An isolation facility with anti-fall function and method of use thereof

Abstract

The application relates to the technical field of isolation facilities, in particular to an isolation facility with a falling prevention function, which comprises a fixed base, support vertical rods are symmetrically connected to the end face of the fixed base, isolation guardrails are connected to the side walls of the support vertical rods, folding support structures are connected to the side walls of the support vertical rods, telescopic moving structures are connected to the bottom of the fixed base, and adjustable damping structures are connected to the isolation guardrails. The folding support structure is arranged in the isolation facility with the falling prevention function, so that the driving motor in the folding support structure is driven by the pressure sensor, the transmission structure is used to quickly open the folded support feet, the falling of the placing device is prevented, the support feet of the device can be folded and stored when the device is not impacted, the occupied area of the device during use is reduced, the space for transporting the device is reduced during transportation, and the transportation of the device is facilitated.

Description

Technical Field

[0001] This invention relates to the field of isolation facility technology, specifically to an isolation facility with anti-tipping function and its usage method. Background Technology

[0002] At construction sites, isolation facilities are one of the important safety measures used to isolate work areas, prevent unauthorized personnel from entering, and also serve as a safety warning. These isolation facilities include, but are not limited to, fences, warning tapes, and temporary barriers.

[0003] Existing isolation facilities are prone to tipping over when subjected to external impacts. This not only causes damage to the facilities but also requires significant manpower for maintenance. Furthermore, existing anti-tipping isolation facilities often involve increasing the footprint or weight of the base, resulting in a larger footprint and inconvenient transportation. Disassembly and maintenance of traditional isolation facilities also require forklifts, making movement difficult. Additionally, the lack of shock-absorbing structures in existing facilities means that impacts are directly felt, affecting their lifespan. Therefore, a new anti-tipping isolation facility is needed to address these issues. Summary of the Invention

[0004] To address the issue that existing isolation facilities tend to tip over upon impact, causing damage and requiring significant manpower for maintenance, and that existing anti-tipping isolation facilities often increase the footprint or weight of the base, making them inconvenient to transport and use, and requiring forklifts for disassembly and maintenance, further complicates matters, the lack of shock absorption means that impacts are directly felt on the facility. This invention provides an anti-tipping isolation facility to solve these problems.

[0005] To achieve the above objectives, the present invention provides the following technical solution:

[0006] An anti-tipping isolation facility includes a fixed base, with supporting poles symmetrically connected to the end face of the fixed base. Isolation railings are connected to the side walls of the supporting poles, and a folding support structure is connected to the side walls of the supporting poles. This folding support structure expands when subjected to impact and folds away when not subjected to impact. A telescopic moving structure is connected to the bottom of the fixed base, allowing it to retract freely. An adjustable shock-absorbing structure is connected to the isolation railing, allowing its height to be adjusted according to the location of use. A controller is connected to the side wall of the supporting pole on the right side, and multiple sets of batteries are connected to the end face of the fixed base.

[0007] As a preferred embodiment of the present invention, the folding support structure includes a fixed housing connected to the end face of a fixed base. A drive motor is connected to the inner cavity of the fixed housing via a connecting plate. The drive end of the drive motor is connected to a drive rod via a coupling. A driven helical gear is meshed with a drive helical gear on the side wall of the drive rod. A rotating rod is connected to the center of the driven helical gear. Driven bevel gears are meshed with drive bevel gears on the side wall of the rotating rod and within the inner cavities of the two sets of support pillars. A driven rod is connected to the center of each driven bevel gear. An adjusting roller is connected to the side wall of the driven rod. A movable slider is provided on the side wall of the adjusting roller. A spiral groove is symmetrically formed on the side wall of the adjusting roller. An adjusting guide post is connected to the inner wall of the movable slider and within the spiral groove. Supporting connecting rods are symmetrically rotatably connected to the side wall of the movable slider via rotating seats. The other end of the supporting connecting rod is connected to a rotating seat via a rotating seat. A rotating base is rotatably connected to a rotating connecting rod. One end of the rotating connecting rod is connected to a connecting rod. A connecting plate is connected to the side wall of the connecting rod and to one side of the rotating connecting rod. The other end of the rotating connecting rod is connected to a connecting shaft. An L-shaped connecting plate is connected to the side wall of the connecting shaft. The side wall of the L-shaped connecting plate is rotatably connected to the other end of the connecting plate via a rotating shaft. A rotating gear is connected to one end of the connecting shaft and to one side of the L-shaped connecting plate. A connecting gear is meshed on the side wall of the rotating gear. A connecting shaft is connected to the center of the connecting gear and to the L-shaped connecting plate. The other end of the connecting shaft is connected to a driven connecting rod. The other end of the driven connecting rod is connected to a driving slide rod. A supporting rotating plate is provided on the side wall of the driving slide rod. A fixed connecting plate is connected to the bottom of the supporting rotating plate. The end face of the fixed connecting plate is rotatably connected to the side wall of the fixed base via a hinge. A supporting foot is connected to the bottom of the fixed connecting plate.

[0008] In a preferred embodiment of the present invention, the telescopic moving structure includes a connecting box, which is connected to the bottom of a fixed base. A rotating motor is connected to the inner cavity of the connecting box via a connecting seat. The drive end of the rotating motor is connected to a driving rod via a coupling. A transmission helical gear is meshed with a rotating helical gear on the side wall of the driving rod. A rotating rod is connected to the center of the transmission helical gear. Rotating cams are connected to both ends of the rotating rod. A convex cam groove is formed on the side wall of each cam, and a cam lever is correspondingly arranged in the convex cam groove. One end of the cam lever is connected to a connecting plate. A connecting rod is symmetrically connected to the end face of the connecting plate. A rotating curved plate is provided on the outer wall of the connecting rod. A fixed sliding sleeve is rotatably connected to the side wall of the rotating curved plate via a rotating shaft. The fixed sliding sleeve is connected to the end face of the fixed base via a connecting plate. A movable sliding rod is connected in the inner cavity of the fixed sliding sleeve. A limiting rotating shaft is symmetrically connected to the side wall of the movable sliding rod. A driven curved plate is rotatably connected to the side wall of the limiting rotating shaft. The driven curved plate and the rotating curved plate are rotatably connected via a rotating shaft. A movable roller is connected to the bottom of the movable sliding rod. A support seat is connected to the outside of the movable roller and located at the bottom of the fixed base.

