Mobile intelligent safety monitoring device with a shock absorption unit

Abstract

The present invention relates to the technical field of construction safety equipment, and particularly relates to a mobile intelligent safety supervision device with a shock absorption unit. It includes a transport box and two silicone blocks. The two groups of silicone blocks are respectively fixedly installed at the bottom corners of the outer walls on both sides of the corresponding transport box, and a shock absorption inner cavity is provided in the silicone block; a number of groups of first buffer strips are evenly distributed in the shock absorption inner cavity. Both ends of the first buffer strip are installed on the two side walls parallel to the transport box in the shock absorption inner cavity, and the first buffer strip is of a corrugated structure; a number of groups of second buffer strips are fixed between adjacent two groups of first buffer strips.

Description

[0001] This application is a divisional application of an invention patent with the application number "202111486222.5", the application date "December 7, 2021", and the title "Mobile Intelligent Safety Monitoring Equipment". Technical Field

[0002] The present invention belongs to the technical field of construction safety equipment, and particularly relates to a mobile intelligent safety monitoring equipment. Background Art

[0003] Construction involves multi-faceted safety construction management. Currently, the safety monitoring of construction sites is usually completed through dedicated monitoring equipment.

[0004] Monitoring equipment is usually divided into two types: mobile and fixed. Among them, the mobile type is widely used due to its advantages such as convenient installation. Nowadays, with the progress of technology, monitoring equipment is also developing more and more towards the intelligent direction. Its monitoring scheme mainly collects images of the construction site through a network-controlled pan-tilt, and then uses an industrial gateway to transmit the image information to the main control end, enabling monitoring personnel to achieve real-time monitoring without having to go to the construction site.

[0005] The network-controlled pan-tilt of the mobile type is usually fixed by a bracket unit. Since the overall volume of the bracket unit is small, and in addition, the working location of the network-controlled pan-tilt is usually at outdoor construction sites, therefore, under the influence of environmental factors, the network-controlled pan-tilt is extremely vulnerable to external interference, resulting in the bracket unit shaking or even tilting and overturning, directly affecting the stability of the network-controlled pan-tilt, and thus leading to a decline in the shooting quality. Summary of the Invention

[0006] In view of the above problems, the present invention provides a mobile intelligent safety monitoring equipment, including a transport box, an upper cover, a bracket connection unit, a bracket unit, and a network high-definition pan-tilt; the top of the transport box is an open structure, and one side of the upper cover is hinged to one side edge of the top of the transport box; the bracket connection unit is installed in the transport box, and the bracket unit includes a first telescopic rod and a bracket mounting plate; one end of the first telescopic rod is hinged to a connecting column, and the other end is fixedly connected to the bracket mounting plate, and the central axis of the bracket mounting plate coincides with the central axis of the first telescopic rod; on one side wall edge of the bracket mounting plate close to the first telescopic rod, a number of groups of second telescopic rods are annularly arrayed with the central axis of the first telescopic rod as the center, and the number of the second telescopic rods is not less than three groups; the network high-definition pan-tilt is movably installed on the bracket mounting plate; an industrial gateway is installed in the transport box, and the industrial gateway is electrically connected to the network high-definition pan-tilt.

[0007] Furthermore, a storage battery is provided in the transport box, and the storage battery is electrically connected to the bracket unit and the industrial gateway respectively.

[0008] Further, a foam block is fixedly installed inside the transport box. A bracket limiting groove is formed at the top of the foam block, and one end of the bracket limiting groove close to the bracket unit is of an open structure; the bracket unit can be movably inserted into the bracket limiting groove; a device limiting groove is provided on one side of the bracket limiting groove, and the network high-definition surveillance pan-tilt can be movably inserted into the device limiting groove.

[0009] Further, the surveillance device further includes two shock absorption units, and each shock absorption unit includes a silica gel block; the two silica gel blocks are respectively fixedly installed at the bottom corners of the outer walls on both sides of the transport box, and a shock absorption inner cavity is formed inside the silica gel block; a number of first buffer strips are equidistantly distributed in the shock absorption inner cavity, and both ends of each first buffer strip are installed on the two side walls of the shock absorption inner cavity parallel to the transport box, and each first buffer strip is of a corrugated structure.

