Array type multi-parameter monitoring equipment

Abstract

The invention relates to array type multi-parameter monitoring equipment. The problems of instability and the like of universal detection are effectively solved. According to the technical scheme, the device comprises pipe bodies, corrugated hoses are arranged on the upper sides of the pipe bodies, the pipe bodies are arranged in a vertical array mode, the adjacent pipe bodies are connected through the corrugated hoses, butt joint mechanisms are arranged on the two sides of the pipe bodies, and each butt joint mechanism comprises a supporting frame and a rotating frame; the supporting frame is integrally arranged on the upper surface of the pipe body, the rotating frame is integrally arranged on the lower surface of the pipe body, and an extrusion exhaust mechanism is arranged on the upper surface of the pipe body and comprises an extrusion bag, an inner bag and a folding bag. According to the scheme, the extrusion bag can be supported in the middle of the rotating frame, and when the rotating frame deviates by an angle, the extrusion bag can extrude air to reach the inner bag and the folding bag, so that the inner bag expands towards the outer side, and the effect that the extending piece extends out is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of building monitoring, and in particular to an array-type multi-parameter monitoring device. Background Art

[0002] With the continuous advancement of MEMS technology, this technology has been increasingly used in engineering measurement. Its monitoring principle is that N continuous two-axis or three-axis MEMS accelerometers obtain the continuous deformation curve of the landslide body, and can intuitively monitor the deformation, vibration and acceleration of rocks and soil. The array monitoring can prepare 0.5m long array monitoring nodes, which are connected in the form of flexible joints to achieve full cross-section and long-distance linear monitoring of the tunnel. In order to achieve multi-point monitoring, the effect of universal detection is achieved through hoses at two adjacent connections. Due to the instability of universal detection, it is easy to realize the self-rotation of the universal structure during the monitoring process, causing internal damage, and lack of a certain positioning mechanism to fix the universal structure during the offset process.

[0003] In view of the above, we provide an array-type multi-parameter monitoring device to solve the above problems. Summary of the invention

[0004] In view of the above situation, the present invention provides an array-type multi-parameter monitoring device, in which an extrusion bag can enter a rotating frame and be supported in the middle. When the rotating frame is angularly offset, the extrusion bag can squeeze out gas to reach an internal bag and a folding bag, so that the internal bag expands outward, thereby achieving the effect of extending the extending piece, and achieving the effect of the extending piece being stuck in the insertion slot.

[0005] An array-type multi-parameter monitoring device comprises a tube body, a corrugated hose is arranged on the upper side of the tube body, the tube bodies are arranged in a vertical array, adjacent tube bodies are connected by the corrugated hose, docking mechanisms are arranged on both sides of the tube body, the docking mechanisms comprise a support frame and a rotating frame, the support frame is integrally arranged on the upper surface of the tube body, the rotating frame is integrally arranged on the lower surface of the tube body, an extrusion exhaust mechanism is arranged on the upper surface of the tube body, the extrusion exhaust mechanism comprises an extrusion bag, an internal bag and a folding bag, an extrusion frame is integrally arranged on the upper surface of the tube body, an extrusion bag is integrally arranged at the inner arc of the extrusion frame, a rotating frame is arranged at the center of the extrusion bag, a folding bag is arranged on the lower side of the extrusion bag, and a connecting pipe is arranged on the upper side of the extrusion bag.

[0006] The above technical solution has the following beneficial effects:

[0007] The extrusion bag designed in this scheme can enter the rotating frame and support it in the middle. When the rotating frame is offset at an angle, the extrusion bag can squeeze out gas to reach the internal bag and the folding bag, so that the internal bag expands outward, achieving the effect of extending the protruding piece, and the effect of the protruding piece being stuck in the insertion slot, achieving self-rotation fixation. The folding bag self-adjusts the lifting height according to the amount of extrusion, and achieves the effect of fixing the universal block. When the universal block is universal, it means that the monitored building is deforming, and the folding bag will be reset, so that the folding bag will re-fix the bottom of the rotating frame after the change, so that the bottom of the rotating frame is stable, and when the rotating frame is in the middle, the corresponding block can be used to prevent the rotating frame from rotating. By driving the teeth to rotate, the offset position of the rotating frame can be found, thereby achieving the effect of supporting the rotating frame. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0009] Figure 2 It is a schematic diagram of the tube array of the present invention;