[0009] As a preferred embodiment of the present invention, the adjustable shock absorption structure includes an adjusting motor, which is connected to the bottom of the guardrail via a connecting seat. The driving end of the adjusting motor is connected to a rotating connecting rod via a coupling. The other end of the rotating connecting rod is connected to a transmission bevel gear via a rotating bevel gear. An adjusting screw is connected to the center of the transmission bevel gear. A connecting slide is connected to the side wall of the adjusting screw. Multiple pressure sensors are connected to the side wall of the connecting slide. Shock absorbers are connected to the side wall of the connecting slide and on both sides of the pressure sensors. The other ends of the pressure sensors and shock absorbers are connected to guide wheels via a connecting plate.

[0010] In a preferred embodiment of the present invention, the battery is connected to the controller via a wire in an electrical connection manner, the drive motor is connected to the controller via a wire in an electrical connection manner, and the drive rod is connected to the side wall of the fixed housing cavity via a bearing seat, wherein the drive rod and the bearing seat are connected in a rotatable connection manner.

[0011] In a preferred embodiment of the present invention, the rotating rod is connected to the side wall of the supporting column via a bearing seat, wherein the rotating rod and the bearing seat are connected by a rotatable connection; the driven rod is connected to the side wall of the inner cavity of the supporting column via a bearing seat, wherein the driven rod and the bearing seat are connected by a rotatable connection; and the spiral groove and the adjusting guide post are connected by a sliding connection.

[0012] The connecting rod is connected to the side wall of the supporting column through a bearing seat. The connection between the connecting rod and the bearing seat is a rotatable connection. The connecting shaft and the L-shaped connecting plate are connected through a bearing. The connection between the connecting shaft and the bearing is also a rotatable connection.

[0013] As a preferred embodiment of the present invention, the connecting shaft and the L-shaped connecting plate are connected by a bearing, wherein the connection between the connecting shaft and the bearing is a rotatable connection, and a sliding groove is provided on the side wall of the supporting rotating plate corresponding to the driving slide rod, wherein the connection between the driving slide rod and the sliding groove is a sliding connection.

[0014] The rotating motor is connected to the controller via a wire in an electrical connection manner. The drive rod is connected to the side wall of the inner cavity of the connecting box via a bearing seat, wherein the drive rod and the bearing seat are connected in a rotatable manner. The rotating rod is connected to the bottom of the fixed base via a bearing seat, wherein the rotating rod and the bearing seat are connected in a rotatable manner.

[0015] As a preferred embodiment of the present invention, the cross-section of the convex cam groove is a convex structure, the connection between the convex cam groove and the cam lever is a sliding connection, and a sliding groove is provided on the rotating curved plate corresponding to the connecting pull rod, wherein the connection between the connecting pull rod and the sliding groove is a sliding connection, and the connection between the fixed sliding sleeve and the movable sliding rod is a sliding connection.

[0016] The fixed sliding sleeve has a sliding groove on its side wall corresponding to the limiting rotating shaft. The limiting rotating shaft and the sliding groove are connected by a sliding connection. The support base is a hollow structure. The adjusting motor is connected to the controller by a wire and the connection method is electrical connection. The rotating connecting rod is connected to the bottom of the isolation guardrail by a bearing seat. The rotating connecting rod and the bearing seat are connected by a rotating connection.

[0017] In a preferred embodiment of the present invention, the adjusting screw is connected to the isolation guardrail via a bearing seat, wherein the adjusting screw and the bearing seat are connected by rotation, the adjusting screw and the connecting slide plate are connected by thread, and the connecting slide plate is provided with a groove corresponding to the isolation guardrail, wherein the isolation guardrail and the groove are connected by sliding, and the pressure sensor is connected to the controller via a wire in an electrical connection manner.

[0018] The specific steps for using an isolation facility with anti-tipping function are as follows:

[0019] Step 1: Control the adjusting motor through the controller. When the driving end of the adjusting motor rotates, it sequentially drives the rotating connecting rod, rotating bevel gear, transmission bevel gear and adjusting screw to rotate. When the adjusting screw rotates, it adjusts the height of the pressure sensor, shock absorber and guide wheel on the connecting slide.

[0020] Step Two: The controller controls the drive motor. When the drive motor rotates, it sequentially drives the drive rod, drive helical gear, driven helical gear, rotating rod, drive bevel gear, driven bevel gear, driven rod, and adjusting roller to rotate. When the adjusting roller rotates, it drives the moving slider to move on the side wall of the adjusting roller. When the moving slider moves on the side wall of the adjusting roller, it drives the support connecting rod, rotating connecting rod, connecting connecting plate, connecting shaft, L-shaped connecting plate, rotating gear, connecting gear, connecting shaft, driven connecting rod, drive slide rod, support rotating plate, fixed connecting plate, and support feet to rotate, and makes the support feet contact the ground, thereby preventing the device from tipping over upon impact.

