Power transmission line image video monitoring device

Abstract

A power transmission line image video monitoring device disclosed by the present invention comprises a device main body, the device main body comprises a main monitoring assembly and two auxiliary monitoring assemblies, the main monitoring assembly and the two auxiliary monitoring assemblies are configured on a power frame, the main monitoring assembly is configured between the two auxiliary monitoring assemblies, and the two auxiliary monitoring assemblies are configured on the power frame. The main monitoring assembly is electrically connected with the two auxiliary monitoring assemblies, and the main monitoring assembly is connected with a remote control center. According to the image video monitoring device for the power transmission line provided by the invention, the main monitoring assembly and the two auxiliary monitoring assemblies are arranged on the power frame to replace manual inspection of the power transmission line, so that the labor intensity and the cost of workers are effectively reduced, and especially when an emergent external force damage accident occurs, the image video monitoring device for the power transmission line can be used for monitoring the power transmission line. And information can be transmitted in time in case of various dangerous sources or mountain fire, so that a line power failure fault is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of transmission line monitoring devices, and more specifically, the present invention relates to a transmission line image and video monitoring device. Background Art

[0002] In recent years, with the rapid development of China's economy and the rapid development of the urbanization process, the problems of line aging and decentralized management faced by the power system are serious. At the same time, as an important link in power supply, the transmission line faces huge pressure brought by rapid urbanization, which also brings huge pressure to the operation and maintenance management of power companies. Traditional monitoring methods generally adopt manual on-site operation methods, which are costly and have relatively high labor intensity. When encountering sudden external force damage accidents, or various hazard sources and wildfires, the manual transmission of information is relatively late, resulting in untimely maintenance and easy to cause line power failure faults. Therefore, it is necessary to propose a transmission line image and video monitoring device to at least partially solve the problems existing in the prior art. Summary of the Invention

[0003] A series of simplified concepts are introduced in the Summary of the Invention section, which will be further described in detail in the Detailed Implementation section. The Summary of the Invention section of the present invention does not mean to attempt to define the key features and essential technical features of the claimed technical solution, nor does it mean to attempt to determine the protection scope of the claimed technical solution.

[0004] To at least partially solve the above problems, the present invention provides a transmission line image and video monitoring device, including: a device main body, the device main body includes a main monitoring component and two sub-monitoring components, the main monitoring component and the two sub-monitoring components are configured on a power pole, the main monitoring component is configured in the middle of the two sub-monitoring components, the main monitoring component is electrically connected to the two sub-monitoring components, and the main monitoring component is connected to a remote control center.

[0005] According to the transmission line image and video monitoring device of an embodiment of the present invention, the main monitoring component includes a main support rod and a main intelligent panoramic imaging monitoring camera, the main support rod is configured on a power pole, and the main intelligent panoramic imaging monitoring camera is configured at the outer end of the main support rod.

[0006] According to the transmission line image and video monitoring device of an embodiment of the present invention, it further includes: a solar power supply component, the solar power supply component includes a solar support rod and a solar panel module, the solar support rod is configured on a power pole, the solar panel module is configured at the outer end of the solar support rod, and the solar panel module is electrically connected to the main intelligent panoramic imaging monitoring camera.

[0007] According to the transmission line image and video monitoring device of the embodiment of the present invention, the secondary monitoring component includes a secondary support rod and a secondary intelligent panoramic imaging monitoring camera. The secondary support rod is configured on the power pole and is located on one side of the main support rod. The secondary intelligent panoramic imaging monitoring camera is configured at the outer end of the secondary support rod, and the secondary intelligent panoramic imaging monitoring camera is electrically connected to the main intelligent panoramic imaging monitoring camera.

[0008] According to the transmission line image and video monitoring device of the embodiment of the present invention, a shielding cover is further configured on the outer shell of the main intelligent panoramic imaging monitoring camera, and the shielding cover is located at the outer end of the outer shell.

