Utilization of Solar Energy for Air Conditioning System
The purposes of this research are to do a system simulation of air conditioning utilizing solar energy with single effect absorption refrigeration method, analyze the coefficient of performance (COP) for each absorbent-refrigerant variable and compare the effectivity of every absorbent-refrigerant v...
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Online Access: | https://doi.org/10.1051/matecconf/201815603040 |
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doaj-193d5aff28c54d91b726bc64f7c209912021-04-02T15:05:08ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-011560304010.1051/matecconf/201815603040matecconf_rsce2018_03040Utilization of Solar Energy for Air Conditioning SystemSutikno Juwari PurwoAldina SerlyaSari NovitaHandogo RenantoThe purposes of this research are to do a system simulation of air conditioning utilizing solar energy with single effect absorption refrigeration method, analyze the coefficient of performance (COP) for each absorbent-refrigerant variable and compare the effectivity of every absorbent-refrigerant variable used. COP is a constant that denotes the effeciency of a refrigeration system, that is ratio of work or useful output to the amount of work or energy input. The higher the number of COP, the more efficient the system is. Absorbent-refrigerant (working fluids) variables used in this research depend on its chemical and thermodynamics properties. Steps in this research are including data collection and tabulation from literature and do a simulation of air conditioning system both commercial air conditioning system (using electrical energy) and solar energy air conditioning system with Aspen Plus software. Next, run the simulation for each working fluid variables used and calculate the COP for each variable. Subsequently, analyze and compare the effectivity of all variables used from COP value and economical point of view with commercial air conditioning system. From the result of the simulation, can be concluded that solar air conditioning can achieve 98,85 % of energy savings than commercial air conditioning. Furthermore, from the calculation of COP, the highest COP value is achieved by solar conditioning system with LiNO3-NH3 as working fluid where 55% of the composition is the refrigerant and 45% of absorbent.https://doi.org/10.1051/matecconf/201815603040 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Sutikno Juwari Purwo Aldina Serlya Sari Novita Handogo Renanto |
spellingShingle |
Sutikno Juwari Purwo Aldina Serlya Sari Novita Handogo Renanto Utilization of Solar Energy for Air Conditioning System MATEC Web of Conferences |
author_facet |
Sutikno Juwari Purwo Aldina Serlya Sari Novita Handogo Renanto |
author_sort |
Sutikno Juwari Purwo |
title |
Utilization of Solar Energy for Air Conditioning System |
title_short |
Utilization of Solar Energy for Air Conditioning System |
title_full |
Utilization of Solar Energy for Air Conditioning System |
title_fullStr |
Utilization of Solar Energy for Air Conditioning System |
title_full_unstemmed |
Utilization of Solar Energy for Air Conditioning System |
title_sort |
utilization of solar energy for air conditioning system |
publisher |
EDP Sciences |
series |
MATEC Web of Conferences |
issn |
2261-236X |
publishDate |
2018-01-01 |
description |
The purposes of this research are to do a system simulation of air conditioning utilizing solar energy with single effect absorption refrigeration method, analyze the coefficient of performance (COP) for each absorbent-refrigerant variable and compare the effectivity of every absorbent-refrigerant variable used. COP is a constant that denotes the effeciency of a refrigeration system, that is ratio of work or useful output to the amount of work or energy input. The higher the number of COP, the more efficient the system is. Absorbent-refrigerant (working fluids) variables used in this research depend on its chemical and thermodynamics properties. Steps in this research are including data collection and tabulation from literature and do a simulation of air conditioning system both commercial air conditioning system (using electrical energy) and solar energy air conditioning system with Aspen Plus software. Next, run the simulation for each working fluid variables used and calculate the COP for each variable. Subsequently, analyze and compare the effectivity of all variables used from COP value and economical point of view with commercial air conditioning system. From the result of the simulation, can be concluded that solar air conditioning can achieve 98,85 % of energy savings than commercial air conditioning. Furthermore, from the calculation of COP, the highest COP value is achieved by solar conditioning system with LiNO3-NH3 as working fluid where 55% of the composition is the refrigerant and 45% of absorbent. |
url |
https://doi.org/10.1051/matecconf/201815603040 |
work_keys_str_mv |
AT sutiknojuwaripurwo utilizationofsolarenergyforairconditioningsystem AT aldinaserlya utilizationofsolarenergyforairconditioningsystem AT sarinovita utilizationofsolarenergyforairconditioningsystem AT handogorenanto utilizationofsolarenergyforairconditioningsystem |
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1721560653897924608 |