Pipeline construction installation structure

Abstract

The invention discloses a pipeline construction installation structure, and relates to the field of pipeline construction equipment, the pipeline construction installation structure comprises a configuration pipe sleeve, a clamping rod is vertically arranged in the middle of the two sides of the configuration pipe sleeve in a penetrating mode, side screws are arranged on the two sides of the configuration pipe sleeve, and vertical screws are arranged at the bottoms of the side screws; according to the pipeline construction mounting structure, a nail barrel, an auxiliary toothed arc strip, a middle following toothed arc strip and a pipe clamping protection plate are arranged in the auxiliary mechanism, the nail barrel rotates to drive the auxiliary toothed arc strip to rotate after being nailed into the ground, the middle following toothed arc strip rotates around a rotating shaft through gear meshing transmission, and the auxiliary toothed arc strip rotates around the rotating shaft; the pipe clamping protection plate is pushed to the front end and the rear end of the configuration pipe sleeve through the connecting guide rod, the configuration pipe sleeve and the bottom plate are fixed, meanwhile, the pipe clamping protection plate is attached to the pipeline, the connecting strength of the pipeline and the configuration pipe sleeve is enhanced, the structural stability of the pipeline after installation is guaranteed, and displacement of the pipeline during stress is avoided.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of pipeline construction equipment, in particular to a pipeline construction installation structure. BACKGROUND

[0002] The pipeline construction installation structure is a core device used for bearing, positioning and fixing the pipeline in the fields of municipal engineering, building water supply and drainage, industrial medium conveying, etc. It builds a stable support and locking structure to ensure that the pipeline can maintain the preset position for a long time after laying, avoiding deviation and falling off due to medium flow vibration, environmental temperature change or external force touch. However, the existing pipeline construction installation structure generally has the common problem of insufficient connection strength. It only relies on the wrapping force of the pipe sleeve or the locking force of a single bolt to achieve fixation, lacks a cooperative reinforcement mechanism between the pipe sleeve, the pipeline and the installation foundation, and is difficult to resist multi-dimensional stress impact, prone to pipe sleeve loosening and pipe sleeve and bottom plate displacement.

[0003] To alleviate the above-mentioned fixation problem, the conventional technical means often use methods such as thickening the pipe sleeve wall thickness, increasing the number of locking bolts, and setting anti-skid pads on the inside of the pipe sleeve. Some schemes also add counterweights or simple support feet at the bottom of the bottom plate to assist fixation by increasing the structure's self-weight and improving the friction with the ground. Another technology tries to enhance the connection stability of the installation structure with the ground by lengthening the vertical screw rod's soil penetration depth, in order to reduce the displacement risk of the pipeline after installation.

[0004] However, its fixation logic is limited to the strength enhancement of a single component or simple friction assistance, and does not form a multi-directional linkage reinforcement mechanism.

[0005] Therefore, the present application is proposed to solve the above-mentioned problems. SUMMARY

[0006] The present application aims to provide a pipeline construction installation structure to solve the problems raised in the background.

[0007] To achieve the above-mentioned purpose, the present application provides the following technical scheme: a pipeline construction installation structure, comprising: a configuration pipe sleeve, a clamping rod is vertically arranged in the middle of both sides of the configuration pipe sleeve, a side screw rod is arranged on both sides of the configuration pipe sleeve, a vertical screw rod is arranged at the bottom of the side screw rod, and a bottom plate is arranged at the bottom of the vertical screw rod. Both sides of the bottom plate are provided with an auxiliary mechanism, which comprises a side cylinder, and the side cylinder is arranged on both sides of the top of the elastic corrugated belt. A tight binding mechanism is arranged below the front and rear ends of the configuration pipe sleeve, and the tight binding mechanism comprises an elastic corrugated belt, and the elastic corrugated belt is arranged obliquely below the front and rear ends of the configuration pipe sleeve. The auxiliary mechanism further comprises a bottom hole arranged at the bottom of the bottom plate.

