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Found 82 results (Oil & Gas Engineering)
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Gas Turbine Engineering Handbook
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Add to Bookshelf
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By
Meherwan P. Boyce ©
2012
Butterworth-Heinemann
Description: Written by one of the field's most well known experts, the Gas Turbine Engineering Handbook has long been the standard for engineers involved in the design, selection, maintenance and operation of gas turbines. With far reaching, comprehensive coverage across a range of topics from design specifications to maintenance troubleshooting, this one-stop resource provides newcomers to the industry with all the essentials to learn and fill knowledge gaps, and established practicing gas turbine engineers with a reliable go-to reference.
This new edition brings the Gas Turbine Engineering Handbook right up to date with new legislation and emerging topics to help the next generation of gas turbine professionals understand the underlying principles of gas turbine operation, the economic considerations and implications of operating these machines, and how they fit in with alternative methods of power generation.
UE Release Date: May 22, 2012
Description: Written by one of the field's most well known experts, the Gas Turbine Engineering Handbook has long been the standard for engineers involved in the...
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Table of Contents
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• Preface to the Fourth Edition.....xix |
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• Preface to the Third Edition.....xxiii |
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• Preface to the Second Edition.....xxvii |
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• Preface to the First Edition.....xxix |
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• Foreword to the First Edition.....xxxi |
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• About the Author.....xxxiii |
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[+]
I: Design: Theory and Practice.....1 |
[+]
1 An Overview of Gas Turbines.....3 |
Gas Turbine Cycle in the Combined Cycle or Cogeneration Mode.....3 |
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Gas Turbine Performance.....6 |
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Gas Turbine Design Considerations.....11 |
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Categories of Gas Turbines.....15 |
Frame Type Heavy-Duty Gas Turbines.....16 |
Aircraft-Derivative Gas Turbines.....30 |
Industrial-Type Gas Turbines.....39 |
Small Gas Turbines.....42 |
Vehicular Gas Turbines.....44 |
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Major Gas Turbine Components.....51 |
Regenerators/Recuperators.....57 |
Environmental Effects.....62 |
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Turbine Expander Section.....76 |
Radial-Inflow Turbine.....76 |
Mixed-Flow Turbine.....77 |
Axial-Flow Turbines.....78 |
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Gas Turbine Heat Recovery.....83 |
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[+]
Supplementary Firing of Heat Recovery Systems.....85 |
Instrumentation and Controls.....87 |
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[+]
2 Theoretical and Actual Cycle Analyses.....89 |
Regeneration Effect.....92 |
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[+]
Increasing the Work Output of the Simple-Cycle Gas Turbine.....95 |
Intercooling and Reheating Effects.....95 |
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Actual Cycle Analysis.....98 |
The Split-Shaft Simple Cycle.....100 |
The Regenerative Cycle.....101 |
The Inter-cooled Simple Cycle.....102 |
The Inter-cooled Regenerative Reheat Cycle.....105 |
The Steam Injection Cycle.....105 |
The Evaporative Regenerative Cycle.....109 |
The Brayton–Rankine Cycle.....110 |
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Summation of Cycle Analysis.....113 |
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[+]
A General Overview of Combined-Cycle Plants.....114 |
Compressed Air Energy Storage Cycle.....121 |
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Power Augmentation.....122 |
Injection of Compressed Air, Steam, or Water.....124 |
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Inlet Cooling Techniques.....124 |
Evaporative Cooling of the Turbine.....124 |
Refrigerated Inlets for the Gas Turbines.....125 |
Combination of Evaporative and Refrigerated Inlet Systems.....127 |
Thermal Energy Storage Systems.....128 |
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Injection of Compressed Air, Steam, or Water for Increasing Power.....128 |
Mid-Compressor Flashing of Water.....128 |
Injection of Humidified and Heated Compressed Air.....129 |
Combination of Evaporative Cooling and Steam Injection.....131 |
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Summation of the Power Augmentation Systems.....132 |
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3 Compressor and Turbine Performance Characteristics.....139 |
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Aerothermodynamics of Turbomachinery.....139 |
Dry- and Wet-bulb Temperatures.....144 |
Optical and Radiation Pyrometers.....148 |
Compressibility Effect.....150 |
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Aerothermal Equations.....153 |
Continuity Equation.....153 |
Momentum Equation.....154 |
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Efficiencies.....157 |
Adiabatic Thermal Efficiency.....158 |
Polytropic Efficiency.....161 |
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Dimensional Analysis.....163 |
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Compressor Performance Characteristics.....166 |
Turbine Performance Characteristics.....167 |
Gas Turbine Performance Computation.....167 |
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4 Performance and Mechanical Standards.....177 |
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Major Variables for a Gas Turbine Application.....177 |
Type of Application.....177 |
Plant Location and Site Configuration.....179 |
Gas Turbine Size and Efficiency.....180 |
Plant Operation Mode: Base or Peaking.....184 |
Start-Up Techniques.....184 |
