High-efficiency barrier shelter

Abstract

The utility model discloses a high -efficient barrier square cabin relates to square cabin technical field. High -efficient barrier square cabin includes square cabin main part, swing oil jar, left side rotary arm, right side rotary arm, is provided with hydraulic pump station on square cabin main part, and left side rotary arm, right side rotary arm are through corresponding swing oil jar on square cabin main part control its unfolding or reset, and left side rotary arm, right side rotary arm each at least sets up one swing oil jar cooperation, and left side rotary arm, right side rotary arm's structure is same, and all includes at least two order telescopic arm, and each order telescopic arm is arranged in another telescopic arm's inside gradually, and through drive mechanism completes telescopic arm's unfolding or retraction action. Barrier square cabin can complete the conversion from the state of readiness to the effective interception state in very short time, realizes " just stop just set up", and rapidly forms the solid physical defense line, and occupies the disposal first opportunity, and the barrier process is also high -efficient, and the large -scale structure is folded or is taken back in the cabin under the hydraulic drive, and the whole withdrawal process time -consuming is short.

Description

Technical Field

[0001] This utility model relates to the field of modular cabin technology, specifically a high-efficiency barrier-deploying modular cabin. Background Technology

[0002] Traditional riot control barriers (such as metal barricades and water-filled barriers) primarily rely on manual labor for transport, deployment, connection, and fixation. This approach reveals significant drawbacks in application: First, the heavy equipment makes deployment extremely labor-intensive, inconvenient, and requires multiple personnel, making it particularly vulnerable in emergencies. Second, manual operation leads to excessively long deployment times, hindering the rapid establishment of an effective defensive line in the event of an emergency and delaying optimal response. Third, the equally labor-intensive dismantling and repositioning process is exceptionally cumbersome and time-consuming, significantly increasing subsequent workload and limiting rapid response and flexible deployment capabilities. These shortcomings severely limit the application of traditional barriers in high-efficiency security scenarios. Utility Model Content

[0003] This invention provides a highly efficient barrier-deploying cabin that overcomes the shortcomings described in the background art.

[0004] The technical solution adopted by this utility model to solve its technical problem is:

[0005] A high-efficiency obstacle-deploying modular unit includes a modular unit body, swing cylinders, a left rotating arm, and a right rotating arm. A hydraulic pump station is installed on the modular unit body. The left and right rotating arms are controlled to extend or retract via corresponding swing cylinders on the modular unit body. Each of the left and right rotating arms has at least one swing cylinder. The left and right rotating arms have identical structures and each includes at least two telescopic arms, with each telescopic arm nested inside another telescopic arm. The extension or retraction of the telescopic arms is accomplished by a drive mechanism. The swing cylinder is connected to the corresponding rotating arm via a swing cylinder locking seat. The drive mechanism includes a telescopic cylinder, a traction rope, and a wheel. The telescopic cylinder is mounted on the corresponding rotating arm, with its fixed end hinged and its movable end connected to the next telescopic arm. Adjacent telescopic arms extend or retract synchronously via the traction rope and wheel. Leg cylinders are installed on the side of the modular unit body. The outrigger cylinder can be used to extend the outriggers inside the cylinder after the tractor has loaded the high-efficiency barrier container to the designated position, so as to lift the main body of the container as a whole, thereby separating the main body of the container from the loading platform of the tractor. Then the tractor can drive away to complete the deployment of the container.

[0006] The high-efficiency barrier-deploying container in this application mainly consists of three components: the container body, the left rotating arm, and the right rotating arm. A hydraulic pump station and a swing cylinder work together to extend or retract the left and right rotating arms. The left and right rotating arms contain multi-stage telescopic arms, allowing them to form a barrier wall after being removed from the container body by extending their telescopic arms. To further enhance the intelligence of the barrier-deploying container, limit switches can detect the rotation angle and barrier placement position, and a controller can control the actuators to achieve angle and distance limitations.