[0008] Further, the auxiliary mechanism further comprises an insertion rod, a second rotating seat, a first spring, a binding port, a first rotating seat, an auxiliary toothed arc strip, a pipe clamping protection plate, a connecting guide rod, a middle toothed arc strip, a cylinder groove is vertically arranged on the inner side of the side cylinder, the insertion rod is vertically arranged on the inner side of the cylinder groove, the binding port is arranged at the connection between the side cylinder and the insertion rod, the first spring is arranged on the upper end of the outer side of the insertion rod, the second rotating seat is arranged on the top of the insertion rod, the auxiliary toothed arc strip is arranged at the middle of the top of the second rotating seat, the first rotating seat is arranged at one end of the auxiliary toothed arc strip, the peg cylinder is arranged at the bottom of the first rotating seat, the middle toothed arc strip is arranged at the other end of the auxiliary toothed arc strip, the connecting guide rod is arranged at one end of the front of the middle toothed arc strip, the pipe clamping protection plate is arranged at one end of the connecting guide rod, the rotating shaft is arranged at one side of the middle toothed arc strip, and the third rotating seat is arranged at both sides of the rotating shaft.

[0009] Further, the pipe clamping protection plate and the connecting guide rod are fixedly connected, the overall structure of the pipe clamping protection plate is a fan-shaped structure, and the bottom of the pipe clamping protection plate near the one end of the pipe sleeve is semicircular.

[0010] Further, the sawtooth structure on the outer side of the middle toothed arc strip and the sawtooth structure of the auxiliary toothed arc strip are meshed with each other, and the rotating shaft, the third rotating seat and the middle toothed arc strip form a rotating structure.

[0011] Further, the second rotating seat and the auxiliary toothed arc strip form a rotating structure, and the auxiliary toothed arc strip and the first rotating seat are connected in a plug-in manner.

[0012] Further, the tight binding mechanism further comprises a supporting side seat, a connecting arc block, a hammer rod, a top plate, a fourth rotating seat, a second spring, and a hit strip, the elastic corrugated belt is arranged at both sides of the connecting arc block, the supporting side seat is arranged at both sides of the connecting arc block, the vertical hole is arranged on the inner side of the connecting arc block, the hammer rod is vertically and penetratingly arranged on the inner side of the vertical hole, the hit strip is arranged on the top of the hammer rod, the top plate is arranged on the side of the bottom of the supporting side seat near the bottom end of the hammer rod, the second spring is arranged on one side of the top of the top plate, the fourth rotating seat is arranged on the front of the top plate, and the fourth rotating seat and the supporting side seat are fixedly connected at one end.

[0013] Further, the center point of the bottom of the hammer rod and the geometric center of the middle of the top of the top plate are on the same straight line, and the second spring and the top plate are fixedly connected.

[0014] Further, the hammer rod and the hit strip are fixedly connected, and the top surface of the hit strip and the bottom of the pipe clamping protection plate are flush with each other.

[0015] Furthermore, the auxiliary fixing mechanism also includes a ground axis hammer, branch thin shafts, sleeve shafts, a limiting ring, and a third spring. The ground axis hammer is vertically arranged inside the bottom hole. The upper end of the ground axis hammer is fitted with a sleeve shaft. The upper end of the sleeve shaft is fitted with a multi-dimensional guide rod. A limiting ring is provided at the connection between the sleeve shaft and the ground axis hammer. The exposed part of the ground axis hammer is fitted with a third spring. The lower end of the other end of the multi-dimensional guide rod is provided with multiple branch thin shafts.

[0016] Furthermore, the branch thin shaft and the multi-dimensional guide rod are fixedly connected, and the outer radius of the ground shaft hammer is equal to the inner radius of the bottom hole.

[0017] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention utilizes an auxiliary mechanism consisting of a nail cylinder, an attached toothed arc strip, a central circulating toothed arc strip, and a pipe clamping guard plate. After the nail cylinder is driven into the ground, its rotation causes the attached toothed arc strip to rotate. Through gear meshing, the central circulating toothed arc strip rotates around its axis. The connecting guide rod pushes the pipe clamping guard plate to both ends of the configured pipe sleeve, thus fixing the configured pipe sleeve to the base plate. At the same time, the pipe clamping guard plate fits snugly against the pipe, enhancing the connection strength between the pipe and the configured pipe sleeve, ensuring the structural stability of the pipe after installation, and preventing the pipe from shifting under stress. 2. The present invention, through the setting of the impact strip, hammer rod, top plate and elastic corrugated belt in the tight binding mechanism, the pipe guard plate rotates down to squeeze the impact strip, which drives the hammer rod to move vertically downward and pushes the top plate to rotate around the fourth rotating seat, so that the elastic corrugated belt is stretched open and fits against the outer wall of the pipe, increasing the contact area between the pipe and the sleeve, improving the fit between the two, reducing gaps, preventing the pipe from loosening due to vibration during operation, and ensuring the reliability of the connection; 3. This invention, through the arrangement of a multi-dimensional guide rod, branch thin shaft, ground axis hammer, limiting ring, and third spring in the auxiliary fixing mechanism, allows the insertion rod to move, causing the multi-dimensional guide rod to move downward, so that the branch thin shaft and ground axis hammer abut against the ground, forming multi-point anchoring. The limiting ring restricts excessive movement of the ground axis hammer, and the third spring realizes the reset of the ground axis hammer, enhancing the gripping ability of the base plate on the ground, improving the anti-slip performance of the entire installation structure, and ensuring the long-term stable operation of the pipeline in complex environments. Attached Figure Description

