Rapidly-arranged environmental radiation monitor and arranging method thereof

Abstract

The invention relates to the technical field of environmental radiation monitoring, and provides a rapid laying type environmental radiation monitor, which comprises a monitor body, two first supporting legs, two second supporting legs, a chassis, a sliding connection block, a connecting frame, a hinging frame and a hanging lock catch, and is characterized in that the two first supporting legs are rotatably arranged on the two opposite sides of the monitor body respectively; and the two second supporting legs are rotationally connected with the two first supporting legs respectively. According to the environment radiation monitor, the first supporting leg can rotate along the second supporting leg, so that when the environment radiation monitor needs to be arranged on an inclined plane, the monitor body can rotate to a horizontal position by adjusting the first supporting leg with high terrain to rotate along the second supporting leg; the horizontal monitor body can improve the laying stability of the environmental radiation monitor, when the positions of the multiple first supporting legs need to be fixed, the multiple first supporting legs can be fixed only by fixing the sliding position of the connecting frame relative to the base plate through the second locking component, and the environmental radiation monitor is convenient to use.

Description

Technical Field

[0001] The present invention relates to the technical field of environmental radiation monitoring, and in particular to a fast-deployable environmental radiation monitor and a deployment method thereof. Background Art

[0002] Environmental radiation monitors are primarily used to continuously acquire gamma energy spectra under environmental conditions and perform online measurement and analysis. Conventional environmental radiation monitors are primarily mobile monitors, designed for on-site deployment. Their internal battery allows for continuous monitoring of the on-site environment without external power. These monitors can not only rapidly detect artificial radioactivity in the environment but also identify nuclides. They can operate in harsh outdoor environments without requiring any maintenance.

[0003] The utility model, with announcement number CN221506340U, proposes a radiation environment monitoring sampling device, comprising a fixed base mounted on a crawler chassis, a collection box disposed on one side of the fixed base, a rotating rod movably mounted within the fixed base, a gear on the rotating rod meshingly connected to a gear disposed on the output end of motor I, motor I fixedly mounted on the fixed base, a support arm fixedly connected to the top of the rotating rod, a movable base movably mounted on the support arm, a screw rod movably engaged above the movable base, one end of screw rod movably mounted on the support arm, and the other end fixedly connected to the output end of motor II, motor II fixedly mounted on the support arm. However, conventional deployed environmental radiation monitors are generally supported by triangular supports. Because the rotation range of their legs is limited and the leg lengths are fixed, when deploying the monitor on a sloped road, the monitor is tilted due to the limitations of the leg fixation. This tilted monitor is prone to tipping over. Therefore, this proposal proposes a rapidly deployable environmental radiation monitor and deployment method to address the aforementioned issues. Summary of the Invention

[0004] In view of this, the present invention proposes a rapid deployment type environmental radiation monitor and a deployment method thereof, so as to solve the technical problem that when a conventional triangularly supported environmental radiation monitor is used, due to the limitation of the fixed legs, the environmental radiation monitor is tilted and deployed on a tilted road surface, and the tilted environmental radiation monitor has the risk of tipping over.

[0005] The technical solution of the present invention is implemented as follows: The present invention provides a rapid deployment type environmental radiation monitor, comprising a monitor body, a first support leg, a second support leg, a chassis, a sliding block, a connecting frame, an articulated frame and a hanging lock, wherein: Two first legs are rotatably disposed on opposite sides of the monitor body, and the two second legs are rotatably connected to the two first legs, respectively. The first locking component is used to determine the rotation angle of the second legs relative to the first legs. A chassis is provided at the bottom of the monitor body, and the sliding block is slidably provided on the chassis and slides along the circumference of the chassis, wherein the sliding direction of the sliding block is consistent with the rotation direction of the first support leg; a connecting frame slidably disposed on the sliding block and sliding toward or away from the monitor body, wherein the second locking member is used to locate the sliding position of the connecting frame relative to the chassis; The articulated frame is hinged on the second supporting leg, and the hanging lock is arranged at the end of the articulated frame and is hung with the connecting frame.