[0010] Figure 3 This is a schematic diagram of a single-side cutting of the tube body of the present invention;

[0011] Figure 4 It is a schematic diagram of a partial cutting of the tube body of the present invention;

[0012] Figure 5 It is a partial cross-sectional schematic diagram of the tube body of the present invention;

[0013] Figure 6 This is a schematic diagram of cutting the bottom of the support rod of the present invention;

[0014] Figure 7 This is a schematic diagram of cutting the top of the inner capsule of the present invention;

[0015] Figure 8 For the present invention Figure 4 Partial schematic diagram.

[0016] In the figure: 1. tube body; 2. corrugated hose; 3. support frame; 4. rotating frame; 5. extrusion bag; 6. internal bag; 7. folding bag; 8. extrusion frame; 9. connecting pipe; 10. extension piece; 11. insertion slot; 12. universal block; 13. tight block; 14. detection spring; 15. lifting plate; 16. horizontal block; 17. vertical slot; 18. push rod; 19. release block; 20. corresponding slot; 21. corresponding block; 22. blocking block; 23. blocking spring; 24. positioning frame; 25. support rod; 26. support spring; 27. reciprocating block; 28. reciprocating spring; 29. ​​torsion block; 30. driving tooth. DETAILED DESCRIPTION

[0017] The above and other technical contents, features and effects of the present invention are described in detail below with reference to the attached Figures 1 to 8 It can be clearly presented in the detailed description of the embodiments that the structural contents mentioned in the following embodiments are all referenced to the drawings in the specification.