[0018] Figure 1 This is an assembly diagram of the core components of the auxiliary mechanism and fastening mechanism of the pipeline construction and installation structure of the present invention. Figure 2 The pipeline construction and installation structure of the present invention Figure 1 A magnified structural diagram at point A; Figure 3 The pipeline construction and installation structure of the present invention Figure 1 A magnified structural diagram at point B; Figure 4This is a side view assembly drawing of the pipeline construction and installation structure of the present invention. Figure 5 The pipeline construction and installation structure of the present invention Figure 4 A magnified structural diagram at point C; Figure 6 The pipeline construction and installation structure of the present invention Figure 4 A magnified structural diagram at point D; Figure 7 This is a collaborative assembly diagram of the base plate, auxiliary mechanisms, and stabilizing mechanisms of the pipeline construction and installation structure of the present invention. Figure 8 The pipeline construction and installation structure of the present invention Figure 7 A magnified structural diagram at point E; Figure 9 This diagram shows the assembly relationship between the pipe clamping guard plate, vertical screw, side cylinder, and multi-dimensional guide rod in the pipeline construction and installation structure of the present invention. Figure 10 The pipeline construction and installation structure of the present invention Figure 9 A magnified structural diagram at point F; Figure 11 The pipeline construction and installation structure of the present invention Figure 9 A magnified structural diagram at point G; Figure 12 This is a schematic diagram showing the assembly relationship between the nail cylinder, pipe clamping plate, support side seat, and hammer rod in the pipeline construction and installation structure of the present invention.

[0019] In the diagram: 1. Central circulating tooth arc strip; 2. Connecting guide rod; 3. Pipe clamping guard plate; 4. Side position cylinder; 5. Base plate; 6. Support side seat; 7. Elastic corrugated belt; 8. Connecting arc block; 9. Multi-dimensional guide rod; 10. Nail cylinder; 11. Attached tooth arc strip; 12. First rotating seat; 13. Binding mouth; 14. First spring; 15. Second rotating seat; 16. Rotating shaft; 17. Third rotating seat; 18. Bottom hole; 19. Side screw; 20. Hammer rod; 21. Ground shaft hammer; 22. Branch thin shaft; 23. Configuration sleeve; 24. Clamping rod; 25. Insert rod; 26. Vertical screw; 27. Top plate; 28. Fourth rotating seat; 29. ​​Second spring; 30. Third spring; 31. Limiting ring; 32. Sleeve shaft; 33. Impact strip. Detailed Implementation

[0020] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention. Example

[0021] like Figures 1 to 12 As shown, a pipeline construction and installation structure includes: a pipe sleeve 23, a clamping rod 24 vertically penetrating the middle of both sides of the pipe sleeve 23, side screws 19 on both sides of the pipe sleeve 23, a vertical screw 26 at the bottom of the side screws 19, and a base plate 5 at the bottom of the vertical screw 26. Auxiliary mechanisms are provided on both sides of the base plate 5. The auxiliary mechanisms include side tubes 4, which are located on both sides of the top of the elastic corrugated belt 7. A fastening mechanism is provided below the front and rear ends of the configuration sleeve 23. The fastening mechanism includes an elastic corrugated belt 7, which is located diagonally below the front and rear ends of the configuration sleeve 23. An auxiliary fixing mechanism is provided on the top side of the base plate 5 near the connecting arc block 8. The auxiliary fixing mechanism also includes a bottom hole 18, which is located at the bottom of the base plate 5. Among them, the sleeve 23, as the core load-bearing component, directly determines the stability and safety of pipeline installation through its structural design. The sleeve 23 is integrally molded from high-strength alloy material, with a wear-resistant rubber liner fitted to its inner wall. This effectively buffers vibrations generated during pipeline operation and prevents wear caused by direct friction between the outer wall of the pipeline and the metal sleeve, significantly extending the pipeline's service life. The clamping rod 24 uses a threaded locking structure, with anti-slip textures on its surface and equipped with an anti-loosening nut. Tightening ensures a tight fit between the upper and lower parts of the sleeve 23, preventing loosening or displacement even under long-term pressure from the pipeline's weight and the medium. Both the vertical screw 26 and the side screw 19 are made of high-strength carbon steel and hot-dip galvanized, providing excellent corrosion resistance and adaptability to various harsh construction environments such as underground dampness and open-air exposure. The connection between the top of the vertical screw 26 and the bottom of the sleeve 23 is welded, ensuring high connection strength and effectively transferring the weight of the pipeline to the base plate 5. The side screws 19 are symmetrically distributed on both sides of the sleeve 23. By adjusting the extension length of the side screws 19, the horizontal position of the sleeve 23 can be precisely corrected, ensuring that the straightness error of the pipeline installation is controlled within the allowable range of industry standards.

