Modeling and Simulation of an Externally Fired Micro Gas Turbine for Standalone Polygeneration ApplicationSource: Journal of Engineering for Gas Turbines and Power:;2016:;volume( 138 ):;issue: 011::page 112301DOI: 10.1115/1.4033510Publisher: The American Society of Mechanical Engineers (ASME)
Abstract: Smallscale distributed generation systems are expected to play a vital role in future energy supplies. Subsequently, power generation using microgas turbine (MGT) is getting more and more attention. In particular, externally fired microgas turbine (EFMGT) is preferred among smallscale distributed generators, mainly due to high fuel flexibility, high overall efficiency, environmental benefits, and low maintenance requirement. The goal of this work is to evaluate the performance of an EFMGTbased standalone polygeneration system with the help of computational simulation studies. The main focus of this work is to develop a dynamic model for an EFMGT. The dynamic model is accomplished by merging a thermodynamic model with a mechanical model of the rotor and a transfer function based control system model. The developed model is suitable for analyzing system performance particularly from thermodynamic and control point of view. Simple models for other components of the polygeneration systems, electrical and thermal loads, membrane distillation unit, and electrical and thermal storage, are also developed and integrated with the EFMGT model. The modeling of the entire polygeneration system is implemented and simulated in matlab/simulink environment. Available operating data from test runs of both the laboratory setups are used in this work for further analysis and validation of the developed model.
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| contributor author | Rahman, Moksadur | |
| contributor author | Malmquist, Anders | |
| date accessioned | 2017-05-09T01:28:55Z | |
| date available | 2017-05-09T01:28:55Z | |
| date issued | 2016 | |
| identifier issn | 1528-8919 | |
| identifier other | gtp_138_11_112602.pdf | |
| identifier uri | http://yetl.yabesh.ir/yetl/handle/yetl/161204 | |
| description abstract | Smallscale distributed generation systems are expected to play a vital role in future energy supplies. Subsequently, power generation using microgas turbine (MGT) is getting more and more attention. In particular, externally fired microgas turbine (EFMGT) is preferred among smallscale distributed generators, mainly due to high fuel flexibility, high overall efficiency, environmental benefits, and low maintenance requirement. The goal of this work is to evaluate the performance of an EFMGTbased standalone polygeneration system with the help of computational simulation studies. The main focus of this work is to develop a dynamic model for an EFMGT. The dynamic model is accomplished by merging a thermodynamic model with a mechanical model of the rotor and a transfer function based control system model. The developed model is suitable for analyzing system performance particularly from thermodynamic and control point of view. Simple models for other components of the polygeneration systems, electrical and thermal loads, membrane distillation unit, and electrical and thermal storage, are also developed and integrated with the EFMGT model. The modeling of the entire polygeneration system is implemented and simulated in matlab/simulink environment. Available operating data from test runs of both the laboratory setups are used in this work for further analysis and validation of the developed model. | |
| publisher | The American Society of Mechanical Engineers (ASME) | |
| title | Modeling and Simulation of an Externally Fired Micro Gas Turbine for Standalone Polygeneration Application | |
| type | Journal Paper | |
| journal volume | 138 | |
| journal issue | 11 | |
| journal title | Journal of Engineering for Gas Turbines and Power | |
| identifier doi | 10.1115/1.4033510 | |
| journal fristpage | 112301 | |
| journal lastpage | 112301 | |
| identifier eissn | 0742-4795 | |
| tree | Journal of Engineering for Gas Turbines and Power:;2016:;volume( 138 ):;issue: 011 | |
| contenttype | Fulltext |