A method for laying a shock-absorbing block

Abstract

This invention provides a method for laying vibration-damping rubber blocks, belonging to the technical field of vibration-damping rubber block laying. The method involves: constructing a three-dimensional model for the construction of vibration-damping rubber blocks; determining the distribution quantity and direction of the vibration-damping rubber blocks at the construction location; leveling the construction location; laying a fixing layer at the construction location, with through holes drilled at the fixing points of each vibration-damping rubber block; pre-connecting the fixed columns and rows of vibration-damping rubber blocks with steel wires to form a vibration-damping rubber block fixing net, which is then manually fine-tuned at the construction location; pumping fixing adhesive into the fixing layer; and filling the gaps between the vibration-damping rubber blocks with concrete after they are completely fixed. This method solves the problem of existing vibration-damping rubber block laying methods that use individual blocks fixed sequentially, which are inefficient and prone to displacement, leading to frequent rework.

Description

Technical Field

[0001] This invention belongs to the field of vibration damping rubber block laying technology, specifically, it relates to a method for laying vibration damping rubber blocks. Background Technology

[0002] With the rapid development of my country's economy and the advancement of urbanization, the construction industry has become increasingly important in the national economy. However, vibration and noise problems have always plagued people during construction, affecting not only their quality of life but also the buildings themselves. Therefore, researching effective vibration reduction measures is of great significance. Vibration-damping rubber blocks, as a new type of vibration-damping material, have been widely used in the construction field due to their lightweight, environmental friendliness, wear resistance, and high-temperature resistance. The flat-laying construction technology for vibration-damping rubber blocks involves laying them flat, offering advantages such as fast construction speed, stable quality, and low cost. By using vibration-damping rubber blocks, vibration and noise during construction can be effectively reduced, improving people's quality of life. Furthermore, the promotion of this flat-laying construction technology can improve construction efficiency and quality, reduce construction costs, and is of great significance for promoting the sustainable development of my country's construction industry. The installation of vibration-damping rubber blocks can alter the stiffness distribution of the building foundation, causing deformation under load, thereby compensating for uneven foundation settlement. This compensatory effect effectively reduces the risk of deformation and damage to buildings under loads such as earthquakes. The installation of vibration-damping blocks allows for a more uniform distribution of loads on the foundation, thereby reducing stress concentration in various parts of the building. The dispersing effect of the blocks improves the overall stability of the building, preventing structural failure due to localized damage. Vibration-damping blocks have good durability, maintaining their vibration isolation and compensation performance over long-term use. This makes the flat installation of vibration-damping blocks both economical and practical.

[0003] The existing method of laying vibration damping blocks involves fixing individual blocks one by one, which is not only inefficient but also prone to displacement, resulting in frequent rework. Summary of the Invention

[0004] In view of this, the present invention provides a method for laying vibration damping rubber blocks, which can solve the problem that the existing method of laying vibration damping rubber blocks involves fixing individual vibration damping rubber blocks one by one, which is not only inefficient but also prone to displacement, causing multiple rework issues.

[0005] This invention is implemented as follows:

[0006] This invention provides a method for laying vibration-damping rubber blocks, comprising the following steps:

[0007] S10: Construction personnel construct a three-dimensional model of the construction site for the shock-absorbing rubber blocks based on the design drawings of the construction site.

[0008] S20: Construction personnel divide the three-dimensional model according to the size of the damping blocks themselves, and determine the distribution quantity and direction of the damping blocks at the construction location;

[0009] S30: Construction personnel select the corresponding number of damping rubber blocks according to the three-dimensional model and cut the damping rubber blocks to be processed;

[0010] S40: Clean the construction site of the shock-absorbing rubber blocks and level the construction location;

[0011] S50: Lay a fixing layer flat at the construction location, and open through holes at the positions where the fixing layer is fixed to each of the shock-absorbing rubber blocks;

[0012] S60: The damping blocks of the fixed column and fixed row are pre-connected by steel wire, and the resulting damping block fixing net is fixed at the construction position, and its position is finely adjusted manually;

[0013] S70: Pumping fixative into the fixation layer so that the damping block is fixedly connected to the fixation layer through the through hole;

[0014] S80: After the shock-absorbing rubber blocks are completely fixed, fill the gaps in the shock-absorbing rubber blocks with concrete;

[0015] S90: After leveling the concrete surface, cure it to complete the laying of the vibration damping rubber blocks.