[0006] On the basis of the above technical solution, preferably, the first locking component includes a positioning gear and a first screw, wherein, The second leg is provided with a transfer groove, and the first leg is rotatably arranged on the inner side of the transfer groove, and the inner side of the transfer groove is provided with an assembly groove; A positioning gear is slidably disposed inside the assembly groove, and a positioning tooth groove is formed on the first leg and is opposite to the positioning gear. When the positioning gear slides, the positioning gear is inserted into the positioning tooth groove and meshes with the positioning tooth groove; The first screw is threadedly connected to the second support leg and is rotationally connected to the positioning gear.

[0007] On the basis of the above technical solution, preferably, the second locking component includes a pressing strip and a second screw, wherein, The compression strip is an arc-shaped strip, and the arc center of the compression strip is aligned with the arc center of the chassis. The compression strip is slidably arranged on a side of the chassis close to the connecting frame, and slides toward or away from the connecting frame; The second screw is threadedly connected to the chassis and is rotationally connected to the pressing strip.

[0008] Based on the above technical solution, preferably, the distance between the end of the connecting frame and the hanging point of the hanging lock is H1, the distance between the bottom end of the chassis and the end of the connecting frame is H2, and the length of the connecting frame is H3, 1:5≤H1:H3≤1:3, 3:5≤H2:H3≤4:5.

[0009] On the basis of the above technical solution, preferably, it further includes a connecting tube and a supporting seat, wherein, a connecting tube, disposed at the end of the second leg; The support seat is provided with a limiting groove, the connecting cylinder is rotatably arranged inside the limiting groove, and the groove wall of the limiting groove is used to limit the connecting cylinder from separating from the support seat, and the support seat is used to support the monitor body.

[0010] On the basis of the above technical solution, preferably, a avoidance groove is opened on one side of the support seat, and the avoidance groove is connected to the limit groove. When the connecting tube rotates, the second support leg rotates to the inner side of the avoidance groove.

[0011] On the basis of the above technical solution, preferably, two side mounting blocks are further included, wherein: Two side mounting blocks are both arranged on the monitor body, and a connecting groove is opened on the side mounting block. The first support leg is rotatably connected to the inner side of the connecting groove. The connecting groove is connected to the upper and lower sides of the side mounting block, and is connected to the side of the side mounting block away from the monitor body.

[0012] On the basis of the above technical solution, preferably, a limiting frame is further included, wherein: A through hole is provided on the side mounting block, and the through hole is communicated with the connecting groove. The limit frame is an arch frame, and two ends of the limit frame are respectively connected to the two through holes. When the first leg is rotated to the upper side, the limit frame blocks the side of the first leg away from the monitor body, so as to limit the rotation of the first leg.

[0013] On the basis of the above technical solution, preferably, it further includes an outer frame and a third screw, wherein, The outer frame is an arched frame, and both ends of the outer frame are fixedly connected to the two side mounting blocks respectively; The third screw is threadedly connected to the outer frame and is rotatably connected to the limiting frame.

[0014] The present invention also provides a method for deploying a rapid-deployment environmental radiation monitor, comprising the rapid-deployment environmental radiation monitor described above, and further comprising the following steps: S1. Adjust the two articulated frames so that both hook locks are hooked to the connecting frame, unfold the first leg, and support the second leg on the road surface; S2. If the supporting road surface has no slope, the second locking component is used to fix the sliding position of the connecting frame, thereby completing the deployment of the monitoring device body. S3. If the supporting road surface is an inclined surface, open the first locking component at the higher end, and adjust the first leg at the higher end to rotate relative to the second leg until the monitor body rotates to the horizontal. Fix the first leg and the second leg by the first locking component, and then fix the sliding position of the connecting frame by the second locking component to complete the inclined deployment of the monitor body.

[0015] The rapid deployment type environmental radiation monitor and its deployment method of the present invention have the following beneficial effects compared with the prior art: (1) By setting the first leg to rotate along the second leg, when the environmental radiation monitor of the present application needs to be deployed on a slope, the monitor body can be rotated to a horizontal position by adjusting the first leg on a high ground to rotate along the second leg. The horizontal position of the monitor body can improve the deployment stability of the environmental radiation monitor of the present application. By setting a hooking method to connect the connecting frame with multiple second legs, when the positions of multiple first legs need to be fixed, it is only necessary to fix the sliding position of the connecting frame relative to the chassis by the second locking component to complete the fixing of the multiple first legs, which is convenient for use.

