Image recognition device based on multi-sensor fusion

Abstract

The utility model relates to the technical field of image processing and identification, and discloses an image identification device based on multi-sensor fusion, which comprises a sensor assembly used for collecting various data and a touch display screen used for displaying real-time data, a protection assembly used for stably installing the sensor assembly is arranged on one side of the sensor assembly, and the touch display screen is arranged on the other side of the sensor assembly. A control terminal assembly used for analyzing and feeding back data collected by the sensor assembly is arranged in the protection assembly, a wireless charging assembly used for wireless charging is arranged on one side of the sensor assembly, the sensor assembly collects different types of data, and the control terminal assembly is responsible for data processing and feeding back. The wireless charging assembly provides a continuous power supply for the equipment, and the heat conduction assembly and the heat dissipation mechanism jointly ensure that the equipment can maintain a stable temperature during high-intensity work, so that the stability and reliability of the equipment are effectively improved, and the adaptability of the equipment in a variable environment is ensured.

Description

Technical Field

[0001] This utility model relates to the field of image processing and recognition technology, specifically to an image recognition device based on multi-sensor fusion. Background Technology

[0002] Image recognition devices are technological devices that can automatically analyze and understand image content. Through computer vision and machine learning algorithms, image recognition devices can identify elements such as objects, people, and scenes in images and extract relevant information. These devices typically use cameras or sensors to capture image data and analyze and process the images using image processing software. Image recognition technology is widely used in many fields, such as security monitoring, facial recognition, autonomous driving, and medical image analysis. The core of this technology is deep learning algorithms, which, by training a large number of data models, enable the device to improve recognition accuracy and speed.

[0003] In existing technologies, traditional image recognition devices typically rely on a single sensor for image acquisition and analysis, resulting in relatively limited and singular functionality. For example, these devices may acquire image data solely through a camera or a particular type of sensor, making it difficult to accurately identify or process various information in complex environments. Furthermore, single-sensor image recognition systems often exhibit unstable recognition performance under varying lighting conditions, angle changes, or occlusion, leading to misidentification or missed identification. These issues not only affect the accuracy of image recognition but also limit its effectiveness in diverse real-world application scenarios. With the increasing demand for image recognition, traditional devices cannot meet the requirements of high precision and multi-scenario applications, thus hindering the intelligent development of related fields. When facing complex environments and diverse tasks, single-sensor systems cannot fully realize the potential of image recognition, causing numerous inconveniences and limitations in practical operation. Therefore, those skilled in the art provide an image recognition device based on multi-sensor fusion to address the problems mentioned in the background art. Utility Model Content

[0004] The purpose of this invention is to provide an image recognition device based on multi-sensor fusion, which solves the problem that traditional image recognition devices in the prior art usually rely on a single sensor for image acquisition and analysis. Their functions are relatively simple and limited. For example, these devices may only use a camera or a certain type of sensor to acquire image data, thus failing to accurately identify or process various information in complex environments. In addition, the recognition effect of a single-sensor image recognition system is often unstable under different lighting, angle changes, or occlusion conditions, which can easily lead to misidentification or missed identification. These problems not only affect the accuracy of image recognition but also limit its effectiveness in changing real-world application scenarios. With the increasing demand for image recognition, traditional devices cannot meet the requirements of high precision and multi-scenario applications, thus affecting the intelligent development of related fields. When facing complex environments and diverse tasks, single-sensor systems cannot fully realize the potential of image recognition, causing many inconveniences and limitations in actual operation.

[0005] This utility model provides the following technical solution: an image recognition device based on multi-sensor fusion, comprising a sensor component for collecting various data and a touch screen for displaying real-time data. A protective component for stably mounting the sensor component is provided on one side of the sensor component. A control terminal component for parsing and feeding back the data collected by the sensor component is provided inside the protective component. A wireless charging component for wireless charging is provided on one side of the sensor component. A heat-conducting component for transferring the heat generated by the control terminal component is provided on one side of the control terminal component. Three heat dissipation mechanisms for dissipating heat from the heat-conducting component are provided at the lower end of the heat-conducting component.

