Multi-mode light-emitting diode light integrated expelling device

Abstract

The utility model discloses a multi-mode light-emitting diode light integrated expelling device. The device comprises an upper computer controller and a lower computer controller, the lower computer controller comprises an accent light array composed of thirty lamp beads and a floodlight array composed of thirty-six lamp beads, each lamp bead in the accent light array is arranged in a reflection cup with a 3.1-degree beam angle, each lamp bead in the floodlight array is arranged in a reflection cup with a 75-degree beam angle, and the floodlight array is arranged in the reflection cup with the 75-degree beam angle. Light emitting diode lamp beads are used as lamp beads in the accent light array and the floodlight array, thirty lamp beads in the accent light array are arranged in a rectangular array mode, and thirty-six lamp beads in the floodlight array are arranged in a square array mode. The upper computer controller is connected with the lower computer controller and used for controlling the floodlight array to emit floodlight illumination and controlling the accent light array to emit accent light illumination or explosion light illumination. According to the technical scheme disclosed by the utility model, the expelling effect on dangerous animals can be improved.

Description

[0001] This application claims priority to Chinese Patent Application No. 202411330145.8, filed with the Chinese Patent Office on September 24, 2024, entitled “A Multi-Mode Integrated LED Lighting Departure System”, the contents of which are incorporated herein by reference. Technical Field

[0002] This utility model relates to the field of optical system technology, and in particular to a multi-mode integrated LED light-emitting device for driving away light. Background Technology

[0003] With urbanization and rapid economic and cultural development, people's enthusiasm for outdoor activities such as camping and hiking is increasing, and more and more people are venturing into the wild to experience outdoor life. However, as people's outdoor activities increase, encounters with wild animals are inevitable, thus creating a need for methods to drive away dangerous wild animals.

[0004] Currently, high-intensity light repelling devices are commonly used to drive away dangerous animals. Existing high-intensity light repelling devices illuminate the environment, allowing the operator to determine their surroundings and the location of dangerous animals. Simultaneously, these devices also stimulate the visual organs of dangerous animals with dispersive light, causing them to become unbearable and leave, thus repelling them. This dispersive light can include both strong light and flashing light. Existing high-intensity light repelling devices typically use only one light-emitting device. The control unit within the device controls the light-emitting device to emit either illumination or dispersive light by sending pulse width modulation (PWM) signals with different duty cycles.

[0005] However, current high-intensity light repelling devices emit either illumination or repelling light through the same light-emitting device, meaning that the device can only emit one type of light at a time. If the device needs to emit illumination light to light up the current environment, it cannot emit repelling light to repel dangerous animals; conversely, if the device needs to emit repelling light to repel dangerous animals, it cannot illuminate the environment. This reduces the effectiveness of repelling dangerous animals in actual situations, resulting in poor repelling performance of existing high-intensity light repelling devices. Utility Model Content

[0006] In view of this, the present invention provides a multi-mode integrated LED light repelling device, the main purpose of which is to solve the technical problem that the existing strong light repelling devices have poor repelling effect on dangerous animals.

[0007] To achieve the above objectives, this utility model first provides a multi-mode integrated LED light drive-away device, which includes a host computer controller and a slave computer controller.

[0008] The lower-level controller includes a high-intensity lamp array consisting of thirty LEDs and a floodlight array consisting of thirty-six LEDs. Each LED in the high-intensity lamp array is positioned within a reflector with a 3.1-degree beam angle, and each LED in the floodlight array is positioned within a reflector with a 75-degree beam angle. The LEDs in both the high-intensity lamp array and the floodlight array are light-emitting diodes (LEDs).

[0009] The high-intensity lamp array contains thirty LEDs arranged in a rectangular array, the floodlight array contains thirty-six LEDs arranged in a square array, the LEDs are CREE XP-P LEDs, the LEDs have a light-emitting area of ​​1.1025 square millimeters, and the LEDs have a color temperature of 6000 Kelvin.

[0010] The host computer controller is connected to the slave computer controller and is used to control the floodlight array to emit floodlight illumination and to control the high-intensity light array to emit high-intensity light illumination or strobe light illumination.

[0011] This invention provides a multi-mode integrated LED lighting deterrent device that emits both deterrent and illumination light through a high-intensity lamp array and a floodlight array, respectively. The high-intensity lamp array uses multiple LEDs housed in reflectors with a 3.1-degree beam angle to emit either strong or flashing light as deterrent illumination, thereby increasing the illuminance of the strong or flashing light and enhancing its deterrent effect on dangerous animals. The floodlight array uses multiple LEDs housed in reflectors with a 75-degree beam angle to emit floodlight light, thereby increasing the illumination range of the floodlight and improving the overall lighting effect on the environment. By emitting both deterrent and illumination light through the high-intensity lamp array and the floodlight array, the device can simultaneously illuminate the current environment with illumination light and deter dangerous animals with deterrent light, significantly improving the deterrent effect on dangerous animals.

[0012] The above description is merely an overview of the technical solution of this utility model. In order to better understand the technical means of this utility model and to implement it in accordance with the contents of the specification, and to make the above and other objects, features and advantages of this utility model more obvious and understandable, specific embodiments of this utility model are given below. Attached Figure Description

[0013] The accompanying drawings, which are included to provide a further understanding of the present invention and constitute a part of this invention, illustrate exemplary embodiments of the present invention and, together with the description thereof, serve to explain the present invention and do not constitute an undue limitation thereof. In the drawings:

[0014] Figure 1 This illustration shows one of the structural schematic diagrams of a multi-mode integrated LED light-emitting device provided in an embodiment of the present invention;

[0015] Figure 2 The image shows a front view of a lamp bead provided in an embodiment of the present invention;

[0016] Figure 3 A side view of an LED bead provided in an embodiment of the present invention is shown;

[0017] Figure 4 The image shows a front view of the back of a lamp bead provided in an embodiment of the present invention;

[0018] Figure 5 This is a second schematic diagram of the structure of a multi-mode integrated LED light-emitting device provided in an embodiment of the present invention;

[0019] Figure 6 This diagram illustrates the structure of a floodlight power switch circuit according to an embodiment of the present invention.

[0020] Figure 7 This diagram illustrates the structure of a high-intensity lamp power switch circuit according to an embodiment of the present invention.

[0021] Figure 8 This diagram illustrates the structure of a lower-level controller according to an embodiment of the present invention.

[0022] Figure 9 A top view of a reflector cup with LED beads provided in an embodiment of the present invention is shown;

[0023] Figure 10 The front view of a cross section of a reflector cup with a 3.1-degree beam angle and LED beads provided in an embodiment of the present invention is shown.

[0024] Figure 11 The front view of a cross section of a reflector cup with a 75-degree beam angle and LED beads provided in an embodiment of the present invention is shown.

