Construction method for on-site intelligent control of fencing

Abstract

This invention provides a construction method for an intelligent on-site control fence, comprising the following steps: S1, positioning and pouring concrete for the piers; S2, fabricating the fence and support frame; S3, installing the support frame onto the piers; S4, installing a synchronization plate and diagonal bracing units on the fence and fixing them to the support frame and piers; S5, adjusting different diagonal bracing units to form a height-to-height combination; S6, installing a transition plate and solar panel, and installing a follower plate on the transition plate; S7, connecting the follower plate to the top of the fence using locking rods, auxiliary rods, springs, pull ropes, and a cable reel; S8, adjusting the position of the follower plate in S7; S9, installing rollers on the follower plate; S10, installing lighting and dust suppression units on the follower plate; S11, adjusting the status of each electrical component; S12, fixing the ends of two adjacent fences. This invention improves the installation efficiency of the fence while providing intelligent control, ensuring safe and stable construction.

Description

Technical Field

[0001] This invention relates to the field of engineering construction technology, and in particular to a construction method for on-site intelligent control of fencing. Background Technology

[0002] In the construction of various engineering projects such as building construction and water conservancy projects, construction site fencing is a common and crucial facility widely used around construction sites. Its main function is to isolate the construction area from the surrounding environment to ensure the safety of construction workers and the public, prevent unauthorized personnel from entering the construction site, effectively prevent dust, noise, and sewage pollution from the construction process, reduce the impact on surrounding residents and the environment, standardize the management of the construction site, prevent the loss of construction materials and equipment, improve construction efficiency, make the construction site more beautiful and tidy, and enhance the project image.

[0003] In terms of installation, traditional fencing installation is complex, requiring detailed site surveys and calculations, careful material selection and matching, and precise operation at each step, which is time-consuming and labor-intensive, affecting the construction progress. Regarding structural stability, fencing is prone to loosening, deformation, or even collapse due to severe weather such as strong winds and heavy rains, as well as collisions with vehicles and personnel at the construction site, threatening construction safety. As for lighting, fencing without illumination is difficult to spot at night or in low light conditions, easily leading to pedestrian and vehicle collisions, and also hindering construction workers from observing the fencing and identifying potential hazards.

[0004] Chinese patent document CN 105696851 A describes a fully prefabricated construction fence and its construction method, but the fence has limited support and adjustment and cannot adjust the lighting and dust suppression status according to the external environment; Chinese patent document CN107700932 A describes a construction method and fence module with a dust detection spray device, but the fence module cannot automatically suppress dust and has defects in use, which need to be improved. Summary of the Invention

[0005] This invention provides a construction method for on-site intelligent control of fencing, which solves the technical problems of inconvenient fencing construction and poor performance.

[0006] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is: a construction method for on-site intelligent control of fencing, comprising the following steps:

[0007] S1. Position the piers according to the design drawings and then pour the concrete.

[0008] S2. Construct baffles according to the spacing of multiple piers in S1, and construct supports according to the height of the baffles.

[0009] S3. After the pier construction in S1 is completed, install the support frame onto the pier.

[0010] S4. Install the timing plate and the diagonal brace unit on the baffle in sequence, and fix the timing plate and the diagonal brace unit to the bracket and the pier respectively.

[0011] S5. Adjust the state of the telescopic rods on different diagonal bracing units to create a high-low combination at different heights;

[0012] S6. Install the adapter plate and solar panel on the upper part of the bracket, and install the follower plate on the adapter plate;

[0013] S7. Connect the follower plate to the top of the baffle via a locking rod, auxiliary rod, spring, pull rope, and reel;

[0014] S8. Adjust the position of the follower plate in S7 to ensure that the spring and the pull rope are under stress.

[0015] S9. Install rollers on the follower plate, ensuring that the rollers are in contact with the outside of the baffle.

[0016] S10. Install the lighting unit and dust suppression unit onto the follow-up plate, and install a dust detection sensor on the top of the dust suppression unit. Install a top plate at the middle position of the top of the baffle, and install a camera, an ultrasonic wind direction sensor and a bulb on the top plate.

[0017] S11. Check the status of each electrical component and position it according to the design;

[0018] S12. Fix the ends of the two adjacent baffles.

[0019] In the preferred embodiment, the pre-embedded sleeve and the fixing cylinder are installed during the fabrication of the pier column in S1. In S3, the bracket is connected to the pre-embedded sleeve by fastening nails. In S4, the diagonal bracing unit is connected to the baffle by tie rods, and the tie rods are inserted into the fixing cylinder.

[0020] In the preferred embodiment, when making the baffle in S2, multiple parallel cross braces are first welded to the inner side of the skin, and then the multiple cross braces are connected by vertical braces. At the same time, guide braces are installed on the cross braces on any side of the skin, and threaded holes are made on the guide braces.