[0006] As a preferred embodiment of the above technical solution, the protective component includes a stainless steel frame, an inner support plate is fixedly fitted inside the stainless steel frame on one side, the inner support plate has multiple weight-reducing holes arranged in a filling array, and multiple ventilation slots are arranged in a lower center of the stainless steel frame. The touch screen is fixedly fitted inside the stainless steel frame on one side near the inner support plate.

[0007] As a preferred embodiment of the above technical solution, the control terminal component includes a main control circuit board and a lithium battery. The main control circuit board and the lithium battery are respectively fixedly connected to the upper and lower ends of the inner support plate away from the touch screen. The lithium battery and the main control circuit board are connected via a flexible flat cable. Multiple data processing chips are soldered on one side of the main control circuit board. The touch screen and the main control circuit board are connected via a flexible flat cable.

[0008] As a preferred embodiment of the above technical solution, the sensor assembly includes a back cover plate, which is fixedly sleeved inside the stainless steel frame on the side away from the touch screen. An integrated circuit board is fixedly sleeved in the upper center of the back cover plate. An ultraviolet sensor, an infrared temperature sensor, a dot matrix lidar, a thermal imaging sensor, a wide-angle camera, and a telephoto camera are arranged and welded on the side of the integrated circuit board away from the inner support plate. An air intake dustproof isolation mesh is provided in the lower center of the back cover plate. The integrated circuit board and the main control circuit board are connected via a flexible flat cable.

[0009] As a preferred embodiment of the above technical solution, the wireless charging component includes a wireless charging coil, which is fixedly sleeved inside the center of the rear cover plate. The wireless charging coil is connected to the main control circuit board via a flexible flat cable, and multiple permanent magnets are arranged in a ring and bonded to the center of one side of the wireless charging coil near the edge using an adhesive process.

[0010] As a preferred embodiment of the above technical solution, the heat-conducting component includes a heat-conducting copper plate, which is attached to the side of the main control circuit board where multiple data processing chips are soldered. The heat-conducting copper plate has multiple positioning grooves on the side near the multiple data processing chips, and the multiple positioning grooves are respectively sleeved on the outside of the multiple data processing chips. Heat-conducting sheets are fixedly connected to the lower center of the heat-conducting copper plate near both sides.

[0011] As a preferred embodiment of the above technical solution, the heat dissipation mechanism includes a positioning frame, which is fixedly connected to the inner wall of the lower part of the stainless steel frame. A first support plate is fixedly fitted inside the positioning frame near the touch screen, and a second support plate is fixedly fitted inside the positioning frame near the air inlet dustproof isolation mesh. An air inlet hole is opened through the center of the second support plate. A brushless motor is fixedly fitted inside the center of the first support plate. A fan wheel is fixedly connected to the rotating end of the brushless motor near the second support plate. Heat pipes are fixedly fitted on both sides of the lower part of the positioning frame. Multiple heat dissipation fins are arranged and fixedly fitted on the outer center of the heat pipes. An isolation mesh plate is fixedly fitted between the first support plate and the second support plate at the lower part.

[0012] As a preferred embodiment of the above technical solution, the two heat-conducting sheets and the three heat pipes are fixedly connected, and the three brushless motors are connected to the main control circuit board via a flexible flat cable.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] This image recognition device based on multi-sensor fusion, through the close cooperation of multiple functional modules, utilizes multi-sensor fusion technology to enable it to have efficient and accurate environmental perception and image recognition capabilities. The sensor components collect different types of data, the control terminal components are responsible for data processing and feedback, the wireless charging components provide continuous power to the device, and the heat conduction components and heat dissipation mechanisms work together to ensure that the device can maintain a stable temperature during high-intensity operation, thereby effectively improving the stability and reliability of the device and ensuring its adaptability in changing environments. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of a three-dimensional structure of an image recognition device based on multi-sensor fusion.