[0025] Figure 12 A schematic diagram of a cross-section of the gasket provided in an embodiment of the present invention is shown;

[0026] Figure 13A schematic diagram of the housing of a multi-mode integrated LED light-emitting device provided in an embodiment of the present invention is shown;

[0027] Figure 14 The diagram shows a front view of the housing of a multi-mode integrated LED light-emitting device according to an embodiment of the present invention.

[0028] Figure 15 This illustration shows one of the schematic diagrams of the backplate of a multi-mode integrated LED light-emitting device according to an embodiment of the present invention;

[0029] Figure 16 This is a second schematic diagram of the backplate of a multi-mode integrated LED light-emitting device provided in an embodiment of the present invention;

[0030] Figure 17 This diagram illustrates a high-intensity light array and the arrangement of the floodlight array on the outer surface of the housing, according to an embodiment of the present invention.

[0031] Figure 18 This diagram illustrates the arrangement of LED beads in a high-intensity lamp array according to an embodiment of the present invention.

[0032] Figure 19 This diagram illustrates the arrangement of LED beads in a floodlight array according to an embodiment of the present invention.

[0033] Figure 20 This diagram illustrates the installation configuration of a row of LED beads and a reflector with a 3.1-degree beam angle in a high-intensity lamp array, according to an embodiment of the present invention.

[0034] Figure 21 This diagram illustrates the installation configuration of a row of LED beads and a reflector with a 75-degree beam angle in a floodlight array, according to an embodiment of the present invention. Detailed Implementation

[0035] The present invention will be described in detail below with reference to the accompanying drawings and embodiments. It should be noted that, unless otherwise specified, the embodiments and features in the embodiments of the present invention can be combined with each other.

[0036] To further illustrate the technical means and effects adopted by this utility model to achieve its intended purpose, the specific implementation methods, structures, features, and effects according to this utility model application are described in detail below with reference to the accompanying drawings and preferred embodiments. In the following description, different "an embodiment" or "an embodiment" do not necessarily refer to the same embodiment. Furthermore, specific features, structures, or characteristics in one or more embodiments can be combined in any suitable form.

[0037] The following is combined with Figures 1 to 21 This invention describes a multi-mode integrated LED light-emitting device for driving away light, according to some embodiments of the present invention. For example... Figure 1 As shown in the figure, an embodiment of the present invention proposes a multi-mode integrated LED light-emitting device, which includes a host computer controller 100 and a slave computer controller 200.

[0038] Specifically, the lower-level controller 200 includes a high-intensity lamp array 220 composed of thirty LEDs and a floodlight array 230 composed of thirty-six LEDs. Each LED in the high-intensity lamp array 220 is positioned within a reflector with a 3.1-degree beam angle, while each LED in the floodlight array 230 is positioned within a reflector with a 75-degree beam angle. The LEDs in both the high-intensity lamp array 220 and the floodlight array 230 are light-emitting diodes (LEDs). The thirty LEDs in the high-intensity lamp array 220 are arranged in a 5×6 rectangular array, and the thirty-six LEDs in the floodlight array 230 are arranged in a 6×6 square array.

[0039] Here, the high-intensity lamp array 220 may include 30 LEDs with a color temperature of 6000K arranged in a rectangular array of 5 rows and 6 columns. The LEDs are CREE XP-P type LEDs with a light-emitting area of ​​1.1025 square millimeters, enabling the high-intensity lamp array 220 to achieve an illuminance greater than 500 lux at 50 meters. Further, the floodlight array 230 includes LEDs arranged in a square array of 6 rows and 6 columns. Here, the floodlight array 230 may include 36 CREE XP-P LEDs with a color temperature of 6000K and a light-emitting area of ​​1.1025 square millimeters, enabling the floodlight array 230 to achieve a luminous flux greater than 30,000 lumens at 50 meters. Here, in the aforementioned square array, each row and column contains the same number of LEDs to improve the uniformity of the emitted high-intensity, floodlight, or strobe light. Furthermore, such as Figure 2 As shown, the length and width of the light-emitting part 1201 of the LED bead are both 1.05 mm. (As...) Figure 3 As shown, the thickness of the LED bead is 0.75 mm. Figure 4 As shown, the back of the LED bead has a solder fixing point 1401, which can be used to fix the LED bead.

[0040] Furthermore, such as Figure 1As shown, the host computer controller 100 is connected to the slave computer controller 200. The host computer controller 100 is used to control the floodlight array 230 to emit floodlight illumination, and can also control the high-intensity light array 220 to emit high-intensity light illumination or strobe illumination. Here, the host computer controller 100 can be equipped with a floodlight PWM signal source, a high-intensity PWM signal source, and a high-intensity strobe PWM signal source. The floodlight PWM signal source is used to output a floodlight PWM signal that causes the floodlight array 230 to emit floodlight illumination. When the floodlight array 230 receives the floodlight PWM signal, the floodlight array 230 emits floodlight illumination. The high-intensity PWM signal source is used to output a high-intensity PWM signal that causes the high-intensity light array 220 to emit high-intensity illumination. When the high-intensity light array 220 receives the high-intensity PWM signal, the high-intensity light array 220 emits high-intensity illumination. The high-intensity strobe PWM signal source is used to output a high-intensity strobe PWM signal that causes the high-intensity light array 220 to emit high-intensity strobe illumination. When the high-intensity light array 220 receives the high-intensity strobe PWM signal, the high-intensity light array 220 emits high-intensity strobe illumination. Specifically, the host computer controller 100 may be equipped with a first switch, a second switch, and a third switch. The first switch is used to turn the circuit between the floodlight PWM signal source and the floodlight array 230 on or off, so as to control whether the floodlight array 230 can receive the floodlight PWM signal. The second switch is used to turn the circuit between the high-intensity PWM signal source and the high-intensity lamp array 220 on or off, so as to control whether the high-intensity lamp array 220 can receive the high-intensity PWM signal. The third switch is used to turn the circuit between the high-intensity strobe PWM signal source and the high-intensity lamp array 220 on or off, so as to control whether the high-intensity lamp array 220 can receive the high-intensity strobe PWM signal.

[0041] The multi-mode integrated LED lighting deterrent device provided in this application embodiment can emit deterrent and illumination lights respectively through a high-intensity lamp array and a floodlight array. The high-intensity lamp array emits strong light or flashing light as deterrent light by multiple LEDs in reflectors with a 3.1-degree beam angle, thereby increasing the illuminance value of the strong light or flashing light and improving the deterrent effect on dangerous animals. The floodlight array emits floodlight as illumination light by multiple LEDs in reflectors with a 75-degree beam angle, thereby increasing the illumination range of the floodlight and improving the illumination effect on the environment. Here, by emitting deterrent or illumination light through the high-intensity lamp array and the floodlight array respectively, it is possible to simultaneously illuminate the current environment with illumination light and deter dangerous animals with deterrent light, thus significantly improving the deterrent effect on dangerous animals.

