A maintenance method for high-speed construction control system

Abstract

The invention relates to a maintenance method for a high-speed construction control system, and belongs to the field of high-speed construction control system maintenance. The method divides a room into different areas, and then first performs dehumidification treatment on a medium-humidity area, arranges a row of first wave-shaped protrusions on the roof, and then arranges second wave-shaped protrusions on two third side wall areas, and then performs dehumidification treatment on a high-humidity area, arranges a plurality of first arc-shaped protrusions on a first side wall area avoiding a door and window area, and finally performs dehumidification treatment on a low-humidity area, connects a bottom plate to the ground through a horizontal support device, ensures that a certain space is left between the bottom plate and the ground, and arranges a plurality of second arc-shaped protrusions on a second side wall area until the second arc-shaped protrusion covers the second side wall area, thereby solving the problem that the heat generated by the high-speed construction control system is difficult to effectively dissipate in a room with high humidity.

Description

Technical Field

[0001] The invention belongs to the field of high-speed construction control system maintenance, and in particular relates to a high-speed construction control system maintenance method. Background Art

[0002] During the high-speed construction process, in order to improve construction efficiency and ensure construction safety, general building structures are usually carried out on the construction site. A simple room will be set up, including a roof, a floor and four side walls. Doors and windows are opened on one of the side walls, and ventilation holes are set on the side wall close to the roof. This simple room is used as the nerve center of the entire construction project. The main control system and display equipment will be installed in the room to monitor the situation on the construction site in real time, coordinate and manage various construction activities.

[0003] When the current high-speed construction control system is in use, the control system in the room needs to run uninterruptedly throughout the day to ensure real-time monitoring of the construction site. At the same time, technical personnel are required to regularly maintain the control system, for example, regular physical inspections of all monitoring equipment and control systems, and regular updates and optimizations of the software system to maintain the stability and efficiency of the system.

[0004] However, there are some problems in the maintenance of the current high-speed construction control system: since high-speed construction will inevitably encounter harsh construction conditions, when encountering hot and rainy weather in summer, frequent rainfall will significantly increase the humidity of the outside air, and the room where the control system is located is simple, and the isolation and sealing effect of the room is difficult to ensure. Therefore, the room where the control system is located will have air exchange with the outside environment, and the high-humidity moisture from the outside may penetrate into the room through windows, door gaps and other channels, which may cause condensation droplets to form on indoor areas such as walls and roofs. Especially when it rains for a long time, the condensation droplets formed on indoor areas such as walls and roofs will stay for a long time, causing the humidity in the room to continue to increase. At this time, the heat generated by the control system is difficult to effectively dissipate in the high humidity environment in the room, which eventually causes the internal temperature of the system to rise, and eventually affects the performance and life of electronic components. To address this problem, a maintenance method for a high-speed construction control system is proposed. By reducing the humidity in the room, the heat generated by the control system is avoided from being difficult to dissipate due to excessive humidity in the room, so as to better maintain the high-speed construction control system. Summary of the invention

[0005] In order to solve the above-mentioned problems existing in the prior art, the present invention provides a maintenance method for a high-speed construction control system, which solves the problem that when the high-speed construction control system in the prior art encounters hot and rainy weather in summer, the insulation effect of the room is poor, which will cause excessive humidity in the room, and the heat generated by the control system is difficult to effectively dissipate in the high humidity environment in the room, which ultimately causes the internal temperature of the system to rise.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] A maintenance method for a high-speed construction control system comprises the following steps:

[0008] S1: Divide the room into different areas, select the side wall where the door and window are located as the first side wall area, the side wall opposite to the side wall where the door and window are located as the second side wall area, and the other two opposite side walls as the third side wall areas. The first side wall area is designated as the high humidity area, the roof and the two third side wall areas are designated as the medium humidity area, and the bottom plate and the second side wall area are designated as the low humidity area;

