Dual drive optoelectronic device protection mechanism

By installing dual-drive pitch and azimuth protective covers on optoelectronic equipment, the problems of bulky structure, complex installation, and inconvenient maintenance of existing optoelectronic equipment protection mechanisms in harsh environments are solved, achieving a compact and economical protection effect.

CN117641795BActive Publication Date: 2026-07-21LUOYANG INST OF ELECTRO OPTICAL EQUIP OF AVIC
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
LUOYANG INST OF ELECTRO OPTICAL EQUIP OF AVIC
Filing Date
2023-11-03
Publication Date
2026-07-21

AI Technical Summary

Technical Problem

Existing photoelectric equipment protection mechanisms suffer from problems such as bulky structure, high installation space requirements, high cost, and inconvenient maintenance when used in harsh environments, and cannot effectively protect the pitch and rotation platform.

Method used

A dual-drive photoelectric device protection mechanism is designed. A pitch protection cover and an azimuth protection cover are respectively set in the pitch and azimuth rotation directions of the photoelectric device. A dual-drive structure is adopted, and the rotation axis systems of the pitch protection cover and the azimuth protection cover are coupled to the pitch and azimuth rotation axis systems of the photoelectric device, respectively. The position adjustment of the protection cover is realized through synchronous control, so as to follow the rotation of the photoelectric device.

Benefits of technology

It achieves effective protection of optoelectronic equipment in harsh environments, has a compact structure, saves costs, is easy to transport and install, and is easy to maintain.

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Patent Text Reader

Abstract

The application relates to a double-drive photoelectric equipment protection mechanism, belonging to the field of mechanical design, which comprises an elevation protection cover arranged on the elevation shaft of photoelectric equipment and an azimuth protection cover arranged on the azimuth shaft of the photoelectric equipment; the rotating shaft system of the azimuth protection cover is coupled to the azimuth rotating shaft system of the photoelectric equipment, the position adjustment of the azimuth protection cover in the azimuth circumferential direction is completed by controlling the rotation of the rotating shaft system of the azimuth protection cover; the rotating shaft system of the elevation protection cover is coupled to the elevation rotating shaft system of the photoelectric equipment, the position adjustment of the elevation protection cover in the elevation circumferential direction is completed by controlling the rotation of the rotating shaft system of the elevation protection cover; and the elevation protection cover follows the photoelectric equipment to rotate the same elevation angle by synchronous control when the photoelectric equipment is used. The application is suitable for the protection of the photoelectric equipment used in a severe environment, and has the advantages of compact structure, cost saving, easy transportation and installation.
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Description

Technical Field

[0001] This invention belongs to the field of mechanical design, specifically relating to a dual-drive photoelectric device protection mechanism. Background Technology

[0002] High-precision optoelectronic equipment is often used in harsh operating conditions, so the design of protective mechanisms for optoelectronic equipment is essential.

[0003] There are three main solutions in existing technologies. First, a fixed protective cover is directly installed on the outside of the optoelectronic equipment, which is cumbersome to remove during use and requires manual intervention. Second, an independent, liftable protective cover is installed on the outside of the optoelectronic product, which is lowered during use. While this allows for automatic control, it is a separate mechanism requiring ample installation space and is costly. Third, the protective cover is directly fixed to the product's azimuth rotation axis, with the cover and the azimuth rotation mechanism sharing a single motor. This directly increases the rotational inertia of the azimuth motor, hindering steady-state azimuth control. Furthermore, the bulky casing makes maintenance difficult, disassembly is inconvenient, and this protection method cannot protect the pitch rotation platform. Summary of the Invention

[0004] The technical problem to be solved:

[0005] To overcome the shortcomings of existing technologies, this invention provides a dual-drive photoelectric device protection mechanism. By setting a pitch protection cover in the circumferential direction of the photoelectric device's pitch rotation and an azimuth protection cover in the circumferential direction of its azimuth rotation, the mechanism protects the photoelectric device when it is not in operation. Simultaneously, rotating the azimuth protection cover facilitates maintenance of the pitch axis system. This invention is suitable for protecting photoelectric devices used in harsh environments and has the advantages of compact structure, cost-effectiveness, and ease of transportation and installation.

[0006] The technical solution of the present invention is: a dual-drive photoelectric device protection mechanism, including a pitch protection cover 1 disposed on the pitch axis of the photoelectric device and an azimuth protection cover 2 disposed on the azimuth axis;

[0007] The rotation axis of the azimuth protection cover 2 is coupled to the azimuth rotation axis of the photoelectric device. By controlling the rotation of the rotation axis of the azimuth protection cover 2, the position of the azimuth protection cover 2 in the azimuth circumferential direction can be adjusted. Through synchronous control, the azimuth protection cover 2 rotates with the photoelectric device at the same azimuth angle when the photoelectric device is in use.