[0021] In the preferred embodiment, fastening nails are inserted into the base at the bottom of the bracket and locked into the pre-embedded sleeve. The locking plate inside the bracket is connected to the synchronization plate through fastening nails and nuts. In S6, solar panels are installed on the top of the bracket.

[0022] In the preferred embodiment, the fastening pin is first inserted into the first oblong groove, and then the first sliding grooves of the two first locking blocks of the synchronizing plate are aligned with the vertical support and slid in. The position of the fastening pin is adjusted to be aligned with the locking plate for locking.

[0023] In the preferred embodiment, the sleeve and support rod on the diagonal brace unit are adjusted from the retracted state to the extended state. The first lock head at the end of the sleeve is connected to the fixed cylinder through the pull rod. The second lock head at the end of the support rod is hinged through the insert rod and the second lock block on the second slide groove. The position of the second slide groove is adjusted, and the ear plate on the second slide groove is aligned with the vertical brace and slid in.

[0024] In the preferred embodiment, in S6, the adapter plate is fixed to the inner side of the bracket using fastening nails and insert rods. The adapter plate has the following structure: the adapter plate includes a C-shaped plate and a limiting plate. A second oblong groove is provided through the limiting plate. The fastening nails and insert rods are inserted through the C-shaped plate. The bracket is fitted to the inner side of the C-shaped plate. The follower plate has the following structure: the follower plate includes a cross plate body. A protrusion is provided at the bottom of the cross plate body. A roller is rotatably mounted on the protrusion. A first mounting sleeve and a second mounting sleeve are respectively provided on the upper and lower sides of the cross plate body. The lighting unit is connected to the first mounting sleeve, and the dust suppression unit is connected to the second mounting sleeve.

[0025] In the preferred embodiment, in S7, the height of the auxiliary rod is adjusted. The auxiliary rod has the following structure: a fixed pulley is fitted on the auxiliary rod, and anti-detachment rods are provided on both sides of the fixed pulley. The fixed pulley and the anti-detachment rods are connected to form a correction gap, and the pull rope is threaded through the correction gap.

[0026] In a preferred embodiment, the structure of the lighting unit is as follows: the lighting unit includes a first base plate, a first arc surface is provided on one side of the first base plate, a main light strip is provided in the first arc surface, an auxiliary light strip is provided on the side wall of the first base plate, a first top rod is provided on the top of the first base plate, the first top rod is inserted into the first mounting sleeve, and cleaning pipes are also provided on both sides of the first arc surface.

[0027] In the preferred embodiment, the structure of the dust suppression unit is as follows: the dust suppression unit includes a second base plate, a second arc surface is provided on one side of the second base plate, low-pressure atomizing tubes and high-pressure atomizing tubes are evenly distributed on the second arc surface, and a second top rod is provided on the top of the second base plate, the second top rod is inserted into the second mounting sleeve.

[0028] The beneficial effects of this invention are as follows: Utilizing pre-cast concrete piers as a foundation allows for the secure installation of the baffle, ensuring the stability of the enclosure. The overall rigid connection provides strong support. Simultaneously, the lighting and dust suppression units can be intelligently controlled based on environmental changes via sensors such as cameras, ultrasonic wind direction sensors, and dust detection sensors. These units also act as counterweights, improving the environment within a certain range of the construction enclosure and enhancing construction safety. The piers in this solution serve as a combination of permanent and temporary structures, providing the installation foundation for the enclosure during initial construction. After the enclosure is dismantled, they become the base fixing structure for the designed streetlights, ensuring efficient construction. Attached Figure Description

[0029] The present invention will be further described below with reference to the accompanying drawings and embodiments:

[0030] Figure 1 This is a schematic diagram of the overall structure of the present invention. Figure 1 ;

[0031] Figure 2 yes Figure 1 Rear view diagram;

[0032] Figure 3 yes Figure 1 A frontal view diagram;

[0033] Figure 4 yes Figure 1 A top-down view;

[0034] Figure 5 yes Figure 1 A left-view diagram;

[0035] Figure 6 yes Figure 5 Enlarged view of point A;

[0036] Figure 7 This is a schematic diagram of the overall structure of the present invention. Figure 2 ;

[0037] Figure 8 yes Figure 1 Explosion structure diagram Figure 1 ;

[0038] Figure 9 yes Figure 8 Enlarged view of point B;

[0039] Figure 10 yes Figure 1 Explosion structure diagram Figure 2 ;

[0040] Figure 11 yes Figure 10 Enlarged view of point C;

[0041] Figure 12 yes Figure 1 Explosion structure diagram Figure 3 ;

[0042] Figure 13 yes Figure 12 Enlarged diagram of point D;

[0043] Figure 14 yes Figure 1 Explosion structure diagram Figure 4 ;

[0044] Figure 15 yes Figure 12Enlarged view of point E;

[0045] Figure 16 This is a schematic diagram of the installation of the lighting unit and dust suppression unit of the present invention. Figure 1 ;

[0046] Figure 17 yes Figure 16 Enlarged schematic diagram at point F;

[0047] Figure 18 This is a schematic diagram of the installation of the lighting unit and dust suppression unit of the present invention. Figure 2 ;

[0048] Figure 19 This is a schematic diagram of the initial skin state of the baffle of the present invention;

[0049] Figure 20 yes Figure 19 Schematic diagram of the cross bracing installation status of the skin;

[0050] Figure 21 yes Figure 20 Schematic diagram showing the installation status of horizontal and vertical braces on the skin;

[0051] Figure 22 yes Figure 21 Schematic diagram of the installation status of horizontal and vertical braces and guide braces on the skin.

