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Study on the simulation and optimization of the heat transfer scheme in a buried-pipe ground-source heat pump

机译:埋管地源热泵中传热方案的仿真与优化研究

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摘要

To guarantee the sustainable development and utilization of shallow geothermal energy and avoid heat accumulation problems during the operating period of ground-source heat pump, a three-dimensional coupled numerical model of unsteady groundwater seepage and heat transfer was established. This model was applied to the demonstration project of the buried-pipe heat pump system in Danyang, Jiangsu Province. The model was based on the principles of groundwater seepage and heat transport and was combined with the future operating conditions of the ground-source heat pump system, to forecast the thermal equilibrium development trend of underground temperature field. A design scheme was determined on this basis. The district was divided into five development and utilization zones (I-V), and we changed the minimum heat transfer hole spacing from 5 to 14, 17, 18, 21, and 19 m. From the results, according to the actual situation we adopted, the simulation optimization scheme effectively slowed the heat transfer and resolved the heat accumulation problem, which can easily occur during the operation of a ground-source heat pump system. The three-dimensional coupled numerical model of unsteady groundwater seepage and heat transfer is an effective way to optimize and determine the sustainable development and utilization plan of a ground-source heat pump for shallow geothermal energy.
机译:为了保证浅层地热能的可持续发展和利用,避免在地源热泵运行期间避免散热问题,建立了不稳定地下水渗流和热传递的三维耦合数值模型。该模型应用于江苏省丹阳埋管热泵系统的演示项目。该模型基于地下水渗流和热传输的原理,并与地下源热泵系统的未来运行条件相结合,预测地下温度场的热平衡发展趋势。根据此基础确定设计方案。该区分为五个开发和利用区(I-V),我们改变了5至14,17,18,21和19米的最小传热孔间距。根据结果​​,根据我们采用的实际情况,仿真优化方案有效地减慢了传热和解决了蓄热问题,可以在地源热泵系统的运行过程中容易地发生。不稳定地下水渗流和传热的三维耦合数值模型是优化和确定地下地热能的地源热泵可持续发展和利用计划的有效途径。

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