Temporary supporting device for pipeline

Abstract

The utility model relates to the technical field of pipeline supporting, in particular to a pipeline temporary supporting device which comprises a supporting base, a supporting inclined frame is arranged on the supporting base, a cushioning support is arranged at the top end of the supporting inclined frame, and a pipeline clamping frame used for clamping a pipeline is arranged under the cushioning support. A cushioning pull rope assembly matched with the pipeline clamping frame is arranged on the cushioning support, and a cushioning supporting assembly connected with the pipeline clamping frame and matched with the cushioning pull rope assembly is arranged on the supporting base. Through cooperative work of all the parts, the stability problem of the pipeline in the construction or maintenance period is solved, damage to the pipeline due to external force or vibration is reduced, and construction safety and efficiency are improved. And meanwhile, through the adjustable design, the device can adapt to pipelines of different specifications and installation angles, and good universality and practicability are achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of pipeline support, in particular to a temporary pipeline support device. Background Art

[0002] In the field of construction and pipeline engineering, pipelines are key components of fluid transmission, energy distribution and process control. The stability and safety of pipelines during installation, maintenance and temporary storage have always been the focus of attention of engineers. With the continuous expansion of the scale of modern buildings and the increasing complexity of pipeline systems, the requirements for pipeline support devices are also getting higher and higher.

[0003] Traditional pipeline support devices often adopt fixed or simple adjustable designs. Although they can meet basic support needs to a certain extent, their limitations gradually become apparent when faced with complex and changeable construction environments and operating conditions. For example, during the construction of high-rise buildings or complex structures, pipelines need to frequently adjust their positions and directions, and traditional support devices are unable to cope with the flexibility and adaptability. At the same time, under the influence of natural disasters such as earthquakes and wind loads or vibrations generated during equipment operation, traditional support devices often find it difficult to provide sufficient shock absorption effects, causing pipelines to be easily displaced, deformed, or even damaged. In addition, with the diversification of pipeline materials, diameters, and conveying media, higher requirements are placed on the bearing capacity and compatibility of support devices. Traditional support devices often have limitations in bearing capacity and scope of application, making it difficult to meet all types of pipeline support needs.

[0004] How to solve the above technical problems is the subject faced by the present utility model. Summary of the invention

[0005] In order to solve the shortcomings of the existing technology, the utility model provides a reasonably designed, safe and reliable temporary support device for pipelines. By cleverly combining multiple mechanical fixing means and elastic body shock absorbing technology, it not only achieves effective fixation of the pipeline, but also significantly improves the system's ability to cope with various adverse conditions. Each component has a specific functional role, which not only ensures construction safety but also prolongs the service life of the pipeline.

[0006] The technical solution adopted by the utility model to solve the technical problem is: a temporary pipe support device, including a support base, a support inclined frame is arranged on the support base, a shock absorbing bracket is arranged at the top of the support inclined frame, a pipe clamping frame for clamping the pipe is arranged directly below the shock absorbing bracket, a shock absorbing rope assembly matched with the pipe clamping frame is arranged on the shock absorbing bracket, and a shock absorbing support assembly connected with the pipe clamping frame and matched with the shock absorbing rope assembly is arranged on the support base;

[0007] The pipe clamping bracket includes two symmetrically arranged clamping semi - frames. A docking screw for connecting to the other clamping semi - frame is provided on the clamping semi - frame. A clamping frame cooperating with the shock - absorbing rope assembly is provided on one of the clamping semi - frames, and a support rod cooperating with the shock - absorbing support assembly is provided on the other clamping semi - frame.

[0008] Preferably, two structural designs of the shock - absorbing rope assembly are provided, specifically as follows:

[0009] Firstly, the shock - absorbing rope assembly includes a shock - absorbing chute opened in the shock - absorbing bracket. A shock - absorbing slide frame that is slidably engaged with the shock - absorbing chute and fixedly connected to one end of the shock - absorbing rope is provided in the shock - absorbing bracket. Shock - absorbing springs cooperating with the shock - absorbing bracket are provided at both ends of the shock - absorbing slide frame. One end of the shock - absorbing rope is connected to the pipe clamping bracket.

[0010] Preferably, a guide rod cooperating with the shock - absorbing slide frame is provided on the shock - absorbing bracket, and the shock - absorbing spring is sleeved on the guide rod.