[0010] Further, the bracket connection unit includes a connection column base and a connection column; the connection column base is installed inside the transport box; an annular groove is formed at the top of the connection column base, the connection column is installed in the annular groove, and the central axis of the connection column coincides with the central axis of the annular groove; a number of reset springs are annularly and arrayedly distributed on the outer wall of the connection column, and the other ends of the number of reset springs are respectively installed on the inner walls around the annular groove.

[0011] Further, one end of the bracket unit is hinged to the connection column, and a bracket clamping block is fixedly installed on the outer wall of the connection column close to the bracket limiting groove, and the bracket clamping block is located directly above the joint of the bracket unit and the connection column; the output end of the bracket unit can be movably clamped on the bracket clamping block.

[0012] Further, the bracket unit further includes a rotary motor; the rotary motor is fixedly installed on the side wall of the bracket mounting plate away from the first telescopic rod, and the network high-definition surveillance pan-tilt can be movably clamped on the output end of the rotary motor.

[0013] Further, the first telescopic rod includes an outer sleeve rod; the outer sleeve rod can be movably clamped on the bracket clamping block; one end of the outer sleeve rod is hinged to the connection column, and a telescopic groove is formed at the other end of the outer sleeve rod.

[0014] Further, the first telescopic rod further includes a lifting rod; one end of the lifting rod is located inside the telescopic groove, and the other end of the lifting rod can movably penetrate to the outside of the telescopic groove and is fixedly connected to the bracket mounting plate.

[0015] Further, a device socket is fixedly installed on the side wall of the lifting rod close to the bracket mounting plate, and the device socket can be electrically connected to the network high-definition surveillance pan-tilt.

[0016] The beneficial effects of the present invention are as follows:

[0017] 1. Through the clamping relationship between the first telescopic rod and the connecting column, the overall housing of the bracket unit is fixed on the transport box. Then, by utilizing the weight of the transport box itself and the weight of the balance block, the stability of the bracket unit is increased, thereby also improving the anti-interference ability of the network high-definition surveillance pan-tilt during operation.

[0018] 2. When the bracket unit is affected by an external force, it will drive the connecting column to displace, and then the connecting column will transmit the external force to the reset springs distributed in an annular array. The elastic force of the reset springs is used to offset the external force and enable the connecting column to return to its original position, avoiding the influence of the displacement or vibration of the network high-definition surveillance pan-tilt on the shooting effect, thereby improving the working quality of the network high-definition surveillance pan-tilt.

[0019] 3. When the network high-definition surveillance pan-tilt is in operation, first insert the plug of the network high-definition surveillance pan-tilt into the device socket, and then use the wire body built into the outer sleeve rod and the lifting rod to deliver the electrical energy of the storage battery to the network high-definition surveillance pan-tilt. There is no need to use additional exposed wires to supply power to the network high-definition surveillance pan-tilt, improving the convenience of device use.

[0020] 4. When the transport box is impacted during movement, first, the outer wall of the silicone block absorbs part of the impact force and transmits the remaining impact force to one or several groups of first buffer strips corresponding to the impact point. Due to the characteristics of the corrugated structure of the first buffer strips, the elastic force of the first buffer strips is increased. Therefore, when the impact force acts on the first buffer strips, it will be basically absorbed by the first buffer strips, and the remaining impact force will be transferred to other groups of first buffer strips through the second buffer strips. This avoids the transport box receiving the impact force and thereby improves the shock absorption of the transport box.

[0021] Other features and advantages of the present invention will be described in the subsequent specification, and, in part, will be obvious from the specification or understood by implementing the present invention. The objectives and other advantages of the present invention can be achieved and obtained through the structures pointed out in the specification, claims, and drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following drawings are some embodiments of the present invention. For those of ordinary skill in the art, other drawings can also be obtained based on these drawings without creative efforts.

