High-strength wind-resistant construction fence based on automatic wind direction adjustment
The construction fence that automatically adjusts the angle of the flip assembly through the wind direction sensing component and the driving mechanism, the stability and safety of the existing fence in strong wind weather is solved, and the high-strength wind resistance and convenient installation of the fence are achieved, reducing construction risks and costs.
Patent Information
- Application Number
- CN202510594948.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-09
- Publication Date
- 2025-07-08
AI Technical Summary
The existing construction fence faces complex and changing weather conditions, especially in strong wind weather, and lacks wind resistance and adaptability, which is prone to deformation, damage or collapse, poses safety hazards and affects the construction progress.
A high-strength wind-resistant construction fence based on automatic adjustment of wind direction is designed. Through the cooperation of wind direction perception components, transmission linkage components and drive components, the flipped components automatically adjust the angle according to the wind direction, enhance stability and installation convenience, and use limiting units and load-limiting components to improve safety and reliability.
Effectively disperse wind impact, improve the stability and safety of the fence in a strong wind environment, reduce the risk of damage, ensure the safety of the construction site and surrounding areas, simplify the installation and disassembly process, and reduce operating costs.
Smart Images

Figure CN120273568A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of construction enclosures, and in particular to a high-strength wind-resistant construction enclosure that automatically adjusts based on the wind direction. Background Art
[0002] In the field of construction, construction enclosures are important facilities to ensure construction safety, protect the surrounding environment, and maintain construction order. Traditional construction enclosures mostly adopt fixed structural forms, such as brick walls or simple steel structure enclosures. Although these enclosures can meet the isolation requirements of the construction area to a certain extent, when facing complex and changeable weather conditions, especially strong wind weather, their wind resistance performance is often insufficient, posing many potential safety hazards.
[0003] With the continuous development of the construction industry and the increasing progress of construction technology, the requirements for construction enclosures are also getting higher and higher. Some improved enclosures in the prior art, although improving the stability and safety of the enclosures to a certain extent, still have many limitations. For example, some enclosures increase the complexity of the structure to improve wind resistance, but this often leads to cumbersome installation and disassembly processes, time-consuming and laborious, and is not conducive to the progress of construction. Some other enclosures use simple diagonal braces or reinforcement bars, which can enhance the front wind resistance performance to a certain extent, but the resistance ability to the back wind direction is still limited, and the flexibility and adaptability of the overall structure are poor. In addition, most of the existing enclosures lack the self-adaptive ability to wind direction changes and cannot adjust their stress states in a timely manner according to the real-time changes of the wind direction. Therefore, they are prone to deformation, damage, or even collapse under the action of strong winds, which will not only pose a serious safety threat to construction workers and the surrounding environment, but also affect the construction progress and increase construction costs.
[0004] How to solve the above technical problems is the subject faced by the present invention. Summary of the Invention
[0005] To solve the deficiencies of the prior art, the present invention provides a high-strength wind-resistant construction enclosure that automatically adjusts based on the wind direction, which is reasonable in design, safe and reliable. By setting the stable foot components and positioning grooves of the installation base, the overall stability and installation convenience of the enclosure are enhanced. The wind direction sensing component, transmission linkage component, and driving component cooperate with each other to enable the flipping component to automatically adjust the angle according to the wind direction, effectively dispersing the wind force. At the same time, the design of a variety of limiting units and load-limiting components further improves the safety and reliability of the enclosure under different working conditions.
[0006] The technical solution adopted by the present invention to solve its technical problems is: a high-strength wind-resistant construction enclosure that automatically adjusts based on the wind direction,
[0007] It includes an installation base, on which a surrounding component is provided, and at least one set of flipping components that can deflect relative to the surrounding component is provided on the surrounding component, and a wind direction driving mechanism that cooperates with the flipping components is provided on the surrounding component;
[0008] The wind direction driving mechanism includes a wind direction sensing component provided at the top end of the surrounding component, a driving component that cooperates with the flipping component is provided on the surrounding component, and a transmission linkage component for linking the wind direction sensing component and the driving component is provided on the surrounding component; the wind direction sensing component drives the driving component through the transmission linkage component, so that the flipping component forms an inclined plane adapted to the wind direction according to the wind direction, so as to effectively disperse the impact of the wind force on the surrounding main body.