[0009] According to the transmission line image and video monitoring device of the embodiment of the present invention, the shielding cover includes a water-blocking top plate and two water-blocking side plates. The water-blocking top plate is located above the two water-blocking side plates, and there is a water leakage gap between the two water-blocking side plates and the water-blocking top plate.

[0010] According to the transmission line image and video monitoring device of the embodiment of the present invention, a superhydrophobic coating is provided on the outer shell.

[0011] According to the transmission line image and video monitoring device of the embodiment of the present invention, a polymer hydrophobic coating is provided on the lens of the main intelligent panoramic imaging monitoring camera.

[0012] According to the transmission line image and video monitoring device of the embodiment of the present invention, the main intelligent panoramic imaging monitoring camera is further configured with an anti-freezing rain mechanism. The anti-freezing rain mechanism is located above the lens. The anti-freezing rain mechanism includes a built-in motor and an external anti-freezing rain brush. The built-in motor is located inside the main intelligent panoramic imaging monitoring camera, and the external anti-freezing rain brush is configured on the output shaft of the built-in motor and is used to brush the outer surface of the lens.

[0013] According to the transmission line image and video monitoring device of the embodiment of the present invention, the lens is configured in a lens holder, and a plurality of heating resistance wire coils are configured in the lens holder.

[0014] Compared with the prior art, the present invention has at least the following beneficial effects:

[0015] The present invention provides a transmission line image and video monitoring device. The transmission line image and video monitoring device includes a device main body, and the device main body includes a top seat, an anti-interference shield, and an intelligent panoramic imaging monitoring camera. Among them, the above anti-interference shield is installed at the bottom of the top seat, and the intelligent panoramic imaging monitoring camera is installed below the top seat through an inner carrier and is located inside the anti-interference shield. The device main body is installed on the pole of the transmission line, and the intelligent panoramic imaging monitoring camera in the device main body takes real-time pictures and measurements of the transmission line. Moreover, the inner carrier has an earthquake resistance function, enabling the intelligent panoramic imaging monitoring camera to work well, measuring the distances between static obstacles and sag dynamic hazard sources within the camera range and the transmission line. When the measured distance is less than the preset distance, an alarm is issued, while avoiding regular manual inspections and being unaffected by the weather.

[0016] For the transmission line image and video monitoring device described in the present invention, other advantages, objectives, and features of the present invention will be partially reflected by the following description and partially understood by those skilled in the art through the research and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation to the present invention. In the drawings:

[0018] Figure 1 It is a schematic structural diagram of the present invention.

[0019] Figure 2 It is a side view of the structure of the main monitoring component in the present invention.

[0020] Figure 3 It is a schematic structural diagram of the main intelligent panoramic imaging monitoring camera in the present invention.

[0021] Figure 4 It is a schematic internal structure diagram of the main intelligent panoramic imaging monitoring camera in the present invention.

[0022] Figure 5 It is a schematic structural diagram of the anti-swing module in the present invention.

[0023] Figure 6 It is a partial structural schematic of the anti-swing component in the present invention Figure 1 .

[0024] Figure 7 It is a partial structural schematic of the anti-swing component in the present invention Figure 2 .

[0025] Figure 8 It is a schematic structural diagram of the locking mechanism in the present invention.

[0026] Figure 9 It is a schematic structural diagram of the first C-shaped gusset plate in the present invention.

[0027] Figure 10 It is a schematic diagram of the structure of the third C-type gusset plate in the present invention.

[0028] Figure 11 It is a structural schematic diagram of the first pushing mechanism in the present invention. DETAILED DESCRIPTION

[0029] The present invention is further described in detail below in conjunction with the accompanying drawings and embodiments so that those skilled in the art can implement the invention with reference to the description.

[0030] It should be understood that the terms such as “having”, “including” and “comprising” used herein do not exclude the existence or addition of one or more other elements or combinations thereof.

