A cruising atmospheric environment monitoring device for ship lock construction

Abstract

The application discloses a cruising type atmospheric environment monitoring equipment for ship lock construction and relates to the field of atmospheric environment monitoring. An internal reserved air pump is arranged in the monitoring equipment body, and the internal reserved air pump performs air sampling and detection work through a reserved pipe fitting. A butt joint movable piece is arranged on the inner wall of the reserved pipe fitting. The cruising type atmospheric environment monitoring equipment for ship lock construction. In the process of continuous air pumping of the internal reserved air pump, the butt joint movable piece on the inner side will be adsorbed and moved downward, so that the sealing butt joint piece is driven by the reserved traction rope on the outer side to form horizontal movement, and the closing state of the whole reserved pipe fitting is adaptively opened and closed. In the process of equipment operation, the equipment is adaptively opened to prevent the error problem that the dust and other substances in the local environment interfere with the overall regional environmental air quality detection due to the long-term mixing of impurities in the residual gas in the previous stage.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of atmospheric environment monitoring, in particular to a cruising atmospheric environment monitoring equipment for ship lock construction. BACKGROUND

[0002] During the construction of the ship lock, various environmental protection detection equipment needs to be adapted, and in order to strictly control the site dust, a sweeper needs to be arranged to spray water and reduce dust on the main road of the ship lock construction every day, and a fog cannon machine needs to be set up in the dust control key area to spray mist and reduce dust, so that the atmospheric environment monitoring equipment needs to be adapted to regularly monitor the quality of the key area.

[0003] For example, a patent with publication number CN220356890U, a kind of atmospheric environment particulate matter pollution monitoring device, including remote control car, multistage telescopic rod, load instrument box, remote control car is equipped with multistage telescopic rod, remote control car is equipped with hydraulic station, multistage telescopic rod top is equipped with load instrument box, load instrument box base mechanism is fixedly connected with first servo motor input end, first servo motor output end is fixedly installed with rotating disc, instrument box frame one side is equipped with display screen, instrument box frame is equipped with inner box frame;When working, the remote control car detects the atmospheric environment particulate matter through remote control, realizes automatic real-time detection, displays the current detection particulate matter content, wind speed and wind direction through the display screen, and can automatically clean dust and remove ash when the work is completed, and can shrink the equipment for storage protection;

[0004] For example, a patent with publication number CN114062601A, a kind of atmospheric environment grid monitoring system. The present application comprises: a stand column, an installation slot is formed in the top of the stand column, a movable column is slidably installed in the installation slot, the top end of the movable column extends out of the installation slot and is fixedly installed with a horizontal plate, by setting the buffer assembly, the vibration force received by the monitoring equipment can be effectively buffered, good damping effect is achieved, the equipment is prevented from being damaged by vibration force, the atmospheric environment can be more effectively monitored, the problem that the electrical elements installed on the monitoring equipment are easily damaged when the monitoring equipment receives vibration force from external factors during atmospheric environment monitoring, affecting the monitoring effect of the environment, and the surface of the dustproof filter screen installed on the monitoring equipment does not have the function of automatic cleaning is solved;

[0005] As the patent with publication number CN114441400A, a kind of atmospheric environment particulate pollution monitoring device and monitoring method, it relates to atmospheric monitoring device technical field, including bottom plate, monitoring box, setting between the stable lifting mechanism of bottom plate and monitoring box, mobile protection mechanism being set in monitoring box and wind direction determination mechanism being set in the upper of monitoring box, monitoring box is cuboid structure, and present inside hollow, stable lifting mechanism includes telescopic column, hydraulic rod, turntable and fixed ring, telescopic column lower end and the upper center position of bottom plate are connected, one end of telescopic column other end and hydraulic rod close to bottom plate is movably connected, the other end of hydraulic rod and the one end of turntable close to bottom plate are movably connected, fixed ring is cylindrical structure, and present inside hollow, fixed ring lower outside and upper of bottom plate are connected, fixed ring inner sidewall and telescopic column are movably connected, telescopic column and hydraulic rod are movably connected, the monitoring position of monitoring box can be changed;