[0021] Step 3: Control the rotating motor via the controller. When the driving end of the rotating motor rotates, it sequentially drives the driving rod, rotating helical gear, transmission helical gear, rotating rod, and rotating cam to rotate. When the rotating cam rotates, it drives the cam lever, connecting plate, and connecting rod to move downwards. When the connecting rod moves downwards, it drives the driven curved plate and rotating curved plate to rotate. When the driven curved plate rotates, it drives the moving roller on the moving slide rod to move downwards, so that the moving roller contacts the ground and lifts the device, thus facilitating the movement of the device.

[0022] Compared with the prior art, the beneficial effects of the present invention are:

[0023] In this invention, a foldable support structure is installed in the isolation facility with anti-tipping function. The drive motor in the foldable support structure, under the action of the pressure sensor, and through the transmission structure, enables the foldable support legs to be quickly opened to prevent the device from tipping over. At the same time, when not subjected to impact, the support legs of the device can be folded up, thereby reducing the area occupied by the device during use and also reducing the space required for transportation, thus facilitating the transport of the device.

[0024] In this invention, a telescopic moving structure is set in the isolation facility with anti-tipping function. The rotating motor in the telescopic moving structure is used to transmit the moving rollers through the transmission structure, so that the moving rollers can be freely retracted, making it convenient to move the isolation facility when disassembling or maintaining the device.

[0025] In this invention, by setting an adjustable shock-absorbing structure in the isolation facility with anti-tipping function, the height of the pressure sensor and the shock absorber can be adjusted by the adjusting motor in the adjustable shock-absorbing structure through the transmission structure. Depending on the location of use, when the isolation facility is impacted, the impact point should hit the guide wheel as much as possible, thereby improving the service life of the device. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the isolateral structure of the present invention;

[0027] Figure 2 For the present invention Figure 1 A schematic diagram of the unfolded structure;

[0028] Figure 3 For the present invention Figure 2 Partial structural diagram;

[0029] Figure 4 This is a schematic diagram of the foldable support structure of the present invention;

[0030] Figure 5 For the present invention Figure 4 Partial structural diagram;

[0031] Figure 6 This is a schematic diagram of the telescopic moving structure of the present invention;

[0032] Figure 7 For the present invention Figure 6 Partial structural diagram;

[0033] Figure 8 This is a schematic diagram of the adjustable shock absorption structure of the present invention.

[0034] In the diagram: 1. Fixed base; 2. Supporting pole; 3. Isolation railing; 4. Folding support structure; 5. Telescopic moving structure; 6. Adjustable shock absorption structure; 7. Controller; 8. Battery; 401. Fixed housing; 402. Drive motor; 403. Drive rod; 404. Drive helical gear; 405. Driven helical gear; 406. Rotating rod; 407. Driven bevel gear; 408. Driven rod; 409. Adjusting roller; 410. Moving slider; 411. Spiral groove; 412. Adjusting guide post; 413. Supporting connecting rod; 414. Rotating connecting rod; 415. Connecting rotating rod; 416. Connecting connecting plate; 417. Connecting rotating shaft; 418. L-shaped connecting plate; 419. Rotating gear; 420. Connecting gear; 421. Connecting rotating shaft; 422. Driven connecting rod; 423. Drive sliding rod; 4 24. Support plate; 425. Fixed connecting plate; 426. Support foot; 501. Connecting housing; 502. Rotating motor; 503. Drive rod; 504. Rotating helical gear; 505. Transmission helical gear; 506. Rotating rod; 507. Rotating cam; 508. Convex cam groove; 509. Cam lever; 510. Connecting plate; 511. Connecting rod; 512. Rotating curved plate; 513. Fixed sliding sleeve; 514. Moving sliding rod; 515. Limiting shaft; 516. Driven curved plate; 517. Moving roller; 518. Support seat; 601. Adjusting motor; 602. Rotating connecting rod; 603. Rotating bevel gear; 604. Transmission bevel gear; 605. Adjusting screw; 606. Connecting slide plate; 607. Pressure sensor; 608. Shock absorber; 609. Guide wheel. Detailed Implementation

[0035] The technical solutions of the present invention will be clearly and completely described below with reference to the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0036] For an example, please refer to... Figure 1-8 The present invention provides a technical solution:

[0037] An isolation facility with anti-tipping function includes a fixed base 1, support poles 2 symmetrically connected to the end face of the fixed base 1, isolation railings 3 connected to the side wall of the support poles 2, a folding support structure 4 connected to the side wall of the support poles 2, a telescopic moving structure 5 connected to the bottom of the fixed base 1, an adjustable shock-absorbing structure 6 connected to the isolation railings 3, a controller 7 connected to the side wall of the support poles 2 on the right side, and multiple sets of batteries 8 connected to the end face of the fixed base 1.

