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储能系统技术 储能系统 ★ 5.0

地下热能储存井系统:基于文献计量与定性分析工具的综合综述

Borehole thermal energy storage systems: A comprehensive review using bibliometric and qualitative tools

作者 Mohammadamin Ahmadfar · Ehsan Baniasadi
期刊 Applied Energy
出版日期 2025年1月
卷/期 第 387 卷
技术分类 储能系统技术
技术标签 储能系统
相关度评分 ★★★★★ 5.0 / 5.0
关键词 This study explores five decades of borehole thermal energy storage research evolution.
语言:

中文摘要

摘要 地下热能储存井(BTES)系统正成为一种极具前景的技术,可用于储存间歇性的可再生热能资源。BTES系统利用地下作为热储层,在能源过剩时将热量储存,并在需要时提取使用。这种机制使系统能够应对可再生能源供应与建筑供暖和制冷需求之间不匹配的挑战。该技术不仅提高了可再生能源系统的效率,还有助于减少温室气体排放以及对化石燃料的依赖。本研究在BTES领域引入了一种新颖的文献分析方法,结合使用文献计量学与定性分析工具,包括SciMAT、VOSviewer和NVivo,为传统的手工综述方法提供了一种系统化的替代方案。研究旨在识别关键文献,总结其研究成果,并追踪研究方向随时间的演变,从而加深对该领域的理解。本文共分为六个部分。第一部分概述了用于模拟BTES系统性能的解析模型与数值模型。第二部分讨论了传统文献综述方法与采用文献计量及定性分析工具的方法之间的差异,指出了各自的优势与局限性;同时比较了以往采用传统综述方法分析BTES领域的研究,阐明为何有必要采用文献计量与定性分析工具进行文献综述,并说明其所带来的优势。第三部分阐述了研究结构,并运用文献计量指标识别BTES领域中的重要出版物;第四部分则利用SciMAT、VOSViewer和NVivo构建科学图谱及关键词、文献、出版来源和活跃国家之间的网络关系,揭示主要的研究主题和具有影响力的文献。第五部分将BTES相关文献划分为七个类别,对每一类中的代表性研究进行回顾,以突出近期的发展进展;最后一部分评估这些研究的分布情况,识别出已有充分研究的领域以及BTES领域内仍需进一步探索的方向。本研究指出,学术界对BTES的研究兴趣日益增长,同时也揭示了在监管框架、市场现状、环境影响以及与智能能源系统的集成等方面存在的研究空白。此外,研究还强调需进一步探究地下水、回填材料、地层热物性及地温不平衡等因素对BTES系统性能所产生的热效应,凸显了持续开展研究以应对现有挑战并推动BTES系统发展的必要性。

English Abstract

Abstract Borehole thermal energy storage systems are emerging as a promising technology for storing intermittent renewable thermal energy sources. BTES systems utilize the underground as a thermal reservoir, where heat is stored during periods of excess energy production and retrieved when needed. This enables these systems to address the challenge of matching the supply of renewable energy with the demand for heating and cooling in buildings. This approach not only enhances the efficiency of renewable energy systems but also contributes to reducing greenhouse gas emissions and reliance on fossil fuels. This study introduces a novel approach to literature analysis in the BTES field by employing bibliometric and qualitative analysis tools, including SciMAT, VOSviewer, and NVivo, providing a systematic alternative to traditional manual review methods. The goal is to identify key publications, summarize their findings, and track the evolution of research directions over time, enhancing the understanding of the field. The paper is structured into six sections. The first section provides an overview of analytical and numerical models used to simulate the performance of BTES systems. The second section discusses the differences between traditional literature review methods and those employing bibliometric and qualitative analysis tools, highlighting their respective limitations and benefits. Additionally, it compares studies that have analyzed the BTES field using traditional review methods, explaining why a literature review with bibliometric and qualitative analysis tools is necessary and what advantages they offer. The third section outlines the research structure and employs bibliometric metrics to identify significant publications in the BTES field, while the fourth section uses SciMAT, VOSViewer, and NVivo to create scientific maps and networks of keywords, documents, publication sources, and active countries, revealing major research themes and influential publications. The fifth section organizes BTES publications into seven groups, reviewing selected studies within each to highlight recent developments, while the final section evaluates the dispersion of these studies to pinpoint well-researched areas as well as areas that require further exploration within the BTES field. The study highlights a growing interest in BTES research and identifies gaps in areas such as regulatory frameworks, market status, environmental impacts, and integration with smart energy systems. It also emphasizes the need to further investigate the thermal effects of groundwater, grout, ground thermal properties, and ground temperature imbalances on BTES system performance, underscoring the importance of continued research to address challenges and advance the development of BTES systems.
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SunView 深度解读

钻孔热储能(BTES)技术为阳光电源储能系统拓展季节性储能应用提供新思路。可结合ST系列PCS与PowerTitan储能系统,构建电-热耦合储能方案:利用光伏发电余量通过热泵驱动地下热储存,在供暖季回收利用。iSolarCloud平台可集成地温监测与负荷预测算法,优化充放热策略。该技术与电化学储能互补,可延伸至工业园区、区域供热等场景,提升可再生能源消纳率,符合双碳目标下多元储能发展方向,为综合能源解决方案提供技术储备。