[0006] The above prior art mostly improves the overall structure, and the existing cruise type atmospheric environment monitoring equipment for ship lock construction mostly uses through type air quality detection and treatment during work. During gas suction, errors may be caused in the detection of the overall environmental air quality due to the influence of dust and other factors in the local environment. After single quantitative air suction, residual dust gas may accumulate in the interior of the equipment, which may affect the equipment interior and the subsequent detection accuracy. SUMMARY

[0007] The present application aims to provide a cruise type atmospheric environment monitoring equipment for ship lock construction to solve the problem of errors in the detection of the overall environmental air quality due to the influence of dust and other factors in the local environment during work, and the residual dust gas accumulated in the interior of the equipment after single quantitative air suction, which may affect the equipment interior and the subsequent detection accuracy.

[0008] To achieve the above-mentioned purpose, the present application provides the following technical solutions:

[0009] The utility model provides a kind of cruising atmospheric environment monitoring equipment for ship lock construction, including monitoring equipment body, built-in reserve air pump is installed in the inside of monitoring equipment body, and the upper end output end of built-in reserve air pump is docked with reserve pipe fitting, and built-in reserve air pump carries out air sampling detection work by reserve pipe fitting;The lower end inner wall of the reserve pipe fitting is nested with docking activity sheet, and the middle end of the reserve pipe fitting is penetrated and is docked with sealing docking piece, and the outer surface of the reserve pipe fitting is docked with corrugated gas bag assembly, and the outer side upper end of corrugated gas bag assembly is nested and docked between the inner wall of monitoring equipment body, the inside of the reserve pipe fitting is provided with airflow guide structure, and the stored gas is discharged reversely by airflow guide structure, to ensure the air state inside reserve pipe fitting.

[0010] Further preferably, the airflow guide structure is provided with a reserve traction rope, and the two ends of the reserve traction rope are respectively mutually docked with the left side outside of the sealing docking piece and the upper end outside of the docking activity sheet, and the middle segment of the reserve traction rope penetrates along the inside of the reserve pipe fitting, the outside of the sealing docking piece is fixedly connected with a first spring, and the first spring is mutually docked with the reserve pipe fitting.

[0011] Further preferably, the outside lower end of the docking piece is docked with an internal traction rope, and the internal traction rope penetrates along the inner wall of the reserve pipe fitting, and the end of the internal traction rope is mutually docked with the upper end of the sealing docking piece; The inner wall of the reserve pipe fitting is provided with a reserve through hole, and the position of the reserve through hole and the sealing fitting correspond to each other, the upper end of the corrugated gas bag assembly is nested and docked with the inside of the monitoring equipment body, and the third spring is fixedly connected between the corrugated gas bag assembly and the inner wall of the monitoring equipment body.

[0012] Further preferably, a negative pressure is formed along the inside of the reserve pipe fitting during the operation of the built-in reserve air pump, an adsorption force is formed downward to the docking activity sheet at the corresponding position to move it downward, and the docking activity sheet drives the sealing docking piece to form a horizontal traction structure through the reserve traction rope.

[0013] Further preferably, the sealing docking piece forms traction work with the docking piece through the internal traction rope, and the docking piece drives the sealing fitting at the upper end to move downward along the outside of the reserve through hole, the corrugated gas bag assembly forms gas storage work after being separated from the closed state of the sealing fitting.

[0014] Further preferably, the outer end of the reserved pipe is provided with a guide cruise structure, and the gas outside the reserved pipe is subjected to air extraction treatment through the guide cruise structure; the guide cruise structure is provided with an internal reserved rope, and the internal reserved rope is butted to the outside of the butting piece, and the internal reserved rope penetrates along the inner wall of the reserved pipe, and the outside of the internal reserved rope is butted to the reserved pull rope, and the reserved pull rope penetrates along the inner side of the monitoring device body, and the end of the reserved pull rope is butted to the outside of the corrugated gas bag assembly, and the corrugated gas bag assembly is driven by the synchronous traction of the internal reserved rope and the reserved pull rope to extract air.

