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水源热泵系统含水层中渗流场模拟及其对温度场的影响分析 被引量:5

Numerical Simulation of Seepage Flow Field of the Groundwater Source Heat Pump System and Its Influence on the Temperature Field
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摘要 地下含水层能量利用已经成为一项新的和热泵技术发展紧密联系的技术,准确预测水源热泵工程周围含水层中的流场分布对能量的有效利用意义重大。通过分析含水层储能的一般特点,提出流贯通,分析流贯通和热贯通的相互作用、相互影响及对工程实际的意义,并基于地下水水热运移的基本原理,建立地下水流动数值模型,在此基础上对沈阳某场地水源热泵工程的运行进行流场及温度场的数值模拟分析,给出产生流贯通的依据,进而研究流贯通对热贯通的影响,并为该地区的地下水源热泵工程设计提供一定的参考。 The energy utilization of the aquifer has become a new technology, which links closely with the heat pump technology development, lf the flow distribution in the aquifer surrounding the Groundwater Source Heat Pump system (GSHP) can be predicted rightly, the great importance will be shown to the utilization of energy. By analyzing the general features of aquifer, a new concept of "the flow transfixion" was introduced, and the interaction between the flow transfixion and the heat transfixion and great signifwonce of the flow transfixion to projects were analyzed. A numerical model of groundwater flow based on the basic principles of water-heat transfer in the aquifer was established. Then the flow field and the temperature field of one Groundwater Source Heat Pump system (GSHP) in Shenyang city were numerically analyzed, and the basis of the flow transfixion was given. The impact of the flow transfixion on the heat transfixion was discussed, to some extent, which provides references for the projects design of GSHP in Shenyang regions.
出处 《建筑节能》 CAS 2008年第8期8-12,共5页 BUILDING ENERGY EFFICIENCY
基金 国家自然基金项目(40472134) 吉林大学种子基金(498042420424)
关键词 地下水源热泵 含水层储能 强迫对流 流贯通 热贯通 groundwater source heat pump thermal energy storage of aquifer enforcing convection the flow transfixion the heat transfixion
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  • 1Thore Berntsson, Heat sources-technology economy and environment,International Journal of refrigeration 25 (2002): 428~438.
  • 2American Society of Heating Refrigerating and Air-conditioning Engineers. Commercial/institutional ground-source heat pump (GSHP)engineering manual. 1995.
  • 3K. Nagano, T. Mochida, K. Ochifuji, Influence of natural convection on forced horizontal flow in saturated porous media for aquifer thermal energy storage, Applied thermal engineering 22 (2002): 1299~1311.
  • 4Buscheck, T A , C. Doughtyand C F Tsang. 1983. Prediction and analysis of a field experiment on multilay-ered aquifer thermal energy storage system with strong buoyancy flow. Water Resour.Res., Vol. 19, No. 5: 1307~1315.
  • 5Molson, J W , E. O. Frindand C D Palmer. 1992. Thermal energy storage in an unconfined aquifer, 2. Model development,validation and application. Water Resour. Res., Vol. 28, No. 10:2857~2867.
  • 6Bear, J 1972. Dynamics of Fluid in Porous medial, Elsevier,. New York.
  • 7Thore Berntsson. Heat sources-technology, economy and environment[J]. International Journal of refrigeration,2002,25:428-438.
  • 8Buscheck, T.A., C.Doughty, C.F.Tsang. Prediction and analysis of a field experiment on multilayered aquifer thermal energy storage system with strong buoyancy flow[J]. Water Resour.Res,1983,19(5):1307-1315.
  • 9Molson, J.W., E.O.Frind, C.D.Palmer. Thermal energy storage in an unconfined aquifer, 2.Model development, validation and application[J]. Water Resour.Res,1992,28(10):2857-2867.
  • 10K. Nagano, T. Mochida, K. Ochifuji. Influence of natural convection on forced horizontal flow in saturated porous media for aquifer thermal energy storage[J]. Applied thermal engineering,2002,22:1299-1311.

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