[0022] The base plate 5 is made of thickened steel plate with anti-slip serrations on the bottom to increase friction with the ground and prevent the entire installation structure from sliding. During installation, workers first determine the installation location based on the pipeline route, clear debris from the ground, and level the foundation surface. Then, the base plate 5 is placed stably in the designated position and pre-fixed to the ground using expansion bolts. The height and level of the sleeve 23 are then adjusted using vertical screws 26 and side screws 19. Finally, the pipe is placed inside the sleeve and the locking rod 24 is tightened. Furthermore, the inner diameter of the sleeve 23 can be customized to accommodate different pipe specifications, meeting the installation needs of various pipe diameters. Its versatility effectively reduces equipment procurement costs for construction units.

[0023] Example 1: As Figures 1 to 12 As shown, the auxiliary mechanism also includes an insertion rod 25, a second rotating seat 15, a first spring 14, a constriction 13, a first rotating seat 12, an attachment toothed arc strip 11, a tube clamping guard plate 3, a connecting guide rod 2, and a central circulation toothed arc strip 1. A vertical groove is vertically formed on the inner side of the side tube 4, and the insertion rod 25 is vertically arranged on the inner side of this groove. A constriction 13 is provided at the connection between the side tube 4 and the insertion rod 25. The upper end of the insertion rod 25 is fitted with the first spring 14, and the top of the insertion rod 25 is provided with the second rotating seat. 15. A positioning toothed arc strip 11 is provided at the middle of the top of the second rotating seat 15. A first rotating seat 12 is provided at one end of the positioning toothed arc strip 11. A nail cylinder 10 is provided at the bottom of the first rotating seat 12. A central circulating toothed arc strip 1 is provided at the other end of the positioning toothed arc strip 11. A connecting guide rod 2 is provided at one end of the front of the central circulating toothed arc strip 1. A tube clamping guard plate 3 is provided at one end of the connecting guide rod 2. A rotating shaft 16 is provided on one side of the central circulating toothed arc strip 1. A third rotating seat 17 is provided on both sides of the rotating shaft 16. The pipe clamping plate 3 and the connecting guide rod 2 are fixedly connected. The overall structure of the pipe clamping plate 3 is a fan-shaped structure, and the bottom of the pipe clamping plate 3 near the pipe sleeve 23 is semi-circular. The sawtooth structure on the outside of the central circulating tooth arc bar 1 meshes with the sawtooth structure of the attached tooth arc bar 11, and the rotating shaft 16, the third rotating seat 17 and the central circulating tooth arc bar 1 form a rotating structure. The second rotating seat 15 and the attached toothed arc strip 11 form a rotating structure, and the attached toothed arc strip 11 and the first rotating seat 12 are connected by an insertion. The nail cylinder 10 employs a spiral-type soil-insertion structure, with continuous threaded teeth on the outer side of the cylinder and a tapered tip at the bottom. Under hammering or rotational drive, it can quickly penetrate the soil layer and reach deep into the underground stable layer, providing reliable anchoring force for the entire installation structure. The connection between the top of the nail cylinder 10 and the first rotating seat 12 adopts a mortise and tenon joint structure, which is tight and easy to disassemble, facilitating installation during construction and subsequent maintenance. The sawtooth structure of the auxiliary position tooth arc strip 11 and the middle position tooth arc strip 1 is precisely machined, and the tooth shape is designed in a trapezoidal shape. When meshing, the contact area is large, the force is uniformly transmitted, and the tooth breakage or slipping phenomenon during force application can be effectively avoided. The second rotating seat 15 is provided with a ball bearing at the rotating connection position of the auxiliary position tooth arc strip 11, which reduces the rotating friction and makes the rotation of the auxiliary position tooth arc strip 11 more smooth, reduces the wear of the parts, and prolongs the service life of the mechanism. The hollow circular tube structure of the insertion rod 25 reduces the overall weight under the premise of ensuring the structural strength, and the surface is coated with lubricating grease. The gap between the insertion rod 25 and the inner side of the lateral cylinder 4 is controlled within a certain range to ensure that the insertion rod 25 moves vertically without jamming; The bundle opening 13 is made of elastic rubber material and has a ring structure that is sleeved at the connection position of the insertion rod 25 and the lateral cylinder 4. It can not only play a sealing role to prevent soil, dust and other impurities from entering the cylinder groove and affecting the movement of the insertion rod 25, but also guide the movement of the insertion rod 25 to ensure the perpendicularity of its movement trajectory. The first spring 14 is selected from a high-strength compression spring with stable elastic coefficient. During the up and down movement of the insertion rod 25, it can provide continuous and uniform elastic force. When the auxiliary position tooth arc strip 11 is rotated into position, the rebound force of the first spring 14 can lock the insertion rod 25 in the current position to prevent it from moving by itself; The fan-shaped structure of the clamping pipe protection plate 3 is designed ingeniously. The semicircular end part perfectly matches the curvature of the outer wall of the pipe, and the matching surface is provided with a non-slip rubber pad to increase the friction with the pipe and further improve the fixing effect of the pipe. The full welding process is adopted for the fixed connection between the connecting guide rod 2 and the clamping pipe protection plate 3. The welding seam is full and free of defects such as pores and slag inclusions, ensuring that the connection will not break under long-term stress. In actual application, when the nail cylinder 10 is nailed into the ground, rotating the nail cylinder 10 can drive the auxiliary position tooth arc strip 11 to rotate, which drives the middle position tooth arc strip 11 to rotate around the rotating shaft 16 through gear meshing transmission, and then drives the clamping pipe protection plate 3 to move towards the pipe direction through the connecting guide rod 2, so that the clamping pipe protection plates 3 on both sides are clamped from the front and rear ends of the pipe, and form a cooperative fixation with the configuration pipe sleeve 23, greatly enhancing the overall stability of the pipe installation and effectively resisting the radial and axial forces generated during the operation of the pipe.