[0007] In some embodiments, the telescopic arm is provided with two stages, namely a first-stage telescopic arm and a second-stage telescopic arm, and the top and bottom ends of the left rotating arm, the right rotating arm, and the first-stage telescopic arm are provided with sliding grooves.

[0008] In some embodiments, the hydraulic pump station is equipped with several distribution valves, which are connected to the swing cylinder, outrigger cylinder and telescopic cylinder respectively through several oil lines.

[0009] In some embodiments, the hydraulic pump station independently controls the movement of the left and right rotating arms, or controls the movement of the left and right rotating arms simultaneously.

[0010] The reason why the hydraulic pump station independently controls the movement of the left and right rotating arms is mainly to deal with the use scenarios with tight space, such as when the site is limited and the wingspan of both sides cannot be opened at the same time. In this case, the swing cylinders on both sides and the telescopic cylinders in the rotating arms should be able to work independently.

[0011] In some embodiments, the main body of the modular cabin includes several longitudinal frames and several transverse frames, the longitudinal frames and transverse frames are welded together, and corresponding storage spaces are reserved during the construction of the longitudinal and transverse frames.

[0012] In some embodiments, arm placement grooves are provided on both sides of the main body of the container, and the shape of the groove opening matches the retracted left and right rotating arms.

[0013] In some embodiments, a towing hook is provided on the side of the main body of the container, an electrical control box is provided on the main body of the container, and a moving wheel is provided at the bottom of the telescopic arm. The towing hook is a structure for connecting with a towing vehicle. Usually, a connecting hook is provided on the towing vehicle. The connecting hook has a tongue plate that can close the hook body. The connecting hook is hooked into the towing hook, and then the tongue plate is used to close the structure to enhance the connection effect.

[0014] In some embodiments, an anti-climb plate is rotatably connected to the telescopic arm, and a plurality of lifting members are rotatably connected to the telescopic arm. The middle part of the lifting member is rotatably connected to the telescopic arm, and the upper end of the lifting member abuts against the anti-climb plate. A connecting rod is provided on the lower section of the lifting member, and the lower sections of all the lifting members are rotatably connected to the connecting rod. The connecting rod is driven to move by a hydraulic cylinder or some linkage mechanism that can be linked with the telescopic arm's telescopic movement, so that the connecting rod drives the lifting member to rotate, causing the upper end of the top rod to push the anti-climb plate to flip, thereby driving the anti-climb plate to rise. The rise of the anti-climb plate makes up the height difference between the left and right rotating arms and the telescopic arm.

[0015] In some embodiments, the main body of the container is equipped with a gimbal and a high-pressure water gun. The high-pressure water gun source tank has two compartments that can hold two different spray liquids (such as ordinary water and pepper spray), and different liquids can be sprayed according to the urgency of the situation.

[0016] In some embodiments, the left and right rotating arms are provided with baffles, and the baffles are provided with marking areas.

[0017] In some embodiments, the main body of the shelter is equipped with a lifting platform, and the high-pressure water gun is mounted on the lifting platform. The main body of the shelter has two window panels and a transmission assembly for driving the opening and closing of the window panels. The transmission assembly includes a transmission rod and a V-shaped component. The bottom end of the V-shaped component is rotatably connected to the main body of the shelter. One branch of the V-shaped component is rotatably connected to the window panel, and the other branch of the V-shaped component has a sliding groove. The lifting platform is rotatably connected to a guide wheel, which is embedded in the sliding groove. By splicing the two window panels, the high-pressure water gun can be covered above it, concealing the high-pressure water gun inside the main body of the shelter. The high-pressure water gun extends out of the main body of the shelter via the lifting platform. The V-shaped component is used to transmit the lifting action of the lifting platform to the window panels, and the lifting action of the lifting platform itself drives the window panels to move. The transmission rod is used to keep the window panels horizontal during movement to avoid interference. The lifting platform drives the V-shaped component to rotate through the cooperation between the guide wheel and the sliding groove, thereby enabling the V-shaped component to drive the window panels to move.