[0031] like Figures 1 - 4 As shown, the present invention provides a transmission line image video monitoring device, including: a device body 100, the device body 100 includes a main monitoring component 1 and two auxiliary monitoring components 2, wherein the main monitoring component 1 and the two auxiliary monitoring components 2 are installed on a power rack 200, and the specific height can be installed according to requirements; the main monitoring component 1 is installed on the power rack 200 and is located in the middle of the two auxiliary monitoring components 2, that is, the two auxiliary monitoring components 2 are respectively located on both sides of the main monitoring component 1, and the main monitoring component 1 is electrically connected to the two auxiliary monitoring components 2, wherein the main monitoring component 1 can be online monitored day and night without interruption, When three-dimensional reconstruction is required, the main monitoring component 1 sends a signal to the sub-monitoring component 2 to start capturing, and the three pictures captured simultaneously are sent back by the main monitoring component 1 to the background server of the remote control center for three-dimensional reconstruction. The main monitoring component 1 and the remote control center can be connected wirelessly. By installing the main monitoring component 1 and two sub-monitoring components 2 on the power rack, manual inspection of the transmission line is replaced, which effectively reduces the labor intensity and cost. In particular, when encountering sudden external force damage accidents, or multiple sources of danger or wildfires, information can be transmitted in a timely manner to avoid power outages in the line.

[0032] Exemplary Master Monitoring Components

[0033] Furthermore, in some embodiments of the present invention, the specific structure of the main monitoring component 1 is provided. Here, the main monitoring component 1 of this structure includes a main support rod 11 and a main intelligent panoramic imaging monitoring camera 12. Here, the main support rod 11 is installed on the power tower 200, and the main intelligent panoramic imaging monitoring camera 12 can be installed at the outer end of the main support rod 11, so that the main intelligent panoramic imaging monitoring camera 12 faces the direction of the transmission line. Specifically, through the main intelligent panoramic imaging monitoring camera 12, continuous online monitoring can be carried out day and night. When three-dimensional reconstruction is required, the main intelligent panoramic imaging monitoring camera 12 sends a signal to the secondary monitoring component 2 to start capturing. The three synchronously captured pictures are uniformly sent back by the main intelligent panoramic imaging monitoring camera 12 to the background server of the remote control center for three-dimensional reconstruction. Among them, a wireless connection can be adopted between the main intelligent panoramic imaging monitoring camera 12 and the remote control center. Through the main intelligent panoramic imaging monitoring camera 12, online monitoring and picture capturing can be efficiently carried out.

[0034] Exemplary solar power supply component

[0035] Furthermore, in some embodiments of the present invention, the solar power supply component 3 is provided. Here, the solar power supply component 3 provides power for the main monitoring component 1, which can effectively reduce the usage cost. Among them, the solar power supply component 3 of this structure includes a solar support rod 32 and a solar panel module 31. The solar support rod 32 is installed on the power tower 200. Generally speaking, the solar support rod 32 can be located above the main monitoring component 1. The solar panel module 31 is installed at the outer end of the solar support rod 32 and faces south. The solar panel module 31 is electrically connected to the main intelligent panoramic imaging monitoring camera 12, so that the main intelligent panoramic imaging monitoring camera 12 can carry out monitoring all day long.

[0036] Exemplary secondary monitoring component

[0037] Furthermore, some embodiments of the present invention provide a specific structure of the above-mentioned auxiliary monitoring component 2, where the auxiliary monitoring component 2 of the structure includes an auxiliary support rod 21 and an auxiliary intelligent panoramic imaging monitoring camera 22, the auxiliary support rod 21 is installed on the power rack 200 and is located on one side of the main support rod 11, and the auxiliary intelligent panoramic imaging monitoring camera 22 is installed on the outer end of the auxiliary support rod 21, where the auxiliary intelligent panoramic imaging monitoring camera 22 is electrically connected to the main intelligent panoramic imaging monitoring camera 12, and when three-dimensional reconstruction is required, the main intelligent panoramic imaging monitoring camera 12 sends a signal to the auxiliary intelligent panoramic imaging monitoring camera 22 to start capturing, and the three synchronously captured pictures are uniformly sent back by the main intelligent panoramic imaging monitoring camera 12 to the background server of the remote control center for three-dimensional reconstruction. Similarly, the solar power supply component 3 can also provide power for the auxiliary intelligent panoramic imaging monitoring camera 22 in the auxiliary monitoring component 2, so that the auxiliary intelligent panoramic imaging monitoring camera 22 can remain in working condition.

