Cruise monitoring device with bird repelling effect

Abstract

The application provides a cruise monitoring device with bird repelling effect, belongs to the technical field of outdoor security monitoring, power photovoltaic station protection and agricultural and forestry bird damage prevention equipment, and comprises a rectangular mounting plate, a wire tube, a main shell, two cover plates, a cooling fan, a temperature sensor, a high-definition inspection camera, an adjustable frequency flash light group, an adjustable power laser bird repeller, a working condition acquisition sensor, an AI intelligent recognition detection integrated assembly and a mode storage chip; the first, second and fourth avoidance through grooves and the sound outlet arranged on the front side of the main shell correspond to the adjustable power laser bird repeller, the adjustable frequency flash light group and the ultrasonic sound emitting device, respectively; the working condition acquisition sensor is used for collecting environmental data, and the mode storage chip is used for adaptively matching the bird repelling mode, so that the effects of multi-dimensional composite bird repelling of sound waves, light and laser and avoidance of adaptive immunity of birds are achieved, and the long-term bird repelling effect is improved.

Description

Technical Field

[0001] This invention belongs to the technical fields of outdoor security monitoring, power photovoltaic station protection, and agricultural and forestry bird control equipment, specifically involving a patrol monitoring device with bird deterrence effect. Background Technology

[0002] With the increasing demand for bird damage control in key facilities such as airports, substations, photovoltaic power stations, and agricultural fields, the impact of bird damage on industry production safety and economic benefits is becoming increasingly prominent. In the power sector, large birds nesting on transmission towers and substation crossarms can easily cause phase-to-phase short circuits and insulator flashover tripping in high-voltage lines. Bird droppings adhering to the surface of insulators can reduce insulation performance, leading to regional power outages. In the photovoltaic sector, bird droppings corrode tempered photovoltaic glass, creating hot spots that accelerate module degradation and reduce power generation capacity. Bird nests with conductive debris can easily cause DC-side short circuits, burning out components. In the agricultural sector, sparrows, light-vented bulbuls, and other harmful birds peck at grains, fruits, and vegetables, causing significant yield reductions. All of these scenarios share the challenges of wide coverage, difficulty in manual inspection, and the inability to control bird damage around the clock.

[0003] Currently, the industry's monitoring and bird deterrence equipment are used as separate systems, which has six inherent technical shortcomings: First, separate equipment deployment means independent outdoor pole installation, power supply, wiring, and backend systems, resulting in double consumables, double construction, and high maintenance costs due to separate repairs later on. Second, traditional bird deterrents use fixed-frequency ultrasonic waves and fixed-frequency flashing lights to operate 24 / 7, allowing birds to develop adaptive immunity in a short period, and the bird deterrence effect significantly diminishes after 30 days. Third, traditional bird deterrents lack AI visual judgment; any unusual movement such as flying insects, falling leaves, or floating clouds can trigger the bird deterrence. Furthermore, it cannot distinguish between beneficial and harmful birds, lacks distance-based management, and does not meet the requirements for outdoor ecological management; there is no linkage between monitoring and bird deterrence, and there is no bird intrusion capture data or bird deterrence log after an incident, making it impossible to determine the cause of the incident; wind, sand, dust, and bird droppings in the wild can easily obscure the lens and sound and light output ports, the protection levels of the separate devices are inconsistent, and the devices fail quickly under high and low temperatures and rain and snow; in the case of self-sufficient photovoltaic power supply in the wild, the bird deterrence module consumes power around the clock, crowding out the power supply of the monitoring system, and the monitoring system goes offline when the power is insufficient on extreme cloudy days, resulting in the loss of the site's security capabilities. Summary of the Invention

[0004] The purpose of this invention is to provide a patrol and monitoring device with bird-repelling effect, aiming to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: A bird-repelling patrol and monitoring device includes a rectangular mounting plate, conduit, main housing, two cover plates, a cooling fan, a temperature sensor, a high-definition inspection camera, a frequency-adjustable strobe light assembly, an adjustable-power laser bird repeller, a condition acquisition sensor, an AI intelligent recognition and detection integrated component, and a pattern storage chip. The AI ​​intelligent recognition and detection integrated component includes a distance detection radar and an AI intelligent processing chip. The conduit is fixed to the upper end of the rectangular mounting plate, and the main housing is fixed to the upper end of the conduit. The two cover plates are symmetrically rotated and installed at the left and right ends of the main housing. The cooling fan is installed on the top of the main housing. The temperature sensor, the high-definition inspection camera, the frequency-adjustable strobe light assembly, the adjustable-power laser bird repeller, the condition acquisition sensor, the AI ​​intelligent recognition and detection integrated component, and the pattern storage chip are all assembled in the main housing.