[0016] Figure 2 This is a three-dimensional structural diagram of an image recognition device based on multi-sensor fusion from another perspective;

[0017] Figure 3 A schematic diagram of the three-dimensional split structure of an image recognition device based on multi-sensor fusion;

[0018] Figure 4 A three-dimensional structural diagram to protect the components;

[0019] Figure 5 A three-dimensional structural diagram of the control terminal component;

[0020] Figure 6 This is a schematic diagram of the three-dimensional structure of the sensor assembly;

[0021] Figure 7 A three-dimensional disassembled structural diagram of the wireless charging component;

[0022] Figure 8 This is a schematic diagram of the three-dimensional structure of the heat-conducting component;

[0023] Figure 9 This is a three-dimensional, disassembled structural diagram of the heat dissipation mechanism.

[0024] Legend:

[0025] 1. Protective components; 101. Stainless steel frame; 102. Inner support plate; 103. Weight reduction hole; 104. Exhaust vent; 2. Control terminal components; 201. Main control circuit board; 202. Lithium battery; 203. Data processing chip; 3. Sensor components; 301. Back cover; 302. Integrated circuit board; 303. Ultraviolet sensor; 304. Infrared temperature sensor; 305. Dot matrix LiDAR; 306. Thermal imaging sensor; 307. Wide-angle camera; 308. Telephoto lens Camera; 309. Air intake dustproof isolation net; 4. Wireless charging component; 401. Wireless charging coil; 402. Permanent magnet; 5. Heat conduction component; 501. Heat conduction copper plate; 502. Positioning groove; 503. Heat conduction sheet; 6. Heat dissipation mechanism; 601. Positioning frame; 602. First support plate; 603. Second support plate; 604. Air intake hole; 605. Brushless motor; 606. Fan wheel; 607. Heat pipe; 608. Heat dissipation fins; 609. Isolation net plate; 7. Touch screen display. Detailed Implementation

[0026] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention.

[0027] Please see Figures 1-3 As shown, this utility model provides a technical solution: an image recognition device based on multi-sensor fusion, including a sensor component 3 for collecting various data and a touch screen 7 for displaying real-time data. A protective component 1 for stably installing the sensor component 3 is provided on one side. A control terminal component 2 for parsing and feeding back the data collected by the sensor component 3 is provided inside the protective component 1. A wireless charging component 4 for wireless charging is provided on one side of the sensor component 3. A heat-conducting component 5 for transferring the heat generated by the control terminal component 2 is provided on one side of the control terminal component 2. Three heat dissipation mechanisms 6 for dissipating heat from the heat-conducting component 5 are provided at the lower end of the heat-conducting component 5.

[0028] This image recognition device based on multi-sensor fusion, through the close cooperation of multiple functional modules, utilizes multi-sensor fusion technology to enable it to have efficient and accurate environmental perception and image recognition capabilities. Sensor component 3 collects different types of data, control terminal component 2 is responsible for data processing and feedback, wireless charging component 4 provides continuous power to the device, and heat conduction component 5 and heat dissipation mechanism 6 work together to ensure that the device can maintain a stable temperature during high-intensity operation, thereby effectively improving the stability and reliability of the device and ensuring its adaptability in changing environments.

[0029] As one implementation method in this embodiment, please refer to Figure 4As shown, the protective component 1 includes a stainless steel frame 101. An inner support plate 102 is fixedly fitted inside the stainless steel frame 101 near one side. Multiple weight-reducing holes 103 are arranged in a filling array inside the inner support plate 102. Multiple ventilation slots 104 are arranged in a lower center inside the stainless steel frame 101. The touch screen 7 is fixedly fitted inside the stainless steel frame 101 near the inner support plate 102.