[0024] Example two: as Figures 1 to 12As shown, the tight binding mechanism also includes a support side seat 6, a connecting arc block 8, a hammer rod 20, a top plate 27, a fourth rotating seat 28, a second spring 29, a hitting strip 33, the two sides of the connecting arc block 8 are provided with elastic corrugated belts 7, the two sides of the connecting arc block 8 are provided with support side seats 6, the inner side of the connecting arc block 8 is provided with a vertical hole, the inner side of the vertical hole is vertically provided with a hammer rod 20, the top of the hammer rod 20 is provided with a hitting strip 33, the bottom of the support side seat 6 is provided with a top plate 27 near one side of the bottom end of the hammer rod 20, one side of the top of the top plate 27 is provided with a second spring 29, the front of the top plate 27 is provided with a fourth rotating seat 28, and one end of the fourth rotating seat 28 is fixedly connected with the support side seat 6; The center point of the bottom of the hammer rod 20 and the geometric center of the top of the top plate 27 are on the same straight line, and the second spring 29 is fixedly connected with the top plate 27; The hammer rod 20 is fixedly connected with the hitting strip 33, and the top surface of the hitting strip 33 is flush with the bottom of the pipe clamping protection plate 3; The elastic corrugated belt 7 is made of multi-layer polyester fiber reinforced rubber material, has excellent elastic recovery performance and fatigue strength, and is provided with transverse anti-skid lines on the surface, which can increase the friction force with the outer wall of the pipeline, and the corrugated structure can produce uniform deformation under stress, ensuring that the elastic corrugated belt 7 is fully attached to the outer wall of the pipeline, avoiding uneven local stress. The connecting arc block 8 is formed by casting process and is provided with a reinforcing rib structure inside, has high overall strength and can effectively bear the impact force transmitted by the hammer rod 20, and the connection between the two sides of the connecting arc block 8 and the elastic corrugated belt 7 is fixed by bolts, equipped with anti-loose washers to prevent connection loosening caused by long-term vibration; The support side seats 6 are symmetrically distributed on the two sides of the connecting arc block 8 and are fixed by welding with the bottom plate 5, and the welding part is detected to ensure that the connection strength meets the design requirements. The structural design of the support side seat 6 fully considers the mechanical balance, can uniformly disperse the acting force transmitted by the top plate 27 to the bottom plate 5, and avoid local stress concentration causing component damage. The hammer rod 20 is made of solid round steel and the surface is quenched and tempered, which has high hardness and good toughness and can withstand repeated impact load without bending or breaking. The fixed connection between the hammer rod 20 and the hitting strip 33 adopts thread cooperation, and a locking pin is arranged at the connection to further ensure the firmness of the connection; The top surface of the impact bar 33 is precision ground to ensure flatness with the bottom of the pipe clamping plate 3. When the pipe clamping plate 3 rotates downward, it can form surface contact with the impact bar 33, so that the force is evenly transmitted and the impact bar 33 is not deformed due to excessive local force. The fourth rotating seat 28 adopts a ball joint structure design, which allows the top plate 27 to rotate flexibly within a certain angle range. Its fixed connection with the support side seat 6 is made of high-strength bolts, and the bolt heads are equipped with anti-loosening washers to effectively prevent the bolts from loosening due to vibration. The second spring 29 is made of fatigue-resistant spring steel and undergoes a special heat treatment process, which ensures stable elastic performance. When the top plate 27 rotates downward, it is compressed and generates a reverse elastic force. When the pressure of the pipe clamping plate 3 is removed, the rebound force of the second spring 29 can push the top plate 27 to quickly reset, and drive the hammer rod 20 and the impact bar 33 back to the initial position, which facilitates subsequent pipe disassembly or adjustment. In actual operation, when the auxiliary mechanism's pipe clamping guard plate 3 rotates down to the designated position, the bottom of the pipe clamping guard plate 3 contacts the top of the impact strip 33 and applies downward pressure. The impact strip 33 drives the hammer rod 20 to move vertically downward along the vertical hole inside the connecting arc block 8. The bottom of the hammer rod 20 precisely acts on the geometric center of the top of the top plate 27, pushing the top plate 27 to rotate downward around the fourth rotating seat 28. During the rotation of the top plate 27, its end generates an outward expansion force on the elastic corrugated belt 7, causing the elastic corrugated belt 7 to overcome its own elastic resistance and open outward, tightly fitting against the outer wall of the pipe. Because the elastic corrugated belt 7 has good elastic recovery performance, it can always apply a uniform clamping force to the pipe. Even if the pipe expands and contracts due to temperature changes during operation, the elastic corrugated belt 7 can compensate through its own deformation, maintaining a tight fit with the pipe. This effectively avoids loosening of the connection due to pipe deformation and greatly improves the sealing and stability of the pipe installation structure.