[0038] Example Shield

[0039] Furthermore, in some embodiments of the present invention, a shielding cover 14 is also configured on the housing 13 of the main intelligent panoramic imaging surveillance camera 12. The shielding cover 14 is located at the outer end of the housing 13 and is used to shield the lens 121 on the main intelligent panoramic imaging surveillance camera 12 to prevent rain from wetting the lens 121 and leaving water stains on the lens 121, thereby enabling the main intelligent panoramic imaging surveillance camera 12 to have a better shooting effect.

[0040] Furthermore, the above-mentioned shielding cover 14 includes a water-retaining top plate 141 and two water-retaining side plates 142. Specifically, the above-mentioned water-retaining top plate 141 is in an inverted V-shape and is located above the two water-retaining side plates 142. Furthermore, there is a water leakage gap 143 between the two water-retaining side plates 142 and the water-retaining top plate 141, so that the two water-retaining side plates 142 are separated from the water-retaining top plate 141. Since the installation height of the device body 100 is relatively high, the outside wind will pass through the water leakage gap 143, and quickly dry the rainwater that has wetted the lens 121, so as to avoid affecting the shooting effect of the main intelligent panoramic imaging surveillance camera 12; similarly, the same result can also be adopted on the secondary intelligent panoramic imaging surveillance camera 22 to ensure the shooting effect.

[0041] Furthermore, the above-mentioned shell 13 is also provided with a super-hydrophobic coating 15, and the lens 121 of the main intelligent panoramic imaging surveillance camera 12 is provided with a polymer hydrophobic coating. The super-hydrophobic coating 15 and the polymer hydrophobic coating can further accelerate the time for rainwater to slide off the shell 13, thereby preventing rainwater from staying and causing damage to the interior of the main intelligent panoramic imaging surveillance camera 12.

[0042] Exemplary Freezing Rain Protection Mechanism

[0043] Furthermore, in some embodiments of the present invention, an anti-freezing and rain mechanism 15 is also installed on the main intelligent panoramic imaging monitoring camera 12. Through the anti-freezing and rain mechanism 15, the ice formed by rainwater on the lens 121 can be brushed off in time, reducing the impact on the shooting effect. Specifically, the anti-freezing and rain mechanism 15 of this structure is located above the lens 121. Among them, the anti-freezing and rain mechanism 15 includes a built-in motor 151 and an external anti-freezing and rain brush 152. The built-in motor 151 is located inside the main intelligent panoramic imaging monitoring camera 12, and the external anti-freezing and rain brush 152 is installed on the output shaft of the built-in motor 151. It can be understood that a humidity sensor and a temperature sensor (not shown) are also installed on the main intelligent panoramic imaging monitoring camera 12. In this way, through the detection of the humidity sensor and the temperature sensor, when it is possible that rainwater freezes on the lens 121, the built-in motor 151 is started. Then, the built-in motor 151 drives the external anti-freezing and rain brush 152 to brush the outer surface of the lens 121 to brush off the rainwater, preventing freezing when the temperature is low and reducing the impact on the shooting effect.

[0044] Furthermore, here the lens 121 is installed in a lens holder, and a plurality of heating resistance wire coils 123 are installed in the lens holder. Therefore, when rainwater or steam appears on the lens 121, a plurality of heating resistance wire coils 123 can be started, so that the rainwater or steam on the lens 121 can be quickly evaporated, and it can also prevent freezing when the temperature is low, reducing the impact on the shooting effect.

