Performance analysis of coupling vapor compression cycle to freeze and humidification-dehumidification based high-performance desalination

IF 9 1区 工程技术 Q1 ENERGY & FUELS
Trevor Hocksun Kwan, Ding Zhang, Ziyang Chen, Zhixin Liao, Zhuohang Zhang, Jiale Huang
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引用次数: 0

Abstract

Although freeze desalination has a lower latent heat of ice formation (334 kJ/kg), its energy performance is still insufficient because of energy loss associated with not using the waste heat of the active cooling system. To address this challenge, this research introduces an innovative hybrid desalination system that synergistically combines freeze, humidification-dehumidification (HDH), and vapor compression cycle (VCC) technologies. The novelty of our approach lies in simultaneously leveraging the VCC's cooling and thermal energy for freeze and dehumidification processes, respectively, which greatly increases the desalination energy performance over only achieving freeze desalination. A thermodynamic model is developed to analyze the proposed system, and a series of parametric analyses are carried out to determine the system configuration that obtains the highest performance. Ultimately, a higher ice recovery rate of 20 % offers the best total desalination performance of only 63 Wh/kg. Furthermore, the HDH desalination unit can make up the for loss of freeze desalination performance at higher feed seawater temperatures, ensuring robust performance even under high-temperature conditions.
基于高性能海水淡化的蒸汽压缩循环与冷冻和加湿除湿耦合的性能分析
虽然冷冻海水淡化的成冰潜热较低(334 kJ/kg),但由于没有利用主动冷却系统的余热,其能源性能仍然不足。为了应对这一挑战,本研究引入了一种创新的混合海水淡化系统,该系统协同结合了冷冻、加湿-除湿(HDH)和蒸汽压缩循环(VCC)技术。我们方法的新颖之处在于同时利用蒸汽压缩循环的冷却能和热能,分别用于冷冻和除湿过程,从而大大提高了海水淡化的能效,而不是仅仅实现冷冻海水淡化。我们开发了一个热力学模型来分析拟议的系统,并进行了一系列参数分析,以确定获得最高性能的系统配置。最终,较高的 20% 冰回收率可提供最佳的总脱盐性能,仅为 63 Wh/kg。此外,HDH 海水淡化装置可以弥补在较高进水温度下冰冻海水淡化性能的损失,确保即使在高温条件下也能保持稳定的性能。
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来源期刊
Energy
Energy 工程技术-能源与燃料
CiteScore
15.30
自引率
14.40%
发文量
0
审稿时长
14.2 weeks
期刊介绍: Energy is a multidisciplinary, international journal that publishes research and analysis in the field of energy engineering. Our aim is to become a leading peer-reviewed platform and a trusted source of information for energy-related topics. The journal covers a range of areas including mechanical engineering, thermal sciences, and energy analysis. We are particularly interested in research on energy modelling, prediction, integrated energy systems, planning, and management. Additionally, we welcome papers on energy conservation, efficiency, biomass and bioenergy, renewable energy, electricity supply and demand, energy storage, buildings, and economic and policy issues. These topics should align with our broader multidisciplinary focus.
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