[0015] Further preferably, the upper end of the reserved pipe is butted to the movable flexible sheet, and the lower shaft end of the movable flexible sheet is butted to the outside of the reserved pipe through the torsion spring, so that the movable flexible sheet remains in a vertical butting state along the outside of the reserved pipe, and the lower shaft end of the movable flexible sheet is butted to the end of the internal reserved rope, and the movable flexible sheets are arranged at equal angles and butted to each other through the elastic material mesh.

[0016] Further preferably, during the process of the butting piece being forced to move downward, the movable flexible sheet butted to the upper end of the butting piece through the internal reserved rope will be angularly rotated and expanded along the outside of the reserved pipe.

[0017] Further preferably, the lower end of the butted movable sheet is butted to the internal electric push rod, and the internal electric push rod is installed on the inside of the reserved pipe, and the internal electric push rod and the internal reserved air pump are powered by the preset power storage group inside the monitoring device body.

[0018] Compared with the prior art, the beneficial effects of the present application are:

[0019] The ship lock construction cruise type atmospheric environment monitoring device is provided with an air flow guide structure. During the process of monitoring the air quality environment of the ship lock construction area, the device will discharge the stored gas in the opposite direction through the air flow guide structure, so as to ensure the air state inside the reserved pipe. During the process of continuous air extraction by the internal reserved air pump, the butted movable sheet on the inside will be adsorbed and moved downward, so as to drive the sealed butting piece to move horizontally through the reserved traction rope butted to the outside of the movable sheet, and then to adaptively open and close the closed state of the whole reserved pipe. In addition, the device is adaptively opened during the working process, so as to prevent the error problem of the local environment caused by the long-term mixing of impurities in the residual gas of the previous stage into the inside of the device, which interferes with the overall regional environmental air quality detection, and improve the practicability of the device.

[0020] Further, when the built-in reserved air pump inside the monitoring device body continuously pumps air, the sealing docking piece in the stressed active state will be displaced downward simultaneously with the built-in traction rope, causing the corrugated air bag assembly to be separated from the closed state with the sealing docking piece, and the downward docking piece will cooperate with the built-in reserved rope and the reserved rope to drive the corrugated air bag assembly to move horizontally, thereby forming a gas pumping and storage work through the negative pressure continuous pumping of the built-in reserved air pump and the horizontal pumping activity of the corrugated air bag assembly, and then after the subsequent reserved pipe stops pumping, the reset corrugated air bag assembly will release the internally stored gas outward along the sealing docking piece, thereby guiding the upward flow of the transmitted gas, and the secondary discharged gas will discharge the residual dust gas accumulated in the reserved pipe after single quantitative pumping, avoiding the influence of residual dust gas accumulation in the reserved pipe on the device, and further ensuring the detection accuracy.

[0021] Further, the guide cruise structure is provided to disperse the gas outside the reserved pipe for pumping after pumping, and in the process of downward displacement of the docking piece under stress, the active flexible sheet on the upper end of the docking piece will be expanded and rotated along the outside of the reserved pipe, thereby balancing the gas environment above the device for continuous pumping and detecting, and automatically dispersing the local accumulated gas at the upper end of the device, and then performing cruise type gas sampling processing, further ensuring the sampling and detection accuracy. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 is a schematic diagram of the three-dimensional structure of the present application;

[0023] Figure 2 is a schematic diagram of the three-dimensional structure of the monitoring device body of the present application;

[0024] Figure 3 is a schematic diagram of the three-dimensional structure of the reserved pipe of the present application;

[0025] Figure 4 is a schematic diagram of the three-dimensional structure of the built-in reserved air pump of the present application;

[0026] Figure 5 is a schematic diagram of the three-dimensional structure of the monitoring device body of the present application;

[0027] Figure 6 is a schematic diagram of the three-dimensional structure of the present application Figure 5 is a schematic diagram of the three-dimensional structure of the present application

[0028] Figure 7 is a schematic diagram of the three-dimensional structure of the present application

[0029] Figure 8It is a half-section structure schematic diagram of the corrugated air bag assembly of the application;

[0030] Figure 9 It is a three-dimensional structure schematic diagram of the third spring of the application;

[0031] Figure 10 It is a three-dimensional structure schematic diagram of the built-in reserved rope of the application;

[0032] Figure 11 It is a three-dimensional structure schematic diagram of the built-in electric push rod in the third embodiment of the application;

[0033] Figure 12 It is a schematic diagram of the interface structure of the built-in reserved rope end and the movable flexible sheet.