[0045] Exemplary anti-sway module

[0046] As Figures 5 - 11 shown, further, in some embodiments of the present invention, an anti-sway module 4 is installed on the power rack 200. The anti-sway module 4 includes a horizontal support plate 5 and several anti-sway components 6. Among them, the horizontal support plate 5 is installed on the power rack 200 and is located below the main support rod 11, and several anti-sway components 6 are installed on the horizontal support plate 5 and fix the main support rod 11. The horizontal support plate 5 in the anti-sway module 4 with the above structure provides an installation position for several anti-sway components 6, and the horizontal support plate 5 is rectangular and horizontal, which can well resist strong winds in the horizontal direction. The anti-sway components 6 wrap the main support rod 11 to prevent the main support rod 11 from swinging left and right due to being blown by strong winds in the horizontal direction, or being blown crooked by strong winds until it breaks.

[0047] Exemplary anti-sway component

[0048] As Figure 6As shown, further, in some embodiments of the present invention, the specific structure of the anti-sway assembly 6 is provided. Here, the anti-sway assembly 6 of this structure includes a vertical support 61, a first C-shaped buckle 62, a second C-shaped buckle 63, and a locking mechanism 64. Among them, the vertical support 61 is installed on the transverse support plate 5, and the first C-shaped buckle 62 and the second C-shaped buckle 63 are hingedly installed on the vertical support 61. The locking mechanism 64 is movably installed on the first C-shaped buckle 62 and is used to fix the first C-shaped buckle 62 and the second C-shaped buckle 63. Therefore, when the first C-shaped buckle 62 and the second C-shaped buckle 63 approach each other, the locking mechanism 64 will fix the two of them, thereby realizing the fixation of the main support rod 11 by the first C-shaped buckle 62 and the second C-shaped buckle 63, preventing the main support rod 11 from swinging left and right due to the blowing of strong wind in the horizontal direction, or preventing the main support rod 11 from being blown crooked by strong wind until it breaks.

[0049] Exemplary locking mechanism

[0050] Such as Figures 7 - 9As shown, further, in some embodiments of the present invention, the specific structure of the above-mentioned locking mechanism 64 is provided. Here, the locking mechanism 64 of this structure includes a first vertical locking plate 641, a second vertical locking plate 642, a vertical guide frame 643, and a horizontal guide rod 644. Among them, the first C-shaped buckle plate 62 has a first wing plate 621, and the vertical guide frame 643 is installed on the back side of the first wing plate 621 of the first C-shaped buckle plate 62. The first vertical locking plate 641 is movably connected to the vertical guide frame 643, and the second vertical locking plate 642 is connected to the first vertical locking plate 641 through a locking rod 645. And the first vertical locking plate 641 is located on the back side of the first wing plate 621, and the second vertical locking plate 642 is located on the back side of the second wing plate 631 of the second C-shaped buckle plate 63. The horizontal guide rod 644 is installed at one end of the first vertical locking plate 641 and is movably connected to the external connection mechanism 65 on the first C-shaped buckle plate 62. Therefore, when the main support rod 11 is between the first C-shaped buckle plate 62 and the second C-shaped buckle plate 63, it acts on the external connection mechanism 65. Then, the external connection mechanism 65 drives the horizontal guide rod 644 to move downward. Further, the horizontal guide rod 644 drives the first vertical locking plate 641 to move downward along the vertical guide frame 643 to the back side of the first wing plate 621. Since the first vertical locking plate 641 and the second vertical locking plate 642 move synchronously, the second vertical locking plate 642 also moves to the back side of the second wing plate 631, thereby locking and fastening the first wing plate 621 and the second wing plate 631 together. And by rotating the locking rod 645, the first vertical locking plate 641 and the second vertical locking plate 642 are further brought closer to further lock the first wing plate 621 and the second wing plate 631. In addition, a plurality of guide wheels 646 are installed on both the first vertical locking plate 641 and the second vertical locking plate 642, and corresponding guide grooves 647 are provided on the back sides of the first wing plate 621 and the second wing plate 631. Therefore, the first vertical locking plate 641 and the second vertical locking plate 642 can move downward to the back sides of the first wing plate 621 and the second wing plate 631 through the cooperation of the guide wheels 646 and the guide grooves 647, thus realizing the fixation of the locking mechanism 64 to the first C-shaped buckle plate 62 and the second C-shaped buckle plate 63. The first C-shaped buckle plate 62 and the second C-shaped buckle plate 63 wrap the main support rod 11 to prevent the main support rod 11 from swinging left and right due to the blowing of strong wind in the horizontal direction, or from being blown crooked by strong wind until it breaks.