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Performance Standards.....184 |
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ASME PTC 19.1: Test Uncertainty.....185 |
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ASME PTC 19.3: Part 3: Temperature Measurement Instruments and Apparatus.....185 |
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ASME PTC 19.5: Flow Measurement, Published 2004.....186 |
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PTC 19.10: Flue and Exhaust Gas Analyses, Part 10.....187 |
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ASME PTC 19.11: Steam and Water Sampling, Conditioning, and Analysis in the Power Cycle.....187 |
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ASME PTC 19.23: Guidance Manual for Model Testing, Published 1980.....188 |
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ASME PTC 46: Performance Test Code on Overall Plant Performance, Published January 1, 1996.....188 |
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Performance Test Code on Gas Turbines.....190 |
ASME PTC 22, Published 2006.....190 |
ASME Measurement of Exhaust Emissions from Stationary Gas Turbine Engines B133.9, Published 1994.....190 |
ASME PTC 36 Measurement of Industrial Sound (ASME B133.8),Published 2004.....191 |
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Mechanical Parameters.....191 |
ASME B 133.2 Basic Gas Turbines, Published 1977 (Reaffirmed: 1997).....192 |
ASME B133.3 Procurement Standard for Gas Turbine Auxiliary Equipment, Published 1981 (Reaffirmed 1994).....192 |
ASME B133.4 Gas Turbine Control and Protection Systems, Published 1978 (Reaffirmed: 1997).....192 |
ASME B133.5 Procurement Standard for Gas Turbine Electrical Equipment, Published 1978 (Reaffirmed: 1994).....193 |
ASME B 133.7M Gas Turbine Fuels, Published 1985 (Reaffirmed: 1992).....193 |
ASME B133.8 Gas Turbine Installation Sound Emissions, Published 1977 (Reaffirmed: 1989).....193 |
ASME B133.9 Measurement of Exhaust Emissions from Stationary Gas Turbine Engines, Published: 1994.....193 |
API Std 616 Gas Turbines for the Petroleum, Chemical, and Gas Industry Services, Fourth Edition, August 1998.....194 |
API Std 613 Special Purpose Gear Units for Petroleum, Chemical, and Gas Industry Services, Fourth Edition, June 1995.....194 |
API Std 614 Lubrication, Shaft-Sealing, and Control-Oil Systems and Auxiliaries for Petroleum, Chemical, and Gas Industry ........194 |
API Std 618, Reciprocating Compressors for Petroleum, Chemical, and Gas Industry Services, Fourth Edition, June 1995.....195 |
API Std 619, Rotary-Type Positive Displacement Compressors for Petroleum, Chemical, and Gas Industry Services, ........195 |
ANSI/API Std 670 Vibration, Axial-Position, and Bearing-Temperature Monitoring Systems, Third Edition, November 1993.....195 |
API Std 671, Special Purpose Couplings for Petroleum,Chemical, and Gas Industry Services, Third Edition, October 1998.....195 |
API Std 677, General-Purpose Gear Units for Petroleum, Chemical, and Gas Industry Services, Second Edition, July 1997 ...
.....196 |
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[+]
Application of the Mechanical Standards to the Gas Turbine.....196 |
Lubrication Systems.....205 |
Vibration Measurements.....206 |
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5 Rotor Dynamics.....215 |
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Mathematical Analysis.....215 |
Undamped Free System.....217 |
Forced Vibrations.....222 |
Design Considerations.....224 |
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Application to Rotating Machines.....226 |
Flexible Supports.....228 |
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Critical Speed Calculations for Rotor Bearing Systems.....230 |
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Electromechanical Systems and Analogies.....232 |
Forces Acting on a Rotor-Bearing System.....233 |
Rotor-Bearing System Instabilities.....236 |
Self-Excited Instabilities.....239 |
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II: Major Components.....251 |
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6 Centrifugal Compressors.....253 |
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Centrifugal Compressor Components.....254 |
Inlet Guide Vanes.....260 |
Centrifugal Section of an Impeller.....267 |
Causes of Slip in an Impeller.....269 |
Stodola Slip Factor.....272 |
Stanitz Slip Factor.....273 |
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Centrifugal Compressor Performance.....278 |
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Compressor Surge.....283 |
Effects of Gas Composition.....289 |
External Causes and Effects of Surge.....290 |
Surge Detection and Control.....291 |
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Process Centrifugal Compressors.....292 |
Compressor Configuration.....295 |
Impeller Fabrication.....298 |
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7 Axial-Flow Compressors.....303 |
Blade and Cascade Nomenclature.....306 |
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Elementary Airfoil Theory.....309 |
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Laminar-Flow Airfoils.....311 |
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Velocity Triangles.....313 |
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Degree of Reaction.....315 |
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Radial Equilibrium.....319 |
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The Incidence Rule.....321 |
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The Deviation Rule.....323 |
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Compressor Operation Characteristics.....328 |
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Compressor Choke.....331 |
Individual Blade Stall.....332 |
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Compressor Performance Parameters.....337 |
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Performance Losses in an Axial-Flow Compressor.....340 |
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New Developments in Axial-Flow Compressors.....342 |
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Axial-Flow Compressor Research.....344 |
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Compressor Blade Material.....351 |
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8 Radial-Inflow Turbines.....357 |
