A multipurpose reinforcement device for pump pipes

Abstract

The application relates to the technical field of concrete pouring, in particular to a multipurpose reinforcing device for a pump pipe, which comprises a plurality of supporting vertical rods, the supporting vertical rods are vertically arranged, and the two ends of the supporting vertical rods are respectively in abutment with upper and lower floor slabs; a plurality of mounting frames provided with penetrating cavities, the mounting frames are connected with supporting trusses, and the supporting trusses are connected with the supporting vertical rods; a plurality of protective rubber rings, the protective rubber rings are sleeved on the pump pipe; and a plurality of locking screws, the locking screws are in threaded connection with the mounting frames, and one end of each locking screw is in abutment with a protective rubber ring. The application has the advantages that the possibility and the amplitude of the shaking of the pump pipe due to the impact of the flowing concrete in the pump pipe are reduced, the protective rubber rings can realize the contact buffering between the protective rubber rings and the locking screws when the pump pipe shakes, the damage to the pump pipe is avoided, the service life of the pump pipe is prolonged, and the structural damage to the floor slab provided with the reserved holes is also reduced due to the shift of the path of the impact of the pump pipe.

Description

Technical Field

[0001] This application relates to the field of concrete pouring technology, and in particular to a multi-purpose reinforcement device for pump pipes. Background Technology

[0002] Floor transfer pump pipes are piping systems used to transport liquids or gases within buildings, especially in high-rise buildings. These pump pipes are typically made of corrosion-resistant, high-strength materials, such as stainless steel or special plastics, to ensure that they maintain their performance and durability over long periods of use. The main function of floor transfer pump pipes is to pump water, fuel, chemicals, or other fluids from the ground floor to the upper floors of a building to meet various application requirements.

[0003] The prior art discloses a pump pipe reinforcement device for pump pipe openings in floor slabs and its usage method. It includes an arc-shaped base, with two sets of arc-shaped bases arranged symmetrically. Each set of arc-shaped bases has a fixing cylinder on its upper surface, and a side bracket support system is provided at intervals on the outer side of the fixing cylinder. The inner wall of the fixing cylinder is provided with a pump pipe clamping device, which includes an inflation cylinder, an embedded pipe, an arc-shaped airbag, and an anti-slip pad. The output end of the inflation cylinder is connected to the embedded pipe, and the output end of the embedded pipe is connected to the arc-shaped airbag. The outer side of the arc-shaped airbag is in contact with the anti-slip pad.

[0004] Regarding the aforementioned technologies, during the process of conveying concrete to high-rise buildings through pump pipes, irregular vibrations may occur in the pump pipes due to changes in the working status of the front-end booster pump or collisions generated during the concrete conveying process inside the pump pipes. This can lead to swaying of the pump pipes, causing loosening between the pump pipes and the reinforcement device, and further increasing the amplitude of the swaying. Moreover, if the reinforcement device is installed at the pre-drilled hole in the floor slab, it can also cause damage to the floor slab through the reinforcement device when the pump pipes sway. Summary of the Invention

[0005] In order to strengthen the pump pipe while reducing the sway of the pump pipe and minimizing structural damage to the floor slab with pre-drilled holes, this application provides a multi-purpose pump pipe strengthening device.

[0006] The multi-purpose pump pipe reinforcement device provided in this application adopts the following technical solution: A multi-purpose reinforcement device for pump pipes, comprising: Multiple support poles are provided, which are vertically arranged and whose two ends abut against the upper and lower floor slabs respectively. Multiple mounting frames with through cavities are provided, and a support truss is connected to the mounting frame. The support truss is connected to the support upright. Multiple protective rubber rings are fitted onto the pump pipe; Multiple locking screws are provided, which are threadedly connected to the mounting frame, and one end of the locking screw abuts against the protective rubber ring on the side away from the pump pipe.