[0038] In this embodiment, reference Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5The folding support structure 4 includes a fixed housing 401, which is connected to the end face of the fixed base 1. A drive motor 402 is connected to the inner cavity of the fixed housing 401 via a connecting plate. The drive end of the drive motor 402 is connected to a drive rod 403 via a coupling. A driven helical gear 405 is meshed with a drive helical gear 404 on the side wall of the drive rod 403. A rotating rod 406 is connected to the center of the driven helical gear 405. The rotating rod 406 is also meshed with drive bevel gears on the side wall of the rotating rod 406 and within the inner cavities of the two sets of support pillars 2. There is a driven bevel gear 407, and a driven rod 408 is connected to the center of the driven bevel gear 407. An adjusting roller 409 is connected to the side wall of the driven rod 408. A movable slider 410 is provided on the side wall of the adjusting roller 409. A spiral groove 411 is symmetrically opened on the side wall of the adjusting roller 409. An adjusting guide post 412 is connected to the inner wall of the movable slider 410 and located in the spiral groove 411. A support connecting rod 413 is symmetrically rotatably connected to the side wall of the movable slider 410 through a rotating seat. The other end of the support connecting rod 413 is rotatably connected to a rotating connecting rod through the rotating seat. A connecting rod 414 is connected to a connecting rod 415 at one end. A connecting plate 416 is connected to the side wall of the connecting rod 415 and to one side of the connecting rod 414. A connecting shaft 417 is connected to the other end of the connecting rod 414. An L-shaped connecting plate 418 is connected to the side wall of the connecting shaft 417. The side wall of the L-shaped connecting plate 418 is rotatably connected to the other end of the connecting plate 416 via a rotating shaft. A rotating gear 419 is connected to one end of the connecting shaft 417 and to one side of the L-shaped connecting plate 418. The side wall of the rotating gear 419... A connecting gear 420 is engaged with the upper part of the connecting gear 420 and is connected to a connecting shaft 421 at the center of the connecting gear 420 and on the L-shaped connecting plate 418. The other end of the connecting shaft 421 is connected to a driven connecting rod 422, and the other end of the driven connecting rod 422 is connected to a driving slide rod 423. A supporting rotating plate 424 is provided on the side wall of the driving slide rod 423. A fixed connecting plate 425 is connected to the bottom of the supporting rotating plate 424. The end face of the fixed connecting plate 425 is rotatably connected to the side wall of the fixed base 1 by a hinge. A supporting foot 426 is connected to the bottom of the fixed connecting plate 425.

[0039] Based on the above structure and its connection relationships, the controller 7 controls the drive motor 402. When the drive end of the drive motor 402 rotates, it sequentially drives the drive rod 403, drive helical gear 404, driven helical gear 405, rotating rod 406, drive bevel gear, driven bevel gear 407, driven rod 408, and adjusting roller 409 to rotate. When the adjusting roller 409 rotates, it drives the moving slider 410 to move on the side wall of the adjusting roller 409. When block 410 moves on the side wall of adjusting roller 409, it drives the support connecting rod 413 to rotate the connecting rod 414, connecting rod 415, connecting plate 416, connecting shaft 417, L-shaped connecting plate 418, rotating gear 419, connecting gear 420, connecting shaft 421, driven connecting rod 422, driving slide rod 423, support rotating plate 424, fixed connecting plate 425 and support foot 426 to rotate, and makes the support foot 426 contact the ground, thereby preventing the device from tipping over upon impact;

[0040] Furthermore, the battery 8 is electrically connected to the controller 7 via wires, and the drive motor 402 is also electrically connected to the controller 7 via wires. The operation of the drive motor 402 can be controlled by the controller 7.

[0041] Furthermore, the drive rod 403 is connected to the side wall of the inner cavity of the fixed housing 401 via a bearing seat, wherein the drive rod 403 and the bearing seat are rotatably connected. The rotating rod 406 is connected to the side wall of the supporting rod 2 via a bearing seat, wherein the rotating rod 406 and the bearing seat are rotatably connected. The driven rod 408 is connected to the side wall of the inner cavity of the supporting rod 2 via a bearing seat, wherein the driven rod 408 and the bearing seat are rotatably connected. The spiral groove 411 and the adjusting guide post 412 are slidably connected. The connecting rotating rod 415 is connected to the side wall of the supporting rod 2 via a bearing seat, wherein the connecting rotating rod 415 is slidably connected. 5. The connection method between the bearing housing and the connecting shaft 417 is a rotatable connection. The connecting shaft 417 and the L-shaped connecting plate 418 are connected by a bearing. The connecting shaft 421 and the L-shaped connecting plate 418 are connected by a bearing. The connecting shaft 421 and the bearing are connected by a rotatable connection. The side wall of the supporting rotating plate 424 is provided with a groove corresponding to the driving slide rod 423. The driving slide rod 423 and the groove are connected by a sliding connection. Through the interaction between the various components in the folding support structure 4, the folding support structure 4 can operate smoothly during use.

[0042] In this embodiment, reference Figure 1 , Figure 2 , Figure 3 , Figure 6 and Figure 7The telescopic moving structure 5 includes a connecting box 501, which is connected to the bottom of the fixed base 1. A rotating motor 502 is connected to the inner cavity of the connecting box 501 via a connecting seat. The drive end of the rotating motor 502 is connected to a driving rod 503 via a coupling. A transmission helical gear 505 is meshed with a rotating helical gear 504 on the side wall of the driving rod 503. A rotating rod 506 is connected to the center of the transmission helical gear 505. Rotating cams 507 are connected to both ends of the rotating rod 506. A convex cam groove 508 is provided on the side wall of the rotating cam 507. A cam lever 509 is correspondingly provided in the convex cam groove 508. One end of the cam lever 509 is connected to a connecting plate 510. A connecting rod 511 is symmetrically connected to the end face of the 0. A rotating curved plate 512 is provided on the outer wall of the connecting rod 511. A fixed sliding sleeve 513 is rotatably connected to the side wall of the rotating curved plate 512 via a rotating shaft. The fixed sliding sleeve 513 is connected to the end face of the fixed base 1 via a connecting plate. A movable sliding rod 514 is connected in the inner cavity of the fixed sliding sleeve 513. A limiting rotating shaft 515 is symmetrically connected to the side wall of the movable sliding rod 514. A driven curved plate 516 is rotatably connected to the side wall of the limiting rotating shaft 515. The driven curved plate 516 and the rotating curved plate 512 are rotatably connected via a rotating shaft. A movable roller 517 is connected to the bottom of the movable sliding rod 514. A support seat 518 is connected to the outside of the movable roller 517 and located at the bottom of the fixed base 1.