[0008] The rotation axis of the pitch protection cover 1 is coupled to the pitch rotation axis of the optoelectronic device. By controlling the rotation of the rotation axis of the pitch protection cover 1, the position of the pitch protection cover 1 in the pitch circumferential direction can be adjusted. Through synchronous control, the pitch protection cover 1 rotates with the optoelectronic device at the same pitch angle when the optoelectronic device is in use.

[0009] A further technical solution of the present invention is: the photoelectric device is rotatably connected to the main frame 14 of the photoelectric device via a pitch rotation axis system, and the bottom of the main frame 14 of the photoelectric device is fixed with an azimuth rotation axis system of the photoelectric device; the azimuth rotation axis system of the photoelectric device is rotatably connected to the azimuth stator axis system, and is driven to rotate around the azimuth stator axis system by an azimuth drive component.

[0010] A further technical solution of the present invention is: the orientation rotation axis system of the optoelectronic device includes a first orientation bearing inner seat 13 and a second orientation bearing inner seat 12 coaxially fixed below the main frame 14 of the optoelectronic device; the first orientation bearing inner seat 13 and the second orientation bearing inner seat 12 are rotating structures coaxially arranged.

[0011] A further technical solution of the present invention is: the azimuth stator shaft system includes a photoelectric device base plate 28 located at the bottom, an azimuth protection motor fixing component 8 mounted on the base plate, and a second azimuth bearing outer seat 11; the azimuth protection motor fixing component 8 is an annular frame structure, which is fitted around the azimuth rotation shaft system, and the second azimuth bearing outer seat 11 is coaxially fitted onto the bottom inner ring surface of the azimuth protection motor fixing component 8.

[0012] The inner ring surface of the azimuth protection motor fixing component 8 is rotatably connected to the inner seat 13 of the first azimuth bearing of the azimuth rotation shaft system via the first azimuth bearing 9, and the inner ring surface of the outer seat 11 of the second azimuth bearing is rotatably connected to the inner seat 12 of the second azimuth bearing of the azimuth rotation shaft system via the second azimuth bearing 10.

[0013] A further technical solution of the present invention is: the azimuth stator shaft system is externally rotatably connected to the azimuth protection cover 2, and the azimuth protection cover 2 is driven to rotate around the azimuth stator shaft system by the azimuth protection motor 4.

[0014] A further technical solution of the present invention is: the azimuth protection cover 2 is rotatably connected to the protection motor fixing part 8 through its rotation axis system, and the azimuth protection cover base plate 5, the azimuth protection cover meshing large gear 6, and the azimuth protection cover bearing 7 are arranged sequentially along the axial direction of the rotation axis system of the azimuth protection cover 2.

[0015] The azimuth protection cover 2 is an annular surface with an opening, and its bottom is coaxially mounted on the azimuth protection cover base plate 5; the azimuth protection cover base plate 5 is a circular plate with a central through hole, wherein the bottom of the through hole is coaxially fixed with the azimuth protection cover meshing gear 6, and the azimuth protection cover meshing gear 6 is rotatably connected to the protection motor fixing part 8 through the azimuth protection cover bearing 7.

[0016] The azimuth protection cover meshing large gear 6 meshes with the azimuth protection cover meshing small gear 15 installed on the rotor of the azimuth protection motor 4. The stator of the azimuth protection motor 4 is installed in the protection motor fixing part 8. The azimuth protection motor 4 drives the azimuth protection cover meshing small gear 15, which in turn drives the azimuth protection cover meshing large gear 6, the azimuth protection cover base plate 5, and the azimuth protection cover 2 to rotate in sequence.

[0017] A further technical solution of the present invention is: the pitch rotation axis system of the optoelectronic device is symmetrically arranged on both sides of the axial direction of the optoelectronic device, and the rotation axis system of the pitch protection cover 1 is rotatably connected to its outer periphery, and the rotation axis system of the pitch protection cover 1 is rotatably connected to the support plates on both sides of the main frame 14 of the optoelectronic device.

[0018] The rotation axis of the pitch protection cover 1 is driven by the pitch protection motor 3 to rotate around the pitch rotation axis of the optoelectronic device. That is, it serves as the rotation axis relative to the main frame 14 of the optoelectronic device, and also as the stator axis of the pitch rotation axis of the optoelectronic device.