[0016] (2) By providing a connecting tube at the end of the second leg and providing a rotatable connection between the connecting tube and the support base, when the environmental radiation monitor of the present application is placed on an inclined surface, the connecting tube can be adjusted to rotate along the support base so that the support base is closely attached to the inclined surface, thereby improving the stability of the environmental radiation monitor of the present application when placed on the inclined surface. By providing a relief groove on one side of the support base, when adjusting the rotation of the support base, the second leg can be rotated to the inside of the relief groove, thereby allowing the support base to rotate significantly, thereby facilitating the placement of the support base on the inclined surface and facilitating its use.

[0017] (3) By providing a side mounting block connected to the first leg, and connecting the groove to the upper and lower sides of the side mounting block, when the environmental radiation monitor of the present application needs to be transported, the first leg can be rotated to the sides of the monitor body to achieve the folding of the leg, thereby saving transportation space and facilitating the transportation of the environmental radiation monitor of the present application. By providing a limit frame, when the first leg is folded to the sides of the monitor body, the third screw can be rotated. At this time, the third screw pushes the limit frame to move under the action of the threaded connection, and the two ends of the limit frame move to the inside of the connecting groove at the same time, and simultaneously limit the two first legs, thereby preventing the first legs from rotating accidentally during transportation, making it convenient to transport the environmental radiation monitor of the present application and convenient to use. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0019] Figure 1A front perspective view of the rapid deployment type environmental radiation monitor of the present invention; Figure 2 A rear perspective view of the rapid deployment environmental radiation monitor of the present invention; Figure 3 This is a right side view of the rapid deployment type environmental radiation monitor of the present invention; Figure 4 The rapid deployment type environmental radiation monitor of the present invention Figure 3 A cross-sectional view of the structure at AA is shown; Figure 5 This is a front view of the rapid deployment type environmental radiation monitor of the present invention; Figure 6 The rapid deployment type environmental radiation monitor of the present invention Figure 5 A cross-sectional view of the structure at position BB is shown; Figure 7 A schematic diagram of the connection between the first leg and the second leg of the rapid deployment type environmental radiation monitor of the present invention; Figure 8 A cross-sectional view of the connection between the first leg and the second leg of the rapid-deployment environmental radiation monitor of the present invention; Figure 9 This is a schematic diagram of the state of the rapid deployment type environmental radiation monitor of the present invention when deployed on a slope.

[0020] In the figure: 1. Monitor body; 21. First support leg; 211. Positioning tooth groove; 22. Second support leg; 221. Adapter groove; 222. Assembly groove; 23. Connecting tube; 24. Support seat; 241. Limiting groove; 242. Avoiding groove; 31. Chassis; 311. Connecting gap; 32. Sliding block; 33. Connecting frame; 34. Articulated frame; 35. Hanging lock; 41. Positioning gear; 42. First screw; 51. Pressing strip; 52. Second screw; 61. Side mounting block; 611. Connecting groove; 612. Through hole; 62. Limiting frame; 63. External frame; 64. Third screw. DETAILED DESCRIPTION

[0021] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0022] like Figures 1 to 9As shown, the rapid deployment type environmental radiation monitor of the present invention comprises a monitor body 1, a first support leg 21, a second support leg 22, a chassis 31, a sliding block 32, a connecting frame 33, an articulated frame 34 and a hanging lock 35, wherein the two first support legs 21 are respectively rotatably arranged on opposite sides of the monitor body 1, and the two second support legs 22 are respectively rotatably connected to the two first support legs 21, and the first locking component is used to determine the rotation angle of the second support legs 22 relative to the first support legs 21; the chassis 31 is arranged on the monitor body 1, and the second support legs 22 are respectively rotatably connected to the first support legs 21. The bottom of the instrument body 1, and the sliding block 32 is slidably set on the chassis 31, sliding along the circumference of the chassis 31, and the sliding direction of the sliding block 32 is consistent with the rotation direction of the first support leg 21; the connecting frame 33 is slidably set on the sliding block 32, sliding in the direction close to or away from the monitor body 1, and the second locking component is used to locate the sliding position of the connecting frame 33 relative to the chassis 31; the articulated frame 34 is hinged on the second support leg 22, and the hanging lock 35 is set at the end of the articulated frame 34 and hung with the connecting frame 33.