[0011] Secondly, the shock - absorbing rope assembly includes a shock - absorbing plate provided at one end of the shock - absorbing bracket. A shock - absorbing groove is opened on the shock - absorbing plate, and a shock - absorbing frame slidably engaged with the shock - absorbing groove is provided in the shock - absorbing groove;

[0012] A shock - absorbing hook cooperating with the pull rope is provided on the shock - absorbing frame. A sliding plate located in the shock - absorbing bracket is provided on the shock - absorbing frame, and a plurality of shock - absorbing springs cooperating with the shock - absorbing plate are provided on the sliding plate.

[0013] The shock - absorbing support assembly includes a shock - absorbing base provided on the support base. A shock - absorbing cylinder is provided on the shock - absorbing base. A support spring is sleeved on the shock - absorbing cylinder. A vertical shock - absorbing rod is provided in the shock - absorbing cylinder. A shock - absorbing connection seat cooperating with the support spring is provided at the top of the vertical shock - absorbing rod. A connection cylinder for connecting to the support rod is provided on the shock - absorbing connection seat, and a connection screw cooperating with the support rod is provided in the connection cylinder.

[0014] Preferably, a circumferential shock - absorbing cylinder cooperating with the vertical shock - absorbing rod is provided in the shock - absorbing cylinder, and a plurality of circumferential springs are provided between the circumferential shock - absorbing cylinder and the shock - absorbing cylinder.

[0015] Preferably, a plurality of shock - absorbing support assemblies are provided, and a plurality of support rods are provided, and the shock - absorbing support assemblies and the support rods are arranged in one - to - one correspondence.

[0016] An anti-seismic cable component that mates with the pipeline is provided in the pipeline clamping bracket. The anti-seismic cable unit includes a vibration isolation ring bracket connected to the clamping semi-circular bracket. An anti-seismic ring cylinder is sleeved on the pipeline. Vibration isolation screws that mate with the pipeline are provided on the anti-seismic ring cylinder. A number of anti-seismic cables are evenly arranged along the circumferential direction of the anti-seismic ring bracket.

[0017] Preferably, two groups of the anti-seismic cable components are provided, and the two groups of anti-seismic cable components are respectively located at both ends of the pipeline clamping bracket.

[0018] Preferably, the support base and the support inclined frame are integrally formed.

[0019] The utility model is flexibly designed and can adapt to pipelines of different diameters, materials and shapes, meeting diverse pipeline support requirements. The adjustable design of the support inclined frame and the pipeline clamping bracket enables the device to easily cope with the position and direction changes of the pipeline during installation, transportation or maintenance, improving construction efficiency and convenience.

[0020] The utility model integrates a shock-absorbing cable component and a shock-absorbing support component. Through the effective cooperation of elastic elements such as shock-absorbing springs and circumferential springs, it can significantly absorb and disperse the energy generated by external forces on the pipeline, effectively protecting the pipeline from damage. The addition of the anti-seismic cable component further enhances the shock-absorbing performance of the device, ensuring the stable operation of the pipeline under extreme working conditions.

[0021] Through the shock-absorbing cylinder and the vertical shock-absorbing rod and shock-absorbing spring inside it, as well as the circumferential shock-absorbing cylinder and circumferential spring, the entire system can effectively absorb and disperse the vibration energy transmitted from the ground. This multi-layer shock-absorbing mechanism significantly reduces the impact of earthquakes or other strong vibrations on the pipeline, ensuring the safe operation of the pipeline under extreme conditions. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 is a three-dimensional structure diagram of the utility model from the first perspective.

[0023] Figure 2 is a three-dimensional structure diagram of the utility model from the second perspective.

[0024] Figure 3 is an enlarged view of part A of the utility model.

[0025] Among them, the attached drawing reference numerals are: 100, support base; 200, support inclined frame; 300, shock absorption support; 400, pipe clamping frame; 410, clamping semi-circular frame; 420, docking screw; 430, clamping frame; 440, support rod; 500, shock absorption cable assembly; 510, shock absorption chute; 511, shock absorption sliding frame; 512, shock absorption spring; 513, shock absorption cable; 514, guide rod; 520, shock absorption plate; 521, shock absorption frame; 522, sliding plate; 523, shock absorption spring; 600, shock absorption support assembly; 610, shock absorption base; 620, shock absorption cylinder; 630, support spring; 640, vertical shock absorption rod; 650, shock absorption connection seat; 660, connection cylinder; 670, connection screw; 680, circumferential shock absorption cylinder; 690, circumferential spring; 700, vibration isolation cable assembly; 710, vibration isolation ring frame; 720, vibration isolation cable; 730, vibration isolation screw. Specific embodiments