[0009] S2: First, dehumidify the medium-humidity area, first, take the connection between one of the third side wall areas and one end of the roof as the starting point, and the connection between the other third side wall area and the other end of the roof as the end point, and set a row of first wave-shaped protrusions on the roof along the horizontal direction from the starting point to the end point, and then set several rows of first wave-shaped protrusions on the roof in the same way, until the several rows of first wave-shaped protrusions cover the roof area, and then select the starting point between two adjacent rows of first wave-shaped protrusions and the end point on the bottom plate, and set second wave-shaped protrusions on the two third side wall areas along the direction from the starting point to the end point, until the several rows of second wave-shaped protrusions cover the two third side wall areas;

[0010] S3: Dehumidification treatment is then performed on the high humidity area, starting from the gap between two adjacent protrusions of the first wave-shaped protrusions and ending at the bottom plate, and arranging a plurality of first arc-shaped protrusions on the first side wall area avoiding the door and window area along the vertical direction until the first arc-shaped protrusions cover the area on the first side wall area avoiding the door and window;

[0011] S4: Dehumidify the low-humidity area, connect the bottom plate to the ground through a horizontal support device, ensure that a certain space is left between the bottom plate and the ground so that moisture can be discharged through natural convection, and on the second side wall area, take the gap between two adjacent protrusions of the first wave-shaped protrusion as the starting point and the bottom plate as the end point, and form several second arc-shaped protrusions on the second side wall area along the vertical direction until the second arc-shaped protrusion covers the second side wall area.

[0012] As a further solution of the present invention, the first wave-shaped protrusion, the second wave-shaped protrusion, the first arc-shaped protrusion and the second arc-shaped protrusion have the same horizontal height.

[0013] As a further solution of the present invention, the corners formed by the roof and the four side wall areas, the corners formed by the bottom plate and the four side wall areas, the joints formed by the roof and the bottom plate and the four side wall areas respectively, and the joints between the four side wall areas are all rounded.

[0014] As a further solution of the present invention, the spacing between two adjacent rows of the first wave-shaped protrusions is equal to the distance between two adjacent wave crests of the first wave-shaped protrusions.

[0015] As a further solution of the present invention, the protrusion angles of the first arc-shaped protrusion, the first wave-shaped protrusion and the second wave-shaped protrusion are 10°-15°, and the protrusion angle of the second arc-shaped protrusion is 5°-10°.

[0016] As a further solution of the present invention, ventilation holes are arranged on the two third side wall regions, and the ventilation holes are arranged in the third side wall region facing the first wave-shaped protrusion.

[0017] As a further solution of the present invention, a plurality of exhaust holes are arranged on the bottom plate, and absorbent cotton is arranged on the inner walls of the exhaust holes.

[0018] As a further solution of the present invention, the horizontal support device includes a bearing portion for bearing the bottom plate and a plurality of support portions, and the plurality of support portions are hinged at the bottom of the bearing portion.

[0019] As a further solution of the present invention, the support portion includes four support rods, and the four support rods are hinged to the bottom of the bearing portion, and a gap is left between two adjacent support rods.

[0020] As a further solution of the present invention, a telescopic member is provided at the bottom of the bearing portion, the four support rods are hinged on the telescopic member, and one end of the support rod in contact with the ground is a pointed structure.

[0021] The beneficial effects of the present invention are:

[0022] The room is divided into different areas, and then the medium humidity area is dehumidified first, a row of first wave-shaped protrusions is arranged on the roof, and then several rows of first wave-shaped protrusions are arranged on the roof in the same way until the several rows of first wave-shaped protrusions cover the roof area, and then second wave-shaped protrusions are arranged on the two third side wall areas until the several rows of second wave-shaped protrusions cover the two third side wall areas, and then the high humidity area is dehumidified, and several first arc-shaped protrusions are arranged on the first side wall area avoiding the door and window area until the first arc-shaped protrusions cover the area of ​​the first side wall area avoiding the door and window, and finally The low humidity area is dehumidified, and the bottom plate is connected to the ground through a horizontal support device to ensure that a certain space is left between the bottom plate and the ground. On the second side wall area, a plurality of second arc-shaped protrusions are provided on the second side wall area along the vertical direction until the second arc-shaped protrusions cover the second side wall area. This solves the problem in the prior art that when the high-speed construction control system encounters hot and rainy weather in summer, condensed water droplets form on indoor areas such as walls and roofs and stay there for a long time, causing the humidity in the room to continue to increase. The heat generated by the control system is difficult to be effectively dissipated in the high humidity environment in the room, which ultimately causes the internal temperature of the system to rise. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0024] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0025] Figure 2 It is a top view of the horizontal support device of the present invention;

[0026] Figure 3 It is the front view of the horizontal support device of the present invention.