[0034] In the figure: 1, monitoring device body; 2, built-in reserved air pump; 3, reserved pipe; 4, interface movable sheet; 5, sealing interface piece; 6, reserved traction rope; 7, first spring; 8, built-in traction rope; 9, fitted interface piece; 10, sealing fitted piece; 11, second spring; 12, reserved through hole; 13, corrugated air bag assembly; 14, third spring; 15, built-in reserved rope; 16, movable flexible sheet; 17, built-in electric push rod; 18, reserved pull rope. DETAILED DESCRIPTION

[0035] The technical solutions in the embodiments of the application will be clearly and completely described below with reference to the drawings in the embodiments of the application. Obviously, the described embodiments are only part of the embodiments of the application, rather than all the embodiments of the application. Based on the embodiments in the application, all other embodiments obtained by a person of ordinary skill in the art without creative work fall within the protection scope of the application.

[0036] Embodiment one: please refer to Figures 1-12 The application provides the following technical scheme: a cruising type atmospheric environment monitoring device for ship lock construction. To solve the problem that the detection of the air quality of the whole environment is prone to error due to the influence of dust in the local environment during the suction process of the traditional through-type air quality detection treatment, the monitoring device body 1 is disclosed. The built-in reserved air pump 2 is installed in the monitoring device body 1. The upper end output end of the built-in reserved air pump 2 is connected to the reserved pipe 3, and the built-in reserved air pump 2 performs air sampling detection work through the reserved pipe 3. The lower end inner wall of the reserved pipe 3 is nested with the interface movable sheet 4. The middle end of the reserved pipe 3 is connected with the sealing interface piece 5. The outer surface of the reserved pipe 3 is connected with the corrugated air bag assembly 13. The outer side upper end of the corrugated air bag assembly 13 is nested with the inner wall of the monitoring device body 1. The inner side of the reserved pipe 3 is provided with an airflow guiding structure. The stored gas is discharged in the opposite direction through the airflow guiding structure, and the air state in the reserved pipe 3 is ensured.

[0037] The air flow guiding structure is provided with a reserved traction rope 6, two ends of the reserved traction rope 6 are respectively and oppositely connected with the left end outside of the sealing butt joint 5 and the upper end outside of the butt joint movable piece 4, and the middle section of the reserved traction rope 6 penetrates along the inside of the reserved pipe 3, the outside of the sealing butt joint 5 is fixedly connected with a first spring 7, and the first spring 7 is oppositely connected with the reserved pipe 3; the inner wall of the reserved pipe 3 is nested with a close butt joint 9, the outside of the close butt joint 9 is oppositely connected with a sealing close joint 10 through a torsion spring, so that the sealing close joint 10 and the close butt joint 9 keep a vertical butt joint state, the outside upper end of the close butt joint 9 is fixedly connected with a second spring 11, and the second spring 11 is oppositely connected with the inner wall of the reserved pipe 3, the outside lower end of the close butt joint 9 is oppositely connected with an embedded traction rope 8, the embedded traction rope 8 penetrates along the inner wall of the reserved pipe 3, and the end of the embedded traction rope 8 is oppositely connected with the upper end of the sealing butt joint 5; the inner wall of the reserved pipe 3 is provided with a reserved through hole 12, and the reserved through hole 12 and the sealing close joint 10 are opposite to each other in position, a third spring 14 is fixedly connected between the corrugated gas storage bag assembly 13 and the inner wall of the monitoring equipment body 1, a negative pressure is formed along the inside of the reserved pipe 3 during the working process of the embedded reserved air pump 2, the butt joint movable piece 4 at the corresponding position is downwardly formed with an adsorption force to make it move downward, the butt joint movable piece 4 drives the sealing butt joint 5 to form a transverse traction structure through the reserved traction rope 6, the sealing butt joint 5 forms a traction work with the close butt joint 9 through the embedded traction rope 8, and the close butt joint 9 drives the sealing close joint 10 at the upper end to move downward along the outside of the reserved through hole 12, the corrugated gas storage bag assembly 13 forms a gas storage work after being separated from the closed state of the sealing close joint 10.