[0026] See Figures 1 to 3 As shown, a temporary pipe support device includes a support base 100, a support inclined frame 200 is arranged on the support base 100, a shock absorption support 300 is arranged at the top of the support inclined frame 200, a pipe clamping frame 400 for clamping the pipe is arranged directly below the shock absorption support 300, a shock absorption cable assembly 500 cooperating with the pipe clamping frame 400 is arranged on the shock absorption support 300, and a shock absorption support assembly 600 connected to the pipe clamping frame 400 and cooperating with the shock absorption cable assembly 500 is arranged on the support base 100;

[0027] The pipe clamping frame 400 includes two symmetrically arranged clamping semi-circular frames 410, a docking screw 420 connecting to the other clamping semi-circular frame 410 is arranged on the clamping semi-circular frame 410, a clamping frame 430 cooperating with the shock absorption cable assembly 500 is arranged on one of the clamping semi-circular frames 410, and a support rod 440 cooperating with the shock absorption support assembly 600 is arranged on the other clamping semi-circular frame 410.

[0028] Specifically, the support base 100 serves as the foundation of the entire device, providing a stable support point to ensure that the pipeline can remain stable during construction or maintenance. The support inclined frame 200 is connected to the support base 100 at a certain angle to adapt to the installation angle and position of the pipeline and provide structural support. The shock-absorbing bracket 300 is located at the top of the support inclined frame 200 and is used to install the shock-absorbing cable assembly 500 to reduce the vibration and impact generated by the pipeline due to external forces. The pipeline clamping frame 400 forms a complete pipeline clamping structure for fixing and supporting the pipeline. The design of the clamping frame 430 allows the pipeline to be fixed and released when needed. The shock-absorbing cable assembly 500 absorbs the energy generated by the external shock or vibration of the pipeline to protect the pipeline from damage. The shock-absorbing support assembly 600 is located on the support base 100 to further enhance the seismic performance of the entire system, providing an additional layer of vibration isolation, especially having a good inhibitory effect on the vibration transmitted from the ground upwards.

[0029] Preferably, two structural designs of the shock-absorbing cable assembly 500 are provided, which are specifically as follows:

[0030] First, the shock-absorbing cable assembly 500 includes a shock-absorbing chute 510 opened in the shock-absorbing bracket 300, and a shock-absorbing carriage 511 that is arranged in the shock-absorbing bracket 300 and is slidably matched with the shock-absorbing chute 510 and fixedly connected to one end of the shock-absorbing cable 513. Shock-absorbing springs 512 that cooperate with the shock-absorbing bracket 300 are arranged at both ends of the shock-absorbing carriage 511, and one end of the shock-absorbing cable 513 is connected to the pipeline clamping frame 400.

[0031] Preferably, a guide rod 514 that cooperates with the shock-absorbing carriage 511 is arranged on the shock-absorbing bracket 300, and the shock-absorbing spring 512 is sleeved on the guide rod 514.

[0032] Second, the shock-absorbing cable assembly 500 includes a shock-absorbing plate 520 arranged at one end of the shock-absorbing bracket. A shock-absorbing groove is opened on the shock-absorbing plate 520, and a shock-absorbing frame 521 that is slidably matched with the shock-absorbing groove is arranged in the shock-absorbing groove;

[0033] A shock-absorbing hook that cooperates with the cable is arranged on the shock-absorbing frame 521. A sliding plate 522 located in the shock-absorbing bracket 300 is arranged on the shock-absorbing frame 521, and a number of shock-absorbing springs 523 that cooperate with the shock-absorbing plate 520 are arranged on the sliding plate 522.

[0034] Specifically, the shock-absorbing cable assembly 500 has two designs. The first design includes a shock-absorbing chute 510 and a shock-absorbing carriage 511, and is equipped with a guide rod 514 to ensure the consistency of the movement direction. Such a structure can ensure that even in the case of displacement within a large range, the buffering process can be smoothly completed while maintaining a high degree of accuracy. The second design adopts the form of a shock-absorbing plate 520 and a shock-absorbing frame 521, and cooperates with a plurality of shock-absorbing springs 523 to achieve multi-directional shock absorption. This method is particularly suitable for situations where vibrations in complex directions need to be handled, providing more comprehensive protection capabilities. The shock-absorbing cable assembly 500 solves the problem of pipeline vibration caused by environmental factors through its unique working principle and technical advantages, ensuring the safe and stable operation of the pipeline. This plays an important role in extending the service life of the pipeline, ensuring the quality of the transported medium, and improving the reliability of the overall engineering project.

