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dc.contributor.authorMario L. Ferrari
dc.contributor.authorMatteo Pascenti
dc.contributor.authorRoberto Bertone
dc.contributor.authorLoredana Magistri
dc.date.accessioned2017-05-09T00:33:23Z
dc.date.available2017-05-09T00:33:23Z
dc.date.copyrightAugust, 2009
dc.date.issued2009
dc.identifier.issn2381-6872
dc.identifier.otherJFCSAU-28938#031008_1.pdf
dc.identifier.urihttp://yetl.yabesh.ir/yetl/handle/yetl/140836
dc.description.abstractA new high temperature fuel cell-micro gas turbine physical emulator has been designed and installed in the framework of the European Integrated Project “FELICITAS” at the Thermochemical Power Group (TPG) laboratory located at Savona. The test rig is based on a commercial 100 kWe recuperated micro gas turbine (mGT) (Turbec T100) modified to be connected to a modular volume designed for physical emulation of fuel cell stack influence. The test rig has been developed starting with a complete theoretical analysis of the micro gas turbine design and off-design performance and with the definition of the more flexible layout to be used for different hybrid system (molten carbonate fuel cell or solid oxide fuel cell) emulation. The layout of the system (connecting pipes, valves, and instrumentation, in particular mass flow meter locations) has been carefully designed, and is presented in detail in this paper. Particular attention has been focused on the viscous pressure loss minimization: (i) to reduce the unbalance between compressor and expander, (ii) to maintain a high measurement precision, and (iii) to have an effective plant flexibility. Moreover, the volume used to emulate the cell stack has been designed to be strongly modular (different from a similar system developed by U.S. Department Of Energy-National Energy Technology Laboratory) to allow different volume size influence on the mGT rig to be easily tested. The modular high temperature volume has been designed using a computational fluid dynamics (CFD) commercial tool (FLUENT ). The CFD analysis was used (i) to reach a high level of uniformity in the flow distribution inside the volume, (ii) to have a velocity field (m/s) similar to the one existing inside the emulated cell stack, and (iii) to minimize (as possible) the pressure losses. The volume insulation will also allow to consider a strong thermal capacity effect during the tests. This paper reports the experimental results of several tests carried out on the rig (using the mGT at electrical stand-alone conditions with the machine control system operating at constant rotational speed) at different load values and at both steady-state and transient conditions.
dc.publisherThe American Society of Mechanical Engineers (ASME)
dc.titleHybrid Simulation Facility Based on Commercial 100 kWe Micro Gas Turbine
dc.typeJournal Paper
dc.journal.volume6
dc.journal.issue3
dc.journal.titleJournal of Fuel Cell Science and Technology
dc.identifier.doi10.1115/1.3006200
dc.journal.fristpage31008
dc.identifier.eissn2381-6910
dc.keywordsPressure
dc.keywordsFlow (Dynamics)
dc.keywordsMachinery
dc.keywordsCompressors
dc.keywordsStress
dc.keywordsFuel cells
dc.keywordsPipes
dc.keywordsMicro gas turbines
dc.keywordsValves
dc.keywordsCombustion chambers
dc.keywordsDesign
dc.keywordsTemperature
dc.keywordsControl systems
dc.keywordsIndustrial plants AND Surges
dc.treeJournal of Fuel Cell Science and Technology:;2009:;volume( 006 ):;issue: 003
dc.contenttypeFulltext


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