Precise camera module with support adjustment function

Abstract

The invention provides a precision camera module with support adjustment, and relates to the technical field of cameras, the precision camera module comprises a camera body, the camera body is provided with a support mechanism convenient for supporting the camera body, and the support mechanism is provided with a windproof mechanism convenient for wind prevention. The support mechanism comprises a hinged base, a supporting frame and a mounting plate, the windproof mechanism comprises a supporting frame, a servo motor, a pulling plate, a solar panel and a C-shaped frame, the hinged base is located at the lower end of the camera body, and a top plate is fixedly mounted at the upper end of the supporting frame. Through cooperation of the wind power sensor, the servo motor, the pull plate, the powerful pull rope and the solar panel, in strong wind weather, the wind power sensor can automatically detect wind power and trigger the servo motor to work, the solar panel is driven to be stored in the embedded protection groove through the transmission structure, the windward side of the solar panel is effectively reduced, and the solar panel is prevented from being damaged. And the impact force of strong wind on equipment is reduced.

Description

Technical Field

[0001] This invention belongs to the field of camera technology, and more specifically, relates to a precision camera module with adjustable bracket. Background Technology

[0002] Solar-powered precision camera modules are integrated imaging devices that combine a precision camera body, a solar energy storage system, and a support structure. The core technology combines high-precision imaging technology with solar-powered self-powered technology. It has the high resolution, precise adjustment, and detail capture capabilities of a precision camera, and can also achieve self-powered energy storage through solar panels. It does not need to rely on the mains power and can work stably for a long time in outdoor and remote areas without grid coverage. With the increasing demand for outdoor precision monitoring, solar-powered precision camera modules are widely used in scenarios without grid coverage, such as border control and forest fire prevention. They need to capture subtle hidden dangers through precision imaging and rely on solar energy for self-powered operation to ensure long-term operation.

[0003] The Chinese patent publication number is CN118149251A. This invention discloses a camera bracket. The invention has a simple structure and is easy to use. The camera bracket has good stability and shock absorption, and the bracket is easy and comprehensive to adjust, which facilitates stable monitoring of the camera.

[0004] Existing brackets for precision camera modules have the following disadvantages when used:

[0005] 1. In existing technologies, solar panels are mostly fixed installations, and their large overall area results in a large windward surface. In extreme wind conditions, solar panels are easily impacted by strong winds, and this impact force is directly transmitted to the support structure, which may cause deformation or damage to the support. This, in turn, affects the stability of the support for the camera, causing the camera's monitoring angle to shift and making it impossible to guarantee precise monitoring results.

[0006] 2. The existing energy storage support structure that works with the camera has a single function. In extreme windy weather, it can only rely on its own structural strength to withstand strong winds and does not have adaptive protection capabilities, making it difficult to cope with the risk of structural damage caused by strong winds. At the same time, it cannot effectively utilize wind energy for energy storage in strong winds, resulting in low energy utilization efficiency and possible insufficient power supply to the equipment, which will affect the normal operation of the camera. Summary of the Invention

[0007] To address the aforementioned technical problems, this invention provides a precision camera module with adjustable bracket to solve these issues.

[0008] A precision camera module with adjustable support includes a camera body. The camera body has a support mechanism for easy support, and the support mechanism includes a windproof mechanism. The support mechanism includes a hinged base, a support frame, and a mounting plate. The windproof mechanism includes the support frame, a servo motor, a pull plate, solar panels, and a C-shaped frame. The hinged base is located at the lower end of the camera body. A top plate is fixedly mounted on the upper end of the support frame, and the top plate is fixedly mounted on the lower end of the hinged base. The servo motor is fixedly mounted on the inner wall of the support frame, and the pull plate is located at the lower end of the servo motor. Each solar panel is located at one of the four sides of the support frame. A fixing rod is fixedly mounted on the side end of the mounting plate, and the support frame is fixedly mounted on the side end of the fixing rod. The upper end of the hinged base has a universal ball joint, and the camera body is fixedly mounted on the upper end of the universal ball joint. Two cylindrical slots are formed through the upper end of the hinged base. Vertical shaft turbine generators are slidably mounted on the inner walls of both cylindrical slots. Embedded protective slots are provided at all four ends of the support frame. An installation slot is provided at the lower end of the support frame. A clearance slot is also provided through the side end of each embedded protective slot. Two rectangular slots are provided at the upper end of the support frame. A movable slot is provided through the upper end of the top plate. A wind sensor is fixedly mounted on the side end of the top plate. A threaded rod is fixedly mounted at the output end of the servo motor. A threaded slot is provided on the pull plate. The threaded rod is rotatably mounted in the threaded slot on the pull plate. Two telescopic rods are fixedly mounted between the pull plate and the servo motor. Four first hanging rods are fixedly mounted at the lower end of the pull plate. Two L-shaped top rods are fixedly mounted at the upper end of the pull plate. The two L-shaped top rods are slidably mounted on the inner walls of the two rectangular slots, with the ends of the L-shaped top rods located on the inner wall of the movable slot. The two vertical shaft turbine generators are fixedly mounted on the upper ends of the L-shaped top rods.