[0027] Description of main component symbols:

[0028] In the figure: 1. first wave-shaped protrusion; 2. second wave-shaped protrusion; 3. first arc-shaped protrusion; 4. second arc-shaped protrusion; 5. horizontal supporting device; 51. bearing part; 52. supporting part; 53. telescopic member; 6. bottom plate. DETAILED DESCRIPTION

[0029] In order to further explain the technical means and effects adopted by the present invention to achieve the predetermined invention purpose, the specific implementation method, structure, characteristics and effects of the present invention are described in detail below in conjunction with the accompanying drawings and preferred embodiments.

[0030] See also Figure 1-Figure 3 This embodiment provides a maintenance method for a high-speed construction control system, comprising the following steps:

[0031] S1: Divide the room into different areas, select the side wall where the doors and windows are located as the first side wall area, the side wall opposite to the side wall where the doors and windows are located as the second side wall area, and the other two opposite side walls as the third side wall areas, respectively. The first side wall area is designated as the high humidity area, the roof and the two third side wall areas are designated as the medium humidity area, and the bottom plate 6 and the second side wall area are designated as the low humidity area; when encountering hot and rainy weather in summer, the humidity in the room will increase, but the humidity in different locations is different. First of all, because it is a simple room and is at a construction site, the air flow around the doors and windows is large, and the humid air in the room is easy to flow to these areas. The side walls where the doors and windows are located are more prone to humidity due to temperature differences, heat transfer, air flow and outdoor environmental factors. Condensation water droplets are prone to appear, resulting in the highest humidity, followed by the roof and side walls. Due to the rise of hot air, condensation water droplets are relatively easy to form on the top and side walls of the box. Finally, regarding the bottom plate 6 and the back plate of the wall, since the back plate of the wall is far away from the doors and windows, and a part of it is blocked by objects in the room, in addition, the bottom ventilation and thermal insulation effect of the bottom of the bottom plate 6 is relatively good. Therefore, the humidity of the bottom plate 6 and the back plate of the wall is the lowest compared to the doors and windows, the roof and the side walls. The back plate of the wall here refers to the side wall opposite to the side wall where the doors and windows are located. Therefore, different areas of the room are classified according to different humidity. Since the first side wall area, the second side wall area, the third side wall area, the bottom plate 6 and the roof have overlapping parts in the attached drawings, they are not marked in the attached drawings, such as Figure 1 As shown in the figure, the side wall where the front doors and windows are located is the first side wall area, so that Figure 1 Find the corresponding area;

[0032] S2: Dehumidify the medium humidity area first. Considering that the control system is located in a simple room, and the room is in an area with high humidity, although ordinary rooms are generally designed for ventilation, temporary simple rooms cannot ensure good ventilation. Therefore, here, the connection between one of the third side wall areas and one end of the roof is taken as the starting point, and the connection between the other third side wall area and the other end of the roof is taken as the end point. Along the horizontal direction from the starting point to the end point, a row of first wavy protrusions 1 are set on the roof, and then several rows of first wavy protrusions 1 are set on the roof in the same way until several rows of first wavy protrusions 1 cover the roof area, and then the starting point is selected between two adjacent rows of first wavy protrusions 1, and the end point is on the bottom plate 6, and second wavy protrusions 2 are set on the two third side wall areas along the direction from the starting point to the end point until several rows of second wavy protrusions 2 cover the two third side wall areas; a row of first wavy protrusions 1 refers to Figure 1As shown, from left to right, from one of the third side wall areas to another third side wall area, the reason for the wave-shaped protrusion design is that the wave-shaped protrusion makes the surface area of ​​the roof and the third side wall area larger than the plane, which helps the water evaporate faster and reduces the possibility of water accumulation in the room. In addition, the structure of the wave-shaped protrusion helps to improve the heat dissipation effect, because when the air flows on the wave-shaped surface, it can take away the heat more effectively, which helps to reduce the accumulation of moisture in the box, thereby maintaining the temperature inside the box stable and preventing the growth of mold and bacteria in the room in high humidity areas. The second wave-shaped protrusion 2 here is designed to be offset from the first wave-shaped protrusion 1. The offset wave-shaped protrusion here can create more air flow channels, so that the air flows more smoothly between indoor and outdoor, which helps to take away the moisture in the room. In addition, the offset protrusion can form multiple "hot spots" for air flow, which help to accelerate air convection and further reduce humidity.