[0052] In the diagram: 1. Baffle; 101. Horizontal brace; 102. Vertical brace; 103. Guide brace; 104. Threaded hole; 105. Skin; 2. Pier; 3. Bracket; 301. Frame; 302. Base; 303. Locking plate; 4. Synchronization plate; 401. First oblong groove; 402. First locking block; 403. First sliding groove; 5. Solar panel; 6. Follower plate; 601. Cross plate; 602. First mounting sleeve; 603. Second mounting sleeve; 604. Protruding strip; 7. Lighting unit; 701. First arc surface; 702. Main light strip; 703. Secondary light strip; 704. First top rod; 705. Cleaning pipe; 706. Dust suppression unit; 8. Second base plate; 801. Second arc surface; 802. Low-pressure atomizing pipe; 803. High-pressure atomizing pipe. Pipe 804; Second top rod 805; Diagonal brace unit 9; Sleeve 901; Support rod 902; First lock head 903; Second lock head 904; Second lock block 905; Second slide groove 906; Ear plate 907; Top plate 10; Camera 11; Ultrasonic wind direction sensor 12; Dust detection sensor 13; Fastening nail 14; Insert rod 15; Nut 16; Lock rod 17; Auxiliary rod 18; Fixed pulley 1801; Anti-detachment rod 1802; Spring 19; Pull rope 20; Cable reel 21; Adapter plate 22; C-shaped plate 2201; Limiting plate 2202; Second oblong groove 2203; Light bulb 23; Roller 24; Embedded sleeve 25; Fixed cylinder 26; Pull rod 27; Telescopic rod 28. Detailed Implementation

[0053] like Figure 1-7 A construction method for on-site intelligent control of fencing includes the following steps:

[0054] S1. Position and pour the concrete for pier 2 according to the design drawings;

[0055] S2. Make baffles 1 according to the arrangement spacing of multiple piers 2 in S1, and make brackets 3 according to the height of baffles 1.

[0056] S3. After the construction of pier 2 in S1 is completed, install the bracket 3 onto pier 2;

[0057] S4. Install the synchronization plate 4 and the diagonal brace unit 9 on the baffle 1 in sequence, and fix the synchronization plate 4 and the diagonal brace unit 9 to the bracket 3 and the pier 2 respectively.

[0058] S5. Adjust the state of the telescopic rods 28 on different diagonal bracing units 9 to form a high-low combination at different heights;

[0059] S6. Install the adapter plate 22 and the solar panel 5 on the upper part of the bracket 3, and install the follower plate 6 on the adapter plate 22.

[0060] S7. The follower plate 6 is connected to the top of the baffle 1 by means of the locking rod 17, the auxiliary rod 18, the spring 19, the pull rope 20 and the reel 21.

[0061] S8. Adjust the position of the follower plate 6 in S7 to ensure that the spring 19 and the pull rope 20 are under force.

[0062] S9. Install rollers 24 on the follower plate 6, ensuring that the rollers 24 are in contact with the outer side of the baffle 1;

[0063] S10. Install the lighting unit 7 and the dust suppression unit 8 onto the follower plate 6. At the same time, install the dust detection sensor 13 on the top of the dust suppression unit 8. Install the top plate 10 at the middle position of the top of the baffle 1. Install the camera 11, the ultrasonic wind direction sensor 12 and the bulb 23 on the top plate 10.

[0064] S11. Check the status of each electrical component and position it according to the design;

[0065] S12. Fix the ends of the two adjacent baffles 1.

[0066] As a combination of temporary and permanent structures, pier 2 is constructed first according to the design drawings during the initial construction phase. After its completion, support frame 3 and baffle 1 are installed using pier 2. Multiple baffles 1 form an enclosing area, where other construction work besides the pier is completed simultaneously. After the other construction work is completed, the streetlights on pier 2 are installed last, effectively switching pier 2 between temporary and permanent structures. This clever use improves construction convenience. The diagonal bracing unit 9 increases the support strength of the baffle 1 and can withstand strong winds. The solar panel 5, located on top of support frame 3, provides power to lighting unit 7 and matching unit 8. Lighting unit 7 provides sufficient illumination to the outside of baffle 1 at night, improving safety. The solar panel 5 on top of support frame 3 is electrically connected to each electrical component. Through the above steps, after pier 2 and support frame 3 are fixed to diagonal bracing unit 9 and baffle 1 respectively via synchronous plate 4, the follow-up plate 6 is adjusted to ensure smooth operation without jamming.

