Municipal sewage treatment plant green construction management device based on BIM

Abstract

The utility model relates to the technical field of building construction, in particular to a BIM-based urban sewage treatment plant green construction management device, which comprises a control cabinet, a monitoring module, a BIM management module and a control module, the BIM management module is in telescopic sliding connection with one side of the control cabinet, the BIM management module is electrically connected with the monitoring module through the control module, and the BIM management module is electrically connected with the monitoring module through the control module. The monitoring module comprises a camera and a dust monitor, a lifting platform is arranged below the camera and the dust monitor, the lifting platform is in transmission connection with the console through a gear rack structure, and the lifting platform is in transmission connection with the dust monitor through a gear structure; the BIM management module adjusts the orientation of the monitoring module through the control module, manual adjustment of constructors is not needed, the BIM management module can obtain monitoring data of the construction site environment and the dust state more timely and effectively, the BIM management module can be stored in the control cabinet when not used, and the BIM management module is prevented from being disturbed by site flying dust for a long time.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of building construction, specifically relates to a kind of green construction management device of town sewage treatment plant based on BIM. BACKGROUND

[0002] The necessary engineering in the construction engineering of town sewage treatment plant includes water inlet pump house, coarse grid, water inlet pump house, coarse grid are deep foundation pit engineering, deep foundation pit engineering will consume a lot of electric power, reinforced concrete etc.

[0003] Construction management often uses BIM technology, BIM technology can realize real-time monitoring and data acquisition to construction site, and data is visualized, realizes scientific management and technical progress, to be favorable to green construction, the existing construction management device based on BIM, or only have camera device, for example, patent file with the publication number CN218032248U, camera device passes signal to main control module, if emergency occurs, main control module management personnel cannot promptly check and handle, then affect construction progress, another kind of construction management device based on BIM only has control cabinet and host, for example, patent file with the publication number CN218918073U, if install in town sewage treatment construction site, still need to connect additional camera device, to monitor environment in time, in addition, if long-term exposure in construction site, by dust etc. UTILITY MODEL CONTENT

[0004] For the above problems, the utility model provides a kind of green construction management device of town sewage treatment plant based on BIM to solve the problems of the above prior art.

[0005] The technical scheme that the utility model solves its technical problems:

[0006] The utility model provides a kind of BIM-based town sewage treatment plant green construction management device, including control cabinet, monitoring module, BIM management module and control module, the monitoring module is set on the outside of control cabinet top, the control module is inside control cabinet, the BIM management module is slidably connected with control cabinet side, BIM management module is electrically connected by control module and monitoring module, the monitoring module includes camera and dust monitor, lifting platform is provided in the lower of camera and dust monitor, lifting platform is connected with control console by gear and rack structure transmission, lifting platform is connected with dust monitor by gear structure transmission.

[0007] Further, the BIM management module includes a pull plate and an operation terminal, a pull slot is formed in the right side wall of the control cabinet, the pull plate is slidably connected with the pull slot, the upper end of the operation terminal is rotatably connected with the pull plate, a rectangular slot is formed in the lower end of the pull plate, an inclined brace plate is hingedly connected to the lower end of the rectangular slot, an inclined brace slot is formed below the operation terminal, and the upper end of the inclined brace plate can abut or separate from the inclined brace slot.

[0008] Further, a straight tooth is provided on one side surface of the lifting rod, a first motor is installed inside the control cabinet, the first motor is a double-output shaft motor, a transmission shaft of the first motor is connected with a first gear, the first gear is engaged with the straight tooth on the lifting rod, two symmetrical first limit blocks are fixedly connected above the control cabinet, and the lifting rod is slidably connected with the first limit blocks.

[0009] Further, the inside of the lifting platform is hollow, a second motor and a third motor are respectively arranged on the two sides of the inside of the lifting platform, the second motor and the third motor are connected to the lower wall of the lifting platform, the transmission shafts of the second motor and the third motor pass through the upper wall of the lifting platform and extend upward, the transmission shaft of the second motor is connected with a second gear, and the transmission shaft of the third motor is connected with a third gear.

[0010] Further, a rack plate is horizontally arranged above the lifting platform, the second gear is engaged with the rack plate, the end of the rack plate extending out of the side of the lifting platform is installed with a camera, a second limit block is arranged on the upper surface of the lifting platform close to the second gear, and the rack plate is slidably connected with the second limit block.