[0009] Further, the installation base includes a base body, and a positioning groove for fixedly assembling with the surrounding component is provided on the base body;
[0010] The installation base further includes a stabilizing foot component, and the stabilizing foot component includes adjusting screws fixedly provided at the four corners of the bottom surface of the base body, and a conical foot pad is threadedly connected to the lower end of the adjusting screw.
[0011] Further, the surrounding component includes two opposite columns and a baffle fixedly connected between the two columns; a positioning groove adapted to the column is provided on the upper end surface of the base body of the installation base, the lower end of the column is inserted into the positioning groove, and is fixedly connected by bolts passing through the side wall of the positioning groove and the side wall of the column.
[0012] Further, the flipping component is provided on the front side and / or the rear side of the baffle;
[0013] The flipping component includes a flipping plate, and the upper end portion of the flipping plate is a semi-circular structure. Rotating shafts that are rotationally connected to the surrounding component are provided on both sides at the upper end of the flipping plate, and a flipping pull ring that cooperates with the driving component is provided on the flipping plate; the flipping plate can perform a deflection movement around the rotating shaft structure under the drive of the driving component, so as to turn up to form an inclined plane.
[0014] Further, the flipping component further includes a limiting unit for limiting the rotation angle of the flipping plate, and the limiting unit is provided between the flipping plate and the column to ensure that the flipping component maintains a stable position in the non-working state;
[0015] The limiting unit includes a limiting base provided on the column, a stabilizing base is provided on the flipping plate, and a limiting spring is provided between the stabilizing base and the limiting base.
[0016] Preferably, the limiting unit further includes a placement base groove formed in the baffle and cooperating with the flipping plate. A metal sheet is provided on the placement base groove, and a magnetic element cooperating with the metal sheet is provided on the flipping plate.
[0017] Further, the wind direction sensing component includes a wind vane that can freely rotate with the wind direction. A transmission shaft is connected to the bottom of the wind vane. At the top of the enclosure component, a rotating support is provided, and a bearing seat cooperating with the transmission shaft is provided on the rotating support;
[0018] A rotating support cooperating with the transmission shaft in rotation is provided on the rotating support. The transmission shaft is connected to the transmission linkage component and is used to transmit the force of the rotation of the wind vane to the driving component.
[0019] Further, the driving component includes a winding wire roller provided on the rotating support. A traction rope cooperating with the flipping component is provided on the winding wire roller. And a stable rotating plate cooperating with the traction rope is provided on the rotating support. A stable through hole is formed in the stable rotating plate. A guiding support rod is provided on the rotating support, and a guiding pulley cooperating with the traction rope is provided on the guiding support rod.
[0020] Further, the transmission linkage component includes a first transmission wheel provided on the transmission shaft. A second transmission wheel is provided on the winding wire roller. A transmission belt is sleeved between the first transmission wheel and the second transmission wheel.
[0021] Further, a load limiting component for preventing the driving component or the flipping component from being damaged when the external wind force is too large is provided on the transmission linkage component; the load limiting component includes a torque limiter, and the torque limiter is arranged at the connection between the first transmission wheel and the transmission shaft.
[0022] The present invention can sense the wind direction in real time through the wind direction sensing component and transmit the information to the wind direction driving mechanism, and drive the flipping component to form an inclined plane adapted to the wind direction according to the wind direction. This design can effectively disperse the impact of the wind force on the enclosure main body, greatly improve the stability of the enclosure in a strong wind environment, reduce the risk of the enclosure being blown down or damaged, and ensure the safety of the construction site and the surrounding areas.
[0023] The flipping component in the present invention can be adaptively adjusted according to different wind directions. Whether it is a single-sided or double-sided flipping component, it can accurately respond to the wind direction change to ensure that the enclosure is always in the best windproof state. Moreover, the setting of the limiting component ensures the stability of the flipping component in the non-working state and can also prevent it from deflecting excessively under the action of strong wind, further enhancing the reliability of the enclosure.