[0025] Example 3: Figures 1 to 12 As shown, the auxiliary fixing mechanism also includes a ground shaft hammer 21, branch thin shafts 22, sleeve shafts 32, limiting rings 31, and a third spring 30. The ground shaft hammer 21 is vertically arranged inside the bottom hole 18. The upper end of the ground shaft hammer 21 is fitted with a sleeve shaft 32. The upper end of the sleeve shaft 32 is fitted with a multi-dimensional guide rod 9. A limiting ring 31 is provided at the connection between the sleeve shaft 32 and the ground shaft hammer 21. The exposed part of the ground shaft hammer 21 is fitted with a third spring 30. The lower end of the other end of the multi-dimensional guide rod 9 is provided with multiple branch thin shafts 22. The branch thin shaft 22 is fixedly connected to the multi-dimensional guide rod 9, and the outer radius of the ground shaft hammer 21 is equal to the inner radius of the bottom hole 18; The ground axis hammer 21 is forged from alloy steel, has a conical sharp bottom, high hardness and strong penetration, can easily penetrate the surface layer of the soil, penetrate the stable layer underground, and form a reliable vertical anchoring point. The radius of the ground axis hammer 21 outside is accurately matched with the radius of the inside of the bottom hole 18, the cooperation gap is controlled within a certain range, the ground axis hammer 21 is ensured to move vertically without deviation inside the bottom hole 18, and the smoothness of the movement process is ensured. The sleeve shaft 32 is processed from a seamless steel pipe, the inner wall is provided with a lubricating groove, is coated with high-temperature and wear-resistant lubricating grease, and the cooperation surface of the ground axis hammer 21 is precisely ground, so that the friction during relative movement is reduced, and the service life of the component is prolonged.