[0042] In one embodiment, such as Figure 5As shown, the host computer controller 100 includes a floodlight modulator 110, a high-intensity modulator 120, a high-intensity strobe modulator 130, a first microcontroller 141, a first signal conversion module 142, a first communication interface 143, and a first microcontroller power-on interface E1. The first microcontroller 141 is connected to the floodlight modulator 110, the high-intensity modulator 120, the high-intensity strobe modulator 130, the first signal conversion module 142, and the first microcontroller power-on interface E1. Furthermore, the first signal conversion module 142 is also connected to the first communication interface 143 to establish a communication connection with the lower-level controller 200.

[0043] Furthermore, such as Figure 5 As shown, the lower-level controller 200 also includes a second microcontroller 211, a second signal conversion module 215, a second communication interface 212, a floodlight power switch circuit S1, a floodlight driver D1, a high-intensity lamp power switch circuit S2, a high-intensity lamp driver D2, and a second microcontroller power-on interface E2.

[0044] Specifically, the second communication interface 212 is connected to the first communication interface 143 and the second signal conversion module 215 respectively. The second signal conversion module 215 is also connected to the second microcontroller 211. The second microcontroller 211 is also connected to the floodlight power switch circuit S1, the high beam power switch circuit S2 and the second microcontroller power-on interface E2 respectively.

[0045] Furthermore, the high-intensity lamp power switch circuit S2 is also connected to the high-intensity lamp driver D2. The second microcontroller 211 controls the high-intensity lamp driver D2 through the high-intensity lamp power switch circuit S2 to drive the high-intensity lamp array 220 to emit the high-intensity light or strobe light. Furthermore, the floodlight power switch circuit S1 is also connected to the floodlight driver D1. The second microcontroller 211 controls the floodlight driver D1 through the floodlight power switch circuit S1 to drive the floodlight array 230 to emit the floodlight light.

[0046] Specifically, the floodlight adjuster 110, the high beam adjuster 120, and the high beam strobe adjuster 130 are all knobs with multiple settings; the high beam adjuster 120 has 3 high beam settings, the floodlight adjuster 110 has 3 floodlight settings, and the high beam strobe adjuster 120 has 4 strobe settings. Each high beam setting enables the high beam array 220 to emit high beam illumination with a specific intensity, and each high beam setting corresponds to a different intensity. Each floodlight setting enables the floodlight array 230 to emit floodlight illumination with a specific floodlight intensity, and each floodlight setting corresponds to a different floodlight intensity. Each high beam strobe setting enables the high beam array 220 to emit strobe illumination with a specific strobe frequency, and each strobe setting corresponds to a different strobe frequency. For example, the four strobe settings are used to enable the high beam array to emit strobe illumination at four frequencies: 6Hz, 8Hz, 10Hz, and 12Hz.

[0047] Furthermore, the first microcontroller 141 can be pre-programmed with a computer program capable of determining the floodlight level, high beam level, and high beam strobe level of the floodlight adjuster 110, high beam adjuster 120, and high beam strobe level, respectively. In actual use, the operator can rotate the floodlight adjuster 110, high beam adjuster 120, or high beam strobe adjuster 130 to control the device's illumination state and operate the device.

[0048] Furthermore, the first communication interface 143 is used to receive, via the first signal conversion module 142, gear information recorded by the first microcontroller 141, including high beam level, floodlight level, and high beam strobe level, and to send the gear information to the lower-level controller 200.

[0049] Here, the first signal conversion module 142 can be a 3.3V TTL to RS-422 module, used to convert TTL logic level signals into digital differential signals suitable for the RS422 interface. The digital differential signals suitable for the RS422 interface are transmitted in full-duplex mode, which can effectively resist electromagnetic interference and signal attenuation, ensuring reliable data transmission and a high transmission rate. Further, the first signal conversion module 142 obtains gear position information in TTL logic level signal form from the first microcontroller 141, converts this information into gear position information in digital differential signal form, and sends the gear position information to the first communication interface 143 for transmission. Further, the first microcontroller power-on interface E1 is connected to the first microcontroller 141, and relevant personnel's terminal equipment can be connected to the first microcontroller 141 through the first microcontroller power-on interface E1 for debugging the first microcontroller 141.

[0050] Furthermore, the second communication interface 212 can transmit the gear position information obtained from the first communication interface 143 to the second microcontroller 211 via the second signal conversion module 215. The second signal conversion module 215 can be a 3.3V TTL to RS-422 module, used to convert digital differential signals suitable for RS422 interfaces into TTL logic level signals, so that the converted signal can be received and processed by the second microcontroller 211. Here, the second signal conversion module 215 obtains the gear position information in the form of a digital differential signal from the second communication interface 212, converts the information to TTL logic level signals, and then sends the information to the second microcontroller 211 for analysis and processing.

[0051] Furthermore, when the second microcontroller 211 obtains the gear information from the second communication interface 212 via the second signal conversion module 215, it determines the high light gear of the high light regulator and sends a preset high light drive signal corresponding to the high light gear to the high light lamp power switch circuit S2, so that the high light lamp power switch circuit S2 receives the high light drive signal and sends a high light trigger signal to the high light lamp driver D2, so that the high light lamp driver D2 drives the high light lamp array 220 to emit high light illumination of a preset high light illuminance value based on the high light trigger signal. In addition, the second microcontroller 211 is also used to determine the strobe level of the high-intensity strobe adjuster when the second signal conversion module 215 obtains the level information from the second communication interface 212, and sends a preset high-intensity strobe drive signal corresponding to the strobe level to the high-intensity lamp power switch circuit S2, so that the high-intensity lamp power switch circuit S2 receives the high-intensity strobe drive signal and sends a strobe trigger signal to the high-intensity lamp driver D2, so that the high-intensity lamp driver D2 drives the high-intensity lamp array 220 to emit strobe light of a preset frequency value based on the strobe trigger signal.

[0052] Here, the high-intensity lamp driver D2 may include multiple constant-current LED drivers 900, which may be of the XL3003E1 type. The high-intensity lamp power switch circuit S2 can send a high-intensity light trigger signal to each constant-current LED driver 900 in the high-intensity lamp driver D2. After receiving the high-intensity light trigger signal, the constant-current LED driver 900 can control a specific number of LEDs in the high-intensity lamp array 220 to emit high-intensity light illumination at a preset intensity value. Furthermore, the high-intensity lamp power switch circuit S2 can send a strobe trigger signal to each constant-current LED driver 900 in the high-intensity lamp driver D2. After receiving the strobe trigger signal, the constant-current LED driver 900 can control a specific number of LEDs in the high-intensity lamp array 220 to emit strobe light illumination at a preset frequency value.

