热活化桩中土-结构界面特性的温度依赖性研究进展

IF 3.3 2区 工程技术 Q3 ENERGY & FUELS Geomechanics for Energy and the Environment Pub Date : 2023-12-01 DOI:10.1016/j.gete.2023.100521
Arianna Lupattelli , Diana Salciarini , Francesco Cecinato , Manolis Veveakis , Teresa Maria Bodas Freitas , Peter John Bourne-Webb
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引用次数: 0

摘要

热激活桩作为浅层地热能源系统的一部分,具有将结构荷载传递给地面和与周围土壤交换热量的双重作用,是一种经济有效的技术。由于TA桩受到热载荷和机械载荷的双重作用,其在土-结构界面上的行为特别复杂,是分析和设计这些结构的关键。本文旨在回顾目前关于土壤-结构界面行为的热依赖性的知识状况,并提供了从研究土壤和土壤-结构界面行为的非等温试验中获得的实验结果的概述。这个概述包括不同的实验设备和程序,土壤类型,初始土壤状态(固结程度或相对密度)和热负荷的比较。研究发现,要对不同温度下土壤-结构界面行为的可能变化作出独特的解释并不简单:由于测试条件的广泛变化,实验证据的框架非常复杂。因此,不可能对这些研究进行同类比较,从而导致对结果的明显模糊解释。总的来说,本研究和其他研究的共识是,界面电阻随温度的潜在变化通常是有限的,不是很显著。
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Temperature dependence of soil-structure interface behaviour in the context of thermally-activated piles: A review

Thermally-activated (TA) piles are cost-effective technologies with the dual role of transferring structural loads to the ground while exchanging heat with the surrounding soil as part of shallow geothermal energy systems. As TA piles are subjected to both thermal and mechanical loads, the behaviour on the soil-structure interface is particularly complex and is key for the analysis and design of these structures. The present paper aims to review the current state of knowledge regarding the thermal dependency of soil-structure interface behaviour and provide an overview of experimental results obtained from non-isothermal tests investigating soil and soil-structure interface behaviour. This overview includes comparison of the different experimental equipment and procedures, soil types, initial soil state overconsolidation ratio (degree of consolidation or relative density) and thermal loadings. It was found that it is not straightforward to reach a unique interpretation regarding possible variation of the soil-structure interface behaviour at different temperatures: the framework of the experimental evidence is very complex due to the wide variation in testing conditions. Therefore, it was not possible to compare the studies like-for-like, leading to an apparently ambiguous interpretation of the results. Overall, the consensus across this and other studies is that the potential variation of interface resistance with temperature typically appears to be limited and not very significant.

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来源期刊
Geomechanics for Energy and the Environment
Geomechanics for Energy and the Environment Earth and Planetary Sciences-Geotechnical Engineering and Engineering Geology
CiteScore
5.90
自引率
11.80%
发文量
87
期刊介绍: The aim of the Journal is to publish research results of the highest quality and of lasting importance on the subject of geomechanics, with the focus on applications to geological energy production and storage, and the interaction of soils and rocks with the natural and engineered environment. Special attention is given to concepts and developments of new energy geotechnologies that comprise intrinsic mechanisms protecting the environment against a potential engineering induced damage, hence warranting sustainable usage of energy resources. The scope of the journal is broad, including fundamental concepts in geomechanics and mechanics of porous media, the experiments and analysis of novel phenomena and applications. Of special interest are issues resulting from coupling of particular physics, chemistry and biology of external forcings, as well as of pore fluid/gas and minerals to the solid mechanics of the medium skeleton and pore fluid mechanics. The multi-scale and inter-scale interactions between the phenomena and the behavior representations are also of particular interest. Contributions to general theoretical approach to these issues, but of potential reference to geomechanics in its context of energy and the environment are also most welcome.
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