[0018] This embodiment provides an array-type multi-parameter monitoring device, as shown in the attached Figure 1-8 As shown in the instruction manual, Figure 1 This is a separate display diagram of the pipe body 1. Two curves appear in the figure. The dotted line on the lower side of the pipe body 1 represents the position bordering with another pipe body 1. That is, when the pipe bodies 1 are discharged in parallel, the lower end of the pipe body 1 needs to be connected to the upper end of another pipe body 1, and then the two are connected through the corrugated hose 2. The part cut off by the dotted line below the pipe body 1 will reach the top of the pipe body 1. This is the meaning of the two dotted lines in the figure. Figure 2 It represents the way that the tube body 1 is arranged in parallel, and the angle can be adjusted. Figure 3 Attached to the instruction manual Figure 1 In the cutting diagram, the structures shown in the figure are all concentrated above the tube body 1. Figure 1 A wavy line is displayed in the middle. Since the structures are all on the top, only the structures on the top are displayed. Figure 4 This is a three-dimensional structure cutting diagram above the wavy line, attached to the instruction manual Figure 5 This is a cross-sectional view above the wavy line. Figure 6 Switch the up and down directions and cut the bottom of the support rod 25. Figure 7 The top of the inner capsule 6 is cut, and the instructions are attached Figure 8 The reference is from the instruction manual Figure 4 , Instructions attached Figure 4 A wavy line appears in the middle. In order to show the details, the instruction manual is introduced. Figure 8The pipe body 1 designed in this scheme is composed of two parts, upper and lower. In order to facilitate the installation of the detection components of this scheme, a hollow and threaded disassembly design is adopted. The purpose of this scheme is to monitor the transverse section of the tunnel. A MEMS inclinometer is installed inside the pipe body 1. The single-axis MEMS capacitive inclinometer is composed of a MEMS sensitive chip (a silicon component made by ceramic packaged bulk silicon micromechanics and silicon-silicon bonding processing technology), a dedicated mixed signal ASIC and a multi-chip module (MCM). Among them, the core component MEMS sensitive chip includes three parts: an upper silicon wafer, an intermediate silicon wafer and a lower silicon wafer. The intermediate silicon wafer is a highly symmetrical beam-mass block structure. The upper silicon wafer and the lower silicon wafer are fixed ends. The mass block will move up and down or vibrate mechanically under external loads such as gravity and excitation force. From the perspective of microelectronics, the upper silicon wafer and the lower silicon wafer are bonded to the intermediate silicon wafer through silicon-silicon bonding technology to form a differential capacitive structure. The upper silicon wafer and the lower silicon wafer are fixed electrodes, and the intermediate silicon wafer is a movable electrode. Therefore, on the one hand, the mass block generates displacement or mechanical vibration under the action of external load, and on the other hand, this displacement or mechanical vibration is converted into capacitance, which is collected and output by ASIC and MCM electronic components, thereby realizing the measurement of the physical quantity of inclination by the single-axis MEMS inclinometer. The MEMS inclinometer itself is a micro-electromechanical inertial sensor that measures the inclination of the object being measured, but it also has the ability to sense the gravitational inclination. Under the action of the earth's gravity, the mass block in the middle layer silicon wafer of the MEMS inclinometer will be displaced. By measuring the displacement of the mass block by capacitance, the gravitational inclination experienced by the mass block can be measured. When the middle layer silicon wafer is consistent with the direction of the earth's gravity, the measured gravity inclination value is the largest (1g), and when the middle layer silicon wafer is perpendicular to the direction of the earth's gravity, the measured gravity inclination value is the smallest (0g). Therefore, the gravity inclination value measured by the MEMS inclinometer can be used to measure the angle between the MEMS inclinometer and the earth's gravity direction, as shown in the attached manual. Figure 2As shown in the figure, each measuring unit is equipped with a three-axis MEMS inclinometer (which can directly measure the vibration acceleration value), which contains the sensing axes in the three directions of XYZ and has the ability to sense the gravity inclination in the direction of each sensing axis. In the initial state, the measuring unit is placed vertically, and the Z axis is parallel to the gravity direction. When the measuring unit is tilted and deformed, the three-axis sensing axes of the MEMS inclinometer also rotate accordingly. The tilt displacement of the measuring unit can be calculated based on the output gravity