Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles
This study conducted a detailed technical analysis of small-scale solar–bio-hybrid power generation systems using Rankine (steam turbine) and Brayton (gas turbine) cycles. Thermodynamic models were developed to characterize the state of working fluid and select the most suitable solar collection tec...
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doaj-cd29c713a3b34abea993e547bf19f8d02021-01-18T00:01:58ZengMDPI AGEnergies1996-10732021-01-011447247210.3390/en14020472Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine CyclesMauricio Bustamante0Abraham Engeda1Wei Liao2School of Biosystems Engineering, University of Costa Rica, San José 11501-2060, Costa RicaMechanical Engineering, Michigan State University, East Lansing, MI 48824-1323, USAAnaerobic Digestion Research and Education Center, Biosystems and Agricultural Engineering, Michigan State University, East Lansing, MI 48824-1323, USAThis study conducted a detailed technical analysis of small-scale solar–bio-hybrid power generation systems using Rankine (steam turbine) and Brayton (gas turbine) cycles. Thermodynamic models were developed to characterize the state of working fluid and select the most suitable solar collection technology for individual power generation systems. Net capacity factor of power generation and utilization efficiencies of solar and biogas energy were used as parameters to evaluate energy generation and conclude the preferred system configuration. The analysis concluded that the steam turbine system has better global efficiency (67.7%) than the gas turbine system (55.7%), while the gas turbine system has better electricity generation efficiency (27.0%) than that (5.6%) of the steam turbine system. The effects of different climates on the selection of suitable hybrid systems were also investigated to delineate suitability and feasibility of different hybrid systems. In addition, the method used in this study can also be applied to investigate and optimize other small-scale hybrid renewable energy generation systems.https://www.mdpi.com/1996-1073/14/2/472biogassolar hybridizationnet capacity factormicro gas turbinemicro steam turbine |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Mauricio Bustamante Abraham Engeda Wei Liao |
spellingShingle |
Mauricio Bustamante Abraham Engeda Wei Liao Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles Energies biogas solar hybridization net capacity factor micro gas turbine micro steam turbine |
author_facet |
Mauricio Bustamante Abraham Engeda Wei Liao |
author_sort |
Mauricio Bustamante |
title |
Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles |
title_short |
Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles |
title_full |
Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles |
title_fullStr |
Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles |
title_full_unstemmed |
Small-Scale Solar–Bio-Hybrid Power Generation Using Brayton and Rankine Cycles |
title_sort |
small-scale solar–bio-hybrid power generation using brayton and rankine cycles |
publisher |
MDPI AG |
series |
Energies |
issn |
1996-1073 |
publishDate |
2021-01-01 |
description |
This study conducted a detailed technical analysis of small-scale solar–bio-hybrid power generation systems using Rankine (steam turbine) and Brayton (gas turbine) cycles. Thermodynamic models were developed to characterize the state of working fluid and select the most suitable solar collection technology for individual power generation systems. Net capacity factor of power generation and utilization efficiencies of solar and biogas energy were used as parameters to evaluate energy generation and conclude the preferred system configuration. The analysis concluded that the steam turbine system has better global efficiency (67.7%) than the gas turbine system (55.7%), while the gas turbine system has better electricity generation efficiency (27.0%) than that (5.6%) of the steam turbine system. The effects of different climates on the selection of suitable hybrid systems were also investigated to delineate suitability and feasibility of different hybrid systems. In addition, the method used in this study can also be applied to investigate and optimize other small-scale hybrid renewable energy generation systems. |
topic |
biogas solar hybridization net capacity factor micro gas turbine micro steam turbine |
url |
https://www.mdpi.com/1996-1073/14/2/472 |
work_keys_str_mv |
AT mauriciobustamante smallscalesolarbiohybridpowergenerationusingbraytonandrankinecycles AT abrahamengeda smallscalesolarbiohybridpowergenerationusingbraytonandrankinecycles AT weiliao smallscalesolarbiohybridpowergenerationusingbraytonandrankinecycles |
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