[0051] Exemplary external connection mechanism

[0052] As Figures 6 - 7As shown, further, in some embodiments of the present invention, the specific structure of the above-mentioned external connection mechanism 65 is provided. Here, the external connection mechanism 65 of this structure includes a horizontal sliding frame 651, a horizontal tension spring 652, a C-shaped linkage arm 653, and a linkage block 654. Among them, the horizontal sliding frame 651 is installed in the middle of the first C-shaped buckle plate 62, and the horizontal tension spring 652 is installed inside the horizontal sliding frame 651. Moreover, the outer end of the horizontal tension spring 652 is connected to the outer end of the horizontal sliding frame 651, and the inner section of the horizontal tension spring 652 is connected to the middle of the first C-shaped buckle plate 62. A C-shaped linkage arm 653 is installed at the outer end of the horizontal sliding frame 651, and a linkage block 654 is installed at the upper end of the C-shaped linkage arm 653. And an inclined strip-shaped hole 655 is provided on the linkage block 654, and the outer end of the horizontal guide rod 644 is slidably connected in the inclined strip-shaped hole 655. Therefore, when the main support rod 11 abuts against the inner end of the horizontal sliding frame 651, the horizontal sliding frame 651 moves outward, and the internal horizontal tension spring 652 is in a stretched state, so that the horizontal sliding frame 651 also abuts against the main support rod 11; when the horizontal sliding frame 651 moves outward, it also drives the C-shaped linkage arm 653 and the linkage block 654 to move outward, thereby causing the horizontal guide rod 644 to move downward along the inclined strip-shaped hole 655. The horizontal guide rod 644 drives the first vertical locking plate 641 to also move downward to the back side of the first fin plate 621, and then the locking mechanism 64 fixes the first C-shaped buckle plate 62 and the second C-shaped buckle plate 63. The first C-shaped buckle plate 62 and the second C-shaped buckle plate 63 wrap the main support rod 11 to prevent the main support rod 11 from swinging left and right due to the blowing of strong wind in the horizontal direction, or from being blown crooked by strong wind until it breaks.

[0053] As Figure 10As shown, further, in some embodiments of the present invention, third C-shaped buckles 66 are respectively arranged on one side of the first C-shaped buckle 62 and the second C-shaped buckle 63. The lower ends of the two third C-shaped buckles 66 are hinged to the vertical support 61. A third wing plate 661 is installed at the upper end of the third C-shaped buckle 66. Further, an inner spring 662 and an auxiliary lock core 663 are installed inside the auxiliary cylinder 664 on the back side of the third wing plate 661. The inner spring 662 abuts against the auxiliary lock core 663. And side fixing rods 620 are installed on both the first C-shaped buckle 62 and the second C-shaped buckle 63. So when the first vertical lock plate 641 and the second vertical lock plate 642 move into place, the side fixing rod 620 squeezes the wedge surface at the outer end of the auxiliary lock core 663. Then the auxiliary lock core 663 squeezes the inner spring 662 and contracts into the auxiliary cylinder 664. Then when the first vertical lock plate 641 and the second vertical lock plate 642 move down into place, under the action of the inner spring 662, the auxiliary lock core 663 is abutted into the side fixing rod 620. In this way, the two third C-shaped buckles 66 further assist the first C-shaped buckle 62 and the second C-shaped buckle 63 to wrap the main support rod 11, preventing the main support rod 11 from swinging left and right due to being blown by strong wind in the horizontal direction, or being blown crooked by strong wind until it breaks.