[0007] By adopting the above technical solution, the designed multi-purpose pump pipe reinforcement device provides a spatial foundation for the installation frame after the support pole abuts against the upper and lower floor slabs. The installation frame serves as the installation and load-bearing foundation for the locking screw. The locking screw secures the protective rubber ring to the pump pipe, further restricting its position and reducing the likelihood and amplitude of swaying caused by the impact of the internal flowing concrete. The protective rubber ring provides contact buffering between the pump pipe and the locking screw during swaying, preventing damage to the pump pipe and extending its service life. Furthermore, since the support pole transfers the path of impact from the pump pipe, it also reduces structural damage to the floor slab with pre-drilled holes.

[0008] In one specific implementation, the system further includes at least one pair of ultrasonic flow monitors, which are mounted on the pump pipe and the two ultrasonic flow monitors in the same group are arranged facing each other.

[0009] By adopting the above technical solution, the ultrasonic flow monitor designed has two ultrasonic flow monitors that act as transmitters and receivers to each other. The flow velocity of the concrete can be calculated by measuring the time difference between the propagation of ultrasonic waves in the downstream direction and the upstream direction of the concrete flow in the pump pipe.

[0010] In one specific implementation, a plurality of laser displacement gauges are mounted on the support truss, and the laser displacement gauges are positioned facing the outer wall of the pump pipe.

[0011] By adopting the above technical solution, the designed laser displacement meter can identify the pump pipe shaking caused by the impact of concrete flow, and can also detect in real time whether the pump pipe is deformed locally due to excessive pressure caused by pipe blockage or other reasons.

[0012] In one specific implementation, a photovoltaic panel and a battery pack are connected to the support truss. The photovoltaic panel is electrically connected to the battery pack, and the battery pack is also electrically connected to an ultrasonic flow monitor and a laser displacement meter.

[0013] By adopting the above technical solution, the designed photovoltaic panels and battery packs require less electrical energy to operate the ultrasonic flow monitor and laser displacement meter. Therefore, although the photovoltaic panels are located between the floor slabs, natural light is sufficient for the photovoltaic panels to convert solar energy into electrical energy, thereby providing power for the ultrasonic flow monitor and laser displacement meter to operate.

[0014] In one specific implementation scheme, flexible pads are provided at both ends of the support pole, and the flexible pads are located between the support pole and the surface of the floor slab.

[0015] By adopting the above technical solution, the designed flexible pad can further reduce the possibility of damage to the floor slab.

[0016] In one specific implementation, the upper end of the support pole is connected to an adjustable top support, and the adjustable top support is located between the flexible pad and the support pole.

[0017] By adopting the above technical solution, the adjustable top support is designed to accommodate the different spacing between adjacent floor slabs due to construction reasons, such as inconsistent thickness or absolute height of the floor slabs.

[0018] In one specific implementation, it further includes two rotating rings, which are sleeved on the pump pipe and connected to the support pole. Multiple fastening ropes are connected between the two rotating rings, and the fastening ropes are tensioned and wound around the pump pipe after the two rotating rings rotate relative to each other.

[0019] By adopting the above technical solution, the designed rotating ring and fastening rope can form a structure similar to a mesh layer after being straightened, thereby reducing the possibility of the pump pipe shaking, bending and deforming due to the impact of concrete flow.

[0020] In one specific implementation scheme, four intermediate rods are also included. The intermediate rods are connected to the support rods, and the end of the intermediate rod away from the support rod is connected to an arc-shaped U-groove. The rotating ring is located in the space formed by two of the arc-shaped U-grooves, and the rotating ring can be detachably and fixedly connected to the arc-shaped U-grooves.

[0021] By adopting the above technical solution, the designed intermediate rod and arc-shaped U-groove can restrict the position of the rotating ring in the vertical direction while allowing the rotating ring to rotate, thereby achieving the winding and reinforcement between the fastening rope and the pump pipe.

[0022] In one specific implementation, a reinforcing ring is further included, which is sleeved on the pump pipe and the fastening rope passes through the reinforcing ring. A diagonal brace connects the reinforcing ring and the intermediate rod.

[0023] By adopting the above technical solution, the designed reinforcing ring can work with the diagonal brace to form a stable triangular support structure, further reducing the possibility of pump pipe shaking and deformation.

