A flexible pipe shock support system and method of use thereof

Abstract

The application discloses a flexible pipeline damping support system and a use method thereof, relates to the technical field of pipeline support, and comprises a support base, a support frame arranged on the support base, a damping plate arranged on the support frame, a damping pull rope assembly arranged on the damping plate, and a clamping round frame arranged at the bottom end of the damping pull rope assembly; a limiting plate is arranged directly above the damping plate, an extension frame is arranged on the limiting plate, a damping tension rope assembly is arranged at the bottom end of the extension frame, and a damping limiting rope assembly is arranged on the limiting plate; a moving wheel is arranged on the support base, and a sliding limiting mechanism matched with the moving wheel is arranged on the support base. The application can effectively solve the vibration problem of the flexible pipeline in the building heating engineering, improve the system operation stability and safety, and meet the requirements of the modern building industry for efficient construction, convenient operation and maintenance and high-quality heating system.

Description

Technical Field

[0001] This invention relates to the field of pipeline support technology, and in particular to a flexible pipeline vibration damping support system and its application method. Background Technology

[0002] With the development of the modern construction industry, building heating, ventilation, and air conditioning (HVAC) engineering has become a key component in improving indoor environmental comfort and ensuring energy efficiency. Flexible pipes, due to their excellent flexibility, ease of installation, and adaptability to complex spatial layouts, are widely used in various HVAC systems, such as air conditioning hot and cold water supply, ventilation and exhaust, and fire sprinkler systems. However, during operation, flexible pipes are prone to significant vibration due to internal fluid pressure fluctuations, mechanical vibrations, and thermal expansion and contraction. This not only affects the long-term stability and service life of the piping system but may also cause noise pollution, loosening of connections, and even breakage, posing a potential threat to building structure and personnel safety.

[0003] While existing pipe support methods, such as fixed supports and hangers, can provide some support and positioning for pipes, their vibration damping effect is often unsatisfactory for the unique vibration characteristics of flexible pipes. Most vibration damping devices for flexible pipes currently on the market have the following limitations: many devices rely on only a single type of damping element, making it difficult to cope with the complex vibration conditions of flexible pipes at various frequencies and amplitudes, resulting in limited damping effects. Existing devices often lack adaptability to pipe size, shape, weight, and installation environment, and cannot be flexibly adjusted to match different flexible pipe configurations, especially when facing multiple pipes arranged in parallel or installed in complex spaces, their applicability is greatly limited. Some damping devices neglect effective clamping and positioning of flexible pipes, which may cause the pipes to loosen or shift during vibration, not only failing to effectively dampen vibrations but potentially exacerbating them. Some damping support systems have complex structures, are difficult to install, and are difficult to maintain, increasing construction costs and time, and failing to meet the modern construction industry's requirements for efficient construction and convenient operation and maintenance.

[0004] How to solve the above-mentioned technical problems is the challenge facing this invention. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a rationally designed, safe, and reliable flexible pipeline vibration damping support system and its application method. By integrating multiple vibration damping mechanisms, effective clamping and positioning technologies, and flexible movement and positioning functions, it achieves comprehensive and efficient vibration damping support for the vibration characteristics of flexible pipelines, significantly improving the operational stability and safety of flexible pipeline systems in building HVAC engineering.

[0006] The technical solution adopted by the present invention to solve its technical problem is: a flexible pipe vibration damping support system, including a support base, a support frame provided on the support base, a vibration damping plate provided on the support frame, a vibration damping rope assembly provided on the vibration damping plate, and a clamping circular frame for clamping the flexible pipe provided at the bottom end of the vibration damping rope assembly; a limit plate provided directly above the vibration damping plate, a telescopic frame provided on the limit plate, a vibration damping tension rope assembly connected to the clamping circular frame provided at the bottom end of the telescopic frame, and a vibration damping limit rope assembly that cooperates with the support base provided on the limit plate;

[0007] The support base is provided with a movable wheel, and the support base is provided with a sliding limiting mechanism that cooperates with the movable wheel. The sliding limiting mechanism includes a limiting seat that is set on the ground and cooperates with the movable wheel. The support base is provided with a sliding limiting component that cooperates with the limiting seat. The limiting seat is provided with a top support stabilizing component that cooperates with the sliding limiting component.

[0008] Furthermore, the shock-absorbing pull rope assembly includes a shock-absorbing groove formed on the shock-absorbing plate, a lifting frame that slides in the shock-absorbing groove, a pull rope plate on the top surface of the lifting frame, a pull rope spring that cooperates with the shock-absorbing plate on the pull rope plate, a through groove on the pull rope plate, a pull rope in the through groove, and a pull rope anchor that cooperates with the pull rope on the pull rope plate.

[0009] Furthermore, two preferred structural designs for the telescopic frame are provided, as follows:

[0010] Firstly, the telescopic frame includes a fixed frame fixedly connected to the limiting plate, a movable frame slidably engaged with the fixed frame, an adjusting screw engaged with the movable frame, and a tension frame engaged with the shock-absorbing tension rope assembly horizontally arranged on the movable frame.

[0011] Secondly, the telescopic frame includes a vertical frame mounted on a limiting plate, a telescopic bracket that slides on the vertical frame, a positioning screw that cooperates with the telescopic bracket, a rotating circular frame at the bottom of the telescopic bracket, an angle bracket on the rotating circular frame, an angle limiting unit that cooperates with the angle bracket on the rotating circular frame, and a tension seat that cooperates with the shock-absorbing tension rope assembly on the angle bracket.

[0012] Furthermore, the clamping circular frame includes two symmetrically arranged clamping semicircular frames. Each clamping semicircular frame is provided with a connecting screw that connects to the other clamping semicircular frame. Each clamping semicircular frame is provided with a plurality of clamping screws that contact the flexible pipe. Each clamping semicircular frame is provided with a connecting fixing frame that connects to the shock-absorbing tension rope assembly or the shock-absorbing pull rope assembly. The connecting fixing frame is provided with a plurality of fixing hooks.

[0013] The structure of the shock-absorbing tension rope assembly is the same as that of the shock-absorbing pull rope assembly; the shock-absorbing limiting rope assembly includes shock-absorbing circular grooves at the four corners of the limiting plate, a shock-absorbing cylinder that cooperates with the shock absorber on the limiting plate, a shock-absorbing sleeve that slides with the shock-absorbing cylinder in the shock-absorbing cylinder, a shock-absorbing ring plate on the shock-absorbing sleeve, a shock-absorbing spring that cooperates with the limiting plate on the shock-absorbing ring plate, a reset hook on the support base, a reset rope that passes through the shock-absorbing circular groove, the shock-absorbing cylinder, and the shock-absorbing sleeve in sequence on the reset hook, and a positioning anchor that cooperates with the reset rope on the shock-absorbing sleeve.