[0067] like Figure 8-9 In the preferred embodiment, the pre-embedded sleeve 25 and the fixing cylinder 26 are installed during the fabrication of the pier column 2 in S1. In S3, the bracket 3 is connected to the pre-embedded sleeve 25 by fastening nail 14. In S4, the diagonal bracing unit 9 is connected to the baffle 1 by tie rod 27, and the tie rod 27 passes through the fixing cylinder 26.

[0068] During the construction of pier 2, a pre-embedded sleeve 25 is installed. The pre-embedded sleeve 25 has threads, so the bracket 3 can be accurately installed using the pier 2 as a reference. Then, the bracket 3 and pier 2 are locked to the baffle 1 by the synchronous plate and the diagonal brace unit 9, which ensures that the gap between multiple adjacent baffles 1 is small after installation. In S12, in order to ensure that the two adjacent baffles 1 are installed firmly, the horizontal brace 101 is provided with an installation hole. The two adjacent baffles 1 are also provided with a detachable reinforcing rib. The fastening nail 14 can be directly screwed into the installation hole through the reinforcing rib (made of plate and drilled). At this time, the two adjacent baffles 1 are effectively connected. Multiple baffles 1 are connected to form a stable enclosure, which ensures the isolation between the construction area and the external environment. The overall isolation effect is good, safe and stable. In order to ensure the convenience of installation and the overall saving of materials, the length of the baffle 1 is an integer multiple of the distance between two adjacent piers 2, preferably twice, that is, only two baffles 1 are needed between four piers to complete the quick installation.

[0069] like Figure 19-22In the preferred embodiment, when the baffle 1 is made in S2, multiple parallel cross braces 101 are first welded on the inner side of the skin 105, and then the multiple cross braces 101 are connected by vertical braces 102. At the same time, guide braces 103 are installed on the cross braces 101 on any side of the skin 105, and threaded holes 104 are made on the guide braces 103.

[0070] The horizontal brace 101 on the inner side of the baffle 1 can further improve the rigidity of the baffle 1. The skin 105 is made of color steel plate. The vertical brace 102, together with the horizontal brace 101, forms a grid structure, which makes the overall load-bearing capacity stronger. The vertical brace 102 is set on the outside of the horizontal brace 101. At the same time, the vertical brace 102 serves as the installation foundation of the synchronous plate 4, which is convenient for construction. The vertical brace 102 is made of profile with a T-shaped cross section, which facilitates the installation and locking of the synchronous plate 4 and the diagonal brace unit 11.

[0071] The guide brace 103 has a T-shaped cross-section, which serves to prevent detachment. The roller 24 is locked from the bottom of the guide brace 103 by means of the protrusion 604, preventing the follower plate 6 and the baffle 1 from separating. The overall movement effect is good, and the relative position between the components can still be kept accurate under the influence of external wind. At the same time, the adapter plate 22 ensures the movement accuracy of the follower plate 6. The bracket 3 and the pier 2 are firmly connected, so that the bracket 3 can ensure that the reference of the pier 2 is consistent with that of the pier 2. The adapter plate 22 can be adjusted in height as needed, and then it serves as a limit for the follower plate 6, and also controls the accuracy of the follower plate 6. The diameter of the fastening nail 14 matches the width of the second oblong groove 2203. When the baffle 1 undergoes slight deformation, the roller 24, in conjunction with the adapter plate 22, can correct the deviation of the baffle 1, thereby ensuring the consistency of the appearance of the baffle 1 and improving the overall performance. The auxiliary rod 18 can effectively limit the pull rope 20, preventing it from detaching from the fixed pulley 1801. The fixed pulley 1801 serves as a guide for the winding of the pull rope 20, ensuring that the pull rope 20 can be wound on the winder 21 according to the designed winding direction and position. It has good reusability, high precision, and ingenious design.

[0072] The top plate 10 is fixed by fastening nails 14 and guide braces 103. The camera 11 and ultrasonic wind direction sensor 12 are installed on the top plate 10. The bulb 23 is installed at the bottom of the top plate 10. The dust detection sensor 13 is installed on the upper side of the dust suppression unit 8. The camera 11, ultrasonic wind direction sensor 12 and dust detection sensor 13 work together to control the working status of the lighting unit 7 and the dust suppression unit 8.