[0023] Figure 1 Shows a schematic structural diagram of the monitoring device according to an embodiment of the present invention;

[0024] Figure 2 Shows the structural schematic diagram of the monitoring device after being stored according to an embodiment of the present invention;

[0025] Figure 3 Shows the cross-sectional schematic diagram of the monitoring device after being stored according to an embodiment of the present invention;

[0026] Figure 4 Shows the structural schematic diagram of the transportation box according to an embodiment of the present invention;

[0027] Figure 5 Shows the cross-sectional schematic diagram of the shock absorption unit according to an embodiment of the present invention;

[0028] Figure 6 Shows the top view schematic diagram of the bracket connection unit according to an embodiment of the present invention;

[0029] Figure 7 Shows the structural schematic diagram of the bracket unit according to an embodiment of the present invention;

[0030] Figure 8 Shows the cross-sectional schematic diagram of the first telescopic rod according to an embodiment of the present invention;

[0031] Figure 9 Shows the end face cross-sectional schematic diagram of the power cord module according to an embodiment of the present invention.

[0032] In the figure: 100, transportation box; 110, foam block; 120, bracket limit groove; 130, device limit groove; 200, upper cover; 210, limit foam board; 300, storage battery; 400, shock absorption unit; 410, silica gel block; 420, shock absorption inner cavity; 430, first buffer strip; 440, second buffer strip; 500, bracket connection unit; 510, connection column base; 520, annular groove; 530, connection column; 540, return spring; 550, bracket clamping block; 600, bracket unit; 610, first telescopic rod; 611, outer sleeve rod; 612, telescopic groove; 613, lifting rod; 614, wire installation groove; 615, wire reel fixing rod; 616, device socket; 617, wire reel body; 620, bracket mounting plate; 630, rotary motor; 640, second telescopic rod; 650, power cord module; 651, outer insulating sleeve; 652, wire body; 653, clockwork spring; 700, balance block; 800, network high-definition surveillance cloud platform. Detailed implementation manners

[0033] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Apparently, the described embodiments are some, but not all, of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0034] An embodiment of the present invention provides a mobile intelligent security monitoring device. It includes a transport box 100, an upper cover 200, a bracket connection unit 500, a bracket unit 600, and a network high-definition surveillance pan-tilt 800. Exemplarily, as Figure 1 , Figure 2 and Figure 3 shown, the top of the transport box 100 is an open structure, one side of the upper cover 200 is hinged to one side edge of the top of the transport box 100, and the other side of the upper cover 200 is movably clamped to the transport box 100.

[0035] A storage battery 300 is provided inside the transport box 100, and the bracket connection unit 500 is located above the storage battery 300.

[0036] One end of the bracket unit 600 is hinged to the bracket connection unit 500, and the bracket unit 600 is electrically connected to the storage battery 300. The bracket unit 600 is used to support the network high-definition surveillance pan-tilt 800.

[0037] An industrial gateway is fixedly installed inside the transport box 100, and the industrial gateway is electrically connected to the storage battery 300 and the network high-definition surveillance pan-tilt 800 respectively. The industrial gateway is used to provide a wireless network connection for the network high-definition surveillance pan-tilt 800.

[0038] A set of shock-absorbing units 400 are respectively provided at both side edges of the bottom of the outer wall of the transport box 100. The transport box 100 can be prevented from being damaged by external forces through the shock-absorbing units 400.

[0039] The output end of the bracket unit 600 can movably penetrate to the outside of the transport box 100. The network high-definition surveillance pan-tilt 800 can be movably clamped to the output end of the bracket unit 600.

[0040] Exemplarily, as Figure 4As shown, a foam block 110 is fixedly installed inside the transport box 100. A bracket limiting groove 120 is formed at the top of the foam block 110, and one end of the bracket limiting groove 120 close to the bracket unit 600 is of an open structure. The bracket unit 600 can be movably inserted into the bracket limiting groove 120. One side of the bracket limiting groove 120 is provided with an equipment limiting groove 130, and the network high-definition surveillance pan-tilt 800 can be movably inserted into the equipment limiting groove 130. A balance block 700 is fixedly installed on the bottom inner wall of the transport box 100.

[0041] Preferably, a limiting foam board 210 is fixedly installed in the inner cavity of the upper cover 200, and the limiting foam board 210 can be movably attached to the top of the foam block 110.

