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Preface to the Second Edition | |
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Preface to the First Edition | |
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Authors | |
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Fundamentals | |
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Need for Turbine Blade Cooling | |
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Recent Development in Aircraft Engines | |
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Recent Development in Land-Based Gas Turbines | |
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Turbine-Cooling Technology | |
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Concept of Turbine Blade Cooling | |
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Typical Turbine-Cooling System | |
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Turbine Heat Transfer and Cooling Issues | |
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Turbine Blade Heat Transfer | |
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Turbine Blade Internal Cooling | |
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Turbine Blade Film Cooling | |
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Thermal Barrier Coating and Heat Transfer | |
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Structure of the Book | |
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Review Articles and Book Chapters on Turbine Cooling and Heat Transfer | |
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New Information from 2000 to 2010 | |
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ASME Turbo Expo Conference CDs | |
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Book Chapters and Review Articles | |
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Structure of the Revised Book | |
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References | |
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Turbine Heat Transfer | |
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Introduction | |
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Combustor Outlet Velocity and Temperature Profiles | |
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Turbine-Stage Heat Transfer | |
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Introduction | |
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Real Engine Turbine Stage | |
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Simulated Turbine Stage | |
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Time-Resolved Heat-Transfer Measurements on a Rotor Blade | |
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Cascade Vane Heat-Transfer Experiments | |
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Introduction | |
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Effect of Exit Mach Number and Reynolds Number | |
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Effect of Free-Stream Turbulence | |
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Effect of Surface Roughness | |
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Annular Cascade Vane Heat Transfer | |
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Cascade Blade Heat Transfer | |
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Introduction | |
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Unsteady Wake-Simulation Experiments | |
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Wake-Affected Heat-Transfer Predictions | |
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Combined Effects of Unsteady Wake and Free-Stream Turbulence | |
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Airfoil Endwall Heat Transfer | |
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Introduction | |
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Description of the Flow Field | |
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Endwall Heat Transfer | |
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Near-Endwall Heat Transfer | |
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Engine Condition Experiments | |
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Effect of Surface Roughness | |
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Turbine Rotor Blade Tip Heat Transfer | |
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Introduction | |
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Blade Tip Region Flow Field and Heat Transfer | |
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Flat-Blade Tip Heat Transfer | |
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Squealer- or Grooved-Blade-Tip Heat Transfer | |
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Leading-Edge Region Heat Transfer | |
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Introduction | |
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Effect of Free-Stream Turbulence | |
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Effect of Leading-Edge Shape | |
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Effect of Unsteady Wake | |
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Flat-Surface Heat Transfer | |
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Introduction | |
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Effect of Free-Stream Turbulence | |
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Effect of Pressure Gradient | |
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Effect of Streamwise Curvature | |
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Surface Roughness Effects | |
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New Information from 2000 to 2010 | |
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Endwall Heat Transfer | |
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Endwall Contouring | |
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Leading-Edge Modifications to Reduce Secondary Flows | |
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Endwall Heat-Transfer Measurements | |
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Turbine Tip and Casing Heat Transfer | |
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Vane-Blade Interactions | |
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Cascade Studies | |
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Deposition and Roughness Effects | |
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Combustor-Turbine Effects | |
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Transition-Induced Effects and Modeling | |
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Closure | |
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References | |
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Turbine Film Cooling | |
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Introduction | |
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Fundamentals of Film Cooling | |
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Film Cooling on Rotating Turbine Blades | |
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Film Cooling on Cascade Vane Simulations | |
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Introduction | |
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Effect of Film Cooling | |
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Effect of Free-Stream Turbulence | |
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Film Cooling on Cascade Blade Simulations | |
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Introduction | |
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Effect of Film Cooling | |
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Effect of Free-Stream Turbulence | |
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Effect of Unsteady Wake | |
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Combined Effect of Free-Stream Turbulence and Unsteady Wakes | |
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Film Cooling on Airfoil Endwalls | |
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Introduction | |
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Low-Speed Simulation Experiments | |
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Engine Condition Experiments | |
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Near-Endwall Film Cooling | |
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Turbine Blade Tip Film Cooling | |
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Introduction | |
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Heat-Transfer Coefficient | |
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Film Effectiveness | |
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Leading-Edge Region Film Cooling | |
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Introduction | |
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Effect of Coolant-to-Mainstream Blowing Ratio | |
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Effect of Free-Stream Turbulence | |
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Effect of Unsteady Wake | |
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Effect of Coolant-to-Mainstream Density Ratio | |
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Effect of Film Hole Geometry | |
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Effect of Leading-Edge Shape | |
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Flat-Surface Film Cooling | |
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Introduction | |
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Film-Cooled, Heat-Transfer Coefficient | |
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Effect of Blowing Ratio | |
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Effect of Coolant-to-Mainstream Density Ratio | |
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Effect of Mainstream Acceleration | |
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Effect of Hole Geometry | |
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Film-Cooling Effectiveness | |
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Effect of Blowing Ratio | |