Hydraulic Radial-Inflow Turbines.....357 |
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Radial-Inflow Turbines for Gas Applications.....358 |
Turbine Configurations.....361 |
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Thermodynamic and Aerodynamic Theory.....368 |
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Turbine Design Considerations.....374 |
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Performance of a Radial-Inflow Turbine.....376 |
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Losses in a Radial-Inflow Turbine.....380 |
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Radial-Inflow Turbine Applications.....381 |
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9 Axial-Flow Turbines.....385 |
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Thermodynamic and Aerodynamic Theory.....387 |
Utilization Factor.....391 |
Degree of Reaction.....391 |
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Velocity Diagrams.....393 |
Zero-Exit Swirl Diagram.....393 |
Symmetrical Diagram.....394 |
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Turbine Blade Cooling Concepts.....401 |
Convection Cooling.....405 |
Impingement Cooling.....405 |
Transpiration Cooling.....405 |
Water/Steam Cooling.....405 |
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Turbine Blade Cooling Design.....406 |
Convection and Impingement Cooling/Strut Insert Design.....406 |
Film and Convection Cooling Design.....406 |
Transpiration Cooling Design.....408 |
Multiple Small-Hole Design.....408 |
Water-Cooled Turbine Blades.....410 |
Steam-Cooled Turbine Blades.....412 |
Cooled-Turbine Aerodynamics.....412 |
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10 Combustors.....427 |
Gas Turbine Combustors.....427 |
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Typical Combustor Arrangements.....429 |
Can-Annular and Annular Combustors.....429 |
Silo-Type Combustors.....431 |
Combustion in Combustors.....431 |
The Diffusion-Type Combustor.....432 |
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Air-Pollution Problems in a Diffusion Combustor.....443 |
Oxides of Nitrogen.....443 |
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Diffusion Combustor Design.....448 |
The Diffusion Combustor.....448 |
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Flame Stabilization.....452 |
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Combustion and Dilution.....452 |
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Film Cooling of the Liner.....453 |
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Fuel Atomization and Ignition.....453 |
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The Dry Low Emission Combustors.....455 |
Tertiary Full-Speed No Load (FSNL).....469 |
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Silo-Type Combustors.....477 |
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Operation of DLN/DLE Combustors.....479 |
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Catalytic Combustion and Combustors.....481 |
Features of Catalytic Combustion.....481 |
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Catalytic Combustor Design.....483 |
Main Fuel Injector.....484 |
Catalytic Reactor.....484 |
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Transition Pieces.....487 |
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III: Materials, Fuel Technology, and Fuel Systems.....491 |
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11 Materials.....493 |
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General Metallurgical Behaviors in Gas Turbines.....496 |
Creep and Rupture.....496 |
Ductility and Fracture.....497 |
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Gas Turbine Materials.....503 |
Turbine Wheel Alloys.....505 |
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Compressor Blades.....507 |
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Forgings and Non-destructive Testing.....508 |
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12 Fuels.....515 |
Fuel Specifications.....519 |
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Fuel Properties.....521 |
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Liquid Fuel Handling and Treatment.....523 |
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Fuel Gas Handling and Treatment.....535 |
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Equipment for Removal of Particulates and Liquids from Fuel Gas Systems.....540 |
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Cleaning of Turbine Components.....543 |
Compressor Washing.....545 |
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Operating Experience.....548 |
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Heat Tracing of Piping Systems.....549 |
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Types of Heat-Tracing Systems.....550 |
Stream Tracing Systems.....550 |
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Storage of Liquids.....552 |
Atmospheric Tanks.....552 |
Floating Roof Tanks.....552 |
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IV: Auxiliary Components and Accessories.....555 |
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13 Bearings and Seals.....557 |
Bearing Design Principles.....565 |
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Tilting-Pad Journal Bearings.....569 |
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Bearing Materials.....572 |
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Bearing and Shaft Instabilities.....573 |
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Factors Affecting Thrust-Bearing Design.....577 |
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Thrust-Bearing Power Loss.....578 |
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[+]
Non-contacting Seals.....579 |
Ring (Bushing) Seals.....583 |
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Mechanical (Face) Seals.....585 |
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Mechanical Seal Selection and Application.....589 |
Additional Product Considerations.....592 |
Seal Arrangement Considerations.....593 |
Secondary Packing.....593 |
Seal-Face Combinations.....593 |
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Associated Oil System.....595 |
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[+]
Dry Gas Seals.....596 |
Tandem Dry Gas Seals.....599 |
Tandem Dry Gas Seal with Labyrinth.....599 |
