Pipeline performance detection equipment with multi-environment simulation function

Abstract

The invention relates to the technical field of pipeline performance detection equipment, and discloses pipeline performance detection equipment with a multi-environment simulation function, the pipeline performance detection equipment with the multi-environment simulation function comprises a bed body, the bed body is provided with a top plate, the top plate is provided with a module track, the module track is slidably provided with a sliding seat, and the sliding seat is provided with a sliding groove; a first hydraulic lifting rod is installed on the sliding base, a pressing plate is installed on the first hydraulic lifting rod, the chuck is controlled to rotate through the driving piece, angle adjustment of the radial position of the pipeline is achieved, meanwhile, by starting the module rail, the sliding base can drive the pressing plate to move synchronously, and therefore the pipeline can be clamped. Adjustment can be conveniently carried out according to the transverse position of the pipeline, then the first hydraulic lifting rod is started to drive the pressing plate to press the pipeline, and comprehensive static pressure resistance detection can be conveniently carried out on the pipeline.

Description

Technical Field

[0001] The present invention relates to the technical field of pipeline performance detection equipment, and specifically relates to a pipeline performance detection equipment with a multi-environment simulation function. Background Art

[0002] A pipeline is a device connected by pipes, pipe connectors, valves, etc. for transporting gases, liquids, or fluids with solid particles, and is mainly used in water supply, drainage, heating, gas supply, long-distance transportation of petroleum and natural gas, agricultural irrigation, hydraulic engineering, and various industrial installations. There are various types of pipelines such as steel pipes, PVC pipes, TPU hoses, and concrete pipes. Steel pipes are generally used for liquid and gas transportation due to their high strength and corrosion resistance. During the gas-liquid transportation process, steel pipes will inevitably be subjected to external pressure. For example, steel pipes buried underground will be subjected to soil pressure. In order to ensure that the service performance of steel pipes is not affected, steel pipes need to have a certain compressive capacity, that is, the ability to maintain the deformation within a certain range under a specified load. This requires the compressive performance of steel pipes to be detected before leaving the factory to ensure the service life after pipeline laying.

[0003] The patent with the patent number CN213068464U discloses a sewage pipeline pressure resistance detection equipment, including a base, a support body, a clamping seat, a pressing device, and a driving mechanism, which can detect the pressure resistance effect of pipelines under different pressure areas.

[0004] However, the existing pipeline performance detection equipment does not have a multi-environment simulation function. Due to the different diameters of pipelines with different specifications, the loads they can withstand and the allowable deformation under a specified load are also different, which is not convenient for multi-specification detection of pipelines, making the detection equipment can only detect pipelines of the same specification, and the applicability is poor. Summary of the Invention

[0005] The purpose of the present invention is to provide a pipeline performance detection equipment with a multi-environment simulation function to solve the problems raised in the above background art.

[0006] To solve the above technical problems, the present invention provides the following technical solution: A pipeline performance detection device with multi-environment simulation function. The pipeline performance detection device with multi-environment simulation function includes a bed body. A driving member is installed on the bed body. A chuck is installed on the driving member. A pipeline is clamped on the chuck. A top plate is installed on the bed body. A module track is installed on the top plate. A sliding seat is slidably installed on the module track. A first hydraulic lifting rod is installed on the sliding seat. A pressing plate is installed on the first hydraulic lifting rod. A pressure sensor is arranged on the pressing plate. When it is necessary to detect the compressive performance of the pipeline, the staff can clamp the pipeline through the chuck and can control the chuck to rotate through the driving member, so as to realize the angular adjustment of the radial position of the pipeline. At the same time, by starting the module track, the sliding seat can move horizontally along the module track, so that the sliding seat can drive the pressing plate to move synchronously, which is convenient for adjustment according to the horizontal position on the pipeline. Then start the first hydraulic lifting rod to drive the pressing plate to press the pipeline, which is convenient for a comprehensive static compressive test of the pipeline, which is beneficial for the pressure sensor to record the pressure of the pipeline. And when the driving member drives the chuck to rotate continuously, the dynamic compressive test of the pipeline can be carried out, realizing the compressive performance test of the pipeline under multi-environment simulation.