inclination response. The entire equipment is placed vertically, and the Z axis is parallel to the gravity direction. When tilt deformation occurs, the three-way sensing axis of each unit MEMS inclinometer tilts synchronously with the stratum. The bottom unit of the equipment is installed in the bedrock layer, and the bottom of the hole is determined as the reference point. The horizontal two-way displacement of the entire deep displacement monitoring hole can be cumulatively calculated based on the tilt angle and length of each measuring unit. The above is the monitoring principle of this scheme, which is not the design focus of this scheme. The material of the corrugated hose 2 can be multiple groups, such as stainless steel hose, metal hose and rubber hose. Among them, stainless steel hose and metal hose have good corrosion resistance, high temperature resistance, wear resistance and waterproofness, but their pressure resistance and recoverability are poor. Since the hose only plays a connecting role, it does not have a large hardness. The core motherboard needs to be installed inside the tube body. The core motherboard includes power management, data storage, communication interface, sensor interface, etc.The core motherboard uses a single-chip microcomputer (MCU) as the core controller. The sensor communicates with the single-chip microcomputer through the SPI interface. The single-chip microcomputer program controls each functional circuit to work in an orderly manner. The single-chip microcomputer is only responsible for data collection, storage and communication. In order to ensure that the terminal monitoring unit of the array-type vibration-displacement measurement equipment has sufficient voltage, the total power consumption of the core motherboard must be strictly controlled. The installation method of the pipe body 1 can be buried and punched, and can be used for tunnel cross-section monitoring. In order to enable the pipe body 1 to rotate flexibly, a support frame 3 and a rotating frame 4 are designed. The support frame 3 is integrally arranged above the pipe body 1, and the rotating frame 4 is integrally arranged below the pipe body 1, so that the upper and lower groups of pipe bodies 1 can be connected. The middle part of the rotating frame 4 is a sphere, which enables the rotating frame 4 to perform universal rotation. The middle part of the support frame 3 is correspondingly provided with a groove for rotating the rotating frame 4. The middle part of the support frame 3 The groove is not necessarily spherical, it only needs to ensure that the rotating frame 4 can rotate in all directions, so the shape can be designed into multiple groups. The core structure of this solution is the squeezing bag 5, which is a squeezing bag. When there is no squeezing, it can be reset. The squeezing reset can be achieved through memory material, and the lower side of the squeezing bag 5 is connected to the folding bag 7, and the upper side is connected to the internal bag 6. The folding bag 7 has a certain elasticity, while the internal bag 6 does not. The internal bag 6 is an ordinary bag and will not expand. It has a limited capacity and maintains its original state after reaching the maximum capacity. That is, when the rotating frame 4 is offset, the gas inside the squeezing bag 5 will be squeezed into the internal bag 6 and the folding bag 7. When the internal bag 6 is full, it will continue to enter the folding bag 7 to make the folding bag 7 fold and unfold upward. The effect of inflating the internal bag 6 is first introduced. The internal bag 6 is attached to the instruction manual. Figure 4 , the internal bag 6 is not inflated at this time, because the rotating frame 4 in the figure has not been offset, and the extrusion bag 5 will be squeezed only after the offset. After the internal bag 6 is inflated, a plurality of protruding pieces 10 on the surface will be extended, and the protruding pieces 10 are extended to a position that can adapt to the insertion slot 11, so that the protruding pieces 10 and the insertion slot 11 are stuck with each other (the sticking here is not absolute, the protruding pieces 10 may extend into the insertion slot 11 in multiple groups, or may not enter the insertion slot 11 at all, and when they do not enter the insertion slot 11, they only need to be shaken slightly to re-enter the insertion slot 11 The effect of the insertion groove 11 makes it difficult for the rotating frame 4 to rotate straight, and at this time the internal capsule 6 acts as a spring to squeeze out all the protruding pieces 10. Even if it encounters the position of the protruding piece 10 and is blocked, it will have a certain fault tolerance rate) to prevent the rotating frame 4 from rotating along its own center line. In this way, the universal structure (the depth and length of the insertion groove 11 and the protruding piece 10 can be designed to be large, which is convenient for many angles to achieve card connection) and the problem of self-rotation during the universal process is overcome. It is assumed that the rotating frame 4 of