[0018] By adopting the above technical solution, the beneficial effects of this utility model are:

[0019] 1. The barrier-laying container of this utility model utilizes integrated hydraulic control and intelligent electric control during the barrier-laying process, enabling automatic deployment and retrieval of the barrier net. It boasts high mobility, rapid barrier-laying and retrieval, and low manpower consumption. The core power system employs an integrated hydraulic system, providing powerful, stable, and controllable driving force to deploy large barrier structures, achieving a high degree of automation. The barrier-laying container can complete the transition from a standby state to an effective barrier state in a very short time (several seconds to tens of seconds), achieving "immediate deployment upon stopping," quickly forming a robust physical defense line and seizing the initiative in response. The retrieval process is equally efficient. The barrier net is automatically retracted, and large structures are quickly folded or retracted into the container under hydraulic drive. The entire retrieval process is short, enabling rapid restoration of traffic or relocation of positions, significantly reducing on-site cleanup time and workload after the mission. All barrier-laying equipment, control systems, and power units are integrated into a standardized container, facilitating rapid transport by standard vehicles (such as trucks and trailers) and providing excellent road passability.

[0020] 2. The overall structure of the barrier-laying cabin in this utility model is simplified, reducing the number of parts and welding processes. This not only reduces material and labor costs in the manufacturing process, but also reduces maintenance costs in the later stages. Fewer parts mean a lower probability of failure and a simpler maintenance process, thus improving the overall cost-effectiveness of the product. Attached Figure Description

[0021] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0022] Figure 1 This is a schematic diagram of the overall structure of the utility model;

[0023] Figure 2 Side view of the efficient barrier deployment container;

[0024] Figure 3 A schematic diagram of the structure of the mobile cabin after the right rotating arm has been moved out of the main body of the cabin for efficient obstacle deployment;

[0025] Figure 4 A frontal structural diagram of the rotating arm with the telescopic arm fully extended in the efficient obstacle-deploying container.

[0026] Figure 5 A schematic diagram of the rear structure of the rotating arm with the telescopic arm fully extended in the efficient obstacle-deploying container.

[0027] Figure 6 A side view of the efficient barrier-deployment modular shelter from another perspective;

[0028] Figure 7 This is a top view of the telescopic arm inside the rotating arm of the efficient obstacle-deploying container in its fully extended state.

[0029] Figure 8A schematic diagram showing the positions of the gimbal and high-pressure water gun in the main body of the modular shelter;

[0030] Figure 9 for Figure 8 A magnified schematic diagram of the local structure at point A;

[0031] Figure 10 This is a structural diagram of the anti-climbing board.

[0032] Explanation of key figure labels:

[0033] 1. Container main body; 11. Longitudinal frame; 12. Transverse frame; 2. Swing cylinder; 21. Swing cylinder locking seat; 3. Left rotating arm; 4. Right rotating arm; 5. Hydraulic pump station; 6. Drive mechanism; 61. Telescopic cylinder; 62. Towing rope; 63. Wheel; 7. Outrigger cylinder; 8. First-stage telescopic arm; 9. Second-stage telescopic arm; 10. Towing hook; 20. Barrier plate; 201. Marking area; 30. Anti-climb plate; 301. Lifting component; 302. Connecting rod; 40. Pan-tilt unit; 50. High-pressure water gun; 501. Window panel; 502. V-shaped component; 503. Transmission rod; 504. Slide groove; 505. Guide wheel; 506. Lifting platform. Detailed Implementation