[0033] S3: Dehumidification treatment is then performed on the high humidity area, starting from the gap between two adjacent protrusions of the first wave-shaped protrusion 1 and ending at the bottom plate 6, and a plurality of first arc-shaped protrusions 3 are arranged on the first side wall area avoiding the door and window area along the vertical direction until the first arc-shaped protrusions 3 cover the area on the first side wall area avoiding the door and window;

[0034] S4: Dehumidify the low humidity area, connect the bottom plate 6 to the ground through the horizontal support device 5, ensure that a certain space is left between the bottom plate 6 and the ground so that moisture can be discharged through natural convection. On the second side wall area, starting from the gap between two adjacent protrusions of the first wave-shaped protrusion 1 and ending at the bottom plate 6, a number of second arc-shaped protrusions 4 are provided on the second side wall area along the vertical direction until the second arc-shaped protrusion 4 covers the second side wall area. The above first arc-shaped protrusion 3 and second arc-shaped protrusion 4 are also designed in a wave shape, but considering that the wave-shaped protrusions can form natural air flow inside the house and help dissipate moisture, the distance between the wave-shaped protrusions is too small, which will also cause material waste and block the entry of natural light. For this reason, it is necessary to ensure that the humidity problem can be solved while also considering the above problems. For this, the distance between the two adjacent wave peaks of the first wave-shaped protrusion 1 and the second wave-shaped protrusion 2 is smaller than the distance between the two adjacent wave peaks of the first arc-shaped protrusion 3 and the second arc-shaped protrusion 4.

[0035] In addition, the above dehumidification treatment is first performed on the medium humidity area, then the high humidity area, and finally the low humidity area. This step is adopted because the medium humidity area is the larger area in the room. Treating these areas first can quickly reduce the overall humidity of the room, create more favorable conditions for subsequent treatment of high humidity areas and low humidity areas, and improve efficiency. In addition, the first wavy protrusion 1, the second wavy protrusion 2, the first arc-shaped protrusion 3 and the second arc-shaped protrusion 4 are related, that is, the designs between the medium humidity area, the high humidity area and the low humidity area are interrelated. Only by comprehensive consideration can the isolation effect of the room be better.

[0036] When the current high-speed construction control system is in use, the control system in the room needs to run uninterruptedly throughout the day to ensure real-time monitoring of the construction site. At the same time, technical personnel are required to regularly maintain the control system, for example, regular physical inspections of all monitoring equipment and control systems, and regular updates and optimizations of the software system to maintain the stability and efficiency of the system. However, there are some problems in the maintenance of the current high-speed construction control system: due to the unavoidable harsh construction conditions during high-speed construction, when encountering hot and rainy weather in summer, frequent rainfall will significantly increase the humidity of the outside air, and the room where the control system is located is simple, and the isolation and sealing effect of the room is difficult to ensure. Therefore, the room where the control system is located will have air exchange with the outside environment, and the high humidity of the outside may penetrate into the room through windows, door gaps, etc., which may cause condensation droplets to form in indoor areas such as walls and roofs. Especially in the case of long-term rain, the condensation droplets formed in indoor areas such as walls and roofs will stay for a long time, causing the humidity in the room to continue to increase. At this time, the heat generated by the control system is difficult to effectively dissipate in the high humidity environment in the room, which ultimately causes the internal temperature of the system to rise, and ultimately affects the performance and life of electronic components.