[0043] Based on the above structure and the connection relationship of the above structure, the controller 7 controls the rotating motor 502. When the driving end of the rotating motor 502 rotates, it sequentially drives the driving rod 503, the rotating helical gear 504, the transmission helical gear 505, the rotating rod 506 and the rotating cam 507 to rotate. When the rotating cam 507 rotates, it drives the cam lever 509, the connecting plate 510 and the connecting rod 511 to move downward. When the connecting rod 511 moves downward, it drives the driven curved plate 516 and the rotating curved plate 512 to rotate. When the driven curved plate 516 rotates, it drives the moving roller 517 on the moving slide rod 514 to move downward, so that the moving roller 517 contacts the ground and lifts the device, thereby facilitating the movement of the device.

[0044] Furthermore, the rotary motor 502 is connected to the controller 7 via wires in an electrical connection manner, and the controller 7 controls the operation of the rotary motor 502.

[0045] Furthermore, the drive rod 503 is connected to the side wall of the inner cavity of the connecting housing 501 through a bearing seat. The drive rod 503 is rotatably connected to the bearing seat. The rotating rod 506 is connected to the bottom of the fixed base 1 through a bearing seat. The rotating rod 506 is rotatably connected to the bearing seat. The convex cam groove 508 has a convex cross-section. The convex cam groove 508 is slidably connected to the cam lever 509. A sliding groove is provided on the rotating curved plate 512 corresponding to the connecting pull rod 511. The connecting pull rod 511 is slidably connected to the sliding groove. The fixed sliding sleeve 513 is slidably connected to the moving sliding rod 514. A sliding groove is provided on the side wall of the fixed sliding sleeve 513 corresponding to the limiting rotating shaft 515. The limiting rotating shaft 515 is slidably connected to the sliding groove. The support base 518 has a hollow structure. Through the interaction between the various components in the telescopic moving structure 5, the telescopic moving structure 5 can operate smoothly during use.

[0046] In this embodiment, reference Figure 1 , Figure 2 , Figure 3 and Figure 8 The adjustable shock absorption structure 6 includes an adjusting motor 601, which is connected to the bottom of the isolation guardrail 3 via a connecting seat. The driving end of the adjusting motor 601 is connected to a rotating connecting rod 602 via a coupling. The other end of the rotating connecting rod 602 is connected to a transmission bevel gear 604 via a rotating bevel gear 603. An adjusting screw 605 is connected to the center of the transmission bevel gear 604. A connecting slide plate 606 is connected to the side wall of the adjusting screw 605. Multiple pressure sensors 607 are connected to the side wall of the connecting slide plate 606. Shock absorbers 608 are connected to the side wall of the connecting slide plate 606 and on both sides of the pressure sensors 607. The other ends of the pressure sensors 607 and the shock absorbers 608 are connected to guide wheels 609 via a connecting plate.

[0047] Based on the above structure and the connection relationship of the above structure, the controller 7 controls the adjustment motor 601. When the drive end of the adjustment motor 601 rotates, it sequentially drives the rotating connecting rod 602, the rotating bevel gear 603, the transmission bevel gear 604 and the adjusting screw 605 to rotate. When the adjusting screw 605 rotates, it adjusts the height of the pressure sensor 607, the shock absorber 608 and the guide wheel 609 on the connecting slide plate 606.

[0048] Furthermore, the regulating motor 601 is connected to the controller 7 via a wire in an electrical connection manner, and the pressure sensor 607 is connected to the controller 7 via a wire in an electrical connection manner. The controller 7 controls the operation of the regulating motor 601 and the pressure sensor 607.

[0049] Furthermore, the rotating connecting rod 602 is connected to the bottom of the isolation guardrail 3 via a bearing seat, wherein the connection between the rotating connecting rod 602 and the bearing seat is a rotating connection. The adjusting screw 605 is connected to the isolation guardrail 3 via a bearing seat, wherein the connection between the adjusting screw 605 and the bearing seat is a rotating connection. The connection between the adjusting screw 605 and the connecting slide plate 606 is a threaded connection. The connecting slide plate 606 has a groove corresponding to the isolation guardrail 3, wherein the connection between the isolation guardrail 3 and the groove is a sliding connection. Through the interaction between the various components in the adjustable shock-absorbing structure 6, the adjustable shock-absorbing structure 6 can operate smoothly during use.

[0050] The workflow of this invention is as follows: When using the isolation facility with anti-tipping function, first connect the device to the power supply to put it into operation. Then, depending on the usage conditions, start the adjusting motor 601 when it is electrically connected to the controller 7 via a wire. This causes the drive end of the adjusting motor 601 to rotate. The rotating connecting rod 602 is connected to the bottom of the isolation barrier 3 via a bearing seat, and the rotating connecting rod 602 is rotated when it is rotatably connected to the bearing seat. The other end of the rotating connecting rod 602 is rotated via a bevel gear. When the wheel 603 is meshed with the transmission bevel gear 604, it drives the transmission bevel gear 604 to rotate. When the adjusting screw 605 is connected to the isolation guardrail 3 through the bearing seat, and the adjusting screw 605 is rotated, the adjusting screw 605 is rotated. When the adjusting screw 605 is threaded to the connecting slide plate 606, and the connecting slide plate 606 is provided with a groove corresponding to the isolation guardrail 3, and the isolation guardrail 3 is slidably connected to the groove, the height of the pressure sensor 607, shock absorber 608 and guide wheel 609 on the connecting slide plate 606 is adjusted.