[0053] Furthermore, the second microcontroller 211 is also used to determine the floodlight level of the floodlight adjuster when the second signal conversion module 215 obtains the level information from the second communication interface 212, and sends a preset floodlight drive signal corresponding to the floodlight level to the floodlight power switch circuit S1, so that the floodlight power switch circuit S1 receives the floodlight drive signal and sends a floodlight trigger signal to the floodlight driver D1, so that the floodlight driver D1 drives the floodlight array 230 to emit floodlight illumination with a preset strong illuminance value based on the floodlight trigger signal.

[0054] Here, the floodlight driver D1 may include multiple constant current LED drivers 900. The constant current LED drivers 900 may be of the XL3003E1 constant current LED driver type. The floodlight power switch circuit S1 can send a floodlight trigger signal to each constant current LED driver 900 in the floodlight driver D1. After receiving the floodlight trigger signal, the constant current LED driver 900 can control a specific number of LED beads in the floodlight array 230 to emit floodlight illumination of a preset floodlight illuminance value.

[0055] Among them, the high beam drive signal, the high beam strobe drive signal, and the floodlight drive signal are pulse width modulation signals. The second microcontroller 211 can be pre-programmed with a light control program and stores the pulse width modulation signal corresponding to each high beam level, the pulse width modulation signal corresponding to each floodlight level, and the pulse width modulation signal corresponding to each strobe level. The duty cycle of the pulse width modulation signal corresponding to each level is different.

[0056] Furthermore, the second microcontroller 211, the second communication interface 212, the high-intensity lamp power switch circuit S2, the high-intensity lamp driver D2, the floodlight power switch circuit S1, the floodlight driver D1, and the second signal conversion module 215 are located on a control board with ventilation holes to ensure stable and reliable heat dissipation for the lower-level controller 200. Furthermore, the second microcontroller 211 is connected to a second microcontroller power-on interface E2, allowing personnel to connect to and debug the second microcontroller 211 via the power-on interface E2.

[0057] Furthermore, such as Figure 6As shown, the floodlight power switch circuit S1 includes a first resistor R1, a second resistor R2, a third resistor R3, a fourth resistor R4, a first P-channel MOSFET Q1, and a first N-channel MOSFET Q2. The first terminal of the third resistor R3 is connected to a second microcontroller (not shown) to obtain a floodlight drive signal PWM1 in the form of a pulse width modulation signal. The second terminal of the third resistor R3 is connected to the first terminal of the fourth resistor R4 and the gate terminal of the first N-channel MOSFET Q2. The second terminal of the fourth resistor R4 is connected to the source terminal of the first N-channel MOSFET Q2 and grounded. The drain terminal is connected to the first end of the second resistor R2, and the second end of the second resistor R2 is connected to the gate terminal of the first P-channel field-effect transistor Q1 and the first end of the first resistor R1. The source terminal of the first P-channel field-effect transistor Q1 is connected to the second end of the first resistor R1 and connected to a 5V power supply. The drain terminal of the first P-channel field-effect transistor Q1 is connected to the floodlight driver (not shown in the figure) to send a floodlight trigger signal FG-PWM in the form of a pulse width modulation signal to the floodlight driver, so that the floodlight driver drives the floodlight array (not shown in the figure) to emit floodlight illumination based on the floodlight trigger signal FG-PWM.

[0058] Furthermore, such as Figure 7 As shown, the high-intensity lamp power switch circuit S2 includes a fifth resistor R5, a sixth resistor R6, a seventh resistor R7, an eighth resistor R8, a second P-channel MOSFET Q3, and a second N-channel MOSFET Q4. The first terminal of the seventh resistor R7 is connected to a second microcontroller (not shown) to obtain a pulse width modulation (PWM) signal for driving high-intensity light (PWM2) or a high-intensity flashing signal for driving high-intensity light (PWM3). The second terminal of the seventh resistor R7 is connected to the first terminal of the eighth resistor R8 and the gate terminal of the second N-channel MOSFET Q4. The second terminal of the eighth resistor R8 is connected to the source terminal of the second N-channel MOSFET Q4 and grounded. The drain terminal of the second N-channel MOSFET Q4 is connected to the first terminal of the sixth resistor R6. The second terminal of the sixth resistor R6 is connected to the gate terminal of the second P-channel MOSFET Q3 and the first terminal of the fifth resistor R5; the source terminal of the second P-channel MOSFET Q3 is connected to the second terminal of the fifth resistor R5 and connected to a 5V power supply; the drain terminal of the second P-channel MOSFET Q3 is connected to a high-intensity lamp driver (not shown in the figure) to send a high-intensity light trigger signal QG-PWM in the form of a pulse width modulation signal or a strobe trigger signal BS-PWM in the form of a pulse width modulation signal to the high-intensity lamp driver, so that the high-intensity lamp driver (not shown in the figure) drives the high-intensity lamp array (not shown in the figure) to emit high-intensity light or strobe light based on the high-intensity light trigger signal QG-PWM or the strobe trigger signal BS-PWM.

[0059] Furthermore, Figure 6 and Figure 7 The models of the first P-channel field effect transistor Q1 and the second P-channel field effect transistor Q3 in Figure 6 and Figure 7 the first N-channel field effect transistor Q2 and the second N-channel field effect transistor Q4 in

[0060] can be AO3401 P-channel enhancement-mode MOS field effect transistors of the ElecSuper brand. Figure 8 The AO3401 P-channel enhancement-mode MOS field effect transistors and the AO3400 N-channel enhancement-mode MOS field effect transistors have high power and can carry large voltages and large currents, and are suitable for this scenario.

[0061] Further, as Figure 5 shown, the down machine controller may also be connected to the second signal conversion module 215. The second single-chip microcomputer 211 sends the floodlight drive signal to the second signal conversion module 215 for signal conversion. The second signal conversion module 215 sends the floodlight drive signal after signal conversion to the floodlight power switch circuit S1. After receiving the floodlight drive signal, the floodlight power switch circuit S1 sends a floodlight trigger signal in the form of a pulse width modulation signal to the floodlight driver D1 based on the floodlight drive signal, so that the floodlight driver D1 drives the floodlight array 230 to emit floodlight illumination with the preset floodlight illumination value based on the floodlight trigger signal.

[0062] Furthermore, the voltage conversion module 250 is connected to the power supply module 240 and is used to obtain the supply voltage of the first voltage level and step down the supply voltage of the first voltage level to obtain the supply voltage of the second voltage level. Here, the second voltage level can be 5V. Furthermore, the voltage conversion module 250 can be an XL1509-5.0 fixed frequency PWM step-down DC / DC converter, which receives 24V DC power and outputs 5V DC power to supply power to the power-consuming units in the system that require 5V DC power.