[0037] In order to solve the above problems, in this embodiment, the room is divided into different areas, and then the moisture area is first dehumidified, a row of first wave-shaped protrusions 1 is arranged on the roof, and then several rows of first wave-shaped protrusions 1 are arranged on the roof in the same way until the several rows of first wave-shaped protrusions 1 cover the roof area, and then the starting point is selected between two adjacent rows of first wave-shaped protrusions 1, and the end point is on the bottom plate 6, and second wave-shaped protrusions 2 are arranged on the two third side wall areas along the direction from the starting point to the end point until the several rows of second wave-shaped protrusions 2 cover the two third side wall areas, and then the high humidity area is dehumidified, and several first arc-shaped protrusions 3 are arranged on the first side wall area along the vertical direction to avoid the door and window area, Until the first arc-shaped protrusion 3 covers the area on the first side wall area avoiding doors and windows, and finally dehumidifies the low-humidity area, the bottom plate 6 is connected to the ground through the horizontal support device 5 to ensure that a certain space is left between the bottom plate 6 and the ground. On the second side wall area, several second arc-shaped protrusions 4 are arranged on the second side wall area along the vertical direction until the second arc-shaped protrusion 4 covers the second side wall area. This solves the problem that when the high-speed construction control system in the prior art encounters hot and rainy weather in summer, condensed water droplets form on indoor areas such as walls and roofs and stay there for a long time, causing the humidity in the room to continue to increase. The heat generated by the control system is difficult to be effectively dissipated in the high humidity environment in the room, which ultimately causes the internal temperature of the system to rise.

[0038] Since the first wave-shaped protrusion 1, the second wave-shaped protrusion 2, the first arc-shaped protrusion 3 and the second arc-shaped protrusion 4 are in different planes, but in order to achieve a good ventilation effect for the whole room to further dehumidify, in one embodiment, the first wave-shaped protrusion 1, the second wave-shaped protrusion 2, the first arc-shaped protrusion 3 and the second arc-shaped protrusion 4 are at the same level, ensuring that all protrusions are at the same level, which helps to maintain the uniformity of air flow and avoid the formation of dead zones, making the ventilation of the entire space more uniform. In addition, the spacing between two adjacent rows of first wave-shaped protrusions 1 is equal to the distance between two adjacent wave peaks of the first wave-shaped protrusion 1. Similarly, the spacing between two adjacent rows of second wave-shaped protrusions 2 is also equal to the distance between two adjacent wave peaks of the second wave-shaped protrusion 2. This design can not only ensure the dehumidification effect, but also increase the overall strength and durability of the roof and side walls, and further maintain the simple high-speed construction control system in the room.

[0039] In addition, since it is located in an area with high humidity and the high-speed construction control system is located in a simple room, in order to make the room as a whole less likely to accumulate moisture, so that the high-speed construction control system can work better, in one embodiment, the corners formed by the roof and the four side wall areas, the corners formed by the bottom plate 6 and the four side wall areas, the joints formed by the roof and the bottom plate 6 and the four side wall areas respectively, and the joints between the four side wall areas are all rounded. The rounding treatment here refers to designing a smooth arc structure to avoid moisture accumulation.

[0040] Furthermore, protrusions are provided on the roof and side walls of the room, but the angle of the protrusions needs to be selected according to different positions in the room. If the angle is too large, the space of the room may become larger, thereby affecting the air circulation and reducing the indoor ventilation effect. If the angle is too small, the space may be too compact, which is not conducive to air circulation and affects the maintenance of indoor air quality. In this regard, in one embodiment, the protrusion angles of the first arc-shaped protrusion 3, the first wave-shaped protrusion 1 and the second wave-shaped protrusion 2 are 10°-15°. For areas with very high humidity, an angle of 15° is used, which can increase air circulation and be more effective. To prevent the formation of condensation droplets, an angle of 10° is used for areas with high humidity. The protrusion angle of the second arc-shaped protrusion 4 is 5°-10°. The angle range of 5°-10° is suitable for areas with high humidity but not extremely high humidity. It can provide moderate air flow to prevent moisture accumulation. When the humidity is high but it is not the rainy season, 5° can be used. When it comes to the rainy season, an angle of 10° can be used. In addition, in order to achieve the best effect, a simulation experiment is required before designing to determine the most suitable angle under a specific environment. In addition, the use of materials and surface treatment technologies with lower hygroscopicity should also be considered to further improve the moisture-proof effect.