[0042] When the equipment is idle, the bracket unit 600 is stored and inserted into the bracket limiting groove 120. And the network high-definition surveillance pan-tilt 800 is detached from the output end of the bracket unit 600 and inserted into the equipment limiting groove 130. The foam block 110 provides protection for the bracket unit 600 and the network high-definition surveillance pan-tilt 800 to prevent damage to the bracket unit 600 and the network high-definition surveillance pan-tilt 800 caused by external forces.

[0043] At the same time, the balance block 700 is used to increase the stability of the transport box 100.

[0044] The shock absorption unit 400 includes a silica gel block 410. Exemplarily, as Figure 5 shown, the silica gel block 410 is fixedly installed at the bottom corners of the outer wall of the transport box 100, and a shock absorption inner cavity 420 is formed in the silica gel block 410. A number of groups of first buffer strips 430 are equally spaced in the shock absorption inner cavity 420. Two ends of each first buffer strip 430 are respectively installed on two side walls of the shock absorption inner cavity 420 parallel to the transport box 100, and the first buffer strip 430 is of a corrugated structure. A number of groups of second buffer strips 440 are fixedly installed between adjacent two groups of the first buffer strips 430.

[0045] When the transport box 100 is impacted during movement, it first contacts the outer wall of the silica gel block 410, and then part of the impact force can be absorbed by the outer wall of the silica gel block 410, and the remaining impact force is transmitted to one group or several groups of first buffer strips 430 corresponding to the impact point. Due to the characteristic of the corrugated structure of the first buffer strip 430, the elasticity of the first buffer strip 430 is increased. Therefore, when the impact force acts on the first buffer strip 430, it will be basically absorbed by the first buffer strip 430, and the remaining impact force will be transferred to other groups of first buffer strips 430 through the second buffer strips 440. The transport box 100 is prevented from receiving the impact force, thereby improving the shock absorption performance of the transport box 100.

[0046] The bracket connection unit 500 includes a connection column base 510 and a connection column 530. Exemplarily, as Figure 6 shown, the connection column base 510 is fixedly installed in the transport box 100, and the connection column base 510 is located on the side of the bracket limiting groove 120 close to the opening. An annular groove 520 is formed at the top of the connection column base 510, the connection column 530 is fixedly installed in the annular groove 520, and the central axis of the connection column 530 coincides with the central axis of the annular groove 520. A plurality of groups of return springs 540 are annularly and arrayedly distributed on the outer wall of the connection column 530, and the other ends of the plurality of groups of return springs 540 are respectively fixedly installed on the inner walls around the annular groove 520. One end of the bracket unit 600 is hinged to the connection column 530, and a bracket catch 550 is fixedly installed on the outer wall of the connection column 530 close to the bracket limiting groove 120, and the bracket catch 550 is located directly above the joint of the bracket unit 600 and the connection column 530. The output end of the bracket unit 600 can be movably clamped on the bracket catch 550.

[0047] Before the device is used, first take out the bracket unit 600 from the bracket limiting groove 120 and clamp it on the bracket catch 550. Then open the bracket unit 600 and install the network high-definition surveillance pan-tilt 800 on the output end of the bracket unit 600. Fix the bracket unit 600 and the network high-definition surveillance pan-tilt 800 through the connection column 530, so that the bracket unit 600 is fixed on the transport box 100. During the use of the device, when the bracket unit 600 is affected by an external force, it will drive the connection column 530 to displace, and then the connection column 530 will transmit the external force to the return springs 540 distributed in an annular array. Utilize the elasticity of the return springs 540 to offset the external force and make the connection column 530 return to its original position, avoiding the influence of the network high-definition surveillance pan-tilt 800 on the shooting effect due to displacement or vibration, thereby improving the working quality of the network high-definition surveillance pan-tilt 800.