[0035] Furthermore, the shock-absorbing support assembly 600 includes a shock-absorbing base 610 disposed on the support base 100. A shock-absorbing cylinder 620 is provided on the shock-absorbing base 610. A support spring 630 is sleeved on the shock-absorbing cylinder 620. A vertical shock-absorbing rod 640 is disposed in the shock-absorbing cylinder 620. A shock-absorbing connection seat 650 that cooperates with the support spring 630 is provided at the top end of the vertical shock-absorbing rod 640. A connection cylinder 660 connected to the support rod 440 is provided on the shock-absorbing connection seat 650. A connection screw 670 that cooperates with the support rod 440 is disposed in the connection cylinder 660.

[0036] Preferably, a circumferential shock-absorbing cylinder 680 that cooperates with the vertical shock-absorbing rod 640 is disposed in the shock-absorbing cylinder 620. A plurality of circumferential springs 690 are provided between the circumferential shock-absorbing cylinder 680 and the shock-absorbing cylinder 620.

[0037] Preferably, a plurality of shock-absorbing support assemblies 600 are provided, and a plurality of support rods 440 are provided, and the shock-absorbing support assemblies 600 and the support rods 440 are arranged in one-to-one correspondence.

[0038] Specifically, the shock-absorbing support assembly 600 is a key part of the pipeline temporary support device for providing additional vibration isolation. Its design purpose is to enhance the seismic performance of the entire system, especially for the vibrations transmitted from the ground. A vertical shock-absorbing rod 640 is arranged inside the shock-absorbing cylinder 620, and a shock-absorbing spring 512 is installed between the shock-absorbing cylinder 620 and the vertical shock-absorbing rod 640. When external vibrations act on the system, the shock-absorbing spring 512 can absorb and disperse these vibration energies. The introduction of the circumferential shock-absorbing cylinder 680 further enhances the shock-absorbing effect. The circumferential spring 690 between it and the shock-absorbing cylinder 620 can handle the impact forces from different directions, ensuring that the system can also maintain good stability in the horizontal plane. By using the connecting cylinder 660 and the connecting screw 670 to connect the shock-absorbing connecting seat 650 with the support rod 440, it not only provides a stable support but also allows a certain degree of fine-tuning to adapt to pipelines of different sizes or shapes. This structural design ensures that even under strong vibrations, the entire support assembly can maintain integrity and functionality.

[0039] Furthermore, an anti-vibration cable assembly 700 matching with the pipeline is arranged in the pipeline clamping frame 400. The anti-vibration cable unit includes an anti-vibration ring frame 710 connected to the clamping semi-circular frame 410. An anti-vibration ring cylinder is sleeved on the pipeline. An anti-vibration screw 730 matching with the pipeline is arranged on the anti-vibration ring cylinder, and a plurality of anti-vibration cables are uniformly arranged along the circumferential direction of the anti-vibration ring frame.

[0040] Preferably, two groups of the anti-vibration cable assemblies 700 are arranged, and the two groups of the anti-vibration cable assemblies 700 are respectively located at both ends of the pipeline clamping frame 400.

[0041] Preferably, the support base 100 and the support inclined frame 200 are integrally formed.

[0042] Specifically, the anti-vibration cable assembly 700 is an important part of the pipeline temporary support device that directly acts on the surface of the pipeline to provide local vibration isolation. Its design purpose is to improve the earthquake-proof efficiency of the entire system by forming a surrounding shock-absorbing network. At the same time, through the effective control of local vibrations of the pipeline, it not only improves the protection level of a single point but also enhances the overall stability and safety of the entire pipeline system. It solves the vibration problems caused by local stress concentration or special environmental factors and provides more comprehensive protection for the pipeline.

[0043] The technical features not described in the present utility model can be realized by or adopted from the prior art, and will not be elaborated herein. Of course, the above description is not a limitation to the present utility model, and the present utility model is not limited to the above examples. Changes, modifications, additions or substitutions made by those of ordinary skill in the art within the scope of the essence of the present utility model should also fall within the protection scope of the present utility model.