[0051] When the isolation facility is impacted, the pressure sensor 607 is electrically connected to the controller 7 via a wire, the battery 8 is electrically connected to the controller 7 via a wire, and the drive motor 402 is electrically connected to the controller 7 via a wire. This causes the drive end of the drive motor 402 to rotate. The drive rod 403 is connected to the side wall of the inner cavity of the fixed housing 401 via a bearing seat, and the drive rod 403 is rotatably connected to the bearing seat. Furthermore, the driven helical gear 405 is meshed with the drive helical gear 404 on the side wall of the drive rod 403, causing the driven helical gear 405 to rotate. The rotating rod 406 is connected to the side wall of the supporting rod 2 via a bearing seat. The rotating rod 406 is rotated when connected to the bearing seat in a rotatable manner. Driven bevel gears 407 are connected to the side wall of the rotating rod 406 and located within the inner cavities of both sets of supporting rods 2 via meshing drive bevel gears, thus rotating the driven bevel gears 407. The driven rod 408 is connected to the side wall of the inner cavity of the supporting rod 2 via a bearing seat. The driven rod 408 is rotated when connected to the bearing seat in a rotatable manner. When the driven rod 408 rotates, it drives the adjusting roller 409 to rotate. A movable slider 410 is provided on the side wall of the adjusting roller 409, and symmetrical openings are provided on the side wall of the adjusting roller 409. A spiral groove 411 is provided, and an adjusting guide post 412 is connected to the inner wall of the movable slider 410 within the spiral groove 411. The spiral groove 411 and the adjusting guide post 412 are slidably connected, causing the movable slider 410 to move along the side wall of the adjusting roller 409. A support rod 413 is symmetrically connected to the side wall of the movable slider 410 via a rotating seat. The other end of the support rod 413 is rotatably connected to a rotating rod 414 via the rotating seat. One end of the rotating rod 414 is connected to a connecting rod 415. A connecting plate 416 is connected to the side wall of the connecting rod 415 and to one side of the rotating rod 414. The other end of the rotating rod 414 is connected to a connecting shaft 417. An L-shaped... The connecting plate 418, L-shaped, is rotatably connected to the other end of the connecting plate 416 via a rotating shaft on its side wall. A rotating gear 419 is connected to one end of the connecting shaft 417, located on one side of the L-shaped connecting plate 418. A connecting gear 420 meshes with the side wall of the rotating gear 419. A connecting shaft 421 is connected to the center of the connecting gear 420, located on the L-shaped connecting plate 418. A driven connecting rod 422 is connected to the other end of the connecting shaft 421. A driving slide rod 423 is connected to the other end of the driven connecting rod 422. A supporting rotating plate 424 is provided on the side wall of the driving slide rod 423. A fixed connecting plate 425 is connected to the bottom of the supporting rotating plate 424. The end face of the fixed connecting plate 425 is rotatably connected to the side wall of the fixed base 1 via a hinge.The bottom of the fixed connecting plate 425 is connected to a support foot 426. The connecting rotating rod 415 is connected to the side wall of the supporting upright 2 via a bearing seat. The connecting rotating rod 415 and the bearing seat are rotatably connected. The connecting rotating shaft 417 and the L-shaped connecting plate 418 are connected via a bearing. The connecting rotating shaft 417 and the bearing are rotatably connected. The connecting rotating shaft 421 and the L-shaped connecting plate 418 are connected via a bearing. The connecting rotating shaft 421 and the bearing are rotatably connected. A sliding groove is provided on the side wall of the supporting rotating plate 424, corresponding to the drive sliding rod 423. The drive sliding rod 423 and the sliding groove are slidably connected. This allows the support foot 426 at the bottom of the fixed connecting plate 425 to be spread open and in contact with the ground, thereby preventing the device from tipping over upon impact.

[0052] When the device needs to be moved, the rotating motor 502 is started under the condition that the rotating motor 502 is connected to the controller 7 through a wire and the connection method is electrical connection, so that the drive end of the rotating motor 502 rotates. The drive rod 503 is connected to the side wall of the inner cavity of the connecting housing 501 through a bearing seat. Under the condition that the connection method between the drive rod 503 and the bearing seat is rotatable connection, the drive rod 503 is rotated. Under the condition that the drive rod 503 is connected to the transmission helical gear 505 through the rotating helical gear 504, the transmission helical gear 505 is driven. 5. Rotation: The rotating rod 506 is connected to the bottom of the fixed base 1 via a bearing seat. The rotating rod 506 is rotated when connected to the bearing seat. When the rotating rod 506 rotates, it drives the rotating cam 507 to rotate. The convex cam groove 508 has a convex cross-section and is slidably connected to the cam lever 509. This causes the cam lever 509, connecting plate 510, and connecting rod 511 to move downwards. The cam lever 507, connected to the rotating curved plate 512, and the connecting rod 507... 11 is provided with a corresponding slide groove, wherein the connecting rod 511 is connected to the slide groove by a sliding connection. A rotating curved plate 512 is provided on the outer wall of the connecting rod 511. A fixed sliding sleeve 513 is rotatably connected to the side wall of the rotating curved plate 512 via a rotating shaft. The fixed sliding sleeve 513 is connected to the end face of the fixed base 1 via a connecting plate. A movable sliding rod 514 is connected in the inner cavity of the fixed sliding sleeve 513. A limiting rotating shaft 515 is symmetrically connected to the side wall of the movable sliding rod 514. A driven curved plate 516 is rotatably connected to the side wall of the limiting rotating shaft 515. The driven curved plate 516 and the rotating... The movable plates 512 are rotatably connected by a rotating shaft. The bottom of the movable slide rod 514 is connected to a movable roller 517. The fixed slide sleeve 513 is slidably connected to the movable slide rod 514. A groove is opened on the side wall of the fixed slide sleeve 513 corresponding to the limiting rotating shaft 515. The limiting rotating shaft 515 is slidably connected to the groove. With the support base 518 having a hollow structure, the movable roller 517 on the movable slide rod 514 moves downward, so that the movable roller 517 contacts the ground and lifts the device, thereby facilitating the movement of the device.