[0019] A further technical solution of the present invention is: the pitch rotation axis system of the optoelectronic device includes a first pitch bearing inner seat 18 and a second pitch bearing inner seat 23 coaxially arranged on both sides of the pitch platform 24 on which the optoelectronic device is installed, and both the first pitch bearing inner seat 18 and the second pitch bearing inner seat 23 are rotating body structures.

[0020] A further technical solution of the present invention is as follows: one side of the rotation axis system of the pitch protection cover 1 is a driving end, and the other side is a follower end. The driving end includes a second pitch bearing outer seat 20 rotatably connected to the second pitch bearing inner seat 23 via a second pitch bearing 19, and a pitch protection cover meshing gear 17 coaxially fixed to the inner end of the second pitch bearing outer seat 20. The follower end includes a first pitch bearing outer seat 26 rotatably connected to the first pitch bearing inner seat 18 via a first pitch bearing 29, and a first pitch protection cover bearing inner pressure cover 25 coaxially fixed to the inner end of the first pitch bearing outer seat 26. The pitch protection cover meshing gear 17 and the first pitch protection cover bearing inner pressure cover 25 are respectively fixed to both ends of the pitch protection cover 1.

[0021] The pitch protection cover 1 is an arc-shaped plate;

[0022] The pitch protection cover meshing large gear 17 meshes with the pitch protection cover meshing small gear 16 mounted on the rotor of the pitch protection motor 3. The stator of the pitch protection motor 3 is mounted on the pitch platform 24. The pitch protection motor 3 drives the pitch protection cover meshing small gear 16, which in turn drives the pitch protection cover meshing large gear 17, the second pitch bearing outer seat 20, the pitch protection cover 1, the first pitch protection cover bearing inner pressure cover 25, and the first pitch bearing outer seat 26 to rotate.

[0023] A further technical solution of the present invention is: the main frame 14 of the optoelectronic device is a U-shaped structure, its bottom plate is connected to the orientation rotation axis of the optoelectronic device, and coaxial through holes are opened on the vertically arranged support plates on both sides. The first pitch protection cover bearing outer seat 30 and the second pitch protection cover bearing outer seat 22 are coaxially installed in the two through holes, respectively, as the stator shaft system of the pitch protection cover rotation axis system. They are rotatably connected to the first pitch protection cover bearing outer seat 26 and the second pitch protection cover bearing outer seat 20 through the first pitch protection cover bearing 27 and the second pitch protection cover bearing 21, respectively.

[0024] Beneficial effects

[0025] The beneficial effects of this invention are as follows: the pitch rotation axis system and the pitch protective cover rotation axis system of the optoelectronic equipment, as well as the azimuth rotation axis system and the azimuth protective cover rotation axis system of the optoelectronic equipment, all adopt a dual-drive structure design and share a common axis system, saving cost and space, and facilitating transportation and installation. The pitch protective cover and the azimuth protective cover achieve free and flexible rotation through their respective drive motors, protecting the optoelectronic equipment under harsh working conditions. Furthermore, they are compact in structure, flexible in rotation, and easy to maintain.

[0026] The mechanism of this invention uses a pitch protection motor to drive a pitch transmission gear shaft system, which in turn drives a pitch protection cover; and an azimuth protection motor to drive an azimuth transmission gear shaft system, which in turn drives an azimuth protection cover. This mechanism can protect photoelectric equipment. Furthermore, since both the azimuth and pitch protection mechanisms are installed on the product, and the pitch protection mechanism and the product's pitch component share a stator shaft system, as do the azimuth protection mechanism and the azimuth component, the shaft system structure is compact, the number of parts is small, the cost is low, and it is easy to achieve the purpose of easy transportation and installation. Attached Figure Description

[0027] Figure 1 This is a cross-sectional view of a dual-drive photoelectric device protection mechanism according to the present invention;

[0028] Figure 2 Detailed diagram of the orientation protection mechanism;

[0029] Figure 3 Detailed diagram of the pitch protection mechanism;

[0030] Figure 4 This is a diagram of the overall appearance of the equipment.

