基岩温度探测地应力动态变化的展望与研究进展

Shunyun Chen , Qiongying Liu , Peixun Liu , Yanqun Zhuo
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引用次数: 1

摘要

在室内试验结果的基础上,提出了一种新的温度变化应力检测方法(DSCT),并通过现场观测加以验证。本文首先简要介绍了该方法的物理背景,然后进行了实验研究。然后,对关键技术进行了综述,并详细介绍了原位观测的主要结果。最后,对该方法的进一步研究进行了展望。潜在勘探包括六个方面的内容:(1)观测潮汐力及其二次流体热效应;(2)研究温度对应力变化方向的响应;(三)进行实际工程应用;(4)基于基岩温度观测,分析强震危险性;(5)进行DSCT的原位实验;(6)定量解释卫星热红外异常。总之,考虑到地应力的动态变化是地震预报或工程应用的关键参数,DSCT方法对地震风险或工程应用具有重要的现实意义。
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Prospect and research progress of detecting dynamic change in crustal stress by bedrock temperature

A new method of detecting stress change by temperature (DSCT), has been recently proposed on the basis of the experimental results in laboratory, and verified by field observation. In this paper, at first, physical background is concisely introduced, and experimental researches are followed. Then, the key techniques are reviewed, and the main results on in-situ observations are also given in detail. At last, we emphasize on the prospects of this method for being investigated further. The potential prospect includes six contents: (1) to observe the tidal force and its secondary fluid thermal effect; (2) to study temperature response to change in direction of the stress change; (3) to carry out practical engineering application; (4) to analyze the strong earthquake risk, based on bedrock temperature observation; (5) to conduct in situ experiment on DSCT; (6) to explain quantitatively the satellite thermal infrared anomaly. In short, considering that the dynamic change of the crustal stress is a key parameter of earthquake forecasting or engineering application, the method of DSCT has important practical significance for earthquake risk or engineering applications.

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