| 13 | 0 | 21 |
| 下载次数 | 被引频次 | 阅读次数 |
对水平地埋管换热器换热特性影响因素研究进展进行综述,总结研究不足,对研究方向提出建议。现阶段,水平地埋管换热器换热特性影响因素研究主要集中在地埋管换热器运行参数和设计参数、土壤物性参数、循环介质、地埋管管材的材料参数。但仍然存在一些问题,如仿真模型和解析模型的建立与实际地埋管换热器相比简化条件较多,忽略实际动态环境和土壤热导率变化的影响,与实际相比会产生一定的误差。针对土壤温度恢复率低、长期运行换热效率下降的问题,可结合地下水或其他能源构建混合地埋管地源热泵系统。采用纳米流体与相变回填材料协同方案提升水平地埋管换热器换热性能。评估投资回收期并考虑未来经济波动,以提高系统热经济性。加强参数组合研究,综合权衡各类因素对经济性与换热性能的影响,实现二者最优平衡。
Abstract：A review was conducted on the research progress regarding factors influencing the heat transfer characteristics of horizontal ground heat exchangers(HGHEs),summarizing current research gaps and providing suggestions for future research directions. At present,the research on factors affecting the heat transfer characteristics of HGHEs primarily focuses on the operational parameters and design parameters of ground heat exchangers,as well as material-related parameters such as soil physical properties,circulating medium,and pipe materials. However,some issues persist. For instance,the simulation and analytical models are often established with numerous simplifications compared to actual buried pipe heat exchangers,neglecting the effects of actual dynamic environments and changes in soil thermal conductivity,which can lead to certain deviations from reality. To address issues such as low soil temperature recovery rate and decline in long-term heat exchange efficiency,hybrid ground-source heat pump systems combining ground-water or other energy sources can be constructed. A synergistic approach using nanofluids and phasechange backfill materials is proposed to enhance the heat transfer performance of horizontally buried pipe heat exchangers. The payback period is recommended to be evaluated while considering future economic fluctuations to improve the thermal economics of the system. Furthermore,the research on parameter combinations is suggested to be strengthened to comprehensively balance the impacts of various factors on both economic efficiency and heat transfer performance,thereby achieving an optimal equilibrium between the two.
[1]赵金宇,谢丹凤.“双碳”背景下的建筑节能与碳减排应对分析[J].上海节能,2023(9):1275-1278.
[2]杨碧玉,陈仲伟,张晓刚.双碳目标下建筑行业“碳中和”的实现路径[J].中国经贸导刊,2022(6):56-57.
[3]王雅雯.地热能在供热工程中的应用[C]//《煤气与热力》杂志社有限公司.2022供热工程建设与高效运行研讨会论文集.天津:《煤气与热力》杂志社有限公司,2022:1013-1017.
[4]HOU G,TAHERIAN H,SONG Y,et al.A Systematic Review on Optimal Analysis of Horizontal Heat Exchangers in Ground Source Heat Pump Systems[J].Renewable and Sustainable Energy Reviews,2022,154:111830-1-20.
[5]CHONG C S A,GAN G,VERHOEF A,et al.Simulation of Thermal Performance of Horizontal Slinky-Loop Heat Exchangers for Ground Source Heat Pumps[J].Applied Energy,2013,104:603-610.
[6]NAM Y,CHAE H B.Numerical Simulation for the Optimum Design of Ground Source Heat Pump System Using Building Foundation as Horizontal Heat Exchanger[J].Energy,2014,73:933-942.
[7]SU S,WU R.Study on Optimization Design of Ground Source Heat Pump System with Horizontal Spiral Pipes[C]//IOP.IOP Conference Series Earth and Environmental Science.Sanya:IOP,2020:1-4.
[8]WANG D,LU L,CUI P.A New Analytical Solution for Horizontal Geothermal Heat Exchangers with Vertical Spiral Coils[J].International Journal of Heat and Mass Transfer,2016,100:111-120.
[9]SOFYAN S E,HU E,KOTOUSOV A.A New Approach to Modelling of a Horizontal Geo-Heat Exchanger with an Internal Source Term[J].Applied Energy,2016,164:963-971.
[10]LI C,MAO J,PENG X,et al.Influence of Ground Surface Boundary Conditions on Horizontal Ground Source Heat Pump Systems[J].Applied Thermal Engineering,2019,152:160-168.
[11]TANG F,NOWAMOOZ H.Outlet Temperatures of a Slinky-Type Horizontal Ground Heat Exchanger with the Atmosphere-Soil Interaction[J].Renewable Energy,2020,146:705-718.
[12]ZHOU K,MAO J,LI Y,et al.Comparative Study on Thermal Performance of Horizontal Ground Source Heat Pump Systems with Dirichlet and Robin Boundary Conditions on Ground Surface[J].Energy Conversion and Management,2020,225:113469-1-16.