[0034] like Figures 1-7 As shown, this utility model provides a high-efficiency barrier deployment cabin, including a cabin body 1, a swing cylinder 2, a left rotating arm 3, and a right rotating arm 4. A hydraulic pump station 5 is installed on the cabin body 1. The left rotating arm 3 and the right rotating arm 4 are controlled to extend or retract by the corresponding swing cylinder 2 on the cabin body 1. Specifically, the left rotating arm 3 is connected to the swing cylinder 2 through a swing cylinder locking seat 21, and the right rotating arm 4 is connected to the swing cylinder 2 through a swing cylinder locking seat 21. Each of the left rotating arm 3 and the right rotating arm 4 is equipped with at least one swing cylinder 2 to cooperate in completing the extension or retraction of the rotating arm. The left rotating arm 3 and the right rotating arm 4 have the same structure and each includes at least two telescopic arms 9. Each telescopic arm is successively fitted inside another telescopic arm, and the extension or retraction of the telescopic arm is completed by a drive mechanism 6. The drive mechanism 6 includes a telescopic cylinder 61, a traction rope 62, and a wheel 63. The telescopic cylinder 61 is mounted on the corresponding rotating arm, with its fixed end hinged and its movable end connected to the next telescopic arm. Adjacent telescopic arms can be synchronously extended or retracted through the traction rope 62 and the wheel 63. A support leg cylinder 7 is provided on the side of the main body 1 of the shelter. After the high-efficiency barrier-laying shelter is loaded onto the tractor and placed in the designated position, the support legs inside the support leg cylinder 7 extend to lift the main body 1 of the shelter, separating it from the tractor's loading platform. The tractor can then drive away, completing the shelter deployment.

[0035] According to some embodiments of the present invention, optionally, the telescopic arm is provided with two stages, namely a first-stage telescopic arm 8 and a second-stage telescopic arm 9, and the top and bottom ends of the left rotating arm 3, the right rotating arm 4, and the first-stage telescopic arm 8 are provided with sliding grooves.

[0036] According to some embodiments of this utility model, optionally, the hydraulic pump station 5 is provided with a number of distribution valves, which are connected to the swing cylinder 2, the outrigger cylinder 7, and the telescopic cylinder 61 respectively through a number of oil lines.

[0037] According to some embodiments of this utility model, optionally, the hydraulic pump station 5 independently controls the movement of the left rotating arm 3 and the right rotating arm 4, or synchronously controls the movement of the left rotating arm 3 and the right rotating arm 4.

[0038] The hydraulic pump station 5 is used for integrated control, and with the help of regulating valves, balance valves and other structures, the automatic deployment and retraction of the left rotating arm 3 and the right rotating arm 4 are realized. The obstacle-laying cabin has good mobility, fast obstacle setting and removal, and low manpower consumption.

[0039] According to some embodiments of the present invention, optionally, the main body 1 of the container includes several longitudinal frames 11 and several transverse frames 12, the longitudinal frames 11 and the transverse frames 12 are welded together, and the longitudinal frames 11 and the transverse frames 12 are provided with corresponding storage space when they are assembled.

[0040] According to some embodiments of this utility model, optionally, arm placement grooves are provided on both sides of the main body 1 of the container, and the shape of the groove opening matches the retracted left rotating arm 3 and right rotating arm 4.

[0041] According to some embodiments of this utility model, optionally, a towing hook 10 is provided on the side end of the main body 1 of the container. The towing hook 10 is a structure for connecting with a towing vehicle. Usually, a connecting hook is provided on the towing vehicle. The connecting hook has a tongue plate that can close the hook body. The connecting hook is hooked into the towing hook 10, and then the tongue plate is used to close the structure to enhance the connection effect.

[0042] According to some embodiments of this utility model, optionally, a movable wheel is provided at the bottom of the telescopic arm. Of course, other wheel bodies 63, such as heavy-duty casters, can also be used in conjunction.

[0043] According to some embodiments of the present invention, optionally, a baffle plate 20 is provided on the left rotating arm 3 and the right rotating arm 4, and an identification area 201 is provided on the baffle plate.

[0044] According to some embodiments of this utility model, optionally, an electrical control box is provided on the main body 1 of the container.