[0054] Exemplary vertical support

[0055] Further, in some embodiments of the present invention, the specific structure of the above-mentioned vertical support 61 is provided. Here, the vertical support 61 of this structure includes a vertical column 611 and a horizontal seat plate 612. Among them, the vertical column 611 is installed on the horizontal support plate 5, and the horizontal seat plate 612 is installed at the upper end of the vertical column 611. Two horizontal sliding rods 613 are installed inside the vertical column 611. Two first pushing mechanisms 67 are installed on the two horizontal sliding rods 613. And the two first pushing mechanisms 67 are connected to the main support rod 11 and are located on both sides of the horizontal seat plate 612. Further, a second pushing mechanism 68 is installed on the vertical column 611, and the second pushing mechanism 68 is connected to one of the first pushing mechanisms 67. So through the second pushing mechanism 68, the first pushing mechanism 67 can be pushed. Then the two first pushing mechanisms 67 provide upward support for the main support rod 11 at the bottom of the main support rod 11, and can also prevent the occurrence of up and down swinging.

[0056] Exemplary first pushing mechanism

[0057] Such as Figure 11As shown, further, in some embodiments of the present invention, the specific structure of the above-mentioned first pushing mechanism 67 is provided. Here, the first pushing mechanism 67 of this structure includes a C-shaped bottom plate 671 and a C-shaped pushing plate 672. Here, two fixing seats 673 are installed at the bottom of the C-shaped bottom plate 671. Then, the two fixing seats 673 are respectively connected to the transverse sliding rod 613. The second pushing mechanism 68 is connected to the C-shaped bottom plate 671. The above-mentioned C-shaped pushing plate 672 is installed at the bottom of the main support rod 11. A spring block 674 is installed at the bottom of the C-shaped pushing plate 672. An inner pushing spring 675 is connected to the spring block 674. Correspondingly, an inner pushing opening groove 676 corresponding to the spring block 674 and the inner pushing spring 675 is installed in the C-shaped bottom plate 671. Therefore, by pushing the C-shaped bottom plate 671 through the second pushing mechanism 68, the C-shaped bottom plate 671 moves at the bottom of the main support rod 11, thereby squeezing the inner pushing spring 675, so that the inner pushing spring 675 also squeezes the spring block 674. Then, the C-shaped pushing plate 672 provides a lateral force and an upward support to the main support rod 11, and can also prevent the occurrence of up-and-down swinging.

[0058] Exemplary second pushing mechanism

[0059] As Figure 11 shown, further, in some embodiments of the present invention, the specific structure of the above-mentioned second pushing mechanism 68 is provided. Here, the second pushing mechanism 68 of this structure includes an inclined rod body 681, a pushing seat 682, an upper baffle 683, and a vertical lead screw 684. Here, the upper baffle 683 is installed on the vertical column 611. The pushing seat 682 can be slidably connected to the vertical column 611 and is located below the upper baffle 683. The vertical lead screw 684 is screwed on the pushing seat 682. The upper end of the vertical lead screw 684 is rotatably connected to the upper baffle 683. The inclined rod body 681 is hinged between the C-shaped bottom plate 671 and the pushing seat 682. Therefore, by rotating the vertical lead screw 684, the pushing seat 682 is driven to move upward along the vertical column 611, so that the inclined rod body 681 also provides support to the C-shaped bottom plate 671, thereby realizing that the above-mentioned first pushing mechanism 67 provides a lateral force and an upward support to the main support rod 11, and can also prevent the occurrence of up-and-down swinging.

[0060] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", "axial", "radial", "circumferential", etc. indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, it should not be construed as a limitation to the present invention.