[0073] When the length of baffle 1 is relatively long and supplemental lighting is needed in the middle section of baffle 1, the bulb 23 located at the bottom of the top plate 10 comes into play. The bulb 23 is an energy-saving bulb, providing high illumination brightness and low energy consumption. The camera 11 can identify the flow of people and vehicles passing through during construction, thus guiding the operation of the lighting unit 7 and the dust suppression unit 8. The dust detection sensor 13 is a PM2.5 sensor that can detect PM2.5 values ​​in real time. When the traffic flow is low and there is little dust, the low-pressure atomizing tube 803 is used for dust suppression; when the traffic flow is low and there is a lot of dust, the high-pressure atomizing tube is used. Dust suppression is performed using tube 804. When traffic volume and dust levels are high, low-pressure atomizing tube 803 is used in conjunction with high-pressure atomizing tube 804 for mixed spraying to suppress dust. To further improve the comfort of pedestrians, the tube operates during gaps in pedestrian flow. When pedestrian flow is concentrated, low-pressure atomizing tube 803 operates, and when pedestrian flow is relatively dispersed, high-pressure atomizing tube 804 operates in a point spraying manner. Low-pressure atomizing tube 803 continues to operate until the next wave of concentrated pedestrian flow arrives. This process is repeated to ensure the effectiveness of dust suppression. When the dust detection sensor 13 detects a value within the design range, the dust suppression module stops operating.

[0074] In the preferred embodiment, fastening nails 14 are inserted into the base 302 at the bottom of the bracket 3 and locked into the pre-embedded sleeve 25. The locking plate 303 on the inner side of the frame 301 is connected to the synchronization plate 4 through the fastening nails 14 and nuts 16. In S6, the solar panel 5 is installed on the top of the frame 301.

[0075] Using the pier 2 as a temporary bottom foundation, the bracket 3 is fixed, and the bracket 3 and the synchronous plate 4 are used as the intermediate connecting parts. Then, the baffle 1 and the pier 2 are indirectly fixed using fastening nails 14. The overall fixing effect is good, the locking is sufficient, and it has a strong ability to cope with external wind disturbance. That is, the pier 2 is equivalent to taking root at the bottom of the baffle 1 and the ground.

[0076] In the preferred embodiment, the fastening pin 14 is first inserted into the first oblong groove 401, and then the first sliding groove 403 of the two first locking blocks 402 of the synchronization plate 4 is aligned with the vertical support 102 and slid in. The position of the fastening pin 14 is adjusted to be aligned with the locking plate 303 for locking.

[0077] Because the gap between the synchronization plate 4 and the baffle 1 is small, the fastening nail 8 will not fall out of the gap after the first locking block 402 is installed on the vertical support 102, making the operation stable and convenient.

[0078] like Figure 10-18In the preferred embodiment, the sleeve 901 and support rod 902 on the diagonal brace unit 9 are adjusted from the retracted state to the extended state. The first lock head 903 at the end of the sleeve 901 is connected to the fixed cylinder 26 through the pull rod 27. The second lock head 904 at the end of the support rod 902 is hinged through the insert rod 15 and the second lock block 905 on the second slide groove 906. The position of the second slide groove 906 is adjusted, and the ear plate 907 on the second slide groove 906 is aligned with the vertical brace 102 and slid in.

[0079] The structure of the diagonal bracing unit 9 is as follows: the ends of the sleeve 901 and the support rod 902 are respectively provided with a first lock head 903 and a second lock head 904. The support rod 902 is connected to the sleeve 901 through the telescopic rod 28. The support rod 902 is inserted into the sleeve 901. The two opposite second lock heads 904 are fixed to the pier 2 through the pull rod 27. The outer side of the second locking block 905 is provided with an ear plate 907. The insertion rod 15 is inserted into the ear plate 907 and the first lock head 903. The top of the pier 2 is provided with a fixing cylinder 26. The pull rod 27 is inserted into the fixing cylinder 26.

[0080] The diagonal bracing units 9 are symmetrically arranged on both sides of the bracket 3. By adjusting the telescopic rod 28, the support rods 902 of the two diagonal bracing units 9 can be adjusted to different lengths. The two support rods 902 have different lengths, thus forming a high-low combination, supporting and locking the baffle 1 at different heights. In this state, there is only one locking state, thereby improving the support effect of the baffle 1. It can only be released in one position, ensuring a firm installation. At the same time, the ultrasonic wind direction sensor 12 installed on the top plate 10 can accurately monitor the wind force and direction. Based on the wind force detection results, the telescopic rod 28 synchronously increases the overall telescopic length, thereby further improving the support stability of the baffle 1. When the state of the telescopic rod 28 is adjusted, the positions of the two support rods 902 relative to the baffle 1 and the support 102 are different, thus adjusting the support force accordingly. This design allows for adaptive adjustment, unlike traditional steel pipe welding methods that result in cumbersome welding work and require multiple placements along the height. This solution, however, only requires two braces to adjust the support force, is easy to manufacture, and allows for flexible replacement of components within the brace unit 9 based on the fence height. This significantly improves construction efficiency for longer fences. After completion, the braces can be easily disassembled and transported. Traditional welded braces are bulky, difficult to store, and have limited adaptability, preventing quick replacement between projects. Their versatility is greatly affected by the project, requiring cutting and secondary welding for different projects, leading to high labor intensity and operating costs.