[0024] The load-limiting component in the transmission linkage component of the present invention provides overload protection for the entire system. When the external wind force is too large and may cause damage to the drive component or the flipping component, the torque limiter can cut off the power transmission in time, avoid equipment damage, extend the service life of the enclosure, and reduce the maintenance and replacement costs.
[0025] The structural design of the enclosure in the present invention is reasonable. The installation base can be firmly fixed on the ground through the stable foot component, adapting to different ground conditions; there are various connection methods between the columns and the baffles of the enclosure component, ensuring the firmness of the connection. The overall structure is not only convenient for installation and disassembly, but also easy to maintain, reducing the later operation costs. Brief Description of the Drawings
[0026] Figure 1 It is a schematic diagram of the overall structure from the first perspective proposed by the present invention;
[0027] Figure 2 It is a schematic diagram of the overall structure from the second perspective proposed by the present invention;
[0028] Figure 3 It is a schematic diagram of the structure of the wind direction driving mechanism from the first perspective proposed by the present invention;
[0029] Figure 4 It is a schematic diagram of the structure of the wind direction driving mechanism from the second perspective proposed by the present invention;
[0030] Figure 5 It is a schematic diagram of the cross-sectional structure proposed by the present invention;
[0031] Figure 6 It is a schematic diagram of the baffle structure proposed by the present invention;
[0032] Figure 7 It is a schematic diagram of the structure of the front flipping plate proposed by the present invention.
[0033] Among them, the reference signs in the drawings are: 100, installation base; 200, enclosure component; 210, column; 220, baffle; 300, flipping component; 310, flipping plate; 320, rotating shaft; 330, flipping pull ring; 400, wind direction driving mechanism; 500, wind direction sensing component; 510, wind vane; 511, arrow-shaped indicating part; 512, counterweight balancing part; 520, transmission shaft; 530, rotating support; 540, rotating bracket; 600, drive component; 610, winding line roller; 620, towing rope; 630, stable rotating plate; 640, stable through hole; 650, guiding support rod; 660, guiding pulley; 700, transmission linkage component; 710, first transmission wheel; 720, second transmission wheel; 730, transmission belt; 800, load-limiting component; 810, torque limiter. Detailed Embodiments
[0034] See Figures 1 to 7 As shown, a high-strength wind-resistant construction fence that automatically adjusts based on the wind direction includes an installation base 100. A fence component 200 is provided on the installation base 100, and at least one set of flipping components 300 that can deflect relative to the fence component 200 is provided on the fence component 200. A wind direction driving mechanism 400 that cooperates with the flipping components 300 is provided on the fence component 200;
[0035] The wind direction driving mechanism 400 includes a wind direction sensing component 500 provided at the top end of the fence component 200. A driving component 600 that cooperates with the flipping components 300 is provided on the fence component 200, and a transmission linkage component 700 for linking the wind direction sensing component 500 and the driving component 600 is provided on the fence component 200. The wind direction sensing component 500 drives the driving component 600 through the transmission linkage component 700, so that the flipping components 300 form an inclined plane adapted to the wind direction according to the wind direction, effectively dispersing the impact of the wind force on the fence main body. And this wind direction driving mechanism 400 is a pure mechanical structure, without the need for an external power supply, and has the advantages of simple structure, sensitive response, and strong wind resistance, and is suitable for the automatic wind resistance adjustment of the temporary fence system at the construction site.
[0036] Further, the installation base 100 includes a base body, and a positioning groove for fixedly assembling with the fence component 200 is provided on the base body;
[0037] The installation base 100 further includes a stabilizing foot component. The stabilizing foot component includes adjusting screws fixedly provided at the four corners of the bottom surface of the base body, and a conical foot pad is threadedly connected to the lower end of the adjusting screw. The stabilizing foot component is convenient for adjusting the overall structure to be horizontal on uneven terrain, improving the overall stability of the fence and reducing the risk of tipping over.
[0038] Among them, the conical foot pad can be telescopically moved in the vertical direction by rotating the adjusting screw to adapt to different ground conditions, so that the installation base 100 is stably set on the ground.
