opened. In this state, the induction lamp circuit is connected to the mains power supply by the power adapter DB1; if the power of the battery BATT1 is less than 5% and the power adapter DB1 is not in working state, the entire induction lamp circuit directly enters the sleep state;

[0040] S3: The preheating time is over. If the memory setting is the shutdown state, the system is shut down and enters sleep mode.

[0041] S4: Power adapter DB1 power-on function: In order to prevent the remote control from being lost after the main control circuit is turned off, causing the induction lamp circuit to be uncontrollable, when the single-chip microcomputer U2 stops working, disconnect the power adapter DB1 and then reconnect the power adapter DB1, the single-chip microcomputer U2 automatically turns on, and after turning on, it works according to the previously set mode, and the light is turned off during the day and automatically turned on at night;

[0042] S5: Regardless of the working or dormant state, the infrared remote control circuit is always in working state, and the infrared remote control connected to the infrared remote control circuit has at least the following function buttons:

[0043] s51: Power button, press to power on;

[0044] s52: Power off button, press to shut down;

[0045] s53: CCT button, color temperature switch button: 3000K->4000K->5000K->3000K;

[0046] s54: Brightness - key: brightness down, minimum 10% brightness;

[0047] s55: Brightness + key: Brightness up, up to 100% brightness;

[0048] s56: Timing button: In ON mode, the timing setting has three levels: 2 hours, 4 hours, and 6 hours;

[0049] s57: Mode key: AUTO\DIM\ON mode setting.

[0050] The above contents described in this specification are merely examples of the present utility model. Those skilled in the art of the present utility model may make various modifications or additions to the specific embodiments described, or replace them in similar ways, as long as they do not deviate from the contents of the present utility model specification or exceed the scope defined in the claims, they shall all fall within the protection scope of the present utility model.