[0030] The protective component 1 adopts a stainless steel frame 101 design, and the sensor component 3 is stabilized by fixing the inner support plate 102. The inner support plate 102 has multiple weight-reducing holes 103, which not only reduces the overall weight, but also ensures strength and stability. The built-in exhaust vent 104 of the protective component 1 helps heat dissipation and prevents the equipment from being damaged by high temperature. The protective component 1 provides stable support and external protection for the sensor component 3, and at the same time, the exhaust vent 104 ensures the heat dissipation effect during equipment operation, improving the durability and reliability of the overall system.

[0031] As one implementation method in this embodiment, please refer to Figure 5 As shown, the control terminal component 2 includes a main control circuit board 201 and a lithium battery 202. The main control circuit board 201 and the lithium battery 202 are respectively fixedly connected to the upper and lower ends of the inner support plate 102 away from the touch screen 7. The lithium battery 202 and the main control circuit board 201 are connected by a flexible flat cable. Multiple data processing chips 203 are soldered on one side of the main control circuit board 201. The touch screen 7 and the main control circuit board 201 are connected by a flexible flat cable.

[0032] The control terminal component 2 realizes the parsing and control of sensor data through the main control circuit board 201 and the lithium battery 202. The data processing chip 203 on the main control circuit board 201 processes the collected sensor data in real time and communicates with the touch screen 7 through the flexible flat cable to display the processed data in real time. The lithium battery 202 provides stable power support for the entire system, ensuring the long-term operation of the device. In addition, the main control circuit board 201 controls the transmission and feedback of data, enhancing the response speed and data accuracy of the entire device.

[0033] As one implementation method in this embodiment, please refer to Figure 6As shown, the sensor assembly 3 includes a rear cover plate 301, which is fixedly sleeved inside the stainless steel frame 101 on the side away from the touch screen 7. An integrated circuit board 302 is fixedly sleeved in the upper center of the rear cover plate 301. An ultraviolet sensor 303, an infrared temperature sensor 304, a dot matrix lidar 305, a thermal imaging sensor 306, a wide-angle camera 307, and a telephoto camera 308 are arranged and soldered on the side of the integrated circuit board 302 away from the inner support plate 102. An air inlet dustproof isolation mesh 309 is provided in the lower center of the rear cover plate 301. The integrated circuit board 302 and the main control circuit board 201 are connected by a flexible flat cable.

[0034] Sensor assembly 3 includes multiple sensors, such as ultraviolet sensor 303, infrared temperature sensor 304, dot matrix lidar 305, thermal imaging sensor 306, wide-angle camera 307, and telephoto camera 308. These sensors perform signal processing through integrated circuit board 302, covering a variety of sensing fields, from temperature and ultraviolet light to image and distance detection, and can provide comprehensive environmental information. The combination of these sensors enables the image recognition device to work in a variety of complex environments, improving the overall recognition accuracy and adaptability.

[0035] As one implementation method in this embodiment, please refer to Figure 7 As shown, the wireless charging component 4 includes a wireless charging coil 401, which is fixedly sleeved inside the center of the rear cover plate 301. The wireless charging coil 401 is connected to the main control circuit board 201 via a flexible flat cable. Multiple permanent magnets 402 are attached to the center of one side of the wireless charging coil 401 near the edge by an adhesive process in a ring.

[0036] The wireless charging component 4 provides power to the control terminal component 2 through the wireless charging coil 401. The wireless charging coil 401 is connected to the main control circuit board 201 through a flexible flat cable to ensure a stable power supply. Multiple permanent magnets 402 surround the wireless charging coil 401 to help enhance the stability of the magnetic field and charging efficiency, avoiding equipment shutdown due to insufficient power. Wireless charging technology improves the convenience of the device, reduces physical contact and the use of cables, and makes the maintenance of the device easier during long-term operation.

[0037] As one implementation method in this embodiment, please refer to Figure 8 As shown, the heat-conducting component 5 includes a heat-conducting copper plate 501. The heat-conducting copper plate 501 is attached to the side of the main control circuit board 201 where multiple data processing chips 203 are soldered. Multiple positioning grooves 502 are opened on the side of the heat-conducting copper plate 501 near the multiple data processing chips 203. The multiple positioning grooves 502 are respectively sleeved on the outside of the multiple data processing chips 203. Heat-conducting sheets 503 are fixedly connected to both sides of the lower center of the heat-conducting copper plate 501.