[0045] Example 1

[0046] like Figures 1-10 As shown, this embodiment provides a high-efficiency obstacle-deploying cabin, including a cabin body 1, a swing cylinder 2, a left rotating arm 3, and a right rotating arm 4. A hydraulic pump station 5 is installed on the cabin body 1. The left rotating arm 3 is connected to the swing cylinder 2 via a swing cylinder locking seat 21, and the right rotating arm 4 is also connected to the swing cylinder 2 via the swing cylinder locking seat 21. Each of the left and right rotating arms has at least one swing cylinder 2 to cooperate in completing the deployment or retraction of the rotating arm. The left and right rotating arms have the same structure and each includes at least two telescopic arms 9. Each telescopic arm is successively fitted inside another telescopic arm, and the deployment or retraction of the telescopic arms is completed by a drive mechanism 6. The drive mechanism 6 includes a telescopic cylinder 61, a traction rope 62, and a wheel 63. The telescopic cylinder 61 is installed on the corresponding rotating arm, and its fixed end is hinged. Its movable end is connected to the next telescopic arm. Adjacent telescopic arms are deployed or retracted synchronously through the traction rope 62 and the wheel 63. Since the telescopic arms inside the left rotating arm 3 and the right rotating arm 4 are mainly used for blocking after being deployed, impact-absorbing blocks (elastic rubber) can be set in both the large structure of the left rotating arm 3 and the right rotating arm 4 and the telescopic arm structure installed in the rotating arm.

[0047] Taking a rectangular structure as an example, the side where the left rotating arm 3 and the right rotating arm 4 are installed is the long side, and the side adjacent to this long side is the short side. The short side can be understood as the front and rear ends of the barrier-laying container, and the towing hook 10 is set at the front and rear ends. To ensure the guiding effect when the telescopic arm is deployed and moved out, a composite roller bearing is installed on the telescopic arm. After installation, it can ensure that the telescopic arm remains centered and does not deviate when it is extended. At the same time, heavy-duty casters can be installed on the corresponding structures that need to contact the ground, so that they can play a supporting role and ensure the stability of the extension process.

[0048] The main body 1 of the modular shelter is equipped with outrigger cylinders 7 on its side. Outrigger cylinders 7 are used to extend outriggers after the high-efficiency barrier-laying modular shelter is loaded onto a tractor and placed at a designated location, lifting the main body 1 of the modular shelter and separating it from the tractor's loading platform. The tractor can then drive away, completing the shelter's deployment. The telescopic boom has two stages: a first-stage telescopic boom 8 and a second-stage telescopic boom 9. Sliding slots are provided at the top and bottom of the left rotating boom 3, the right rotating boom 4, and the first-stage telescopic boom 8. The hydraulic pump station 5 is equipped with several distribution valves, which are connected to the swing cylinder 2, the outrigger cylinder 7, and the telescopic cylinder 61 via several oil lines. The hydraulic pump station 5 can independently control the movement of the left rotating boom 3 and the right rotating boom 4, or control their movement synchronously. The hydraulic pump station 5 is used for integrated control, and with the help of regulating valves, balance valves and other structures, the automatic deployment and retraction of the left rotating arm 3 and the right rotating arm 4 are realized. The obstacle-laying cabin has good mobility, fast obstacle setting and removal, and low manpower consumption.

[0049] The main body 1 of the modular container includes several longitudinal frames 11 and several transverse frames 12. The longitudinal frames 11 and transverse frames 12 are welded together. The longitudinal frames 11 and transverse frames 12 are equipped with corresponding storage spaces during construction. Arm slots are provided on both sides of the main body 1 of the modular container. The shape of the slot opening matches the retracted left rotating arm 3 and right rotating arm 4.

[0050] A towing hook 10 is installed on the side of the main body 1 of the modular shelter. The towing hook 10 is used to connect with a towing vehicle. Typically, the towing vehicle has a connecting hook with a tongue plate that allows the hook to close. The connecting hook is hooked into the towing hook 10, and the tongue plate closes the structure to enhance the connection. A moving wheel is installed at the bottom of the telescopic arm. A blocking plate 20 is installed on the left rotating arm 3 and the right rotating arm 4, and a marking area 201 is set on the blocking plate. An electrical control box is installed on the main body 1 of the modular shelter.