Claims

1. A mains and solar hybrid driven induction lamp circuit, comprising a main control circuit, a power circuit, a lighting circuit, an induction circuit and an infrared remote control circuit connected to the main control circuit, characterized in that: The main control circuit is composed of a single-chip microcomputer, diode three, diode four, capacitor nine, and capacitor ten. Among them, pin 1 of the single-chip microcomputer is connected to the network label BAT-EN, pin 2 of the single-chip microcomputer is connected to the network label IR-DATA, pin 3 of the single-chip microcomputer is connected to the network label SUN-V, pin 6 of the single-chip microcomputer is connected to the network label CDS-EN, pin 7 of the single-chip microcomputer, one end of capacitor nine, and end eleven of capacitor are grounded respectively, pin 9 of the single-chip microcomputer, the other end of capacitor nine, the other end of capacitor ten, the negative pole of diode four, and the negative pole of diode five are connected to the network label +VCC, the positive pole of diode four is connected to the network label DC-5V, the positive pole of diode five is connected to the network label BAT, pin 10 of the single-chip microcomputer is connected to the network label IR-EN, pin 12 of the single-chip microcomputer is connected to the network label PIR-IN, pin 13 of the single-chip microcomputer is connected to the network label DC5V-EN, pin 16 of the single-chip microcomputer is connected to the network label WW, and pin 17 of the single-chip microcomputer is connected to the network label CW. The MCU pin 19 is connected to the network labeled DC5V-CK, and the MCU pin 20 is connected to the network labeled BAT-CK; The power supply circuit is composed of a solar panel, a power adapter, a resistor 5, a resistor 6, a resistor 8, a resistor 9, a resistor 14, a resistor 15, a resistor 16, a resistor 17, a resistor 18, a resistor 19, a resistor 20, a resistor 21, a MOS field effect tube 1, a MOS field effect tube 2, a MOS field effect tube 3, a MOS field effect tube 4, a MOS field effect tube 5, a MOS field effect tube 6, a MOS field effect tube 7, a MOS field effect tube 8, a transistor 1, a transistor 2, a storage battery, and a diode 2, wherein the solar panel 1 foot, the resistor 21 end, the storage battery negative pole, the resistor 18 end, the resistor 21 end, and the transistor 2 emitter , the 3rd pin of the power adapter, the first end of resistor 8, the first end of resistor 14, and the emitter of transistor 1 are grounded respectively, the first end of resistor 15 and the positive electrode of diode 2 are connected to the 2nd pin of the solar panel, the other end of resistor 15 and the other end of resistor 20 are connected to the network label SUN-V, the negative electrode of diode 2, the first end of resistor 16, the drain of MOS field effect tube 5, the drain of MOS field effect tube 7, and the positive electrode of the storage battery are connected to the network label BAT, the other end of resistor 16 and the other end of resistor 18 are connected to the network label BAT-CK, the source of MOS field effect tube 5, the source of MOS field effect tube 6, the source of MOS field effect tube 7, and the source of MOS field effect tube 8 are connected to resistor 10 The first end of resistor 7, the gate of MOS field effect tube 5, the gate of MOS field effect tube 6, the gate of MOS field effect tube 7, the gate of MOS field effect tube 8, and the collector of transistor 2 are connected to the other end of resistor 17, the drain of MOS field effect tube 6, the drain of MOS field effect tube 8 are output network label VIN, the first end of resistor 19, the other end of resistor 21 are connected to the base of transistor 2, and the other end of resistor 19 is connected to the network label BAT-EN, the 1st pin of power adapter and the 2nd pin of power adapter are connected to the mains, the 4th pin of power adapter, the first end of resistor 5, the drain of MOS field effect tube 1, and the drain of MOS field effect tube 3 are connected to the network label DC-5V, and the fifth end of resistor 10 is connected to the base of transistor 2. The other end and the other end of resistor eight are connected to the network label DC5V-CK, the source of MOS field effect tube one, the source of MOS field effect tube two, the source of MOS field effect tube three, and the source of MOS field effect tube four are connected to the first end of resistor sixteen, the source of MOS field effect tube one, the source of MOS field effect tube two, the source of MOS field effect tube three, the source of MOS field effect tube four, and the collector of transistor one are connected to the other end of resistor sixteen, the drain of MOS field effect tube two, and the drain of MOS field effect tube four are output to the network label VIN, the first end of resistor nine and the other end of resistor fourteen are connected to the base of transistor one, and the other end of resistor nine is connected to the network label DC5V-EN; The lighting circuit is composed of a 3000K color temperature lamp bead group, a 5000K color temperature lamp bead group, a resistor 1, a resistor 2, a resistor 3, a resistor 4, a resistor 11, a resistor 12, a MOS tube 10, and a MOS tube 11. The positive poles of the 3000K color temperature lamp bead group and the positive poles of the 5000K color temperature lamp bead group are connected to the network label VIN, the negative pole of the 3000K color temperature lamp bead group is connected to one end of resistor 1, the other end of resistor 1 is connected to the drain of MOS tube 10, one end of resistor 3 and one end of resistor 4 are connected to the gate of MOS tube 10, and the other end of resistor 3 is connected to the network label WW, the negative pole of the 5000K color temperature lamp bead group is connected to one end of resistor 2, the other end of resistor 2 is connected to the drain of MOS tube 11, one end of resistor 11 and one end of resistor 35 are connected to the gate of MOS tube 11, the other end of resistor 11 is connected to the network label CW, and the other end of resistor 4 and the other end of resistor 35, the source of MOS tube 10, and the source of MOS tube 11 are grounded respectively; The sensing circuit is composed of a human body sensing chip, a voltage stabilizing chip, a pyroelectric sensor, a transistor 11, a resistor 22, a resistor 23, a resistor 24, a resistor 25, a resistor 27, a resistor 28, a resistor 29, a resistor 30, a resistor 33, a capacitor 12, a capacitor 13, a capacitor 14, a capacitor 15, and a capacitor 18, wherein one end of the capacitor 18, one end of the capacitor 15, and the Vin end of the voltage stabilizing chip are connected to the network label +VCC, the GND end of the voltage stabilizing chip, the other end of the capacitor 18, the other end of the capacitor 15, the 1st foot of the pyroelectric sensor, one end of the resistor 24, one end of the capacitor 14, one end of the resistor 33, one end of the resistor 31, one end of the resistor 25, one end of the resistor 22, the emitter of the transistor 11, one end of the capacitor 12, one end of the capacitor 13, and the 8th foot of the human body sensing chip are grounded respectively, and the Vout end of the voltage stabilizing chip, the pyroelectric Pin 3 of the electric sensor, the other end of capacitor 13, the other end of capacitor 12, and pin 1 of the human body sensing chip are connected to the network label +2V5, pin 2 of the pyroelectric sensor, the other end of resistor 24, and the other end of capacitor 14 are connected to pin 2 of the human body sensing chip, one end of resistor 28 and the other end of resistor 33 are connected to pin 3 of the human body sensing chip, the other end of resistor 28 is connected to the network label CDS-EN, the other end of resistor 30 and one end of resistor 29 are connected to pin 4 of the human body sensing chip, the other end of resistor 29 and one end of resistor 27 are connected to the network label +2V5, the other end of resistor 27 and the other end of resistor 25 are connected to pin 5 of the human body sensing chip, one end of resistor 23 is connected to pin 6 of the human body sensing chip, the other end of resistor 23 and the other end of resistor 22 are connected to the base of transistor 11, and the collector of transistor 11 is connected to the network label PIR-IN.

2. The induction lamp circuit driven by a combination of mains electricity and solar energy according to claim 1, characterized in that: The infrared remote control circuit is composed of an infrared receiving head, resistor 31, resistor 34, and capacitor 19, wherein pin 1 of the infrared receiving head is connected to one end of resistor 31, the other end of resistor 31 is connected to the network label IR-DATA, pin 2 of the infrared receiving head and one end of capacitor 19 are grounded respectively, one end of resistor 34 and the other end of capacitor 19 are connected to pin 3 of the infrared receiving head, and the other end of resistor 34 is connected to the network label IR-EN.

3. The induction lamp circuit driven by a combination of mains electricity and solar energy according to claim 1, characterized in that: The model of the single chip microcomputer is FT61F0A5-TRB.

4. The induction lamp circuit driven by a combination of mains electricity and solar energy according to claim 1, characterized in that: The model of the human body sensing chip is SW02A.

5. The induction lamp circuit driven by a combination of mains electricity and solar energy according to claim 1, characterized in that: The model of the voltage regulator chip is HT7125.

Images