[0014] Furthermore, the sliding limiting component includes a limiting sliding circular groove formed on the limiting seat, the limiting seat is provided with a stabilizing unit that is connected to the ground and cooperates with the top support stabilizing component, a limiting cylinder is provided in the limiting sliding circular groove, a sliding cylinder is coaxially provided on the limiting cylinder, and a plurality of circumferential springs are provided between the sliding cylinder and the limiting cylinder.

[0015] The support base is provided with a limiting and stabilizing frame, the limiting and stabilizing frame is provided with a horizontal support, the horizontal support is provided with a fixed sliding arm that cooperates with the sliding cylinder, and the bottom end of the fixed sliding arm is provided with a movable ball that slides in cooperation with the bottom surface of the limiting sliding groove.

[0016] Furthermore, the top support stabilizing assembly includes a stabilizing frame disposed on the limiting seat, the stabilizing frame being provided with a plurality of top support hydraulic rods, and the telescopic ends of the plurality of top support hydraulic rods being connected to the same top support frame; in use, the top support frame is in contact with the ceiling;

[0017] The stabilizing unit includes a stabilizing plate disposed on the limiting seat, and a fixing screw connected to the ground disposed on the stabilizing plate; a circumferential limiting component that cooperates with the fixed sliding arm is disposed on the stabilizing frame; and an auxiliary stabilizing component that cooperates with the top support stabilizing component is disposed on the shock-absorbing plate.

[0018] Furthermore, the circumferential limiting component includes a limiting frame disposed on the stabilizing plate, the limiting frame having a circumferential frame that contacts the fixed sliding arm, and a plurality of limiting springs disposed between the circumferential frame and the limiting frame.

[0019] The auxiliary stabilizing component includes an auxiliary bracket mounted on the shock-absorbing plate, an auxiliary platform mounted on the auxiliary bracket, a top-supporting hydraulic cylinder mounted on the auxiliary platform, a guide frame mounted on the auxiliary platform, a top-supporting stabilizing frame with sliding cooperation with the guide frame at the telescopic end of the top-supporting hydraulic cylinder, and a plurality of translational ball bearings mounted on the top-supporting stabilizing frame.

[0020] When applied to multiple flexible pipes, multiple limiting plates are provided, and several sets of shock-absorbing pull rope assemblies are provided, with each set of shock-absorbing pull rope assemblies comprising several individual shock-absorbing pull rope assemblies. The number of flexible pipes is consistent with the number of limiting plates. The support frame includes a fixed support frame at one end of the support base and a movable support frame at the other end of the support base. A telescopic expansion rod that cooperates with the shock-absorbing plate is provided on the support base, with both ends of the telescopic expansion rod contacting the support base and the shock-absorbing plate, respectively. The movable support frame includes a stable support seat on the support base, and a movable telescopic frame that contacts the shock-absorbing plate is provided on the stable support seat.

[0021] A method for using a flexible pipe vibration damping support system includes the following steps:

[0022] A: System component preparation and inspection;

[0023] Based on the quantity, size, layout, and installation environment of the flexible pipeline, select appropriate system components such as support base, limiting plate, shock-absorbing rope assembly, shock-absorbing tension rope assembly, clamping round frame, telescopic frame, sliding limiting mechanism, and top support stabilizing assembly, and ensure that each component is intact and functioning properly;

[0024] B: Installation of the support base and sliding limit mechanism;

[0025] B1: Installation of the limit seat;

[0026] Fix the limit seat of the sliding limit mechanism to the ground according to the design requirements to ensure its stability and reliability; B2: Placement of the support base;

[0027] Place the support base on one side of the limiting seat, and ensure that the support base can slide freely within the predetermined track by moving the wheel and engaging with the limiting sliding groove.

[0028] B3: Installation and debugging of the sliding limit assembly;

[0029] Adjust the sliding limit components, such as the limit cylinder, sliding cylinder, circumferential spring, etc., to ensure that they are correctly connected to the fixed sliding arm on the support base, and ensure smooth sliding and effective limiting;

[0030] B4: Installation of the stabilizing unit and top support stabilizing components;

[0031] Install ground stabilization units, such as fixing screws and stabilizing plates, to enhance the connection stability between the limit seat and the ground; operate the top support stabilization components to raise the top support frame and make it contact the ceiling through the top support hydraulic rod, providing downward support force and enhancing the overall stability of the system;

[0032] C: Assembly of shock-absorbing components and clamping components;

[0033] C1: Installation of vibration damping plates;

[0034] Install the damping plate on the support frame, ensuring it is securely connected to the support base;

[0035] C2: Installation of shock-absorbing cable assembly;

[0036] Based on the vibration characteristics of the flexible pipeline, select a suitable shock-absorbing rope assembly structure, install it on the shock-absorbing plate, and adjust the preload of the rope spring or damping spring to ensure the shock absorption effect.

[0037] C3: Installation of limit plate and shock-absorbing tension rope assembly;

[0038] Install the shock-absorbing tension rope assembly on the telescopic frame of the limit plate, and adjust the position of the tension frame or tension seat to ensure that the shock-absorbing tension rope and the shock-absorbing pull rope assembly form a multi-dimensional shock absorption network.

[0039] C4: Installation of the clamping ring and its connection with the above-mentioned components;

[0040] Assemble the clamping round frame, fix the two clamping semi-circular frames together with the connecting screw, and adjust the tightness of the contact between the clamping screw and the flexible pipe to ensure that the pipe is clamped securely;

[0041] The clamping round frame is connected to the shock-absorbing pull rope assembly or shock-absorbing tension rope assembly through the connecting fixing frame and fixing hook to form a complete shock-absorbing support link;

[0042] D: Pipeline installation and positioning;

[0043] Place the flexible pipe inside the pre-installed clamping frame and secure it firmly with the clamping screws; adjust the height and angle of the telescopic frame according to the pipe layout; for multiple pipes, repeat the above steps, installing each pipe on its respective limiting plate and clamping frame to ensure that each pipe receives effective shock absorption support.

[0044] This invention employs a design combining damping plates, damping rope assemblies, and damping tension rope assemblies to form a multi-dimensional, multi-layered damping network. The rope assemblies achieve active or passive damping through spring or hydraulic drive, while the tension rope assemblies adjust the tension angle via a telescopic frame. The combined effect of these two components effectively absorbs and disperses the vibration energy of pipelines at different frequencies and amplitudes, significantly reducing the vibration amplitude of the pipeline.