[0016] Based on the above technical solution, the vibration damping rubber block laying construction method of the present invention can be further improved as follows:

[0017] The specific steps of pumping fixing adhesive into the fixing layer, so that the fixing adhesive overflowing from the through hole of the shock-absorbing adhesive block is fixedly connected to the fixing layer, include:

[0018] The first step is to open liquid inlets at the four edges of the fixing layer;

[0019] The second step is to securely fix the input pump to the liquid inlet;

[0020] The third step involves pumping adhesive into the interior of the fixing layer using the input pump, so that the damping adhesive block is fixedly connected to the fixing layer by the adhesive overflowing from the through hole.

[0021] Furthermore, the composition of the fixing adhesive includes 25-30 parts of polyacrylamide, 15-22 parts of sodium silicate, 5-8 parts of filler, 6-8 parts of additives, 3-6 parts of waterproofing agent, 2.5-4 parts of surfactant, 23-28 parts of acetone, and 40-45 parts of water.

[0022] The filler is a mixture of kaolin, silicon carbide and titanium dioxide, with a weight ratio of kaolin:silicon carbide:titanium dioxide of 1:2-4:4-6.

[0023] The surfactant is one of sodium dioctyl succinate sulfonate and sodium dodecyl aminopropionate.

[0024] Furthermore, the input pump and the liquid inlet are sealed together by a pipe. During the pumping process, the pipe is withdrawn from the center of the fixing layer to the edge in sequence to ensure the uniformity of the fixing adhesive inside the fixing layer.

[0025] Furthermore, the specific steps of laying a fixing layer flat at the construction location and opening through holes at the positions where the fixing layer is fixed to each of the shock-absorbing rubber blocks include:

[0026] The first step is to cut the fixing layer so that the fixing layer is exactly the same in shape and size as the construction location;

[0027] The second step is to locate the center of each shock-absorbing rubber block on the surface of the fixed layer according to the position determined by the three-dimensional model.

[0028] The third step is to open a through hole on the upper surface of the fixing layer according to the positioning location;

[0029] The third step is to fix the fixing layer to the construction site with screws.

[0030] Furthermore, the fixing layer is hollow and has a total thickness of 1-2 cm; the side of the fixing layer that is fixed to the construction position is a waterproof layer, and the side that is fixed to the shock-absorbing rubber block is a rigid resin.

[0031] Furthermore, the specific steps for the construction personnel to construct a three-dimensional model of the vibration-damping rubber block construction site based on the design drawings of the construction site include:

[0032] The first step involves the construction personnel classifying the construction site of the shock-absorbing rubber blocks according to the design drawings of the construction site using a hierarchical classification method. They then propose a coding rule based on information organization to code each part of the classified construction site of the shock-absorbing rubber blocks.

[0033] The second step is for construction personnel to standardize the parameters of each part of the construction site for the vibration damping blocks, create a shared parameter file, and use it in different families and projects.

[0034] The third step is for the construction personnel to build a three-dimensional model of the construction site of the vibration damping blocks based on the above classification results and the scheme on the construction design drawings using the Revit software platform. The three-dimensional models are then classified and summarized to establish a family library of construction sites for the vibration damping blocks.

[0035] The fourth step involves the construction personnel calling up the components in the construction site family library of the vibration damping blocks according to the actual installation environment of the construction site. Through external data file driving, the parameters of the construction site components of the vibration damping blocks are modified to generate corresponding instances.