this solution does not deviate by itself, that is, as shown in the attached manual Figure 4As shown, these structures all need to be implemented when the rotating frame 4 performs offset measurement. Figure 4 The middle extrusion bag 5 is just in the center. At this time, it is necessary to prevent the rotating frame 4 from rotating. The corresponding block 21 is relied on. A corresponding groove 20 is opened on the lower surface of the universal block 12. The shape of the corresponding groove 20 is a pyramid shape. The upper shape of the corresponding block 21 just corresponds to the corresponding groove 20, which makes it difficult for the universal block 12 to rotate (because there is a plane on the upper side of the universal block 12, this plane has a large friction force, and the design can be uneven, and a rubber is set at the bottom of the tight block 13, and the upper side of the tight spring can be inserted and slid inside the rotating frame 4. This shape can be set to an ellipse. The ellipse prevents the tight block 13 from rotating, so the friction force is very large, and the universal block 12 is not easy to rotate relative to each other), and it does not affect the deflection of the rotating frame 4 (the corresponding block 21 is slidably set on the lifting plate 15, and the bottom has a spring for resetting. The corresponding block 21 has a function. When the rotating frame 4 rotates and returns to the vertical position, the corresponding block 21 can be reinserted into the bottom of the rotating frame 4 to 4 offset has no effect, only the rotation of the rotating frame 4 is limited), because the deflection of the rotating frame 4 is a universal offset, and the rotating frame 4 rotates straight along the center line will strain the corrugated hose 2. In terms of connection, the internal lazy and the corresponding block 21 are both to prevent the rotating frame 4 from rotating. When the term "offset" is used in this scheme, it represents a universal offset, that is, when monitoring the offset inclination angle, the first function of the extrusion capsule 5 is introduced above, which can make the internal capsule 6 stuck in the insertion groove 11, and the second function is to support the support frame 3 in the middle. When the support frame 3 deviates, the extrusion capsule 5 also acts as a spring. When it is squeezed to a certain extent, the more it is squeezed, the more reaction force there is, and the rotating frame 4 can be positioned when squeezed, because the outer surface of the extrusion capsule 5 is provided with an uneven decorative surface, and the corresponding adhesive sticker only needs to be provided on the rotating frame 4 to position the extrusion capsule 5, and the extrusion capsule 5 will form a depression after being squeezed, which is convenient for fixing the rotating frame 4. The extrusion capsule 5 can also make the folding capsule 7 unfold and move upward, and the shape of the folding capsule 7 can be folded, as shown in the attached manual Figure 4 As shown, at this time, after the extrusion capsule 5 is squeezed and filled with the internal capsule 6, the folding capsule 7 will be filled, as shown in the attached manual. Figure 5As shown, the arrow is the direction of gas flow, which has two directions: one is to reach the folding bag 7 below, and the other is to reach the internal bag 6 inside. The internal bag 6 needs to be connected with the connecting pipe 9. The folding bag 7 extends upward to enable multiple densely packed blocking blocks 22 to move upward. The figure is not densely packed, because once it is displayed densely packed, the entire figure cannot be viewed in detail, and the figure is also unclear. The function of the blocking block 22 is to deal with the situation where the monitoring unit is offset and reset (because the blocking block 22 moves upward and surrounds the universal block 12, it can be understood that the blocking block 22 is fixed in two directions, as shown in the attached manual Figure 4 As shown, at this time, the rotating frame 4 rotates along the left side, so that a squeezed blocking block 22 will appear on the left side of the universal block 12, and a fully extended blocking block 22 will appear on the right side of the universal block 12, because there is a blocking spring 23 under the blocking block 22, so that when the rotating frame 4 continues to deviate to the left, the universal block 12 will rotate to adapt to the blocking block 22 on the right side, because the blocking block 22 on the right side completely blocks one side of the universal block 12, and the universal block 12 can only rotate to cooperate with the deviation of the rotating frame 4, so that the universal block 12 will cause the upper detection spring 14 to be compressed. The detection spring 14 needs to be installed with a pressure sensor. Once the pressure sensor has pressure, it means that the monitored object is being deviated at this time. The detection spring 14 detects the pressure and controls the push rod 18 to extend downward). The rotating frame 4 of this scheme can also be reset;