[0051] An anti-climb plate 30 is rotatably connected to the telescopic arm, and several lifting members 301 are rotatably connected to the telescopic arm. The middle part of the lifting member 301 is rotatably connected to the telescopic arm, and the upper end of the lifting member 301 abuts against the anti-climb plate 30. A connecting rod 302 is provided on the lower section of the lifting member 301. The lower sections of all the lifting members 301 are rotatably connected to the connecting rod 302. The connecting rod 302 is driven to move by a hydraulic cylinder or some linkage mechanism that can be linked with the telescopic arm's telescopic movement, so that the connecting rod 302 drives the lifting member 301 to rotate, so that the upper end of the top rod pushes the anti-climb plate 30 to flip, thereby driving the anti-climb plate 30 to rise. The rise of the anti-climb plate 30 makes up the height difference between the left rotating arm 3 and the right rotating arm 4 and the telescopic arm.

[0052] The main body 1 of the mobile cabin is equipped with a gimbal 40 and a high-pressure water gun 50. The high-pressure water gun 50 has two compartments in its source water tank, which can hold two different spray liquids (such as ordinary water and pepper spray), and can spray different liquids according to the urgency of the situation.

[0053] The main body 1 of the shelter is equipped with a lifting platform, and a high-pressure water gun 50 is mounted on the lifting platform. The main body 1 of the shelter has two window panels 501. The main body 1 of the shelter is equipped with a transmission assembly for driving the opening and closing of the window panels 501. The transmission assembly includes a transmission rod 503 and a V-shaped component 502. The bottom end of the V-shaped component 502 is rotatably connected to the main body 1 of the shelter. One branch of the V-shaped component 502 is rotatably connected to the window panel 501. The other branch of the V-shaped component 502 has a sliding groove 504. A guide wheel 505 is rotatably connected to the lifting platform. The guide wheel 505 is embedded in the sliding groove 504. The two window panels 501 can be connected together to open and close the window panels. The cover is placed above the high-pressure water gun 50, concealing the high-pressure water gun 50 inside the main body 1 of the shelter. The high-pressure water gun 50 extends out of the main body 1 of the shelter via a lifting platform. The V-shaped component 502 transmits the lifting action of the lifting platform to the window panel 501, using the lifting action of the lifting platform itself to drive the window panel 501 to move. The transmission rod 503 keeps the window panel 501 horizontal during movement to avoid interference. The lifting platform drives the V-shaped component 502 to rotate through the cooperation between the guide wheel 505 and the slide groove 504, so that the V-shaped component 502 can drive the window panel 501 to move.

[0054] In use, the modular container is first transported to the barrier deployment location. Then, through hydraulic integrated control, the rotating arm is deployed using the swing cylinder 2. After the rotating arm moves out of the main body 1 of the modular container, the telescopic arm inside the rotating arm can be extended through the telescopic cylinder 61 and the traction rope 62 (steel wire rope). By setting a limit block at the end of the telescopic arm, the disengagement between structures is prevented when the corresponding telescopic arm is displaced to its maximum value.

[0055] To facilitate the lowering of the container from the tractor and reduce the difficulty of unloading, outrigger cylinders 7 on the container are used. Four outrigger cylinders 7 are provided, with sufficient support height. When unloading the container, the main body 1 of the container is first lifted by controlling the outrigger cylinders 7, so that the bottom of the main body 1 of the container is separated from the open loading platform of the tractor. Then, the tractor drives away, and the outrigger cylinders 7 are retracted to place the main body 1 of the container on the ground.

[0056] Regarding the description of the action of synchronously controlling the extension of the telescopic boom using the traction rope 62, taking the initial state where the first-stage telescopic boom 8 and the second-stage telescopic boom 9 are fully retracted to the right rotating arm 4 as an example, the first-stage telescopic boom 8 is installed inside the right rotating arm 4, and the second-stage telescopic boom 9 is installed inside the first-stage telescopic boom 8. The fixed end of the telescopic cylinder 61 is hinged to the frame of the right rotating arm 4, and the movable end (piston rod end) of the telescopic cylinder 61 is directly connected to the first-stage telescopic boom 9. Hydraulic oil enters the rodless chamber of the cylinder, pushing the piston rod to extend outward, at which time the first-stage telescopic boom 9 extends outward. Using the linkage mechanism of the traction rope 62: using the fixed length of the traction rope 62, the wheel 63 (pulley) fixed at a specific position, and the movement of the telescopic cylinder 61, the action of the cylinder directly pushing the second-stage boom is converted into the action of simultaneously pulling the first-stage boom, thereby realizing the synchronous extension of the two boom sections.