[0063] Furthermore, the voltage regulator 260 is connected to the voltage conversion module 250 to obtain the supply voltage of the second voltage level, and performs a step-down process on the supply voltage of the second voltage level to obtain the supply voltage of the third voltage level, and supplies power to the second microcontroller 211 based on the supply voltage of the third voltage level. Here, the third voltage level can be 3.3V. Further, the voltage regulator 260 can be an XC6206P332MR chip, which is a CMOS step-down voltage regulator with overcurrent and short-circuit protection, capable of receiving 5V DC and outputting 3.3V DC to supply power to the second microcontroller 211; at the same time, the voltage regulator 260 can also supply power to the second signal conversion module 215. Here, two independent voltage regulators 260 can also be set to enhance the stability of the circuit, obtaining 5V DC from the voltage conversion module 250 respectively, and supplying power to the second microcontroller 211 and the second signal conversion module 215 respectively.

[0064] Furthermore, when designing circuits and selecting chips, the following factors need to be considered: 1. Functional Requirements: When selecting chips, the functional requirements of the circuit must first be clearly defined, determining the necessary peripheral interfaces, performance requirements, power consumption requirements, etc., in order to select a suitable chip. 2. Chip Performance: When selecting chips, performance parameters such as processor core, clock frequency, storage capacity, peripheral interfaces, etc., must be considered to ensure that the chip can meet the design requirements. 3. Cost: When selecting chips, the price of the chip must be considered to ensure that the cost is within the budget. 4. Supply Chain Reliability: When selecting chips, the supply chain situation must be considered to ensure that the chip supply is sufficient and stable. 5. Development Tools and Support: When selecting chips, the development tools and technical support provided by the chip manufacturer must be considered to ensure that the circuit can be developed and debugged quickly. 6. Power Consumption: When selecting chips, the power consumption of the chip must be considered, and a suitable chip must be selected according to the power consumption requirements of the circuit. 7. Package and Size: When selecting chips, the package and size of the chip must be considered to ensure that the chip can meet the layout and size requirements of the circuit. 8. Reliability: When selecting chips, the stability and reliability of the chip must be considered, and chips with good quality and reliability must be selected. In summary, when selecting a chip, it is necessary to comprehensively consider factors such as functional requirements, performance, cost, supply chain, development support, power consumption, packaging, and reliability to ensure that a suitable chip is selected for the circuit design.

[0065] Therefore, both the first microcontroller 141 and the second microcontroller 211 can be STM32G030F6P6 chips. The advantages of the STM32G030F6P6 chip are as follows: First, it boasts high performance. Utilizing the ARM Cortex-M0+ core, it features high performance and low power consumption, making it suitable for applications requiring high performance. Second, it offers rich peripheral interfaces, integrating multiple general-purpose timers, general-purpose serial interfaces, and general-purpose parallel interfaces to meet the needs of various applications. Third, it employs a low-power design, effectively reducing system power consumption and extending battery life. Furthermore, the STM32G030F6P6 chip boasts high reliability, exhibiting excellent stability and reliability, making it suitable for applications with stringent system stability requirements. Finally, the STM32G030F6P6 chip offers abundant development tools and support. STMicroelectronics provides a wealth of development tools and technical support for the STM32G030F6P6 chip, allowing developers to quickly get started and create high-quality products. In summary, using the STM32G030F6P6 chip provides high performance, low power consumption, high reliability, and rich peripheral interfaces for product development, making it a highly recommended chip. Moreover, the most significant advantage of the STM32G030F6P6 chip is that it is the most affordable and practical chip in the STM32 series, significantly reducing system hardware costs. The embodiments provided in this application utilize multiple constant current LED drivers and voltage regulators to improve the stability and reliability of the system power supply.

[0066] In one embodiment, the multi-mode integrated LED light-emitting device has a housing, the high-intensity lamp array and the floodlight array are disposed on the front surface of the housing, and an aluminum substrate with ventilation holes is disposed on the front surface of the housing.

[0067] Furthermore, Figure 9 A top view of the reflector is given. Here, the top view of the reflector with a 3.1-degree beam angle and equipped with LEDs is the same as the top view of the reflector with a 75-degree beam angle and equipped with LEDs. Furthermore, Figure 10 A front view of the cross-section of a reflector cup with a 3.1-degree beam angle and equipped with LEDs is given. Figure 11A front view of a cross-section of a reflector with a 75-degree beam angle and equipped with LEDs is given. Here, the reflectors with 3.1-degree beam angles and 75-degree beam angles can be polished aluminum reflectors.

[0068] Furthermore, such as Figure 10 As shown, each LED in the high-intensity lamp array can be fixed to the bottom of a reflector with a 3.1-degree beam angle. The top opening diameter 319 of the reflector is 33.67 ± 0.2 mm, and the outer edge diameter 320 of the top surface 311 of the reflector is 35.00 ± 0.2 mm. Furthermore, the reflector has sidewall protrusions 312 surrounding the top opening on its outer side. The top surface of these sidewall protrusions 312 is used to place a cover plate. The protrusions between opposite sidewall protrusions 312 at the top opening are positioned... The distance from 321 is 36.55±0.2 mm; further, the height of the reflector cup with a beam angle of 3.1 degrees is 30.75±0.2 mm, the distance from the top surface of the side wall protrusion 312 to the bottom surface 315 of the reflector cup mounting base is 28.75±0.2 mm, the distance from the bottom surface of the side wall protrusion 312 to the bottom surface 315 of the mounting base is 27.85±0.2 mm, and further, the distance from the top surface 314 of the reflector cup mounting base to the bottom surface 315 of the mounting base is 5.50±0.1 mm.

[0069] Furthermore, the diameter of the focusing aperture 313 of the reflector cup with a beam angle of 3.1 degrees is 21.85±0.2 mm, and the diameter of the outer edge of the reflector cup's mounting base is 32.55±0.2 mm. Furthermore, the reflector cup can be fixed to the aluminum substrate via two mounting holes 310 located at the mounting base using bolts or other connecting devices, with a spacing of 25.55±0.15 mm between the two mounting holes 310. Furthermore, the internal spacing of the mounting base screws is 21.85±0.2 mm.

[0070] Furthermore, such as Figure 11 As shown, each LED in the floodlight array can be fixed to the bottom of a reflector with a 75-degree beam angle. The top opening diameter 319 of the reflector is 32.96 ± 0.2 mm, and the outer edge diameter 320 of the top surface 311 of the reflector is 35.00 ± 0.2 mm. Furthermore, the outer side of the reflector also has a sidewall protrusion 312 surrounding the top opening. The top surface of the sidewall protrusion 312 is used to place a cover plate. In the middle, the cover plate can be an aluminum cover plate; further, the protrusion spacing 321 between the opposite side wall protrusions 312 at the top opening is 36.55±0.2 mm; further, the height of the reflector cup is 16.25±0.2 mm, the distance between the top surface of the side wall protrusion 312 and the bottom surface 315 of the reflector cup is 14.25±0.2 mm, and the distance between the bottom surface of the side wall protrusion 312 and the bottom surface 315 of the reflector cup is 13.25±0.2 mm.