[0045] The clamping ring in this invention adopts a symmetrical semi-circular clamping structure. Through connecting screws, it can adapt to flexible pipes of different diameters. The clamping screws are in close contact with the pipe, providing uniform clamping force and ensuring the pipe remains stable during vibration. The telescopic frame structure can be flexibly adjusted according to the pipe height and angle requirements, ensuring the pipe is accurately installed and positioned according to design requirements.

[0046] The sliding limiting mechanism of this invention is equipped with movable wheels, facilitating rapid movement and position adjustment of the support system on the construction site. The limiting seat cooperates with the sliding limiting component to restrict the range of movement of the support system, ensuring precise sliding within a preset track. The top support stabilizing component provides additional support through contact with the ceiling, enhancing the overall stability of the system.

[0047] This invention employs a telescopic frame and a sliding limit mechanism, giving the system a degree of flexibility and adjustability. When the pipeline system expands, contracts, or deforms, the support position can be automatically adjusted to ensure the normal operation of the pipeline system.

[0048] This invention's system is suitable for use with single flexible pipes, and can also adapt to the installation needs of multiple pipes by adding or removing limit plates and adjusting the support frame structure. Furthermore, when applicable to multiple flexible pipes, it can be adjusted and expanded according to actual conditions, exhibiting strong applicability and versatility. The support frame includes a fixed support frame, a movable support frame, and telescopic expansion rods, which can be flexibly adjusted according to the number and spacing of pipes, ensuring effective support for flexible pipes of varying numbers and layouts.

[0049] This invention features a wide range of functions and a complex structure, but its design fully considers ease of installation and subsequent maintainability. The modular design of each component facilitates assembly and disassembly; the sliding limit mechanism and top support stabilizing components simplify on-site positioning and fixing; and the clear guidelines for regular inspection and maintenance help extend the system's lifespan and reduce operating costs. Attached Figure Description

[0050] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0051] Figure 2 This is a three-dimensional structural diagram of the support mechanism of the present invention;

[0052] Figure 3This is a three-dimensional structural diagram of the support mechanism of the present invention;

[0053] Figure 4 This is an exploded three-dimensional schematic diagram of the supporting mechanism portion of the present invention;

[0054] Figure 5 This is an enlarged schematic diagram of point A in the present invention;

[0055] Figure 6 This is an exploded three-dimensional schematic diagram of the sliding limiting mechanism of the present invention;

[0056] The attached diagram is labeled as follows: 100, Support base; 110, Support frame; 111, Fixed support frame; 112, Movable support frame; 112-1, Stable support seat; 112-2, Movable telescopic frame; 120, Shock-absorbing plate; 130, Moving wheel; 140, Telescopic expansion rod; 200, Shock-absorbing rope assembly; 210, Shock-absorbing groove; 211, Lifting frame; 212, Rope plate; 213, Rope spring; 214, Rope; 215, Rope anchor; 220, Shock-absorbing frame; 221, Rope sliding frame; 222. 223. Shock-absorbing spring; 300. Cable winch frame; 310. Clamping circular frame; 320. Clamping semi-circular frame; 400. Connecting and fixing frame; 500. Limiting plate; 500. Telescopic frame; 510. Fixing frame; 511. Movable frame; 512. Tension frame; 520. Vertical frame; 521. Telescopic bracket; 522. Rotating circular frame; 523. Angle bracket; 524. Angle limiting unit; 524-1. Rotating disk; 524-2. Rotating shaft; 524-3. Positioning disk; 524-4. Positioning rod; 525. Tension seat; 526. 527. Inclined frame; 600. Shock-absorbing tension rope assembly; 700. Shock-absorbing limiting rope assembly; 710. Shock-absorbing cylinder; 720. Shock-absorbing sleeve; 730. Shock-absorbing ring plate; 740. Shock-absorbing spring; 750. Reset hook; 760. Positioning anchor; 800. Sliding limiting mechanism; 810. Limiting seat; 820. Sliding limiting assembly; 821. Limiting sliding groove; 822. Stabilizing unit; 822-1. Stabilizing plate; 822-2. Fixing screw; 823. Limiting cylinder; 824. Sliding cylinder 825. Cylinder; 826. Circumferential Spring; 827. Limiting and Stabilizing Frame; 828. Horizontal Support; 829. Fixed Sliding Arm; 830. Moving Ball; 831. Top Support Stabilizing Assembly; 832. Stabilizing Frame; 833. Top Support Frame; 840. Circumferential Limiting Assembly; 841. Limiting Frame; 842. Circumferential Frame; 843. Limiting Spring; 850. Auxiliary Stabilizing Assembly; 851. Auxiliary Support; 852. Auxiliary Platform; 854. Top Support Hydraulic Cylinder; 855. Top Support Stabilizing Frame; 856. Translation Ball; Detailed Implementation

[0057] See Figures 1 to 6As shown, a flexible pipe vibration damping support system includes a support base 100, a support frame 110 on the support base 100, a vibration damping plate 120 on the support frame 110, a vibration damping rope assembly 200 on the vibration damping plate 120, and a clamping circular frame 300 for clamping the flexible pipe at the bottom end of the vibration damping rope assembly 200; a limit plate 400 is provided directly above the vibration damping plate 120, a telescopic frame 500 is provided on the limit plate 400, a vibration damping tension rope assembly 600 connected to the clamping circular frame 300 is provided at the bottom end of the telescopic frame 500, and a vibration damping limit rope assembly 700 that cooperates with the support base 100.

[0058] The support base 100 is provided with a movable wheel 130, and the support base 100 is provided with a sliding limiting mechanism 800 that cooperates with the movable wheel 130. The sliding limiting mechanism 800 includes a limiting seat 810 disposed on the ground and cooperating with the movable wheel 130, a sliding limiting component 820 that cooperates with the limiting seat 810, and a top support stabilizing component 830 that cooperates with the sliding limiting component 820 on the limiting seat 810.

[0059] Specifically, the support base 100, serving as the foundation of the entire system, is designed with movable wheels 130, facilitating the system's movement to designated positions according to installation requirements. Simultaneously, the movable wheels 130 cooperate with the ground-based limiting seat 810, achieving stable positioning through a sliding limiting mechanism 800. The sliding limiting component 820 within the sliding limiting mechanism 800 restricts the movement range of the support base 100, ensuring system stability under various operating conditions. The top support stabilizing component 830 provides vertical support force, ensuring the stability of the entire system. The stabilizing unit 822 and auxiliary stabilizing component 850 provide additional stabilizing effects, enhancing system reliability. The support frame 110 is mounted on the support base 100, with a shock-absorbing plate 120 connected to its upper part. The shock-absorbing plate 120 is the part in direct contact with the flexible pipe, designed to absorb and reduce vibrations generated during pipe operation. The shock-absorbing plate 120 is equipped with shock-absorbing pull rope assemblies 200, which clamp the flexible pipe through clamping round frames 300 at their bottom ends, providing vertical support and shock absorption. The limiting plate 400 is located directly above the damping plate 120, and a telescopic frame 500 is mounted on top of it. The tension of the damping tension rope assembly 600, connected to the clamping round frame 300, can be adjusted to adapt to different pipeline support requirements. The design of the telescopic frame 500 allows for fine adjustment of the system's support force on the pipeline, ensuring pipeline stability under various loads. The limiting plate 400 also features a damping limiting rope assembly 700, which, in conjunction with the support base 100, provides additional stability and limits the pipeline's range of motion.