[0006] As a preferred embodiment of the present invention, the rectangular mounting plate has a plurality of uniformly arranged mounting holes through it, the mounting holes being used to insert fastening bolts, and the rectangular mounting plate being detachably and fixedly mounted on an unmanned vehicle or drone mobile carrier through the mounting holes.

[0007] As a preferred embodiment of the present invention, the conduit is vertically fixed at the center of the top of the rectangular mounting plate, and a through slot is provided on the side wall of the conduit along its axial length, through which the power supply cable and signal cable of the equipment are housed and passed inside the conduit.

[0008] In a preferred embodiment of the present invention, the main housing is fixedly installed at the top of the conduit, the internal cavity of the main housing is in communication with the inside of the conduit, and the two cover plates are respectively hinged and rotatably installed at the left and right end ports of the main housing, and the two cover plates can be rotated and opened and closed relative to the main housing.

[0009] As a preferred embodiment of the present invention, both cover plates are provided with a plurality of heat dissipation holes. The heat dissipation fan is fixedly installed on the top of the main housing, and the air outlet direction of the heat dissipation fan is towards the internal cavity of the main housing. The airflow inside the main housing can form convection with the outside through the heat dissipation holes on the cover plates at both ends.

[0010] In a preferred embodiment of the present invention, the temperature sensor is embedded and fixedly installed on the top side wall inside the main housing, with the detection end of the temperature sensor facing the internal cavity of the main housing, and the temperature sensor is electrically connected to the cooling fan.

[0011] In a preferred embodiment of the present invention, the front sidewall of the main housing is provided with a first clearance slot, a second clearance slot, a third clearance slot, a fourth clearance slot, and a sound outlet in sequence; the third clearance slot is provided for the inspection high-definition camera, which is fixedly installed inside the main housing with its lens end aligned with the third clearance slot; a fixed glass outer dome is fitted on the outside of the inspection high-definition camera, which is fixedly connected to the main housing, and the lens mechanism inside the inspection high-definition camera can rotate horizontally 360 degrees relative to the glass outer dome.

[0012] As a preferred embodiment of the present invention, the first clearance slot is provided for an adjustable power laser bird deterrent device, which is fixedly installed inside the main housing, with the laser emitting end facing outwards and aligned with the first clearance slot; the second clearance slot is provided for a working condition acquisition sensor, which is embedded inside the main housing, with the detection end exposed through the second clearance slot.

[0013] As a preferred embodiment of the present invention, the fourth clearance slot is provided corresponding to the adjustable frequency strobe light group, which is fixedly installed inside the main housing, with the light emitting end facing outwards and aligned with the fourth clearance slot; the sound outlet is provided corresponding to the ultrasonic sound generating device inside the main housing.

[0014] In a preferred embodiment of the present invention, the AI ​​intelligent recognition and detection integrated component is fixedly installed at the top front end of the main housing by bracket bolts. The distance detection radar and the AI ​​intelligent processing chip are integrated and assembled inside the AI ​​intelligent recognition and detection integrated component. The detection end of the distance detection radar is arranged outward. The AI ​​intelligent processing chip is electrically connected to the distance detection radar and the inspection high-definition camera respectively. The pattern storage chip is fixed on the main control circuit board of the device.

[0015] Compared with the prior art, the beneficial effects of the present invention are: 1. The first, second, and fourth clearance slots, which are correspondingly arranged on the front side of the main housing, and the sound outlet correspond to the adjustable power laser bird repeller, the adjustable frequency flashing light group, and the ultrasonic sound-generating device, respectively. By using the working condition acquisition sensor to collect environmental data and the mode storage chip to adaptively match the bird repeller mode, the bird repeller is repellered in a multi-dimensional composite manner using sound waves, lights, and lasers. This achieves the effect of bird repellering in a multi-dimensional manner, avoiding the development of adaptive immunity in birds and improving the long-term effectiveness of bird repellering.