[0009] Preferably, a rotating shaft is fixedly installed on the inner sidewall of each of the embedded protective grooves, each of the solar panels is rotatably mounted on the rotating shaft, and a torsion spring is provided between each solar panel and each rotating shaft.

[0010] Preferably, a second hanging rod is fixedly installed on the side end of each solar panel, a strong pull rope is fixedly installed on the side end of each second hanging rod, the end of each strong pull rope is fixedly installed on the first hanging rod, each C-shaped frame is fixedly installed on the four sides of the inner side wall of the mounting groove, a movable roller is rotatably installed on the lower end of each C-shaped frame, and each strong pull rope is wound around the circumferential end of the movable roller.

[0011] Compared with the prior art, the present invention has the following beneficial effects:

[0012] In this invention, a wind sensor, servo motor, pull plate, strong pull rope, and solar panel are combined. In strong winds, the wind sensor can automatically detect the wind force and trigger the servo motor to work. Through the transmission structure, the solar panel is driven to be stored in the embedded protective groove, which effectively reduces the windward surface of the solar panel, reduces the impact of strong winds on the equipment, ensures the stability of the support frame for the camera body, and prevents the camera body from shifting due to the swaying of the support frame, thus ensuring its precise monitoring effect.

[0013] In this invention, a torsion spring with a rotating shaft, a powerful pull rope, a pull plate, and a servo motor work together. Under normal weather conditions, the torsion spring can drive the solar panel to automatically unfold and store energy. Under strong wind conditions, the servo motor drives the solar panel to retract via the pull rope. Under extreme strong wind conditions, the unfolding and retraction of the solar panel can be completed without human intervention, improving the automation level of the equipment, reducing manual maintenance costs, and ensuring the continuous and stable operation of the camera body under extreme weather conditions.

[0014] In this invention, by providing a mounting groove and cooperating with a servo motor, a pull plate, and a powerful pull rope, important transmission components such as the servo motor, pull plate, and powerful pull rope are all set on the inner side wall of the mounting groove at the lower end of the support frame. The mounting groove can protect these components from the direct impact of strong winds, ensuring the normal operation of the transmission components in strong winds, ensuring the stable realization of the equipment's self-protection function, and providing structural protection for the precision monitoring of the camera body.

[0015] In this invention, a pull plate, an L-shaped top rod, a vertical shaft turbine generator, and a cylindrical slot are provided. When the pull plate moves upward, it drives the solar panel to retract. At the same time, the L-shaped top rod drives the vertical shaft turbine generator to leave the cylindrical slot, realizing the automatic switching between solar power generation and energy storage and wind power generation and energy storage. In strong wind weather, wind energy can be effectively used for energy storage, ensuring stable power supply to the equipment and avoiding the camera body from stopping working or the monitoring accuracy from decreasing due to insufficient energy.

[0016] In this invention, a cylindrical slot and a vertical axis turbine generator are combined with an embedded protective slot and a solar panel. In daily use, the vertical axis turbine generator is protected in the cylindrical slot to avoid collisions or interference from external objects. In windy weather, the solar panel is protected in the embedded protective slot to reduce damage from strong winds. The device can adaptively switch between protection status and energy storage mode according to different environments, making it flexible to use and further ensuring that the camera can achieve precise monitoring in different environments. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the structure of the camera body of the present invention;

[0018] Figure 2 This is a schematic diagram of the universal ball joint of the present invention;

[0019] Figure 3 This is a schematic diagram of the vertical axis turbine generator of the present invention;

[0020] Figure 4 This is a schematic diagram of the support frame of the present invention;

[0021] Figure 5 This is a schematic diagram of the structure of the solar panel of the present invention;

[0022] Figure 6 This is a schematic diagram of the structure of the high-strength pull rope of the present invention;

[0023] Figure 7 This is a schematic diagram of the structure of the pull plate of the present invention;

[0024] Figure 8 This is a cross-sectional structural diagram of the support frame of the present invention.