[0024] In one specific implementation, the intermediate rod is slidably connected to the supporting upright and slides vertically, the diagonal brace is rotatably connected to the intermediate rod, and the diagonal brace is connected to the reinforcing ring via a sliding block. The diagonal brace is rotatably connected to the sliding block, and the reinforcing ring has multiple radial grooves for the sliding block to slide on.

[0025] By adopting the above technical solution, through the rotatably connected diagonal brace, intermediate rod, and sliding block, and in conjunction with the sliding block that can slide radially along the reinforcing ring, the pump pipe can sway near the reinforcing ring. When the direction of the sway coincides with the rotation plane of the intermediate rod, the intermediate rod on one side slides away from the reinforcing ring. At the same time, the intermediate rod slides and drives the rotating ring to move through the arc-shaped U-groove, thereby further tensioning the fastening rope, increasing the tension of the fastening rope on the pump pipe, and thus reducing the swaying amplitude of the pump pipe.

[0026] In summary, this application includes at least one of the following beneficial technical effects: 1. The designed multi-purpose pump pipe reinforcement device, after abutting against the upper and lower floor slabs with the support pole, provides a spatial foundation for the installation frame and load-bearing structure. The installation frame serves as the installation and load-bearing foundation for the locking screw. The locking screw secures the protective rubber ring to the pump pipe, further restricting its position and reducing the likelihood and amplitude of swaying caused by the impact of the internal flowing concrete. The protective rubber ring provides contact buffering between the pump pipe and the locking screw during swaying, preventing damage to the pump pipe and extending its service life. Furthermore, by diverting the impact path of the pump pipe through the support pole, it also reduces structural damage to the floor slab with pre-drilled holes.

[0027] 2. The designed multi-purpose reinforcement device for pump pipes uses ultrasonic flow monitors. Two ultrasonic flow monitors act as transmitters and receivers for each other. The flow velocity of concrete can be calculated by measuring the time difference between the propagation of ultrasonic waves in the downstream direction and the upstream direction of concrete flow in the pump pipe.

[0028] 3. The designed multi-purpose pump pipe reinforcement device, through a rotatably connected diagonal brace, intermediate rod, and sliding block, and in conjunction with the sliding block that can slide radially along the reinforcing ring, allows the pump pipe to sway near the reinforcing ring. When the direction of the sway coincides with the rotation plane of the intermediate rod, the intermediate rod on one side slides away from the reinforcing ring. As the intermediate rod slides, it drives the rotating ring to move through the arc-shaped U-groove, thereby further tensioning the fastening rope, increasing the tension of the fastening rope on the pump pipe, and thus reducing the swaying amplitude of the pump pipe. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the multi-purpose reinforcement device for pump pipes according to an embodiment of this application.

[0030] Figure 2 Is Figure 1 A structural diagram showing the structure with the upper and lower floor slabs hidden on the foundation.

[0031] Figure 3 This is a flowchart of the data transmission between the ultrasonic flow monitor and the laser displacement meter and the central processing unit.

[0032] Figure 4 Is Figure 2 The front view after adding the pump pipe anti-deformation structure to the original structure is mainly used to show the rotating ring and the fastening rope.

[0033] Figure 5 yes Figure 4 A three-dimensional structural diagram.

[0034] Figure 6 yes Figure 5 The sectional view in the diagram is mainly used to show the fit between the sliding block and the radial groove.

[0035] Explanation of reference numerals in the attached drawings: 01, pump pipe; 1, support pole; 2, mounting frame; 3, support truss; 4, protective rubber ring; 5, locking screw; 6, ultrasonic flow monitor; 7, laser displacement gauge; 8, photovoltaic panel; 9, flexible pad; 10, adjustable top support; 11, rotating ring; 12, fastening rope; 13, intermediate rod; 14, arc-shaped U-groove; 15, reinforcing ring; 16, diagonal brace; 17, sliding block; 18, radial groove. Detailed Implementation

[0036] The following is in conjunction with the appendix Figure 1-6 This application will be described in further detail.