[0060] Two preferred structural designs for the shock-absorbing cable assembly 200 are provided, as follows:

[0061] Firstly, the shock-absorbing pull rope assembly 200 includes a shock-absorbing groove 210 formed on the shock-absorbing plate 120. A lifting frame 211 is provided in the shock-absorbing groove 210 and slides in cooperation with the shock-absorbing groove 210. A pull rope plate 212 is provided on the top surface of the lifting frame 211. A pull rope spring 213 that cooperates with the shock-absorbing plate 120 is provided on the pull rope plate 212. A through groove is provided on the pull rope plate 212. A pull rope 214 is provided in the through groove. A pull rope anchor 215 that cooperates with the pull rope 214 is provided on the pull rope plate 212.

[0062] Secondly, the shock-absorbing rope assembly 200 includes a shock-absorbing frame 220 disposed on the shock-absorbing plate 120. The shock-absorbing frame 220 is provided with a rope sliding frame 221 that slides and cooperates with the shock-absorbing frame 220. The rope sliding frame 221 is provided with a damping spring 222 that cooperates with the shock-absorbing frame 220. The rope sliding frame 221 is provided with a rope winch frame 223. The rope winch frame 223 is provided with a drive winch. The rope winch frame 223 is provided with a drive motor that cooperates with the drive winch.

[0063] Preferably, there are several shock-absorbing pull rope assemblies 200, and these several shock-absorbing pull rope assemblies 200 are connected to the same clamping round frame 300.

[0064] Specifically, the damping plate 120, as a crucial link in the transmission and dissipation of vibration energy, features a damping rope assembly 200 with two structural designs, based on passive spring damping and active motor-driven adjustment principles. In the first design, the rope plate 212 in the damping rope assembly 200 is connected to the damping plate 120 via a rope spring 213. When the flexible pipe vibrates, the rope plate 212 extends and retracts under the action of the spring, absorbing and dissipating vibration energy. The rope 214, through a through-groove and the rope anchor 215, ensures the tension and stability of the rope 214. The second design employs a damping frame 220, a rope sliding frame 221, a damping spring 222, a rope winch frame 223, and a drive motor. The motor controls the tension of the rope 214 to achieve active adjustment of the damping effect. Regardless of the design, the damping rope assembly 200 is connected to the clamping circular frame 300, directly acting on the flexible pipe to absorb and dissipate pipe vibration.

[0065] Preferably, two structural designs for the telescopic frame 500 are provided, as follows:

[0066] The first structure is as follows:

[0067] The telescopic frame 500 includes a fixed frame 510 fixedly connected to the limiting plate 400, a movable frame 511 slidably engaged with the fixed frame 510, an adjusting screw engaged with the movable frame 511, and a tension frame 512 engaged with the shock-absorbing tension rope assembly 600 horizontally arranged on the movable frame 511.

[0068] The second structure is as follows:

[0069] The telescopic frame 500 includes a vertical frame 520 mounted on a limiting plate 400. A telescopic bracket 521 is mounted on the vertical frame 520 and slides with it. A positioning screw is mounted on the vertical frame 520 and engages with the telescopic bracket 521. A rotating circular frame 522 is mounted at the bottom of the telescopic bracket 521. An angle bracket 523 is mounted on the rotating circular frame 522. An angle limiting unit 524 engages with the angle bracket 523 on the rotating circular frame 522. A tension seat 525 engages with the shock-absorbing tension rope assembly 600 on the angle bracket 523.

[0070] Furthermore, the angle limiting unit 524 includes a rotating groove formed in the rotating frame 522. The angle support 523 is provided with a rotating disk 524-1 located in the rotating groove and coaxially arranged with the rotating frame 522. The rotating frame 522 is provided with a rotating shaft 524-2 that cooperates with the rotating disk 524-1. The rotating frame 522 is provided with a positioning disk 524-3 that cooperates with the rotating disk 524-1. The positioning disk 524-3 is provided with a positioning rod 524-4. The rotating disk 524-1 is evenly provided with a plurality of positioning grooves that cooperate with the positioning rods 524-4 along the circumferential direction of the rotating disk 524-1.

[0071] Preferably, the vertical frame 520 is provided with an inclined frame 526 rotatably connected to the vertical frame 520, and the inclined frame 526 is provided with an inclined slide 527 slidably engaged with the inclined frame 526. The end of the inclined slide 527 away from the inclined frame 526 is rotatably connected to the angle bracket 523.

[0072] Specifically, the design of the telescopic support 500 allows for fine adjustment of the tension of the pipe support, and also allows for specific adjustments to the position and height of the limiting plate 400 according to the specific usage environment. The first type of telescopic support 500 adjusts the relative position between the fixed frame 510 and the movable frame 511 by adjusting the screw, while the second type of telescopic support 500 adjusts the direction of the pipe support through the cooperation of the positioning screw and the angle bracket 523. These designs enable the system to adapt to different pipe sizes and installation environments, providing a more flexible support solution.

[0073] Furthermore, the clamping circular frame 300 includes two symmetrically arranged clamping semicircular frames 310. Each clamping semicircular frame 310 is provided with a connecting screw that connects to the other clamping semicircular frame 310. Each clamping semicircular frame 310 is provided with a plurality of clamping screws that contact the flexible pipe. Each clamping semicircular frame 310 is provided with a connecting fixing frame 320 that connects to the shock-absorbing tension rope assembly 600 or the shock-absorbing pull rope assembly 200. The connecting fixing frame 320 is provided with a plurality of fixing hooks.

[0074] The structure of the shock-absorbing tension rope assembly 600 is the same as that of the shock-absorbing pull rope assembly 200; the shock-absorbing limiting rope assembly 700 includes shock-absorbing circular grooves at the four corners of the limiting plate 400, a shock-absorbing cylinder 710 that cooperates with the shock absorber is provided on the limiting plate 400, a shock-absorbing sleeve 720 that slides in cooperation with the shock-absorbing cylinder 710 is provided in the shock-absorbing cylinder 710, a shock-absorbing ring plate 730 is provided on the shock-absorbing ring plate 730, a shock-absorbing spring 740 that cooperates with the limiting plate 400 is provided on the shock-absorbing ring plate 730, a reset hook 750 is provided on the support base 100, a reset rope that passes through the shock-absorbing circular groove, the shock-absorbing cylinder 710, and the shock-absorbing sleeve 720 in sequence is provided on the reset hook 750, and a positioning anchor 760 that cooperates with the reset rope is provided on the shock-absorbing sleeve 720.