[0038] The heat-conducting component 5 uses a heat-conducting copper plate 501 to effectively conduct the heat generated from the main control circuit board 201 and its data processing chip 203. The heat-conducting copper plate 501 is provided with multiple positioning grooves 502, which can tightly surround the data processing chip 203 and enhance the heat conduction efficiency. The lower end of the heat-conducting copper plate 501 is connected to a heat-conducting sheet 503, which further accelerates the heat dissipation. This design ensures the stability of the equipment when working under high load and avoids performance degradation or hardware damage caused by overheating.

[0039] As one implementation method in this embodiment, please refer to Figure 9 As shown, the heat dissipation mechanism 6 includes a positioning frame 601, which is fixedly connected to the lower inner wall of the stainless steel frame 101. A first support plate 602 is fixedly fitted inside the positioning frame 601 near the touch screen 7. A second support plate 603 is fixedly fitted inside the positioning frame 601 near the air inlet dustproof isolation net 309. An air inlet hole 604 is opened through the center of the second support plate 603. A brushless motor 605 is fixedly fitted inside the center of the first support plate 602. A fan wheel 606 is fixedly connected to the rotating end of the brushless motor 605 near the second support plate 603. Heat pipes 607 are fixedly fitted on both sides of the lower part of the positioning frame 601. Multiple heat dissipation fins 608 are arranged and fixedly fitted on the outer center of the heat pipes 607. An isolation net plate 609 is fixedly fitted between the first support plate 602 and the second support plate 603 near the lower part.

[0040] The heat dissipation mechanism 6 drives the fan wheel 606 to rotate via the brushless motor 605, thereby increasing airflow and promoting the rapid dissipation of heat inside the equipment. The fan wheel 606 exhausts hot air, while the heat pipe 607 conducts heat through its pipes and dissipates heat through the heat dissipation fins 608 fixed to the outside, further reducing the internal temperature. The air inlet dustproof isolation net 309 effectively prevents dust from entering the equipment, ensuring the efficient operation of the heat dissipation system and avoiding the weakening of heat dissipation effect caused by dust. This heat dissipation system ensures the stability of the equipment during long-term operation and improves the service life of the equipment.

[0041] As one implementation method in this embodiment, please refer to Figure 9 As shown, the two heat-conducting plates 503 and the three heat pipes 607 are fixedly connected, and the three brushless motors 605 are connected to the main control circuit board 201 via a flexible flat cable.

[0042] All components work together. First, the sensor component 3 collects multi-dimensional data, and then the control terminal component 2 processes and feeds back the data. The results are displayed on the touch screen 7 in real time. The wireless charging component 4 ensures uninterrupted power supply to the device. The heat conduction component 5 and the heat dissipation mechanism 6 work together to effectively control the device temperature and prevent overheating from affecting the system stability. The overall design significantly improves the working efficiency and reliability of the device by optimizing heat dissipation, improving data processing capabilities and enhancing power supply.

[0043] Working Principle: The protection component 1 adopts a stainless steel frame 101 design, which stabilizes the sensor component 3 by fixing the inner support plate 102. The inner support plate 102 has multiple weight-reducing holes 103, which not only reduces the overall weight but also ensures strength and stability. The built-in exhaust vent 104 of the protection component 1 helps heat dissipation and prevents the equipment from being damaged by high temperature. The protection component 1 provides stable support and external protection for the sensor component 3, while the exhaust vent 104 ensures heat dissipation during equipment operation, improving the durability and reliability of the overall system. The control terminal component 2 realizes the parsing and control of sensor data through the main control circuit board 201 and the lithium battery 202. The data processing chip 203 on the main control circuit board 201 processes the collected sensor data in real time and communicates with the touch screen 7 through a flexible flat cable to display the processed data in real time. The lithium battery 202 provides stable power support for the entire system, ensuring long-term operation of the device. In addition, the main control circuit board 201 controls the transmission and feedback of data, enhancing the response speed and data accuracy of the entire device.