[0011] Further, a fourth gear is rotatably connected to the position on the upper surface of the lifting platform close to the third gear, the fourth gear is engaged with the third gear, a vertical rod is fixedly connected above the fourth gear, the vertical rod extends a length in the vertical direction and then bends in the horizontal direction, the horizontal segment of the vertical rod extends out of the side of the lifting platform, and the dust monitor is installed at the end of the horizontal segment of the vertical rod.

[0012] Further, the green construction management device further comprises an acquisition module, a data storage module, an information processing module and a power supply module, and the acquisition module, the data storage module, the information processing module and the power supply module are arranged in the control cabinet.

[0013] Further, the acquisition module is provided with a plurality of rows of sockets at equal intervals on one side of the side wall of the control cabinet, and each row has two sockets, and a plurality of rows of rectangular wire insertion grids are arranged on the side wall of the control cabinet near the sockets, and the arrangement positions of each row of wire insertion grids correspond to each row of sockets one by one.

[0014] Further, the control cabinet is hinged to the cabinet door through a hinge, a layer plate is arranged below the inside of the control cabinet, the acquisition module, the data storage module, the information processing module, the control module and the power supply module are arranged above the layer plate, and the layer plate and the cavity of the control cabinet form a storage cabinet below, and the bottom of the control cabinet is fixedly connected with the support, and universal wheels are arranged at the four corners of the bottom of the support.

[0015] Compared with the prior art, the green construction management device based on BIM has the following beneficial effects:

[0016] 1. The green construction management device based on BIM is provided with a monitoring module and a BIM management module, the camera of the monitoring module can monitor the construction environment and state of the urban sewage treatment plant, the dust monitor can timely monitor the dust state, which is helpful for green construction management, the BIM management module can make the operating personnel of the construction site timely handle the emergency, and the construction period is avoided to be delayed; the BIM management module transmits the adjustment instruction to the control module through the information processing module, and the control module drives the motor to adjust the position of the monitoring module, so that the BIM management module can more timely and effectively obtain the monitoring data.

[0017] 2. The green construction management device based on BIM is provided, and the BIM management module can be stored in the control cabinet when not in use, so that the BIM management module is prevented from being disturbed by the flying dust of the construction site for a long time.

[0018] 3. The green construction management device based on BIM further comprises a plurality of sensors for measuring mechanical characteristics and quality characteristics, so that the construction measurement data of the urban sewage treatment plant based on BIM is more comprehensive, when the sensors are not used, the cable of the sensor can be directly placed in the storage cabinet in the device, the construction personnel do not need to specially carry the sensor, and the messy sensor cable is prevented from being pulled and wound in the transfer process. BRIEF DESCRIPTION OF DRAWINGS

[0019] The utility model will be further described in connection with the drawings.

[0020] Figure 1 The structural schematic view of the green construction management device for urban sewage treatment plant based on BIM is shown in the utility model.

[0021] Figure 2 The control flow chart is shown in the utility model.

[0022] Figure 3 The structural schematic view of the lifting rod is shown in the utility model.

[0023] Figure 4 The first limiting block sectional view is shown in the utility model.

[0024] Figure 5 The camera adjusting mechanism schematic view is shown in the utility model.

[0025] Figure 6 The second limiting block sectional view is shown in the utility model.

[0026] Figure 7 The dust monitor adjusting schematic view is shown in the utility model.

[0027] Figure 8 The local side view of the control cabinet close to the one side of the collection module is shown in the utility model.

[0028] Figure 9 The BIM management module side view is shown in the utility model.

[0029] Figure 10 The BIM management device after folding is shown in the utility model.

[0030] Figure 11 The push-pull plate and control cabinet cooperation sectional view is shown in the utility model.