[0048] The bracket unit 600 includes a first telescopic rod 610, a bracket mounting plate 620 and a rotary motor 630. Exemplarily, as Figure 7As shown, one end of the first telescopic rod 610 is hinged to the connecting column 530, and the other end is fixedly connected to the bracket mounting plate 620. The central axis of the bracket mounting plate 620 coincides with the central axis of the first telescopic rod 610. A plurality of groups of second telescopic rods 640 are hinged in a circular array on the edge of one side wall of the bracket mounting plate 620 close to the first telescopic rod 610, with the central axis of the first telescopic rod 610 as the center. The number of the second telescopic rods 640 is not less than three groups. The rotary motor 630 is fixedly installed on the side wall of the bracket mounting plate 620 away from the first telescopic rod 610, and the network high-definition surveillance pan-tilt 800 is movably clamped on the output end of the rotary motor 630.

[0049] When installing the network high-definition surveillance pan-tilt 800, first take out the first telescopic rod 610 from the bracket limit groove 120, and rotate it along its hinge point with the connecting column 530, so that one end of the first telescopic rod 610 away from the hinge point is vertically upward, and the rod body of the first telescopic rod 610 can be clamped on the bracket block 550. Then, pull the first telescopic rod 610 to the corresponding length according to the required shooting height, and extend all the plurality of groups of second telescopic rods 640, so that the ends of the plurality of groups of second telescopic rods 640 away from the bracket mounting plate 620 can be supported on the ground around the transport box 100 in a circular array. The supporting effect on the network high-definition surveillance pan-tilt 800 is realized, and through the clamping relationship between the first telescopic rod 610 and the connecting column 530, the overall housing of the bracket unit 600 is fixed on the transport box 100. Then, the weight of the transport box 100 itself and the weight of the balance block 700 are used to increase the stability of the bracket unit 600, and thereby improve the anti-interference ability of the network high-definition surveillance pan-tilt 800 during operation.

[0050] The first telescopic rod 610 includes an outer sleeve rod 611 and a lifting rod 613. Exemplarily, such as Figure 8As shown, the outer sleeve rod 611 can be movably clamped on the bracket clamping block 550. One end of the outer sleeve rod 611 is hinged to the connecting column 530, and a telescopic groove 612 is provided at the other end of the outer sleeve rod 611. One end of the lifting rod 613 is located in the telescopic groove 612, and the other end of the lifting rod 613 can movably penetrate to the outside of the telescopic groove 612 and is fixedly connected to the bracket mounting plate 620. A device socket 616 is fixedly installed on the side wall of the lifting rod 613 near the bracket mounting plate 620, and the device socket 616 can be electrically connected to the network high-definition surveillance pan-tilt 800. A wire installation groove 614 is provided at one end of the telescopic groove 612 close to the connecting column 530. A group of wire reel fixing rods 615 are respectively fixedly installed on the inner walls on both sides of the wire installation groove 614. A wire reel body 617 is rotatably connected between the two groups of wire reel fixing rods 615. A power cord module 650 is wound on the wire reel body 617. One end of the power cord module 650 is electrically connected to the storage battery 300, and the other end of the power cord module 650 penetrates into the lifting rod 613 and is electrically connected to the device socket 616.

[0051] The power cord module 650 includes a wire body 652. Exemplarily, as Figure 9 shown, an outer insulating sleeve 651 is sleeved outside the wire body 652. A clockwork spring 653 is fixedly installed in the inner wall of the outer insulating sleeve 651. One end of the clockwork spring 653 far from the device socket 616 is fixedly connected to the wire reel body 617.

[0052] Preferably, a conductive slip ring is fixedly installed on the central axis of the wire reel body 617, and the wire body 652 is electrically connected to the storage battery 300 through the conductive slip ring.

[0053] When the lifting rod 613 is pulled out, the power cord module 650 on the wire reel body 617 will be pulled out at the same time. When the lifting rod 613 contracts, under the elastic force of the clockwork spring 653, the power cord module 650 is re-wound on the wire reel body 617. The purpose of winding the power cord module 650 is achieved, and the situation of the power cord module 650 being knotted is avoided.

[0054] When the network high-definition surveillance pan-tilt 800 is working, first plug the plug of the network high-definition surveillance pan-tilt 800 into the device socket 616, and then use the power cord module 650 built in the outer sleeve rod 611 and the lifting rod 613 to deliver the electric energy of the storage battery 300 to the network high-definition surveillance pan-tilt 800. There is no need to use extra exposed wires to supply power to the network high-definition surveillance pan-tilt 800, which improves the convenience of using the device.