[0075] Specifically, the clamping circular frame 300 is composed of two symmetrical clamping semi-circular frames 310 connected by connecting screws. The clamping screws are in close contact with the flexible pipe, and the pipe is stably clamped and fixed by adjusting the tightness of the clamping screws. The structure of the shock-absorbing tension rope assembly 600 is the same as that of the shock-absorbing pull rope assembly 200. Through the tension frame 512 or tension seat 525 that cooperates with the telescopic frame 500, it provides tension support and shock absorption for the flexible pipe from different angles and heights. The shock-absorbing limiting rope assembly 700 constitutes a shock absorption system through components such as the shock-absorbing circular groove, shock-absorbing cylinder 710, shock-absorbing sleeve 720, shock-absorbing spring 740, reset rope, and positioning anchor 760. When the pipe vibration is transmitted to the shock-absorbing plate 120, the shock-absorbing sleeve 720 slides inside the shock-absorbing cylinder 710 under the action of the shock-absorbing spring 740, absorbing the vibration energy again. The reset rope and positioning anchor 760 ensure that the shock-absorbing sleeve 720 can return to its initial position after vibration.

[0076] Furthermore, the sliding limiting component 820 includes a limiting sliding circular groove 821 formed on the limiting seat 810. The limiting seat 810 is provided with a stabilizing unit 822 that is connected to the ground and cooperates with the top support stabilizing component 830. A limiting cylinder 823 is provided in the limiting sliding circular groove 821. A sliding cylinder 824 is coaxially provided on the limiting cylinder 823. A plurality of circumferential springs 825 are provided between the sliding cylinder 824 and the limiting cylinder 823.

[0077] The support base 100 is provided with a limiting and stabilizing frame 826, and a horizontal support 827 is provided on the limiting and stabilizing frame. A fixed sliding arm 828 that cooperates with the sliding cylinder 824 is provided on the horizontal support 827. A movable ball 829 that slides with the bottom surface of the limiting sliding groove 821 is provided at the bottom end of the fixed sliding arm 828.

[0078] Furthermore, the top support stabilizing component 830 includes a stabilizing frame 831 disposed on the limiting seat 810, and a plurality of top support hydraulic rods 832 disposed on the stabilizing frame 831, and the telescopic ends of the plurality of top support hydraulic rods 832 are connected to the same top support frame 833; in use, the top support frame 833 is in contact with the ceiling.

[0079] The stabilizing unit 822 includes a stabilizing plate 822-1 disposed on the limiting seat 810, and a fixing screw 822-2 connected to the ground disposed on the stabilizing plate 822-1; a circumferential limiting component 840 cooperating with the fixed sliding arm 828 is disposed on the stabilizing frame 831; and an auxiliary stabilizing component 850 cooperating with the top support stabilizing component 830 is disposed on the shock-absorbing plate 120.

[0080] Furthermore, the circumferential limiting component 840 includes a limiting frame 841 disposed on the stabilizing plate 822-1, a circumferential frame 842 in the limiting frame 841 that contacts the fixed sliding arm 828, and a plurality of limiting springs 843 disposed between the circumferential frame 842 and the limiting frame 841.

[0081] The auxiliary stabilizing component 850 includes an auxiliary bracket 851 disposed on the shock-absorbing plate 120, an auxiliary platform 852 disposed on the auxiliary bracket 851, a top-supporting hydraulic cylinder 854 disposed on the auxiliary platform 852, a guide frame disposed on the auxiliary platform 852, a top-supporting stabilizing frame 855 disposed at the telescopic end of the top-supporting hydraulic cylinder 854 and slidingly cooperating with the guide frame, and a plurality of translational ball bearings 856 disposed on the top-supporting stabilizing frame 855.

[0082] Preferably, two sets of sliding limiting mechanisms 800 are provided, and the two sets of sliding limiting mechanisms 800 are respectively located at both ends of the support base 100.

[0083] Specifically, the sliding limit mechanism 800 is a key component of the flexible pipeline vibration damping support system. Its main responsibility is to enable flexible movement and precise positioning of the support system, ensuring stability and effective vibration damping when dealing with vibrations in the flexible pipeline. The sliding limit mechanism 800 first contacts the ground via movable wheels 130 mounted on the support base 100. Utilizing the rolling characteristics of the wheels, the support system can be easily moved and repositioned on the construction site. The movable wheels 130 reduce frictional resistance between the system and the ground, allowing operators to push or pull the support system relatively easily for rapid deployment when needed. To prevent disorderly movement of the support system due to vibration or other factors during operation, the sliding limit mechanism 800 is equipped with a limit seat 810 that cooperates with the movable wheels 130. The limit seat 810 is fixed to the ground, defining a clear path and range for the movement of the movable wheels 130. The limit seat 810 interacts with the sliding limit component 820 on the support base 100, restricting the sliding of the support system on the preset track and ensuring it does not deviate from the designated working area.

[0084] Furthermore, a limiting sliding groove 821 is formed on the limiting seat 810, providing a fixed sliding track for the sliding cylinder 824, ensuring that the support base 100 can only move along a preset path. The limiting cylinder 823 is fixed within the limiting sliding groove 821, and the sliding cylinder 824 is coaxially arranged within it and can slide freely within the limiting cylinder 823. A fixed sliding arm 828 on the support base 100 is connected to the sliding cylinder 824. When the support system moves, the sliding cylinder 824 slides synchronously within the limiting cylinder 823, achieving precise guidance of the movement of the support base 100. A circumferential spring 825 is disposed between the limiting cylinder 823 and the sliding cylinder 824, forming concentric elastic constraints. When the support system is subjected to vibration or external force causing a small displacement, the circumferential spring 825 absorbs some energy through elastic deformation and provides a restoring force, causing the sliding cylinder 824 to automatically return to the center position, maintaining the stability of the support system.