[0036] The fifth step involves the construction workers assembling the blocks to create a complete three-dimensional model of the shock-absorbing rubber block installation.

[0037] Furthermore, the specific steps by which the construction personnel divide the three-dimensional model according to the size of the damping blocks themselves, and determine the distribution quantity and direction of the damping blocks at the construction location, include:

[0038] The first step is for the construction workers to build a three-dimensional model of the shock-absorbing rubber block on top of the three-dimensional model, with the same scale.

[0039] The second step involves the construction workers arranging the three-dimensional models of the shock-absorbing rubber blocks sequentially on top of the three-dimensional model of the shock-absorbing rubber block construction in an array manner.

[0040] The third step is for the construction personnel to set the direction of the long axis center of the shock-absorbing rubber block to coincide with the direction of the long axis center of the three-dimensional model of the shock-absorbing rubber block construction.

[0041] Fourth step: The construction personnel set the distance between adjacent shock-absorbing rubber blocks to 1-2cm, leaving room for elasticity;

[0042] Fifth, the construction personnel determine the distribution quantity and direction of the shock-absorbing rubber blocks at the construction location by aligning the edges of the three-dimensional model of the shock-absorbing rubber blocks with the three-dimensional model of the construction site.

[0043] Furthermore, the specific steps for the construction personnel to select the corresponding number of damping blocks based on the three-dimensional model and to cut the damping blocks to be processed include:

[0044] The first step is for the construction workers to mark lines on the surface of the damping blocks to be treated according to the shape of each damping block determined by the model.

[0045] The second step is to fix the shock-absorbing rubber block to be processed on the cutting device and cut the shock-absorbing rubber block to be processed according to the upper edge of the scribing line.

[0046] The third step is to polish the shock-absorbing rubber block.

[0047] Furthermore, the specific steps for grinding the shock-absorbing rubber block include:

[0048] The cut area of ​​the shock-absorbing rubber block is polished using a polishing machine, so that the polishing boundary is located at the lower edge of the scribing line.

[0049] Compared with existing technologies, the beneficial effects of the vibration damping rubber block laying construction method provided by the present invention are as follows: Construction personnel construct a three-dimensional model of the vibration damping rubber block construction site based on the design drawing of the construction site; the construction personnel divide the three-dimensional model according to the size of the vibration damping rubber blocks themselves, determining the distribution quantity and direction of the vibration damping rubber blocks at the construction location; the construction personnel select the corresponding number of vibration damping rubber blocks according to the three-dimensional model and cut the vibration damping rubber blocks to be processed; the construction site of the vibration damping rubber blocks is cleaned and the construction location is leveled; a fixing layer is laid flat at the construction location, and openings are made at the fixing positions of the fixing layer and each vibration damping rubber block. Through holes are used to pre-fix the vibration-damping rubber blocks in fixed columns and rows using steel wires. The resulting vibration-damping rubber block fixing net is then fixed at the construction location, and its position is finely adjusted manually. Fixing adhesive is pumped into the fixing layer, allowing the vibration-damping rubber blocks to be fixedly connected to the fixing layer through the through holes. After the vibration-damping rubber blocks are completely fixed, concrete is filled into the gaps between them. The concrete surface is then smoothed and cured to complete the flat laying of the vibration-damping rubber blocks. This method solves the problem of low construction efficiency and frequent rework caused by the current method of fixing individual vibration-damping rubber blocks sequentially. Attached Figure Description

[0050] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the description of the embodiments of the present invention will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0051] Figure 1 This is a flowchart illustrating the specific process of a vibration-damping rubber block laying method. Detailed Implementation

[0052] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0053] like Figure 1The diagram shows an operation flowchart of a vibration-damping rubber block laying method provided by the present invention, which includes the following steps:

[0054] S10: Construction personnel construct a three-dimensional model of the vibration damping block construction site based on the design drawings of the vibration damping block construction site;

[0055] S20: Construction workers divide the 3D model according to the size of the damping blocks themselves, and determine the distribution quantity and direction of the damping blocks at the construction location;

[0056] S30: Construction workers select the corresponding number of damping blocks based on the 3D model and cut the damping blocks that need to be processed.