Operating Range of Dry Gas Seals.....600 |
Dry Gas Seal Materials.....601 |
Dry Gas Seal Systems.....601 |
Dry Gas Seal Degradation.....601 |
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14 Gears.....605 |
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Factors Affecting Gear Design.....608 |
Types of Bearings.....614 |
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Manufacturing Processes.....616 |
Hobbing and Shaving.....616 |
Hobbing and Lapping.....618 |
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Installation and Initial Operation.....620 |
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[+]
V: Installation, Operation, and Maintenance.....627 |
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15 Lubrication.....629 |
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Basic Oil System.....629 |
Lubrication Oil System.....629 |
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Lubrication Management Program.....636 |
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Lubricant Selection.....637 |
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Oil Contamination.....637 |
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Cleaning and Flushing.....640 |
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[+]
Oil Sampling and Testing.....641 |
Oil Analysis Tests.....641 |
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Clean Oil Systems.....647 |
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Coupling Lubrication.....648 |
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[+]
16 Spectrum Analysis.....651 |
[+]
Vibration Measurement.....656 |
Displacement Transducers.....657 |
Velocity Transducers.....657 |
Acceleration Transducers.....658 |
Dynamic Pressure Transducers.....658 |
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Interpretation of Vibration Spectra.....660 |
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Subsynchronous Vibration Analysis Using RTA.....664 |
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Synchronous and Harmonic Spectra.....668 |
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[+]
17 Balancing.....675 |
[+]
Balancing Procedures.....680 |
Orbital Balancing.....681 |
Multiplane Balancing (Influence Coefficient Method).....683 |
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Application of Balancing Techniques.....686 |
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User's Guide for Multiplane Balancing.....688 |
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18 Couplings and Alignment.....693 |
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Gear Couplings.....695 |
Oil-Filled Couplings.....698 |
Grease-Packed Couplings.....699 |
Continuously Lubricated Couplings.....699 |
Gear Coupling Failure Modes.....700 |
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Metal Diaphragm Couplings.....701 |
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Metal Disc Couplings.....704 |
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Turbomachinery Uprates.....705 |
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Shaft Alignment.....710 |
The Shaft Alignment Procedure.....711 |
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[+]
19 Control Systems and Instrumentation.....721 |
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Control Systems.....721 |
Start-up Sequence.....728 |
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Condition Monitoring Systems.....730 |
Requirements for an Effective Diagnostic System.....732 |
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Monitoring Software.....733 |
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Implementation of a Condition Monitoring System.....735 |
Plant Power Optimization.....736 |
Online Optimization Process.....737 |
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Life Cycle Costs.....739 |
Diagnostic System Components and Functions.....741 |
Instrumentation Requirements.....741 |
Typical Instrumentation (Minimum Requirements for Each Machine).....742 |
Desirable Instrumentation (Optional).....742 |
Criteria for the Collection of Aerothermal Data.....742 |
Pressure Drop in Filter System.....745 |
Temperature and Pressure Measurement for Compressors and Turbines.....745 |
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Temperature Measurement.....746 |
Resistive Thermal Detectors.....747 |
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Pressure Measurement.....748 |
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[+]
Vibration Measurement.....748 |
Vibration Instrumentation Selection.....750 |
Selection of Systems for Analyses of Vibration Data.....750 |
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Auxiliary System Monitoring.....751 |
Torque Measurement.....752 |
Baseline for Machinery.....752 |
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The Gas Turbine.....756 |
Identification of Losses.....759 |
Compressor Aerothermal Characteristics and Compressor Surge.....759 |
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Failure Diagnostics.....760 |
Compressor Analysis.....760 |
Combustor Analysis.....761 |
Turbine Efficiency.....764 |
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Mechanical Problem Diagnostics.....765 |
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20 Gas Turbine Performance Test.....769 |
Performance Codes.....770 |
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Flow Straighteners.....771 |
Pressure Measurement.....771 |
Temperature Measurement.....774 |
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Gas Turbine.....778 |
Air Inlet Filter Module.....779 |
Compressor Module.....779 |
Life Cycle Consideration of Various Critical Hot Section Components.....782 |
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Performance Curves.....782 |
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Performance Computations.....782 |
General Governing Equations.....783 |
Gas Turbine Performance Calculation.....786 |
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Gas Turbine Performance Calculations.....792 |
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Correction Factors for Gas Turbines.....793 |
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[+]
Vibration Measurement.....796 |
Vibration Measurements.....796 |
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Emission Measurements.....797 |