[0085] To further enhance the stability of the support system, the sliding limit mechanism 800 is also equipped with a top support stabilizing component 830. The top support stabilizing component 830 includes a stabilizing frame 831, a top support hydraulic rod 832, and a top support bracket 833. In use, the telescopic end of the top support hydraulic rod 832 pushes the top support bracket 833 into contact with the ceiling, creating a downward supporting force. This, together with the ground-based limit seat 810, forms a double-layer support, effectively resisting system displacement caused by pipe vibration. Simultaneously, the ground-based limit seat 810 is equipped with a fixing screw 822-2 connected to the ground to ensure the stable installation of the limit seat 810. Meanwhile, the limiting seat 810 is also equipped with a circumferential limiting component 840, such as a limiting frame 841, a circumferential frame 842, and a limiting spring 843. These components cooperate with the fixed sliding arm 828 on the support base 100. The elastic action of the limiting spring 843 restricts the circumferential rotation of the fixed sliding arm 828, preventing unnecessary rotation of the support system during operation and ensuring that it always maintains the correct operating posture.

[0086] In summary, the sliding limit mechanism 800 facilitates the movement of the support system via the movable wheels 130, achieves precise system positioning and vibration control through the limit seat 810 and sliding limit component 820, enhances system stability through the top support stabilizing component 830 and the ground stabilizing unit 822, and prevents unnecessary rotation of the system through the fixing screw 822-2 and the circumferential limit component 840. This series of designs together constitutes a highly efficient and stable sliding limit system, ensuring that the flexible pipe vibration damping support system can accurately and effectively suppress the vibration of flexible pipes in building HVAC engineering.

[0087] The support system described above can be used for a single flexible pipe or for multiple flexible pipes.

[0088] When used with multiple flexible pipes, multiple limiting plates 400 are provided, and several sets of shock-absorbing pull rope assemblies 200 are provided, with each set of shock-absorbing pull rope assemblies 200 including several individual shock-absorbing pull rope assemblies 200. The number of flexible pipes is the same as the number of limiting plates 400. The support frame 110 includes a fixed support frame 111 located at one end of the support base 100, and a movable support frame 112 located at the other end of the support base 100. A telescopic expansion rod 140 that cooperates with the shock-absorbing plate 120 is provided on the support base 100, with both ends of the telescopic expansion rod 140 contacting the support base 100 and the shock-absorbing plate 120, respectively. The movable support frame 112 includes a stable support seat 112-1 located on the support base 100, and a movable telescopic frame 112-2 that contacts the shock-absorbing plate 120 is provided on the stable support seat 112-1.

[0089] Specifically, the flexible pipe vibration damping support system has been specially designed and optimized for use with multiple flexible pipes to ensure that it can maintain good vibration damping effect, adaptability and stability when dealing with parallel arrangement of multiple pipes or installation in complex spaces.

[0090] When applied to multiple flexible pipes, the system is equipped with multiple limiting plates 400, each corresponding to one flexible pipe, forming multi-point support. Each limiting plate 400 is equipped with a corresponding shock-absorbing pull rope assembly 200 and a shock-absorbing tension rope assembly 600. These components are connected to the corresponding clamping round frame 300 to provide independent shock-absorbing support for each pipe. This design ensures precise control of the vibration of each pipe, avoids mutual interference between the vibrations of multiple pipes, and enhances the overall shock absorption effect. In addition, the support frame 110 structure is adjusted according to the arrangement requirements of multiple pipes, including a fixed support frame 111 at one end of the support base 100 and a movable support frame 112 at the other end. The fixed support frame 111 provides a stable support foundation, while the movable support frame 112 can be flexibly adjusted according to the pipe layout to ensure that all pipes are effectively supported. In addition, a telescopic expansion rod 140 is added to the support base 100 to cooperate with the damping plate 120. The two ends of the rod are in contact with the support base 100 and the damping plate 120 respectively. The support area and strength can be dynamically adjusted according to the number and spacing of pipes to adapt to different numbers and layouts of flexible pipes.

[0091] A method for using a flexible pipe vibration damping support system includes the following steps:

[0092] A: System component preparation and inspection;

[0093] Based on the quantity, size, layout and installation environment of the flexible pipes, select appropriate system components such as support base 100, limiting plate 400, shock-absorbing rope assembly 200, shock-absorbing tension rope assembly 600, clamping round frame 300, telescopic frame 500, sliding limiting mechanism 800, and top support stabilizing assembly 830, and ensure that each component is intact and functioning normally.

[0094] B: Installation of the support base 100 and the sliding limit mechanism 800;

[0095] B1: Installation of limit seat 810;

[0096] The limiting seat 810 of the sliding limiting mechanism 800 is fixed on the ground according to the design requirements to ensure its stability and reliability;

[0097] B2: Placement of support base 100;

[0098] The support base 100 is placed on one side of the limiting seat 810, and the moving wheel 130 is engaged with the limiting sliding groove 821 to ensure that the support base 100 can slide freely within the predetermined track.

[0099] B3: Installation and debugging of the sliding limit assembly;

[0100] Adjust the sliding limit components 820, such as the limit cylinder 823, the sliding cylinder 824, and the circumferential spring 825, to ensure that they are correctly connected to the fixed sliding arm 828 on the support base 100, and to ensure smooth sliding and effective limiting.

[0101] B4: Installation of stabilizing unit 822 and top support stabilizing assembly 830;

[0102] Install ground stabilization unit 822, such as fixing screw 822-2, stabilization plate 822-1, etc., to enhance the connection stability between limit seat 810 and the ground; operate top support stabilization component 830, and raise top support frame 833 to contact the ceiling through top support hydraulic rod 832 to provide downward support force and enhance the overall stability of the system;

[0103] C: Assembly of shock-absorbing components and clamping components;

[0104] C1: Installation of 120mm shock absorber plate;

[0105] Install the damping plate 120 on the support frame 110, ensuring that it is firmly connected to the support base 100;

[0106] C2: Installation of shock-absorbing cable assembly 200;

[0107] Based on the vibration characteristics of the flexible pipeline, select a suitable shock-absorbing pull rope assembly 200 structure, install it on the shock-absorbing plate 120, and adjust the preload of the pull rope spring 213 or the damping spring 222 to ensure the shock absorption effect.

[0108] C3: Installation of limit plate 400 and shock-absorbing tension rope assembly 600;

[0109] Install the shock-absorbing tension rope assembly 600 on the telescopic frame 500 of the limiting plate 400, and adjust the position of the tension frame 512 or tension seat 525 to ensure that the shock-absorbing tension rope and the shock-absorbing pull rope assembly 200 form a multi-dimensional shock absorption network.

[0110] C4: Installation of the clamping round frame 300 and its connection with the above-mentioned components;

[0111] Assemble the clamping round frame 300, fix the two clamping semi-circular frames 310 together by connecting screws, and adjust the tightness of the contact between the clamping screws and the flexible pipe to ensure that the pipe is clamped securely;

[0112] The clamping round frame 300 is connected to the shock-absorbing pull rope assembly 200 or the shock-absorbing tension rope assembly 600 through the connecting fixing frame 320 and the fixing hook to form a complete shock-absorbing support link;

[0113] D: Pipeline installation and positioning;

[0114] The flexible pipe is placed inside the pre-installed clamping ring 300 and firmly clamped by the clamping screws.

