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Proceedings Papers

Proceedings Volume Cover
ASME 1995 International Gas Turbine and Aeroengine Congress and Exposition
June 5–8, 1995
Houston, Texas, USA
Conference Sponsors:
  • International Gas Turbine Institute
ISBN:
978-0-7918-7881-1
In This Volume
Volume 4: Heat Transfer; Electric Power; Industrial and Cogeneration

Heat Transfer

Distribution of Film-Cooling Effectiveness on a Turbine Endwall Measured Using the Ammonia and Diazo Technique
S. Friedrichs, H. P. Hodson, W. N. Dawes
GT 1995; V004T09A001https://doi.org/10.1115/95-GT-001
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Topics: Film cooling , Turbines , Coolants , Flow (Dynamics) , Calibration , Cascades (Fluid dynamics) , Coating processes , Coatings , Cooling , Design
Effect of Velocity and Temperature Distribution at the Hole Exit on Film Cooling of Turbine Blades
Vijay K. Garg, Raymond E. Gaugler
GT 1995; V004T09A002https://doi.org/10.1115/95-GT-002
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Topics: Film cooling , Temperature distribution , Turbine blades , Rotors , Blades , Coolants , Heat transfer coefficients , Pressure , Suction , Cooling
Heat Transfer and Film Cooling Effectiveness in a Linear Airfoil Cascade
N. Abuaf, R. Bunker, C. P. Lee
GT 1995; V004T09A003https://doi.org/10.1115/95-GT-003
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Topics: Airfoils , Cascades (Fluid dynamics) , Film cooling , Heat transfer , Heat transfer coefficients , Transients (Dynamics) , Cylinders , Steady state , Boundary layers , Chords (Trusses)
The Effects of Adverse Pressure Gradients on Momentum and Thermal Structures in Transitional Boundary Layers: Part 1 — Mean Quantities
Scott P. Mislevy, Ting Wang
GT 1995; V004T09A004https://doi.org/10.1115/95-GT-004
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Topics: Boundary layers , Momentum , Pressure gradient , Turbulence , Temperature profiles , Wire , Heat transfer , Pressure , Heat conduction , Probes
The Effects of Adverse Pressure Gradients on Momentum and Thermal Structures in Transitional Boundary Layers: Part 2 — Fluctuation Quantities
Scott P. Mislevy, Ting Wang
GT 1995; V004T09A005https://doi.org/10.1115/95-GT-005
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Topics: Boundary layers , Momentum , Pressure gradient , Turbulence , Shear (Mechanics) , Shear stress , Boundary layer turbulence , Eddies (Fluid dynamics) , Fluctuations (Physics) , Flux (Metallurgy)
Transient Liquid Crystal Technique for Convective Heat Transfer on Rough Surfaces
Douglas N. Barlow, Yong W. Kim
GT 1995; V004T09A006https://doi.org/10.1115/95-GT-006
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Topics: Convection , Liquid crystals , Surface roughness , Transients (Dynamics) , Stators , Heat transfer coefficients , Momentum , Turbines , Boundary layers , Composite materials
Flow Visualization in a Linear Turbine Cascade of High Performance Turbine Blades
Hai-Ping Wang, Steven J. Olson, Richard J. Goldstein, Ernst R. G. Eckert
GT 1995; V004T09A007https://doi.org/10.1115/95-GT-007
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Topics: Cascades (Fluid dynamics) , Flow visualization , Turbine blades , Turbines , Vortices , Blades , Flow (Dynamics) , Suction , Wire , Smoke
Transient Heat Transfer Experiments in a Linear Cascade via an Insertion Mechanism Using the Liquid Crystal Technique
A. Hoffs, A. Bolcs, S. P. Harasgama
GT 1995; V004T09A008https://doi.org/10.1115/95-GT-008
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Topics: Cascades (Fluid dynamics) , Liquid crystals , Transient heat transfer , Airfoils , Boundary layers , Compressors , Displacement , Gages , Heat transfer , Image processing
Multiple Jets in a Crossflow: Detailed Measurements and Numerical Simulations
Peter Ajersch, Jian-Ming Zhou, Steven Ketler, Martha Salcudean, Ian S. Gartshore
GT 1995; V004T09A009https://doi.org/10.1115/95-GT-009
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Topics: Computer simulation , Jets , Flow (Dynamics) , Stress , Smoke , Turbulence , Algebra , Computational fluid dynamics , Film cooling , Flow visualization