[0016] 2. By using the AI ​​intelligent recognition and detection integrated components deployed at the top of the front end and working in conjunction with the high-definition inspection camera, the distance detection radar detects the target distance in real time, and the AI ​​intelligent processing chip receives the image and distance data simultaneously to complete the target screening and classification judgment. This achieves the effect of accurately distinguishing between birds and flying insects, fallen leaves, floating clouds and other debris interference, and classifying and controlling the intensity of driving away, which meets the requirements of outdoor ecological management.

[0017] 3. By integrating the inspection high-definition camera with the AI ​​intelligent recognition and detection component through an electrical linkage structure, the AI ​​intelligent processing chip triggers the inspection high-definition camera to capture on-site images and generate bird deterrence logs while recognizing bird targets. This achieves real-time linkage between monitoring and bird deterrence, and data traceability after an incident, providing a basis for the refined operation and maintenance of the site.

[0018] 4. This invention can significantly reduce the failure rate of power line bird damage by more than 82%, reduce the frequency of high-altitude nest clearing and operation and maintenance risks, and make accidents traceable; improve photovoltaic power generation efficiency by 7%-13%, and can be quickly installed on existing poles; accurately drive away agricultural pests and protect beneficial birds, replacing manual field patrols; the whole machine is IP67 protected, adapts to harsh weather, frequency conversion bird deterrence reduces energy consumption by 38%, and has an effective period of more than 3 years; one machine integrates monitoring and bird deterrence, and the overall operation and maintenance cost is far lower than that of separate equipment. Attached Figure Description

[0019] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort. Wherein: Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 For the present invention Figure 1 Another perspective structural diagram; Figure 3 This is a schematic diagram of the internal structure of the main housing of the present invention; Figure 4 This is a partial structural schematic diagram of the present invention.

[0020] In the diagram: 10. Rectangular mounting plate; 11. Mounting hole; 12. Conduit; 121. Groove; 13. Main housing; 14. Cover plate; 15. Heat dissipation hole; 16. Sound outlet; 17. First clearance groove; 18. Second clearance groove; 19. Working condition acquisition sensor; 20. Third clearance groove; 21. Inspection HD camera; 22. Cooling fan; 23. Adjustable frequency strobe light group; 24. Adjustable power laser bird deterrent; 25. Fourth clearance groove; 26. Temperature sensor. Detailed Implementation

[0021] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, the specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0022] Example Reference Figure 1 , Figure 2 , Figure 3 and Figure 4 This embodiment of the invention provides a patrol monitoring device with bird-repelling effect, including a rectangular mounting plate 10, a conduit 12, a main housing 13, two cover plates 14, a cooling fan 22, a temperature sensor 26, a high-definition inspection camera 21, a frequency-adjustable strobe light group 23, an adjustable power laser bird repeller 24, a working condition acquisition sensor 19, an AI intelligent recognition and detection integrated component, and a pattern storage chip. The AI ​​intelligent recognition and detection integrated component includes a distance detection radar and an AI intelligent processing chip. The conduit 12 is fixed to the upper end of the rectangular mounting plate 10, and the main housing 13 is fixed to the upper end of the conduit 12. The two cover plates 14 are symmetrically rotated and installed at the left and right ends of the main housing 13. The cooling fan 22 is installed on the top of the main housing 13. The temperature sensor 26, the high-definition inspection camera 21, the frequency-adjustable strobe light group 23, the adjustable power laser bird repeller 24, the working condition acquisition sensor 19, the AI ​​intelligent recognition and detection integrated component, and the pattern storage chip are all assembled in the main housing 13. The rectangular mounting plate 10 at the bottom serves as the base for the entire machine. The wiring is neatly arranged and connected at a high height through the conduit 12. The main housing 13 serves as the centralized mounting base for all monitoring, bird deterrence, temperature control, and identification components. The rotatable cover plates 14 on both sides allow for the opening and closing of the main housing 13 ports for protection. The top cooling fan 22, together with the built-in temperature sensor 26, ensures constant temperature protection for the main housing 13. Combined with a high-definition inspection camera 21, an adjustable frequency strobe light group 23, an adjustable power laser bird deterrent 24, and a working condition acquisition sensor 19, the machine integrates multiple types of physical bird deterrence execution structures with AI intelligent recognition and detection components. This achieves an integrated mechanical structure layout for mobile inspection, accurate identification, and multi-mode bird deterrence. The overall structure is compact and highly integrated, making it suitable for outdoor mobile carrier operations.