[0115] According to the pipeline layout, adjust the height and angle of the telescopic bracket 500; specifically, when using the first structure, adjust the height of the movable bracket 511 by adjusting the screw; when using the second structure, adjust the telescopic bracket 521, the positioning screw, the rotating round bracket 522, the angle bracket 523, etc., to ensure that the pipeline is positioned at the designed angle.

[0116] For multiple pipes, repeat the above steps, installing each pipe on its respective limiting plate 400 and clamping round frame 300 to ensure that each pipe receives effective shock absorption support.

[0117] E: System fine-tuning and testing;

[0118] Check that all pipes are securely clamped to the clamping ring 300, and that the shock-absorbing pull rope assembly 200 and the shock-absorbing tension rope assembly 600 are correctly connected and provide appropriate tension;

[0119] Simulate pipe vibration manually or with the aid of tools, observe the system's vibration reduction effect, and if necessary, fine-tune the preload of the vibration reduction components, the height / angle of the telescopic frame, etc., to optimize the vibration reduction performance.

[0120] Ensure that components such as the sliding limit mechanism 800 and the top support stabilizing component 830 are working properly, and that the system as a whole is stable and free from shaking.

[0121] F: System commissioning and maintenance;

[0122] After the system is installed and debugged, start the HVAC system and observe the vibration of the flexible pipes during operation to confirm that the vibration damping support system is working properly.

[0123] Regularly check the tightness of each component, the wear condition of the shock-absorbing elements, and the operating status of the sliding limit mechanism 800, and perform maintenance or replacement in a timely manner;

[0124] If the pipeline layout is adjusted or new pipelines are added, make the corresponding adjustments and additions according to the above steps to ensure the continuous and effective operation of the vibration damping support system.

[0125] The technical features of this invention not described can be implemented by or using existing technology, and will not be repeated here. Of course, the above description is not a limitation of this invention, and this invention is not limited to the examples above. Any changes, modifications, additions or substitutions made by those skilled in the art within the scope of this invention should also be within the protection scope of this invention.

Claims

1. A flexible pipe vibration damping support system, characterized in that: It includes a support base (100), on which a support frame (110) is provided, on which a shock-absorbing plate (120) is provided, on which a shock-absorbing pull rope assembly (200) is provided, and at the bottom end of the shock-absorbing pull rope assembly (200) is a clamping round frame (300) for clamping flexible pipes. A limiting plate (400) is provided directly above the damping plate (120), and a telescopic frame (500) is provided on the limiting plate (400). A damping tension rope assembly (600) connected to the clamping round frame (300) is provided at the bottom end of the telescopic frame (500), and a damping limiting rope assembly (700) that cooperates with the support base (100) is provided on the limiting plate (400). The telescopic frame (500) includes a vertical frame (520) mounted on the limiting plate (400), a telescopic bracket (521) that slides with the vertical frame (520) on the vertical frame (520), a positioning screw that cooperates with the telescopic bracket (521) on the vertical frame (520), a rotating round frame (522) at the bottom end of the telescopic bracket (521), an angle bracket (523) on the rotating round frame (522), an angle limiting unit (524) that cooperates with the angle bracket (523) on the rotating round frame (522), and a tension seat (525) that cooperates with the shock-absorbing tension rope assembly (600) on the angle bracket (523). The clamping round frame (300) includes two symmetrically arranged clamping semicircular frames (310). The clamping semicircular frames (310) are provided with a connecting fixing frame (320) that is connected to the shock-absorbing tension rope assembly (600) or the shock-absorbing pull rope assembly (200). The connecting fixing frame (320) is provided with a plurality of fixing hooks. The support base (100) is provided with a movable wheel (130), and the support base (100) is provided with a sliding limiting mechanism (800) that cooperates with the movable wheel (130). The sliding limiting mechanism (800) includes a limiting seat (810) that is disposed on the ground and cooperates with the movable wheel (130). The support base (100) is provided with a sliding limiting component (820) that cooperates with the limiting seat (810), and the limiting seat (810) is provided with a top support stabilizing component (830) that cooperates with the sliding limiting component (820).

2. The flexible pipe vibration damping support system as described in claim 1, characterized in that: The shock-absorbing pull rope assembly (200) includes a shock-absorbing groove (210) formed on the shock-absorbing plate (120). A lifting frame (211) is provided in the shock-absorbing groove (210) and slides in cooperation with the shock-absorbing groove (210). A pull rope plate (212) is provided on the top surface of the lifting frame (211). A pull rope spring (213) is provided on the pull rope plate (212) and cooperates with the shock-absorbing plate (120). A through groove is provided on the pull rope plate (212) and a pull rope (214) is provided in the through groove. A pull rope anchor (215) is provided on the pull rope plate (212) and cooperates with the pull rope (214).

3. The flexible pipe vibration damping support system as described in claim 1, characterized in that: The angle limiting unit (524) includes a rotating groove formed in the rotating frame (522). The angle support (523) is provided with a rotating disk (524-1) located in the rotating groove and coaxially arranged with the rotating frame (522). The rotating frame (522) is provided with a rotating shaft (524-2) that cooperates with the rotating disk (524-1). The rotating frame (522) is provided with a positioning disk (524-3) that cooperates with the rotating disk (524-1). The positioning disk (524-3) is provided with a positioning rod (524-4). The rotating disk (524-1) is evenly provided with a plurality of positioning grooves that cooperate with the positioning rods (524-4) along its circumference.

4. The flexible pipe vibration damping support system as described in claim 1, characterized in that: The clamping semicircular frame (310) is provided with a connecting screw that connects to another clamping semicircular frame (310), and the clamping semicircular frame (310) is provided with a plurality of clamping screws that are in contact with the flexible pipe. The structure of the shock-absorbing tension rope assembly (600) is the same as that of the shock-absorbing pull rope assembly (200); The shock-absorbing and limiting rope assembly (700) includes shock-absorbing circular grooves at the four corners of the limiting plate (400). The limiting plate (400) is provided with a shock-absorbing cylinder (710) that cooperates with the shock-absorbing circular groove. The shock-absorbing cylinder (710) is provided with a shock-absorbing sleeve (720) that slides with the shock-absorbing cylinder (710). The shock-absorbing sleeve (720) is provided with a shock-absorbing ring plate (730). The shock-absorbing ring plate (730) is provided with a shock-absorbing spring (740) that cooperates with the limiting plate (400). The support base (100) is provided with a reset hook (750). The reset hook (750) is provided with a reset rope that passes through the shock-absorbing circular groove, the shock-absorbing cylinder (710), and the shock-absorbing sleeve (720) in sequence. The shock-absorbing sleeve (720) is provided with a positioning anchor (760) that cooperates with the reset rope.