[0041] In order to allow air to circulate in a simple room at a construction site of high-speed construction, thereby further reducing the impact of moisture on the high-speed construction control system, in one embodiment, air holes are provided on the two third side wall areas, and the air holes are provided in the third side wall area directly opposite to the first wave-shaped protrusion 1. The design of the air holes needs to correspond to the position of the first wave-shaped protrusion 1. The purpose of such a design is to ensure that moisture can be discharged faster after passing through the first wave-shaped protrusion 1, thereby preventing moisture from staying in the room for too long. A number of exhaust holes are provided on the bottom plate 6, and absorbent cotton is provided on the inner walls of the exhaust holes. Since it is a simple room built at the construction site, and the construction site itself is humid, in order to ensure that moisture in the room can be discharged while preventing moisture from underground from entering the room, a number of exhaust holes are provided on the bottom plate 6, and absorbent cotton is provided on the inner walls of the exhaust holes.

[0042] It is worth mentioning that, since the control system is aimed at a high-speed construction scenario, and the simple room built on the site of high-speed construction is easily affected in stability when it is used in areas with high humidity, and when the humidity is too high, a certain amount of space needs to be left between the bottom plate 6 and the ground so that moisture can be discharged through natural convection. However, while a certain amount of space needs to be left between the bottom plate 6 and the ground, it is also necessary to ensure that the stability of the bottom plate 6 is very good. Such a design can achieve the best effect, but it will make it more difficult to design a simple room on the ground. In order to solve this problem, in one embodiment, the bottom plate 6 is connected to the ground through a horizontal support device 5 to ensure that a certain amount of space is left between the bottom plate 6 and the ground so that moisture can be discharged. It is discharged through natural convection, and the horizontal support device 5 includes a bearing part 51 for supporting the bottom plate 6 and a plurality of support parts 52, the plurality of support parts 52 are hinged at the bottom of the bearing part 51, the bearing part 51 is a load-bearing plate, and the support part 52 includes four support rods, and the four support rods are hinged at the bottom of the bearing part 51. The four support rods here are hinged at the bottom of the bearing part 51, but the movement angle of the four support rods needs to be less than or equal to 30 degrees. When the angle between the support rod and the vertical direction is less than 30 degrees, the pressure distribution of the support rod on the ground is more uniform, and the supporting area is increased, thereby improving the overall stability. If the angle of the support rod is too large (more than 30 degrees), the stability will be reduced because the support point will be closer to the bearing part. The center of 51 leads to a reduction in the support area, which is easy to generate unstable torque, thereby affecting the stability of the entire structure, and the material selected for the support rod needs to be determined according to the overall weight of the simple room. There is a gap between two adjacent support rods. In actual use, multiple horizontal support devices 5 are arranged under the bottom plate 6, and the multiple horizontal support devices 5 are evenly distributed. When the gravity of the bottom plate 6 presses on the bearing part 51, the bearing part 51 moves downward, which will squeeze the four support rods, so that the four support rods enter the ground, and there is a gap between the two adjacent support rods here. This design can ensure that the four support rods have different angles of movement, so that the four support rods can be placed on the uneven ground at the high-speed construction site. It can also be stable and motionless, and the greater the gravity on the base plate 6, the better the stability between the four support rods and the ground. A telescopic member 53 is provided at the bottom of the bearing part 51, and the four support rods are hinged on the telescopic member 53. The telescopic member 53 can be an electric telescopic rod or a hydraulic cylinder. While ensuring that the selected electric telescopic rod or hydraulic cylinder can bear the weight of the simple room, the electric telescopic rod or hydraulic cylinder can be adjusted according to weather conditions to adjust the height between the base plate 6 and the ground, better reduce the moisture in the room, and better maintain the high-speed construction control system. The end of the support rod that contacts the ground is a tip structure, and the tip structure can make the stability between the support rod and the ground better, and better cooperate with the construction environment, such as Figure 2 and Figure 3 shown.

[0043] The above description is only a preferred embodiment of the present invention and does not limit the present invention in any form. Although the present invention has been disclosed as a preferred embodiment as above, it is not used to limit the present invention. Any technical personnel in this field can make some changes or modify the technical contents disclosed above into equivalent embodiments without departing from the scope of the technical solution of the present invention. However, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solution of the present invention are still within the scope of the technical solution of the present invention.