[0038] In the process of air quality environmental monitoring of the area of ship lock construction, the built-in reserved air pump 2 in the equipment will perform air sampling detection work through the reserved pipe 3, adsorb the sampled air to the reserved filter membrane in the body of the monitoring equipment 1, measure the data change of the filter membrane, and perform air quality detection work in combination with the known particle density. In the process of continuous air pumping of the built-in reserved air pump 2, the inner side of the docking movable piece 4 will be adsorbed and moved downward, and then the sealed docking piece 5 will be driven by the outer side of the reserved traction rope 6 to form horizontal movement, so as to adaptively open and close the closed state of the reserved pipe 3 as a whole, thereby being adaptively opened during the operation of the equipment, avoiding the long-term mixing of impurities in the residual gas in the previous stage into the interior of the equipment. At the same time, when the built-in reserved air pump 2 in the body of the monitoring equipment 1 continuously pumps air, the sealing docking piece 5 in the stressed active state will be displaced downward by the built-in traction rope 8 and the abutting docking piece 9 synchronously during the movement, and then the abutting docking piece 9 will drive the upper end of the sealing abutting piece 10 to move downward along the outer side of the reserved through hole 12, so that the corrugated air bag assembly 13 is separated from the closed state with the sealing abutting piece 10. At the same time, the abutting docking piece 9 will cooperate with the built-in reserved rope 15 and the reserved pull rope 18 to drive the corrugated air bag assembly 13 to move horizontally, so that the negative pressure continuous suction of the built-in reserved air pump 2 and the horizontal air pumping movement of the corrugated air bag assembly 13 form the air pumping and storage work, and then after the reserved pipe 3 stops pumping and detecting, the reset corrugated air bag assembly 13 will release the internally stored gas outward along the sealing abutting piece 10 by the reset force, and the stressed sealing abutting piece 10 will be inclined and rotated outward, so as to guide the transmitted airflow upward, and the residual dust gas accumulated in the reserved pipe 3 after single quantitative air pumping is discharged outward through the secondary discharge airflow, avoiding the influence of the residual dust gas accumulated in the reserved pipe 3 on the residual accumulation in the interior of the equipment.

[0039] Example two: please refer to Figures 4-10 On the basis of example one, in order to solve the problem that the equipment is easy to accumulate local residual dust gas in the interior after single quantitative air pumping, long-term accumulation is easy to cause residual accumulation in the interior of the equipment, and the detection accuracy cannot be guaranteed, a guide cruise structure is further disclosed, and the specific structure is as follows:

[0040] The outer end of the reserved pipe 3 is provided with a guide cruise structure, and the gas on the outer side of the reserved pipe 3 is subjected to evacuation treatment through the guide cruise structure; the guide cruise structure is provided with an internal reserved rope 15, and the internal reserved rope 15 is butted to the outer side of the abutting butt joint 9, and the internal reserved rope 15 penetrates along the inner wall of the reserved pipe 3, and the outer side of the internal reserved rope 15 is butted to a reserved pull rope 18, and the reserved pull rope 18 penetrates along the inner side of the monitoring equipment body 1, and the end of the reserved pull rope 18 is butted to the outer side of the corrugated gas bag assembly 13, and the corrugated gas bag assembly 13 is driven to evacuate through the synchronous traction of the internal reserved rope 15 and the reserved pull rope 18, the upper end of the reserved pipe 3 is rotatably butted to a flexible movable sheet 16, and a torsion spring is butted between the lower shaft end of the flexible movable sheet 16 and the outer side of the reserved pipe 3, so that the flexible movable sheet 16 is kept in a vertical butt joint state along the outer side of the reserved pipe 3 (wherein the inner end of the torsion spring and the lower shaft end of the flexible movable sheet 16 are butted to each other, and the outer end of the torsion spring and the outer side of the reserved pipe 3 are butted to each other, forming an elastic reset type rotating support structure), and the lower shaft end of the flexible movable sheet 16 is butted to the end of the internal reserved rope 15, and the flexible movable sheet 16 is arranged at equal angles, and the flexible movable sheets 16 are butted to each other through an elastic material mesh, and in the process of the abutting butt joint 9 being forced to move downward, the flexible movable sheet 16 butted to the upper end of the abutting butt joint 9 through the internal reserved rope 15 will be angularly rotated and expanded along the outer side of the reserved pipe 3, and in the process of the abutting butt joint 9 being forced to move downward, the flexible movable sheet 16 butted to the upper end of the abutting butt joint 9 through the internal reserved rope 15 will be angularly rotated and expanded along the outer side of the reserved pipe 3, so as to balance the gas environment above the equipment subjected to continuous evacuation detection, and to automatically drive the local accumulated gas at the upper end of the equipment outward, and then to cruise the gas sampling treatment.