[0023] In a specific implementation, before deploying the radiation monitor of the present application, the articulated frame 34 is pre-adjusted to rotate so that the hook lock 35 is hooked to the connecting frame 33. The two first legs 21 are then adjusted to rotate so that the two second legs 22 are supported on the road surface. If the supporting surface is flat, the sliding position of the connecting frame 33 is fixed by the second locking component, thereby completing the securing of the legs. If the supporting surface is an inclined surface, the first locking component at the high-lying end is opened, and the first leg 21 at the high-lying end is adjusted to rotate along the second leg 22 until the monitor body 1 rotates to a horizontal position. At this point, the sliding block 32 slides along the chassis 31, and the connecting frame 33 slides synchronously along the sliding block 32. After the orientation of the monitor body 1 is adjusted, the rotation angle of the second leg 22 is fixed by the first locking component, and the sliding position of the connecting frame 33 is fixed by the second locking component, thereby completing the securing of the legs and completing the deployment of the radiation monitor of the present application. When the environmental radiation monitor of the present application needs to be placed on a slope, the monitor body 1 can be rotated to a horizontal position by adjusting the first leg 21 on high ground to rotate along the second leg 22. The monitor body 1 in the horizontal position can improve the placement stability of the environmental radiation monitor of the present application. When the positions of multiple first legs 21 need to be fixed, it is only necessary to fix the sliding position of the connecting frame 33 relative to the chassis 31 through the second locking component to complete the fixing of multiple first legs 21, which is convenient for use.

[0024] like Figures 7 and 8As shown, as a preferred embodiment, the first locking component includes a positioning gear 41 and a first screw 42, wherein a transfer groove 221 is provided on the second leg 22, and the first leg 21 is rotatably set on the inner side of the transfer groove 221, and an assembly groove 222 is provided on the inner side of the transfer groove 221; the positioning gear 41 is slidably set inside the assembly groove 222, and a positioning tooth groove 211 is provided on the first leg 21, which is opposite to the positioning gear 41. When the positioning gear 41 slides, the positioning gear 41 is inserted into the positioning tooth groove 211 and engages with the positioning tooth groove 211; the first screw 42 is threadedly connected to the second leg 22 and is rotatably connected to the positioning gear 41.

[0025] In a specific implementation, the opening position of the positioning tooth groove 211 is aligned with the rotation axis of the second leg 22. This design ensures that no matter how the second leg 22 rotates, the positioning gear 41 can be inserted and engaged with the interior of the positioning tooth groove 211.

[0026] Specifically, when it is necessary to lock the rotation angle of the second leg 22, the first screw 42 is rotated. At this time, the first screw 42 pushes the positioning gear 41 to rotate under the action of the threaded connection, and the positioning gear 41 slides along the assembly groove 222 and is inserted into the interior of the positioning tooth groove 211. Since the positioning gear 41 is still slidingly connected to the assembly groove 222, the rotation angle of the second leg 22 is fixed under the meshing action of the positioning gear 41.

[0027] like Figures 5 and 6 As shown, as a preferred embodiment, the second locking component includes a pressing strip 51 and a second screw 52, ​​wherein the pressing strip 51 is an arc strip, and the arc center of the pressing strip 51 is aligned with the arc center of the chassis 31. The pressing strip 51 is slidably arranged on the side of the chassis 31 close to the connecting frame 33 and slides toward or away from the connecting frame 33; the second screw 52 is threadedly connected to the chassis 31 and is rotationally connected to the pressing strip 51. In a specific implementation, there are two chassis 31 , and a connection gap 311 is formed between the two chassis 31 . The connection frame 33 is located inside the connection gap 311 and is slidably connected to the two sliding blocks 32 .

[0028] In a specific implementation, a groove for the compression strip 51 to slide is opened on one side of the chassis 31 close to the connecting frame 33, so that when the compression strip 51 is pushed to slide by the second screw 52, ​​the compression strip 51 can slide stably to press against the first support leg 21, thereby improving the stability of the compression positioning of the connecting frame 33.