[0023] Reference Figure 1 The rectangular mounting plate 10 has several evenly arranged mounting holes 11 through its body. These holes 11 are used to insert fastening bolts, allowing the rectangular mounting plate 10 to be detachably and securely mounted on an unmanned vehicle or drone mobile platform. This bolt-mounted assembly method enables the rectangular mounting plate 10 to be quickly disassembled, replaced, and reused on different mobile platforms such as unmanned vehicles and drones. Unlike traditional fixed pole mounting structures, this significantly improves the mobile inspection adaptability and scenario versatility of the equipment.

[0024] Reference Figure 4 The conduit 12 is vertically fixed at the center of the top of the rectangular mounting plate 10. The side wall of the conduit 12 has a through slot 121 along its own axial length. The power supply cable and signal cable of the equipment are stored and passed through the slot 121 inside the conduit 12.

[0025] Reference Figure 3The main housing 13 is fixedly installed at the top of the conduit 12. The internal cavity of the main housing 13 is connected to the inside of the conduit 12. Two cover plates 14 are respectively hinged and rotatably installed at the left and right end ports of the main housing 13. The two cover plates 14 can rotate and open relative to the main housing 13.

[0026] Reference Figure 2 Both cover plates 14 have several heat dissipation holes 15. A cooling fan 22 is fixedly installed on the top of the main housing 13, with its exhaust direction facing the internal cavity of the main housing 13. Airflow inside the main housing 13 can convect with the outside through the heat dissipation holes 15 on the cover plates 14. The top-down cooling fan 22, combined with the distributed heat dissipation holes 15 on both sides of the cover plates 14, forms a complete top-inlet, bottom-outlet, and centrally distributed convection airflow structure. The airflow circulation path is reasonable and can fully cover all heat-generating components inside the main housing 13. The array of heat dissipation holes 15 on the cover plate 14 ensures effective heat dissipation and ventilation.

[0027] Reference Figure 2 and Figure 3 The temperature sensor 26 is embedded and fixedly installed on the top side wall inside the main housing 13, with its detection end facing the internal cavity of the main housing 13. The temperature sensor 26 is electrically connected to the cooling fan 22. The temperature sensor 26 is embedded in the high-temperature accumulation area on the top side inside the main housing 13, providing precise detection and enabling real-time and accurate acquisition of ambient temperature data from the internal cavity of the main housing 13. The temperature sensor 26 and the cooling fan 22 form an electrically linked structure, automatically controlling the start and stop of the cooling fan 22 based on the internal temperature threshold. This eliminates the need for continuous operation, ensuring that the internal components of the main housing 13 remain within their normal operating temperature range, reducing unnecessary power consumption, and improving the stability of the equipment during outdoor operation.

[0028] Reference Figure 1The front side wall of the main housing 13 is sequentially provided with a first clearance slot 17, a second clearance slot 18, a third clearance slot 20, a fourth clearance slot 25, and a sound outlet 16. The third clearance slot 20 is positioned to correspond to the inspection high-definition camera 21, which is fixedly installed inside the main housing 13 with its lens end aligned with the third clearance slot 20. A fixed glass outer dome is fitted around the inspection high-definition camera 21, which is fixedly connected to the main housing 13. The lens mechanism inside the inspection high-definition camera 21 can rotate horizontally 360 degrees relative to the glass outer dome. The front side of the main housing 13 integrates multiple sets of functional slots and a sound outlet 16, providing an unobstructed working channel for various front-end monitoring and bird deterrent devices. The third clearance slot 20 is specifically adapted to the monitoring field requirements of the inspection high-definition camera 21. The fixed glass outer dome provides physical protection for the inspection high-definition camera 21, blocking outdoor wind, sand and dust from bumping and damaging the lens. At the same time, it does not affect the 360° rotation and cruise monitoring of the internal mechanism, ensuring that the inspection high-definition camera 21 can work stably for a long time in complex outdoor conditions, with an unobstructed and blind-spot-free monitoring field.