Heat Transfer Coefficients Over a Flat Surface With Air and CO2 Injection Through Compound Angle Holes Using a Transient Liquid Crystal Image Method
Srinath V. Ekkad, Dyrk Zapata, Je-Chin Han
GT 1995; V004T09A010https://doi.org/10.1115/95-GT-010
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Topics: Heat transfer coefficients , Liquid crystals , Tertiary petroleum recovery , Transients (Dynamics) , Coolants , Density , Carbon dioxide , Coating processes , Coatings , Film cooling
Film Effectiveness Over a Flat Surface With Air and CO2 Injection Through Compound Angle Holes Using a Transient Liquid Crystal Image Method
Srinath V. Ekkad, Dyrk Zapata, Je-Chin Han
GT 1995; V004T09A011https://doi.org/10.1115/95-GT-011
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Topics: Liquid crystals , Tertiary petroleum recovery , Transients (Dynamics) , Coolants , Density , Carbon dioxide , Film cooling , Gas turbines , Heat transfer coefficients , Turbulence
Total-Coverage Discrete Hole Wall Cooling
Hyung Hee Cho, Richard J. Goldstein
GT 1995; V004T09A012https://doi.org/10.1115/95-GT-012
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Topics: Cooling , Flow (Dynamics) , Heat , Mass transfer , Plates (structures) , Combustion chambers , Film cooling , Flow separation , Jets , Reynolds number
Turbulent Flow Heat Transfer and Friction in a Rectangular Channel With Varying Number of Ribbed Walls
Pankaj R. Chandra, Michael E. Niland, Je-Chin Han
GT 1995; V004T09A013https://doi.org/10.1115/95-GT-013
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Topics: Friction , Heat transfer , Turbulence , Surface roughness , Air flow , Heat transfer coefficients , Reynolds number
Effect of Surface Roughness on Local Heat Transfer and Film Cooling Effectiveness
Douglas N. Barlow, Yong W. Kim
GT 1995; V004T09A014https://doi.org/10.1115/95-GT-014
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Topics: Film cooling , Heat transfer , Surface roughness , Heat transfer coefficients , Boundary layers , Cooling , Density , Flow (Dynamics) , Liquid crystals , Momentum
The Discharge Coefficient of Flared Film Cooling Holes
N. Hay, D. Lampard
GT 1995; V004T09A015https://doi.org/10.1115/95-GT-015
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Topics: Discharge coefficient , Film cooling , Cross-flow , Electrical discharge machining , Flow (Dynamics) , Geometry , Pressure
An Experimental Study to Compare the Naphthalene Sublimation With the Liquid Crystal Technique in Compressible Flow
M. Häring, A. Hoffs, A. Bolcs, B. Weigand
GT 1995; V004T09A016https://doi.org/10.1115/95-GT-016
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Topics: Compressible flow , Liquid crystals , Mach number , Turbines , Airfoils , Heat transfer coefficients , Boundary layers , Cylinders , Flat plates , Reynolds number
A New Analogy Function for the Naphthalene Sublimation Technique to Measure Heat Transfer Coefficients on Turbine Airfoils
M. Häring, B. Weigand
GT 1995; V004T09A017https://doi.org/10.1115/95-GT-017
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Topics: Airfoils , Heat transfer coefficients , Turbines , Flow (Dynamics) , Heat transfer , Mach number , Mass transfer , Pressure gradient , Approximation , Ducts
Pressure Gradient Effects on Film Cooling
Donald L. Schmidt, David G. Bogard
GT 1995; V004T09A018https://doi.org/10.1115/95-GT-018
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Topics: Film cooling , Pressure gradient , Jets , Cooling , Density , Blades , Flat plates , Gas turbines , Momentum , Pressure
Design and Evaluation of a Single Passage Test Model to Obtain Turbine Airfoil Film Cooling Effectiveness Data
Frederick A. Buck, Chander Prakash
GT 1995; V004T09A019https://doi.org/10.1115/95-GT-019
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Topics: Airfoils , Design , Film cooling , Turbines , Boundary layers , Coolants , Pressure , Suction , Aerodynamics , Cascades (Fluid dynamics)
Computations of Film Cooling for the Leading Edge Region of a Turbine Blade Model
Pingfan He, Martha Salcudean, Ian S. Gartshore
GT 1995; V004T09A020https://doi.org/10.1115/95-GT-020