[0007] Further, a linkage rod is installed on the sliding seat. A linkage plate is installed on the linkage rod. A second hydraulic lifting rod is installed on the linkage plate. A supporting plate is installed on the second hydraulic lifting rod. The supporting plate and the pressing plate are symmetrically arranged. By starting the second hydraulic lifting rod, the second hydraulic lifting rod drives the supporting plate to vertically support the pipeline during the compressive test, which can avoid the problem of the pipeline skewing during the pressing process.

[0008] Further, a plurality of grooves are formed in the supporting plate. A plurality of balls are rollingly fitted in the grooves. The rolling action of the balls can reduce the moving friction between the supporting plate and the pipeline, which is beneficial for the supporting plate not to cause wear to the pipeline during the movement of the sliding seat.

[0009] Further, a rotation primary utilization component and a rotation secondary utilization component are arranged on the bed body, and the rotation of the pipeline is used to provide the operating driving force for the rotation primary utilization component and the rotation secondary utilization component.

[0010] Further, the rotation primary utilization component includes a vertical plate, a through hole, a rotating disc, an electric telescopic rod and a supporting clamping plate; A vertical plate is installed on the bed body. A through hole is provided on the vertical plate. A rotating disk is rotatably installed in the through hole. One end of the rotating disk close to the pipeline is equipped with an electric telescopic rod. A supporting clamping plate is installed on the electric telescopic rod. When dynamically detecting the pipeline, by operating the electric telescopic rod, the electric telescopic rod controls the supporting clamping plate to clamp the pipeline, enabling the supporting clamping plate and the chuck to form a lateral support for the pipeline. At the same time, during the rotation of the pipeline, the pipeline can drive the rotating disk to rotate synchronously in the through hole through the supporting clamping plate and the electric telescopic rod.

[0011] Furthermore, the first-stage rotation utilization assembly further includes a transmission shaft, a cylinder, a piston plate, a transmission rod, a sliding hole, a connecting plate, a fixed rod, and a traction plate. One end of the rotating disk away from the pipeline is eccentrically installed with a transmission shaft. A cylinder is installed on one side of the bed body. A piston plate is slidably installed in the cylinder. A transmission rod is installed on the piston plate. A sliding hole is provided at the top of the cylinder. A fixed rod is fixedly installed on the cylinder. A connecting plate is slidably installed on the fixed rod. The transmission rod passes through the sliding hole and is connected to the top of the connecting plate. The transmission rod and the sliding hole are in sliding fit. The connecting plate and the transmission shaft are connected through a traction plate. When the rotating disk rotates, the rotating disk can drive the transmission shaft to move in a circular trajectory during the rotation process, causing a height difference to be formed during the movement of the transmission shaft. The height difference of the transmission shaft can drive the connecting plate to move longitudinally back and forth on the fixed rod through the traction plate. When the connecting plate moves upward under the drive of the traction plate, the connecting plate can drive the piston plate to move synchronously in the cylinder through the transmission rod, thereby enabling the gas in the cylinder to be squeezed out. When the connecting plate moves downward under the drive of the traction plate, the connecting plate can drive the piston plate to move synchronously downward in the cylinder, and then a suction force can be formed in the cylinder to allow the cylinder to inhale external air flow.

[0012] Furthermore, one end of the traction plate is hinged to the top of the connecting plate, and a connecting hole is provided at the other end of the traction plate. The transmission shaft passes through the connecting hole and is in rotational fit.