[0031] In the figure: 1, control cabinet; 11, storage cabinet; 12, cabinet door; 13, patching grid; 14, pull-out slot; 2, monitoring module; 21, lifting rod; 211, first motor; 212, first gear; 213, support rod; 214, first limit block; 215, first sliding block; 216, first sliding groove; 22, camera; 221, second motor; 222, second gear; 223, rack plate; 224, second limit block; 225, second sliding block; 226, second sliding groove; 23, dust monitor; 231, third motor; 232, third gear; 233, fourth gear; 234, vertical rod; 235, gear shaft; 24, lifting platform; 3, acquisition module; 31, socket; 4, data storage module; 5, information processing module; 6, BIM management module; 61, pull-out plate; 611, clamping plate; 612, inclined support plate; 613, rectangular slot; 614, handle slot; 62, operation terminal; 621, inclined support slot; 7, control module; 8, power supply module; 9, support; 91, universal wheel. DETAILED DESCRIPTION

[0032] The technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only some of the embodiments of the present application, but not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative work fall within the scope of protection of the present application.

[0033] In the following description of the present application, it should be noted that the terms "upper", "lower", "left", "right", "inner", "outer" and the like indicate the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation or be constructed and operated in a particular orientation. The term "connection" only means the connection between devices and has no special meaning.

[0034] The specific embodiments are described in Figures 1-11The utility model provides a kind of BIM-based town sewage treatment plant green construction management device, including control cabinet 1, monitoring module 2, acquisition module 3, data storage module 4, information processing module 5, BIM management module 6, control module 7 and power supply module 8, the monitoring module 2 is arranged on the outside upper portion of control cabinet 1, the acquisition module 3, data storage module 4, information processing module 5, control module 7 and power supply module 8 are arranged in the inside of control cabinet 1, BIM management module 6 is slidably connected with the side of control cabinet 1, BIM management module 6 is located in the inside of control cabinet 1 when being retracted, BIM management module 6 is slid to the outside of control cabinet 1 when being used, data storage module 4 is electrically connected with acquisition module 3 and monitoring module 2 respectively, information processing module 5 is electrically connected with data storage module 4, BIM management module 6 is electrically connected with information processing module 5, control module 7 is electrically connected with BIM management module 6, monitoring module 2 is electrically connected with control module 7, power supply module 8 is electrically connected with monitoring module 2, acquisition module 3, data storage module 4, information processing module 5, BIM management module 6 and control module 7;Power supply module 8 is powered to monitoring module 2, acquisition module 3, data storage module 4, information processing module 5, BIM management module 6 and control module 7, BIM management module 6 conveys data acquisition instruction to control module 7 by information processing module 5, control module 7 controls acquisition module 3 and monitoring module 2 to carry out data acquisition and monitoring, data storage module 4 stores the sensor data collected by acquisition module 3 and the monitoring data of monitoring module 2, and then passes the data to information processing module 5, information processing module 5 sends to BIM management module 6 after integrating and classifying data, BIM management module 6 can present visualized data to construction personnel, and conveys adjustment instruction to control module 7 by information processing module 5, control module 7 adjusts the orientation of monitoring module 2 and issues monitoring instruction by instruction, information processing module 5 also has communication function, can send monitoring and collection information to main control console, is helpful to unified deployment management of management personnel.

[0035] Further, the monitoring module 2 comprises a camera 22 and a dust monitor 23, and a lifting platform 24 is arranged below the camera 22 and the dust monitor 23, and the height of the camera 22 and the dust monitor 23 can be adjusted by lifting the lifting platform 24; a lifting rod 21 is symmetrically arranged below the lifting platform 24, the lifting rod 21 penetrates through the upper wall of the control cabinet 1 and extends into the control cabinet 1, straight teeth are arranged on one side surface of the lifting rod 21, a first motor 211 is installed in the control cabinet 1, the first motor 211 is a double-output-shaft motor, support rods 213 are symmetrically arranged on both sides of the first motor 211, the support rods 213 are fixedly connected with the upper wall of the control cabinet 1, shaft holes are formed in the lower ends of the support rods 213, the transmission shafts on both sides of the first motor 211 respectively penetrate through the shaft holes of the two support rods 213, the transmission shaft of the first motor 211 is connected with a first gear 212, and the first gear 212 is engaged with the straight teeth on the lifting rod 21; two symmetric first limiting blocks 214 are fixedly connected above the control cabinet 1, T-shaped first sliding blocks 215 are symmetrically arranged in the first limiting blocks 214, T-shaped first sliding grooves 216 are symmetrically formed in the two sides of the lifting rod 21, the lifting rod 21 penetrates through the first limiting blocks 214, and the first sliding blocks 215 are in sliding connection with the first sliding grooves 216; the control module 7 drives the first motor 211 to rotate the first gear 212, the lifting rod 21 moves up and down through the engagement with the first gear 212, and the lifting platform 24 moves up and down together with the lifting rod 21.