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Topics: Computation , Film cooling , Turbine blades , Orifices , Blades , Coolants , Density , Flow (Dynamics) , Geometry , Mesh generation
The Influence of Large Scale High Intensity Turbulence on Vane Heat Transfer
Forrest E. Ames
GT 1995; V004T09A021https://doi.org/10.1115/95-GT-021
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Topics: Heat transfer , Turbulence , Pressure , Reynolds number , Cascades (Fluid dynamics) , Combustion chambers , Chords (Trusses) , Energy dissipation , Mach number
Cooling Flow Prediction for Fully Impingement Cooled Gas Turbine Blades
Stefano Consonni
GT 1995; V004T09A022https://doi.org/10.1115/95-GT-022
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Topics: Blades , Cooling , Flow (Dynamics) , Gas turbines , Convection , Coolants , Pressure , Chords (Trusses) , Engines , Film cooling
Computation of Spatially Periodic Turbulent Fluid Flow and Heat Transfer in a Channel With Various Rib Shapes
Tong-Miin Liou, Shih-Hui Chen
GT 1995; V004T09A023https://doi.org/10.1115/95-GT-023
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Topics: Computation , Fluid dynamics , Heat transfer , Shapes , Turbulence , Cross section (Physics) , Flow (Dynamics) , Holographic interferometry , Kinetic energy , Lasers
Simulation of Film-Cooling Aerodynamics With a 2D Navier-Stokes Solver Using Unstructured Meshes
Stefan Irmisch
GT 1995; V004T09A024https://doi.org/10.1115/95-GT-024
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Topics: Aerodynamics , Film cooling , Simulation , Flow (Dynamics) , Coolants , Algorithms , Computer simulation , Finite volume methods , Navier-Stokes equations , Steady state
Prediction of Vane Surface Film Cooling Effectiveness Using Compressible Navier-Stokes Procedure and k-ε Turbulence Model With Wall Function
Yoshitaka Fukuyama, Fumio Otomo, Minoru Sato, Yuichi Kobayashi, Hiroyuki Matsuzaki
GT 1995; V004T09A025https://doi.org/10.1115/95-GT-025
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Topics: Cooling , Thin films , Turbulence , Film cooling , Geometry , Pressure , Turbines , Convection , Reynolds number , Winding (process)
Experimental and Numerical Investigations of the Aerodynamical Effects of Coolant Injection Through the Trailing Edge of a Guide Vane
Dieter E. Bohn, Volker J. Becker, Klaus D. Behnke, Bernhard F. Bonhoff
GT 1995; V004T09A026https://doi.org/10.1115/95-GT-026
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Topics: Coolants , Guide vanes , Flow (Dynamics) , Turbulence , Anisotropy , Cooling , Finite volume methods , Gas turbines , Pressure gradient , Symmetry (Physics)
Flow Characteristics and Aerodynamic Losses of Film-Cooling Jets With Compound Angle Orientations
Sang Woo Lee, Yong Beom Kim, Joon Sik Lee
GT 1995; V004T09A027https://doi.org/10.1115/95-GT-038
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Topics: Film cooling , Flow (Dynamics) , Jets , Flow visualization , Flow measurement , Probes , Vortices
Film Cooling From Spanwise Oriented Holes in Two Staggered Rows
Phillip M. Ligrani, Anthony E. Ramsey
GT 1995; V004T09A028https://doi.org/10.1115/95-GT-039
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Topics: Film cooling , Density , Heat transfer coefficients , Momentum
Measurements of Heat Transfer Coefficients and Friction Factors in Rib-Roughened Channels Simulating Leading-Edge Cavities of a Modern Turbine Blade
M. E. Taslim, T. Li, S. D. Spring
GT 1995; V004T09A029https://doi.org/10.1115/95-GT-040
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Topics: Cavities , Friction , Heat transfer coefficients , Turbine blades , Blades , Flow (Dynamics) , Cooling , Shapes , Airfoils , Design
Heat Transfer Augmentation in a Rectangular Channel With Slit Rib-Turbulators on Two Opposite Walls
Jenn-Jiang Hwang, Tong-Miin Liou
GT 1995; V004T09A030https://doi.org/10.1115/95-GT-041
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Topics: Heat transfer , Friction , Cooling , Design , Flow (Dynamics) , Heat transfer coefficients , Holographic interferometry , Lasers , Reynolds number , Turbine blades