[0013] Furthermore, the second-stage rotation utilization assembly includes a one-way intake valve, a fixing plate, a rotating shaft, a reciprocating lead screw, a cross bar, a moving block, a threaded hole, a hollow disk, a jet head, a rotary joint, a trachea, a connecting rod, and an infrared detector. A one-way intake valve is installed on the input end of the cylinder. Two fixed plates are symmetrically installed on the top plate. A rotating shaft is rotatably installed on the two fixed plates. The two rotating shafts are connected by a reciprocating lead screw. The two fixed plates are connected by a cross bar. A moving block is slidably installed on the cross bar. A threaded hole is formed in the moving block. The reciprocating lead screw passes through the threaded hole and is in threaded fit. One end of one of the rotating shafts is installed with a hollow disc. A plurality of jet nozzles are installed on the circumferential side wall of the hollow disc. The plurality of jet nozzles are arranged in a ring. A rotary joint is installed on the input end of the hollow disc. The rotary joint and the output end of the cylinder are connected by a trachea. The trachea has a one-way property. A connecting rod is installed on the moving block. An infrared detector is installed on the connecting rod. When the cylinder exhausts, the gas in the cylinder can enter the hollow disc through the trachea, and then the airflow is ejected through the jet nozzles. The acting force of the ejected airflow can drive the hollow disc to rotate, so that the hollow disc can drive the reciprocating lead screw to rotate synchronously during the rotation process. Then, through the lead screw-nut pair formed by the reciprocating lead screw and the threaded hole on the moving block, the moving block can move horizontally back and forth along the cross bar with the rotation of the reciprocating lead screw, so that the moving block can drive the infrared detector to move synchronously through the connecting rod, which is beneficial to the infrared detector to comprehensively detect the inside of the pipeline.

[0014] Compared with the prior art, the beneficial effects achieved by the present invention are: By controlling the chuck to rotate through the driving member, the angular adjustment of the radial position of the pipeline is realized. At the same time, by starting the module track, the sliding seat can drive the pressing plate to move synchronously, which is convenient for adjusting according to the horizontal position on the pipeline. Then, start the first hydraulic lifting rod to drive the pressing plate to press the pipeline, which is convenient for comprehensively detecting the static compressive resistance of the pipeline. And when the driving member drives the chuck to rotate continuously, the dynamic compressive resistance of the pipeline can be detected, realizing the detection of the compressive resistance performance of the pipeline under multi-environment simulation.

[0015] When performing dynamic detection on the pipeline, the pipeline can drive the rotating disc to rotate synchronously through the supporting clamping plate and the electric telescopic rod during the rotation process, so that a height difference is formed during the rotation of the transmission shaft. By using the height difference of the transmission shaft, the connecting plate can be driven to move longitudinally back and forth on the fixed rod through the traction plate, realizing that the cylinder provides the operating driving force for the rotating secondary utilization component.

[0016] The acting force of the ejected airflow can drive the hollow disc to rotate, so that the hollow disc can drive the reciprocating lead screw to rotate synchronously, and the moving block can move horizontally back and forth along the cross bar with the rotation of the reciprocating lead screw, thereby driving the infrared detector to move synchronously, which is beneficial to the infrared detector to comprehensively detect the inside of the pipeline. Description of the Drawings

[0017] The accompanying drawings are used to provide a further understanding of the present invention, and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation to the present invention. In the drawings: Figure 1 is a schematic structural diagram of the first perspective of the present invention; Figure 2 is a schematic structural diagram of the second perspective of the present invention; Figure 3 is a schematic structural diagram of the first sectional view of the present invention; Figure 4 is a schematic structural diagram of the second sectional view of the present invention; Figure 5 is Figure 4 an enlarged structural diagram of part A in; Figure 6 is Figure 2 an enlarged structural diagram of part B in; Figure 7 is Figure 2 an enlarged structural diagram of part C in.

[0018] In the figure: 1, bed body; 2, driving member; 3, chuck; 4, top plate; 5, module track; 6, sliding seat; 7, first hydraulic lifting rod; 8, pressing plate; 9, linkage rod; 10, linkage plate; 11, second hydraulic lifting rod; 12, supporting plate; 13, groove; 14, ball. 15, first-stage rotation utilization component; 1501, vertical plate; 1502, through hole; 1503, rotating disk; 1504, electric telescopic rod; 1505, supporting clamping plate; 1506, transmission shaft; 1507, cylinder; 1508, piston plate; 1509, transmission rod; 1510, sliding hole; 1511, connecting plate; 1512, fixed rod; 1513, traction plate; 1514, connecting hole. 16, second-stage rotation utilization component; 1601, one-way air inlet valve; 1602, fixing plate; 1603, rotating shaft; 1604, reciprocating lead screw; 1605, cross bar; 1606, moving block; 1607, threaded hole; 1608, hollow disk; 1609, air jet head; 1610, rotary joint; 1611, air pipe; 1612, connecting rod; 1613, infrared detector. Detailed implementation manners