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21 Maintenance Techniques.....803 |
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Philosophy of Maintenance.....803 |
Maximization of Equipment Efficiency and Effectiveness.....805 |
Organization Structures for a Performance-Based Total Productive Maintenance Program.....807 |
Implementation of a Performance-Based Total Productive Maintenance.....808 |
Maintenance Department Requirements.....810 |
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[+]
Training of Personnel.....810 |
I. Type of Personnel.....810 |
II. Types of Training.....811 |
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Tools and Shop Equipment.....814 |
Spare Parts Inventory.....814 |
Condition and Life Assessment.....815 |
Availability and Reliability.....815 |
Redesign for Higher Machinery Reliability.....817 |
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Gas Turbine Start-up.....819 |
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Redesign for Higher Machinery Reliability.....821 |
Advanced Gas Turbines.....821 |
Axial-Flow Compressor.....822 |
Dry Low NOx Combustors.....823 |
Axial-Flow Turbine.....826 |
Maintenance Scheduling.....827 |
Maintenance Communications.....829 |
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Long-Term Service Agreements.....833 |
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[+]
Borescope Inspection.....835 |
Maintenance of Gas Turbine Components.....841 |
Compressor Cleaning.....850 |
Compressor Water Wash.....851 |
Different Wash Systems.....853 |
On-Line Wash Cleaning System.....853 |
Off-Line Crank Wash Cleaning System.....853 |
On-Line and Off-Line Water Wash Fluids.....856 |
Off-Line Crank Wash Procedure.....857 |
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Rejuvenation of Used Turbine Blades.....866 |
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Rotor Dynamic System Characteristics.....869 |
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[+]
Bearing Maintenance.....870 |
Thrust-Bearing Failure.....877 |
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Coupling Maintenance.....880 |
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Repair and Rehabilitation of Turbomachinery Foundations.....880 |
Installation Defects.....881 |
Increasing Mass and Rigidity.....882 |
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22 Case Histories.....885 |
Axial-Flow Compressors.....886 |
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Combustion Systems.....897 |
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Axial-Flow Turbines.....902 |
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Appendix: Equivalent Units.....923 |
Entropy, Specific Heat, Gas Constant.....926 |
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Universal Gas Constant.....926 |
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Miscellaneous Constants.....927 |
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Advances in Multiphase Flow and Heat Transfer, Vol. 3
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Add to Bookshelf
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By
Lixin Cheng and Dieter Mewes ©
2012
Bentham Science Publishers
Description: Carbon Capture and Storage (CCS) is a feasible short-to-medium term method to dispose carbon dioxide (CO2) which would otherwise be emitted into the atmosphere and cause potentially massively damaging climate change. In CCS, CO2 is captured, compressed and injected deep underground into geological formations. There are four main CO2 trapping mechanisms, namely stratigraphic or structural trapping, dissolution trapping, capillary trapping anwd mineral trapping. In this text we discuss all these trapping mechanisms with focus on capillary trapping, which has recently been identified as a rapid and reliable CO2 storage method. UE Release Date: Jun 14, 2012
Description: Carbon Capture and Storage (CCS) is a feasible short-to-medium term method to dispose carbon dioxide (CO2) which would otherwise be emitted into the...
Read More
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Table of Contents
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• List of Contributors .....iv |
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[+]
CHAPTER 1
Numerical and Experimental Studies on Multiphase Flow in Stirred Tanks .....3 |
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TWO-PHASE FLOW IN STIRRED TANKS .....4 |
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Mathematic Model.....4 |
Transport Equations for k and ε .....7 |
Source Terms and Diffusion Coefficients .....8 |
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[+]
Numerical Method .....11 |
Impeller Modeling .....11 |
Solution of Model Equations .....12 |
Boundary Conditions .....13 |
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Gas-Liquid Flow in Stirred Tanks .....13 |
Flow Field Structure .....14 |
Gas Holdup Distribution .....16 |
Simulation of Flooding .....16 |
Energy Dissipation Feature .....17 |
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Solid-Liquid Flow in Stirred Tanks .....17 |
Solid-Liquid Flow with a Radial Flow Impeller .....18 |
Numerical Prediction of Critical Impeller Speed.....19 |
Solid-Liquid Flow with an Axial Flow Impeller .....20 |
Liquid-Liquid Flow in Stirred Tanks .....22 |
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[+]
THREE-PHASE FLOW IN STIRRED TANKS .....25 |
Liquid-Liquid-Solid Flow .....25 |
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Measurement of Phase Holdup .....25 |
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Investigation on Interphase Mass Transfer .....25 |
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Prediction of Flow Field and Phase Distribution .....26 |
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Dispersion in Gas-Liquid-Liquid Stirred Tanks .....27 |
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Dispersion and Phase Separation of Liquid-Liquid-Liquid Systems .....28 |
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SURFACE AERATED STIRRED TANKS .....28 |
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Novel Surface Aeration Configurations .....28 |
Self-Rotating and Floating Baffle (SRFB) .....29 |
Self-Rotating Flow Guide (SRFG) .....30 |
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Hydrodynamic Characteristics of Multi-Impeller in Surface Aerators .....30 |