[0053] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An isolation facility with anti-tipping function, comprising a fixed base (1), characterized in that: The fixed base (1) is symmetrically connected to the end face of the support rod (2), the side wall of the support rod (2) is connected to the isolation railing (3), the side wall of the support rod (2) is connected to the folding support structure (4), wherein the folding support structure (4) is opened when subjected to impact force and folded up when not subjected to impact, the bottom of the fixed base (1) is connected to the telescopic moving structure (5), wherein the telescopic moving structure (5) can be freely retracted, the isolation railing (3) is connected to the adjustable shock absorption structure (6), wherein the adjustable shock absorption structure (6) can be adjusted in height according to the position of use, the side wall of the support rod (2) on the right side is connected to the controller (7), and multiple sets of batteries (8) are connected to the end face of the fixed base (1). The folding support structure (4) includes a fixed housing (401), which is connected to the end face of the fixed base (1). A drive motor (402) is connected to the inner cavity of the fixed housing (401) via a connecting plate. The drive end of the drive motor (402) is connected to a drive rod (403) via a coupling. A driven helical gear (405) is meshed with a drive helical gear (404) on the side wall of the drive rod (403). A rotating rod (406) is connected to the center of the driven helical gear (405). A drive bevel gear is meshed with a drive bevel gear on the side wall of the rotating rod (406) and in the inner cavity of the two sets of support rods (2). Driven bevel gear (407), driven rod (408) is connected to the center of driven bevel gear (407), adjusting roller (409) is connected to the side wall of driven rod (408), movable slider (410) is provided on the side wall of adjusting roller (409), spiral grooves (411) are symmetrically opened on the side wall of adjusting roller (409), adjusting guide post (412) is connected to the inner wall of movable slider (410) and located in spiral groove (411), support connecting rod (413) is symmetrically rotatably connected to the side wall of movable slider (410) through rotating seat, and the other end of support connecting rod (413) is rotatably connected to rotating connecting rod (413) through rotating seat. 414), one end of the rotating connecting rod (414) is connected to a connecting rotating rod (415), a connecting plate (416) is connected to the side wall of the connecting rotating rod (415) and located on one side of the rotating connecting rod (414), the other end of the rotating connecting rod (414) is connected to a connecting rotating shaft (417), an L-shaped connecting plate (418) is connected to the side wall of the connecting rotating shaft (417), the side wall of the L-shaped connecting plate (418) is rotatably connected to the other end of the connecting plate (416) via a rotating shaft, one end of the connecting rotating shaft (417) and located on one side of the L-shaped connecting plate (418) is connected to a rotating gear (419), the side wall of the rotating gear (419) is connected to the connecting shaft (417) and located on one side of the L-shaped connecting plate (418), the side wall of the rotating gear (419) is connected to the connecting shaft (417) and located on one side of the L-shaped connecting plate (418). A connecting gear (420) is engaged with the connecting gear (420), and a connecting shaft (421) is connected at the center of the connecting gear (420) and on the L-shaped connecting plate (418). The other end of the connecting shaft (421) is connected to a driven connecting rod (422), and the other end of the driven connecting rod (422) is connected to a driving slide rod (423). A supporting rotating plate (424) is provided on the side wall of the driving slide rod (423). A fixed connecting plate (425) is connected to the bottom of the supporting rotating plate (424). The end face of the fixed connecting plate (425) is rotatably connected to the side wall of the fixed base (1) by a hinge. A supporting foot (426) is connected to the bottom of the fixed connecting plate (425).

2. The isolation facility with anti-tipping function according to claim 1, characterized in that: The telescopic moving structure (5) includes a connecting box (501), which is connected to the bottom of the fixed base (1). A rotating motor (502) is connected to the inner cavity of the connecting box (501) via a connecting seat. The driving end of the rotating motor (502) is connected to a driving rod (503) via a coupling. A transmission helical gear (505) is meshed with a rotating helical gear (504) on the side wall of the driving rod (503). A rotating rod (506) is connected to the center of the transmission helical gear (505). Both ends of the rotating rod (506) are connected to rotating cams (507). A convex cam groove (508) is provided on the side wall of the rotating cam (507). A cam lever (509) is correspondingly provided in the convex cam groove (508). One end of the cam lever (509) is connected to a connecting plate (510). A connecting rod (511) is symmetrically connected to the end face of the connecting rod (510). A rotating curved plate (512) is provided on the outer wall of the connecting rod (511). A fixed sliding sleeve (513) is rotatably connected to the side wall of the rotating curved plate (512) through a rotating shaft. The fixed sliding sleeve (513) is connected to the end face of the fixed base (1) through a connecting plate. A movable sliding rod (514) is connected in the inner cavity of the fixed sliding sleeve (513). A limiting rotating shaft (515) is symmetrically connected to the side wall of the movable sliding rod (514). A driven curved plate (516) is rotatably connected to the side wall of the limiting rotating shaft (515). The driven curved plate (516) and the rotating curved plate (512) are rotatably connected through a rotating shaft. A movable roller (517) is connected to the bottom of the movable sliding rod (514). A support seat (518) is connected to the outside of the movable roller (517) and at the bottom of the fixed base (1).

3. An isolation facility with anti-tipping function according to claim 2, characterized in that: The adjustable shock absorption structure (6) includes an adjusting motor (601), which is connected to the bottom of the isolation guardrail (3) via a connecting seat. The driving end of the adjusting motor (601) is connected to a rotating connecting rod (602) via a coupling. The other end of the rotating connecting rod (602) is connected to a transmission bevel gear (604) via a rotating bevel gear (603). An adjusting screw (605) is connected to the center of the transmission bevel gear (604). A connecting slide plate (606) is connected to the side wall of the adjusting screw (605). Multiple pressure sensors (607) are connected to the side wall of the connecting slide plate (606). Shock absorbers (608) are connected to the side wall of the connecting slide plate (606) and on both sides of the pressure sensors (607). The other ends of the pressure sensors (607) and the shock absorbers (608) are connected to guide wheels (609) via a connecting plate.

