Intelligent monitoring equipment based on large model algorithm

Abstract

The invention relates to the technical field of intelligent monitoring equipment, in particular to intelligent monitoring equipment based on a large model algorithm, which comprises a box body, an angle adjusting structure, a contraction structure, an extension structure, a mounting structure, a wiring structure, a folding structure, a rotating structure and a camera body. The arrangement of the angle adjusting structure can adapt to different complex environments, facilitates rapid adjustment of the orientation of the camera body, facilitates emphasized monitoring of different areas, not only facilitates wiring of a wire harness, but also can adjust the length of the stand column, and can rapidly contract the stand column into the box body, thereby facilitating the reduction of the overall size of the equipment, and facilitating the maintenance of the equipment. The camera is convenient to transport, the collision rate of the camera body in the transportation process is reduced, the practicability is high, the camera body can be quickly mounted and dismounted through the arrangement of the rotating structure, meanwhile, the angle of the camera body can be freely adjusted, the monitoring range of the camera body is convenient to adjust, and the flexibility is high.

Description

Technical Field

[0001] This invention relates to the field of intelligent monitoring equipment technology, specifically to an intelligent monitoring device based on a large model algorithm. Background Technology

[0002] Large model algorithms are algorithmic systems in the field of artificial intelligence that are built based on large-scale pre-trained models. Existing intelligent monitoring equipment usually uses large model algorithms, which can integrate the general intelligence and deep understanding capabilities of large models into traditional monitoring equipment, playing a more core role in fields such as security, smart cities, and industrial management. Therefore, mobile intelligent monitoring equipment is often used in scenic spots, roads, and other places for temporary deployment.

[0003] Traditional mobile surveillance equipment is usually fixed directly to a trolley at the bottom by a column. The camera is then moved to the designated working position by the trolley. However, during the transportation of surveillance equipment, the column is relatively tall, so it takes up a lot of space, which is inconvenient for storage and transportation. In addition, the long column is easy to cause the camera to be bumped and damaged. During transportation, the camera usually needs to be removed or covered with an object for protection. The operation process is cumbersome and the practicality is poor. Cameras are usually fixed directly to the top of the column using straps or clamps, which is inefficient and makes it difficult to adjust the overall height of the camera due to the constant length of the column. This also results in poor environmental adaptability and low flexibility. When installing cameras, they are usually fixed directly to the bracket with bolts. When different areas need to be monitored, due to the variety of ground conditions and monitoring target locations, as well as the blind spots of the camera itself, operators need to repeatedly manually adjust the orientation of the cart and the camera as a whole. The operation process is cumbersome. In addition, if the equipment is used in some complex terrains (such as mountains, construction sites, etc.), it is not convenient to adjust the orientation of the bottom cart, resulting in poor flexibility. Summary of the Invention

[0004] To address the problems in existing technologies, this invention provides an intelligent monitoring device based on a large model algorithm.

[0005] The technical solution adopted by the present invention to solve its technical problem is: an intelligent monitoring device based on a large model algorithm, including a housing, an angle adjustment structure provided on the housing, an extension structure provided on the angle adjustment structure, an installation structure connected to the extension structure, and a wiring structure provided on the installation structure; The angle-adjusting structure includes a bottom tube, and the housing is provided with a bottom tube. The extension structure includes a telescopic tube, and the telescopic tube is slidably connected to the bottom tube. The mounting structure includes a sliding sleeve, and the telescopic tube is slidably connected to the sliding sleeve. The wiring structure includes a sleeve and a tension spring fixedly connected to the sleeve. The sleeve is slidably connected to the sliding sleeve, and the tension spring is fixedly connected to the sliding sleeve. The end of the sleeve and the telescopic tube are engaged with each other. The top surface of the bottom tube abuts against the sleeve. A drive bar is fixedly connected to the sleeve, and the drive bar is slidably connected to the sliding sleeve. An inclined block is fixedly connected to the housing.

[0006] Specifically, a connecting strip is fixedly connected to the bottom of the telescopic tube, and two grooves are formed on the bottom tube, with the connecting strip and the grooves being slidably connected.

[0007] Specifically, the sliding sleeve has two first rotating shafts rotatably connected to it, and a mounting bracket is fixedly connected between the two first rotating shafts. A solar panel is fixedly connected to the mounting bracket, and a wire harness is fixedly connected to the solar panel. The wire harness passes through the sleeve.

[0008] Specifically, the bottom of the drive bar is rotatably connected to a roller, and the sleeve has a "T" shaped structure.