Mass Transfer Coefficient .....31 |
Power Consumption .....31 |
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[+]
Gas Holdup in Surface Aerated Stirred Tanks .....32 |
Experimental Results of Gas Holdup .....32 |
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MACROMIXING AND MICROMIXING.....36 |
[+]
Macromixing .....36 |
Numerical Simulation in Single-Phase Systems .....36 |
Effect of Parameters and Conditions on Mixing Time .....36 |
Residence Time Distribution (RTD) .....37 |
Mixing Time in a Gas-Liquid Stirred Tank .....37 |
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[+]
Micromixing .....38 |
Mathematical Model .....39 |
Simulation of the Flow Field .....39 |
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SUMMARY AND PERSPECTIVE .....44 |
[+]
Algebraic Stress Model (ASM) .....45 |
Velocity Field Prediction .....46 |
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Large Eddy Simulation (LES) .....46 |
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[+]
CHAPTER 2
Two-Phase Flow Pressure Change Across Sudden Contraction and
Expansion in Small Channels .....55 |
[+]
REVIEW OF LITERATURE .....56 |
Single-phase Pressure Loss Coefficient .....56 |
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Two-Phase Pressure Change across Sudden Contraction .....60 |
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Two-Phase Pressure Change across Sudden Expansion .....64 |
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EXPERIMENTAL SETUP .....70 |
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[+]
RESULTS AND DISCUSSION .....72 |
Pressure Change Across Sudden Contraction .....72 |
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Pressure Change across Sudden Expansion .....74 |
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APPENDIX CALCULATION EXAMPLES .....80 |
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[+]
CHAPTER 3
Coalescence of Drops in Liquid .....84 |
FLOCCULATION AND COALESCENCE OF DROPS .....86 |
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[+]
ROLE OF INTERMOLECULAR AND SURFACE FORCES ON COALESCENCE OF DROPS .....89 |
van der Waals Force .....90 |
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Electrostatic Double Layer Force .....94 |
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Hydration and Steric Forces .....98 |
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[+]
THIN LIQUID FILMS IN EMULSIONS .....99 |
Disjoining Pressure Model of Thin Liquid Films .....102 |
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Stability of Thin Liquid Films .....103 |
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[+]
FILM DRAINAGE THEORIES OF COALESCENCE .....104 |
Models Without Consideration of Surfactant at the Interfaces .....104 |
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Adsorption of Surfactants at LiquidLiquid Interfaces .....108 |
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Film Drainage Models Considering the Presence of Surfactant at the Interfaces .....111 |
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STOCHASTIC THEORY OF COALESCENCE .....113 |
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COALESCENCE IN INDUSTRIAL EQUIPMENT .....121 |
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EXPERIMENTAL TECHNIQUES FOR STUDYING COALESCENCE OF DROPS .....122 |
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APPENDIX 1: SMOLUCHOWSKI’S THEORY OF KINETICS OF
COAGULATION .....131 |
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APPENDIX 2: THE HAMAKER CONSTANT .....133 |
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[+]
CHAPTER 4
Carbon Capture and Storage with a Focus on Capillary Trapping as a
Mechanism to Store Carbon Dioxide in Geological Porous Media .....135 |
STRATIGRAPHIC/STRUCTURAL TRAPPING .....139 |
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DISSOLUTION TRAPPING .....140 |
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MINERAL TRAPPING .....142 |
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CAPILLARY TRAPPING .....143 |
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[+]
CHAPTER 5
Discrete Particle Model for Dense Gas-Solid Flows .....151 |
[+]
GOVERNING EQUATIONS .....153 |
Gas Phase Hydrodynamics .....153 |
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Dispersed Phase Hydrodynamics .....155 |
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[+]
NUMERICAL SOLUTION OF DPM .....157 |
Discretization of Gas Phase Equations .....158 |
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Void Fraction Calculation .....161 |
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Particle Locating Algorithm .....169 |
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Handling Collision Events .....170 |
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Implicit Two-Phase Coupling .....176 |
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MODEL'S APPLICATION TO CYLINDRICAL CFB RISER .....178 |
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MODEL'S APPLICATION TO FLAT SPOUTED BED .....181 |
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[+]
CHAPTER 6
Experimental Study of Water Boiling in Microchannel .....188 |
[+]
INTRODUCTION .....188 |
Motivation and Applications .....188 |
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Objectives of the Present Work .....190 |
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LITERATURE SURVEY .....190 |
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[+]
EXPERIMENTAL SETUP .....192 |
Fabrication of Microchannel and Microheater .....192 |
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Characterization of Flow in Microchannel .....194 |
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Micro-Heater Characterization .....196 |
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Two-Phase Pressure Drop Characteristics in Microchannels .....198 |
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Pressure Drop Characteristics in Trapezoidal Silicon Microchannels .....198 |
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Discussion on Pressure Drop .....201 |
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Comparison with Correlations .....201 |
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Comparison with Annular Flow Model .....203 |
