咸水储层多尺度反应输运过程的物理模型系统
By constructing a physical model system for multi-scale reaction and transport processes in saline reservoirs, high-precision three-dimensional reconstruction and multi-field coupled dynamic simulation of micron-scale pore structures were achieved. This solved the simulation problem of the influence of mineral dissolution at the pore scale in traditional methods, and improved the computational efficiency and safety of CO2 sequestration processes.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- QINGDAO UNIV OF TECH
- Filing Date
- 2025-06-17
- Publication Date
- 2026-07-17
AI Technical Summary
Traditional continuous medium models cannot capture the impact of dynamic structural evolution such as mineral dissolution at the pore scale on seepage capacity. Furthermore, direct simulation at the pore scale of millions of grids is extremely time-consuming. Traditional upscaling methods ignore non-equilibrium mass transfer mechanisms, leading to the accumulation of parameter transfer errors and making it impossible to accurately analyze complex pore networks and cross-scale parameter fragmentation.
A physical model system for multi-scale reaction and transport processes in saline reservoirs is constructed. A dual-module collaborative system of multi-scale information pore size mathematical model and numerical solution is adopted to achieve high-precision three-dimensional reconstruction of micron-level pore structure and multi-field coupled dynamic simulation. Combined with efficient parallel computing methods, seamless coupling and parameter transfer between micro and macro scales are achieved.
It achieves high-precision three-dimensional reconstruction and multi-field coupled dynamic simulation of micron-scale pore structures, overcomes the limitations of traditional methods, accurately analyzes the correlation between complex pore networks and cross-scale parameters, and improves the computational efficiency and safety assessment of CO2 storage processes.
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Figure CN120688255B_ABST