[0031] Explanation of reference numerals in the attached drawings: 1-Pitch protection cover, 2-Azimuth protection cover, 3-Pitch protection motor, 4-Azimuth protection motor, 5-Azimuth protection cover base plate, 6-Azimuth protection cover meshing gear, 7-Azimuth protection cover bearing, 8-Azimuth protection motor fixing component, 9-First azimuth bearing of the optoelectronic equipment, 10-Second azimuth bearing of the optoelectronic equipment, 11-Outer seat of the second azimuth bearing of the optoelectronic equipment, 12-Inner seat of the second azimuth bearing of the optoelectronic equipment, 13-Inner seat of the first azimuth bearing of the optoelectronic equipment, 14-Main frame of the optoelectronic equipment, 15-Azimuth protection cover meshing pinion, 16-Pitch protection cover meshing pinion, 17- Pitch protection cover meshing gear, 18-Inner seat of the first pitch bearing of the optoelectronic equipment, 19-Second pitch bearing of the optoelectronic equipment, 20-Outer seat of the second pitch bearing of the optoelectronic equipment, 21-Second pitch protection cover bearing, 22-Outer seat of the second pitch protection cover bearing, 23-Inner seat of the second pitch bearing of the optoelectronic equipment, 24-Pitch platform of the optoelectronic equipment, 25-Inner pressure cover of the first pitch protection cover bearing, 26-Outer seat of the first pitch bearing of the optoelectronic equipment, 27-First pitch protection cover bearing, 28-Base plate of the optoelectronic equipment, 29-First pitch bearing of the optoelectronic equipment, 30-Outer seat of the first pitch protection cover bearing. Detailed Implementation

[0032] The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the invention, and should not be construed as limiting the invention.

[0033] In the description of this invention, it should be understood that the terms "center," "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," and "counterclockwise," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0034] Addressing the issues of complex assembly and disassembly structures and high control difficulty in existing protective covers, this invention provides a dual-drive photoelectric device protection mechanism. This mechanism comprises a pitch protection cover 1 along the pitch axis and an azimuth protection cover 2 along the azimuth axis of the photoelectric device. The rotation axis of the azimuth protection cover 2 is coupled to the azimuth rotation axis of the photoelectric device. By controlling the rotation of the azimuth protection cover 2's rotation axis, the position of the azimuth protection cover 2 in the azimuth circumferential direction is adjusted. Synchronous control ensures that the azimuth protection cover 2 rotates with the photoelectric device at the same azimuth angle during use. Similarly, the rotation axis of the pitch protection cover 1 is coupled to the pitch rotation axis of the photoelectric device. By controlling the rotation of the pitch protection cover 1's rotation axis, the position of the pitch protection cover 1 in the pitch circumferential direction is adjusted. Synchronous control ensures that the pitch protection cover 1 rotates with the photoelectric device at the same pitch angle during use. This protection mechanism is suitable for protecting photoelectric devices used in harsh environments and offers advantages such as compact structure, cost savings, and ease of transportation and installation.

[0035] Specifically: the photoelectric device is rotatably connected to the main frame 14 of the photoelectric device via a pitch rotation axis system, and the bottom of the main frame 14 of the photoelectric device is fixed with the azimuth rotation axis system of the photoelectric device; the azimuth rotation axis system of the photoelectric device is rotatably connected to the azimuth stator axis system, and is driven to rotate around the azimuth stator axis system by the azimuth drive component.

[0036] Specifically: the orientation rotation axis system of the optoelectronic device includes a first orientation bearing inner seat 13 and a second orientation bearing inner seat 12 coaxially fixed below the main frame 14 of the optoelectronic device; the first orientation bearing inner seat 13 and the second orientation bearing inner seat 12 are rotating structures arranged coaxially.

[0037] Specifically: the azimuth stator shaft system includes a photoelectric device base plate 28 located at the bottom, an azimuth protection motor fixing component 8 mounted on the base plate, and a second azimuth bearing outer seat 11; the azimuth protection motor fixing component 8 is an annular frame structure, fitted around the azimuth rotation shaft system, and the second azimuth bearing outer seat 11 is coaxially fitted onto the bottom inner ring surface of the azimuth protection motor fixing component 8; the inner ring surface of the azimuth protection motor fixing component 8 is rotatably connected to the first azimuth bearing inner seat 13 of the azimuth rotation shaft system through the first azimuth bearing 9, and the inner ring surface of the second azimuth bearing outer seat 11 is rotatably connected to the second azimuth bearing inner seat 12 of the azimuth rotation shaft system through the second azimuth bearing 10.

[0038] Specifically: the azimuth stator shaft system is externally rotatably connected to the azimuth protection cover 2, and the azimuth protection cover 2 is driven by the azimuth protection motor 4 to rotate around the azimuth stator shaft system.

