Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes
Optimal design of energy systems ultimately aims to develop a methodology to realize an energy system that utilizes available resources to generate maximum product with minimum components. For this aim, several researches attempt to decide the optimal system configuration as a problem of decomposing...
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Online Access: | https://www.mdpi.com/1996-1073/12/3/495 |
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doaj-9dcc14707785480d90fed972bcade5292020-11-25T01:28:21ZengMDPI AGEnergies1996-10732019-02-0112349510.3390/en12030495en12030495Development of Complex Energy Systems with Absorption Technology by Combining Elementary ProcessesKosuke Seki0Keisuke Takeshita1Yoshiharu Amano2Department of Applied Mechanics, Waseda University, Tokyo 162-0044, JapanWaseda Research Institute for Science and Engineering, Tokyo 162-0044, JapanDepartment of Applied Mechanics, Waseda University, Tokyo 162-0044, JapanOptimal design of energy systems ultimately aims to develop a methodology to realize an energy system that utilizes available resources to generate maximum product with minimum components. For this aim, several researches attempt to decide the optimal system configuration as a problem of decomposing each energy system into primitive process elements. Then, they search the optimal combination sequentially from the minimum number of constituent elements. This paper proposes a bottom-up procedure to define and explore configurations by combining elementary processes for energy systems with absorption technology, which is widely applied as a heat driven technology and important for improving system’s energy efficiency and utilizing alternative energy resources. Two examples of application are presented to show the capability of the proposed methodology to find basic configurations that can generate the maximum product. The demonstration shows that the existing absorption systems, which would be calculated based on the experience of designers, could be derived by performing optimization with the synthesis methodology automatically under the simplified/idealized operating conditions. The proposed bottom-up methodology is significant for realizing an optimized absorption system. With this methodology, engineers will be able to predict all possible configurations and identify a simple yet feasible optimal system configuration.https://www.mdpi.com/1996-1073/12/3/495synthesis/design optimizationcycle configurationabsorption technologyabsorption refrigerator |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Kosuke Seki Keisuke Takeshita Yoshiharu Amano |
spellingShingle |
Kosuke Seki Keisuke Takeshita Yoshiharu Amano Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes Energies synthesis/design optimization cycle configuration absorption technology absorption refrigerator |
author_facet |
Kosuke Seki Keisuke Takeshita Yoshiharu Amano |
author_sort |
Kosuke Seki |
title |
Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes |
title_short |
Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes |
title_full |
Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes |
title_fullStr |
Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes |
title_full_unstemmed |
Development of Complex Energy Systems with Absorption Technology by Combining Elementary Processes |
title_sort |
development of complex energy systems with absorption technology by combining elementary processes |
publisher |
MDPI AG |
series |
Energies |
issn |
1996-1073 |
publishDate |
2019-02-01 |
description |
Optimal design of energy systems ultimately aims to develop a methodology to realize an energy system that utilizes available resources to generate maximum product with minimum components. For this aim, several researches attempt to decide the optimal system configuration as a problem of decomposing each energy system into primitive process elements. Then, they search the optimal combination sequentially from the minimum number of constituent elements. This paper proposes a bottom-up procedure to define and explore configurations by combining elementary processes for energy systems with absorption technology, which is widely applied as a heat driven technology and important for improving system’s energy efficiency and utilizing alternative energy resources. Two examples of application are presented to show the capability of the proposed methodology to find basic configurations that can generate the maximum product. The demonstration shows that the existing absorption systems, which would be calculated based on the experience of designers, could be derived by performing optimization with the synthesis methodology automatically under the simplified/idealized operating conditions. The proposed bottom-up methodology is significant for realizing an optimized absorption system. With this methodology, engineers will be able to predict all possible configurations and identify a simple yet feasible optimal system configuration. |
topic |
synthesis/design optimization cycle configuration absorption technology absorption refrigerator |
url |
https://www.mdpi.com/1996-1073/12/3/495 |
work_keys_str_mv |
AT kosukeseki developmentofcomplexenergysystemswithabsorptiontechnologybycombiningelementaryprocesses AT keisuketakeshita developmentofcomplexenergysystemswithabsorptiontechnologybycombiningelementaryprocesses AT yoshiharuamano developmentofcomplexenergysystemswithabsorptiontechnologybycombiningelementaryprocesses |
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