[0025] In the diagram, the correspondence between component names and attached drawing numbers is as follows: 1. Camera body; 2. Hinge base; 21. Universal ball joint; 22. Cylindrical slot; 23. Vertical axis turbine generator; 3. Support frame; 31. Embedded protective slot; 32. Clearance slot; 33. Mounting slot; 34. Rectangular slot; 35. Top plate; 36. Movable slot; 37. Wind sensor; 4. Servo motor; 41. Threaded rod; 5. Pull plate; 51. First hanging rod; 52. Telescopic rod; 53. L-shaped top rod; 6. Solar panel; 61. Rotating shaft; 63. Second hanging rod; 64. High-strength pull rope; 7. C-shaped frame; 71. Movable roller; 8. Mounting plate; 81. Fixed connecting rod. Detailed Implementation

[0026] The embodiments of the present invention will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and should not be construed as limiting the scope of the invention.

[0027] Please see Figure 1 - Figure 8This invention provides a precision camera module with adjustable support bracket, comprising a camera body 1, a support mechanism for supporting the camera body 1, and a windproof mechanism for wind protection. The support mechanism includes a hinged base 2, a support frame 3, and a mounting plate 8. The windproof mechanism includes the support frame 3, a servo motor 4, a pull plate 5, a solar panel 6, and a C-shaped frame 7. In normal windless or lightly windy weather, the solar panel 6 is tilted open under the elastic force of the torsion spring at the pivot 61. The four solar panels 6 are located at the four ends of the support frame 3, allowing them to fully receive solar radiation and store energy. The stored energy provides power to the camera body 1 and other electrical components. The camera body 1 is fixedly mounted on a universal ball joint 21 at the upper end of the hinged base 2. Through the multi-directional rotation characteristics of the universal ball joint 21, combined with the bearing and positioning of the hinged base 2, multi-dimensional precision adjustment of the monitoring angle of the camera body 1 can be achieved, meeting the monitoring angle requirements in different scenarios and ensuring the precision monitoring effect of the camera body 1.

[0028] The hinged base 2 is located at the lower end of the camera body 1. A top plate 35 is fixedly installed on the upper end of the support frame 3. The top plate 35 is fixedly installed on the lower end of the hinged base 2. The servo motor 4 is fixedly installed on the inner wall of the support frame 3. The pull plate 5 is located at the lower end of the servo motor 4. Each solar panel 6 is located at one of the four sides of the support frame 3. A fixing rod 81 is fixedly installed on the side end of the mounting plate 8. The support frame 3 is fixedly installed on the side end of the fixing rod 81. A universal ball joint 21 is provided on the upper end of the hinged base 2. The camera body 1 is fixedly installed on the upper end of the universal ball joint 21. Two cylindrical slots 22 are opened through the upper end of the hinged base 2. Vertical shaft turbine generators 23 are slidably installed on the inner walls of the two cylindrical slots 22. As the pull plate 5 moves upward, the two L-shaped top rods 53 fixedly installed at its upper end slide upward along the rectangular groove 34 at the upper end of the support frame 3. The ends of the L-shaped top rods 53 are located on the inner side wall of the movable groove 36 of the top plate 35. The movable groove 36 provides clearance space for the movement of the L-shaped top rods 53. As the L-shaped top rods 53 move upward, the vertical shaft turbine generator 23 fixedly installed at its upper end is driven upward synchronously and eventually leaves the cylindrical groove 22 opened at the upper end of the hinge base 2. At this time, the solar panel 6 has been retracted to reduce the windward surface, and the exposed vertical shaft turbine generator 23 can start generating electricity under strong winds, realizing the switch from solar power generation and storage to wind power generation and storage under strong winds, and continuously supplying power to the equipment.