[0039] Specifically: the azimuth protection cover 2 is rotatably connected to the protection motor fixing component 8 via its rotating shaft system. The rotating shaft system of the azimuth protection cover 2 is sequentially arranged axially with an azimuth protection cover base plate 5, an azimuth protection cover meshing gear 6, and an azimuth protection cover bearing 7. The azimuth protection cover 2 is an annular surface with an opening, and its bottom is coaxially mounted on the azimuth protection cover base plate 5. The azimuth protection cover base plate 5 is a circular plate with a central through hole, wherein the bottom of the through hole is coaxially fixed to the azimuth protection cover meshing gear 6. The azimuth protection cover meshing large gear 6 is rotatably connected to the protection motor fixing part 8 through the azimuth protection cover bearing 7; the azimuth protection cover meshing large gear 6 meshes with the azimuth protection cover meshing small gear 15 installed on the rotor of the azimuth protection motor 4, and the stator of the azimuth protection motor 4 is installed in the protection motor fixing part 8; the azimuth protection motor 4 drives the azimuth protection cover meshing small gear 15, which in turn drives the azimuth protection cover meshing large gear 6, the azimuth protection cover base plate 5, and the azimuth protection cover 2 to rotate in sequence.

[0040] Specifically: the pitch rotation axis system of the optoelectronic device is symmetrically arranged on both sides of the axial direction of the optoelectronic device, and the rotation axis system of the pitch protection cover 1 is rotatably connected to its outer periphery. The rotation axis system of the pitch protection cover 1 is rotatably connected to the support plates on both sides of the main frame 14 of the optoelectronic device. The rotation axis system of the pitch protection cover 1 is driven by the pitch protection motor 3 to rotate around the pitch rotation axis system of the optoelectronic device, that is, it serves as the rotation axis system relative to the main frame 14 of the optoelectronic device, and also as the stator axis system of the pitch rotation axis system of the optoelectronic device.

[0041] Specifically: The pitch rotation axis system of the optoelectronic device includes a first pitch bearing inner seat 18 and a second pitch bearing inner seat 23 coaxially arranged on both sides of the pitch platform 24 on which the optoelectronic device is installed. Both the first pitch bearing inner seat 18 and the second pitch bearing inner seat 23 are rotating structures.

[0042] Specifically: one side of the rotation axis system of the pitch protection shield 1 is the driving end, and the other side is the follower end. The driving end includes a second pitch bearing outer seat 20 rotatably connected to the second pitch bearing inner seat 23 via the second pitch bearing 19, and a pitch protection shield meshing gear 17 coaxially fixed to the inner end of the second pitch bearing outer seat 20. The follower end includes a first pitch bearing outer seat 26 rotatably connected to the first pitch bearing inner seat 18 via the first pitch bearing 29, and a first pitch protection shield bearing inner pressure cover 25 coaxially fixed to the inner end of the first pitch bearing outer seat 26. The pitch protection shield meshing gear 17... Gear 17 and the inner pressure cover 25 of the first pitch protection cover bearing are respectively fixed to both ends of the pitch protection cover 1; the pitch protection cover 1 is an arc-shaped plate; the pitch protection cover meshing large gear 17 meshes with the pitch protection cover meshing small gear 16 installed on the rotor of the pitch protection motor 3, and the stator of the pitch protection motor 3 is installed on the pitch platform 24; the pitch protection motor 3 drives the pitch protection cover meshing small gear 16, thereby driving the pitch protection cover meshing large gear 17, the second pitch bearing outer seat 20, the pitch protection cover 1, the inner pressure cover 25 of the first pitch protection cover bearing, and the first pitch bearing outer seat 26 to rotate.

[0043] Specifically: The main frame 14 of the optoelectronic device has a U-shaped structure. Its bottom plate is connected to the orientation rotation axis of the optoelectronic device. The vertically arranged support plates on both sides have coaxial through holes. The first pitch protection cover bearing outer seat 30 and the second pitch protection cover bearing outer seat 22 are coaxially installed in the two through holes, respectively, as the stator shaft of the pitch protection cover rotation axis. They are rotatably connected to the first pitch protection cover bearing outer seat 26 and the second pitch protection cover bearing outer seat 20 through the first pitch protection cover bearing 27 and the second pitch protection cover bearing 21, respectively.

[0044] The above technical solution will be further described in detail below with reference to the accompanying drawings:

[0045] Reference Figure 1As shown, this embodiment of a dual-drive photoelectric device protection mechanism includes a pitch protection cover 1, an azimuth protection cover 2, a pitch protection motor 3, an azimuth protection motor 4, an azimuth protection cover base plate 5, an azimuth protection cover meshing large gear 6, an azimuth protection cover bearing 7, an azimuth protection motor fixing component 8, a photoelectric device azimuth bearing 19, a photoelectric device azimuth bearing 210, a photoelectric device azimuth bearing 2 outer seat 11, a photoelectric device azimuth bearing 2 inner seat 12, a photoelectric device azimuth bearing 1 inner seat 13, a photoelectric device main frame 14, an azimuth protection cover meshing small gear 15, and a pitch protection motor. 16. Protective cover meshing pinion; 17. Pitch protection cover meshing large gear; 18. Inner seat of photoelectric equipment pitch bearing 1; 219. Photoelectric equipment pitch bearing 2; 20. Outer seat of photoelectric equipment pitch bearing 2; 221. Pitch protection cover bearing 2; 222. Outer seat of photoelectric equipment pitch bearing 2; 23. Inner seat of photoelectric equipment pitch bearing 2; 24. Photoelectric equipment pitch platform; 25. Inner pressure cover of pitch protection cover bearing 1; 26. Outer seat of photoelectric equipment pitch bearing 1; 27. Pitch protection cover bearing 1; 28. Photoelectric equipment base plate; 29. ​​Photoelectric equipment pitch bearing; 30. Outer seat of first pitch protection cover bearing.