[0009] Specifically, the box body is connected to a retractable structure, which includes a guide rod and a buffer plate slidably connected to the guide rod. Four guide rods are fixedly connected inside the box body, and a first spring is fixedly connected between the buffer plate and the box body.

[0010] Specifically, the housing is provided with two slide bars, one of which is fixedly connected to the housing, and the other slide bar has a threaded end that is threadedly connected to the housing. A handle is fixedly connected to one of the slide bars. A baffle is slidably connected between the two slide bars. A second spring is fixedly connected between the baffle and the housing. An inclined groove is provided on the baffle. A driving block is slidably connected to the housing. The top of the driving block is slidably connected to the inclined block, and the bottom of the driving block is slidably engaged with the inclined groove. A third spring is fixedly connected between the driving block and the housing.

[0011] Specifically, a base is slidably connected between the four guide rods, the bottom surface of the base abuts against a baffle, a top cover is fixedly connected to the base, a rubber ring is engaged on the top cover, a bottom tube is slidably connected to the center of the top cover, the bottom tube is slidably connected to the rubber ring, a first rotating ring is fixedly connected to the bottom of the bottom tube, a second rotating ring is provided on the outer side of the first rotating ring, a plurality of first ball bearings are provided between the first rotating ring and the second rotating ring, a slider is fixedly connected to the outer side of the second rotating ring, and the slider is slidably connected to the base.

[0012] Specifically, a knob is threadedly connected to the center of the base, and a stop block is fixedly connected to the top surface of the knob, with the top surface of the stop block abutting against the bottom tube.

[0013] Specifically, the telescopic tube is provided with a folding structure, the folding structure includes an installation sleeve and a connecting frame fixedly connected to the installation sleeve. The installation sleeve is fixedly connected to the top of the telescopic tube. A load-bearing frame is provided on the connecting frame. A second rotating shaft is fixedly connected to the load-bearing frame. The second rotating shaft is rotatably connected to the connecting frame. An insertion hole is opened on the second rotating shaft. An insertion strip is slidably connected to the connecting frame. The insertion strip and the insertion hole are engaged with each other.

[0014] Specifically, a rotating structure is installed on the load-bearing frame. The rotating structure includes a third rotating ring and a fourth rotating ring located inside the third rotating ring. The third rotating ring is fixedly connected to the load-bearing frame. Multiple second ball bearings are provided between the third and fourth rotating rings. A motor is fixedly connected to the bottom surface of the load-bearing frame. A connecting sleeve is engaged with the output shaft of the motor. The connecting sleeve and the output shaft of the motor are fixedly connected by a pin. A mating block is fixedly connected to the connecting sleeve. A threaded post is fixedly connected to the mating block. Both the connecting sleeve and the mating block are engaged with the fourth rotating ring. A rotating frame is rotatably connected to the third rotating ring. The mating block is engaged with the center position of the rotating frame. The mating block has a hexagonal structure. A nut is threadedly connected to the threaded post. The nut abuts against the rotating frame. A fixed frame is fixedly connected to the rotating frame. A camera body is fixedly connected to the fixed frame.

[0015] The beneficial effects of this invention are: (1) The intelligent monitoring device based on the large model algorithm described in this invention has an angle adjustment structure on the box. The angle adjustment structure can adapt to different complex environments, making it easy to quickly adjust the orientation of the camera body and to focus on monitoring different areas.

[0016] (2) The intelligent monitoring device based on the large model algorithm described in this invention has a shrinkable structure connected to the box, an elongated structure on the box, an installation structure connected to the elongated structure, and a wiring structure on the installation structure. This not only facilitates the routing of the wire harness, but also allows for adjustment of the length of the column and quick retraction into the box, which helps to reduce the overall size of the device, facilitates transportation, reduces the collision rate of the camera body during transportation, and is highly practical.

[0017] (3) The intelligent monitoring device based on the large model algorithm described in this invention has a folding structure on the elongated structure and a rotating structure installed on the folding structure. The rotating structure can not only quickly realize the installation and disassembly of the camera body, but also adjust the angle of the camera body at will, making it easy to adjust the monitoring range of the camera body and providing high flexibility. Attached Figure Description