[0029] The support frame 3 has embedded protective grooves 31 on all four sides, and an installation groove 33 on the lower end of the support frame 3. Each embedded protective groove 31 also has a clearance groove 32 through the side end. The support frame 3 has two rectangular grooves 34 on the upper end. The top plate 35 has a movable groove 36 through the upper end. A wind sensor 37 is fixedly installed on the side end of the top plate 35. A threaded rod 41 is fixedly installed on the output end of the servo motor 4. In extreme windy weather, the wind sensor 37 installed on the side end of the top plate 35 detects the ambient wind force in real time. When the wind force exceeds the preset threshold, the wind sensor 37 sends a signal to drive the servo motor 4 to start. The threaded rod 41 fixedly installed on the output end of the servo motor 4 rotates accordingly. Since the threaded rod 41 is installed in the threaded groove on the pull plate 5, and two telescopic rods 52 are fixedly installed between the pull plate 5 and the servo motor 4 to guide and limit the movement.

[0030] The pull plate 5 has a threaded groove, and the threaded rod 41 is rotatably installed in the threaded groove on the pull plate 5. Two telescopic rods 52 are also fixedly installed between the pull plate 5 and the servo motor 4. Four first hanging rods 51 are fixedly installed at the lower end of the pull plate 5. Two L-shaped top rods 53 are fixedly installed at the upper end of the pull plate 5. The two L-shaped top rods 53 are slidably installed on the inner sidewalls of the two rectangular slots 34. The ends of the L-shaped top rods 53 are located on the inner sidewalls of the movable slots 36. Two vertical shaft turbine generators 23 are fixedly installed at the upper ends of the L-shaped top rods 53. A rotating shaft 61 is fixedly installed on the inner sidewall of each embedded protective slot 31. Each solar panel 6 is rotatably installed on the rotating shaft 61. A torsion spring is provided between each solar panel 6 and each rotating shaft 61. A second hanging rod 63 is fixedly installed on the side end of each solar panel 6. A strong pull rope 64 is fixedly installed on the side end of each second hanging rod 63. The ends of each strong pull rope 64 are fixedly installed on the first hanging rod 51. Each C-shaped frame 7 is fixedly installed on the four sides of the inner wall of the mounting groove 33. Each C-shaped frame 7 has a movable roller 71 rotatably mounted on its lower end. Each strong pull rope 64 is wrapped around the circumferential end of the movable roller 71. The rotation of the threaded rod 41 drives the pull plate 5 to move upward along the direction of the telescopic rod 52. The four first hanging rods 51 at the lower end of the pull plate 5 move upward synchronously. The strong pull rope 64 pulls the second hanging rod 63 on the side of the solar panel 6, causing the solar panel 6 to rotate and converge around the pivot 61. During the process, the strong pull rope 64 is wrapped around the circumferential end of the movable roller 71 at the lower end of the C-shaped frame 7. The rotation of the movable roller 71 converts the sliding friction between the strong pull rope 64 and the C-shaped frame 7 into rolling friction. This setting can reduce the wear of the strong pull rope 64, reduce the resistance in the transmission process, avoid the phenomenon of pull rope jamming, and ensure that the solar panel 6 rotates smoothly and gradually enters the embedded protective groove 31 that fits into the four sides of the support frame 3, thus completing the storage and protection of the solar panel 6.

[0031] Working principle:

[0032] In the first step, during use, under normal windless or light wind conditions, the solar panels 6 are tilted open under the elastic force of the torsion spring at the pivot 61. The four solar panels 6 are located at the four ends of the support frame 3, which can fully receive solar radiation and store energy. The stored energy provides power to the camera body 1 and other electrical components of the device. The camera body 1 is fixedly mounted on the universal ball joint 21 at the upper end of the hinge base 2. Through the multi-directional rotation characteristics of the universal ball joint 21, combined with the bearing and positioning of the hinge base 2, the monitoring angle of the camera body 1 can be precisely adjusted in multiple dimensions to meet the monitoring angle requirements in different scenarios and ensure the precise monitoring effect of the camera body 1.