[0057] S40: Clean the construction site for the shock-absorbing rubber blocks and level the construction area.

[0058] S50: Lay a fixing layer flat at the construction location, and make through holes at the fixing layer and each shock-absorbing rubber block fixing position;

[0059] S60: The damping blocks of the fixed columns and fixed rows are pre-connected by steel wire, and the resulting damping block fixing net is fixed at the construction position, and its position is finely adjusted manually;

[0060] S70: Pump the fixing adhesive into the fixing layer so that the damping adhesive block is fixedly connected to the fixing layer through the through hole;

[0061] S80: After the damping blocks are completely fixed, fill the gaps between the damping blocks with concrete.

[0062] S90: After leveling the concrete surface, cure it to complete the laying of vibration damping blocks.

[0063] During use, construction workers construct a 3D model of the vibration damping blocks based on the design drawings of the construction site. On the 3D model, they divide the blocks according to their size, determining the quantity and orientation of the blocks at the construction location. They then select the appropriate number of blocks from the model and cut them accordingly. The construction site is cleaned and leveled. A fixing layer is laid flat at the construction location, with through holes drilled at the fixing points where each block is fixed. The blocks in fixed columns and rows are pre-connected with steel wire, forming a fixing net that is then manually adjusted. Fixing adhesive is pumped into the fixing layer, allowing the blocks to adhere to the layer through the through holes. After the blocks are fully fixed, concrete is filled into the gaps. The concrete surface is then smoothed and cured, completing the laying of the vibration damping blocks.

[0064] In the above technical solution, the specific steps of pumping fixing adhesive into the fixing layer so that the damping adhesive block overflows from the through hole and is fixedly connected to the fixing layer include:

[0065] The first step is to open liquid inlets at the four edges of the fixed layer;

[0066] The second step is to securely fasten the input pump to the liquid inlet;

[0067] The third step involves pumping adhesive into the interior of the fixing layer using an input pump, so that the damping adhesive blocks are fixedly connected to the fixing layer through the through holes.

[0068] Furthermore, in the above technical solution, the components of the fixing adhesive include 25-30 parts of polyacrylamide, 15-22 parts of sodium silicate, 5-8 parts of filler, 6-8 parts of additives, 3-6 parts of waterproofing agent, 2.5-4 parts of surfactant, 23-28 parts of acetone, and 40-45 parts of water.

[0069] The filler is a mixture of kaolin, silicon carbide and titanium dioxide, with a weight ratio of kaolin:silicon carbide:titanium dioxide of 1:2-4:4-6.

[0070] The surfactant is one of sodium dioctyl succinate sulfonate and sodium dodecyl aminopropionate.

[0071] Furthermore, in the above technical solution, the input pump and the liquid inlet are connected in a sealed manner through a pipe. During the pumping process, the pipe is withdrawn from the center of the fixing layer to the edge in sequence to ensure the uniformity of the fixing adhesive inside the fixing layer.

[0072] Furthermore, in the above technical solution, the specific steps of laying a fixing layer flat at the construction location and opening through holes at the fixing points where the fixing layer is fixed to each shock-absorbing rubber block include:

[0073] The first step is to cut the fixing layer so that the fixing layer is exactly the same in shape and size as the construction location;

[0074] The second step is to locate the center of each shock-absorbing rubber block on the surface of the fixing layer based on the position determined by the three-dimensional model.

[0075] The third step is to open a through hole on the upper surface of the fixing layer according to the positioning location;

[0076] The third step is to fix the fixing layer to the construction site with screws.

[0077] Furthermore, in the above technical solution, the fixing layer is hollow and its total thickness is 1-2cm; the side of the fixing layer that is fixed to the construction position is a waterproof layer, and the side that is fixed to the shock-absorbing rubber block is a rigid resin.