[0029] Specifically, when it is necessary to fix the sliding position of the connecting frame 33 relative to the chassis 31, the second screw 52 is rotated. At this time, the second screw 52, ​​under the action of the threaded connection, pushes the pressing bar 51 to move and press the connecting frame 33, thereby completing the pressing and positioning of the sliding position of the connecting frame 33. Since the pressing bar 51 is set as an arc bar, and the arc center of the pressing bar 51 is aligned with the arc center of the chassis 31, no matter where the sliding block 32 slides, the connecting frame 33 can be pressed and positioned by adjusting the movement of the pressing bar 51, which is convenient for use.

[0030] like Figure 4 As shown, as a preferred embodiment, the distance between the end of the connecting frame 33 and the hanging point of the hanging lock 35 is H1, the distance between the bottom end of the chassis 31 and the end of the connecting frame 33 is H2, and the length of the connecting frame 33 is H3, 1:5≤H1:H3≤1:3, 3:5≤H2:H3≤4:5.

[0031] By setting 1:5≤H1:H3≤1:3, the hook lock 35 can be hooked to the connecting frame 33 at a relatively low position, so that when the connecting frame 33 is supported by the hinge frame 34, the stability of the support of the connecting frame 33 by the cross-connection frame 34 can be improved. By setting 3:5≤H2:H3≤4:5, at least one-fifth of the connecting frame 33 of the present application can be extended into the interior of the chassis 31. In this way, when the connecting frame 33 is adjusted to slide along the sliding block 32, the pressing strip 51 can be lost to press the sliding connecting frame 33. At the same time, by setting the length of the connecting frame 33 extending into the interior of the chassis 31 to no more than two-fifths, the chassis 31 of the present application can be designed to be smaller in height, thereby reducing the design cost of the chassis 31 of the radiation monitor of the present application.

[0032] like Figures 1 to 4 As shown, as a preferred embodiment, it also includes a connecting tube 23 and a support seat 24, wherein the connecting tube 23 is arranged at the end of the second support leg 22; a limiting groove 241 is opened on the support seat 24, and the connecting tube 23 is rotatably arranged on the inner side of the limiting groove 241, and the groove wall of the limiting groove 241 is used to limit the connecting tube 23 from being separated from the support seat 24, and the support seat 24 is used to support the monitor body 1.

[0033] By providing a connecting tube 23 at the end of the second support leg 22, and providing a rotatable connection between the connecting tube 23 and the support base 24, when the environmental radiation monitor of the present application is placed on a slope, the connecting tube 23 can be adjusted to rotate along the support base 24 so that the support base 24 is close to the slope, thereby improving the stability of the inclined placement of the environmental radiation monitor of the present application.

[0034] A avoiding groove 242 is formed on one side of the supporting seat 24 . The avoiding groove 242 is communicated with the limiting groove 241 . When the connecting tube 23 rotates, the second leg 22 rotates to be located inside the avoiding groove 242 .

[0035] By opening a avoidance groove 242 on one side of the support seat 24, when adjusting the rotation of the support seat 24, the second leg 22 can be rotated to the inside of the avoidance groove 242, so that the support seat 24 can be rotated to a large extent, thereby facilitating the layout of the support seat 24 on the inclined surface and facilitating use.

[0036] It should be noted that the support seat 24 of this application is Figure 5 The length of the environmental radiation monitor in the front-to-back direction needs to be large enough so that the support base 24 can stably support the monitor body 1 .

[0037] like Figures 2 to 6 As shown, as a preferred embodiment, it also includes two side mounting blocks 61, wherein the two side mounting blocks 61 are both arranged on the monitor body 1, and a connecting groove 611 is opened on the side mounting block 61, and the first support leg 21 is rotatably connected to the inner side of the connecting groove 611, and the connecting groove 611 is connected to the upper and lower sides of the side mounting block 61, and is connected to the side of the side mounting block 61 away from the monitor body 1.

[0038] By setting a side mounting block 61 connected to the first support leg 21, and connecting the connecting groove 611 to the upper and lower sides of the side mounting block 61, when the environmental radiation monitor of the present application needs to be transported, the first support leg 21 can be rotated to the two sides of the monitor body 1 to achieve the folding of the support leg, thereby saving transportation space and facilitating the transportation of the environmental radiation monitor of the present application.