[0041] Embodiment three: please refer to Figures 1-11 On the basis of embodiments one and two, an internal electric push rod 17 is also disclosed, and the specific structure is as follows:

[0042] The lower end of the butt joint flexible sheet 4 can also butt joint the internal electric push rod 17, and the internal electric push rod 17 is installed on the inner side of the reserved pipe 3, and the internal electric push rod 17 and the internal reserved gas pump 2 are both powered by a preset power storage group inside the monitoring equipment body 1;

[0043] During the process of starting the preset power storage group inside the monitoring equipment body 1 to supply power, the built-in reserved air pump 2 and the built-in electric push rod 17 inside the monitoring equipment body 1 will work synchronously, wherein the built-in reserved air pump 2 starts to form the working state of air sampling, and the output end of the built-in electric push rod 17 is downwardly telescopic displacement, drives the downward movement of the docking movable piece 4, realizes the subsequent air flow guiding type air sampling work, and the residual dust gas accumulated in the inside of the reserved pipe 3 after single quantitative air sampling is discharged outward through the secondary discharge air flow, avoids the influence of the residual dust gas accumulated in the inside of the reserved pipe 3 on the residual accumulation in the inside of the equipment, balances the gas environment above the equipment for continuous air sampling, and automatically disperses the local accumulated gas at the upper end of the equipment outward to perform the cruise type gas sampling treatment.

[0044] In the description of the present application, it should be noted that, unless otherwise explicitly specified and limited, the terms "connected", "connected" should be understood broadly, for example, it can be fixedly connected, or it can be detachably connected, or integrally connected; it can be mechanically connected, or it can be electrically connected; it can be directly connected, or it can be indirectly connected through an intermediate medium. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0045] Although the present application has been described in detail with reference to the foregoing embodiments, those skilled in the art can modify the technical solutions recorded in the foregoing embodiments, or make equivalent replacement for part of the technical features, and any modification, equivalent replacement, improvement, etc. made within the spirit and principles of the present application shall be included in the protection scope of the present application.