[0036] Further, the inside of the lifting platform 24 is hollow, and the two sides of the inside of the lifting platform 24 are respectively provided with a second motor 221 and a third motor 231, both of which are connected to the lower wall of the lifting platform 24. The transmission shafts of the second motor 221 and the third motor 231 pass through the upper wall of the lifting platform 24 and extend upward, the transmission shaft of the second motor 221 is connected to a second gear 222, and the transmission shaft of the third motor 231 is connected to a third gear 232; a rack plate 223 is horizontally arranged above the lifting platform 24, the second gear 222 is engaged with the rack plate 223, and one end of the rack plate 223 extending out of the side of the lifting platform 24 is provided with a camera 22, which monitors the environment and state of the construction site in real time; a second limiting block 224 is arranged on the upper surface of the lifting platform 24 near the second gear 222, and a T-shaped second sliding block 225 is symmetrically arranged in the inside of the second limiting block 224, T-shaped second sliding grooves 226 are symmetrically arranged on the upper and lower surfaces of the rack plate 223, the rack plate 223 passes through the second limiting block 224, and the second sliding block 225 is slidingly connected with the second sliding groove 226; the control module 7 drives the second motor 221 to rotate the second gear 222, drives the rack plate 223 to reciprocate, and thus can adjust the length of the camera 22 extending out of the lifting platform 24; a gear shaft 235 is fixedly connected to the upper surface of the lifting platform 24 near the third gear 232, a fourth gear 233 is arranged on the upper end of the gear shaft 235, the fourth gear 233 is rotatably connected with the gear shaft 235, the fourth gear 233 is engaged with the third gear 232, a vertical rod 234 is fixedly connected above the fourth gear 233, the vertical rod 234 extends in the vertical direction for a length and then bends in the horizontal direction, the horizontal section of the vertical rod 234 extends out of the side of the lifting platform 24, and a dust monitor 23 is arranged at the end of the horizontal section of the vertical rod 234, which monitors the dust concentration of the construction site, the control module 7 drives the third motor 231 to rotate the third gear 232, drives the vertical rod 234 to rotate with the fourth gear 233, and thus can adjust the orientation of the dust monitor 23.

[0037] Further, the BIM management module 6 comprises a pull plate 61 and an operation terminal 62, the pull plate 61 is symmetrically provided with clamping plates 611 on both sides, a pull slot 14 is formed in the right side wall of the control cabinet 1, the cross section of the pull slot 14 is H-shaped, the pull plate 61 is in sliding connection with the pull slot 14, when the BIM management module 6 is used, the left clamping plate 611 is inserted into the pull slot 14, when the BIM management module 6 is stored, the right clamping plate 611 is inserted into the pull slot 14, a handle slot 614 is formed in the side of the right clamping plate 611, by pulling or pushing the handle slot 614, the pull plate 61 can be pulled out or pushed into the control cabinet 1; the upper end of the operation terminal 62 is rotatably connected above the pull plate 61, a rectangular slot 613 is formed in the lower end of the pull plate 61, the lower end of the rectangular slot 613 is hingedly connected with a diagonal brace plate 612, a diagonal brace slot 621 is formed below the operation terminal 62, when the operation terminal 62 is stored, the diagonal brace plate 612 is completely placed into the rectangular slot 613, when the operation terminal 62 is used, the upper end of the diagonal brace plate 612 abuts against the diagonal brace slot 621; when the operation terminal 62 is pulled out of the control cabinet 1 with the pull plate 61, the operation terminal 62 is turned up by a certain angle, the diagonal brace plate 612 is turned out of the rectangular slot 613, the upper end of the diagonal brace plate 612 is inserted into the diagonal brace slot 621, the operation terminal 62 is inserted into the diagonal brace plate 612, so that the operation terminal 62 is convenient for construction personnel to watch and operate; the operation terminal 62 is further turned up, the operation terminal 62 is separated from the diagonal brace plate 612, the diagonal brace plate 612 is turned inwards, the diagonal brace plate 612 is placed into the rectangular slot 613, the operation terminal 62 is turned downwards to abut against the pull plate 61, the operation terminal 62 and the pull plate 61 are pushed into the control cabinet 1, so that the operation terminal 62 can be prevented from being interfered by dust for a long time.

