太阳能池耦合低温多级海水淡化装置的热特性及经济性分析第一部分:热特性

K. R. Agha, G. Rice, A.E. WHELDON
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引用次数: 7

摘要

盐梯度太阳能池(SGSP)具有提供低品位能源的潜力,并且具有每年一次的热能储存循环的优势。运行在100°C以下的多级闪蒸(MSF)蒸馏装置的发展允许SGSP被认为是这些系统的热源。本文提出了SGSP与MSF精馏装置的两种匹配方案。第一种方案是基于太阳能池作为蒸馏厂唯一热源的假设(即,工厂的所有热能需求都由太阳能池提供)。第二个方案考虑了一个混合系统(太阳能+燃料),其中一个20,000平方米的太阳能池与一个独立的燃料驱动的海水淡化厂相连。两种方案均以1000m3/天相同的日生产水量进行模拟。考虑流体性质和流动条件的变化,采用基于逐级计算的数学模型对MSF海水淡化过程的热模拟进行了预测。将生成的质量和能量平衡联立方程组合并以矩阵形式排列,然后转化为算法来预测温度和闪蒸速率等过程变量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
THE THERMAL CHARACTERISTICS AND ECONOMIC ANALYSIS OF A SOLAR POND COUPLED LOW TEMPERATURE MULTI STAGE DESALINATION PLANT PART I: THERMAL CHARACTERISTICS
Salt Gradient Solar Ponds (SGSP) have the potential of providing low grade energy with the advantage of an annual thermal energy storage cycle. The development of Multi-Stage Flash (MSF) distillation plants operating below 100°C allows SGSP to be considered as the heat source for these systems. In this paper, two schemes of matching the SGSP with the MSF distillation plant are presented. The first scheme is based on the assumption that the solar pond is to be used as the sole heat source for the distillation plant (i.e. all the plant's thermal energy requirements are provided by the solar pond). The second scheme considers a hybrid system (solar + fuel), where a 20,000 m2 solar pond is linked to an otherwise stand alone, fuel driven desalination plant. Both options are simulated with the same daily product water output of 1000m3/day. The thermal simulation of the MSF desalination process was predicted by using a mathematical model based on stage by stage calculations taking into account the variations in fluid properties and flow conditions. The generated simultaneous equations of the mass and energy balances were combined and arranged in a matrix form and then translated into algorithm to predict process variables such as temperature and flash evaporation rates.
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