[0071] Furthermore, the diameter of the focusing port 313 of the reflector cup with a 75-degree beam angle is 21.85±0.2 mm, and the diameter of the outer edge of the reflector cup's mounting base is 32.55±0.2 mm. Furthermore, the reflector cup with a 75-degree beam angle can also be fixed to the aluminum substrate via two mounting holes 310 located at the mounting base using bolts or other connecting devices. The distance between the two mounting holes 310 is also 25.55±0.15 mm, and the internal spacing of the mounting base screws is also 21.85±0.2 mm.

[0072] Furthermore, LED beads can be manufactured through methods such as... Figure 12 The shim shown is fixed inside the reflector cups with a 3.1-degree beam angle and the reflector cup with a 75-degree beam angle. This shim can be a white R5RA66 shim; furthermore, the shim is annular. Figure 12 A cross-sectional view of the gasket is given, such as... Figure 12 As shown, the cross-section of the gasket is convex, and the first height 404 of the top surface 409 of the protrusion 408 from the bottom surface 406 of the gasket is 1.85 mm; further, the second height 405 of the top surface 407 of the gasket from the bottom surface 406 of the gasket is 0.85 mm.

[0073] Furthermore, the diameter of the circle formed by the outer side of the gasket is 8.40 mm, and the distance of its diameter can be used as the top opening spacing 403 of the gasket; furthermore, the diameter of the circle formed by the protrusion 408 of the gasket is 6.9 mm, and the distance of its diameter can be used as the first spacing 402 of the convex side of the gasket; furthermore, the diameter of the circle formed by the inner side of the protrusion 408 of the gasket is 5.20 mm, and the distance of its diameter can be used as the second spacing 401 of the convex side of the gasket.

[0074] Furthermore, such as Figure 9 As shown, the first spacing 316 between the reflector base openings of the two reflectors is 7.0 mm, the second spacing 317 is 8.50 ± 0.1 mm, and the third spacing 318 is 10.00 mm. The space formed by these spacings can be used to accommodate... Figure 5 The gasket and LED beads in the middle.

[0075] Furthermore, optical system simulations using TracePro software revealed that a single CREE XP-P LED with a 3.1-degree beam angle reflector provides a maximum illuminance of 101.31 lux and an average illuminance of approximately 50.65 lux at 50 meters. With 10 LEDs in a high-intensity light array, this can produce 500 lux of illumination. Moreover, with a single CREE XP-P LED with a 75-degree beam angle reflector and a total luminous flux of 969.57 lumens, a floodlight array of 31 LEDs can produce 30,000 lumens of floodlight illumination.

[0076] Here, through research and experimentation, it was determined that the LEDs in the reflector cup with a beam angle of 3.1 degrees can emit the strongest light and strobe with the highest illuminance. The LEDs in the reflector cup with a beam angle of 75 degrees need to have their number increased to emit the floodlight with the highest illuminance and the longest propagation distance.

[0077] In an optional embodiment, such as Figure 13 As shown, the multi-mode integrated LED lighting deflector has a housing 600, which can be made of aluminum alloy. An aluminum substrate is disposed on the front surface of the housing 600. Here, aluminum alloy is a lightweight, corrosion-resistant, oxidation-resistant, thermally conductive, and relatively inexpensive material. In particular, the alloy can effectively disperse heat, thereby helping the system to dissipate heat quickly. In addition, the relatively low cost of aluminum alloy makes it a commonly used material widely used in products such as heat sinks and LED lamps. Therefore, if a metal material with strong heat dissipation capacity and relatively low price is required, aluminum alloy is a good choice. Furthermore, the floodlight modulator 110, the high beam modulator 120, and the high beam strobe modulator 130 extend beyond the side surface of the housing 600. Figure 14 A front view of the housing of a multi-mode integrated LED light-emitting device is given, showing the side of the housing where a high-intensity lamp array and a floodlight array are installed; furthermore, Figures 15 to 16 A schematic diagram of the back plate of a housing for a multi-mode integrated LED light-emitting device is provided. The back plate 1810 is disposed on the side of the housing opposite to the surface containing the high-intensity lamp array and the floodlight array. Here, if the surface containing the high-intensity lamp array and the floodlight array is the front of the housing, then the side containing the back plate 1810 is the back of the housing. Furthermore, the back plate 1810 has raised heat dissipation fins 1820 for accelerating system heat dissipation. Here, the back plate 1810 and the heat dissipation fins 1820 can be made of aluminum. Furthermore, the housing is also provided with a handle for easy carrying.

[0078] Furthermore, Figure 17A schematic diagram showing the arrangement of the high-intensity lamp array 220 and the floodlight array 230 on the outer surface of the housing 600 is provided. Figure 17 As shown, the high-intensity lamp array 220 and the floodlight array 230 are disposed on the outer surface of the housing 600. Further, the high-intensity lamp array 220 and the floodlight array 230 are divided by a lamp array dividing line 2015. Further, the reflector cup 2010 with a 3.1-degree beam angle in the high-intensity lamp array 220 and the reflector cup 2012 with a 75-degree beam angle in the floodlight array 230 are disposed on an aluminum substrate 2013 on the front surface of the housing 600. Each reflector cup is fixed to the aluminum substrate 2013 through a reflector cup fixing hole 2011, and the aluminum substrate 2013 is fixed to the outer surface of the housing 600 through an aluminum substrate fixing hole 2014. Further, as... Figure 17 As shown, in order to maximize the illuminance of the high-intensity lamp array 220 and the floodlight array 230 and to make the high-intensity lamp array 220 and the floodlight array 230 more aesthetically pleasing, the high-intensity lamp array 220 uses 30 LEDs arranged in 5 rows and 6 columns, and the floodlight array 230 uses 36 LEDs arranged in 6 rows and 6 columns.

[0079] Furthermore, such as Figure 18 As shown, the high-intensity lamp array 220 includes 30 LED beads, namely LED1 to LED30. Every 6 LED beads connected in series form a row of LED beads in the high-intensity lamp array 220. The high-intensity lamp array 220 has a total of 5 rows of LED beads. Each row of LED beads corresponds to a constant current LED driver 900. The 5 rows of LED beads are connected to ground in parallel.

[0080] Furthermore, such as Figure 19 As shown, the floodlight array 230 includes 36 LEDs, namely LED31 (31st) to LED66 (66th). Every 6 LEDs connected in series form a row of LEDs in the floodlight array 230. The floodlight array 230 has a total of 6 rows of LEDs. Each row of LEDs corresponds to a constant current LED driver 900. The 6 rows of LEDs are connected to ground in parallel.