[0038] Further, the collection module 3 is provided with a plurality of rows of insertion ports 31 at equal intervals on one side close to the side wall of the control cabinet 1, and each row has two insertion ports 31; a plurality of rectangular wire insertion grids 13 are formed in the side wall of the control cabinet 1 close to the insertion ports 31, and the formation positions of each row of wire insertion grids 13 correspond to each row of insertion ports 31 one by one, the green construction management device further comprises a sensor, and the sensor comprises an inclinometer, a osmometer, an anchor cable meter, a strain gauge, a soil pressure gauge and an axial force gauge, and the sensor is inserted into the insertion ports 31 through the cable passing through the wire insertion grid 13.

[0039] Further, the control cabinet 1 is hingedly connected with the cabinet door 12 through a hinge, a layer plate is arranged below the inside of the control cabinet 1, the collection module 3, the data storage module 4, the information processing module 5, the control module 7 and the power supply module 8 are arranged above the layer plate, the layer plate and the cavity of the control cabinet 1 form a storage cabinet 11 below, the sensor cable can be placed into the storage cabinet 11 when it is idle or needs to be transferred; the bottom of the control cabinet 1 is fixedly connected with the support 9, universal wheels 91 are arranged at the four corners of the bottom of the support 9, so that the control cabinet 1 is convenient to move.

[0040] In use, the construction personnel first moves the device to a suitable position, opens the cabinet door 12, takes out various sensors from the storage cabinet 11, plugs the various sensors through the cable and the socket 31 of the acquisition module 3, pulls out the BIM management module 6 from the inside of the control cabinet 1, inserts the free end of the inclined support plate 612 into the inclined support slot 621, so that the operation terminal 62 is convenient for the construction personnel to watch and operate, starts the power supply module 8, the acquisition module 3 starts to collect various sensor data, the camera 22 monitors the environment and state of the construction site in real time, the dust monitor 23 monitors the dust concentration of the construction site, the data storage module 4 stores the sensor data collected by the acquisition module 3 and the monitoring data of the camera 22 and the dust monitor 23, and then transmits the data to the information processing module 5, the information processing module 5 integrates and classifies the data, and then sends it to the BIM management module 6, the BIM management module 6 presents the visualized data to the construction personnel on the operation terminal 62, and transmits the adjustment instruction to the control module 7 through the information processing module 5, the control module 7 adjusts the camera 22 and the dust monitor 23 in real time, without manual adjustment by the construction personnel, so that the BIM management module 6 can obtain monitoring data more timely and effectively, the camera 22 of the monitoring module 2 can monitor the construction environment and state of the urban sewage treatment plant, and the dust monitor 23 can monitor the dust state in time, which is helpful for green construction management.

[0041] If the device is suspended or needs to be transferred to another construction site, the construction personnel can push the operation terminal 62 and the pull-out plate 61 into the inside of the control cabinet 1 to avoid the operation terminal 62 being disturbed by the dust in the construction site for a long time, pull out the sensor cable from the socket 31, put it into the storage cabinet 11 after folding, turn off the power supply module 8, close the cabinet door 12, and move the device, without the construction personnel carrying the messy sensor cable.

[0042] Although the embodiments of the present application have been shown and described, it can be understood by those skilled in the art that various changes, modifications, replacements and modifications can be made to the embodiments without departing from the principles and spirits of the present application, and the scope of the present application is defined by the appended claims and their equivalents.