[0057] The above are merely preferred embodiments of the present utility model, and therefore cannot be used to limit the scope of the present utility model. All equivalent changes and modifications made in accordance with the scope of the present utility model patent and the contents of the specification should still fall within the scope of the present utility model.

Claims

1. A high-efficiency barrier-deploying container, characterized in that, The container includes a main body, swing cylinders, a left rotating arm, and a right rotating arm. A hydraulic pump station is installed on the main body. The left and right rotating arms are controlled to extend or retract via corresponding swing cylinders on the main body. Each of the left and right rotating arms has at least one swing cylinder. The left and right rotating arms have identical structures and each includes at least two telescopic arms. Each telescopic arm is nested inside another telescopic arm, and the extension or retraction of the telescopic arms is accomplished by a drive mechanism. The drive mechanism includes a telescopic cylinder, a traction rope, and a wheel. The telescopic cylinder is mounted on the corresponding rotating arm, with its fixed end hinged and its movable end connected to the next telescopic arm. Adjacent telescopic arms extend or retract synchronously via the traction rope and wheel. Outrigger cylinders are installed on the side of the main body.

2. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The telescopic arm is provided in two stages, namely a first-stage telescopic arm and a second-stage telescopic arm. The top and bottom of the left rotating arm, the right rotating arm, and the first-stage telescopic arm are provided with sliding grooves.

3. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The hydraulic pump station is equipped with several distribution valves, which are connected to the swing cylinder, outrigger cylinder and telescopic cylinder respectively through several oil lines.

4. The high-efficiency barrier-deploying container according to claim 3, characterized in that, The hydraulic pump station independently controls the movement of the left and right rotating arms, or simultaneously controls the movement of the left and right rotating arms.

5. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The main body of the modular cabin includes several longitudinal frames and several transverse frames. The longitudinal frames are welded to the transverse frames, and corresponding storage spaces are reserved during the construction of the longitudinal and transverse frames.

6. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The main body of the container is provided with arm placement grooves on both sides, and the shape of the groove opening matches the retracted left and right rotating arms.

7. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The main body of the modular container is equipped with a towing hook on its side, a moving wheel at the bottom of the telescopic arm, an electrical control box on the main body of the modular container, and a blocking plate on the left and right rotating arms, with a marking area on the blocking plate.

8. The high-efficiency barrier-deploying container according to claim 1, characterized in that, An anti-climb plate is rotatably connected to the telescopic arm, and several lifting members are rotatably connected to the telescopic arm. The middle part of the lifting member is rotatably connected to the telescopic arm, the upper end of the lifting member abuts against the anti-climb plate, and the lower section of the lifting member is provided with a connecting rod. The lower sections of all the lifting members are rotatably connected to the connecting rod.

9. The high-efficiency barrier-deploying container according to claim 1, characterized in that, The main body of the modular container is equipped with a gimbal and a high-pressure water gun.

10. The high-efficiency barrier-deploying container according to claim 9, characterized in that, The main body of the modular shelter is equipped with a lifting platform, and the high-pressure water gun is mounted on the lifting platform. The main body of the modular shelter has two window panels, and the main body of the modular shelter is equipped with a transmission assembly for driving the window panels to open and close. The transmission assembly includes a transmission rod and a V-shaped component. The bottom end of the V-shaped component is rotatably connected to the main body of the modular shelter. One branch of the V-shaped component is rotatably connected to the window panel, and the other branch of the V-shaped component has a sliding groove. The lifting platform is rotatably connected to a guide wheel, and the guide wheel is embedded in the sliding groove.

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