A simulation test system and method for the mechanical properties of rock mass joints based on the principle of force field equivalence.
The rock mass joint mechanical property simulation test system based on the principle of body force field equivalence solves the problems of high cost and sample preparation distortion of traditional rock mass engineering test equipment, realizes low-cost and high-efficiency rock mass mechanical parameter inversion and simulation, and supports the simulation of complex geological phenomena in large-scale rock mass engineering.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- CHINA RAILWAY FIFTH BUREAU GRP CHENGDU ENG CO LTD
- Filing Date
- 2026-01-19
- Publication Date
- 2026-05-26
AI Technical Summary
Current rock mass engineering stability assessment relies on traditional large-scale testing equipment, which has high costs, large footprint, distorted sample preparation, inability to simulate the synergistic effect of large-scale rock mass joint networks and overall instability mechanism, and long test cycles, making it difficult to achieve accurate mechanical parameter inversion.
A rock mass joint mechanical property simulation test system based on the principle of body force field equivalence is adopted. Through geomechanical similarity model, multi-dimensional sensor data acquisition, improved U-Net machine learning model and Bayesian inference inversion model, the system realizes automatic identification of rock mass joint expansion trajectory and mechanical parameter inversion. Combined with optical flow algorithm and particle image velocimetry, the system can perform efficient and accurate mechanical property simulation.
It enables low-cost and high-efficiency rock mechanics testing, can simulate large-scale rock engineering, provide high-quality mechanical parameter inversion results, quantify uncertainties, significantly reduce equipment costs and energy consumption, improve test efficiency, and support the simulation of rock deformation and failure under complex geological conditions.
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Figure CN121540564B_ABST