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CN-122020799-A - Automatic calculation and design method for grouting reinforcement engineering quantity in rail transit tunnel

CN122020799ACN 122020799 ACN122020799 ACN 122020799ACN-122020799-A

Abstract

The invention provides an automatic calculation and design method for grouting reinforcement engineering quantity in a track traffic hole, which runs an AutoCAD secondary development program, opens a grouting reinforcement longitudinal section design scheme file in the track traffic hole and reads data, inputs a grouting reinforcement design and engineering quantity calculation range in the track traffic hole, automatically calculates a grouting reinforcement radius and a grouting reinforcement range angle in the track traffic hole based on a read tunnel hole grouting reinforcement range offset value and a tunnel radius, and finally automatically calculates the grouting reinforcement engineering quantity in the track traffic hole.

Inventors

  • NIE CEN
  • LIU ZICHANG
  • ZHOU LIANGBING
  • ZHOU CANLANG
  • CHEN HONGBING
  • Zang Liance
  • FAN GUOQUAN
  • YIN HUATUO
  • XIE JUNFEI

Assignees

  • 佛山轨道交通设计研究院有限公司

Dates

Publication Date
20260512
Application Date
20260206

Claims (10)

  1. 1. The automatic calculation and design method for the grouting reinforcement engineering quantity in the rail transit tunnel is characterized by comprising the following steps of: s1, running an AutoCAD secondary development program and automatically starting AutoCAD application software; s2, opening a grouting reinforcement vertical section design scheme file in the track traffic hole, and reading grouting reinforcement vertical section design scheme data in the hole; S3, inputting a grouting reinforcement design and engineering calculation range in the rail transit hole; s4, automatically calculating the grouting reinforcement radius in the track traffic hole based on the read offset value of the grouting reinforcement range in the tunnel hole and the tunnel radius; S5, automatically calculating the angle of the grouting reinforcement range in the track traffic hole based on the offset value of the grouting reinforcement range in the tunnel hole and the calculated reinforcement radius; And S6, automatically calculating grouting reinforcement engineering quantity in the track traffic hole based on the reinforcement range length, the calculated reinforcement range angle and the calculated reinforcement radius.
  2. 2. The automated calculation and design method for grouting reinforcement engineering quantity in a track traffic hole according to claim 1, wherein in step S2, a format of a grouting reinforcement vertical section design scheme file in the track traffic hole is dwg, dws, dwt or dxf, and the design scheme data comprises tunnel radius data, a grouting reinforcement range offset value in the tunnel hole and line vertical section design scheme data.
  3. 3. The automated computing and designing method for grouting reinforcement engineering quantity in a track traffic tunnel according to claim 2, wherein the grouting reinforcement range offset value in the tunnel comprises an upper offset value in the grouting reinforcement range in the tunnel and a lower offset value in the grouting reinforcement range in the tunnel.
  4. 4. The automated computing and designing method for grouting reinforcement engineering quantity in a track traffic tunnel according to claim 3, wherein the upper offset value of the grouting reinforcement range in the tunnel is defined as an upward offset value based on the upper profile of the tunnel, the downward offset is a negative value, and the lower offset value of the grouting reinforcement range in the tunnel is defined as a downward offset value based on the lower profile of the tunnel, and the upward offset is a negative value.
  5. 5. The automated computing and designing method for grouting reinforcement engineering quantity in a rail transit tunnel according to claim 1, wherein in step S3, the grouting reinforcement design and engineering quantity computing range in the rail transit tunnel is determined by inputting a line starting mileage and a line ending mileage.
  6. 6. The automated computing and designing method for grouting reinforcement engineering quantity in a track traffic hole according to claim 2, wherein in step S4, the grouting reinforcement radius R in the track traffic hole is obtained by adding the lower offset value d_l of the grouting reinforcement range in the tunnel hole to the tunnel radius R, i.e. r=d_l+r.
  7. 7. The automated computing and designing method for the grouting reinforcement engineering quantity in the track traffic hole according to claim 6, wherein the grouting reinforcement range angle D in the track traffic hole is computed by the following formula: In the above-mentioned method, the step of, An upper offset value of the grouting reinforcement range in the tunnel hole, For the radius of the tunnel in question, And grouting and reinforcing the radius in the track traffic hole.
  8. 8. The automated computing and designing method for the grouting reinforcement engineering quantity in the track traffic hole according to claim 2, wherein the grouting reinforcement engineering quantity in the track traffic hole is characterized in that Calculated by the following formula: Wherein, the In order to achieve a peripheral rate of the material, Grouting in the track traffic hole to strengthen the radius, For the radius of the tunnel in question, Grouting in the track traffic hole to strengthen the angle of the range, And grouting in the track traffic hole to reinforce the range length.
  9. 9. The automated computing and designing method for grouting reinforcement engineering quantity in a rail transit tunnel according to claim 8, wherein the length of the grouting reinforcement range in the rail transit tunnel is as follows And (3) calculating the length of the range for the grouting reinforcement design and the engineering amount in the track traffic hole determined in the step (S3).
  10. 10. An automatic calculation and design device for the grouting reinforcement engineering quantity in a track traffic hole, which is applied to the automatic calculation and design method for the grouting reinforcement engineering quantity in the track traffic hole according to any one of claims 1-9, and is characterized by comprising a processor, a computer storage medium and a memory; the processor is used for running one or more program instructions for executing any one of the steps of the automatic calculation and design method of the grouting reinforcement engineering quantity in the track traffic tunnel; the computer storage medium is stored with a computer program, when the computer program is executed by a processor, the steps of any one of the automatic calculation and design methods of the grouting reinforcement engineering quantity in the track traffic tunnel are realized, and the computer program is one or more program instructions; the memory is for storing one or more executable program instructions of the processor.