Claims

1. A cruise-type atmospheric environment monitoring device for lock construction, comprising a monitoring device body (1), wherein a built-in reserved air pump (2) is installed inside the monitoring device body (1), and a reserved pipe fitting (3) is connected to the upper output end of the built-in reserved air pump (2), and the built-in reserved air pump (2) performs air sampling and detection through the reserved pipe fitting (3); characterized in that: The lower inner wall of the reserved pipe fitting (3) is fitted with a docking movable piece (4), and the middle end of the reserved pipe fitting (3) is connected with a sealing docking piece (5). The outer surface of the reserved pipe fitting (3) is connected with a corrugated air storage bag assembly (13), and the upper outer side of the corrugated air storage bag assembly (13) is nested and connected with the inner wall of the monitoring equipment body (1). The inner side of the reserved pipe fitting (3) is provided with an airflow guiding structure. The stored gas is discharged in reverse through the airflow guiding structure to ensure the air condition inside the reserved pipe fitting (3). The airflow guiding structure is provided with a reserved traction rope (6), and the two ends of the reserved traction rope (6) are respectively connected to the outer left end of the sealing dock (5) and the outer upper end of the docking movable piece (4), and the middle section of the reserved traction rope (6) passes through the inner side of the reserved pipe (3). The outer side of the sealing dock (5) is fixedly connected with a first spring (7), and the first spring (7) is connected to the reserved pipe (3). The inner wall of the reserved pipe fitting (3) is fitted with a fitting and connecting piece (9), and the outer side of the fitting and connecting piece (9) is connected to a sealing fitting piece (10) by a torsion spring, so that the sealing fitting piece (10) and the fitting and connecting piece (9) are kept in a vertical connection state. The upper outer side of the fitting and connecting piece (9) is fixedly connected with a second spring (11), and the second spring (11) is connected to the inner wall of the reserved pipe fitting (3). The lower outer end of the fitting docking part (9) is connected to the built-in traction rope (8), and the built-in traction rope (8) passes through the inner wall of the reserved pipe (3), and the end of the built-in traction rope (8) is connected to the upper end of the sealing docking part (5). The inner wall of the reserved pipe fitting (3) is provided with a reserved through hole (12), and the reserved through hole (12) and the sealing fitting (10) are positioned to correspond to each other. A third spring (14) is fixedly connected between the corrugated air sump assembly (13) and the inner wall of the monitoring device body (1). The outer end of the reserved pipe fitting (3) is provided with a guiding cruise structure, which is used to evacuate the gas outside the reserved pipe fitting (3) and then perform gas extraction. The guiding cruise structure is provided with a built-in reserved rope (15), and the built-in reserved rope (15) is connected to the outside of the fitting docking part (9), and the built-in reserved rope (15) passes through the inner wall of the reserved pipe (3), and the outside of the built-in reserved rope (15) is connected to a reserved pull rope (18), and the reserved pull rope (18) passes through the inside of the monitoring equipment body (1), and the end of the reserved pull rope (18) is connected to the outside of the corrugated air accumulator assembly (13). The corrugated air accumulator assembly (13) is pumped out by the synchronous traction of the built-in reserved rope (15) and the reserved pull rope (18). The upper end of the reserved pipe fitting (3) is rotatably connected to a movable flexible piece (16), and the lower shaft end of the movable flexible piece (16) is connected to the outer side of the reserved pipe fitting (3) by a torsion spring, so that the movable flexible piece (16) maintains a vertical connection along the outer side of the reserved pipe fitting (3), and the outer side of the lower shaft end of the movable flexible piece (16) is connected to the end of the built-in reserved rope (15) by wrapping around each other. At the same time, the movable flexible pieces (16) are set at equal angles, and the movable flexible pieces (16) are connected to each other by a mesh of elastic material.

2. The cruise-type atmospheric environment monitoring equipment for lock construction according to claim 1, characterized in that: During operation, the built-in reserved air pump (2) forms a negative pressure along the interior of the reserved pipe (3), which forms an adsorption force on the corresponding docking movable piece (4) to make it move downward, and the docking movable piece (4) drives the sealing docking piece (5) to form a transverse traction structure through the reserved traction rope (6).

3. The cruise-type atmospheric environment monitoring equipment for lock construction according to claim 2, characterized in that: The sealing docking part (5) forms a traction operation with the fitting docking part (9) through the built-in traction rope (8), and the fitting docking part (9) drives the upper sealing fitting part (10) to fit and move down along the outside of the reserved through hole (12). After the corrugated air storage bag assembly (13) is separated from the closed state of the sealing fitting part (10), it forms a gas storage operation.

4. The cruise-type atmospheric environment monitoring equipment for lock construction according to claim 1, characterized in that: During the downward movement of the fitting and docking part (9) under force, the movable flexible piece (16) connected to the upper end through the built-in reserved rope (15) will then rotate and unfold along the outside of the reserved tube (3).

5. The cruise-type atmospheric environment monitoring equipment for lock construction according to claim 4, characterized in that: The lower end of the docking movable piece (4) is connected to a built-in electric push rod (17), and the built-in electric push rod (17) is installed on the inside of the reserved pipe fitting (3). Both the built-in electric push rod (17) and the built-in reserved air pump (2) are powered by the preset power storage group inside the monitoring equipment body (1).

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