[0078] Furthermore, in the above technical solution, the specific steps for construction personnel to construct a three-dimensional model of the vibration damping block construction site based on the design drawings of the vibration damping block construction site include:

[0079] The first step involves the construction personnel classifying the construction site of the shock-absorbing rubber blocks according to the design drawings of the site using a hierarchical classification method. They then propose a coding rule based on information organization to code each part of the classified construction site of the shock-absorbing rubber blocks.

[0080] The second step is for construction personnel to standardize the parameters of each part of the construction site for the vibration damping blocks, create a shared parameter file, and use it in different families and projects.

[0081] The third step is for the construction personnel to build a three-dimensional model of the construction site of the vibration damping blocks based on the above classification results and the scheme on the construction design drawings using the Revit software platform. The three-dimensional models are then classified and summarized to establish a family library of construction sites for the vibration damping blocks.

[0082] The fourth step involves the construction personnel calling up the components in the construction site family library of the vibration damping blocks according to the actual installation environment of the construction site. Through external data file driving, the parameters of the construction site components of the vibration damping blocks are modified to generate corresponding instances.

[0083] The fifth step involves the construction workers assembling the blocks to create a complete three-dimensional model of the shock-absorbing rubber block installation.

[0084] Furthermore, in the above technical solution, the specific steps for construction personnel to divide the 3D model according to the size of the damping blocks themselves and determine the distribution quantity and direction of the damping blocks at the construction location include:

[0085] The first step is for the construction workers to build a 3D model of the same scale shock-absorbing rubber blocks on top of the 3D model;

[0086] The second step involves the construction workers arranging the three-dimensional models of the shock-absorbing rubber blocks sequentially on top of the three-dimensional model of the shock-absorbing rubber block construction using an array method.

[0087] The third step is for the construction personnel to set the direction of the long axis center of the shock-absorbing rubber block to coincide with the direction of the long axis center of the three-dimensional model of the shock-absorbing rubber block construction.

[0088] The fourth step is for the construction workers to set the distance between adjacent shock-absorbing rubber blocks to be 1-2cm, leaving room for flexibility;

[0089] The fifth step involves the construction personnel determining the distribution quantity and orientation of the shock-absorbing rubber blocks at the construction location by ensuring the overlap between the 3D model of the shock-absorbing rubber blocks and the 3D model of the construction site.

[0090] Furthermore, in the above technical solution, the specific steps for construction personnel to select the corresponding number of damping blocks based on the three-dimensional model and to cut the damping blocks to be processed include:

[0091] The first step is for the construction workers to mark lines on the surface of the damping blocks to be treated according to the shape of each damping block determined by the model;

[0092] The second step is to fix the damping rubber block to be processed on the cutting device and cut the damping rubber block according to the upper edge of the scribing line.

[0093] The third step is to polish the shock-absorbing rubber blocks.

[0094] After smoothing the concrete surface, it is cured. The specific steps for completing the laying of the vibration damping blocks include:

[0095] The concrete surface is smoothed with a scraper, and water is sprayed on the concrete multiple times within 24 hours after smoothing to keep the surface moist. The water spraying process is repeated 3 to 5 times a day for 7 to 10 days.

[0096] Furthermore, in the above technical solution, the specific steps for grinding the shock-absorbing rubber block include:

[0097] The cut edges of the shock-absorbing rubber block are polished using a polishing machine, ensuring that the polishing boundary is at the lower edge of the scribed line.

[0098] Example 1:

[0099] The adhesive consists of 25 parts polyacrylamide, 15 parts sodium silicate, 5 parts filler, 6 parts additives, 3 parts waterproofing agent, 2.5 parts surfactant, 23 parts acetone, and 40 parts water. The filler is a mixture of kaolin, silicon carbide, and titanium dioxide, with a weight ratio of kaolin:silicon carbide:titanium dioxide of 1:2:4.