[0018] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0019] Figure 1 This is a schematic diagram of the overall structure of a preferred embodiment of an intelligent monitoring device based on a large model algorithm provided by the present invention. Figure 2 This is a schematic diagram of the connection structure between the housing and the guide rod of the present invention; Figure 3 for Figure 2 The diagram shown is an enlarged view of the structure of part A. Figure 4 for Figure 2 The diagram shown is an enlarged view of the structure of section B. Figure 5 This is a schematic diagram of the connection structure between the third and fourth rotating rings of the present invention; Figure 6 This is a schematic diagram of the connection structure between the telescopic tube and the mounting sleeve of the present invention; Figure 7 for Figure 6 The diagram shown is an enlarged view of the C-section structure. Figure 8 for Figure 6 The diagram shown is an enlarged view of the structure of part D. Figure 9 This is a schematic diagram of the connection structure between the bottom tube and the telescopic tube of the present invention; Figure 10 for Figure 9 The diagram shown is an enlarged view of the E-section structure. Figure 11 for Figure 10 The diagram shows an enlarged view of the F-section structure.

[0020] In the diagram: 1. Housing; 2. Adjustable angle structure; 201. Base; 202. Top cover; 203. Rubber ring; 204. Knob; 205. Abutment block; 206. Bottom tube; 207. First rotating ring; 208. Second rotating ring; 209. Slider; 210. First ball bearing; 3. Retractable structure; 301. Guide rod; 302. Buffer plate; 303. First spring; 304. Sliding bar; 305. Baffle; 306. Second spring; 307. Handle; 308. Drive block; 309. Third spring; 310. Inclined groove; 4. Extension structure; 401. Telescopic tube; 402. Connecting bar; 403. Wire groove; 5. Mounting structure; 501. Sliding sleeve; 502. 503. Rotating shaft; 504. Mounting bracket; 505. Solar panel; 506. Wiring harness; 6. Wiring structure; 607. Sleeve; 608. Tension spring; 609. Drive bar; 6000. Roller; 601. Inclined block; 702. Folding structure; 703. Mounting sleeve; 704. Connecting bracket; 705. Load-bearing frame; 706. Second rotating shaft; 707. Insertion hole; 708. Insertion bar; 809. Rotating structure; 8001. Third rotating ring; 8002. Fourth rotating ring; 8003. Second ball bearing; 801. Motor; 802. Connecting sleeve; 803. Pin; 804. Connecting block; 805. Threaded post; 806. Rotating frame; 810. Nut; 811. Fixing bracket; 9. Camera body. Detailed Implementation

[0021] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0022] like Figure 1 , Figure 2 and Figures 6-11As shown, the intelligent monitoring device based on a large model algorithm of the present invention includes a housing 1, an angle adjustment structure 2 disposed on the housing 1, an extension structure 4 disposed on the angle adjustment structure 2, a mounting structure 5 connected to the extension structure 4, and a wiring structure 6 disposed on the mounting structure 5. The angle adjustment structure 2 includes a bottom tube 206, which is disposed on the housing 1. The bottom surface of the base 201 abuts against a baffle 305. A top cover 202 is fixedly connected to the base 201. A rubber ring 203 is engaged on the top cover 202. The bottom tube 206 is slidably connected to the center of the top cover 202. The bottom tube 206 and the rubber ring 203 are slidably connected. A first rotating ring 207 is fixedly connected to the bottom of the bottom tube 206. A second rotating ring 208 is disposed on the outer side of the first rotating ring 207. A plurality of first ball bearings 210 are disposed between the first rotating ring 207 and the second rotating ring 208. A slider 209 is fixedly connected to the outer side of the second rotating ring 208. The slider 209 is connected to the base. The sliding connection between 201 prevents the second rotating ring 208 from rotating with the base 201, thus improving the stability of the second rotating ring 208. The top surface of the knob 204 is fixedly connected to a stop block 205, and the top surface of the stop block 205 abuts against the bottom tube 206. During use, if it is necessary to focus on monitoring a certain area, simply adjust the orientation of the camera body 9. Rotate the knob 204 counterclockwise, and the stop block 205 on the knob 204 moves downward. The stop block 205 no longer abuts against the bottom of the bottom tube 206. At this time, the bottom tube 206 can be rotated to adjust its angle. After the angle of the bottom tube 206 is adjusted, rotate the knob 204 clockwise, and the stop block 205 on the knob 204 moves upward. The stop block 205 abuts against the bottom of the bottom tube 206, fixing the bottom tube 206. This facilitates quick adjustment of the orientation of the camera body 9. At the same time, the rubber ring 203 on the top cover 202 ensures the sealing of the inside of the base 201.

