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200 00$aIron Ore Conference 2015
210  1$aAustralia:$cAustralasian Institute of Mining and Metallurgy (The AusIMM),$d2015.
215   $a1 online resource
311 08$a1-925100-29-4 
320   $aIncludes bibliographical references (pages) and index.
330   $aIron Ore 2015 was the seventh in a very successful series of international iron ore conferences jointly organised by the AusIMM and CSIRO. The conferences have now become an important biennial bringing together geologists, geoscientists, mineralogists, metallurgists, managers, engineers, operators, equipment manufacturers and service providers from across the iron ore industry. This volume contains 80 papers, covering topics such as agglomeration, beneficiation, exploration and geology, ferrous burden performance, materials handling, mining, new equipment and environment, ore characterisation and geometallurgy, and project development.
606   $aAgglomeration
606   $aGeology
615  0$aAgglomeration.
615  0$aGeology.
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200 00$aCFD modeling and optimization of fuel-cell systems /$fP.L. Zervas ... [et al.]
205   $a1st ed.
210   $aNew York $cNova Science Publishers$dc2008
215   $a1 online resource (106 p.)
300   $aDescription based upon print version of record.
311 08$a1-60456-592-6 
320   $aIncludes bibliographical references (p. [81]-83) and index.
327   $a""CFD MODELING AND OPTIMIZATION OF FUEL-CELL SYSTEMS""; ""NOTICE TO THE READER""; ""ACKNOWLEDGEMENTS""; ""CONTENTS""; ""PREFACE""; ""NOMENCLATURE""; ""ABBREVIATIONS""; ""INTRODUCTION""; ""BASIC OPERATIONAL PRINCIPLES""; ""2.1. FUEL CELL DESCRIPTION""; ""2.2. MAXIMUM ELECTROMOTIVE FORCE (EMF) OR OPEN CIRCUIT VOLTAGE (OCV)""; ""2.3. CURRENT DENSITY-POWER DENSITY""; ""2.4. FUEL-CELL EFFICIENCY""; ""2.5. NERNST EQUATION""; ""2.6. IRREVERSIBLE PROCESSES UNDER OPERATING CONDITIONS""; ""2.6.1. Activation Polarization (I??Vact)""; ""2.6.2. Ohmic Losses (I??Vohmic)""
327   $a""2.6.3. Concentration Polarization (I??Vconc)""""2.6.4. Total Losses""; ""2.7. ELECTROCHEMICAL REACTION RATES""; ""2.8. FUEL CELL OPERATING PARAMETERS""; ""THE MATHEMATICAL MODEL""; ""3.1. THE EQUATIONS""; ""3.2. MODEL ASSUMPTIONS""; ""3.3. BOUNDARY CONDITIONS-SPECIAL INTERNAL CONDITIONS""; ""NUMERICAL SOLUTION METHOD""; ""4.1. INTRODUCTION""; ""4.2. THE SOLUTION METHOD""; ""4.3. NUMERICAL SOLUTION""; ""4.4. MODEL APPLICATION""; ""4.4.1. Fuel Cell Geometry""; ""4.4.2. Boundary Conditions""; ""4.4.3. Grid-Independency Studies a??? Computer Requirements""; ""RESULTS""; ""5.1. INTRODUCTION""
327   $a""5.3.1. Fuel and Oxidant inlet Volumetric Rates, Qf, Qox""""5.3.2. Fuel and Oxidant Gases""; ""5.3.3. Operating Cell Voltage""; ""5.3.4. Fuel cell Power""; ""5.3.5. Fuel Cell Efficiency""; ""5.3.6. Influence of Oxidant Gas Inlet Volumetric Rate in Fuel Cell Performance""; ""5.3.7. Choice of m, n Coefficients""; ""CONCLUSION""; ""APPENDIX""; ""A.1. ACTIVATION OVERPOTENTIAL""; ""A.2. MODEL VALIDATION""; ""A.3. EMPIRICAL EQUATION FOR THE MASS TRANSPORT LOSSES ESTIMATION""; ""REFERENCES""; ""INDEX""
330   $aIn this text the fundamental principles of fuel cells operation and the mathematical formulation of a generic CFD model including transport and electrochemical phenomena are presented in detail.
517 3 $aComputational fluid dynamics modeling and optimization of fuel-cell systems
606   $aFuel cells$xMathematical models
606   $aComputational fluid dynamics
606   $aFluid dynamics$xMathematics
615  0$aFuel cells$xMathematical models.
615  0$aComputational fluid dynamics.
615  0$aFluid dynamics$xMathematics.
676   $a621.31/2429015118
701   $aZervas$b P. L$01866353
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801  1$bMiAaPQ
801  2$bMiAaPQ
906   $aBOOK
912   $a9910967713203321
996   $aCFD modeling and optimization of fuel-cell systems$94473745
997   $aUNINA