[0037] This application discloses a multi-purpose reinforcement device for pump pipes.

[0038] When using pump pipes to transport concrete to high-rise buildings, the pump pipes need to be fixed. Currently, there are many reinforcement methods available. Common methods include using wooden wedges and rubber pads to tightly seal the pre-reserved holes in the floor slab, and then using steel bars to reinforce the holes. Another method is to erect a grid frame at the pre-reserved holes on each floor slab to provide vertical support for the pump pipes. Yet another method is a pump pipe reinforcement device and its usage method disclosed in the prior art for pump pipe holes in floor slabs. This device includes an arc-shaped base, with two sets of arc-shaped bases arranged symmetrically. Each set of arc-shaped bases has a fixing cylinder on its upper surface, and a side bracket support system is provided at intervals on the outer side of the fixing cylinder. The inner wall of the fixing cylinder is equipped with a pump pipe clamping device, which includes an air cylinder, an embedded pipe, an arc-shaped airbag, and an anti-slip pad. The output end of the air cylinder is connected to the embedded pipe, and the output end of the embedded pipe is connected to the arc-shaped airbag. The outer side of the arc-shaped airbag is in contact with the anti-slip pad.

[0039] However, regardless of whether wooden boards with rubber pads are used for fixing, a grid frame is used for support, or the pump pipe reinforcement device mentioned in the existing technology is used for fixing, during the process of conveying concrete to the upper floors through the pump pipe, the pump pipe may vibrate irregularly due to changes in the working state of the front-end booster pump or collisions generated during the concrete conveying process inside the pump pipe. This can lead to the pump pipe shaking, causing loosening between the pump pipe and the reinforcement device, and further increasing the shaking amplitude of the pump pipe. Moreover, if the reinforcement device is set at the reserved hole in the floor slab, it can also cause damage to the floor slab through the reinforcement device when the pump pipe shakes.

[0040] Reference Figure 1 In order to strengthen the pump pipe while reducing the swaying amplitude of the pump pipe and minimizing structural damage to the floor slab with pre-drilled holes, a multi-purpose pump pipe reinforcement device disclosed in this application includes a support pole 1 and a mounting frame 2. There are multiple support poles 1 and mounting frames 2. The support poles 1 are vertically arranged, and both ends of the support poles 1 abut against the surfaces of the upper and lower floor slabs, respectively. Multiple mounting frames 2 are distributed vertically. The mounting frames 2 have through-cavities for the pump pipe 01 to pass through, and a support truss 3 is welded and fixed to the mounting frames 2. The support truss 3 is bolted to the support poles 1, thereby fixing the position of the mounting frames 2. In order to facilitate the transportation of the support poles 1, the support poles 1 are spliced ​​together from multiple sections.

[0041] Reference Figure 2To reduce damage to the floor slab caused by the support pole 1, flexible pads 9 are provided at both ends of the support pole 1, and the flexible pads 9 are located between the support pole 1 and the floor slab surface. The presence of the flexible pads 9 achieves a buffer connection between the support pole 1 and the floor slab. Furthermore, due to construction reasons, the pouring thickness of different floor slabs may be inconsistent, and the spacing between two adjacent floor slabs may also be different. In order to enable the support pole 1 to adapt to different floor slab spacings, an adjustable top support 10 is abutted at the upper end of the support pole 1. The adjustable top support 10 is located between the flexible pads 9 and the support pole 1. In this application, the adjustable top support 10 can be a bolt, and the overall height of the support pole 1 can be adjusted by turning the bolt, or it can be other structures, as long as it can achieve the overall height adjustment of the support pole 1.

[0042] Reference Figure 2 To facilitate the positional restriction of the pump pipe 01, multiple protective rubber rings 4 and multiple locking screws 5 are also included. In this application, the number of protective rubber rings 4 can be the same as or different from the number of mounting frames 2. In this embodiment, the number of protective rubber rings 4 is the same as the number of mounting frames 2, which is two in each case. The protective rubber rings 4 are sleeved on the pump pipe 01, and the inner wall of the protective rubber ring 4 is fitted to the outer periphery of the pump pipe 01. The locking screws 5 are threadedly connected to the mounting frame 2, and one end of the locking screws 5 can abut against the side of the protective rubber ring 4 away from the pump pipe 01. In this application, the locking screws 5 can be set horizontally or inclined. In this embodiment, the locking screws 5 are set horizontally.