[0039] It also includes a limit frame 62, wherein a through hole 612 is opened on the side mounting block 61, and the through hole 612 is connected to the connecting groove 611. The limit frame 62 is an arch frame, and two through holes 612 are respectively inserted at both ends of the limit frame 62. When the first leg 21 rotates to the upper side, the limit frame 62 blocks the side of the first leg 21 away from the monitor body 1, which is used to limit the rotation of the first leg 21.

[0040] It also includes an outer frame 63 and a third screw 64, wherein the outer frame 63 is an arch frame, and both ends of the outer frame 63 are fixedly connected to the two side mounting blocks 61 respectively; the third screw 64 is threadedly connected to the outer frame 63 and is rotatably connected to the limit frame 62.

[0041] By setting up a limit frame 62, when the first leg 21 is folded to the two sides of the monitor body 1, the third screw 64 can be rotated. At this time, the third screw 64 pushes the limit frame 62 to move under the action of the threaded connection, and the two ends of the limit frame 62 move to the inside of the connecting groove 611 at the same time, and limit the two first legs 21 at the same time, thereby preventing the first legs 21 from rotating accidentally during transportation, making it convenient to transport the environmental radiation monitor of this application and easy to use.

[0042] The present invention also provides a method for deploying a rapid-deployment environmental radiation monitor, comprising the rapid-deployment environmental radiation monitor described above, and further comprising the following steps: Step 1: Adjust the two articulated frames 34 so that both hook locks 35 are hooked to the connecting frame 33, unfold the first leg 21, and support the second leg 22 on the road surface. This step allows both second legs 22 to rotate at the same angle, facilitating stable support of the environmental radiation monitor of the present application. Step 2: If the supporting road surface has no slope, the second locking member fixes the sliding position of the connecting frame 33 to complete the deployment of the monitoring device body 1. In this step, the second screw 52 is rotated to cause the pressing bar 51 to press the connecting frame 33 to complete the pressing and positioning of the connecting frame 33. Step 3: If the supporting surface is inclined, unlock the first locking member at the higher end and adjust the rotation of the first leg 21 relative to the second leg 22 until the monitor body 1 is horizontal. Secure the first and second legs 21, 22 with the first locking member, and then secure the sliding position of the connecting bracket 33 with the second locking member, completing the inclined deployment of the monitor body 1. When the supporting surface is inclined, the support base 24 rotates synchronously along the connecting tube 23 to maintain close contact with the ground, thereby improving the deployment stability of the environmental radiation monitor of this application.

[0043] It should be noted that the ends of the first screw 42, the second screw 52 and the third screw 64 of the present application are all provided with knobs to facilitate the user to adjust the rotation of each screw.

[0044] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A rapidly deployable environmental radiation monitor, characterized by: The device comprises a monitor body (1), a first support leg (21), a second support leg (22), a chassis (31), a sliding block (32), a connecting frame (33), an articulated frame (34) and a hook lock (35), wherein: Two first legs (21) are rotatably arranged on opposite sides of the monitor body (1), and two second legs (22) are rotatably connected to the two first legs (21), respectively. A first locking component is used to position the rotation angle of the second legs (22) relative to the first legs (21); A chassis (31) is provided at the bottom of the monitor body (1), and the sliding block (32) is slidably provided on the chassis (31) and slides along the circumference of the chassis (31), wherein the sliding direction of the sliding block (32) is consistent with the rotation direction of the first support leg (21); A connecting frame (33) is slidably arranged on the sliding block (32) and slides in a direction close to or away from the monitor body (1); a second locking component is used to locate the sliding position of the connecting frame (33) relative to the chassis (31); The hinged frame (34) is hinged on the second support leg (22), and the hook lock (35) is arranged at the end of the hinged frame (34) and is hooked to the connecting frame (33).

2. The rapidly deployable environmental radiation monitor according to claim 1, wherein: The first locking component includes a positioning gear (41) and a first screw (42), wherein: The second support leg (22) is provided with a transfer groove (221), and the first support leg (21) is rotatably arranged on the inner side of the transfer groove (221), and the inner side of the transfer groove (221) is provided with an assembly groove (222); A positioning gear (41) is slidably arranged inside the assembly groove (222); a positioning tooth groove (211) is provided on the first support leg (21) and is positioned relative to the positioning gear (41); when the positioning gear (41) slides, the positioning gear (41) is inserted into the positioning tooth groove (211) and meshes with the positioning tooth groove (211); The first screw (42) is threadedly connected to the second support leg (22) and is rotationally connected to the positioning gear (41).