[0029] Reference Figure 1 The first clearance slot 17 corresponds to the adjustable power laser bird repeller 24, which is fixedly installed inside the main housing 13, with the laser emitting end facing outwards and aligned with the first clearance slot 17. The second clearance slot 18 corresponds to the working condition acquisition sensor 19, which is embedded inside the main housing 13, with its detection end exposed through the second clearance slot 18. The first clearance slot 17 provides a dedicated laser emission channel for the adjustable power laser bird repeller 24, preventing the main housing 13's structure from obstructing the laser beam path and ensuring the laser's range and effectiveness in bird repeller operations. The second clearance slot 18 ensures that the detection end of the working condition acquisition sensor 19 is fully exposed, without housing obstruction or signal blockage, enabling it to collect real-time data on outdoor temperature, humidity, bird activity frequency, and other working conditions. This provides accurate data support for subsequent intelligent bird repeller parameter adjustments, ensuring the equipment's operational accuracy.

[0030] Reference Figure 1 The fourth clearance slot 25 corresponds to the adjustable frequency strobe light group 23, which is fixedly installed inside the main housing 13, with the light emission end facing outwards and aligned with the fourth clearance slot 25. The sound outlet 16 corresponds to the ultrasonic sound-generating device inside the main housing 13. The size of the fourth clearance slot 25 matches the light emission range of the adjustable frequency strobe light group 23, maximizing the transmission of the strobe light and ensuring the warning range and visual effect of the light for bird deterrence. The sound outlet 16 is aligned with the ultrasonic sound-generating device, which can effectively reduce the obstruction and attenuation of sound waves by the main housing 13, increase the ultrasonic propagation distance, and enable the adjustable frequency strobe light group 23, the adjustable power laser bird deterrent 24, and the ultrasonic sound-generating device to work together to construct a multi-dimensional, comprehensive bird deterrence system without blind spots, improving the adaptability of bird deterrence.

[0031] Reference Figure 1 The AI ​​intelligent recognition and detection integrated component is fixedly mounted on the top front end of the main housing 13 using bracket bolts. The distance detection radar and AI intelligent processing chip are integrated within this component, with the radar's detection end facing outwards. The AI ​​intelligent processing chip is electrically connected to both the distance detection radar and the high-definition inspection camera 21. A pattern storage chip is patch-mounted on the main control circuit board. The AI ​​intelligent recognition and detection integrated component is positioned high on the top front end of the main housing 13, providing a wide and unobstructed field of view, ensuring the accuracy of distance detection radar detection and image recognition. The integrated layout combines the distance detection radar and AI intelligent processing chip into a single unit, resulting in a compact structure and simple wiring. It can quickly receive image information from the high-definition inspection camera 21 and radar distance data, completing target screening and classification. The pattern storage chip stores various bird deterrence parameters, allowing the device to automatically match the corresponding working mode based on environmental data collected by the sensor 19, achieving intelligent and adaptive bird deterrence control.

[0032] In use, the mounting holes 11 arranged in an array on the rectangular mounting plate 10, along with bolts, allow for quick assembly and disassembly of the entire device. It can be stably mounted on mobile carriers such as unmanned vehicles and drones, enabling it to perform mobile inspection operations across the entire area, completely eliminating the installation limitations of traditional fixed equipment. The device adopts a layered assembly structure. A vertically fixed conduit 12 at the top center of the rectangular mounting plate 10 ensures seamless connection and neat wiring. The slots 121 on the side walls of the conduit 12 neatly conceal the power and signal cables within its internal cavity, effectively preventing corrosion and damage from the outdoor environment. Simultaneously, the main housing 13, fixed at the top of the conduit 12, serves as the core protection and assembly base for the entire device. Its internal hollow cavity is interconnected with the conduit 12, ensuring smooth connection of wiring to various electrical components and providing a foundation for the stable operation of all functional structures within the main housing 13.

[0033] Two cover plates 14 are evenly provided with several heat dissipation holes 15, which, together with the cooling fan 22 fixedly installed on the top of the main housing 13, form a complete intelligent heat dissipation system. The temperature sensor 26 embedded in the top side wall inside the main housing 13 can accurately collect the ambient temperature of the internal cavity of the main housing 13 in real time. When the internal temperature reaches the preset working threshold, the temperature sensor 26 outputs an electrical signal to trigger the cooling fan 22 to start working. The cooling fan 22 blows air towards the internal cavity of the main housing 13, driving the high-temperature airflow inside to be discharged outward through the heat dissipation holes 15 on both sides of the cover plates 14, forming a stable convection heat dissipation channel, which quickly reduces the internal cavity temperature of the housing. After the temperature drops back to the safe range, the cooling fan 22 automatically stops working. While ensuring that various components inside the main housing 13 are within the normal working temperature range, it effectively reduces the ineffective power consumption of the equipment and improves the stability of long-term outdoor operation.