[0043] Reference Figure 2 Furthermore, in order to achieve real-time monitoring of the concrete flow rate in the pump pipe 01, at least one pair of ultrasonic flow monitors 6 are also included. The ultrasonic flow monitors 6 are installed on the outer wall of the pump pipe 01, and the two ultrasonic flow monitors 6 in the same group are set facing each other. The two ultrasonic flow monitors 6 are transmitters and receivers to each other, and the flow rate of the concrete can be calculated by measuring the time difference between the propagation of ultrasonic waves in the downstream direction of the concrete flow and the upstream direction of the concrete flow in the pump pipe 01.

[0044] Reference Figure 2 Furthermore, multiple laser displacement gauges 7 are bolted to the support truss 3. The laser displacement gauges 7 are set facing the outer wall of the pump pipe 01. Through the laser displacement gauges 7, the shaking of the pump pipe 01 caused by the impact of concrete flow can be identified. It can also detect in real time whether the pump pipe 01 is under excessive pressure due to blockage or other reasons, which causes local deformation of the pump pipe 01.

[0045] Reference Figure 2 and Figure 3To provide power for the ultrasonic flow monitor 6 and the laser displacement meter 7, a photovoltaic panel 8 and a battery pack are bolted to the supporting truss 3. The photovoltaic panel 8 is electrically connected to the battery pack, and the battery pack is also electrically connected to the ultrasonic flow monitor 6 and the laser displacement meter 7. Since the ultrasonic flow monitor 6 and the laser displacement meter 7 require relatively little power to operate, although the photovoltaic panel 8 is located between the floor slabs, natural light is sufficient for the photovoltaic panel 8 to convert solar energy into electrical energy, thereby providing power for the ultrasonic flow monitor 6 and the laser displacement meter 7. Furthermore, the monitoring data obtained by the ultrasonic flow monitor 6 and the laser displacement meter 7 are all transmitted to the central processing unit for processing, thereby obtaining the flow data of the concrete in the pump pipe 01 and the deformation data of the pump pipe 01.

[0046] Reference Figure 4 To further improve the deformation resistance of the pump pipe 01 and reduce the swaying amplitude of the pump pipe 01 to reduce damage to the floor slab, two rotating rings 11 are also included. The two rotating rings 11 are distributed along the height direction and are sleeved on the pump pipe 01. The rotating rings 11 are connected to the support pole 1, and multiple fastening ropes 12 are screwed between the two rotating rings 11. After the two rotating rings 11 rotate relative to each other with the pump pipe 01 as the rotation axis, the fastening ropes 12 are tightened and wrapped around the outer periphery of the pump pipe 01 to form a mesh reinforcement layer.

[0047] Reference Figure 4 Specifically, it also includes four intermediate rods 13 symmetrically arranged about the pump pipe 01. The four intermediate rods 13 are divided into two groups. One end of the intermediate rod 13 is connected to the support rod 1, and the end of the intermediate rod 13 away from the support rod 1 is welded and fixed with an arc-shaped U-groove 14. The opening of the arc-shaped U-groove 14 faces the rotating ring 11. The rotating ring 11 is located in the rotation space formed by the two arc-shaped U-grooves 14, and the rotating ring 11 can be detachably fixed to the arc-shaped U-grooves 14. In this application, the detachable fixed connection between the rotating ring 11 and the arc-shaped U-grooves 14 can be that a tightening bolt is threaded on the arc-shaped U-grooves 14, or a limit rod is slidably connected on the arc-shaped U-grooves 14. The rotating ring 11 has multiple blind holes on its circumference for the insertion of the limit rod.

