基于单级吸收-再吸收循环的无保温长距离热输送系统性能分析

P. Dou, T. Jia, Peng Chu, Yanjun Dai, Chunhui Shou
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引用次数: 1

摘要

溶液输送吸收系统的主要缺陷是热源温度要求高和冷凝温度决定的工作压力不灵活。吸收-再吸收热泵循环在显著降低热源温度需求、增加工作压力选择和简化系统结构方面表现突出。本文提出了一种基于单级ARHP循环的新型溶液输送吸收系统。研究了影响系统的可行工作压力组合和高压吸收器出口温度,说明了ARHP和基于ARHP的STR系统的压力范围差异。通过与单级ARHP循环的比较,揭示了热工性能系数、电学性能系数、供热温度范围等热力学参数。在输运距离为20 km的条件下,当P H / P L值为700 kPa /405 kPa时,STR系统COP值最大可达0.53。供水温度最高可达53.84℃,COP为0.477。负载功率为20mw时,最长距离不超过113公里。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance Analysis of No-Insulation Long Distance Thermal Transportation System Based on Single-Stage Absorption-Resorption Cycle
Solution transportation absorption systems are restricted by main defects of high heat source temperature demand and inflexible working pressures which are determined by the condensation temperature. Absorption-resorption heat pump cycles stand out in significantly lowering the demand of heat source temperature as well as multiplying working pressure choices and simplifying system structure. In this paper, a novel solution transportation resorption system is proposed based on the single-stage ARHP cycle. Feasible working pressure combinations and outlet temperature of high pressure-absorber to effect the system are investigated, illustrating the pressure range difference between ARHP and ARHP-based STR system. Thermodynamic parameters such as thermal coefficient of performance, electrical coefficient of performance, heat supply temperature range are revealed by comparing with those of single-stage ARHP cycle. Under the condition that transporting distance is 20 km, maximum COP value of STR system could reach 0.53 when P H / P L value is 700 kPa /405 kPa. The highest supply water temperature could reach 53.84 o C with COP of 0.477. The longest distance is supposed to be no more than 113 km when loading power is 20 MW.
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