[0019] The reset of this scheme relies on the detection spring 14. When the detection spring 14 is under pressure, it will control the two groups of mechanisms to operate. The first group is the push rod 18 and the second group is the driving gear 30. The push rod 18 is an electric push rod 18 in the prior art. The push rod 18 extends downward to contact the cross block 16 first. The cross block 16 is slidably arranged on the lifting plate 15. When the lifting plate 15 moves upward under the drive of the folding bag 7, it can automatically get stuck on the vertical slot 17 (because the cross block 16 and the vertical slot 17 form a one-way structure that can move upward but not downward, and has a spring to make the cross block 16 contact the vertical slot 17. The greater the deviation of the rotating frame 4, the higher the lifting height of the lifting plate 15. Because the deviation angle of the rotating frame 4 is large, the gas capacity squeezed is also increased, resulting in The lifting plate 15 is also deep and high, and should deal with the situation that the bottom of the rotating frame 4 is far away from the lifting plate 15), which makes the push rod 18 extend downward to control the release block 19 to be inserted into one side of the cross block 16, so that the cross block 16 is away from the vertical slot 17 (because there is an inclined surface on one side of the cross block 16, which just corresponds to the shape of the release block 19, the release block 19 moves downward to first make the cross block 16 disengage from the vertical slot 17, and continues to move downward to make the lifting plate 15 move downward to achieve the effect of resetting), so as to achieve the effect of controlling the lifting plate 15 to reset downward, so that the bottom of the rotating frame 4 is not fixed, and the rotating frame 4 can be reset. If the rotating frame 4 does not reset and continues to deviate, the rotating rod needs more force at the position where the squeezing capsule 5 is squeezed, so it is not Whether the pipe rotating disk is offset, it will be re-fixed. The previous paragraph also introduced that the detection spring 14 can also control the driving tooth 30. The driving tooth 30 is rotated and arranged on the lower surface of the positioning frame 24. The driving tooth 30 needs to be designed with a motor, that is, the detection spring 14 drives the motor to operate, and the motor controls the driving tooth 30 to rotate. Corresponding tooth grooves are arranged inside the extrusion frame 8, so that the positioning frame 24 can rotate inside the extrusion frame 8. The detection spring 14 controls the positioning frame 24 to rotate, and the reciprocating spring 28 stops the positioning frame 24 from running. There is also a pressure sensor on the reciprocating spring 28. Once there is pressure on the surface, the positioning frame 24 is controlled to stop rotating. If you want to squeeze the reciprocating spring 28, it only occurs in one situation, that is The support rod 25 approaches the torsion block 29 first, and then drives the torsion block 29 to squeeze the reciprocating spring 28. There is only this possibility, and the rest are impossible, because this represents that the support rod 25 has reached the position of the rotating frame 4. The shape of the support rod 25 is designed with inclined surfaces on both sides. When it reaches the offset position of the rotating frame 4, it will squeeze the support rod 25, that is, approaching the torsion block 29 first as described above, and when it just reaches the middle of the support rod 25, it will reset under the action of the support spring 26, that is, drive the torsion block 29 to squeeze the reciprocating spring 28, because a one-way groove is opened in the middle of the support rod 25, the one-way groove can clamp the torsion block 29, and the torsion block 29 is rotatably arranged on one side of the reciprocating block 27 (one side of the torsion block 29 has a torsion spring).In this way, when the support rod 25 is reset, it can drive the reciprocating block 27 to move and squeeze the squeezing spring, indicating that the position of the rotating frame 4 has been found, and the rotating frame 4 can be supported. In order to make the torsion block 29 able to be used multiple times, a rotatable setting is set for the torsion block 29, which can be separated from the support rod 25, and the torsion block 29 is a retractable block that can be compressed and reset. There is a small spring inside that can clamp the support rod 25. A corrugated hose 2 is provided on the upper side of the tube body 1. The tube bodies 1 are arranged in a vertical array. Adjacent tube bodies 1 are connected by the corrugated hose 2. A docking mechanism is provided on both sides of the tube body 1. The docking mechanism includes a support frame 3 and a rotating frame 4. The support frame 3 is integrally arranged on the upper surface of the tube body 1. , the rotating frame 4 is integrally arranged on the lower surface of the tube body 1, and an extrusion exhaust mechanism is arranged on the upper surface of the tube body 1, and the extrusion exhaust mechanism includes an extrusion bag 5, an internal bag 6 and a folding bag 7. An extrusion frame 8 is integrally arranged on the upper surface of the tube body 1, and an extrusion bag 5 is integrally arranged at the inner arc of the extrusion frame 8. The rotating frame 4 is arranged at the center of the extrusion bag 5. The lower side of the extrusion bag 5 is connected with the folding bag 7, and the upper side of the extrusion bag 5 is connected with a connecting pipe 9. One end of the connecting pipe 9 is overlapped with the rotating frame 4, and the internal bag 6 is arranged inside the rotating frame 4. The top of the internal bag 6 is connected with the connecting pipe 9. A protruding piece 10 is integrally arranged on the outer surface of the internal bag 6. An insertion groove 11 is opened on the lower surface of the extrusion frame 8. A detection machine is arranged at the bottom of the rotating frame 4. The detection mechanism includes a universal block 12, a close block 13 and a detection spring 14. The universal block 12 is rotatably arranged on the lower surface of the rotating frame 4. The close block 13 is arranged on the upper surface of the universal block 12. The close block 13 is slidably arranged on the bottom of the rotating frame 4. A detection spring 14 is arranged between the close block 13 and the rotating frame 4. The folding capsule 7 is arranged in the middle of the tube body 1. The upper surface of the folding capsule 7 is integrally provided with a lifting plate 15. Both sides of the lifting plate 15 are slidably provided with horizontal blocks 16. A vertical groove 17 is opened inside the middle of the tube body 1. One side of the horizontal block 16 is overlapped with the vertical groove 17. A push rod 18 is arranged inside the tube body 1. A release block 19 is arranged at the protruding end of the push rod 18. A corresponding groove 20 is arranged on the lower surface of the universal block 12. The upper surface of the disk 15 is provided with a corresponding block 21 for sliding, and the surface of the corresponding block 21 is plugged with a corresponding groove 20. The upper surface of the lifting disk 15 is provided with a blocking block 22 for sliding, and the number of the blocking blocks 22 is several. The lower surface of the blocking block 22 is provided with a blocking spring 23. The internal rotation of the extrusion frame 8 is provided with a positioning frame 24, and the surface of the positioning frame 24 is provided with a support rod 25 for sliding, and a support spring 26 is provided between the support rod 25 and the positioning frame 24. A reciprocating block 27 is provided on one side of the positioning frame 24 for sliding, and a reciprocating spring 28 is provided on one side of the reciprocating block 27. A torsion block 29 is provided on the lower surface of the reciprocating block 27 for rotation. A driving tooth 30 is provided on one side of the positioning frame 24 for rotation, and the surface of the driving tooth 30 is meshed with the extrusion frame 8.