[13]JIA G S,MA Z D,XIA Z H,et al.Influence of Groundwater Flow on the Ground Heat Exchanger Performance and Ground Temperature Distributions:a Comprehensive Review of Analytical,Numerical and Experimental Studies[J].Geothermics,2022,100:102342-1-28.
[14]SHI Y,XU F,LI X,et al.Comparison of Influence Factors on Horizontal Ground Heat Exchanger Performance Through Numerical Simulation and Gray Correlation Analysis[J].Applied Thermal Engineering,2022,213:118756-1-13.
[15]KAYACI N,DEMIR H.Numerical Modelling of Transient Soil Temperature Distribution for Horizontal Ground Heat Exchanger of Ground Source Heat Pump[J].Geothermics,2018,73:33-47.
[16]YANG W,XU R,WANG F,et al.Experimental and Numerical Investigations on the Thermal Performance of a Horizontal Spiral-Coil Ground Heat Exchanger[J].Renewable Energy,2020,147:979-995.
[17]YOON S,KIM M J,JEON J S,et al.Significance Evaluation of Performance Factors on Horizontal Spiral-Coil Ground Heat Exchangers[J].Journal of Building Engineering,2021,35:102044-1-12.
[18]MA Z,XIA L.Model-Based Optimization of Ground Source Heat Pump Systems[J].Energy Procedia,2017,111:12-20.
[19]KAYACI N.Energy and Exergy Analysis and ThermoEconomic Optimization of the Ground Source Heat Pump Integrated with Radiant Wall Panel and Fan-Coil Unit with Floor Heating or Radiator[J].Renewable Energy,2020,160:333-349.
[20]CONGEDO P M,COLANGELO G,STARACE G.CFDSimulations of Horizontal Ground Heat Exchangers:a Comparison Among Different Configurations[J].Applied Thermal Engineering,2012,33:24-32.
[21]ETGHANI M M,BABOLI S A H.Numerical Investigation and Optimization of Heat Transfer and Exergy Loss in Shell and Helical Tube Heat Exchanger[J].Applied Thermal Engineering,2017,121:294-301.
[22]LIU Q,TAO Y,SHI L,et al.Parametric Optimization of a Spiral Ground Heat Exchanger by Response Surface Methodology and Multi-Objective Genetic Algorithm[J].Applied Thermal Engineering,2023,221:119824-1-15.
[23]XIA L,MA Z,MCLAUCHLAN C,et al.Experimental Investigation and Control Optimization of a Ground Source Heat Pump System[J].Applied Thermal Engineering,2017,127:70-80.
[24]GO G H,LEE S R,YOON S,et al.Optimum Design of Horizontal Ground-Coupled Heat Pump Systems Using Spiral-Coil-Loop Heat Exchangers[J].Applied Energy,2016,162:330-345.
[25]KIM M J,LEE S R,YOON S,et al.Evaluation of Geometric Factors Influencing Thermal Performance of Horizontal Spiral-Coil Ground Heat Exchangers[J].Applied Thermal Engineering,2018,144:788-796.
[26]MIRONOV R E,SHTERN Y I,SHTERN M Y,et al.AHeat Transfer Model of a Horizontal Ground Heat Exchanger[J].AIP Conference Proceedings,2016(1):020015-1-10.
[27]GAO W,MASUM S,QADRDAN M,et al.A Numerical Study on Performance Efficiency of a Low-Temperature Horizontal Ground-Source Heat Pump System[J].Energy and Buildings,2023,291:113137-1-19.
[28]CHUNG W J,PARK S H.Utilization of Thermally Activated Building System with Horizontal Ground Heat Exchanger Considering the Weather Conditions[J].Energies,2021,14:1-14.
[29]NEUGEBAUER M,SOLOWIEJ P.Optimization with the Use of Genetic Algorithms of the Location Depth of Horizontal Ground Heat Exchangers[R].Balicka:Polish Society of Agricultural Engineering,2012:89-97.
[30]VERDA V,COSENTINO S,RUSSO S L,et al.Second Law Analysis of Horizontal Geothermal Heat Pump Systems[J].Energy and Buildings,2016,124:236-240.
[31]THANGAVEL S,VERMA V,TARODIYA R,et al.AStudy on Optimization of Horizontal Ground Heat Exchanger Parameters for Space Heating Application[J].Materials Today:Proceedings,2021,47:2293-2298.
[32]SHI Y,CUI Q,SONG X,et al.Study on Thermal Performances of a Horizontal Ground Heat Exchanger Geothermal System with Different Configurations and Arrangements[J].Renewable Energy,2022,193:448-463.
[33]ZHOU Y,BIDARMAGHZ A,MAKASIS N,et al.GroundSource Heat Pump Systems:the Effects of Variable Trench Separations and Pipe Configurations in Horizontal Ground Heat Exchangers[J].Energies,2021,14:3919-3933.
[34]LESKI K,LUTY P,GWADERA M,et al.Numerical Analysis of Minimum Ground Temperature for Heat Extraction in Horizontal Ground Heat Exchangers[J].Energies,2021,14:5487-5499.