[0023] Specifically, such as Figures 1-3 and Figures 6-9 As shown, the elongation structure 4 includes a telescopic tube 401. The telescopic tube 401 is slidably connected to the bottom tube 206. A connecting strip 402 is fixedly connected to the bottom of the telescopic tube 401. With one hand holding the telescopic tube 401, the telescopic tube 401 slowly slides down along the outer wall of the bottom tube 206 until the telescopic tube 401 and the bottom tube 206 overlap in the horizontal direction. At this time, the bottom tube 206 is quickly retracted into the inside of the telescopic tube 401, reducing the total length between the two. At the same time, the telescopic tube 401 will drive the camera body 9 to descend a certain distance, shortening the height of the camera body 9 from the ground, which is convenient for subsequent transportation. Two wire grooves 403 are opened on the bottom tube 206. The connecting strip 402 is slidably connected to the wire grooves 403. During the descent of the telescopic tube 401, the connecting strip 402 at the bottom will slide along the wire grooves 403. The wire grooves 403 not only prevent the wire harness 505 from being damaged when the telescopic tube 401 descends, but also prevent relative rotation between the telescopic tube 401 and the bottom tube 206.

[0024] Specifically, such as Figure 1 , Figure 7 and Figure 9 As shown, the installation structure 5 includes a sliding sleeve 501, which is slidably connected to the telescopic tube 401. Two first rotating shafts 502 are rotatably connected to the sliding sleeve 501, and a mounting bracket 503 is fixedly connected between the two first rotating shafts 502. A solar panel 504 is fixedly connected to the mounting bracket 503, and a wire harness 505 is fixedly connected to the solar panel 504. The wire harness 505 passes through the sleeve 601. The sliding sleeve 501 can drive the first rotating shafts 502, the mounting bracket 503, and the solar panel 504 to slide freely along the outer wall of the telescopic tube 401, which helps to move the solar panel 504 to the top of the telescopic tube 401, making it easier to retract the telescopic tube 401 into the interior of the housing 1. This avoids the sliding sleeve 501 blocking the telescopic tube 401 from moving downward, and provides high flexibility.

[0025] Specifically, such as Figure 7 , Figure 8 and Figure 11 As shown, the wiring structure 6 includes a sleeve 601 and a tension spring 602 fixedly connected to the sleeve 601. The sleeve 601 is slidably connected to the sliding sleeve 501, and the tension spring 602 is fixedly connected to the sliding sleeve 501. During the transfer of the monitoring equipment, to solve the problem of the large overall size of the equipment making it difficult to transport, the equipment can simply be folded and retracted. By pulling the drive bar 603 outward, the drive bar 603 drives the sleeve 601 to slide outward and stretches the tension spring 602. The end of the sleeve 601 engages with the telescopic tube 401, and the top surface of the bottom tube 206 abuts against the sleeve 601. The drive bar 603 is fixedly connected to the sleeve 601, and the drive bar 603 is slidably connected to the sliding sleeve 501. A wedge block 605 is fixedly connected to the housing 1. The bottom of the drive bar 603 is rotatably connected to a roller 604. The sleeve 601 has a "T" shaped structure. During the process of the telescopic tube 401 driving the sliding sleeve 501 to slide down, when the roller 604 at the bottom of the drive bar 603 contacts the inclined block 605 on the housing 1, the roller 604 will cooperate with the inclined surface on the inclined block 605. At this time, the roller 604 rolls down along the inclined surface and drives the drive bar 603 and the sleeve 601 to continue to move outward a certain distance, so that the inner end of the sleeve 601 is no longer locked with the bottom of the telescopic tube 401. At this time, the sleeve 601 releases the restriction on the position of the sliding sleeve 501. The setting of the inclined block 605 and the roller 604 avoids the problem that the operator always needs to pull the drive bar 603 outward, simplifying the operation process.