[0048] Reference Figure 4 Furthermore, the multi-purpose reinforcement device for the pump pipe also includes a reinforcing ring 15, which is sleeved on the pump pipe 01 and located between two rotating rings 11. A fastening rope 12 is installed through the reinforcing ring 15, and a diagonal brace 16 is connected between the reinforcing ring 15 and the intermediate rod 13. The diagonal brace 16 can be used to form a triangular stable support structure, further reducing the possibility of the pump pipe 01 shaking and deforming.

[0049] Reference Figure 5 and Figure 6Specifically, the intermediate rod 13 is slidably connected to the supporting upright 1, and the intermediate rod 13 slides vertically. One end of the diagonal brace 16 is rotatably connected to the intermediate rod 13, and the other end of the diagonal brace 16 is connected to the reinforcing ring 15 via a sliding block 17. The diagonal brace 16 and the sliding block 17 are rotatably connected, and the reinforcing ring 15 has multiple radially opening grooves 18. The sliding block 17 slides in the radial grooves 18, and under normal conditions, the sliding block 17 abuts against the side of the radial grooves 18 near the pump pipe 01. The diagonal brace 16 and the intermediate rod 13 are rotatably connected. The intermediate rod 13 and the sliding block 17, together with the sliding block 17 which can slide radially along the reinforcing ring 15, can cause the pump pipe 01 to sway near the reinforcing ring 15. When the direction of the swaying coincides with the rotation plane of the intermediate rod 13, the intermediate rod 13 on one side slides toward the end away from the reinforcing ring 15. At the same time, the intermediate rod 13 slides and drives the rotating ring 11 to move through the arc-shaped U-groove 14, thereby further tensioning the fastening rope 12, thereby increasing the tension of the fastening rope 12 on the pump pipe 01 and reducing the swaying amplitude of the pump pipe 01.

[0050] The implementation principle of the multi-purpose pump pipe reinforcement device in this application embodiment is as follows: First, the mounting frame 2 is placed on the upper surface of the floor slab, and then the pump pipe 01 is made to pass through the pre-reserved holes in the multi-layer floor slab. At this time, the pump pipe 01 also passes through the through cavity on the mounting frame 2. Then, support poles 1 are built around the pump pipe 01, and the support poles 1 are pressed against the floor slab surface by the flexible pad 9 and the adjustable top support 10. Then, the mounting frame 2 is fixed by the support truss 3. Finally, the locking screw 5 is tightened and the pump pipe 01 is forced through the protective rubber ring 4 to limit the shaking amplitude of the pump pipe 01.

[0051] During the process of conveying concrete to the upper floors through pump pipe 01, photovoltaic panel 8 and battery pack provide power for ultrasonic flow monitor 6 and laser displacement meter 7. The two ultrasonic flow monitors 6 are transmitter and receiver to each other. They can calculate the flow velocity of concrete by measuring the time difference between the propagation of ultrasonic waves in the downstream direction and the upstream direction of concrete flow in pump pipe 01. The laser displacement meter 7 can identify the shaking of pump pipe 01 caused by the impact of concrete flow, and can also detect in real time whether there is excessive pressure in pump pipe 01 caused by blockage or other reasons, which causes local deformation of pump pipe 01.

[0052] Furthermore, to further limit the swaying amplitude of the pump pipe 01, a rotating ring 11 and a reinforcing ring 15 are fitted onto the pump pipe 01. By rotating the two rotating rings 11 relative to each other, the fastening rope 12 is tensioned and wound around the pump pipe 01. Then, through the cooperation of structures such as the diagonal brace 16, the intermediate rod 13, and the sliding block 17, the pump pipe 01 is further limited. Through the rotatably connected diagonal brace 16, intermediate rod 13, and sliding block 17, and in cooperation with the sliding block 17 which can slide radially along the reinforcing ring 15, when the pump pipe 01 sways near the reinforcing ring 15, the tension of the fastening rope 12 on the pump pipe 01 is increased by sliding the intermediate rod 13 toward the end away from the reinforcing ring 15, thereby reducing the swaying amplitude of the pump pipe 01.