[0039] Further, the fence component 200 includes two opposite columns 210 and a baffle 220 fixedly connected between the two columns 210; a positioning groove adapted to the columns 210 is opened on the upper surface of the base body of the installation base 100, and the lower ends of the columns 210 are inserted into the positioning groove and are fixedly connected by bolts passing through the side walls of the positioning groove and the side walls of the columns 210. Furthermore, the cooperative assembly of the installation base 100 and the fence component 200 is realized.
[0040] The structure between the column 210 and the installation base 100 is detachable, which is convenient for modular transportation and quick installation, meeting the scene requirements with a short construction period.
[0041] Preferably, a plurality of positioning protrusions are provided on the side surface of the column 210, and positioning holes are provided at corresponding positions on the baffle 220.
[0042] Preferably, a clamping groove or a bolt hole group is longitudinally installed inside the two columns 210, and connecting plates or frames that cooperate with the clamping groove or the bolt hole group are provided at both ends of the baffle 220;
[0043] Preferably, positioning ear plates are provided at both ends of the column 210, and the baffle 220 is relatively locked with the positioning ear plates through bolt holes to achieve rigid connection.
[0044] The above-mentioned matching structure improves the shear resistance and wind resistance bearing capacity of the baffle 220 and adapts to the connection methods of different models of the baffle 220.
[0045] Further, the flipping assembly 300 is arranged on the front side and / or the rear side of the baffle 220;
[0046] The flipping assembly 300 includes a flipping plate 310, and the upper end of the flipping plate 310 is of a semi-circular structure. Rotating shafts 320 for rotatably connecting with the enclosure assembly 200 are provided on both sides at the upper end of the flipping plate 310. A flipping pull ring 330 that cooperates with the driving assembly 600 is provided on the flipping plate 310; the flipping plate 310 can deflect around the rotating shaft 320 structure under the drive of the driving assembly 600 to turn it up to form an inclined slope.
[0047] Among them, the upper end of the semi-circular structure can reduce air resistance during the rotation of the flipping plate 310 and improve the flexibility of flipping. The cooperative design of the flipping pull ring 330 and the driving assembly 600 ensures that the driving assembly 600 can effectively drive the flipping plate 310 to rotate and realize the function of adjusting the slope angle according to the wind direction.
[0048] Preferably, reinforcing ribs are provided on the surfaces of the front flipping plate 310 and the rear flipping plate 310 to enhance the structural strength of the flipping assembly 300. The setting of the reinforcing ribs effectively improves the wind resistance and bearing capacity of the flipping plate 310. Under the action of strong wind, the reinforcing ribs can disperse the pressure borne by the flipping plate 310, prevent the flipping plate 310 from deforming or being damaged, and extend the service life of the flipping assembly 300.
[0049] Preferably, the flipping assembly 300 further includes a counterweight block, and the counterweight block is arranged at the lower end of the flipping assembly 300 and is used to keep the flipping assembly 300 in a vertical state when there is no wind. The weight of the counterweight block is accurately calculated and selected, which can ensure that the flipping assembly 300 stably maintains a vertical position when there is no wind, avoid the flipping plate 310 from shaking or shifting due to its own gravity or other factors, and ensure the neat appearance of the enclosure and the safety of use.
[0050] Further, the flipping assembly 300 further includes a limiting unit for limiting the rotation angle of the flipping plate 310. The limiting unit is disposed between the flipping plate 310 and the column 210 to ensure that the flipping assembly 300 maintains a stable position in the non-working state;
[0051] The limiting unit includes a limiting base disposed on the column 210. A stable base is provided on the flipping plate 310, and a limiting spring is disposed between the stable base and the limiting base. The elastic coefficient of the limiting spring is carefully selected to not only limit the rotation angle of the flipping plate 310 but also buffer the impact force received by the flipping plate 310 during rotation to a certain extent, protecting the flipping assembly 300 and the enclosure structure from damage.