[0026] Specifically, such as Figure 2 , Figure 6 and Figures 8-11As shown, when the roller 604 rolls down the inclined plane on the inclined block 605, the roller 604 will abut against the drive block 308 at the center of the inclined block 605. A retractable structure 3 is connected to the housing 1. The retractable structure 3 includes a guide rod 301 and a buffer plate 302 slidably connected to the guide rod 301. Four guide rods 301 are fixedly connected inside the housing 1. A first spring 303 is fixedly connected between the buffer plate 302 and the housing 1. The first spring 303 at the bottom of the buffer plate 302 acts as a buffer. The housing 1 is equipped with two slide bars 304. One slide bar 304 is fixedly connected to the housing 1, and the other slide bar 304 has a threaded end and is threadedly connected to the housing 1. A handle 307 is fixedly connected to one of the slide bars 304. A baffle 305 is slidably connected between the two slide bars 304. A second spring 306 is fixedly connected to the baffle 305 and the housing 1. A slanted groove 310 is formed on the baffle 305. A drive block 308 is slidably connected to the housing 1. The top of the drive block 308... The drive block 308 is slidably connected to the inclined block 605, and the bottom of the drive block 308 is slidably engaged with the inclined groove 310. The drive block 308 is fixedly connected to the housing 1 with a third spring 309. The drive block 308 slides down and compresses the third spring 309. During the downward movement of the drive block 308, its bottom will slide with the inclined groove 310 on the baffle 305, causing the baffle 305 to slide outward along the two slide bars 304 and compress the second spring 306. During this process, the inner end of the baffle 305 no longer obstructs the base 201. Then, by holding the telescopic tube 401, the entire structure consisting of the base 201 and the telescopic tube 401 will slowly slide down along the guide rod 301 under the action of gravity until the bottom of the base 201 touches the buffer plate 302. This achieves the retraction of the entire structure consisting of the telescopic tube 401 and the bottom tube 206 into the housing 1, further reducing the overall volume of the equipment, facilitating subsequent transportation, and avoiding the problem of damage to the camera body 9 due to its large size during transportation.

[0027] Specifically, such as Figure 1 , Figures 3-6 and Figure 9As shown, the telescopic tube 401 is provided with a folding structure 7, which includes a mounting sleeve 701 and a connecting frame 702 fixedly connected to the mounting sleeve 701. The mounting sleeve 701 is fixedly connected to the top of the telescopic tube 401, and the connecting frame 702 is fixed to the top of the telescopic tube 401 through the mounting sleeve 701, providing strong sturdiness. A load-bearing frame 703 is provided on the connecting frame 702, and a second rotating shaft 704 is fixedly connected to the load-bearing frame 703. The second rotating shaft 704 is rotatably connected to the connecting frame 702. An insertion hole 705 is provided on the second rotating shaft 704, and an insertion strip 706 is slidably connected to the connecting frame 702. The insert 706 and the socket 705 engage with each other. After the bottom part of the telescopic tube 401 is retracted into the box 1, the insert 706 on the connecting frame 702 is pulled out. At this time, the insert 706 is no longer engaged with the socket 705. Under the action of gravity, the camera body 9 and the load-bearing frame 703 rotate around the second pivot 704 at a certain angle until the load-bearing frame 703 is close to parallel with the telescopic tube 401. At this time, the load-bearing frame 703 is effectively folded, reducing the space occupied by the camera body 9 and reducing the probability of the camera body 9 being bumped during transportation. It is highly practical.

[0028] Specifically, such as Figure 1 and Figures 4-5As shown, a rotating structure 8 is installed on the load-bearing frame 703. The rotating structure 8 includes a third rotating ring 801 and a fourth rotating ring 802 located inside the third rotating ring 801. The third rotating ring 801 is fixedly connected to the load-bearing frame 703. A plurality of second ball bearings 803 are provided between the third rotating ring 801 and the fourth rotating ring 802. A motor 804 is fixedly connected to the bottom surface of the load-bearing frame 703. A connecting sleeve 805 is engaged with the output shaft of the motor 804. The connecting sleeve 805 and the output shaft of the motor 804 are fixedly connected by a pin 806. A mating block 807 is fixedly connected to the connecting sleeve 805. A threaded post 808 is fixedly connected to 807. Both the connecting sleeve 805 and the mating block 807 are engaged with the fourth rotating ring 802. If the camera body 9's field of view is obstructed by temporary obstacles or if the monitoring angle of the camera body 9 needs to be adjusted, the control terminal controls the motor 804 at the bottom of the load-bearing frame 703 to rotate. The output shaft of the motor 804 drives the connecting sleeve 805 to rotate via the pin 806. The connecting sleeve 805 then drives the mating block 807 to rotate. Since the hexagonal mating block 807 is engaged between the rotating frame 809 and the fourth rotating ring 802, the two form a [missing information - likely a specific configuration or structure]. The nut 810 acts as a preventer, and the output shaft of the motor 804 drives the rotating frame 809 to rotate. The fourth rotating ring 802 at the bottom of the rotating frame 809 rotates relative to the third rotating ring 801 through the second ball 803, resulting in low friction and smoother rotation of the rotating frame 809. The rotating frame 809 is rotatably connected to the third rotating ring 801. The mating block 807 engages with the center of the rotating frame 809. The mating block 807 has a hexagonal structure, and the nut 810 is threaded onto the threaded post 808. The nut 810 abuts against the rotating frame 809, and the rotating frame 809 is fixedly connected to... The camera body 9 is fixedly connected to the mounting bracket 811. If the camera body 9 needs to be disassembled due to damage, during reinstallation, simply fix the camera body 9 to the rotating bracket 809 via the mounting bracket 811, then align the bottom of the rotating bracket 809 with the third rotating ring 801 and the center position with the threaded post 808, so that the rotating bracket 809 is installed on the third rotating ring 801, and the hexagonal mating block 807 is engaged on the rotating bracket 809. Then, simply tighten the nut 810 on the threaded post 808. The operation is simple and facilitates the quick disassembly and installation of the camera body 9.