[0044] Sensor assembly 3 includes multiple sensors, such as an ultraviolet sensor 303, an infrared temperature sensor 304, a dot matrix lidar 305, a thermal imaging sensor 306, a wide-angle camera 307, and a telephoto camera 308. These sensors process signals through an integrated circuit board 302, covering multiple sensing fields, from temperature and ultraviolet light to image and distance detection, providing comprehensive environmental information. The combination of these sensors enables the image recognition device to work in various complex environments, improving overall recognition accuracy and adaptability. Wireless charging assembly 4 provides power to control terminal assembly 2 through wireless charging coil 401. Wireless charging coil 401 is connected to main control circuit board 201 through a flexible flat cable to ensure a stable power supply. Multiple permanent magnets 402 surround wireless charging coil 401 to help enhance the stability of the magnetic field and charging efficiency, avoiding equipment shutdown due to insufficient power. Wireless charging technology improves the convenience of the device, reduces physical contact and the use of cables, and makes maintenance of the device easier during long-term operation.

[0045] The heat-conducting component 5 uses a heat-conducting copper plate 501 to effectively conduct heat generated from the main control circuit board 201 and its data processing chip 203. The heat-conducting copper plate 501 has multiple positioning slots 502 that tightly surround the data processing chip 203, enhancing heat conduction efficiency. A heat-conducting sheet 503 is connected to the lower end of the heat-conducting copper plate 501, further accelerating heat dissipation. This design ensures the stability of the equipment under high load operation, avoiding performance degradation or hardware damage caused by overheating. The heat dissipation mechanism 6 drives the fan 606 to rotate via a brushless motor 605, thereby increasing airflow and promoting rapid heat dissipation from inside the equipment. The fan 606 exhausts hot air, while the heat pipe 607 conducts heat through its pipes and dissipates it through the externally fixed heat dissipation fins 608. The heat dissipation system further reduces the internal temperature, while the air intake dustproof isolation net 309 effectively prevents dust from entering the equipment, ensuring the efficient operation of the heat dissipation system and avoiding the weakening of heat dissipation effect caused by dust. This heat dissipation system ensures the stability of the equipment during long-term operation and improves the service life of the equipment. All components work together. First, the sensor component 3 collects multi-dimensional data, and the data is processed and fed back through the control terminal component 2. The results are displayed on the touch screen 7 in real time. The wireless charging component 4 ensures uninterrupted power supply to the equipment. The heat conduction component 5 and the heat dissipation mechanism 6 work together to effectively control the temperature of the equipment and prevent overheating from affecting the stability of the system. The overall design significantly improves the working efficiency and reliability of the device by optimizing heat dissipation, improving data processing capabilities and enhancing power supply.

[0046] The above embodiments are only used to illustrate the technical solution of this utility model, and are not intended to limit it.

Claims

1. A multi-sensor fusion based image recognition device, characterized by: The device includes a sensor assembly (3) for collecting various types of data and a touch screen (7) for displaying real-time data. A protective assembly (1) for stably mounting the sensor assembly (3) is provided on one side of the sensor assembly (3). A control terminal assembly (2) for parsing and feeding back the data collected by the sensor assembly (3) is provided inside the protective assembly (1). A wireless charging assembly (4) for wireless charging is provided on one side of the sensor assembly (3). A heat-conducting assembly (5) for transferring the heat generated by the control terminal assembly (2) is provided on one side of the control terminal assembly (2). Three heat dissipation mechanisms (6) for dissipating heat from the heat-conducting assembly (5) are provided at the lower end of the heat-conducting assembly (5).