Claims

1. A BIM-based urban sewage treatment plant green construction management device, comprising a control cabinet (1), a monitoring module (2), a BIM management module (6) and a control module (7), the monitoring module (2) is arranged on the top of the outside of the control cabinet (1), the control module (7) is inside the control cabinet (1), the BIM management module (6) is in telescopic sliding connection with one side of the control cabinet (1), the BIM management module (6) is electrically connected through the control module (7) and the monitoring module (2), the monitoring module (2) comprises a camera (22) and a dust monitor (23), a lifting platform (24) is arranged below the camera (22) and the dust monitor (23), the lifting platform (24) is in transmission connection with the control cabinet (1) through a gear and rack structure, and the lifting platform (24) is in transmission connection with the dust monitor (23) through a gear structure; symmetrical lifting rods (21) are arranged below the lifting platform (24), the lifting rods (21) pass through the upper wall of the control cabinet (1) and extend into the control cabinet (1), straight teeth are arranged on one side surface of the lifting rods (21), a first motor (211) is installed in the control cabinet (1), the first motor (211) is a double-shaft motor, a transmission shaft of the first motor (211) is connected with a first gear (212), the first gear (212) is in meshing connection with the straight teeth on the lifting rods (21), two symmetrical first limiting blocks (214) are fixedly connected above the control cabinet (1), and the lifting rods (21) are in sliding connection with the first limiting blocks (214).

2. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 1, characterized in that, The BIM management module (6) comprises a pull-out plate (61) and an operation terminal (62), a pull-out slot (14) is formed in the right side wall of the control cabinet (1), the pull-out plate (61) is in sliding connection with the pull-out slot (14), the upper end of the operation terminal (62) is in rotary connection with the upper side of the pull-out plate (61), a rectangular slot (613) is formed in the lower end of the pull-out plate (61), an inclined support plate (612) is hinged to the lower end of the rectangular slot (613), an inclined support slot (621) is formed below the operation terminal (62), and the upper end of the inclined support plate (612) can abut against or be separated from the inclined support slot (621).

3. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 2, characterized in that, The lifting platform (24) is hollow, a second motor (221) and a third motor (231) are arranged on the two sides of the inside of the lifting platform (24), the second motor (221) and the third motor (231) are connected to the lower wall of the lifting platform (24), the transmission shafts of the second motor (221) and the third motor (231) pass through the upper wall of the lifting platform (24) and extend upward, the transmission shaft of the second motor (221) is connected with a second gear (222), and the transmission shaft of the third motor (231) is connected with a third gear (232).

4. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 3, characterized in that, The lifting platform (24) is horizontally provided with a rack plate (223) above, a second gear (222) is engaged with the rack plate (223), the rack plate (223) is provided with a camera (22) at one end extending out of the side of the lifting platform (24), the upper surface of the lifting platform (24) is provided with a second limiting block (224) at a position close to the second gear (222), and the rack plate (223) is in sliding connection with the second limiting block (224).

5. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 4, characterized in that, The upper surface of the lifting platform (24) is rotatably connected with a fourth gear (233) at a position close to the third gear (232), the fourth gear (233) is engaged with the third gear (232), the fourth gear (233) is fixedly connected with a vertical rod (234) above, the vertical rod (234) is bent in a horizontal direction after extending in a vertical direction for a length, the horizontal section of the vertical rod (234) extends out of the side of the lifting platform (24), and the horizontal section of the vertical rod (234) is provided with a dust monitor (23) at the end.

6. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 1, characterized by, Further comprising a collection module (3), a data storage module (4), an information processing module (5) and a power supply module (8), the collection module (3), the data storage module (4), the information processing module (5) and the power supply module (8) are arranged inside the control cabinet (1).

7. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 6, characterized in that, The side wall of the control cabinet (1) is provided with multiple rows of sockets (31) at equal intervals, each row has two sockets (31), and the side wall of the control cabinet (1) is provided with multiple rows of rectangular wire insertion grids (13) close to the sockets (31), and the position of each row of wire insertion grids (13) corresponds to each row of sockets (31) one by one.

8. The BIM-based green construction management device for a municipal wastewater treatment plant according to claim 6, characterized by, The control cabinet (1) is hinged to the cabinet door (12) through a hinge, the inside of the control cabinet (1) is provided with a layer plate, the collection module (3), the data storage module (4), the information processing module (5), the control module (7) and the power supply module (8) are arranged above the layer plate, the layer plate and the cavity of the control cabinet (1) form a storage cabinet (11) below, the bottom of the control cabinet (1) is fixedly connected with the support (9), and the bottom of the support (9) is provided with universal wheels (91) at four corners.

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