[0033] The second step involves wind sensors 37 installed on the side of the top plate 35 during extreme wind conditions. When the detected wind force exceeds a preset threshold, the wind sensor 37 sends a signal to start the servo motor 4. The threaded rod 41, fixedly mounted at the output of the servo motor 4, rotates accordingly. Since the threaded rod 41 is threaded and mounted in the threaded groove on the pull plate 5, and two telescopic rods 52 are fixedly installed between the pull plate 5 and the servo motor 4 to guide and limit movement, the rotation of the threaded rod 41 causes the pull plate 5 to move upwards along the telescopic rods 52. Simultaneously, the four first hanging rods 51 at the lower end of the pull plate 5 move upwards. By pulling the second hanging rod 63 on the side of the solar panel 6 with the strong pull rope 64, the solar panel 6 is caused to rotate and converge around the pivot 61. During the process, the strong pull rope 64 is wrapped around the circumferential end of the movable roller 71 at the lower end of the C-shaped frame 7. The rotation of the movable roller 71 converts the sliding friction between the strong pull rope 64 and the C-shaped frame 7 into rolling friction. This setting can reduce the wear of the strong pull rope 64, reduce the resistance in the transmission process, avoid the phenomenon of pull rope jamming, and ensure that the solar panel 6 rotates smoothly and gradually enters the embedded protective groove 31 attached to the four sides of the support frame 3, thus completing the storage and protection of the solar panel 6.

[0034] This application utilizes a combination of a wind sensor 37, a servo motor 4, a pull plate 5, a strong pull rope 64, and a solar panel 6. In strong winds, the wind sensor 37 automatically detects the wind force and triggers the servo motor 4 to operate. Through a transmission structure, the solar panel 6 is retracted into the embedded protective groove 31, effectively reducing the windward surface of the solar panel 6, reducing the impact of strong winds on the equipment, ensuring the stability of the support frame 3 in supporting the camera body 1, preventing the camera body 1 from shifting due to the swaying of the support, and ensuring its precise monitoring effect.

[0035] This application sets up a torsion spring at the pivot 61 and a strong pull rope 64, a pull plate 5, and a servo motor 4. Under normal weather conditions, the torsion spring can drive the solar panel 6 to automatically unfold and store energy. Under strong wind conditions, the servo motor 4 drives the solar panel 6 to retract via the pull rope. Under extreme strong wind conditions, the unfolding and retraction of the solar panel 6 can be completed without human intervention, which improves the automation level of the equipment, reduces manual maintenance costs, and ensures the continuous and stable operation of the camera body 1 under extreme weather conditions.

[0036] This application sets up a mounting groove 33 in conjunction with a servo motor 4, a pull plate 5, and a strong pull rope 64. This allows important transmission components such as the servo motor 4, the pull plate 5, and the strong pull rope 64 to be installed on the inner side wall of the mounting groove 33 at the lower end of the support frame 3. The mounting groove 33 can protect these components from the direct impact of strong winds, ensuring the normal operation of the transmission components under strong winds, ensuring the stable realization of the equipment's self-protection function, and providing structural protection for the precision monitoring of the camera body 1.

[0037] Third, as the pull plate 5 moves upward, the two L-shaped top rods 53 fixedly installed at its upper end slide upward along the rectangular groove 34 at the upper end of the support frame 3. The ends of the L-shaped top rods 53 are located on the inner side wall of the movable groove 36 of the top plate 35. The movable groove 36 provides clearance for the movement of the L-shaped top rods 53. As the L-shaped top rods 53 move upward, the vertical shaft turbine generator 23 fixedly installed at its upper end is driven upward synchronously and eventually leaves the cylindrical groove 22 opened at the upper end of the hinge base 2. At this time, the solar panel 6 has been retracted to reduce the windward surface, and the exposed vertical shaft turbine generator 23 can start generating electricity under strong winds, realizing the switch from solar power generation and storage to wind power generation and storage under strong winds, and continuously supplying power to the equipment.

[0038] This application sets up a pull plate 5, an L-shaped top rod 53, a vertical shaft turbine generator 23, and a cylindrical slot 22 in cooperation. When the pull plate 5 moves upward, it drives the solar panel 6 to retract. At the same time, the L-shaped top rod 53 drives the vertical shaft turbine generator 23 to leave the cylindrical slot 22, realizing the automatic switching between solar power generation and energy storage and wind power generation and energy storage. In strong wind weather, wind energy can be effectively used for energy storage, ensuring stable power supply to the equipment and avoiding the camera body 1 from stopping work or the monitoring accuracy from decreasing due to insufficient energy.