3. The rapidly deployable environmental radiation monitor according to claim 1, wherein: The second locking component includes a pressing strip (51) and a second screw (52), wherein: The pressing strip (51) is an arc-shaped strip, and the arc center of the pressing strip (51) is aligned with the arc center of the chassis (31). The pressing strip (51) is slidably arranged on a side of the chassis (31) close to the connecting frame (33) and slides in a direction close to or away from the connecting frame (33); The second screw (52) is threadedly connected to the chassis (31) and is rotationally connected to the pressing strip (51).

4. The rapidly deployable environmental radiation monitor according to claim 1, wherein: The distance between the end of the connecting frame (33) and the hooking point of the hooking lock (35) is H1, the distance between the bottom end of the chassis (31) and the end of the connecting frame (33) is H2, and the length of the connecting frame (33) is H3, 1:5≤H1:H3≤1:3, 3:5≤H2:H3≤4:

5.

5. The rapidly deployable environmental radiation monitor according to claim 1, wherein: It also includes a connecting cylinder (23) and a supporting seat (24), wherein: A connecting tube (23) is provided at the end of the second leg (22); A limiting groove (241) is provided on the support seat (24), the connecting tube (23) is rotatably arranged inside the limiting groove (241), and the groove wall of the limiting groove (241) is used to limit the connecting tube (23) from separating from the support seat (24), and the support seat (24) is used to support the monitor body (1).

6. The rapidly deployable environmental radiation monitor according to claim 5, wherein: A avoidance groove (242) is provided on one side of the support seat (24), and the avoidance groove (242) is communicated with the limiting groove (241). When the connecting cylinder (23) rotates, the second leg (22) rotates to be located inside the avoidance groove (242).

7. The rapidly deployable environmental radiation monitor according to claim 1, wherein: Also included are two side mounting blocks (61), wherein Two side mounting blocks (61) are both arranged on the monitor body (1), and a connecting groove (611) is provided on the side mounting block (61). The first leg (21) is rotatably connected to the inner side of the connecting groove (611). The connecting groove (611) is connected to the upper and lower sides of the side mounting block (61) and is connected to the side of the side mounting block (61) away from the monitor body (1).

8. The rapidly deployable environmental radiation monitor according to claim 7, wherein: It also includes a limiting frame (62), wherein The side mounting block (61) is provided with a through hole (612), the through hole (612) is connected to the connecting groove (611), the limiting frame (62) is an arch frame, and two ends of the limiting frame (62) are respectively plugged into the two through holes (612), and when the first leg (21) is rotated to the upper side, the limiting frame (62) blocks the side of the first leg (21) away from the monitor body (1), and is used to limit the rotation of the first leg (21).

9. The rapidly deployable environmental radiation monitor according to claim 8, wherein: It also includes an outer frame (63) and a third screw (64), wherein The outer frame (63) is an arched frame, and both ends of the outer frame (63) are fixedly connected to the two side mounting blocks (61) respectively; The third screw (64) is threadedly connected to the outer frame (63) and is rotationally connected to the limiting frame (62).

10. A method for deploying a rapid deployment type environmental radiation monitor, characterized by: The rapid-deployable environmental radiation monitor according to any one of claims 1 to 9 further comprises the following steps: S1. Adjust the two articulated frames (34) to rotate so that both the hook locks (35) are hooked to the connecting frame (33), unfold the first leg (21), and support the second leg (22) on the road surface; S2. If the supporting road surface has no slope, the sliding position of the connecting frame (33) is fixed by the second locking component, thereby completing the deployment of the monitoring device body (1); S3. If the supporting road surface is an inclined surface, open the first locking component at the higher end and adjust the first leg (21) at the higher end to rotate relative to the second leg (22) until the monitor body (1) rotates to a horizontal position. Fix the first leg (21) and the second leg (22) by the first locking component, and then fix the sliding position of the connecting frame (33) by the second locking component to complete the inclined surface placement processing of the monitor body (1).

Images