[0029] In use, to address the problem of the large overall size of the monitoring equipment making it difficult to transport, this invention simply requires retracting and folding the equipment. By pulling the drive bar 603 outward, the drive bar 603 causes the sleeve 601 to slide outward, stretching the tension spring 602 until the inner end of the sleeve 601 no longer touches the bottom tube 206. Then, with the other hand supporting the telescopic tube 401, it slowly slides down the outer wall of the bottom tube 206 until the telescopic tube 401 and the bottom tube 206 are horizontally aligned. At this point, the bottom tube 206 is quickly retracted into the telescopic tube 401, reducing the total length between the two. At the same time, the telescopic tube 401 will drive the camera body 9 to descend a certain distance, shortening the height of the camera body 9 from the ground, which is convenient for subsequent transportation. Furthermore, during the descent of the telescopic tube 401, the connecting strip 402 at its bottom will slide along the wire groove 403. The wire groove 403 not only prevents the wire harness 505 from being damaged when the telescopic tube 401 descends, but also prevents relative rotation between the telescopic tube 401 and the bottom tube 206. During the downward movement of the sliding sleeve 501 driven by the telescopic tube 401, when the roller 604 at the bottom of the drive bar 603 contacts the inclined block 605 on the housing 1, the roller 604 will engage with the inclined surface on the inclined block 605. At this time, the roller 604 rolls downward along the inclined surface, driving the drive bar 603 and the sleeve 601 to continue moving outward a certain distance, so that the inner end of the sleeve 601 is no longer engaged with the bottom of the telescopic tube 401. At this time, the sleeve 601 releases its position on the sliding sleeve 501. The sliding sleeve 501 allows the first rotating shaft 502, mounting bracket 503, and solar panel 504 to slide freely along the outer wall of the telescopic tube 401, which helps to move the solar panel 504 to the top of the telescopic tube 401, making it easier to retract the telescopic tube 401 into the interior of the housing 1. This avoids the sliding sleeve 501 blocking the telescopic tube 401 from moving down, providing high flexibility. Furthermore, the design of the inclined block 605 and roller 604 avoids the problem of always needing the operator to pull the drive bar 603 outward, simplifying the operation process. As the roller 604 rolls downwards along the inclined plane of the inclined block 605, the roller 604 abuts against the drive block 308 at the center of the inclined block 605, causing the drive block 308 to slide down and compress the third spring 309. During the downward movement of the drive block 308, its bottom will slide against the inclined groove 310 on the baffle 305, causing the baffle 305 to slide outwards along the two slide bars 304 and compress the second spring 306. During this process, the inner end of the baffle 305 no longer obstructs the base 201. Then, by holding the telescopic tube 401, the entire structure consisting of the base 201 and the telescopic tube 401 will slowly move along the guide rod 301 under the action of gravity. The device slowly slides down until the bottom of the base 201 contacts the buffer plate 302. The first spring 303 at the bottom of the buffer plate 302 acts as a buffer, thus enabling the entire structure consisting of the telescopic tube 401 and the bottom tube 206 to retract into the housing 1, further reducing the overall size of the device and facilitating subsequent transportation. This avoids the problem of the camera body 9 being easily damaged during transportation due to its large size. During the retraction process into the housing 1, the sliding sleeve 501 drives the solar panel 504 to slide to the top of the telescopic tube 401 under the resistance of the housing 1, avoiding the occupation of space. Furthermore, the baffle 305 can be moved independently by turning the handle 307, providing high flexibility. After the bottom part of the telescopic tube 401 is retracted into the box 1, the insert 706 on the connecting frame 702 is pulled out. At this time, the insert 706 is no longer engaged with the socket 705. Under the action of gravity, the camera body 9 and the load-bearing frame 703 rotate around the second pivot 704 at a certain angle until the load-bearing frame 703 is close to parallel with the telescopic tube 401. At this time, the load-bearing frame 703 is effectively folded, reducing the space occupied by the camera body 9 and reducing the probability of the camera body 9 being bumped during transportation. It is highly practical. At the same time, the connecting frame 702 is fixed to the top of the telescopic tube 401 by the mounting sleeve 701, which is very sturdy. During use, if it is necessary to focus on monitoring a certain area, simply adjust the orientation of the camera body 9. Turn the knob 204 counterclockwise, and the stop block 205 on the knob 204 moves downward. The stop block 205 does not contact the bottom of the bottom tube 206. At this time, the bottom tube 206 can be rotated to adjust its angle. After the angle of the bottom tube 206 is adjusted, turn the knob 204 clockwise, and the stop block 205 on the knob 204 moves upward. The stop block 205 contacts the bottom of the bottom tube 206 to fix the bottom tube 206, thereby facilitating quick adjustment of the orientation of the camera body 9. At the same time, the rubber ring 203 on the top cover 202 ensures the sealing of the inside of the base 201. The slider 209 is fixedly connected to the outside of the second rotating ring 208. The slider 209 is slidably connected to the base 201 to prevent the second rotating ring 208 from rotating with the base 201, thereby improving the stability of the second rotating ring 208. If the camera body 9 needs to be disassembled due to damage, during reinstallation, simply fix the camera body 9 to the rotating frame 809 using the fixing bracket 811, then align the bottom of the rotating frame 809 with the third rotating ring 801 and the center with the threaded post 808, so that the rotating frame 809 is installed on the third rotating ring 801, and the hexagonal mating block 807 engages with the rotating frame 809. Then, simply tighten the nut 810 onto the threaded post 808. The operation is simple and facilitates the quick disassembly and installation of the camera body 9. Additionally, if the camera body 9's field of view is temporarily obstructed during use, or if the monitoring of the camera body 9 needs adjustment, this method is also applicable. When controlling the angle, the control terminal controls the motor 804 at the bottom of the load-bearing frame 703 to rotate. The output shaft of the motor 804 drives the connecting sleeve 805 to rotate through the pin 806. The connecting sleeve 805 drives the docking block 807 to rotate. Since the hexagonal docking block 807 is engaged between the rotating frame 809 and the fourth rotating ring 802, the two form a whole. The nut 810 plays a role in preventing it from falling off. Then the output shaft of the motor 804 will drive the rotating frame 809 to rotate. The fourth rotating ring 802 at the bottom of the rotating frame 809 rotates relative to the third rotating ring 801 through the second ball 803. The friction is small, making the rotating frame 809 rotate more smoothly.