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Discussion on Pressure Maxima in Two Phase Flow .....205 |
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Effect of Aspect Ratio on Pressure Drop .....206 |
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Results from Annular Flow Model .....208 |
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Experimental Results .....208 |
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Discussion on Effect of Aspect Ratio .....209 |
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Instability in Two Phase Flow .....212 |
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[+]
MEASUREMENT OF VOID FRACTION .....215 |
[+]
Image Processing Technique .....216 |
Identification of Vapor Region .....216 |
Definition of Regimes .....216 |
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Frequency of Occurrence of Flow Regimes .....221 |
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Heat Transfer Coefficient .....222 |
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[+]
CONCLUSIONS .....224 |
Future Scope of Work .....225 |
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[+]
CHAPTER 7
Flow Pattern, Pressure Drop and Heat Transfer Coefficient for
Evaporative Refrigerants in Horizontal Small Tubes .....230 |
[+]
INTRODUCTION .....230 |
Background and Objective .....230 |
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Experimental Working Refrigerants .....231 |
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Flow Boiling Pressure Drop in Small Tubes .....234 |
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Flow Boiling Heat Transfer in Small Tubes .....234 |
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[+]
EXPERIMENTAL ASPECT .....235 |
Experimental Apparatus and Method .....235 |
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[+]
DATA REDUCTION .....237 |
Heat Transfer Coefficient .....239 |
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[+]
EXPERIMENTAL RESULTS AND DISCUSSION .....240 |
Effect on Pressure Drop .....246 |
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[+]
Comparison of Pressure Drop .....249 |
Comparison of the Current Experimental Pressure Drop .....249 |
Pressure Drop Comparison with Some Existing Correlations .....249 |
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[+]
Heat Transfer Coefficient .....255 |
Effect on Heat Transfer Coefficient .....255 |
Effect of Saturation Temperature on Heat Transfer Coefficient .....259 |
Effect of Inner Tube Diameter on Heat Transfer Coefficient .....259 |
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[+]
Comparison of Heat Transfer Coefficient .....262 |
Comparison of the Current Experimental Heat Transfer Coefficient.....262 |
Heat Transfer Coefficient Comparison with Some Existing Correlations .....264 |
Heat Transfer Coefficient Comparison with some Existing Correlations .....265 |
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[+]
PRESSURE DROP AND BOILING HEAT TRANSFER COEFFICIENT CORRELATIONS .....268 |
Development of Pressure Drop Correlation .....268 |
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Development of Heat Transfer Coefficient Correlation .....270 |
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[+]
CHAPTER 8
Flashing-Induced Density Wave Oscillations in a Boiling Natural
Circulation System.....280 |
[+]
INTRODUCTION .....280 |
Instability Classification .....280 |
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Type-I and Type-II Instabilities .....281 |
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|
Flashing-Induced Instability .....281 |
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[+]
EXPERIMENTAL FACILITY, SIRIUS-N .....282 |
Thermal-Hydraulic Loop .....282 |
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Experimental Procedure .....282 |
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Void Fraction Estimation .....284 |
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[+]
EXPERIMENTAL RESULTS .....286 |
Signal Time Traces .....286 |
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|
Stability Maps for Different Pressures .....286 |
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INSTABILITY MECHANISM .....290 |
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[+]
COMPARISON WITH OTHER KINDS OF INSTABILITIES .....291 |
Flow Pattern Transition Instability .....292 |
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Natural Circulation Oscillation .....293 |
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Type-1 Instability .....294 |
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STABILITY BOUNDARY FOR HIGHER SUBCOOLING .....295 |
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CONCLUDING REMARKS .....296 |
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ACKNOWLEDGEMENTS .....297 |
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[+]
CHAPTER 9
Nonlinear Dynamic Characteristics of Bubbling Fluidization .....300 |
EXPERIMENTAL DATA .....304 |
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|
SOURCES OF PRESSURE FLUCTUATIONS .....304 |
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[+]
PRELIMINARY ANALYSIS .....307 |
Average Cycle Frequency.....308 |
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Fourier Analysis .....310 |
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[+]
DETECTING STATIONARITY .....311 |
State Space and Embedding Theory .....312 |
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Embedding Parameters .....313 |
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[+]
Time Delay .....313 |
Autocorrelation Function .....314 |
Mutual Information .....314 |
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[+]
Embedding Dimension .....314 |
Correlation Dimension .....315 |
Nonlinear Dynamical Invariants .....320 |
Detecting Nonlinearity .....324 |
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Reliability Maintainability and Risk Practical Methods for Engineers
|
Add to Bookshelf
|
By
Dr David J. Smith ©
2011
Butterworth-Heinemann
Description: After three editions, in 1993, Reliability, Maintainability in Perspectivebecame Reliability, Maintainability and Risk. The 6th edition, in 2001, included my PhD studies into common cause failure and into the correlation between predicted and achieved field reliability. Once again it is time to update the material as a result of developments in the functional safety area.