2. The image recognition device based on multi-sensor fusion according to claim 1, characterized in that: The protective component (1) includes a stainless steel frame (101), an inner support plate (102) is fixedly fitted inside the stainless steel frame (101) on one side, and multiple weight-reducing holes (103) are filled in an array inside the inner support plate (102). Multiple ventilation slots (104) are arranged in a lower center inside the stainless steel frame (101). The touch screen (7) is fixedly fitted inside the stainless steel frame (101) on one side near the inner support plate (102).

3. The image recognition device based on multi-sensor fusion according to claim 2, characterized in that: The control terminal component (2) includes a main control circuit board (201) and a lithium battery (202). The main control circuit board (201) and the lithium battery (202) are respectively fixedly connected to the upper and lower ends of the inner support plate (102) away from the touch screen (7). The lithium battery (202) and the main control circuit board (201) are connected by a flexible flat cable. Multiple data processing chips (203) are soldered on one side of the main control circuit board (201). The touch screen (7) and the main control circuit board (201) are connected by a flexible flat cable.

4. The image recognition device based on multi-sensor fusion according to claim 3, characterized in that: The sensor assembly (3) includes a back cover plate (301), which is fixedly sleeved inside the stainless steel frame (101) on the side away from the touch screen (7). An integrated circuit board (302) is fixedly sleeved in the upper center of the back cover plate (301). An ultraviolet sensor (303), an infrared temperature sensor (304), a dot matrix lidar (305), a thermal imaging sensor (306), a wide-angle camera (307), and a telephoto camera (308) are arranged and welded on the side of the integrated circuit board (302) away from the inner support plate (102). An air inlet dustproof isolation net (309) is provided in the lower center of the back cover plate (301). The integrated circuit board (302) and the main control circuit board (201) are connected by a flexible flat cable.

5. The image recognition device based on multi-sensor fusion according to claim 4, characterized in that: The wireless charging component (4) includes a wireless charging coil (401), which is fixedly sleeved inside the center of the rear cover plate (301). The wireless charging coil (401) is connected to the main control circuit board (201) via a flexible flat cable. Multiple permanent magnets (402) are attached to the center of one side of the wireless charging coil (401) near the edge by an adhesive process.

6. The image recognition device based on multi-sensor fusion according to claim 3, characterized in that: The heat-conducting component (5) includes a heat-conducting copper plate (501). The heat-conducting copper plate (501) is attached to the side of the main control circuit board (201) where multiple data processing chips (203) are soldered. The heat-conducting copper plate (501) has multiple positioning grooves (502) on the side near the multiple data processing chips (203). The multiple positioning grooves (502) are respectively sleeved on the outside of the multiple data processing chips (203). Heat-conducting sheets (503) are fixedly connected to both sides of the lower center of the heat-conducting copper plate (501).

7. The image recognition device based on multi-sensor fusion according to claim 6, characterized in that: The heat dissipation mechanism (6) includes a positioning frame (601), which is fixedly connected to the lower inner wall of the stainless steel frame (101). A first support plate (602) is fixedly fitted inside the positioning frame (601) near the touch screen (7), and a second support plate (603) is fixedly fitted inside the positioning frame (601) near the air inlet dustproof isolation net (309). An air inlet hole (604) is opened through the center of the second support plate (603). (602) A brushless motor (605) is fixedly fitted at the center of the interior. A fan wheel (606) is fixedly connected to the rotating end of the brushless motor (605) near the second support plate (603). Heat pipes (607) are fixedly fitted at the lower part of both sides of the positioning frame (601). Multiple heat dissipation fins (608) are fixedly fitted at the center of the outer side of the heat pipes (607). An isolation mesh plate (609) is fixedly fitted at the lower part between the first support plate (602) and the second support plate (603). 8.The image recognition device based on multi-sensor fusion of claim 7, wherein: The two heat-conducting plates (503) are fixedly connected to the three heat pipes (607), and the three brushless motors (605) are connected to the main control circuit board (201) via a flexible flat cable.

Images