[0046] Reference Figure 2 As shown, the azimuth protection cover 2 is mounted on the azimuth protection cover base plate 5, and the azimuth protection cover base plate 5 is mounted on the azimuth protection cover meshing gear 6, and is fixedly connected to and rotates with the outer ring of the azimuth protection cover bearing 7.

[0047] The orientation protection motor fixing component 8 is mounted on the outer seat 11 of the orientation bearing 2 of the photoelectric equipment, and the outer seat 11 of the orientation bearing 2 of the photoelectric equipment is mounted on the base plate 28 of the photoelectric equipment. These three parts constitute the orientation stator shaft system components.

[0048] The azimuth protection cover meshing pinion 15 is mounted on the rotor of the azimuth protection motor 4, the stator of the azimuth protection motor 4 is mounted on the azimuth protection motor fixing part 8, and the azimuth protection motor fixing part 8 is mounted on the photoelectric equipment base plate 28. The rotor of the azimuth protection motor 4 drives the azimuth protection cover meshing pinion 15 to rotate, and the azimuth protection cover meshing pinion 15 drives the azimuth protection cover meshing large gear 6 to rotate, thereby driving the azimuth protection cover base plate 5 and the azimuth protection cover 2 to rotate around the azimuth stator shaft system through the azimuth protection cover bearing 7.

[0049] The inner seat 12 of the optoelectronic device azimuth bearing 2 is mounted on the inner seat 13 of the optoelectronic device azimuth bearing 1, and the main frame 14 of the optoelectronic device is mounted on the inner seat 13 of the optoelectronic device azimuth bearing 1. The inner seat 13 of the optoelectronic device azimuth bearing 1 drives the main frame 14 of the optoelectronic device to rotate around the azimuth stator shaft system component through the optoelectronic device azimuth bearing 210.

[0050] Reference Figure 3As shown, the pitch protection cover meshing large gear 17, the pitch protection cover bearing 1 inner pressure cover 25, the photoelectric equipment pitch bearing 1 outer seat 26, the photoelectric equipment pitch bearing 2 outer seat 20, and the pitch protection cover 1 constitute the pitch protection cover rotation shaft system. Specifically, the stator of the pitch protection motor 3 is mounted on the photoelectric equipment pitch platform 24, the pitch protection cover meshing small gear 16 is mounted with the rotor of the pitch protection motor 3 on top, the pitch protection cover meshing large gear 17 is mounted on the photoelectric equipment pitch bearing 2 outer seat 20, and the pitch protection cover 1 is... The pitch protection cover is mounted on the large gear 17 of the pitch protection cover meshing. The inner cover 25 of the pitch protection cover bearing 1 is mounted on the outer seat 26 of the pitch protection bearing 1 of the optoelectronic equipment. The pitch protection cover 1 is mounted on the inner cover 25 of the pitch protection cover bearing 1. The rotor of the pitch protection motor 3 drives the pitch protection cover meshing pinion 16 to rotate. The pitch protection cover meshing pinion 16 drives the pitch protection cover rotation axis to rotate around the pitch protection cover bearing 221 and the pitch protection cover bearing 127. The outer seat 22 of the pitch protection cover bearing 2 fixes the stator of the pitch protection cover bearing 221.

[0051] The photoelectric device pitch platform 24, the inner seat 23 of the photoelectric device pitch bearing 2, and the inner seat 18 of the photoelectric device pitch bearing 1 form the pitch platform rotation axis system. Specifically, the photoelectric device pitch platform 24 is mounted on the inner seat 23 of the photoelectric device pitch bearing 2, and the photoelectric device pitch platform 24 is also mounted on the inner seat 18 of the photoelectric device pitch bearing 1. The photoelectric device pitch platform 24 and the pitch platform rotation axis system rotate around the pitch protective cover rotation axis system via the photoelectric device pitch bearings 219 and 129.