[0019] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0020] Embodiment: As Figures 1-4 shown, the present invention provides the following technical solution: A pipeline performance detection device with multi-environment simulation function, the pipeline performance detection device with multi-environment simulation function includes a bed body 1, a driving member 2 is installed on the bed body 1, a chuck 3 is installed on the driving member 2, a pipeline is clamped on the chuck 3, a top plate 4 is installed on the bed body 1, a module track 5 is installed on the top plate 4, a sliding seat 6 is slidably installed on the module track 5, a first hydraulic lifting rod 7 is installed on the sliding seat 6, a pressing plate 8 is installed on the first hydraulic lifting rod 7, and a pressure sensor is arranged on the pressing plate 8. When it is necessary to detect the compressive performance of the pipeline, the staff can clamp the pipeline through the chuck 3 and can control the chuck 3 to rotate through the driving member 2, so as to realize the angular adjustment of the radial position of the pipeline. At the same time, by starting the module track 5, the sliding seat 6 can move horizontally along the module track 5, so that the sliding seat 6 can drive the pressing plate 8 to move synchronously, which is convenient for adjustment according to the horizontal position on the pipeline. Then start the first hydraulic lifting rod 7 to drive the pressing plate 8 to press the pipeline, which is convenient for a comprehensive static compressive test of the pipeline, which is beneficial for the pressure sensor to record the pressure of the pipeline. And when the driving member 2 drives the chuck 3 to rotate continuously, a dynamic compressive test can be carried out on the pipeline, so as to realize the compressive performance test of the pipeline under multi-environment simulation.

[0021] A linkage rod 9 is installed on the sliding seat 6, a linkage plate 10 is installed on the linkage rod 9, a second hydraulic lifting rod 11 is installed on the linkage plate 10, a supporting plate 12 is installed on the second hydraulic lifting rod 11, and the supporting plate 12 and the pressing plate 8 are symmetrically arranged. By starting the second hydraulic lifting rod 11, the second hydraulic lifting rod 11 drives the supporting plate 12 to vertically support the pipeline during the compressive test process, which can avoid the problem of the pipeline skewing during the pressing process.

[0022] A plurality of grooves 13 are formed on the supporting plate 12, and a plurality of balls 14 are rollingly fitted in the plurality of grooves 13. The rolling action of the balls 14 can reduce the moving friction between the supporting plate 12 and the pipeline, which is beneficial for the supporting plate 12 not to cause wear to the pipeline during the movement of the sliding seat 6.

[0023] A rotation primary utilization component 15 and a rotation secondary utilization component 16 are arranged on the bed body 1, and the rotation of the pipeline is used to provide the operating driving force for the rotation primary utilization component 15 and the rotation secondary utilization component 16.

[0024] As Figures 1-6 shown, the rotation primary utilization component 15 includes a vertical plate 1501, a through hole 1502, a rotating disc 1503, an electric telescopic rod 1504 and a supporting clamping plate 1505; A vertical plate 1501 is installed on the bed body 1. A through hole 1502 is provided on the vertical plate 1501. A rotating disk 1503 is rotatably installed in the through hole 1502. One end of the rotating disk 1503 close to the pipeline is provided with an electric telescopic rod 1504. A support clamping plate 1505 is installed on the electric telescopic rod 1504. When dynamically detecting the pipeline, by operating the electric telescopic rod 1504, the electric telescopic rod 1504 controls the support clamping plate 1505 to clamp the pipeline, so that the support clamping plate 1505 and the chuck 3 form a lateral support for the pipeline. At the same time, during the rotation of the pipeline, the rotating disk 1503 can be driven by the support clamping plate 1505 and the electric telescopic rod 1504 to rotate synchronously in the through hole 1502.