[0020] The above description is only for illustrating the present invention. It should be understood that the present invention is not limited to the above embodiments, and various variations that conform to the concept of the present invention are within the protection scope of the present invention.

Claims

1. An array-type multi-parameter monitoring device, comprising a tube body (1), characterized in that: A corrugated hose (2) is arranged on the upper side of the tube body (1). The tube bodies (1) are arranged in a vertical array. Adjacent tube bodies (1) are connected via the corrugated hose (2). A docking mechanism is arranged on both sides of the tube body (1). The docking mechanism comprises a support frame (3) and a rotating frame (4). The support frame (3) is integrally arranged on the upper surface of the tube body (1). The rotating frame (4) is integrally arranged on the lower surface of the tube body (1). An extrusion exhaust mechanism is arranged on the upper surface of the tube body (1). The extrusion exhaust mechanism comprises an extrusion bag (5), an internal bag (6) and a folding bag (7). An extrusion frame (8) is integrally arranged on the upper surface of the tube body (1). An extrusion bag (5) is integrally arranged at the inner arc of the extrusion frame (8). A rotating frame (4) is arranged at the center of the extrusion bag (5). The lower side of the extrusion bag (5) is connected to the folding bag (7). The upper side of the extrusion bag (5) is connected to the connecting pipe (9).

2. The array-type multi-parameter monitoring device according to claim 1, characterized in that: One end of the connecting tube (9) is overlapped with a rotating frame (4), an internal bag (6) is arranged inside the rotating frame (4), the top of the internal bag (6) is connected to the connecting tube (9), a protruding piece (10) is integrally arranged on the outer surface of the internal bag (6), and an insertion groove (11) is opened on the lower surface of the extrusion frame (8).

3. The array-type multi-parameter monitoring device according to claim 1, characterized in that: A detection mechanism is arranged at the bottom of the rotating frame (4), and the detection mechanism comprises a universal block (12), a close block (13) and a detection spring (14); the universal block (12) is rotatably arranged on the lower surface of the rotating frame (4); the close block (13) is arranged on the upper surface of the universal block (12); the close block (13) is slidably arranged on the bottom of the rotating frame (4); and a detection spring (14) is arranged between the close block (13) and the rotating frame (4).

4. The array-type multi-parameter monitoring device according to claim 3, characterized in that: The folding bag (7) is arranged in the middle of the tube body (1), and a lifting plate (15) is integrally arranged on the upper surface of the folding bag (7). Both sides of the lifting plate (15) are slidably provided with transverse blocks (16). A vertical groove (17) is opened inside the middle of the tube body (1), and one side of the transverse block (16) is overlapped with the vertical groove (17). The lower surface of the universal block (12) is provided with a corresponding groove (20).

5. The array-type multi-parameter monitoring device according to claim 1, characterized in that: A push rod (18) is arranged inside the tube body (1), and a release block (19) is arranged at the protruding end of the push rod (18).

6. The array-type multi-parameter monitoring device according to claim 4, characterized in that: A corresponding block (21) is slidably provided on the upper surface of the lifting plate (15), and a corresponding groove (20) is inserted into the surface of the corresponding block (21).

7. The array-type multi-parameter monitoring device according to claim 4, characterized in that: A blocking block (22) is slidably provided on the upper surface of the lifting plate (15), the number of the blocking blocks (22) is several, and a blocking spring (23) is provided on the lower surface of the blocking block (22).

8. The array-type multi-parameter monitoring device according to claim 1, characterized in that: A positioning frame (24) is rotatably arranged inside the extrusion frame (8), a support rod (25) is slidably arranged on the surface of the positioning frame (24), and a support spring (26) is arranged between the support rod (25) and the positioning frame (24).

9. The array-type multi-parameter monitoring device according to claim 8, characterized in that: A reciprocating block (27) is slidably disposed on one side of the positioning frame (24), a reciprocating spring (28) is disposed on one side of the reciprocating block (27), and a torsion block (29) is rotatably disposed on the lower surface of the reciprocating block (27).

10. The array-type multi-parameter monitoring device according to claim 8, characterized in that: A driving tooth (30) is rotatably provided on one side of the positioning frame (24), and a pressing frame (8) is meshed on the surface of the driving tooth (30).

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