[0081] Furthermore, each of the aforementioned LED beads is fixed to the aluminum substrate via a thermally conductive silicone pad. The silicone pad fills gaps, facilitating heat transfer between the heat-generating and heat-dissipating components, while also providing insulation, shock absorption, and sealing. As an example, the high-intensity lamp array includes five rows of LED beads arranged in reflectors with a 3.1-degree beam angle, with six LED beads per row. Here, Figure 20 A schematic diagram is provided showing the installation configuration of a row of LEDs in a high-intensity lamp array and a 2010 reflector with a 3.1-degree beam angle. (See diagram for reference.) Figure 20As shown, each LED is positioned within a reflector 2010 with a corresponding 3.1-degree beam angle via a spacer 2311. Each reflector 2010 with a 3.1-degree beam angle is fixed to the aluminum substrate 2013 by screws 2310. Furthermore, the high-intensity lamp array is also equipped with a cover plate 2312 to seal the gaps between the reflectors 2010 with 3.1-degree beam angles, preventing dust, water, and other substances from seeping into the high-intensity lamp array. Figure 20 The cover plate 2312 shown is a single unit because Figure 20 A cross-sectional view of a high-intensity light array. Figure 20 The multiple cover plates 2312 shown are various parts of a single cover plate. Furthermore, the arrangement of each row of LED beads and reflectors in the high-intensity light array is as follows... Figure 20 As shown, it will not be elaborated upon here.

[0082] Furthermore, as an example, the floodlight array includes 6 rows of LEDs arranged in reflectors at a 75-degree beam angle, with each row of the floodlight array containing 6 LEDs. Figure 21 A schematic diagram of the installation configuration of a row of LEDs in a floodlight array and a 2012 reflector with a 75-degree beam angle is provided, as follows: Figure 21 As shown, each LED is positioned within a reflector 2012 at a corresponding 75-degree beam angle via a spacer 2311. Each reflector 2012 at a 75-degree beam angle is fixed to the aluminum substrate 2013 by screws 2310. Furthermore, the floodlight array is also equipped with a cover plate 2312 to seal the gaps between the reflectors 2012 at the 75-degree beam angles, preventing dust, water, and other substances from seeping into the floodlight array. Figure 21 The cover plate 2312 shown is a single unit because Figure 21 A cross-sectional view of a floodlight array, in Figure 21 The multiple cover plates 2312 shown are various parts of a single cover plate. Furthermore, the arrangement of each row of LEDs and reflectors in the floodlight array is as follows... Figure 21 As shown, it will not be elaborated upon here.

[0083] The embodiments provided in this application house a multi-mode integrated LED light-emitting device in a rigid housing with a handle, which facilitates carrying the system and significantly improves the portability of the multi-mode integrated LED light-emitting device. In addition, a heat sink can be provided on the outside of the housing to improve the heat dissipation performance of the system and ensure that the system can operate for a long time.

[0084] Furthermore, the workflow of the multi-mode integrated LED light-emitting device for driving away targets provided in this embodiment will be described. Here, we will take the example of an operator using a high-intensity regulator with three intensity levels to make the multi-mode integrated LED light-emitting device emit strong light: First, if the operator adjusts the knob of the high-intensity regulator to the second intensity level, the first microcontroller determines that the high-intensity regulator is in the second intensity level and sends this information to the first signal conversion module. The first signal conversion module then sends this information to the second communication interface of the lower-level controller via the first communication interface. Further, the second microcontroller obtains the information that the high-intensity regulator is in the second intensity level through the second communication interface and the second signal conversion module, determines the pulse width modulation (PWM) signal corresponding to the second intensity level, and sends this signal to the high-intensity lamp power switch circuit. This triggers the high-intensity lamp power switch circuit to drive the high-intensity lamp array to emit strong light corresponding to the second intensity level, thereby driving away the target. Furthermore, the process of operators using the multi-mode integrated LED light-emitting device to emit floodlight or strobe light can be referred to the above description and will not be repeated here.

[0085] The multi-mode integrated LED lighting deterrent device provided in this embodiment uses multiple CREE XP-P LEDs with a color temperature of 6000K and a light-emitting area of ​​1.1025 square millimeters as light-emitting elements to form a high-intensity lamp array and a floodlight array. The LEDs in the high-intensity lamp array are placed in reflectors with a beam angle of 3.1 degrees, and the LEDs in the floodlight array are placed in reflectors with a beam angle of 75 degrees. When the multi-mode integrated LED lighting deterrent device is used for light deterrenting, simulation calculations and experimental tests show that the illuminance of the high-intensity lamp array at 50 meters can reach greater than 500 lux, and the luminous flux of the floodlight array at 50 meters can reach greater than 30,000 lumens. This can cause dizziness, nausea, and loss of resistance in the deterred animals, but will not cause irreversible damage to the deterred animals.

[0086] Furthermore, the lower-level controller selects multiple voltage regulator chips with protective functions and constant current LED drivers to drive the LED beads, ensuring good system stability and reliability. Simultaneously, the control board of the lower-level control module has multiple perforations for excellent heat dissipation. Furthermore, this multi-mode integrated LED light-discharge device uses three different rotary switch systems to control the emission of strong light, floodlight, and strobe, making the system easy to operate and effective. In addition, the system's low-power, high-performance microcontroller offers rich functionality and performance at a relatively low price, resulting in excellent cost-effectiveness. Moreover, compared to other products in its class, it is small in size, high in brightness, long in range, has a long effective strobe distance, and a significant dispersing effect.

[0087] It should be noted that the circuit function of the multi-mode integrated LED light drive-off device provided in this embodiment is mainly realized through the circuit connection relationship between various circuit modules, and does not depend on the program module in a certain circuit module. For the first and second microcontrollers that can be implanted with program modules, the implementation of their module functions can be realized through the program modules provided by the prior art.

[0088] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A multi-mode integrated LED light-emitting device for driving away light, characterized in that, The multi-mode integrated LED light drive-away device includes a host computer controller and a slave computer controller; The lower-level controller includes a high-intensity lamp array consisting of thirty LEDs and a floodlight array consisting of thirty-six LEDs. Each LED in the high-intensity lamp array is positioned within a reflector with a 3.1-degree beam angle, and each LED in the floodlight array is positioned within a reflector with a 75-degree beam angle. The high-intensity lamp array contains thirty LEDs arranged in a 5×6 rectangular array, while the floodlight array contains thirty-six LEDs arranged in a 6×6 square array. The LEDs in both the high-intensity lamp array and the floodlight array are light-emitting diodes (LEDs), specifically CREE XP-P LEDs, with a luminous area of ​​1.1025 square millimeters and a color temperature of 6000 Kelvin. The host computer controller is connected to the slave computer controller and is used to control the floodlight array to emit floodlight illumination and to control the high-intensity light array to emit high-intensity light illumination or strobe light illumination.

