Development of Adsorption Desalination System Utilizing Silica-gel
실리카겔을 이용한 흡착식 담수화 시스템 개발
- Hyun, Jun-Ho (Dept. of Nuclear & Energy Engineering, Jeju National University) ;
- Israr, Farrukh (Dept. of Nuclear & Energy Engineering, Jeju National University) ;
- Lee, Yoon-Joon (Dept. of Nuclear & Energy Engineering, Jeju National University) ;
- Chun, Won-Gee (Dept. of Nuclear & Energy Engineering, Jeju National University)
- Published : 2012.03.29
Abstract
The development of solar thermal energy used adsorption desalination technology have been examined as a viable option for supplying clean energy. In this study, the modelling of the main devices for solar thermal energy used and adsorption desalination system was introduced. Silica gel type adsorption desalination system is considered to be a promising low-temperature heat utilization system. The design is divided into three parts. First, the evaporator for the vaporization of the tap water is designed, and then the reactor for the adsorption and release of the steam is designed, followed by the condenser for the condensation of the fresh water is designed. In addition, new features based on the energy balance are also included to design absorption desalination system. In this basic research, One-bed(reactor) adsorption desalination plant that employ a low-temperature solar thermal energy was proposed and experimentally studied. The specific water yield is measured experimentally with respect to the time controlling parameters such as heat source temperatures, coolant temperatures, system switching and half-cycle operational times. Desalination is processes that permeate our daily lives, but It requires substantial energy input, powered either from electricity or from thermal input. From the environmental and sustainability perspecives, innovative thermodynamic cycles are needed to produce the above-mentioned useful effects at a lower specific energy input. This article describes the development of adsorption cycles for the production of desalting effects. We want that this adsorption system can be driven by low temperature heat sources at 60 to