[35]FLORIDES G,THEOFANOUS E,IOSIF-STYLIANOU I,et al.Modeling and Assessment of the Efficiency of Horizontal and Vertical Ground Heat Exchangers[J].Energy,2013,58:655-663.
[36]KIM M J,LEE S R,YOON S,et al.Thermal Performance Evaluation and Parametric Study of a Horizontal Ground Heat Exchanger[J].Geothermics,2016,60:134-143.
[37]LI C,MAO J,ZHANG H,et al.Numerical Simulation of Horizontal Spiral-Coil Ground Source Heat Pump System:Sensitivity Analysis and Operation Characteristics[J].Applied Thermal Engineering,2017,110:424-435.
[38]GAN G.Dynamic Thermal Performance of Horizontal Ground Source Heat Pumps-the Impact of Coupled Heat and Moisture Transfer[J].Energy,2018,152:877-887.
[39]XU L,PU L,ZARRELLA A,et al.Experimental Study on the Thermal Imbalance and Soil Temperature Recovery Performance of Horizontal Stainless-Steel Ground Heat Exchanger[J].Applied Thermal Engineering,2022,200:117697-1-12.
[40]DINH B H,GO G H,KIM Y S.Performance of a Horizontal Heat Exchanger for Ground Heat Pump System:Effects of Groundwater Level Drop with Soil-Water Thermal Characteristics[J].Applied Thermal Engineering,2021,195:117203-1-12.
[41]HABIBI M,HAKKAKI-FARD A.Evaluation and Improvement of the Thermal Performance of Different Types of Horizontal Ground Heat Exchangers Based on TechnoEconomic Analysis[J].Energy Conversion and Management,2018,171:1177-1192.
[42]DINH B H,KIM Y S,YOON S.Experimental and Numerical Studies on the Performance of Horizontal U-Type and Spiral-Coil-Type Ground Heat Exchangers Considering Economic Aspects[J].Renewable Energy,2022,186:505-516.
[43]SAEIDI R,KARIMI A,NOOROLLAHI Y.The Novel Designs for Increasing Heat Transfer in Ground Heat Exchangers to Improve Geothermal Heat Pump Efficiency[J].Geothermics,2024,116:102844-1-15.
[44]ZHANG X,LIU Q,LIU L.Numerical Simulation of the Thermal Performance and Thermal Influencing Radius of a Heat-Transfer Pipe in a Backfill Body[J].Journal of Energy Engineering,2024(3):1-12.
[45]邹行,裴鹏,郝定溢,等.不同土壤类型与含水率对水平埋管换热性能影响数值分析[J].煤田地质与勘探,2021(6):221-229.
[46]KAPICIOGLU A,ESEN H.Experimental Investigation on Using Al2O3/Ethylene Glycol-Water Nano-Fluid in Different Types of Horizontal Ground Heat Exchangers[J].Applied Thermal Engineering,2020,165:114559-1-10.
[47]DU R,JIANG D,WANG Y,et al.An Experimental Investigation of Cu O/Water Nanofluid Heat Transfer in Geothermal Heat Exchanger[J].Energy and Buildings,2020,227:110402-1-13.
[48]KAPICIOGLU A.Energy and Exergy Analysis of a Ground Source Heat Pump System with a Slinky Ground Heat Exchanger Supported by Nanofluid[J].Journal of Thermal Analysis and Calorimetry,2022(2):1455-1468.
[49]LIU Z,HOU G,TAHERIAN H.Techno-Economic Analysis of Al2O3/Cu O Nanofluid Applied in Various Horizontal Ground Heat Exchangers[J].International Journal of Energy Research,2022,46:22894-22912.
[50]LIU Q,TAO Y,SHI L,et al.Experimental Investigation on the Use of Cu O/Water Nanofluid in Horizontal SpiralCoil Ground Heat Exchanger[J].International Journal of Refrigeration,2023,149:204-223.
[51]XU L,PU L,ANGELO Z,et al.An Experimental Investigation on Performance of Microencapsulated Phase Change Material Slurry in Ground Heat Exchanger[J].Renewable Energy,2022,198:296-305.
[52]DASARE R R,SAHA S K.Numerical Study of Horizontal Ground Heat Exchanger for High Energy Demand Applications[J].Applied Thermal Engineering,2015,85:252-263.
[53]SELAMAT S,MIYARA A,KARIYA K.Numerical Study of Horizontal Ground Heat Exchangers for Design Optimization[J].Renewable Energy,2016,95:561-573.
基本信息:
DOI：10.13608/j.cnki.1000-4416.2026.04.005
中图分类号:TU83
引用信息:
[1]吕慧颖,李祥立,白滨.水平地埋管换热器换热特性影响因素研究综述[J].煤气与热力,2026,46(04):7-14.DOI:10.13608/j.cnki.1000-4416.2026.04.005.
基金信息:
国家自然科学基金面上项目“基于超低能耗建筑的浅层土壤水平埋管地源热泵系统动态热响应与优化设计研究”（52078097）
2026-04-15
2026-04-15