4. An isolation facility with anti-tipping function according to claim 1, characterized in that: The battery (8) is connected to the controller (7) via a wire and the connection is electrical. The drive motor (402) is connected to the controller (7) via a wire and the connection is electrical. The drive rod (403) is connected to the side wall of the inner cavity of the fixed housing (401) via a bearing seat, wherein the drive rod (403) and the bearing seat are connected by rotation.

5. An isolation facility with anti-tipping function according to claim 1, characterized in that: The rotating rod (406) is connected to the side wall of the supporting rod (2) through a bearing seat, wherein the rotating rod (406) and the bearing seat are connected by a rotatable connection. The driven rod (408) is connected to the side wall of the inner cavity of the supporting rod (2) through a bearing seat, wherein the driven rod (408) and the bearing seat are connected by a rotatable connection. The spiral groove (411) and the adjusting guide post (412) are connected by a sliding connection. The connecting rod (415) is connected to the side wall of the supporting rod (2) through a bearing seat. The connecting rod (415) and the bearing seat are connected by a rotatable connection. The connecting shaft (417) and the L-shaped connecting plate (418) are connected by a bearing. The connecting shaft (417) and the bearing are connected by a rotatable connection.

6. An isolation facility with anti-tipping function according to claim 2, characterized in that: The connecting shaft (421) and the L-shaped connecting plate (418) are connected by a bearing, wherein the connection between the connecting shaft (421) and the bearing is a rotatable connection. The side wall of the supporting rotating plate (424) is provided with a groove corresponding to the driving slide rod (423), wherein the connection between the driving slide rod (423) and the groove is a sliding connection. The rotating motor (502) is connected to the controller (7) by wires and the connection method is electrical connection. The driving rod (503) is connected to the side wall of the inner cavity of the connecting box (501) by bearing seat. The driving rod (503) and the bearing seat are connected by rotation. The rotating rod (506) is connected to the bottom of the fixed base (1) by bearing seat. The rotating rod (506) and the bearing seat are connected by rotation.

7. An isolation facility with anti-tipping function according to claim 3, characterized in that: The convex cam groove (508) has a convex cross-section. The convex cam groove (508) and the cam lever (509) are connected by a sliding connection. The rotating curved plate (512) is provided with a sliding groove corresponding to the connecting rod (511). The connecting rod (511) and the sliding groove are connected by a sliding connection. The fixed sliding sleeve (513) and the movable sliding rod (514) are connected by a sliding connection. The fixed sliding sleeve (513) has a sliding groove on its side wall corresponding to the limiting rotating shaft (515), wherein the limiting rotating shaft (515) and the sliding groove are connected by a sliding connection. The support base (518) is a hollow structure. The adjusting motor (601) is connected to the controller (7) by a wire and the connection method is an electrical connection. The rotating connecting rod (602) is connected to the bottom of the isolation guardrail (3) by a bearing seat, wherein the rotating connecting rod (602) and the bearing seat are connected by a rotating connection.

8. An isolation facility with anti-tipping function according to claim 3, characterized in that: The adjusting screw (605) is connected to the isolation guardrail (3) through a bearing seat. The adjusting screw (605) and the bearing seat are connected by rotation. The adjusting screw (605) and the connecting slide plate (606) are connected by thread. The connecting slide plate (606) has a groove corresponding to the isolation guardrail (3). The isolation guardrail (3) and the groove are connected by sliding. The pressure sensor (607) is connected to the controller (7) through a wire and the connection is electrical.

9. A method of using an isolation facility with anti-tipping function, implemented according to claim 3, characterized in that, The specific steps are as follows: Step 1: Control the adjusting motor (601) through the controller (7). When the driving end of the adjusting motor (601) rotates, it will drive the rotating connecting rod (602), rotating bevel gear (603), transmission bevel gear (604) and adjusting screw (605) to rotate in sequence. When the adjusting screw (605) rotates, it will adjust the height of the pressure sensor (607), shock absorber (608) and guide wheel (609) on the connecting slide plate (606). Step 2: Control the drive motor (402) through the controller (7). When the drive end of the drive motor (402) rotates, it sequentially drives the drive rod (403), drive helical gear (404), driven helical gear (405), rotating rod (406), drive bevel gear, driven bevel gear (407), driven rod (408), and adjusting roller (409) to rotate. When the adjusting roller (409) rotates, it drives the moving slider (410) to move on the side wall of the adjusting roller (409). When the moving slider (410) moves on the side wall of the adjusting roller (409), it drives the moving slider (410) to move on the side wall of the adjusting roller (409). When the device moves on the side wall, it drives the support link (413), the rotating link (414), the connecting rod (415), the connecting plate (416), the connecting shaft (417), the L-shaped connecting plate (418), the rotating gear (419), the connecting gear (420), the connecting shaft (421), the driven link (422), the driving slide (423), the support plate (424), the fixed plate (425), and the support foot (426) to rotate, and makes the support foot (426) contact the ground, thereby preventing the device from tipping over upon impact; Step 3: Control the rotating motor (502) through the controller (7). When the drive end of the rotating motor (502) rotates, it will drive the drive rod (503), rotating helical gear (504), transmission helical gear (505), rotating rod (506) and rotating cam (507) to rotate in sequence. When the rotating cam (507) rotates, it will drive the cam lever (509), connecting plate (510) and connecting rod (511) to move downward. When the connecting rod (511) moves downward, it will drive the driven curved plate (516) and rotating curved plate (512) to rotate. When the driven curved plate (516) rotates, it will drive the moving roller (517) on the moving slide (514) to move downward, so that the moving roller (517) contacts the ground and lifts the device, thereby facilitating the movement of the device.

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