[0055] Through the clamping connection relationship between the first telescopic rod 610 and the connecting column 530, the overall housing of the bracket unit 600 is fixed on the transport box 100. Then, by utilizing the weight of the transport box 100 itself and the weight of the balance block 700, the stability of the bracket unit 600 is increased, thereby also improving the anti-interference ability of the network high-definition surveillance pan-tilt 800 during operation. When the bracket unit 600 is affected by an external force, it will drive the connecting column 530 to displace, and then the connecting column 530 will transmit the external force to the reset springs 540 distributed in an annular array. The elastic force of the reset springs 540 is used to offset the external force and make the connecting column 530 return to its original position, preventing the network high-definition surveillance pan-tilt 800 from being affected by displacement or vibration and thus improving the working quality of the network high-definition surveillance pan-tilt 800. When the network high-definition surveillance pan-tilt 800 is in operation, first insert the plug of the network high-definition surveillance pan-tilt 800 into the device socket 616, and then use the power cord module 650 built in the outer sleeve rod 611 and the lifting rod 613 to deliver the electrical energy of the storage battery 300 to the network high-definition surveillance pan-tilt 800. There is no need to use additional exposed wires to supply power to the network high-definition surveillance pan-tilt 800, improving the convenience of device use. When the transport box 100 is impacted during movement, first, the outer wall of the silica gel block 410 absorbs part of the impact force and transmits the remaining impact force to one or several groups of first buffer strips 430 corresponding to the impact point. Due to the corrugated structure characteristics of the first buffer strips 430, the elastic force of the first buffer strips 430 is increased. Therefore, when the impact force acts on the first buffer strips 430, it will be basically absorbed by the first buffer strips 430, and the remaining impact force will be transferred to other groups of first buffer strips 430 through the second buffer strips 440. This prevents the transport box 100 from receiving the impact force and thus improves the shock absorption of the transport box 100.

[0056] Although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that: they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements for some of the technical features; and these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A mobile intelligent safety monitoring device with a shock absorption unit, characterized in that, It includes a transport box (100) and two silicone blocks (410). Two groups of the silicone blocks (410) are respectively fixedly installed at the bottom corners of the outer walls on both sides of the corresponding transport box (100), and a shock-absorbing inner cavity (420) is provided in the silicone block (410); a number of groups of first buffer strips (430) are evenly distributed in the shock-absorbing inner cavity (420). Both ends of the first buffer strip (430) are respectively installed on the two side walls of the shock-absorbing inner cavity (420) parallel to the transport box (100), and the first buffer strip (430) is of a corrugated structure; a number of groups of second buffer strips (440) are fixed between adjacent two groups of the first buffer strips (430); when an impact force acts on the first buffer strip (430), it will be basically absorbed by the first buffer strip (430), and the remaining impact force is transferred to other groups of first buffer strips (430) through the second buffer strip (440) to improve the shock absorption of the transport box (100). The mobile intelligent safety supervision device further includes an upper cover (200), a bracket connection unit (500), a bracket unit (600) and a network high-definition surveillance pan-tilt (800); the top of the transport box (100) is of an open structure, and one side of the upper cover (200) is hinged to one side edge of the top of the transport box (100); the bracket connection unit (500) is installed in the transport box (100), and the bracket unit (600) includes a first telescopic rod (610) and a bracket mounting plate (620); one end of the first telescopic rod (610) is hinged to the bracket connection unit (500), and the other end is fixedly connected to the bracket mounting plate (620). The central axis of the bracket mounting plate (620) coincides with the central axis of the first telescopic rod (610); several groups of second telescopic rods (640) are annularly arrayed and hinged on the edge of one side wall of the bracket mounting plate (620) close to the first telescopic rod (610) with the central axis of the first telescopic rod (610) as the center, and the number of the second telescopic rods (640) is not less than three; the network high-definition surveillance pan-tilt (800) is movably installed on the bracket mounting plate (620); an industrial gateway is installed in the transport box (100), and the industrial gateway is electrically connected to the network high-definition surveillance pan-tilt (800). The bracket connection unit (500) includes a connection column base (510) and a connection column (530); the connection column base (510) is installed in the transport box (100); an annular groove (520) is provided at the top of the connection column base (510), the connection column (530) is installed in the annular groove (520), and the central axis of the connection column (530) coincides with the central axis of the annular groove (520); a number of groups of return springs (540) are annularly arrayed on the outer wall of the connection column (530), and the other ends of the several groups of return springs (540) are respectively installed on the inner walls around the annular groove (520). One end of the bracket unit (600) is hinged to the connecting column (530). A bracket block (550) is fixedly installed on the outer wall of the connecting column (530) on the side close to the bracket limit groove (120). The bracket block (550) is directly above the joint of the bracket unit (600) and the connecting column (530). The output end of the bracket unit (600) is movably clamped on the bracket block (550).