[0100] Example 2:

[0101] The adhesive consists of 30 parts polyacrylamide, 22 parts sodium silicate, 8 parts filler, 8 parts additives, 6 parts waterproofing agent, 4 parts surfactant, 28 parts acetone, and 45 parts water. The filler is a mixture of kaolin, silicon carbide, and titanium dioxide, with a weight ratio of kaolin:silicon carbide:titanium dioxide of 1:4:6.

[0102] Specifically, the principle of this invention is as follows: Construction personnel construct a three-dimensional model of the vibration-damping rubber block construction site based on the design drawings; the construction personnel divide the three-dimensional model according to the size of the vibration-damping rubber blocks themselves, determining the distribution quantity and direction of the vibration-damping rubber blocks at the construction location; the construction personnel select the corresponding number of vibration-damping rubber blocks according to the three-dimensional model and cut the blocks to be processed; the construction site is cleaned and the construction location is leveled; a fixing layer is laid flat at the construction location, and... Through holes are made at the positions where the fixing layer and each of the damping blocks are fixed; the damping blocks in the fixing columns and rows are pre-fixed and connected by steel wires, and the resulting damping block fixing net is fixed at the construction position, and its position is finely adjusted manually; fixing adhesive is pumped into the fixing layer, so that the damping blocks are fixedly connected to the fixing layer through the fixing adhesive overflowing from the through holes; after the damping blocks are completely fixed, concrete is filled into the gaps between the damping blocks; after the concrete surface is smoothed, it is cured to complete the flat laying construction of the damping blocks.

Claims

1. A method of laying a vibration-damping mat, characterized in that, Includes the following steps: S10: Construction personnel construct a three-dimensional model of the vibration damping block construction site based on the design drawings of the construction site. S20: Construction personnel divide the three-dimensional model according to the size of the vibration damping blocks themselves, and determine the distribution quantity and direction of the vibration damping blocks at the construction location; S30: Construction personnel select the corresponding number of vibration damping blocks according to the three-dimensional model and cut the vibration damping blocks to be processed. S40: Clean the construction site of the vibration damping rubber block and level the construction location; S50: Lay a fixing layer flat at the construction location, and open through holes at the positions where the fixing layer is fixed to each of the vibration damping rubber blocks; S60: The vibration damping blocks of the fixed column and fixed row are pre-connected by steel wire, and the resulting vibration damping block fixing net is fixed at the construction position, and its position is finely adjusted manually; S70: Pumping fixative into the fixation layer so that the vibration damping block is fixedly connected to the fixation layer through the through hole; S80: After the vibration damping blocks are completely fixed, fill the gaps in the vibration damping blocks with concrete; S90: After leveling the concrete surface, cure it to complete the laying of the vibration damping rubber blocks; The fixing layer is hollow and has a total thickness of 1-2cm. The side of the fixing layer that is fixed to the construction position is a waterproof layer, and the side that is fixed to the vibration damping block is a rigid resin layer.

2. The method of claim 1, wherein the method further comprises: The specific steps of pumping fixing adhesive into the fixing layer, so that the fixing adhesive overflowing from the through hole of the vibration damping adhesive block is fixedly connected to the fixing layer, include: The first step is to open liquid inlets at the four edges of the fixing layer; The second step is to securely fix the input pump to the liquid inlet; The third step involves pumping fixing adhesive into the interior of the fixing layer using the input pump, so that the damping adhesive block is fixedly connected to the fixing layer through the fixing adhesive overflowing from the through hole.

3. The method of claim 2, wherein the method further comprises: The adhesive comprises 25-30 parts polyacrylamide, 15-22 parts sodium silicate, 5-8 parts filler, 6-8 parts additives, 3-6 parts waterproofing agent, 2.5-4 parts surfactant, 23-28 parts acetone, and 40-45 parts water. The filler is a mixture of kaolin, silicon carbide and titanium dioxide, with a weight ratio of kaolin:silicon carbide:titanium dioxide of 1:2-4:4-6. The surfactant is one of sodium dioctyl succinate sulfonate and sodium dodecyl aminopropionate.