Description

Automatic calculation and design method for grouting reinforcement engineering quantity in rail transit tunnel Technical Field The invention relates to the technical field of rail transit, in particular to an automatic calculation and design method for grouting reinforcement engineering quantity in a rail transit tunnel. Background In the field of track traffic construction and maintenance, grouting reinforcement in tunnel holes is a key engineering technology for ensuring stable tunnel structure and preventing water leakage and stratum settlement. The calculation and design of the grouting reinforcement engineering quantity are accurately and efficiently completed, and the calculation and design are important for controlling engineering cost and guaranteeing construction progress. At present, a method for calculating and designing grouting reinforcement engineering quantity in a rail transit tunnel commonly adopted in the industry mainly depends on manual operation and experience judgment of a designer, and a typical flow and existing technical problems are as follows: 1) The automation degree is low, the efficiency is low, the whole process is highly dependent on manpower, and the steps from data extraction and parameter calculation to result summarization need to be performed by designers. In the face of tunnel intervals of tens or even hundreds of kilometers, tens of working days (for example, about 60 working days are needed for a certain subway project) are often needed for completing the whole-line engineering quantity calculation, and the design efficiency is severely restricted. 2) The calculation accuracy is difficult to ensure, a large number of manual operations and complex mathematical calculations are performed, so that risks of misreading, misrecording and calculation errors in the process are obviously increased, the accuracy of engineering quantity calculation is directly affected, and deviation can be caused to engineering budget and material purchase. 3) The digitization and intellectualization level is insufficient, namely design parameters are scattered in the drawing, and a structured digital asset cannot be formed and cannot be directly called and processed by a computer program. Any adjustment of the design scheme needs to manually re-execute the whole set of calculation flow, has high scheme iteration and optimization cost, and cannot meet the requirements of modern engineering on quick response and accurate design. 4) The labor intensity is high, and the resource waste is that the professional technician is bound in the repeated and mechanical data arrangement and calculation work, so that the labor resource is extremely wasted, and the design optimization work that the designer is focused on more creative is also influenced. Therefore, an automatic calculation method capable of realizing automatic parameter acquisition, intelligent calculation of key geometric parameters and one-key generation of engineering quantity is needed in the industry, so that the efficiency, precision and intelligent level of grouting reinforcement design work in a rail transit tunnel are fundamentally improved. Disclosure of Invention The invention aims to solve the problems mentioned in the background art, and provides the following technical scheme: An automatic calculation and design method for grouting reinforcement engineering quantity in a rail transit tunnel comprises the following steps: s1, running an AutoCAD secondary development program and automatically starting AutoCAD application software; s2, opening a grouting reinforcement vertical section design scheme file in the track traffic hole, and reading grouting reinforcement vertical section design scheme data in the hole; S3, inputting a grouting reinforcement design and engineering calculation range in the rail transit hole; s4, automatically calculating the grouting reinforcement radius in the track traffic hole based on the read offset value of the grouting reinforcement range in the tunnel hole and the tunnel radius; S5, automatically calculating the angle of the grouting reinforcement range in the track traffic hole based on the offset value of the grouting reinforcement range in the tunnel hole and the calculated reinforcement radius; And S6, automatically calculating grouting reinforcement engineering quantity in the track traffic hole based on the reinforcement range length, the calculated reinforcement range angle and the calculated reinforcement radius. Further preferably, in step S2, the format of the grouting reinforcement vertical section design scheme file in the track traffic hole is dwg, dws, dwt or dxf, and the design scheme data includes tunnel radius data, a grouting reinforcement range offset value in the tunnel hole and line vertical section design scheme data. Further preferably, the in-tunnel grouting reinforcement range offset value includes an upper portion offset value of the in-tunnel grouting reinforcement range an