[0052] The azimuth stator shaft system component serves as both the stator component of the azimuth protection cover rotation shaft system and the stator component for the rotation of the azimuth main frame component. The pitch protection cover rotation shaft system itself functions as both a rotation shaft system and the stator shaft system of the pitch platform rotation shaft system. Both shaft systems utilize a shared stator or rotor design, thus reducing the number of parts and creating a more compact design. Furthermore, since both the azimuth and pitch protection covers are mounted on the product, transportation and installation are facilitated.

[0053] The pitch protection cover 1 is closely attached to the pitch platform 24 of the photoelectric equipment, with a compact spatial structure that does not occupy space. The pitch protection motor 3 is placed inside the pitch platform 24 of the photoelectric equipment, which has an attractive appearance. In case of strong winds, heavy rain, or flying stones, the pitch protection cover 1 rotates to the front of the pitch platform 24 of the photoelectric equipment to protect the pitch platform 24 of the photoelectric equipment. During normal operation, the pitch protection cover 1 rotates to the rear of the pitch platform 24 of the photoelectric equipment and then rotates with the pitch platform 24 of the photoelectric equipment at the same angle, without affecting normal operation.

[0054] The azimuth protection cover 2 has an opening at the front of the optoelectronic equipment pitch platform 24, which does not affect its normal operation. During normal operation, the azimuth protection cover 2 rotates at the same angle as the main frame 14 of the optoelectronic equipment, ensuring that the front of the pitch platform 24 is always unobstructed. When maintenance of the pitch axis system is required, the azimuth protection cover 2 rotates relative to the main frame 14 of the optoelectronic equipment to expose one side of the axis system, allowing for maintenance without removing the protection cover.

[0055] Although embodiments of the present invention have been shown and described above, it is understood that the above embodiments are exemplary and should not be construed as limiting the present invention. Those skilled in the art can make changes, modifications, substitutions and variations to the above embodiments within the scope of the present invention without departing from the principles and spirit of the present invention.

Claims

1. A dual-drive photoelectric device protection mechanism, characterized in that: It includes a pitch protection cover (1) installed on the pitch axis of the optoelectronic equipment and an azimuth protection cover (2) installed on the azimuth axis. The rotation axis of the azimuth protection cover (2) is coupled to the azimuth rotation axis of the photoelectric equipment. By controlling the rotation axis of the azimuth protection cover (2) to rotate, the position of the azimuth protection cover (2) in the azimuth circumferential direction is adjusted. Through synchronous control, the azimuth protection cover (2) rotates with the photoelectric equipment at the same azimuth angle when the photoelectric equipment is in use. The rotation axis of the pitch protection cover (1) is coupled to the pitch rotation axis of the optoelectronic device. By controlling the rotation axis of the pitch protection cover (1), the position of the pitch protection cover (1) in the pitch circumferential direction is adjusted. Through synchronous control, the pitch protection cover (1) rotates with the optoelectronic device at the same pitch angle when the optoelectronic device is in use. The optoelectronic device is rotatably connected to the main frame (14) of the optoelectronic device via a pitch rotation axis system, and the bottom of the main frame (14) of the optoelectronic device is fixed with the orientation rotation axis system of the optoelectronic device. The azimuth rotation axis system of the optoelectronic device is rotatably connected to the azimuth stator axis system, and is driven to rotate around the azimuth stator axis system by the azimuth driving component. The orientation rotation axis system of the optoelectronic device includes a first orientation bearing inner seat (13) and a second orientation bearing inner seat (12) coaxially fixed below the main frame (14) of the optoelectronic device; the first orientation bearing inner seat (13) and the second orientation bearing inner seat (12) are rotating structures coaxially arranged. The pitch rotation axis system of the optoelectronic device is symmetrically arranged on both sides of the axial direction of the optoelectronic device. Its outer periphery is rotatably connected to the rotation axis system of the pitch protection cover (1), and the rotation axis system of the pitch protection cover (1) is rotatably connected to the support plates on both sides of the main frame (14) of the optoelectronic device. The rotation axis system of the pitch protection cover (1) is driven to rotate around the pitch rotation axis system of the optoelectronic device by the pitch protection motor (3). That is, it serves as the rotation axis system relative to the main frame (14) of the optoelectronic device, and also as the stator axis system of the pitch rotation axis system of the optoelectronic device. The pitch rotation axis system of the optoelectronic device includes a first pitch bearing inner seat (18) and a second pitch bearing inner seat (23) coaxially arranged on both sides of the pitch platform (24) on which the optoelectronic device is installed. Both the first pitch bearing inner seat (18) and the second pitch bearing inner seat (23) are rotary structures.