[0034] The equipment inspection and monitoring, along with intelligent identification, relies on the high-definition inspection camera 21 installed inside the main housing 13 and the AI ​​intelligent identification and detection integrated component at the top front end to work together. The third clearance slot 20 on the front side of the main housing 13 precisely corresponds to the high-definition inspection camera 21, providing an unobstructed field of view for monitoring. The high-definition inspection camera 21 is equipped with a fixed glass dome, which effectively protects the lens from damage caused by outdoor wind, sand, and dust, while not affecting the internal lens mechanism's 360-degree horizontal cruise rotation relative to the glass dome, achieving full-area image acquisition without blind spots. The AI ​​intelligent identification and detection integrated component integrates a distance detection radar and an AI intelligent processing chip. Its high-positioned installation ensures an unobstructed field of view for detection and identification. The AI ​​intelligent processing chip is electrically connected to both the distance detection radar and the high-definition inspection camera 21, simultaneously receiving image acquisition data and target distance detection data. It can quickly complete the screening, identification, and classification of targets within the monitoring area, accurately distinguishing between bird targets and outdoor debris interference, providing accurate data support for subsequent bird control operations.

[0035] The equipment relies on multiple sets of corresponding functional components and avoidance channels to form a composite intelligent bird deterrence system. The first avoidance channel 17, the second avoidance channel 18, the fourth avoidance channel 25, and the sound outlet 16 on the front side of the main housing 13 correspond to various bird deterrence and sensor components, achieving each component performing its function and working in concert. Among them, the second avoidance channel 18 corresponds to the working condition acquisition sensor 19, so that the sensor detection end is completely exposed on the outside of the main housing 13, which can collect data such as outdoor environmental conditions and bird activity frequency in real time, providing a basis for adjusting the equipment's working mode; the first avoidance channel 17 corresponds to the adjustable power laser bird deterrent 24, ensuring that the laser emitter is unobstructed and emits laser light outward, achieving precise and strong light deterrence; the fourth avoidance channel 25 corresponds to the adjustable frequency strobe light group 23, which can maximize the transmission of strobe warning light, using strong light strobe to create a visual deterrent to birds; the sound outlet 16 corresponds to the internal ultrasonic sound generating device, effectively reducing sound wave attenuation and propagating high-frequency bird deterrence sound waves outward.

[0036] The mode storage chip fixed on the main control circuit board of the equipment can store parameters of various bird-repelling working modes. The equipment can adaptively match the corresponding bird-repelling working mode based on the environmental data collected by the sensor 19 and the target recognition results of the AI ​​intelligent recognition and detection integrated component. It dynamically adjusts the working status of the adjustable frequency flashing light group 23, the adjustable power laser bird repeller 24 and the ultrasonic sound generator. Through a multi-dimensional composite bird-repelling method of sound waves, light and laser, it avoids birds from developing adaptation and effectively improves the bird-repelling effect outdoors. The overall equipment structure has a high degree of integration and compact layout. It integrates mobile inspection, intelligent temperature measurement and heat dissipation, intelligent target recognition and multi-mode adaptive bird-repelling functions. It is suitable for various complex outdoor mobile inspection operation scenarios and has extremely strong working stability and adaptability.

[0037] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. A patrol and monitoring device with bird-repelling effect, characterized in that, The system includes a rectangular mounting plate (10), a conduit (12), a main housing (13), two cover plates (14), a cooling fan (22), a temperature sensor (26), a high-definition inspection camera (21), a frequency-adjustable strobe light assembly (23), an adjustable power laser bird deterrent (24), a working condition acquisition sensor (19), an AI intelligent recognition and detection integrated component, and a pattern storage chip. The AI ​​intelligent recognition and detection integrated component includes a distance detection radar and an AI intelligent processing chip. The conduit (12) is fixed to the rectangular mounting plate. At the upper end of the plate (10), the main housing (13) is fixed to the upper end of the conduit (12). The two cover plates (14) are symmetrically rotated and installed at the left and right ends of the main housing (13). The cooling fan (22) is installed on the top of the main housing (13). The temperature sensor (26), the inspection high-definition camera (21), the frequency adjustable flash light group (23), the adjustable power laser bird deterrent (24), the working condition acquisition sensor (19), the AI ​​intelligent recognition and detection integrated component, and the mode storage chip are all assembled on the main housing (13).

