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Main positions:中国能源学会理事、国家教育部学科学位评审专家、担任国家教育部研究生学位论文评审专家、全国大学生节能减排竞赛评审专家
Other Post:江苏省、浙江省、江西省科技成果奖评审专家、江苏省省高新技术企业认定评审专家、江苏省科技评估咨询专家、江苏省工程热物理学会常务理事、江苏省科技副总、南京市太阳能学会秘书长等。
Degree:Doctoral Degree in Engineering
School/Department:College of Energy and Power Engineering

韩东

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Education Level:南京航空航天大学

Alma Mater:南京航空航天大学

Paper Publications

Thermodynamic analysis of a novel evaporation and crystallization system based on humidification processes at ambient temperature
Date of Publication:2018-08-01 Hits:

Affiliation of Author(s):能源与动力学院
Journal:DESALINATION
Key Words:Power consumption Humidification Cooling crystallization Mathematical models Mass and energy equilibrium Energy consumption of evaporated water
Abstract:Power consumption in the field of evaporation and crystallization has attracted extensive attentions all over the world. In this paper, humidification and cooling crystallization methods are involved simultaneously to constitute a novel evaporation and crystallization configuration. In light of the thermal processes included, mathematical models based on the mass and energy equilibrium are established. The characteristics of the adopted evaporation and crystallization system (ECS) at the designed parameters are first simulated and analyzed, and the corresponding influence laws from the appointed key parameters are analyzed. Furthermore, a scale and economic analysis is also achieved to explore the application prospect of the evaporation crystallization system. The practicability of the novel evaporation and crystallization system at ambient temperature is verified, with a descent amplitude of 52.88% for the energy consumption of evaporated water within the prescribed range of the air mass flow rate. The simulation results indicate variation of the inlet air parameters, including the relative humidity and temperature, is not effective to improve the thermal efficiency of the evaporation and crystallization system, while an evident reduction for the energy consumption of evaporated water (ECEW) as 45.08 kWht(-1) is achieved in response to the volume growth of the packings from 15 m(3) to 30 m(3). Finally, it is also found that the cost of heat and mass transfer areas will rise significantly with the increase of the volume although the energy conversion is improved.
ISSN No.:0011-9164
Translation or Not:no
Date of Publication:2018-08-01
Co-author:He Weifeng,jichangyi,zs
Correspondence Author:Dong Han
Date of Publication:2018-08-01