2. The dual-drive photoelectric device protection mechanism according to claim 1, characterized in that: The azimuth stator shaft system includes a photoelectric device base plate (28) located at the bottom, an azimuth protection motor fixing component (8) mounted on the base plate, and a second azimuth bearing outer seat (11); the azimuth protection motor fixing component (8) is an annular frame structure, which is fitted around the azimuth rotation shaft system, and the second azimuth bearing outer seat (11) is coaxially fitted onto the bottom inner ring surface of the azimuth protection motor fixing component (8); The inner ring surface of the azimuth protection motor fixing component (8) is rotatably connected to the inner seat (13) of the first azimuth bearing of the azimuth rotation shaft system via the first azimuth bearing (9), and the inner ring surface of the outer seat (11) of the second azimuth bearing is rotatably connected to the inner seat (12) of the second azimuth bearing of the azimuth rotation shaft system via the second azimuth bearing (10).

3. The dual-drive photoelectric device protection mechanism according to claim 2, characterized in that: The azimuth stator shaft system is externally rotatably connected to the azimuth protection cover (2) rotating shaft system, and the azimuth protection cover (2) rotating shaft system is driven to rotate around the azimuth stator shaft system by the azimuth protection motor (4).

4. The dual-drive photoelectric device protection mechanism according to claim 3, characterized in that: The azimuth protection cover (2) is rotatably connected to the protection motor fixing part (8) through its rotation shaft system. The rotation shaft system of the azimuth protection cover (2) is arranged in sequence along the axial direction as the azimuth protection cover base plate (5), azimuth protection cover meshing large gear (6), and azimuth protection cover bearing (7). The azimuth protection cover (2) is an annular surface with an opening, and its bottom is coaxially mounted on the azimuth protection cover base plate (5); the azimuth protection cover base plate (5) is a circular plate with a central through hole, wherein the bottom of the through hole is coaxially fixed with the azimuth protection cover meshing gear (6), and the azimuth protection cover meshing gear (6) is rotatably connected to the protection motor fixing part (8) through the azimuth protection cover bearing (7); The azimuth protection cover meshing large gear 6 meshes with the azimuth protection cover meshing small gear (15) installed on the rotor of the azimuth protection motor (4). The stator of the azimuth protection motor (4) is installed in the protection motor fixing part (8). The azimuth protection motor (4) drives the azimuth protection cover meshing small gear (15), which in turn drives the azimuth protection cover meshing large gear (6), the azimuth protection cover base plate (5), and the azimuth protection cover (2) to rotate in sequence.

5. The dual-drive photoelectric device protection mechanism according to claim 4, characterized in that: One side of the rotation axis of the pitch protection shield (1) is the driving end, and the other side is the follower end. The driving end includes a second pitch bearing outer seat (20) rotatably connected to the second pitch bearing inner seat (23) via the second pitch bearing (19), and a pitch protection shield meshing gear (17) coaxially fixed to the inner end of the second pitch bearing outer seat (20). The follower end includes a first pitch bearing outer seat (26) rotatably connected to the first pitch bearing inner seat (18) via the first pitch bearing (29), and a first pitch protection shield bearing inner pressure cover (25) coaxially fixed to the inner end of the first pitch bearing outer seat (26). The pitch protection shield meshing gear (17) and the first pitch protection shield bearing inner pressure cover (25) are respectively fixed to both ends of the pitch protection shield (1). The pitch protection cover (1) is an arc-shaped plate; The pitch protection cover meshing large gear (17) meshes with the pitch protection cover meshing small gear (16) installed on the rotor of the pitch protection motor (3). The stator of the pitch protection motor (3) is installed on the pitch platform (24). The pitch protection motor (3) drives the pitch protection cover meshing small gear (16), thereby driving the pitch protection cover meshing large gear (17), the second pitch bearing outer seat (20), the pitch protection cover (1), the first pitch protection cover bearing inner pressure cover (25), and the first pitch bearing outer seat (26) to rotate.

6. The dual-drive photoelectric device protection mechanism according to claim 5, characterized in that: The main frame (14) of the optoelectronic device is a U-shaped structure. Its bottom plate is connected to the orientation rotation axis of the optoelectronic device. The support plates on both sides are vertically arranged with coaxial through holes. The first pitch protection cover bearing outer seat (30) and the second pitch protection cover bearing outer seat (22) are coaxially fitted in the two through holes, respectively, as the stator shaft of the pitch protection cover rotation axis. They are rotatably connected to the first pitch protection cover bearing outer seat (26) and the second pitch protection cover bearing outer seat (20) through the first pitch protection cover bearing (27) and the second pitch protection cover bearing (21), respectively.