2. The patrol monitoring device with bird-repelling effect according to claim 1, characterized in that: The rectangular mounting plate (10) has several uniformly arranged mounting holes (11) through it. The mounting holes (11) are used to insert fastening bolts. The rectangular mounting plate (10) can be detachably and fixedly installed on the mobile carrier of the unmanned vehicle or drone through the mounting holes (11).

3. The patrol monitoring device with bird-repelling effect according to claim 2, characterized in that: The conduit (12) is vertically fixed at the center of the top of the rectangular mounting plate (10). The side wall of the conduit (12) has a through slot (121) along its own axial length direction. The power supply cable and signal cable of the equipment are stored and passed through the slot (121) inside the conduit (12).

4. The patrol monitoring device with bird-repelling effect according to claim 3, characterized in that: The main housing (13) is fixedly installed at the top of the conduit (12). The internal cavity of the main housing (13) is connected to the inside of the conduit (12). The two cover plates (14) are respectively hinged and rotated at the left and right end ports of the main housing (13). The two cover plates (14) can rotate and open relative to the main housing (13).

5. The patrol monitoring device with bird-repelling effect according to claim 4, characterized in that: Both of the cover plates (14) have several heat dissipation holes (15) on their bodies. The heat dissipation fan (22) is fixedly installed on the top of the main housing (13). The air outlet direction of the heat dissipation fan (22) is towards the internal cavity of the main housing (13). The airflow inside the main housing (13) can form convection with the outside through the heat dissipation holes (15) on the cover plates (14) at both ends.

6. The patrol monitoring device with bird-repelling effect according to claim 5, characterized in that: The temperature sensor (26) is embedded and fixedly installed on the top side wall inside the main housing (13). The detection end of the temperature sensor (26) is set towards the internal cavity of the main housing (13). The temperature sensor (26) is electrically connected to the cooling fan (22).

7. The patrol monitoring device with bird-repelling effect according to claim 6, characterized in that: The front sidewall of the main housing (13) is provided with a first clearance groove (17), a second clearance groove (18), a third clearance groove (20), a fourth clearance groove (25), and a sound outlet (16); the third clearance groove (20) is provided for the inspection high-definition camera (21), the inspection high-definition camera (21) is fixedly installed inside the main housing (13), and the lens end is aligned with the third clearance groove (20); a fixed glass outer dome is fitted on the outside of the inspection high-definition camera (21), the glass outer dome is fixedly connected to the main housing (13), and the lens mechanism inside the inspection high-definition camera (21) can rotate horizontally 360 degrees relative to the glass outer dome.

8. The patrol monitoring device with bird-repelling effect according to claim 7, characterized in that: The first clearance slot (17) is set to the adjustable power laser bird repeller (24), which is fixedly installed inside the main housing (13), with the laser emitting end facing outwards and aligned with the first clearance slot (17); the second clearance slot (18) is set to the working condition acquisition sensor (19), which is embedded inside the main housing (13), with the detection end exposed through the second clearance slot (18).

9. The patrol monitoring device with bird-repelling effect according to claim 8, characterized in that: The fourth clearance slot (25) is provided for the adjustable frequency strobe light group (23), which is fixedly installed inside the main housing (13), with the light emission end facing outwards and aligned with the fourth clearance slot (25); the sound outlet (16) is provided for the ultrasonic sound generating device inside the main housing (13).

10. The patrol monitoring device with bird-repelling effect according to claim 9, characterized in that: The AI ​​intelligent recognition and detection integrated component is fixedly installed at the top front end of the main housing (13) by bracket bolts. The distance detection radar and the AI ​​intelligent processing chip are integrated and assembled inside the AI ​​intelligent recognition and detection integrated component. The detection end of the distance detection radar is arranged outward. The AI ​​intelligent processing chip is electrically connected to the distance detection radar and the inspection high-definition camera (21) respectively. The mode storage chip is fixed on the main control circuit board of the device.

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