[0025] The first-stage rotation utilization assembly 15 further includes a transmission shaft 1506, a cylinder 1507, a piston plate 1508, a transmission rod 1509, a sliding hole 1510, a connecting plate 1511, a fixing rod 1512 and a traction plate 1513; One end of the rotating disk 1503 far from the pipeline is eccentrically installed with a transmission shaft 1506. A cylinder 1507 is installed on one side of the bed body 1. A piston plate 1508 is slidably installed in the cylinder 1507. A transmission rod 1509 is installed on the piston plate 1508. A sliding hole 1510 is provided at the top of the cylinder 1507. A fixing rod 1512 is fixedly installed on the cylinder 1507. A connecting plate 1511 is slidably installed on the fixing rod 1512. The transmission rod 1509 passes through the sliding hole 1510 and is connected to the top of the connecting plate 1511. The transmission rod 1509 is in sliding fit with the sliding hole 1510. The connecting plate 1511 and the transmission shaft 1506 are connected through a traction plate 1513. When the rotating disk 1503 rotates, the rotating disk 1503 can drive the transmission shaft 1506 to move in a circular trajectory during the rotation process, so that a height difference is formed during the movement of the transmission shaft 1506. The height difference of the transmission shaft 1506 can drive the connecting plate 1511 to move longitudinally back and forth on the fixing rod 1512 through the traction plate 1513. When the connecting plate 1511 moves upward under the drive of the traction plate 1513, the connecting plate 1511 can drive the piston plate 1508 to displace synchronously in the cylinder 1507 through the transmission rod 1509, so that the gas in the cylinder 1507 can be squeezed out. When the connecting plate 1511 moves downward under the drive of the traction plate 1513, the connecting plate 1511 can drive the piston plate 1508 to move downward synchronously in the cylinder 1507, so that a suction force can be formed in the cylinder 1507, and the cylinder 1507 can inhale the external air flow.

[0026] One end of the traction plate 1513 is hinged to the top of the connecting plate 1511, and a connecting hole 1514 is provided at the other end of the traction plate 1513. The transmission shaft 1506 passes through the connecting hole 1514 and is in rotational fit.

[0027] As Figures 1-4 and Figure 7 shown, the rotating secondary utilization component 16 includes a one-way intake valve 1601, a fixing plate 1602, a rotating shaft 1603, a reciprocating lead screw 1604, a cross bar 1605, a moving block 1606, a threaded hole 1607, a hollow disk 1608, a jet head 1609, a rotary joint 1610, an air pipe 1611, a connecting rod 1612, and an infrared detector 1613; A one-way intake valve 1601 is installed on the input end of the cylinder 1507. Two fixing plates 1602 are symmetrically installed on the top plate 4. A rotating shaft 1603 is rotatably installed on the two fixing plates 1602. The two rotating shafts 1603 are connected by a reciprocating lead screw 1604. The two fixing plates 1602 are connected by a cross bar 1605. A moving block 1606 is slidably installed on the cross bar 1605. A threaded hole 1607 is formed in the moving block 1606. The reciprocating lead screw 1604 passes through the threaded hole 1607 and is in threaded fit. One end of one of the rotating shafts 1603 is installed with a hollow disk 1608. A plurality of jet heads 1609 are installed on the circumferential side wall of the hollow disk 1608. The plurality of jet heads 1609 are arranged in a ring shape. A rotary joint 1610 is installed on the input end of the hollow disk 1608. The rotary joint 1610 and the output end of the cylinder 1507 are connected by an air pipe 1611. The air pipe 1611 has a one-way property. A connecting rod 1612 is installed on the moving block 1606. An infrared detector 1613 is installed on the connecting rod 1612. When the cylinder 1507 exhausts, the gas in the cylinder 1507 can enter the hollow disk 1608 through the air pipe 1611, and then the airflow is ejected through the jet heads 1609. The jet airflow force can drive the hollow disk 1608 to rotate, so that the hollow disk 1608 can drive the reciprocating lead screw 1604 to rotate synchronously through the rotating shaft 1603 during rotation. Then, through the lead screw-nut pair formed by the reciprocating lead screw 1604 and the threaded hole 1607 on the moving block 1606, the moving block 1606 can move horizontally back and forth along the cross bar 1605 with the rotation of the reciprocating lead screw 1604, so that the moving block 1606 can drive the infrared detector 1613 to move synchronously through the connecting rod 1612, which is beneficial to the infrared detector 1613 to comprehensively detect the inside of the pipeline.