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Effect of Coolant-to-Mainstream Density Ratio | |
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Film Effectiveness Correlations | |
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Effect of Streamwise Curvature and Pressure Gradient | |
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Effect of High Free-Stream Turbulence | |
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Effect of Film Hole Geometry | |
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Effect of Coolant Supply Geometry | |
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Effect of Surface Roughness | |
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Effect of Gap Leakage | |
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Effect of Bulk Flow Pulsations | |
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Full-Coverage Film Cooling | |
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Discharge Coefficients of Turbine Cooling Holes | |
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Film-Cooling Effects on Aerodynamic Losses | |
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New Information from 2000 to 2010 | |
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Film-Cooling-Hole Geometry | |
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Effect of Cooling-Hole Exit Shape and Geometry | |
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Trenching of Holes | |
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Deposition and Blockage Effects on Hole Exits | |
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Endwall Film Cooling | |
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Turbine Blade Tip Film Cooling | |
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Turbine Trailing Edge Film Cooling | |
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Airfoil Film Cooling | |
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Vane Film Cooling | |
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Blade Film Cooling | |
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Effect of Shocks | |
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Effect of Superposition on Film Effectiveness | |
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Novel Film-Cooling Designs | |
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Closure | |
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References | |
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Turbine Internal Cooling | |
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Jet Impingement Cooling | |
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Introduction | |
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Heat-Transfer Enhancement by a Single Jet | |
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Effect of Jet-to-Target-Plate Spacing | |
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Correlation for Single Jet Impingement Heat Transfer | |
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Effectiveness of Impinging Jets | |
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Comparison of Circular to Slot Jets | |
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Impingement Heat Transfer in the Midchord Region by Jet Array | |
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Jets with Large Jet-to-Jet Spacing | |
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Effect of Wall-to-Jet-Array Spacing | |
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Cross-Flow Effect and Heat-Transfer Correlation | |
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Effect of Initial Cross-Flow | |
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Effect of Cross-Flow Direction on Impingement Heat Transfer | |
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Effect of Coolant Extraction on Impingement Heat Transfer | |
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Effect of Inclined Jets on Heat Transfer | |
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Impingement Cooling of the Leading Edge | |
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Impingement on a Curved Surface | |
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Impingement Heat Transfer in the Leading Edge | |
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Rib-Turbulated Cooling | |
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Introduction | |
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Typical Test Facility | |
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Effects of Rib Layouts and Flow Parameters on Ribbed-Channel Heat Transfer | |
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Effect of Rib Spacing on the Ribbed and Adjacent Smooth Sidewalls | |
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Angled Ribs | |
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Effect of Channel Aspect Ratio with Angled Ribs | |
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Comparison of Different Angled Ribs | |
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Heat-Transfer Coefficient and Friction Factor Correlation | |
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High-Performance Ribs | |
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V-Shaped Rib | |
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V-Shaped Broken Rib | |
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Wedge- and Delta-Shaped Rib | |
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Effect of Surface-Heating Condition | |
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Nonrectangular Cross-Section Channels | |
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Effect of High Blockage-Ratio Ribs | |
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Effect of Rib Profile | |
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Effect of Number of Ribbed Walls | |
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Effect of a 180� Sharp Turn | |
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Detailed Heat-Transfer Coefficient Measurements in a Ribbed Channel | |
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Effect of Film-Cooling Hole on Ribbed-Channel Heat Transfer | |
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Pin-Fin Cooling | |
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Introduction | |
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Flow and Heat-Transfer Analysis with Single Pin | |
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Pin Array and Correlation | |
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Effect of Pin Shape on Heat Transfer | |
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Effect of Nonuniform Array and Flow Convergence | |
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Effect of Skewed Pin Array | |
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Partial Pin Arrangements | |
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Effect of Turning Flow | |
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Pin-Fin Cooling with Ejection | |
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Effect of Missing Pin on Heat-Transfer Coefficient | |
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Compound and New Cooling Techniques | |
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Introduction | |
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Impingement on Ribbed Walls | |
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Impingement on Pinned and Dimpled Walls | |
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Combined Effect of Ribbed Wall with Grooves | |
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Combined Effect of Ribbed Wall with Pins and Impingement Inlet Conditions | |
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Combined Effect of Swirl Flow and Ribs | |
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Impingement Heat Transfer with Perforated Baffles | |
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Combined Effect of Swirl and Impingement | |
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Concept of Heat Pipe for Turbine Cooling | |
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New Cooling Concepts | |
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New Information from 2000 to 2010 | |
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Rib Turbinated Cooling | |
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Impingement Cooling on Rough Surface | |
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Trailing Edge Cooling | |
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Dimpled and Pm-Finned Channels | |
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Combustor Liner Cooling and Effusion Cooling | |
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Innovative Cooling Approaches and Methods | |
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References | |
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Turbine Internal Cooling with Rotation | |
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Rotational Effects on Cooling | |
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Smooth-Wall Coolant Passage | |
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Effect of Rotation on Flow Field | |
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Effect of Rotation on Heat Transfer | |
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Effect of Rotation Number | |
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Effect of Density Ratio | |
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Combined Effects of Rotation Number and Density Ratio | |
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Effect of Surface-Heating Condition | |
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Effect of Rotation Number and Wall-Heating Condition | |
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Heat Transfer in a Rib-Turbulated Rotating Coolant Passage | |