[0061] In the present invention, unless otherwise clearly defined and limited, the terms "installed", "connected", "connected to", "fixed", etc. shall be understood in a broad sense. For example, it may be a fixed connection, a detachable connection, or integrated; it may be a mechanical connection, an electrical connection, or communicable with each other; it may be directly connected, or indirectly connected through an intermediate medium, and it may be the communication inside two elements or the interaction relationship between two elements, unless otherwise clearly defined. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0062] Although the embodiments of the present invention have been disclosed as above, it is not limited to only the applications listed in the specification and embodiments. It can be fully applied to various fields suitable for the present invention. For those familiar with the field, additional modifications can be easily made. Therefore, without departing from the general concept defined by the claims and the equivalent scope, the present invention is not limited to the specific details and the examples shown and described herein.

Claims

1. A transmission line image video monitoring device, characterized in that: include: The device body (100) comprises a main monitoring component (1) and two auxiliary monitoring components (2). The main monitoring component (1) and the two auxiliary monitoring components (2) are arranged on a power rack (200). The main monitoring component (1) is arranged between the two auxiliary monitoring components (2). The main monitoring component (1) is electrically connected to the two auxiliary monitoring components (2), and the main monitoring component (1) is connected to a remote control center.

2. A power transmission line image video monitoring device according to claim 1, characterized in that: The main monitoring component (1) comprises a main support rod (11) and a main intelligent panoramic imaging monitoring camera (12); the main support rod (11) is arranged on a power rack (200); and the main intelligent panoramic imaging monitoring camera (12) is arranged on the outer end of the main support rod (11).

3. A transmission line image video monitoring device according to claim 2, characterized in that: Also includes: A solar power supply component (3), the solar power supply component (3) comprising a solar panel module (31) and a solar support rod (32), the solar support rod (32) being arranged on a power rack (200), the solar panel module (31) being arranged on the outer end of the solar support rod (32), and the solar panel module (31) being electrically connected to a main intelligent panoramic imaging monitoring camera (12).

4. A power transmission line image video monitoring device according to claim 2, characterized in that: The auxiliary monitoring component (2) comprises an auxiliary support rod (21) and an auxiliary intelligent panoramic imaging monitoring camera (22); the auxiliary support rod (21) is arranged on the power rack (200) and located on one side of the main support rod (11); the auxiliary intelligent panoramic imaging monitoring camera (22) is arranged on the outer end of the auxiliary support rod (21); and the auxiliary intelligent panoramic imaging monitoring camera (22) is electrically connected to the main intelligent panoramic imaging monitoring camera (12).

5. A power transmission line image video monitoring device according to claim 2, characterized in that: The housing (13) of the main intelligent panoramic imaging monitoring camera (12) is also provided with a shielding cover (14), and the shielding cover (14) is located at the outer end of the housing (13).

6. A transmission line image video monitoring device according to claim 5, characterized in that: The shielding cover (14) comprises a water retaining top plate (141) and two water retaining side plates (142); the water retaining top plate (141) is located above the two water retaining side plates (142), and a water leakage gap (143) is provided between the two water retaining side plates (142) and the water retaining top plate (141).

7. A power transmission line image video monitoring device according to claim 5 or 6, characterized in that: The housing (13) is provided with a super-hydrophobic coating (15).

8. The power transmission line image video monitoring device according to claim 5, characterized in that: The lens (121) of the main intelligent panoramic imaging monitoring camera (12) is provided with a polymer hydrophobic coating.

9. A power transmission line image video monitoring device according to claim 8, characterized in that: The main intelligent panoramic imaging monitoring camera (12) is also equipped with an anti-freezing rain mechanism (15), the anti-freezing rain mechanism (15) is located above the lens (121), the anti-freezing rain mechanism (15) comprises a built-in motor (151) and an external anti-freezing rain wiper (152), the built-in motor (151) is located in the main intelligent panoramic imaging monitoring camera (12), the external anti-freezing rain wiper (152) is arranged on the output shaft of the built-in motor (151), and is used to wipe the outer surface of the lens (121).

10. The transmission line image video monitoring device according to claim 8, characterized in that: The lens (121) is arranged in a lens seat (122), and a plurality of heating resistance wire coils (123) are arranged in the lens seat (122).

Images