[0081] In the preferred embodiment, in S6, the adapter plate 22 is fixed to the inner side of the bracket 3 using fastening nails 14 and insert rods 15. The adapter plate 22 has the following structure: the adapter plate 22 includes a C-shaped plate 2201 and a limiting plate 2202. A second oblong groove 2203 is provided through the limiting plate 2202. The fastening nails 14 and insert rods 15 are inserted through the C-shaped plate 2201. The bracket 3 is attached to the inner side of the C-shaped plate 2201. The follower plate 6 has the following structure: the follower plate 6 includes a cross plate body 601. A protrusion 604 is provided at the bottom of the cross plate body 601. A roller 24 is rotatably provided on the protrusion 604. A first mounting sleeve 602 and a second mounting sleeve 603 are respectively provided on the upper and lower sides of the cross plate body 601. The lighting unit 7 is connected to the first mounting sleeve 602, and the dust suppression unit 8 is connected to the second mounting sleeve 603.

[0082] During installation, fastening nail 14 and C-shaped plate 2201 are threaded together, and insertion rod 15 is attached to the side wall of frame 301, ensuring that the height of adapter plate 22 can be flexibly adjusted as needed. At the same time, the overall installation is firm and the force is sufficient. The top of adapter plate 22 is kept on the same plane as the top surface of guide plate 103 of baffle 1, which facilitates the movement of follower plate 6.

[0083] In the preferred embodiment, in S7, the height of the auxiliary rod 18 is adjusted. The structure of the auxiliary rod 18 is as follows: a fixed pulley 1801 is sleeved on the auxiliary rod 18, and anti-detachment rods 1802 are respectively provided on both sides of the fixed pulley 1801. The fixed pulley 1801 and the anti-detachment rods 1802 are connected to form a correction gap, and the pull rope 20 is threaded through the correction gap.

[0084] The guide brace 103 serves as the bottom support for the follower plate 6, ensuring smooth movement of the follower plate 6. The locking rod 17 can be installed according to the adjustment range of the follower plate 16, and works with the spring 19 to adjust the elastic force. The winding device 21 contains a motor, which can adjust the length of the pull rope 20 under the action of the motor. In the initial state, both the spring 19 and the pull rope 20 are under tension, and at this time, the follower plate 6 is located at the end of its stroke. When it is necessary to change the position of the follower plate 6, the winding device 21 winds the pull rope 20. When the spring 19 is pulled by the rope, the follower plate 6 gradually moves away from the far end of the spring 19. The follower plate 6 drives the lighting unit 7 and the dust suppression unit 8 to adjust their positions. When the designed position is reached, it is locked. After the operation is completed, when it is necessary to return to the initial position, the reel 21 releases the pull rope 20 in the opposite direction. Under the action of the spring 19, the follower plate 6 gradually moves to the new target position. This is repeated to achieve position adjustment in the lateral direction along the baffle 1, thereby changing the coverage of lighting and dust suppression. It is intelligent, energy-saving and environmentally friendly, and has a good effect.

[0085] In a preferred embodiment, the structure of the lighting unit 7 is as follows: the lighting unit 7 includes a first base plate 701, a first arc surface 702 is provided on one side of the first base plate 701, a main light strip 703 is provided in the first arc surface 702, an auxiliary light strip 704 is provided on the side wall of the first base plate 701, a first push rod 705 is provided on the top of the first base plate 701, the first push rod 705 is inserted into the first mounting sleeve 602, and cleaning pipes 706 are also provided on both sides of the first arc surface 702.

[0086] In the preferred embodiment, the structure of the dust suppression unit 8 is as follows: the dust suppression unit 8 includes a second base plate 801, a second arc surface 802 is provided on one side of the second base plate 801, low-pressure atomizing tubes 803 and high-pressure atomizing tubes 804 are evenly distributed on the second arc surface 802, and a second top rod 805 is provided on the top of the second base plate 801, and the second top rod 805 is inserted into the second mounting sleeve 603.

[0087] The lighting unit 7 and the dust suppression unit 8 are made of lightweight materials on the follower plate 6, which can act as a counterweight to ensure that the roller 24 moves more smoothly. At the same time, the cantilever design allows for a larger overall working range and better performance.