2. The mobile intelligent safety monitoring device with a shock absorption unit according to claim 1, characterized in that: A storage battery (300) is arranged in the transport box (100). The storage battery (300) is electrically connected to the bracket unit (600) and the industrial gateway respectively.

3. The mobile intelligent safety monitoring device with a shock absorption unit according to claim 1, characterized in that: A foam block (110) is fixedly installed in the transport box (100). A bracket limit groove (120) is formed at the top of the foam block (110). One end of the bracket limit groove (120) close to the bracket unit (600) is of an open structure. The output end of the bracket unit (600) can be movably clamped on the bracket block (550) or the bracket unit (600) is movably inserted into the bracket limit groove (120). A device limit groove (130) is arranged on one side of the bracket limit groove (120). The network high-definition layout cloud platform (800) can be movably inserted into the device limit groove (130).

4. The mobile intelligent safety monitoring device with a shock absorption unit according to claim 2, characterized in that: The bracket unit (600) further includes a rotation motor (630). The rotation motor (630) is fixedly installed on the side wall of the bracket mounting plate (620) away from the first telescopic rod (610). The network high-definition layout cloud platform (800) can be movably clamped on the output end of the rotation motor (630).

5. The mobile intelligent safety monitoring device with a shock absorption unit according to claim 4, characterized in that: The first telescopic rod (610) includes an outer sleeve rod (611) and a lifting rod (613). The outer sleeve rod (611) can be movably clamped on the bracket block (550). One end of the outer sleeve rod (611) is hinged to the connecting column (530), and a telescopic groove (612) is formed at the other end of the outer sleeve rod (611). One end of the lifting rod (613) is located in the telescopic groove (612), and the other end of the lifting rod (613) can movably penetrate to the outside of the telescopic groove (612) and is fixedly connected to the bracket mounting plate (620). A device socket (616) is fixedly installed on the side wall of the lifting rod (613) close to the bracket mounting plate (620). The device socket (616) can be electrically connected to the network high-definition layout cloud platform (800). A wire installation groove (614) is arranged at one end of the telescopic groove (612) close to the connecting column (530). A group of wire reel fixing rods (615) are respectively fixedly installed on the inner walls of both sides of the wire installation groove (614). A wire reel body (617) is rotatably connected between the two groups of wire reel fixing rods (615). A power cord module (650) is wound on the wire reel body (617). One end of the power cord module (650) is electrically connected to the storage battery (300), and the other end of the power cord module (650) penetrates into the lifting rod (613) and is electrically connected to the device socket (616).

6. The mobile intelligent safety monitoring device with a shock-absorbing unit according to claim 5, characterized in that: The power cord module (650) includes a wire body (652), an outer insulating sleeve (651) is sleeved outside the wire body (652), and a clockwork spring (653) is fixedly installed in the inner wall of the outer insulating sleeve (651). When the lifting rod (613) contracts, under the elastic force of the clockwork spring (653), the power cord module (650) is rewound onto the wire reel body (617).

7. The mobile intelligent safety monitoring device with a shock absorption unit according to claim 6, characterized in that: A conductive slip ring is fixedly installed on the central axis of the wire reel body (617), and the wire body (652) is electrically connected to the storage battery (300) through the conductive slip ring.

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