[0039] This application incorporates a cylindrical slot 22, a vertical axis turbine generator 23, an embedded protective slot 31, and a solar panel 6. In daily use, the vertical axis turbine generator 23 is protected within the cylindrical slot 22, preventing it from being impacted by external environmental collisions or debris. During strong winds, the solar panel 6 is protected within the embedded protective slot 31, reducing damage from strong winds. The device can adaptively switch between protection and energy storage modes according to different environments, making it flexible in use and further ensuring that the camera body 1 can achieve precise monitoring in different environments.

[0040] The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and design various embodiments with various modifications suitable for a particular purpose.

Claims

1. A precision camera module with adjustable bracket, comprising a camera body (1), characterized in that: The camera body (1) is provided with a support mechanism to facilitate support of the camera body (1), and the support mechanism is provided with a windproof mechanism to facilitate wind protection. The bracket mechanism includes a hinged base (2), a support frame (3) and a mounting plate (8). The windproof mechanism includes a support frame (3), a servo motor (4), a pull plate (5), a solar panel (6) and a C-shaped frame (7). The hinged base (2) is located at the lower end of the camera body (1). A top plate (35) is fixedly installed at the upper end of the support frame (3). The top plate (35) is fixedly installed at the lower end of the hinged base (2). The servo motor (4) is fixedly installed on the inner side wall of the support frame (3). The pull plate (5) is located at the lower end of the servo motor (4). Each solar panel (6) is located at the four sides of the support frame (3). A fixing rod (81) is fixedly installed at the side end of the mounting plate (8). The support frame (3) is fixedly installed at the side end of the fixing rod (81).

2. The precision camera module with bracket adjustment as described in claim 1, characterized in that, The upper end of the hinge base (2) is provided with a universal ball joint (21), and the camera body (1) is fixedly installed on the upper end of the universal ball joint (21).

3. The precision camera module with bracket adjustment as described in claim 2, characterized in that, The upper end of the hinged base (2) has two cylindrical slots (22) through which a vertical shaft turbine generator (23) is slidably installed.

4. A precision camera module with adjustable bracket as described in claim 3, characterized in that, The support frame (3) has an embedded protective groove (31) on each of its four sides, and an installation groove (33) on the lower end of the support frame (3). Each embedded protective groove (31) also has a clearance groove (32) through its side end.

5. A precision camera module with adjustable bracket as described in claim 4, characterized in that, The upper end of the support frame (3) has two rectangular slots (34), the upper end of the top plate (35) has a through slot (36), and the side end of the top plate (35) is fixedly installed with a wind sensor (37).

6. A precision camera module with adjustable bracket as described in claim 5, characterized in that, The output end of the servo motor (4) is fixedly installed with a threaded rod (41), and the pull plate (5) is provided with a threaded groove. The threaded rod (41) is rotatably installed in the threaded groove on the pull plate (5). Two telescopic rods (52) are also fixedly installed between the pull plate (5) and the servo motor (4).

7. A precision camera module with adjustable bracket as described in claim 6, characterized in that, Four first hanging rods (51) are fixedly installed at the lower end of the pull plate (5), and two L-shaped top rods (53) are fixedly installed at the upper end of the pull plate (5). The two L-shaped top rods (53) are slidably installed on the inner sidewalls of the two rectangular slots (34), and the ends of the L-shaped top rods (53) are located on the inner sidewalls of the movable slot (36). The two vertical shaft turbine generators (23) are fixedly installed on the upper ends of the L-shaped top rods (53).

8. A precision camera module with adjustable bracket as described in claim 7, characterized in that, Each of the embedded protective grooves (31) has a rotating shaft (61) fixedly installed on its inner sidewall. Each of the solar panels (6) is rotatably mounted on the rotating shaft (61). A torsion spring is provided between each of the solar panels (6) and each rotating shaft (61).

9. A precision camera module with adjustable bracket as described in claim 8, characterized in that, Each of the solar panels (6) is fixedly mounted with a second hanging rod (63) on its side end, and each of the second hanging rods (63) is fixedly mounted with a strong pull rope (64) on its side end. The end of each of the strong pull ropes (64) is fixedly mounted on the first hanging rod (51).

10. A precision camera module with adjustable bracket as described in claim 9, characterized in that, Each of the C-shaped frames (7) is fixedly installed on the four sides of the inner wall of the mounting groove (33). Each of the C-shaped frames (7) has a movable roller (71) rotatably installed at the lower end. Each of the powerful pull ropes (64) is wrapped around the circumferential end of the movable roller (71).

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