[0088] The main light strip 703 provides illumination, while the auxiliary light strip 704 serves as a warning light that can flash. Therefore, the main light strip 703 and the auxiliary light strip 704 together achieve both illumination and warning functions. For different dust concentrations, the low-pressure atomizing tube 803 and the high-pressure atomizing tube 804 can work together, switching between three states: only the low-pressure atomizing tube 803 works, only the high-pressure atomizing tube 804 works, and both work simultaneously. Simultaneously, the coverage area is adjusted by the follower plate 6. As the follower plate 6 moves, the illumination range also changes, especially in areas with poor nighttime lighting, such as at corners of the enclosure. The movable plate 6 moves closer to the corner to ensure overlapping coverage of the corner lighting, providing safety for passing personnel and vehicles. Since risks often stem from limited visibility, the corners of construction sites are typically the most dangerous areas. This solution effectively addresses this issue at night. Not all construction areas have streetlight coverage at night, and streetlights have set on / off times. This solution avoids the risks associated with areas without streetlights or with incomplete coverage. Furthermore, to address the aforementioned nighttime safety risks, this solution designates the first base plate 701 as concave, thereby increasing the visibility of the main light strip 7. The 0.03 light concentration ensures transparency. To address the safety risks of daytime dust suppression, the second mounting plate 801 is designed with an outward convex shape, thereby increasing the spray range of the low-pressure atomizing tube 803 and the high-pressure atomizing tube 804. The high-pressure atomizing tube 804 has a larger spray coverage distance and relatively higher spray pressure, using a straight spray pattern. The low-pressure atomizing tube 804 has a larger spray coverage area and relatively lower spray pressure, using a fan-shaped spray pattern. This means the low-pressure atomizing tube 803 can better fill the gaps between the high-pressure atomizing tube 804, and simultaneously sweep under the action of the follower plate 6, ensuring that dust near the enclosure is quickly removed. During construction, dust inside the enclosure will be swept away by the wind... The dust is dispersed randomly and unpredictably under the influence of airflow. Therefore, the above-mentioned setup ensures the dust reduction effect. In non-construction scenarios, when there is a large amount of dust in the air and no construction is underway, this solution can still play a role in dust reduction, ensuring the comfort of passersby. At the same time, it saves water. A water tank with a pressure pump is installed on one side of the pier 2. In addition, since dust coverage is unavoidable, cleaning pipes 706 are also installed on both sides of the first seat plate 701. Due to the concave structure, the water flow sprays around the first arc surface 702 to clean the main light strip 703. The effect is good. The corresponding main light strip 703 is an insulated plastic-sealed light strip.

[0089] The above embodiments are merely preferred technical solutions of the present invention and should not be considered as limitations on the present invention. The scope of protection of the present invention should be limited to the technical solutions described in the claims, including equivalent substitutions of the technical features described in the claims. That is, equivalent substitutions and improvements within this scope are also within the scope of protection of the present invention.

Claims

1. A construction method for on-site intelligent control of fencing, characterized by: Includes the following steps: S1. Position the pier (2) according to the design drawings and pour the concrete. S2. Make baffles (1) according to the arrangement spacing of multiple piers (2) in S1, and make brackets (3) according to the height of baffles (1). S3. After the construction of the pier (2) in S1 is completed, install the bracket (3) onto the pier (2); S4. Install the synchronization plate (4) and the diagonal brace unit (9) on the baffle (1) in sequence, and fix the synchronization plate (4) and the diagonal brace unit (9) to the bracket (3) and the pier (2) respectively. S5. Adjust the state of the telescopic rods (28) on different diagonal bracing units (9) to form a high-low combination at different heights; S6. Install the adapter plate (22) and solar panel (5) on the upper part of the bracket (3), and install the follower plate (6) on the adapter plate (22). The adapter plate (22) is fixed to the inside of the bracket (3) using fastening nails (14) and insert rods (15). The adapter plate (22) includes a C-shaped plate (2201) and a limiting plate (2202). A second oblong groove (2203) is provided through the limiting plate (2202). The fastening nails (14) and insert rods (15) are inserted through the C-shaped plate (2201). The bracket (3) is attached to the inside of the C-shaped plate (2201). S7. Connect the follower plate (6) to the top of the baffle (1) via the locking rod (17), auxiliary rod (18), spring (19), pull rope (20) and reel (21); S8. Adjust the position of the follower plate (6) in S7 to ensure that the spring (19) and the pull rope (20) are under force. S9. Install rollers (24) on the follower plate (6), ensuring that the rollers (24) are in contact with the outside of the baffle (1); The follower plate (6) includes a cross plate body (601), and a protrusion (604) is provided at the bottom of the cross plate body (601). A roller (24) is rotatably mounted on the protrusion (604). The adapter plate (22) serves as a limit for the follower plate (6), and the diameter of the fastening pin (14) matches the width of the second oblong groove (2203). When the baffle (1) undergoes slight deformation, the roller (24) works with the adapter plate (22) to correct the deviation of the baffle (1). S10. Install the lighting unit (7) and the dust suppression unit (8) onto the follower plate (6), and install a dust detection sensor (13) on the top of the dust suppression unit (8), and install a top plate (10) at the middle position of the top of the baffle (1). Install a camera (11), an ultrasonic wind direction sensor (12) and a bulb (23) on the top plate (10). The locking rod (17) is installed according to the adjustment range of the follower plate (6) and the elastic force is adjusted in conjunction with the spring (19). The winding device (21) is equipped with a motor. The winding device (21) adjusts the length of the pull rope (20) under the action of the motor. In the initial state, the spring (19) and the pull rope (20) are both under force. The follower plate (6) is located at the end of the stroke. When it is necessary to change the position of the follower plate (6), the pull rope (20) is wound by the winding device (21). The spring (19) is stretched. The follower plate (6) gradually moves away from the far end of the spring (19). The follower plate (6) drives the lighting unit (7) and the dust suppression unit (8) to adjust their positions. When the design position is reached, it is locked. When it is necessary to return to the initial position, the winding device (21) releases the pull rope (20) in the opposite direction. The follower plate (6) gradually moves to the new target position under the action of the spring (19). S11. Check the status of each electrical component and position it according to the design; S12. Fix the ends of the two adjacent baffles (1).

