Energy Storage Scheme and Performance Evaluation in Underground Spaces of Abandoned Mines

BU Xianbiao; WANG Yiming; LIU Shi; YANG Yi; CHEN Hongnian; LI Huashan; SHU Jie; WANG Lingbao

doi:10.7652/xjtuxb202410013

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Energy Storage Scheme and Performance Evaluation in Underground Spaces of Abandoned Mines

更新时间：2025-07-28

- Energy Storage Scheme and Performance Evaluation in Underground Spaces of Abandoned Mines
- Vol. 58, Issue 10, Pages: 145-155(2024)
- 作者机构：
  
  1. 中国科学技术大学能源科学与技术学院,广州,510640
  2. 中国科学院广州能源研究所,广州,510640
  3. 南方电网电力科技股份有限公司,广州,510080
  4. 广东新型储能国家研究院有限公司,广州,510080
  5. 山东省鲁南地质工程勘察院(山东省地质矿产勘查开发局第二地质大队), , ),山东,济宁,272100
- 作者简介：
- 基金信息：
- DOI：10.7652/xjtuxb202410013
  CLC： TK512;TK82
- Online First：10 October 2024，
  
  Published：2024
- 稿件说明：
移动端阅览
BU Xianbiao, WANG Yiming, LIU Shi, et al. Energy Storage Scheme and Performance Evaluation in Underground Spaces of Abandoned Mines[J]. 2024, 58(10): 145-155.
DOI：

BU Xianbiao, WANG Yiming, LIU Shi, et al. Energy Storage Scheme and Performance Evaluation in Underground Spaces of Abandoned Mines[J]. 2024, 58(10): 145-155. DOI： 10.7652/xjtuxb202410013.

摘要

为高效利用废弃煤矿地下空间

提出了废弃矿地下巷道储存热能和电能的方案。基于气水互驱原理并利用沉降区人工湖

提出了定压压缩空气储能的新思路以高效利用地下空间并提高储能性能

构建了废弃地下巷道储热、抽水蓄能、定容和定压压缩空气储能的数学模型并进行了数值求解

分析了储热和储电性能

对比了储能密度和能量回收效率

探索了定压压缩空气储能的高值化利用方式。结果表明:①地下巷道储热可解决太阳能光热的不稳定性和跨季节储存难题

热回收效率大于98%

储能密度为653.42 kJ/(m

·d

-1

)

折算电能为0.18 kW·h/(m

·d

-1

); ②地下巷道抽水蓄能、定容和定压压缩空气储能的能量回收效率和储能密度分别为70.56%、57.76%、67.64%和1.14、2.25、5.56 kW·h/(m

·d

-1

)

因残余气少

储释能过程总压比和膨胀比不变

定压压缩空气储能性能优异; ③通过地上发电地下储能

可将废弃矿场打造为集发电储电和冷热淡冰联产于一体的新能源供应中心。研究成果可为废弃矿地下空间储能工程提供决策依据

为可再生能源配储提供支撑。

Abstract

To efficiently utilize the underground spaces of abandoned coal mines

a comprehensive scheme is proposed for the storage of thermal and electrical energy in abandoned underground tunnels. The scheme is based on the gas-water displacement principle and makes use of an artificial lake located in the subsidence area. A novel constant-pressure compressed air energy storage approach is introduced to maximize the utilization of underground space and enhance energy

storage performance. Mathematical models are developed and numerically solved for thermal energy storage

pumped storage

constant-volume compressed air energy storage

and constant-pressure compressed air energy storage. The performance of thermal and electrical energy storage is thoroughly analyzed

comparing energy storage density and energy recovery efficiency. Furthermore

the high-value utilization of constant-pressure compressed air energy storage is explored. The results demonstrate that: ①Underground tunnel thermal energy storage proves to be a viable solution for addressing the challenges of instability and seasonal storage associated with solar thermal energy. The thermal recovery efficiency exceeds 98%

and the energy storage density reaches 653.42 kJ/(m

·d

-1

)

which is equivalent to 0.18 kW·h/(m

·d

-1

)of electrical energy. ②The energy recovery efficiency and energy storage density of underground tunnel pumped storage

constant-volume compressed air energy storage

and constant-pressure compressed air energy storage are determined to be 70.56%

57.76%

67.64%

and 1.14

2.25

5.56 kW·h/(m

·d

-1

)

respectively. Notably

the constant-pressure compressed air energy storage exhibits outstanding performance due to the limited residual gas

which ensures the constancy of the total pressure ratio and expansion ratio throughout the energy storage and release process. ③By synergizing above-ground power generation with underground energy storage

the abandoned mine site can be transformed into a highly efficient energy supply center that integrates power generation

energy storage

and the production of cold

heat

and fresh water. The research findings provide valuable insights for decision-making in underground energy storage projects within abandoned mines and support for renewable energy distribution and storage solutions.

关键词

Keywords

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