[0052] Further, the limiting unit further includes a limiting base frame detachably connected to the mounting base 100. A reset winch frame is provided on the limiting base frame, a reset winch is provided on the reset winch frame, a reset hinge rope connected to the flipping plate 310 is provided on the reset winch, a reset motor cooperating with the reset winch is provided on the reset winch frame, a control module is provided on the reset winch frame, and a pressure sensor cooperating with the wind direction driving mechanism 400 and connected to the control module is provided on the enclosure assembly 200. The pressure sensor can monitor the wind force received by the enclosure in real time and transmit the signal to the control module. The control module controls the operation of the reset motor according to the signal of the pressure sensor, thereby achieving precise control of the position of the flipping plate 310, and can assist in automatically resetting the flipping plate 310 after the wind stops, improving the intelligent level of the device.
[0053] Preferably, the limiting unit further includes a placement base groove opened on the baffle 220 and cooperating with the flipping plate 310. A metal sheet is provided on the placement base groove, and a magnetic element cooperating with the metal sheet is provided on the flipping plate 310. The magnetic element and the metal sheet attract each other. Under the condition of no wind, the flipping plate 310 is fixed at a vertical or predetermined angle position by magnetic force; when the wind force exceeds the set value, the flipping plate 310 deflects against the magnetic force, and after the wind force weakens, the magnetic element contacts the metal sheet again, and the position of the flipping plate 310 is restored by magnetic force to ensure the stability and safety of the enclosure system. This magnetic fixing structure is simple and reliable, without an additional power device, and can effectively fix the flipping plate 310 under the condition of no wind or gentle wind, and can automatically release when the wind force is large, enabling the flipping plate 310 to be adjusted according to the wind direction, improving the adaptability of the enclosure.
[0054] Furthermore, the wind direction sensing component 500 includes a weather vane 510 that can rotate freely with the wind direction, the bottom of the weather vane 510 is connected to a transmission shaft 520, and a rotating support 530 is provided at the top of the enclosure component 200, and the rotating support 530 is provided with a bearing seat that cooperates with the transmission shaft 520;
[0055] The rotating support 530 is provided with a rotating bracket 540 that is rotatably matched with the transmission shaft 520 . The transmission shaft 520 is connected to the transmission linkage assembly 700 to transmit the rotation force of the weather vane 510 to the driving assembly 600 .
[0056] The wind direction sensing component 500 includes a wind vane 510, and the wind vane 510 is rotatably connected to the rotating support 530 via a bearing seat;
[0057] The wind vane 510 includes an arrow-shaped indicator portion 511 and a counterweight balancing portion 512. The arrow-shaped indicator portion 511 is made of a light and high-strength material, and the counterweight balancing portion 512 is made of a metal material with a high density, so as to ensure that the wind vane 510 can rotate sensitively and accurately indicate the wind direction under the action of wind force; the arrow-shaped indicator portion 511 made of a light and high-strength material can reduce the resistance of wind force to the wind vane 510 and improve its sensitivity. The metal counterweight balancing portion 512 with a high density ensures the stability of the wind vane 510 during rotation, so that it can accurately follow the change of wind direction and provide accurate wind direction information for the entire enclosure system.
[0058] A wear-resistant bushing is arranged in the bearing seat of the weather vane 510 to reduce rotational friction and extend service life; the weather vane 510 is connected to the transmission linkage assembly 700 via the transmission shaft 520, one end of the transmission shaft 520 is fixedly connected to the weather vane 510, and the other end of the transmission shaft 520 is movably connected to the transmission linkage assembly 700 to realize the driving of the transmission linkage assembly 700 by the weather vane 510.
[0059] Further, the driving assembly 600 includes a winding roller 610 disposed on the rotating support 530, a traction rope 620 cooperating with the flip assembly 300 is disposed on the winding roller 610, and a stabilizing rotating plate 630 cooperating with the traction rope 620 is disposed on the rotating support 530, a stabilizing through hole 640 is provided on the stabilizing rotating plate 630, and a guide support rod 650 is disposed on the rotating support 530, and a traction guide wheel 660 cooperating with the traction rope 620 is disposed on the guide support rod 650. The design of the stabilizing rotating plate 630 and the traction guide wheel 660 can ensure the stability of the traction rope 620 during the movement, reduce the wear and shaking of the rope, and ensure that the driving assembly 600 can accurately transmit power to the flip assembly 300, so as to realize the smooth rotation of the flip plate 310.