[0026] The limiting ring 31 is processed from an annular steel plate, is fixed at the connection between the sleeve shaft 32 and the ground axis hammer 21 by welding, has an outer diameter slightly larger than the inner diameter of the bottom hole 18, can effectively limit the downward stroke of the ground axis hammer 21, and avoid that the ground axis hammer 21 is excessively moved to be separated from the bottom hole 18 or damaged the third spring 30. The third spring 30 is sleeved on the exposed part of the ground axis hammer 21, is selected from a large-stiffness compression spring, can bear a large compression amount, is compressed to generate an elastic restoring force when the sleeve shaft 32 drives the ground axis hammer 21 to move downward, and the rebound force of the third spring 30 can quickly push the ground axis hammer 21 to reset after the driving force of the insertion rod 25 disappears, so that the ground axis hammer 21 always maintains the contact state with the ground; The multi-dimensional guide rod 9 has a multi-section splicing structure, is connected through a flange plate, is convenient for adjusting the length according to the actual situation of the construction site, is made of high-strength aluminum alloy, is light in weight and high in strength, can transfer the force while reducing the self-weight of the overall structure. The fixed connection between the branch thin shaft 22 and the multi-dimensional guide rod 9 is threadedly matched, and is welded and reinforced at the connection to ensure the connection strength. The branch thin shaft 22 is uniformly distributed, has a sharp structure at the bottom, can be quickly inserted into the soil to form multi-point anchoring, and further improves the anti-slippage ability of the structure; In the construction process, when the auxiliary mechanism insertion rod 25 moves vertically inside the side position cylinder 4, the bottom of the insertion rod 25 tightly fits with the connecting seat at the top of the multi-dimensional guide rod 9, and the downward pressure is transmitted to the multi-dimensional guide rod 9, which drives the bottom branch thin shaft 22 to move downward synchronously. After the branch thin shaft 22 is inserted into the soil, a plurality of dispersed anchor points are formed, effectively increasing the contact area and friction with the soil. At the same time, when the multi-dimensional guide rod 9 moves downward, the sleeve shaft 32 moves along the outside of the ground shaft hammer 21, the sleeve shaft 32 pushes the limiting ring 31 to compress the third spring 30, and the bottom of the ground shaft hammer 21 extends from the inside of the bottom hole 18 and is inserted into the ground, forming a main anchor point. Through the synergistic effect of the main anchor point and the multi-point auxiliary anchor point, the connection firmness of the bottom plate 5 and the ground is greatly enhanced, so that the entire installation structure can resist the influence of external loads such as strong winds and earthquakes, and ensure the long-term stable operation of the pipeline. In addition, the elastic buffering effect of the third spring 30 can also absorb the vibration energy generated during the operation of the pipeline, reduce the influence of vibration on the installation structure, and further improve the stability and durability of the installation structure.

[0027] Embodiments of the present application are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the application to the forms disclosed. Many modifications and variations will be apparent to those of ordinary skill in the art. Embodiments were chosen and described in order to best explain the principles of the application and its practical application, and to enable others skilled in the art to understand the application for various embodiments with various modifications as are suited to the particular use contemplated.

Claims

1. A pipeline construction and installation structure, comprising: The configuration sleeve (23) is characterized in that a clamping rod (24) is vertically inserted through the middle of both sides of the configuration sleeve (23), a side screw (19) is provided on both sides of the configuration sleeve (23), a vertical screw (26) is provided at the bottom of the side screw (19), and a base plate (5) is provided at the bottom of the vertical screw (26). The bottom plate (5) is provided with auxiliary mechanisms on both sides, the auxiliary mechanisms including side tubes (4), the side tubes (4) being provided on both sides of the top of the elastic corrugated belt (7); A fastening mechanism is provided below the front and rear ends of the configuration sleeve (23). The fastening mechanism includes an elastic corrugated belt (7), which is located diagonally below the front and rear ends of the configuration sleeve (23). The bottom plate (5) is provided with an auxiliary fixing mechanism on the side of the top near the connecting arc block (8). The auxiliary fixing mechanism also includes a bottom hole (18), which is located at the bottom of the bottom plate (5).