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Effect of Rotation on Rib-Turbulated Flow | |
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Effect of Rotation on Heat Transfer in Channels with 90� Ribs | |
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Effect of Rotation Number | |
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Effect of Wall-Heating Condition | |
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Effect of Rotation on Heat Transfer for Channels with Angled (Skewed) Ribs | |
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Effect of Angled Ribs and Heating Condition | |
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Comparison of Orthogonal and Angled Ribs | |
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Effect of Channel Orientation with Respect to the Rotation Direction on Both Smooth and Ribbed Channels | |
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Effect of Rotation Number | |
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Effect of Model Orientation and Wall-Heating Condition | |
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Effect of Channel Cross Section on Rotating Heat Transfer | |
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Triangular Cross Section | |
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Rectangular Channel | |
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Circular Cross Section | |
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Two-Pass Triangular Duct | |
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Different Proposed Correlation to Relate the Heat Transfer with Rotational Effects | |
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Heat-Mass-Transfer Analogy and Detail Measurements | |
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Rotation Effects on Smooth-Wall Impingement Cooling | |
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Rotation Effects on Leading-Edge Impingement Cooling | |
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Rotation Effect on Midchord Impingement Cooling | |
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Effect of Film-Cooling Hole | |
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Rotational Effects on Rib-Turbulated Wall Impingement Cooling | |
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New Information from 2000 to 2010 | |
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Heat Transfer in Rotating Triangular Cooling Channels | |
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Heat Transfer in Rotating Wedge-Shaped Cooling Channels | |
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Effect of Aspect Ratio and Rib Configurations on Rotating Channel Heat Transfer | |
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Effect of High Rotation Number and Entrance Geometry on Rectangular Channel Heat Transfer | |
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References | |
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Experimental Methods | |
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Introduction | |
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Heat-Transfer Measurement Techniques | |
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Introduction | |
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Heat Flux Gages | |
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Thin-Foil Heaters with Thermocouples | |
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Copper Plate Heaters with Thermocouples | |
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Transient Technique | |
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Mass-Transfer Analogy Techniques | |
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Introduction | |
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Naphthalene Sublimation Technique | |
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Foreign-Gas Concentration Sampling Technique | |
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Swollen-Polymer Technique | |
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Ammonia-Diazo Technique | |
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Pressure-Sensitive Paint Techniques | |
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Thermographic Phosphors | |
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Liquid Crystal Thermography | |
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Steady-State Yellow-Band Tracking Technique | |
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Steady-State HSI Technique | |
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Transient HSI Technique | |
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Transient Single-Color Capturing Technique | |
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Flow and Thermal Field Measurement Techniques | |
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Introduction | |
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Five-Hole Probe/Thermocouples | |
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Hot-Wire/Cold-Wire Anemometry | |
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Laser Doppler Velocimetry | |
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Particle Image Velocimetry | |
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Laser Holographic Interferometry | |
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Surface Visualization | |
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New Information from 2000 to 2010 | |
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Transient Thin-Film Heat Flux Gages | |
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Advanced Liquid Crystal Thermography | |
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Infrared Thermography | |
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Pressure-Sensitive Paint | |
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Temperature-Sensitive Paint | |
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Flow and Thermal Field Measurements | |
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Closure | |
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References | |
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Numerical Modeling | |
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Governing Equations and Turbulence Models | |
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Introduction | |
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Governing Equations | |
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Turbulence Models | |
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Standard k-� Model | |
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Low-Re k-� Model | |
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Two-Layer k-� Model | |
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k-� Model | |
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Baldwin-Lomax Model | |
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Second-Moment Closure Model | |
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Algebraic Closure Model | |
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Numerical Prediction of Turbine Heat Transfer | |
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Introduction | |
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Prediction of Turbine Blade/Vane Heat Transfer | |
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Prediction of the Endwall Heat Transfer | |
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Prediction of Blade Tip Heat Transfer | |
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| |
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Numerical Prediction of Turbine Film Cooling | |
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| |
Introduction | |
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| |
| |
Prediction of Flat-Surface Film Cooling | |
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Prediction of Leading-Edge Film Cooling | |
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| |
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Prediction of Turbine Blade Film Cooling | |
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| |
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Numerical Prediction of Turbine Internal Cooling | |
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| |
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Introduction | |
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| |
Effect of Rotation | |
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Effect of 180� Turn | |
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Effect of Transverse Ribs | |
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Effect of Angled Ribs | |
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Effect of Rotation on Channel Shapes | |
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| |
Effect of Coolant Extraction | |
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| |
| |
New Information from 2000 to 2010 | |
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| |
CFD for Turbine Film Cooling | |
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CFD for Turbine Internal Cooling | |
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CFD for Conjugate Heat Transfer and Film Cooling | |
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CFD for Turbine Heat Transfer | |
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References | |
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Final Remarks | |
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Turbine Heat Transfer and Film Cooling | |
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Turbine Internal Cooling with Rotation | |
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Turbine Edge Heat Transfer and Cooling | |
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New Information from 2000 to 2010 | |
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Closure | |
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Index | |