[0060] Preferably, a stabilizing bracket cooperating with the winding roller 610 is provided on the rotating support 530. The stabilizing bracket can enhance the stability of the winding roller 610, prevent it from shaking or shifting during rotation, ensure the normal operation of the driving assembly 600, and improve the reliability of the enclosure system.
[0061] Preferably, two groups of driving assemblies 600 are symmetrically arranged on the rotating support 530 and respectively cooperate with the turning plates 310 on the front side and the rear side of the baffle 220. The two symmetrically arranged driving assemblies 600 can simultaneously drive the turning plates 310 on the front side and the rear side, ensuring that the enclosure can timely adjust the angles of the turning plates 310 under different wind direction conditions, and improving the wind resistance performance and adaptability of the enclosure.
[0062] Further, the transmission linkage assembly 700 includes a first transmission wheel 710 arranged on the transmission shaft 520, a second transmission wheel 720 arranged on the winding roller 610, and a transmission belt 730 sleeved between the first transmission wheel 710 and the second transmission wheel 720.
[0063] Preferably, the transmission linkage assembly 700 further includes a tensioning wheel unit which is arranged inside the transmission belt 730 for adjusting the tension of the belt, ensuring stable and reliable transmission. And the structure of this tensioning wheel unit is basically the same as that of the existing tensioning wheel unit. The tensioning wheel unit can automatically adjust the tension of the transmission belt 730 according to the working state of the transmission belt 730, avoid the belt from being loose or too tight, ensure the transmission efficiency and stability, reduce the risk of belt wear and breakage, and extend the service life of the transmission linkage assembly 700.
[0064] Preferably, the above-mentioned first transmission wheel 710, second transmission wheel 720 and transmission belt 730 are similar to the structures of pulley and transmission belt 730; at the same time, the above-mentioned first transmission wheel 710, second transmission wheel 720 and transmission belt 730 are similar to the structural design of sprocket and transmission chain. This diversified structural design choice can flexibly select a suitable transmission method according to different use environments and requirements, and improve the versatility and adaptability of the transmission linkage assembly 700.
[0065] In addition, the transmission linkage assembly 700 can also be provided with transmission gears on the transmission shaft 520 and the winding roller 610, and a differential transmission gear set meshing with the transmission gears. The setting of the differential transmission gear set can realize more complex transmission ratio adjustment, meet the requirements of the rotational speed and torque of the driving assembly 600 under different working conditions, and further improve the performance and adaptability of the enclosure system.
[0066] Preferably, a load-limiting component 800 is provided on the transmission linkage component 700 to prevent the driving component 600 or the flipping component 300 from being damaged when the external wind force is too large; the load-limiting component includes a torque limiter 810, and the torque limiter 810 is disposed at the connection between the first transmission wheel 710 and the transmission shaft 520. The torque limiter 810 can automatically slip or disconnect when the transmitted torque exceeds the set value, effectively protecting the driving component 600 and the flipping component 300 from being damaged by excessive wind force, and improving the safety and reliability of the enclosure system.
[0067] The technical features not described in the present invention can be achieved by or adopted from the prior art and will not be elaborated here. Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by those of ordinary skill in the art within the scope of the essence of the present invention should also fall within the protection scope of the present invention.
Claims
1. A high-strength wind-resistant construction fence that automatically adjusts based on the wind direction, characterized in that: It includes an installation base (100), a fence component (200) is arranged on the installation base (100), and at least one set of flipping components (300) that can deflect relative to the fence component (200) is arranged on the fence component (200), and a wind direction driving mechanism (400) that cooperates with the flipping components (300) is arranged on the fence component (200); The wind direction driving mechanism (400) includes a wind direction sensing component (500) arranged at the top end of the fence component (200), a driving component (600) that cooperates with the flipping components (300) is arranged on the fence component (200), and a transmission linkage component (700) for linking the wind direction sensing component (500) and the driving component (600) is arranged on the fence component (200); the wind direction sensing component (500) drives the driving component (600) through the transmission linkage component (700), so that the flipping components (300) form an inclined plane adapted to the wind direction according to the wind direction, so as to effectively disperse the impact of the wind force on the main body of the fence.
2. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 1, characterized in that: The installation base (100) includes a base body, and a positioning groove for fixedly assembling with the fence component (200) is arranged on the base body; The installation base (100) further includes a stabilizing foot component, and the stabilizing foot component includes adjusting screws fixedly arranged at the four corners of the bottom surface of the base body, and a conical foot pad is threadedly connected to the lower end of the adjusting screw.
3. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 1, wherein: The fence component (200) includes two opposite columns (210) and a baffle (220) fixedly connected between the two columns (210); a positioning groove adapted to the column (210) is opened on the upper surface of the base body of the installation base (100), and the lower end of the column (210) is inserted into the positioning groove, and is fixedly connected by bolts passing through the side wall of the positioning groove and the side wall of the column (210).
4. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 3, wherein: The flipping components (300) are arranged on the front side and / or the rear side of the baffle (220); The flipping component (300) includes a flipping plate (310), and the upper end of the flipping plate (310) is of a semi-circular structure. Rotating shafts (320) that are rotatably connected to the fence component (200) are arranged on both sides of the upper end of the flipping plate (310), and a flipping pull ring (330) that cooperates with the driving component (600) is arranged on the flipping plate (310); the flipping plate (310) can deflect around the rotating shaft (320) structure under the drive of the driving component (600), so as to turn up to form an inclined plane.
5. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 4, characterized in that: The flipping component (300) further includes a limiting unit for limiting the rotation angle of the flipping plate (310), and the limiting unit is arranged between the flipping plate (310) and the column (210) to ensure that the flipping component (300) maintains a stable position in the non-working state; The limiting unit includes a limiting base provided on the column (210), a stable base is provided on the turning plate (310), and a limiting spring is provided between the stable base and the limiting base.
6. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 5, characterized in that: The limiting unit further includes a placement base groove formed on the baffle (220) and cooperating with the turning plate (310), a metal sheet is provided on the placement base groove, and a magnetic element cooperating with the metal sheet is provided on the turning plate (310).
7. The high-strength wind-resistant construction enclosure capable of automatically adjusting according to wind direction as claimed in claim 6, wherein: The wind direction sensing assembly (500) includes a wind vane (510) that can freely rotate with the wind direction. A transmission shaft (520) is connected to the bottom of the wind vane (510). A rotating support (530) is provided at the top of the enclosure assembly (200), and a bearing seat cooperating with the transmission shaft (520) is provided on the rotating support (530); A rotating bracket (540) that rotatably cooperates with the transmission shaft (520) is provided on the rotating support (530). The transmission shaft (520) is connected to the transmission linkage assembly (700) for transmitting the force of the rotation of the wind vane (510) to the driving assembly (600).
8. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 5, characterized in that: The driving assembly (600) includes a winding wire roller (610) provided on the rotating support (530). A traction rope (620) cooperating with the turning assembly (300) is provided on the winding wire roller (610). A stable turning plate (630) cooperating with the traction rope (620) is provided on the rotating support (530). A stable through hole (640) is formed on the stable turning plate (630). A guiding support rod (650) is provided on the rotating support (530), and a guiding pulley (660) cooperating with the traction rope (620) is provided on the guiding support rod (650).
9. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 1, wherein: The transmission linkage assembly (700) includes a first transmission wheel (710) provided on the transmission shaft (520). A second transmission wheel (720) is provided on the winding wire roller (610). A transmission belt (730) is sleeved between the first transmission wheel (710) and the second transmission wheel (720).
10. The high-strength wind-resistant construction enclosure automatically adjusted based on the wind direction according to claim 1, characterized in that: A load-limiting assembly (800) for preventing the driving assembly (600) or the turning assembly (300) from being damaged when the external wind force is too large is provided on the transmission linkage assembly (700); the load-limiting assembly includes a torque limiter (810), and the torque limiter (810) is provided at the connection between the first transmission wheel (710) and the transmission shaft (520).
Citation Information
Cited By
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