The techniques that are explained apply to both reliability and safety engineering and are also
applied to optimizing maintenance strategies. The collection of techniques concerned with reliability, availability, maintainability and safety are often referred to as RAMS. UE Release Date: May 22, 2012
Description: After three editions, in 1993, Reliability, Maintainability in Perspectivebecame Reliability, Maintainability and Risk. The 6th edition, in 2001,...
Read More
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Table of Contents
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• Acknowledgements.....xxi |
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[+]
Part 1 - Understanding ReliabilityParameters and Costs.....1 |
[+]
CHAPTER 1 - The History of Reliabilityand Safety Technology.....3 |
1.2 - Hazardous Failures.....5 |
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1.3 - Reliability and Risk Prediction.....5 |
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1.4 - Achieving Reliability and Safety-Integrity.....8 |
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1.5 - The RAMS Cycle.....9 |
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1.6 - Contractual and Legal Pressures.....11 |
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[+]
Chapter 2 - Understanding Terms and Jargon.....13 |
2.1 - Defining Failure and Failure Modes.....13 |
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2.2 - Failure Rate and Mean Time Between Failures.....15 |
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2.3 - Interrelationships of Terms.....17 |
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2.4 - The Bathtub Distribution.....20 |
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2.5 - Down Time and Repair Time.....22 |
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2.6 - Availability, Unavailability and Probability of Failure on Demand.....24 |
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2.7 - Hazard and Risk-Related Terms.....25 |
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2.8 - Choosing the Appropriate Parameter.....26 |
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[+]
chapter 3 - A Cost-Effective Approach to Quality,Reliability and Safety.....29 |
3.1 - Reliability and Optimum Cost.....29 |
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3.2 - Costs and Safety.....33 |
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3.3 - The Cost of Quality.....34 |
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[+]
Part 2 - Interpreting Failure Rates.....39 |
[+]
CHAPTER 4 - Realistic Failure Rates andPrediction Confidence.....41 |
4.1 - Data Accuracy.....41 |
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4.2 - Sources of Data.....43 |
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4.4 - Confidence Limits of Prediction.....52 |
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4.5 - Manufacturers’ Data.....54 |
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4.6 - Overall Conclusions.....55 |
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[+]
Chapter 5 - Interpreting Data andDemonstrating Reliability.....57 |
5.1 - The Four Cases.....57 |
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5.2 - Inference and Confidence Levels.....57 |
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5.3 - The Chi-Square Test.....59 |
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5.4 - Understanding the Method in More Detail.....62 |
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5.5 - Double-Sided Confidence Limits.....63 |
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5.6 - Reliability Demonstration.....63 |
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5.7 - Sequential Testing.....68 |
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5.8 - Setting Up Demonstration Tests.....69 |
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[+]
Chapter 6 - Variable Failure Rates andProbability Plotting.....71 |
6.1 - The Weibull Distribution.....71 |
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6.2 - Using the Weibull Method.....73 |
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6.3 - More Complex Cases of the Weibull Distribution.....81 |
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6.4 - Continuous Processes.....82 |
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[+]
Part 3 - Predicting Reliability and Risk.....85 |
[+]
Chapter 7 - Basic Reliability Prediction Theory.....87 |
7.1 - Why Predict RAMS?.....87 |
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7.2 - Probability Theory.....88 |
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7.3 - Reliability of Series Systems.....91 |
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7.4 - Redundancy Rules.....92 |
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7.5 - General Features of Redundancy.....98 |
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[+]
Chapter 8 - Methods of Modeling.....103 |
8.1 - Block Diagrams and Repairable Systems.....103 |
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8.2 - Common Cause (Dependent) Failure.....111 |
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8.3 - Fault Tree Analysis.....118 |
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8.4 - Event Tree Diagrams.....126 |
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[+]
Chapter 9 - Quantifying the Reliability Models.....133 |
9.1 - The Reliability Prediction Method.....133 |
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9.2 - Allowing for Diagnostic Intervals.....135 |
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9.3 - FMEA (Failure Mode and Effect Analysis).....137 |
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9.4 - Human Factors.....140 |
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9.6 - Comparing Predictions with Targets.....153 |
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[+]
chapter 10 - Risk Assessment (QRA).....155 |
10.1 Frequency and Consequence.....155 |
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10.2 Perception of Risk, ALARP and Cost per Life Saved.....156 |
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10.3 Hazard Identification.....164 |
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10.4 Factors to Quantify.....169 |
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[+]
Part 4 - Achieving Reliabilityand Maintainability.....177 |
[+]
Chapter 11 - Design and Assurance Techniques.....179 |
11.3 Environmental Stress Protection.....184 |
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11.4 Failure Mechanisms.....185 |
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11.5 Complexity and Parts.....187 |
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11.6 Burn-In and Screening.....189 |
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11.7 Maintenance Strategies.....190 |
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[+]
Chapter 12 - Design Review, Test and Reliability Growth.....191 |
12.1 Review Techniques.....191 |
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12.2 Categories of Testing.....192 |
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