[0030] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0031] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An intelligent monitoring device based on a large model algorithm, characterized by, The utility model relates to a solar energy charging device, including box (1), be located on the angle adjusting structure (2) of box (1), be located on the elongated structure (4) of angle adjusting structure (2), be connected on the mounting structure (5) of elongated structure (4), be located on the wiring structure (6) of mounting structure (5), The angle adjusting structure (2) includes bottom pipe (206), the bottom pipe (206) is arranged on the box (1), the elongated structure (4) includes telescopic pipe (401), the telescopic pipe (401) is slidably connected to the bottom pipe (206), the mounting structure (5) includes sliding sleeve (501), the sliding sleeve (501) is slidably connected to the telescopic pipe (401), the wiring structure (6) includes sleeve (601) and fixedly connected on sleeve (601) on spring (602), the sleeve (601) is slidably connected to the sliding sleeve (501), the spring (602) is fixedly connected between the sliding sleeve (501), the end of sleeve (601) and telescopic pipe (401) are mutually clamped, the top surface of bottom pipe (206) is in contact with sleeve (601), the driving bar (603) is fixedly connected to the sleeve (601), the driving bar (603) is slidably connected between the sliding sleeve (501), the box (1) is fixedly connected with inclined block (605).

2. The intelligent monitoring device based on large model algorithm of claim 1, wherein: The bottom of telescopic pipe (401) is fixedly connected with connecting strip (402), two wire grooves (403) are formed in the bottom pipe (206), and the connecting strip (402) is slidably connected with the wire groove (403).

3. The intelligent monitoring device based on large model algorithm of claim 1, wherein: The sliding sleeve (501) is rotatably connected with two first rotation shafts (502), the first rotation shaft (502) is fixedly connected with the mounting frame (503) between the two first rotation shafts (502), the solar panel (504) is fixedly connected to the mounting frame (503), the wire harness (505) is fixedly connected to the solar panel (504), and the wire harness (505) penetrates the sleeve (601).

