Inverse analysis of micro-mechanical parameters of rock-forming minerals based on nano-indentation technology

缩进 材料科学 有限元法 旋转对称性 纳米压痕 反演(地质) 复合材料 地质学 结构工程 机械 计算机科学 工程类 物理 古生物学 构造盆地 程序设计语言
作者
Lingbao Hu,Fuzeng Wang,Yanxin Meng,Feng Jiang
出处
期刊:Physica Scripta [IOP Publishing]
卷期号:98 (5): 055003-055003 被引量:3
标识
DOI:10.1088/1402-4896/acc3ca
摘要

Abstract The micro-mechanical properties of rock-forming minerals have an important influence on the macro-mechanical properties of rocks. However, it was difficult to obtain the micro-mechanical parameters of rock-forming minerals directly through traditional experiments. In this paper, an inverse method of micro-mechanical parameters of rock-forming minerals based on nano-indentation technology was proposed. In the forward analysis, the nano-indentation test was performed on four typical granite minerals. In the reverse analysis, an axisymmetric finite element model was used to simulate the nano-indentation test on granite minerals. Then, the calibration procedure of micro-mechanical parameters based on central composite design was established to reproduce the nano-indentation curves of four typical granite minerals. In order to verify the validity of inversion results, the optimized micro-mechanical parameters were inputted into the finite element model to gain the numerical curves, and they were compared with the curves of nano-indentation test, the simulated curves match well with the test results. Furthermore, the uniaxial compression model of rock based on mineral were established to further verify the accuracy of inversion results, the simulation results show that the inversion results can better simulate the macro-mechanical properties of rock. This study develops an inverse method of rock-forming minerals based on nano-indentation test, and it may be helpful to explain the macro-mechanical properties of rock from the micro-mechanical perspective and to establish the micro-mechanical model of rock.
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