[0053] After the support pole 1 abuts against the upper and lower floor slabs, it can provide a spatial foundation for the installation and load-bearing of the mounting frame 2. The mounting frame 2 can serve as the installation and load-bearing foundation for the locking screw 5. The locking screw 5 can tightly fix the protective rubber ring 4 to the pump pipe 01, and further restrict the position of the pump pipe 01, reducing the possibility and amplitude of shaking caused by the impact of the internal flowing concrete. The protective rubber ring 4 can provide contact buffer between the pump pipe 01 and the locking screw 5 when the pump pipe 01 shakes, avoiding damage to the pump pipe 01 and extending the service life of the pump pipe 01. Furthermore, since the support pole 1 transfers the path of the impact of the pump pipe 01, it also reduces the structural damage to the floor slab with the reserved hole.

[0054] The above are all preferred embodiments of this application and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A multi-purpose reinforcement device for pump pipes, characterized in that: include: Multiple support poles (1) are provided, the support poles (1) are set vertically, and the two ends of the support poles (1) respectively abut against the upper and lower floor slabs; Multiple mounting frames (2) with through-cavities are provided, and a support truss (3) is connected to the mounting frame (2). The support truss (3) is connected to the support column (1). Multiple protective rubber rings (4) are provided, and the protective rubber rings (4) are fitted onto the pump pipe (01). Multiple locking screws (5) are threaded to the mounting frame (2), and one end of the locking screw (5) abuts against the side of the protective rubber ring (4) away from the pump pipe (01). Two rotating rings (1) are also provided. 1) The rotating ring (11) is sleeved on the pump pipe (01) and connected to the support rod (1). Multiple fastening ropes (12) are connected between the two rotating rings (11). After the two rotating rings (11) rotate relative to each other, the fastening ropes (12) are tensioned and wrapped around the pump pipe (01). It also includes four intermediate rods (13). The intermediate rods (13) are connected to the support rod (1) and the intermediate rods (13) are away from the support rod (1). One end is connected to an arc-shaped U-groove (14), and the rotating ring (11) is located in the space formed by the two arc-shaped U-grooves (14), and the rotating ring (11) can be detachably and fixedly connected to the arc-shaped U-grooves (14); it also includes a reinforcing ring (15), which is sleeved on the pump pipe (01), and the fastening rope (12) passes through the reinforcing ring (15). A diagonal brace (16) is connected between the reinforcing ring (15) and the intermediate rod (13); The intermediate rod (13) is slidably connected to the support rod (1), and the intermediate rod (13) slides in the vertical direction. The diagonal brace (16) is rotatably connected to the intermediate rod (13), and the diagonal brace (16) is connected to the reinforcing ring (15) through a sliding block (17). The diagonal brace (16) is rotatably connected to the sliding block (17), and the reinforcing ring (15) has multiple radial grooves (18) that are radially opened and used for the sliding block (17) to slide.

2. The multi-purpose pump pipe reinforcement device according to claim 1, characterized in that: It also includes at least one pair of ultrasonic flow monitors (6), which are mounted on the pump pipe (01) and the two ultrasonic flow monitors (6) in the same group are arranged facing each other.

3. The multi-purpose pump pipe reinforcement device according to claim 2, characterized in that: Multiple laser displacement gauges (7) are installed on the support truss (3), and the laser displacement gauges (7) are positioned facing the outer wall of the pump pipe (01).

4. The multi-purpose pump pipe reinforcement device according to claim 3, characterized in that: A photovoltaic panel (8) and a battery pack are connected to the supporting truss (3). The photovoltaic panel (8) is electrically connected to the battery pack, and the battery pack is also electrically connected to the ultrasonic flow monitor (6) and the laser displacement meter (7).

5. The multi-purpose pump pipe reinforcement device according to claim 1, characterized in that: Flexible pads (9) are provided at both ends of the support pole (1), and the flexible pads (9) are located between the support pole (1) and the floor slab.

6. The multi-purpose pump pipe reinforcement device according to claim 5, characterized in that: The upper end of the support pole (1) is connected to an adjustable top support (10), and the adjustable top support (10) is located between the flexible pad (9) and the support pole (1).

Images