Claims

1. A temporary pipe support device, characterized in that: It includes a support base (100), a support inclined frame (200) is arranged on the support base (100), a shock-absorbing support (300) is arranged at the top of the support inclined frame (200), a pipe clamping frame (400) for clamping the pipe is arranged directly below the shock-absorbing support (300), a shock-absorbing cable assembly (500) cooperating with the pipe clamping frame (400) is arranged on the shock-absorbing support (300), and a shock-absorbing support assembly (600) connected to the pipe clamping frame (400) and cooperating with the shock-absorbing cable assembly (500) is arranged on the support base (100); The pipe clamping frame (400) includes two symmetrically arranged clamping semi-circular frames (410), a docking screw (420) connected to the other clamping semi-circular frame (410) is arranged on the clamping semi-circular frame (410), a clamping frame (430) cooperating with the shock-absorbing cable assembly (500) is arranged on one of the clamping semi-circular frames (410), and a support rod (440) cooperating with the shock-absorbing support assembly (600) is arranged on the other clamping semi-circular frame (410).

2. The temporary pipe support device according to claim 1, characterized in that: The shock-absorbing cable assembly (500) includes a shock-absorbing chute (510) opened in the shock-absorbing support (300), and a shock-absorbing sliding frame (511) which is arranged in the shock-absorbing support (300), slidably matched with the shock-absorbing chute (510) and fixedly connected to one end of the shock-absorbing cable (513) is arranged in the shock-absorbing support (300). Shock-absorbing springs (512) cooperating with the shock-absorbing support (300) are arranged at both ends of the shock-absorbing sliding frame (511), and one end of the shock-absorbing cable (513) is connected to the pipe clamping frame (400).

3. The temporary pipe support device according to claim 1, characterized in that: The shock-absorbing cable assembly (500) includes a shock-absorbing plate (520) arranged at one end of the shock-absorbing support, a shock-absorbing groove is opened on the shock-absorbing plate (520), and a shock-absorbing frame (521) slidably matched with the shock-absorbing groove is arranged in the shock-absorbing groove; A shock-absorbing hook cooperating with the cable is arranged on the shock-absorbing frame (521), a sliding plate (522) located in the shock-absorbing support (300) is arranged on the shock-absorbing frame (521), and a number of shock-absorbing springs (523) cooperating with the shock-absorbing plate (520) are arranged on the sliding plate (522).

4. The temporary pipe support device according to claim 1, characterized in that: The shock-absorbing support assembly (600) includes a shock-absorbing base (610) disposed on the support base (100). A shock-absorbing cylinder (620) is disposed on the shock-absorbing base (610). A support spring (630) is sleeved on the shock-absorbing cylinder (620). A vertical shock-absorbing rod (640) is disposed in the shock-absorbing cylinder (620). A shock-absorbing connection seat (650) that cooperates with the support spring (630) is disposed at the top end of the vertical shock-absorbing rod (640). A connection cylinder (660) connected to the support rod (440) is disposed on the shock-absorbing connection seat (650). A connection screw (670) that cooperates with the support rod (440) is disposed in the connection cylinder (660).

5. The pipeline temporary support device according to claim 4, characterized in that: A circumferential shock-absorbing cylinder (680) that cooperates with the vertical shock-absorbing rod (640) is disposed in the shock-absorbing cylinder (620). A plurality of circumferential springs (690) are disposed between the circumferential shock-absorbing cylinder (680) and the shock-absorbing cylinder (620).

6. The pipeline temporary support device according to claim 1, characterized in that: An anti-vibration cable assembly (700) that cooperates with the pipeline is disposed in the pipeline clamping frame (400). The anti-vibration cable assembly includes an anti-vibration ring frame (710) connected to the clamping semi-circular frame (410). An anti-vibration ring cylinder is sleeved on the pipeline. An anti-vibration screw (730) that cooperates with the pipeline is disposed on the anti-vibration ring cylinder. And a plurality of anti-vibration cables are uniformly disposed along the circumferential direction of the anti-vibration ring frame.

7. The pipeline temporary support device according to claim 6, characterized in that: Two groups of the anti-vibration cable assemblies (700) are provided, and the two groups of anti-vibration cable assemblies (700) are respectively located at both ends of the pipeline clamping frame (400).

8. The pipeline temporary support device according to claim 1, characterized in that: The support base (100) and the support inclined frame (200) are integrally formed.

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