2. The construction method for the on-site intelligent control of the enclosure according to claim 1, characterized in that: in In the process of manufacturing the pier column (2) in S1, the pre-embedded sleeve (25) and the fixed cylinder (26) are installed. In S3, the bracket (3) is connected to the pre-embedded sleeve (25) by fastening nail (14). In S4, the diagonal bracing unit (9) is connected to the baffle (1) by tie rod (27), and the tie rod (27) is inserted into the fixed cylinder (26).

3. The construction method for the on-site intelligent control of the enclosure according to claim 1, characterized in that: When making the baffle (1) in S2, multiple parallel cross braces (101) are first welded on the inner side of the skin (105), and then the multiple cross braces (101) are connected by vertical braces (102). At the same time, guide braces (103) are installed on the cross braces (101) on any side of the skin (105), and threaded holes (104) are made on the guide braces (103).

4. The construction method for on-site intelligent control of the enclosure according to claim 2, characterized in that: in Fastening nails (14) are inserted into the base (302) at the bottom of the bracket (3). The fastening nails (14) are screwed into the embedded sleeve (25) for locking. The locking plate (303) on the inner side of the frame (301) is connected to the synchronization plate (4) through the fastening nails (14) and nuts (16). In S6, the solar panel (5) is installed on the top of the frame (301).

5. The construction method for the on-site intelligent control of the enclosure according to claim 4, characterized in that: First, insert the fastening pin (14) into the first oblong groove (401), then align the first sliding groove (403) of the two first locking blocks (402) of the synchronization plate (4) with the vertical support (102) and slide it in. Adjust the position of the fastening pin (14) to align with the locking plate (303) and lock it.

6. The construction method for the on-site intelligent control of the enclosure according to claim 4, characterized in that: Adjust the sleeve (901) and support rod (902) on the diagonal brace unit (9) from the retracted state to the extended state. The first lock head (903) at the end of the sleeve (901) is connected to the fixed cylinder (26) through the pull rod (27). The second lock head (904) at the end of the support rod (902) is hinged through the insert rod (15) and the second lock block (905) on the second slide groove (906). Adjust the position of the second slide groove (906) and align the ear plate (907) on the second slide groove (906) with the vertical brace (102) and slide it in.

7. The construction method for on-site intelligent control of the enclosure according to claim 1, characterized in that: in In S6, a first mounting sleeve (602) and a second mounting sleeve (603) are respectively provided on the upper and lower sides of the cross plate body (601). The lighting unit (7) is connected to the first mounting sleeve (602), and the dust suppression unit (8) is connected to the second mounting sleeve (603).

8. The construction method for on-site intelligent control of the enclosure according to claim 7, characterized in that: in In S7, the height of the auxiliary rod (18) is adjusted. The structure of the auxiliary rod (18) is as follows: a fixed pulley (1801) is sleeved on the auxiliary rod (18), and anti-detachment rods (1802) are respectively provided on both sides of the fixed pulley (1801). The fixed pulley (1801) and the anti-detachment rods (1802) are connected to form a correction gap, and the pull rope (20) is threaded through the correction gap.

9. The construction method for the on-site intelligent control of the enclosure according to claim 7, characterized in that: The structure of the lighting unit (7) is as follows: The lighting unit (7) includes a first base plate (701), a first arc surface (702) is provided on one side of the first base plate (701), a main light strip (703) is provided in the first arc surface (702), an auxiliary light strip (704) is provided on the side wall of the first base plate (701), a first top rod (705) is provided on the top of the first base plate (701), the first top rod (705) is inserted into the first mounting sleeve (602), and cleaning pipes (706) are also provided on both sides of the first arc surface (702).

10. The construction method for on-site intelligent control of the enclosure according to claim 7, characterized in that: The structure of the dust suppression unit (8) is as follows: The dust suppression unit (8) includes a second base plate (801), a second arc surface (802) is provided on one side of the second base plate (801), low-pressure atomizing tubes (803) and high-pressure atomizing tubes (804) are evenly distributed on the second arc surface (802), and a second top rod (805) is provided on the top of the second base plate (801), and the second top rod (805) is inserted into the second mounting sleeve (603).

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