5. The flexible pipe vibration damping support system as described in claim 1, characterized in that: The sliding limiting assembly (820) includes a limiting sliding groove (821) formed on the limiting seat (810). The limiting seat (810) is provided with a stabilizing unit (822) that is connected to the ground and cooperates with the top support stabilizing assembly (830). A limiting cylinder (823) is provided in the limiting sliding groove (821). A sliding cylinder (824) is coaxially provided on the limiting cylinder (823). A plurality of circumferential springs (825) are provided between the sliding cylinder (824) and the limiting cylinder (823). The support base (100) is provided with a limiting and stabilizing frame (826), and a horizontal support (827) is provided on the limiting and stabilizing frame (826). A fixed sliding arm (828) that cooperates with the sliding cylinder (824) is provided on the horizontal support (827). A movable ball (829) that slides and cooperates with the bottom surface of the limiting sliding groove (821) is provided at the bottom end of the fixed sliding arm (828).

6. The flexible pipe vibration damping support system as described in claim 5, characterized in that: The top support stabilizing assembly (830) includes a stabilizing frame (831) disposed on the limiting seat (810), and a plurality of top support hydraulic rods (832) are disposed on the stabilizing frame (831), and the telescopic ends of the plurality of top support hydraulic rods (832) are connected to the same top support frame (833); in use, the top support frame (833) is in contact with the ceiling; The stabilizing unit (822) includes a stabilizing plate (822-1) disposed on the limiting seat (810), and a fixing screw (822-2) connected to the ground is disposed on the stabilizing plate (822-1); a circumferential limiting component (840) cooperating with the fixed sliding arm (828) is disposed on the stabilizing frame (831); and an auxiliary stabilizing component (850) cooperating with the top support stabilizing component (830) is disposed on the shock-absorbing plate (120).

7. A flexible pipe vibration damping support system as described in claim 6, characterized in that: The circumferential limiting component (840) includes a limiting frame (841) disposed on the stabilizing plate (822-1), wherein a circumferential frame (842) is disposed in the limiting frame (841) and contacts the fixed sliding arm (828), and a plurality of limiting springs (843) are disposed between the circumferential frame (842) and the limiting frame (841). The auxiliary stabilizing component (850) includes an auxiliary bracket (851) disposed on the damping plate (120), an auxiliary platform (852) disposed on the auxiliary bracket (851), a top support hydraulic cylinder (854) disposed on the auxiliary platform (852), a guide frame disposed on the auxiliary platform (852), a top support stabilizing frame (855) that slides with the guide frame is disposed at the telescopic end of the top support hydraulic cylinder (854), and a plurality of translational ball bearings (856) are disposed on the top support stabilizing frame (855).

8. The flexible pipe vibration damping support system as described in claim 1, characterized in that: Multiple limiting plates (400) are provided, and several sets of shock-absorbing pull rope assemblies (200) are provided, with each set of shock-absorbing pull rope assemblies (200) including several individual shock-absorbing pull rope assemblies (200); the number of flexible pipes is the same as the number of limiting plates (400), and the support frame (110) includes a fixed support frame (111) provided at one end of the support base (100), and a movable support frame (112) provided at the other end of the support base (100). The support base (100) is provided with a telescopic expansion rod (140) that cooperates with the shock absorber plate (120). The two ends of the telescopic expansion rod (140) are in contact with the support base (100) and the shock absorber plate (120) respectively. The movable support frame (112) includes a stable support seat (112-1) provided on the support base (100). The stable support seat (112-1) is provided with a movable telescopic frame (112-2) that is in contact with the shock absorber plate (120).

9. The method of using a flexible pipe vibration damping support system as described in claim 1, characterized in that, Includes the following steps: A: System component preparation and inspection; Based on the quantity, size, layout and installation environment of the flexible pipes, select the support base, limit plate, shock-absorbing rope assembly, shock-absorbing tension rope assembly, clamping round frame, telescopic frame and sliding limit mechanism, and ensure that each component is intact and in normal working order. B: Installation of the support base and sliding limit mechanism; B1: Installation of the limit seat; Fix the limit seat of the sliding limit mechanism to the ground according to the design requirements to ensure its stability and reliability; B2: Placement of the support base; Place the support base on one side of the limiting seat, and ensure that the support base can slide freely within the predetermined track by moving the wheel and engaging with the limiting sliding groove. B3: Installation and debugging of the sliding limit component; Adjust the limiting cylinder, sliding cylinder, and circumferential spring in the sliding limit assembly to ensure proper connection with the fixed sliding arm on the support base, and ensure smooth sliding and effective limiting. B4: Installation of the stabilizing unit and top support stabilizing components; Install a stabilizing unit including a stabilizing plate and fixing screws to enhance the connection stability between the limit seat and the ground; operate the top support stabilizing assembly to raise the top support frame and contact the ceiling through the top support hydraulic rod, providing downward support force and enhancing the overall stability of the system; C: Assembly of shock-absorbing components and clamping components; C1: Installation of vibration damping plates; Install the damping plate on the support frame, ensuring it is securely connected to the support base; C2: Installation of shock-absorbing cable assembly; Based on the vibration characteristics of the flexible pipeline, select a suitable shock-absorbing rope assembly structure, install it on the shock-absorbing plate, and adjust the preload of the rope spring or damping spring to ensure the shock absorption effect. C3: Installation of limit plate and shock-absorbing tension rope assembly; Install the shock-absorbing tension rope assembly on the telescopic frame of the limit plate, and adjust the position of the tension frame or tension seat to ensure that the shock-absorbing tension rope and the shock-absorbing pull rope assembly form a multi-dimensional shock absorption network. C4: Installation of the clamping frame and connection to the shock-absorbing pull rope assembly or shock-absorbing tension rope assembly; Assemble the clamping round frame, fix the two clamping semi-circular frames together with the connecting screw, and adjust the tightness of the contact between the clamping screw and the flexible pipe to ensure that the pipe is clamped securely; The clamping round frame is connected to the shock-absorbing pull rope assembly or shock-absorbing tension rope assembly through the connecting fixing frame and fixing hook to form a complete shock-absorbing support link; D: Pipeline installation and positioning; Place the flexible pipe inside the pre-installed clamping frame and secure it firmly with the clamping screws; adjust the height and angle of the telescopic frame according to the pipe layout; for multiple pipes, repeat the above steps, installing each pipe on its respective limiting plate and clamping frame to ensure that each pipe receives effective shock absorption support.

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