4. The method of claim 3, wherein the vibration-damping rubber block is laid in a pattern of two or more rows. The input pump and the liquid inlet are sealed together by a pipe. During the pumping process, the pipe is withdrawn from the center of the fixing layer to the edge in sequence to ensure the uniformity of the fixing adhesive inside the fixing layer.

5. The method of claim 4, wherein the method further comprises: The specific steps of laying a fixing layer flat at the construction location and opening through holes at the positions where the fixing layer is fixed to each of the vibration damping rubber blocks include: The first step is to cut the fixing layer so that the fixing layer is exactly the same in shape and size as the construction location; The second step is to locate the center of each vibration damping block on the surface of the fixing layer according to the position determined by the three-dimensional model. The third step is to open a through hole on the upper surface of the fixing layer according to the positioning location; The third step is to fix the fixing layer to the construction site with screws.

6. The method of claim 5, wherein the vibration-damping rubber block is laid out in a pattern of a plurality of blocks. The specific steps for the construction personnel to construct a three-dimensional model of the vibration damping block construction site based on the design drawings of the vibration damping block construction site include: The first step involves the construction personnel classifying the construction site of the vibration damping blocks according to the design drawings of the construction site using a hierarchical classification method. They then propose a coding rule based on information organization to code each part of the classified construction site of the vibration damping blocks. The second step is for construction personnel to standardize the parameters of each part of the construction site for the vibration damping blocks, create a shared parameter file, and use it in different families and projects. The third step is for the construction personnel to build a three-dimensional model of the construction site of the vibration damping rubber blocks based on the above classification results and the scheme on the construction design drawings using the Revit software platform. The three-dimensional models are then classified and summarized to establish a family library of construction sites for the vibration damping rubber blocks. The fourth step involves the construction personnel calling up various components from the construction site family library of the vibration damping blocks according to the actual installation environment of the construction site. Through external data file driving, the parameters of the construction site components of the vibration damping blocks are modified to generate corresponding instances. The fifth step involves the construction workers assembling the blocks in a unified manner to create a complete three-dimensional model of the vibration-damping rubber block construction.

7. The method of claim 6, wherein the method further comprises: The specific steps by which the construction workers divide the 3D model according to the size of the vibration damping blocks themselves, and determine the distribution quantity and direction of the vibration damping blocks at the construction location, include: The first step is for the construction workers to build a three-dimensional model of the vibration damping rubber block on top of the three-dimensional model, with the same scale. The second step involves the construction workers arranging the three-dimensional models of the vibration damping blocks sequentially on top of the three-dimensional model of the vibration damping block construction in an array manner. The third step is for the construction personnel to set the direction of the long axis center of the vibration damping rubber block to coincide with the direction of the long axis center of the three-dimensional model of the vibration damping rubber block construction. Fourth step: The construction personnel set the distance between adjacent vibration damping blocks to 1-2cm, leaving room for flexibility; The fifth step involves the construction personnel determining the distribution quantity and orientation of the vibration damping blocks at the construction location based on the overlap between the three-dimensional model of the vibration damping blocks and the three-dimensional model of the construction site.

8. The method of claim 7, wherein the method further comprises: The specific steps for the construction workers to select the corresponding number of vibration-damping rubber blocks based on the three-dimensional model and to cut the vibration-damping rubber blocks to be processed include: The first step is for the construction workers to mark lines on the surface of the vibration damping blocks to be treated according to the shape of each vibration damping block determined by the model; The second step is to fix the damping block to be processed on the cutting device and cut the damping block according to the upper edge of the scribing line. The third step is to polish the vibration damping rubber block.

9. The method of claim 8, wherein the method further comprises, The specific steps for polishing the vibration damping rubber block include: The cut area of ​​the vibration damping rubber block is polished using a polishing machine, so that the polishing boundary is located at the lower edge of the scribing line.

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