[0028] The working principle of the present invention: When it is necessary to detect the compressive performance of the pipeline, the staff can clamp the pipeline through the chuck 3 and can control the rotation of the chuck 3 through the driving member 2, so as to realize the angular adjustment of the radial position of the pipeline. At the same time, by starting the module track 5, the slide seat 6 can move horizontally along the module track 5, so that the slide seat 6 can drive the pressing plate 8 to move synchronously, which is convenient for adjustment according to the horizontal position on the pipeline. Then start the first hydraulic lifting rod 7 to drive the pressing plate 8 to press the pipeline, which is convenient for a comprehensive static compressive test of the pipeline, which is beneficial for the pressure sensor to record the pressure of the pipeline. Moreover, when the driving member 2 drives the chuck 3 to rotate continuously, a dynamic compressive test of the pipeline can be carried out, realizing the compressive performance test of the pipeline under multi-environment simulation.

[0029] When performing a dynamic test on the pipeline, by operating the electric telescopic rod 1504, the electric telescopic rod 1504 controls the support clamping plate 1505 to clamp the pipeline, so that the support clamping plate 1505 and the chuck 3 form a lateral support for the pipeline. At the same time, during the rotation of the pipeline, the support clamping plate 1505 and the electric telescopic rod 1504 can drive the rotating disc 1503 to rotate synchronously in the through hole 1502. During the rotation of the rotating disc 1503, the transmission shaft 1506 can be driven to move in a circular trajectory, so that a height difference is formed during the movement of the transmission shaft 1506. By using the height difference of the transmission shaft 1506, the connecting plate 1511 can be driven by the traction plate 1513 to move longitudinally back and forth on the fixed rod 1512. When the connecting plate 1511 moves upward under the drive of the traction plate 1513, the connecting plate 1511 can drive the piston plate 1508 to move synchronously in the cylinder 1507 through the transmission rod 1509, so that the gas in the cylinder 1507 can be squeezed out. When the connecting plate 1511 moves downward under the drive of the traction plate 1513, the connecting plate 1511 can drive the piston plate 1508 to move synchronously downward in the cylinder 1507, and then a suction force can be formed in the cylinder 1507, so that the cylinder 1507 inhales the external air flow.

[0030] When the cylinder 1507 exhausts, the gas in the cylinder 1507 can enter the hollow disc 1608 through the air pipe 1611, and then the air flow is ejected through the air jet head 1609. By using the acting force of the ejected air flow, the hollow disc 1608 can be driven to rotate, so that the hollow disc 1608 can drive the reciprocating lead screw 1604 to rotate synchronously through the rotating shaft 1603 during the rotation process. Through the lead screw nut pair formed by the reciprocating lead screw 1604 and the threaded hole 1607 on the moving block 1606, the moving block 1606 can move horizontally back and forth along the cross bar 1605 as the reciprocating lead screw 1604 rotates, so that the moving block 1606 can drive the infrared detector 1613 to move synchronously through the connecting rod 1612, which is beneficial for the infrared detector 1613 to comprehensively detect the inside of the pipeline.

[0031] It is obvious to those skilled in the art that the present invention is not limited to the details of the above-described exemplary embodiments, and that the present invention can be implemented in other specific forms without departing from the spirit or essential characteristics of the present invention. Therefore, in all respects, the embodiments should be regarded as exemplary and non-limiting. The scope of the present invention is defined by the appended claims rather than the above description. Accordingly, all changes that fall within the meaning and scope of the equivalent elements of the claims are intended to be embraced within the present invention. Any reference signs in the claims should not be construed as limiting the claims concerned.

Claims

1. A pipeline performance testing device with multi-environment simulation function, characterized in that: The pipeline performance detection device with multi-environment simulation function comprises a bed (1), a driving member (2) is mounted on the bed (1), a chuck (3) is mounted on the driving member (2), a pipeline is clamped on the chuck (3), a top plate (4) is mounted on the bed (1), a module rail (5) is mounted on the top plate (4), a slide seat (6) is slidably mounted on the module rail (5), a first hydraulic lifting rod (7) is mounted on the slide seat (6), a pressure plate (8) is mounted on the first hydraulic lifting rod (7), and a pressure sensor is arranged on the pressure plate (8); The bed body (1) is provided with a rotating primary utilization component (15) and a rotating secondary utilization component (16), and the rotation of the utilization pipeline provides a driving force for the rotating primary utilization component (15) and the rotating secondary utilization component (16); The rotating primary utilization component (15) comprises a vertical plate (1501), a through hole (1502), a rotating disk (1503), an electric telescopic rod (1504) and a supporting clamping plate (1505); A vertical plate (1501) is installed on the bed body (1), a through hole (1502) is opened on the vertical plate (1501), a rotating disk (1503) is rotatably installed in the through hole (1502), an electric telescopic rod (1504) is installed at one end of the rotating disk (1503) close to the pipeline, and a supporting clamp (1505) is installed on the electric telescopic rod (1504).