2. The multi-mode integrated LED light-emitting device for driving away light according to claim 1, characterized in that, The multi-mode integrated LED light drive-away device has a housing, the high-intensity lamp array and the floodlight array are disposed on the front surface of the housing, and an aluminum substrate with ventilation holes is disposed on the front surface of the housing. The top opening diameter of the reflector cup with a 3.1-degree beam angle is 33.67 mm, the outer edge diameter of the top surface of the reflector cup with a 3.1-degree beam angle is 35.00 mm, and the height of the reflector cup with a 3.1-degree beam angle is 30.75 mm. The top opening diameter of the reflector cup with a 75-degree beam angle is 32.96 mm, the outer edge diameter of the top surface of the reflector cup with a 75-degree beam angle is 35.00 mm, and the height of the reflector cup with a 75-degree beam angle is 16.25 mm. The reflector cups with a 3.1-degree beam angle and the reflector cups with a 75-degree beam angle each have sidewall protrusions that surround the top opening. The top surface of the sidewall protrusions is used to place a cover plate. The reflector cups with a 3.1-degree beam angle and the reflector cups with a 75-degree beam angle are respectively fixed to the aluminum substrate by thermally conductive silicone pads.

3. The multi-mode integrated LED light-emitting device for driving away light according to claim 1, characterized in that, The host computer controller includes a floodlight modulator, a high beam modulator, a high beam strobe modulator, a first microcontroller, a first signal conversion module, a first communication interface, and a first microcontroller power-on interface; The first microcontroller is connected to the floodlight modulator, the high beam modulator, the high beam strobe modulator, the first signal conversion module, and the power-on interface of the first microcontroller. The first signal conversion module is also connected to the first communication interface to connect to the lower-level controller through the first communication interface.

4. The multi-mode integrated LED light-emitting device for driving away light according to claim 3, characterized in that, The lower-level controller also includes a second microcontroller, a second signal conversion module, a second communication interface, a floodlight power switch circuit, a floodlight driver, a high-intensity lamp power switch circuit, a high-intensity lamp driver, and a second microcontroller power-on interface. The second communication interface is connected to the first communication interface and the second signal conversion module respectively. The second signal conversion module is also connected to the second microcontroller. The second microcontroller is also connected to the floodlight power switch circuit, the high beam power switch circuit and the power-on interface of the second microcontroller respectively. The power switch circuit for the high-intensity lamp is also connected to the high-intensity lamp driver. The second microcontroller controls the high-intensity lamp driver to drive the high-intensity lamp array to emit the high-intensity light or strobe light through the power switch circuit for the high-intensity lamp; The floodlight power switch circuit is also connected to the floodlight driver, and the second microcontroller controls the floodlight driver to drive the floodlight array to emit the floodlight illumination through the floodlight power switch circuit.

5. The multi-mode integrated LED light-emitting device for driving away light according to claim 4, characterized in that, The floodlight power switch circuit includes a first resistor, a second resistor, a third resistor, a fourth resistor, a first P-channel MOSFET, and a first N-channel MOSFET; the first terminal of the third resistor is connected to the second microcontroller. The second end of the third resistor is connected to the first end of the fourth resistor and the gate end of the first N-channel field-effect transistor, respectively. The second end of the fourth resistor is connected to the source terminal of the first N-channel field-effect transistor and grounded. The drain terminal of the first N-channel field-effect transistor is connected to the first end of the second resistor. The second end of the second resistor is connected to the gate terminal of the first P-channel field-effect transistor and the first end of the first resistor. The source terminal of the first P-channel MOSFET is connected to the second terminal of the first resistor and a voltage of 5 volts is applied. The drain terminal of the first P-channel MOSFET is connected to the floodlight driver. The floodlight driver includes six constant current LED drivers, each of which drives six LED beads to emit floodlight. The constant current LED driver is an XL3003E1 constant current LED driver.

6. The multi-mode integrated LED light-emitting device for driving away light according to claim 5, characterized in that, The floodlight array includes six rows of LEDs arranged in reflectors at a 75-degree beam angle. Each row of the floodlight array contains six LEDs. The floodlight array is also equipped with a cover plate for sealing the gap between the reflectors at each 75-degree beam angle. The floodlight array includes thirty-six LEDs, with six LEDs connected in series forming a row of LEDs in the floodlight array. The floodlight array has six rows of LEDs in total, and each constant current LED driver is used to drive a row of LEDs in the floodlight array to emit the floodlight illumination.

7. The multi-mode integrated LED light-emitting device for driving away light according to claim 4, characterized in that, The power switch circuit for the high-intensity lamp includes a fifth resistor, a sixth resistor, a seventh resistor, an eighth resistor, a second P-channel MOSFET, and a second N-channel MOSFET; the first end of the seventh resistor is connected to the second microcontroller, and the second end of the seventh resistor is connected to the first end of the eighth resistor and the gate end of the second N-channel MOSFET, respectively. The second terminal of the eighth resistor is connected to the source terminal of the second N-channel field-effect transistor and grounded; the drain terminal of the second N-channel field-effect transistor is connected to the first terminal of the sixth resistor; the second terminal of the sixth resistor is connected to the gate terminal of the second P-channel field-effect transistor and the first terminal of the fifth resistor; the source terminal of the second P-channel field-effect transistor is connected to the second terminal of the fifth resistor and connected to a 5-volt voltage; the drain terminal of the second P-channel field-effect transistor is connected to the high-intensity lamp driver. The high-intensity light driver includes five constant-current LED drivers. Each constant-current LED driver is used to drive six LED beads to emit high-intensity light or strobe light. The constant-current LED driver is an XL3003E1 constant-current LED driver.

8. The multi-mode integrated LED light-emitting device for driving away light according to claim 7, characterized in that, The high-intensity light array includes five rows of LEDs arranged in reflectors with a 3.1-degree beam angle. Each row of the high-intensity light array contains six LEDs. The high-intensity light array is also equipped with a cover plate to seal the gap between each reflector with a 3.1-degree beam angle. The high-intensity light array includes thirty LED beads, with six LED beads connected in series forming a row of LED beads in the high-intensity light array. The high-intensity light array has a total of five rows of LED beads. Each constant current LED driver is used to drive a row of LED beads in the high-intensity light array to emit the high-intensity light or the flashing light.

9. The multi-mode integrated LED light-emitting device for driving away light according to claim 3, characterized in that, The floodlight adjuster, the high beam adjuster, and the high beam strobe adjuster are all knobs with multiple settings.

10. The multi-mode integrated LED light-emitting device for driving away light according to claim 4, characterized in that, The lower-level controller also includes a power supply module, a voltage conversion module, and a voltage regulator; The power module is used to receive external power supply, convert the voltage level of the external power supply to the first voltage level supply voltage, and provide working power for the high beam driver and the floodlight driver; The voltage conversion module is connected to the power supply module and is used to obtain the supply voltage of the first voltage level and step down the supply voltage of the first voltage level to obtain the supply voltage of the second voltage level. The voltage regulator is connected to the voltage conversion module and is used to obtain the power supply voltage of the second voltage level, step down the power supply voltage of the second voltage level to obtain the power supply voltage of the third voltage level, and supply power to the second microcontroller based on the power supply voltage of the third voltage level.

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