2. The pipeline construction and installation structure according to claim 1, characterized in that, The auxiliary mechanism also includes a plug rod (25), a second rotating seat (15), a first spring (14), a constriction opening (13), a first rotating seat (12), an attachment toothed arc strip (11), a tube clamping guard plate (3), a connecting guide rod (2), and a central circulation toothed arc strip (1). The inner side of the side tube (4) is vertically provided with a tube groove, and the plug rod (25) is vertically provided on the inner side of the tube groove. A constriction opening (13) is provided at the connection between the side tube (4) and the plug rod (25). The upper end of the plug rod (25) is sleeved with a first spring (14), and the top of the plug rod (25) is provided with a second rotating seat (15). The second rotating seat (15) has an attachment tooth arc strip (11) at the middle of its top. One end of the attachment tooth arc strip (11) has a first rotating seat (12). The bottom of the first rotating seat (12) has a nail cylinder (10). The other end of the attachment tooth arc strip (11) has a central circulation tooth arc strip (1). One end of the front of the central circulation tooth arc strip (1) has a connecting guide rod (2). One end of the connecting guide rod (2) has a tube clamping guard plate (3). One side of the central circulation tooth arc strip (1) has a rotating shaft (16). The two sides of the rotating shaft (16) have third rotating seats (17).

3. The pipeline construction and installation structure according to claim 2, characterized in that, The tube clamping guard plate (3) and the connecting guide rod (2) are fixedly connected. The overall structure of the tube clamping guard plate (3) is a fan-shaped structure. The bottom of the tube clamping guard plate (3) near the tube sleeve (23) is semi-circular.

4. The pipeline construction and installation structure according to claim 2, characterized in that, The sawtooth structure on the outside of the central circulating tooth arc bar (1) meshes with the sawtooth structure of the attached tooth arc bar (11), and the rotating shaft (16), the third rotating seat (17) and the central circulating tooth arc bar (1) form a rotating structure.

5. A pipeline construction and installation structure according to claim 2, characterized in that, The second rotating seat (15) and the attached toothed arc strip (11) form a rotating structure, and the attached toothed arc strip (11) and the first rotating seat (12) are connected by an insertion.

6. The pipeline construction and installation structure according to claim 1, characterized in that, The fastening mechanism also includes a support side seat (6), a connecting arc block (8), a hammer rod (20), a top plate (27), a fourth rotating seat (28), a second spring (29), and a strike strip (33). The connecting arc block (8) is provided with elastic corrugated strips (7) on both sides. The connecting arc block (8) is provided with support side seats (6) on both sides. The connecting arc block (8) has a vertical hole on its inner side. The hammer rod (20) is vertically inserted through the inner side of the vertical hole. The hammer rod (20) is provided with a strike strip (33) at the top. The bottom of the support side seat (6) is provided with a top plate (27) on the side near the bottom of the hammer rod (20). The top of the top plate (27) is provided with a second spring (29) on one side. The top of the top plate (27) is provided with a fourth rotating seat (28) on the front. One end of the fourth rotating seat (28) is fixedly connected to the support side seat (6).

7. A pipeline construction and installation structure according to claim 6, characterized in that, The center point at the bottom of the hammer rod (20) and the geometric center at the top of the top plate (27) are on the same straight line, and the second spring (29) is fixedly connected to the top plate (27).

8. A pipeline construction and installation structure according to claim 6, characterized in that, The hammer rod (20) and the impact bar (33) are fixedly connected, and the top surface of the impact bar (33) is flush with the bottom of the tube guard plate (3).

9. A pipeline construction and installation structure according to claim 1, characterized in that, The auxiliary fixing mechanism also includes a ground axis hammer (21), branch thin shafts (22), sleeve shafts (32), limiting rings (31), and a third spring (30). The ground axis hammer (21) is vertically arranged inside the bottom hole (18). The upper end of the ground axis hammer (21) is fitted with a sleeve shaft (32). The upper end of the sleeve shaft (32) is fitted with a multi-dimensional guide rod (9). A limiting ring (31) is provided at the connection between the sleeve shaft (32) and the ground axis hammer (21). The exposed part of the ground axis hammer (21) is fitted with a third spring (30). The lower end of the other end of the multi-dimensional guide rod (9) is provided with multiple branch thin shafts (22).

10. A pipeline construction and installation structure according to claim 9, characterized in that, The branch thin shaft (22) and the multi-dimensional guide rod (9) are fixedly connected, and the outer radius of the ground shaft hammer (21) is equal to the inner radius of the bottom hole (18).

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