2. The pipeline performance detection device with multi-environment simulation function according to claim 1 is characterized in that: A linkage rod (9) is mounted on the slide seat (6), a linkage plate (10) is mounted on the linkage rod (9), a second hydraulic lifting rod (11) is mounted on the linkage plate (10), a support plate (12) is mounted on the second hydraulic lifting rod (11), and the support plate (12) and the pressure plate (8) are symmetrically arranged.

3. The pipeline performance detection device with multi-environment simulation function according to claim 2 is characterized in that: The support plate (12) is provided with a plurality of grooves (13), and balls (14) are rollingly embedded in the plurality of grooves (13).

4. The pipeline performance detection device with multi-environment simulation function according to claim 2 is characterized in that: The rotating primary utilization component (15) further comprises a transmission shaft (1506), a cylinder (1507), a piston plate (1508), a transmission rod (1509), a sliding hole (1510), a connecting plate (1511), a fixing rod (1512) and a traction plate (1513); A transmission shaft (1506) is eccentrically mounted on one end of the rotating disk (1503) away from the pipeline, a cylinder (1507) is mounted on one side of the bed (1), a piston plate (1508) is slidably mounted in the cylinder (1507), a transmission rod (1509) is mounted on the piston plate (1508), a sliding hole (1510) is opened at the top of the cylinder (1507), a fixing rod (1512) is fixedly mounted on the cylinder (1507), a connecting plate (1511) is slidably mounted on the fixing rod (1512), the transmission rod (1509) passes through the sliding hole (1510) and is connected to the top of the connecting plate (1511), the transmission rod (1509) and the sliding hole (1510) are in sliding fit, and the connecting plate (1511) and the transmission shaft (1506) are connected via a traction plate (1513).

5. The pipeline performance detection device with multi-environment simulation function according to claim 4 is characterized in that: One end of the traction plate (1513) is hinged to the top of the connection plate (1511), and the other end of the traction plate (1513) is provided with a connection hole (1514), and the transmission shaft (1506) passes through the connection hole (1514) and is rotatably fitted.

6. The pipeline performance detection device with multi-environment simulation function according to claim 5 is characterized in that: The rotating secondary utilization component (16) comprises a one-way air intake valve (1601), a fixed plate (1602), a rotating shaft (1603), a reciprocating screw (1604), a crossbar (1605), a moving block (1606), a thread hole (1607), a hollow disk (1608), an air jet head (1609), a rotating joint (1610), an air pipe (1611), a connecting rod (1612) and an infrared detector (1613); A one-way air intake valve (1601) is installed on the input end of the cylinder (1507), two fixed plates (1602) are symmetrically installed on the top plate (4), and rotating shafts (1603) are rotatably installed on the two fixed plates (1602). The two rotating shafts (1603) are connected by a reciprocating screw (1604), and the two fixed plates (1602) are connected by a cross bar (1605). A moving block (1606) is slidably installed on the cross bar (1605), and a threaded hole (1607) is opened on the moving block (1606). The reciprocating screw (1604) passes through the threaded hole (1607) and is threaded. A hollow disk (1608) is installed at the end of one of the rotating shafts (1603), and a plurality of nozzles (1609) are installed on the circumferential side wall of the hollow disk (1608), and the plurality of nozzles (1609) are arranged in a ring shape. A rotary joint (1610) is installed on the input end of the hollow disk (1608), and the rotary joint (1610) and the output end of the cylinder (1507) are connected via an air pipe (1611), and the air pipe (1611) is unidirectional. A connecting rod (1612) is installed on the moving block (1606), and an infrared detector (1613) is installed on the connecting rod (1612).

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