Claims

1. A maintenance method for a high-speed construction control system, characterized in that: The following steps are involved: S1: Divide the room into different areas, select the side wall where the door and window are located as the first side wall area, the side wall opposite to the side wall where the door and window are located as the second side wall area, and the other two opposite side walls as the third side wall areas. The first side wall area is designated as the high humidity area, the roof and the two third side wall areas are designated as the medium humidity area, and the bottom plate and the second side wall area are designated as the low humidity area; S2: First, dehumidify the medium-humidity area, first, take the connection between one of the third side wall areas and one end of the roof as the starting point, and the connection between the other third side wall area and the other end of the roof as the end point, and set a row of first wave-shaped protrusions on the roof along the horizontal direction from the starting point to the end point, and then set several rows of first wave-shaped protrusions on the roof in the same way, until the several rows of first wave-shaped protrusions cover the roof area, and then select the starting point between two adjacent rows of first wave-shaped protrusions and the end point on the bottom plate, and set second wave-shaped protrusions on the two third side wall areas along the direction from the starting point to the end point, until the several rows of second wave-shaped protrusions cover the two third side wall areas; S3: Dehumidification treatment is then performed on the high humidity area, starting from the gap between two adjacent protrusions of the first wave-shaped protrusions and ending at the bottom plate, and arranging a plurality of first arc-shaped protrusions on the first side wall area avoiding the door and window area along the vertical direction until the first arc-shaped protrusions cover the area on the first side wall area avoiding the door and window; S4: Dehumidification treatment is performed on the low humidity area. The bottom plate is connected to the ground through a horizontal support device to ensure that a certain space is left between the bottom plate and the ground so that moisture can be discharged through natural convection. On the second side wall area, starting from the gap between two adjacent protrusions of the first wave-shaped protrusions and ending at the bottom plate, a plurality of second arc-shaped protrusions are formed on the second side wall area along the vertical direction until the second arc-shaped protrusions cover the second side wall area. The first wave-shaped protrusion, the second wave-shaped protrusion, the first arc-shaped protrusion and the second arc-shaped protrusion have the same horizontal height; The spacing between two adjacent rows of the first wave-shaped protrusions is equal to the distance between two adjacent wave crests of the first wave-shaped protrusions, and the spacing between two adjacent rows of the second wave-shaped protrusions is equal to the distance between two adjacent wave crests of the second wave-shaped protrusions.

2. A maintenance method for a high-speed construction control system according to claim 1, characterized in that: The corners formed by the roof and the four side wall areas, the corners formed by the bottom plate and the four side wall areas, the joints formed by the roof and the bottom plate and the four side wall areas respectively, and the joints between the four side wall areas are all rounded.

3. A maintenance method for a high-speed construction control system according to claim 1, characterized in that: The protrusion angles of the first arc-shaped protrusion, the first wave-shaped protrusion and the second wave-shaped protrusion are 10°-15°, and the protrusion angle of the second arc-shaped protrusion is 5°-10°.

4. A maintenance method for a high-speed construction control system according to claim 1, characterized in that: The two third side wall regions are provided with ventilation holes, and the ventilation holes are provided in the third side wall region facing the first wave-shaped protrusion.

5. The maintenance method of a high-speed construction control system according to claim 1, characterized in that: A plurality of exhaust holes are arranged on the bottom plate, and water-absorbing cotton is arranged on the inner walls of the exhaust holes.

6. A maintenance method for a high-speed construction control system according to claim 1, characterized in that: The horizontal supporting device comprises a bearing part for bearing the bottom plate and a plurality of supporting parts, wherein the plurality of supporting parts are hinged at the bottom of the bearing part.

7. A maintenance method for a high-speed construction control system according to claim 6, characterized in that: The support portion includes four support rods, and the four support rods are hinged to the bottom of the bearing portion, and a gap is left between two adjacent support rods.

8. A maintenance method for a high-speed construction control system according to claim 7, characterized in that: A telescopic member is arranged at the bottom of the bearing portion, the four support rods are hinged on the telescopic member, and one end of the support rod in contact with the ground is a tip structure.

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