4. The intelligent monitoring device based on large model algorithm of claim 1, wherein: The bottom of driving bar (603) is rotatably connected with roller (604), and the sleeve (601) is in the shape of "T".

5. The intelligent monitoring device based on large model algorithm of claim 1, wherein: The box (1) is connected with the contraction structure (3), the contraction structure (3) includes guide rod (301) and buffer plate (302) slidably connected to guide rod (301), four guide rods (301) are fixedly connected in the box (1), and the first spring (303) is fixedly connected between the buffer plate (302) and the box (1).

6. The intelligent monitoring device based on large model algorithm of claim 5, wherein: The box (1) is provided with two sliding strips (304), one of which is fixedly connected with the box (1), and the other end of the other sliding strip (304) is provided with a thread and is threadedly connected with the box (1), one of the sliding strips (304) is fixedly connected with a handle (307), the two sliding strips (304) are slidingly connected with a baffle (305), the baffle (305) is fixedly connected with a second spring (306) between the baffle (305) and the box (1), the baffle (305) is provided with an inclined slot (310), the box (1) is slidingly connected with a driving block (308), the top of the driving block (308) is slidingly connected with an inclined block (605), the bottom of the driving block (308) is slidingly connected with the inclined slot (310), and the driving block (308) is fixedly connected with a third spring (309) between the driving block (308) and the box (1).

7. The intelligent monitoring device based on large model algorithm of claim 5, wherein: The four guide rods (301) are slidingly connected with a base (201), the bottom surface of the base (201) abuts against the baffle (305), the base (201) is fixedly connected with a top cover (202), the top cover (202) is clamped with a rubber ring (203), the center position of the top cover (202) is slidingly connected with a bottom pipe (206), the bottom pipe (206) is slidingly connected with the rubber ring (203), the bottom of the bottom pipe (206) is fixedly connected with a first rotating ring (207), the outer side of the first rotating ring (207) is provided with a second rotating ring (208), a plurality of first balls (210) are arranged between the first rotating ring (207) and the second rotating ring (208), the outer side of the second rotating ring (208) is fixedly connected with a sliding block (209), and the sliding block (209) is slidingly connected with the base (201).

8. The intelligent monitoring device based on large model algorithm of claim 7, wherein: The center position of the base (201) is threadedly connected with a knob (204), the top surface of the knob (204) is fixedly connected with an abutting block (205), and the top surface of the abutting block (205) abuts against the bottom pipe (206).

9. The intelligent monitoring device based on large model algorithm of claim 2, wherein: The telescopic pipe (401) is provided with a folding structure (7), the folding structure (7) comprises a mounting sleeve (701) and a connecting frame (702) fixedly connected to the mounting sleeve (701), the top of the telescopic pipe (401) is fixedly connected with the mounting sleeve (701), the connecting frame (702) is provided with a bearing frame (703), the bearing frame (703) is fixedly connected with a second rotating shaft (704), the second rotating shaft (704) is rotatably connected with the connecting frame (702), the second rotating shaft (704) is provided with a plug hole (705), and the connecting frame (702) is slidingly connected with a plug strip (706).

10. The intelligent monitoring device based on large model algorithm of claim 9, wherein: The load-bearing frame (703) is provided with a rotating structure (8), the rotating structure (8) comprises a third rotating ring (801) and a fourth rotating ring (802) arranged on the inner side of the third rotating ring (801), the load-bearing frame (703) is fixedly connected with the third rotating ring (801), a plurality of second balls (803) are arranged between the third rotating ring (801) and the fourth rotating ring (802), the bottom surface of the load-bearing frame (703) is fixedly connected with a motor (804), the output shaft of the motor (804) is clamped with a connecting sleeve (805), the connecting sleeve (805) and the output shaft of the motor (804) are fixedly connected through a latch (806), the connecting sleeve (805) is fixedly connected with a butt block (807), the butt block (807) is fixedly connected with a threaded column (808), the connecting sleeve (805) and the butt block (807) are clamped with each other between the fourth rotating ring (802), the third rotating ring (801) is rotatably connected with a rotating frame (809), the butt block (807) and the rotating frame (809) are clamped at the center position, the butt block (807) is a hexagonal structure, the threaded column (808) is threadedly connected with a nut (810), the nut (810) abuts against the rotating frame (809), the rotating frame (809) is fixedly connected with a fixed frame (811), and the fixed frame (811) is fixedly connected with a camera body (9).

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