The Effect of Twisted Tape Width on Heat Transfer and Pressure Drop for Fully Developed Laminar Flow
Walid M. Chakroun, Sami F. Al-Fahed
GT 1995; V004T09A031https://doi.org/10.1115/95-GT-042
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Topics: Heat transfer , Laminar flow , Pressure drop , Friction , Reynolds number , Flow (Dynamics) , Geometry , Boundary-value problems , Design , Heat exchangers
Effects of Free Stream Turbulence on the Instantaneous Heat Transfer in a Wall Jet Flow
Savash Yavuzkurt
GT 1995; V004T09A032https://doi.org/10.1115/95-GT-043
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Topics: Heat transfer , Jets , Turbulence , Probes , Flow (Dynamics) , Stress , Wire
Bulk Flow Pulsations and Film Cooling: Flow Structure Just Downstream of the Holes
Phillip M. Ligrani, J. Michael Cuthrell, Ruoming Gong
GT 1995; V004T09A033https://doi.org/10.1115/95-GT-044
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Topics: Film cooling , Flow (Dynamics) , Blades , Pressure , Boundary layers , Engines , Shear (Mechanics) , Shear stress , Shock waves , Stress tensors
Study and Application of Hemispheric Cavities for Surface Heat Transfer Augmentation
A. V. Schukin, A. P. Kozlov, R. S. Agachev
GT 1995; V004T09A034https://doi.org/10.1115/95-GT-059
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Topics: Cavities , Heat transfer , Flow (Dynamics) , Airfoils , Convection , Cooling , Gas turbines , Manufacturing , Pressure , Turbulence
Experimental Study on Convective Heat Transfer of Radial Air Flow in Rotating Multi-Channels
G. J. Hwang, C. R. Kuo, C. Y. Chang
GT 1995; V004T09A035https://doi.org/10.1115/95-GT-060
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Topics: Air flow , Convection , Flow (Dynamics) , Heat transfer , Aluminum alloys , Buoyancy , Ducts , Heat conduction , Reynolds number , Rotation
Heat Transfer Predictions for Two Turbine Nozzle Geometries at High Reynolds and Mach Numbers
R. J. Boyle, R. Jackson
GT 1995; V004T09A036https://doi.org/10.1115/95-GT-104
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Topics: Heat transfer , Mach number , Nozzles , Turbines , Computational fluid dynamics , Pressure , Turbulence , Algebra , Design , Eddies (Fluid dynamics)
Prediction of Unshrouded Rotor Blade Tip Heat Transfer
A. A. Ameri, E. Steinthorsson
GT 1995; V004T09A037https://doi.org/10.1115/95-GT-142
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Topics: Blades , Heat transfer , Rotors , Turbines , Channel flow , Computation , Computers , Engines , Fuels , High pressure (Physics)
A Combined Experimental/Computational Study of Flow in Turbine Blade Cooling Passage: Part II — Numerical Simulations
Diane M. McGrath, David G. N. Tse
GT 1995; V004T09A038https://doi.org/10.1115/95-GT-149
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Topics: Computer simulation , Cooling , Flow (Dynamics) , Turbine blades , Buoyancy , Compressible flow , Coriolis force , Engineering simulation , Fluid density , Gas turbines
Prediction of Film Cooling Effectiveness and Heat Transfer due to Streamwise and Compound Angle Injection on Flat Surfaces
S. Neelakantan, M. E. Crawford
GT 1995; V004T09A039https://doi.org/10.1115/95-GT-151
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Topics: Film cooling , Heat transfer , Momentum , Density , Heat transfer coefficients
Turbulent Transport Measurements in a Heated Boundary Layer: Combined Effects of Free-Stream Turbulence and Removal of Concave Curvature
Michael D. Kestoras, Terrence W. Simon
GT 1995; V004T09A040https://doi.org/10.1115/95-GT-152
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Topics: Boundary layers , Turbulence , Momentum , Flow (Dynamics) , Heat , Test facilities
Indirect Turbulence Measurement in Gas Turbine Stages Using Heat Flux Probe
Luzeng J. Zhang, Boris Glezer
GT 1995; V004T09A041https://doi.org/10.1115/95-GT-153
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Topics: Gas turbines , Heat flux , Probes , Turbulence , Combustion chambers , Blades , Wakes , Airfoils , Cascades (Fluid dynamics) , Engine design
The Effect of Periodic Wake Passing on Film Effectiveness of Discrete Cooling Holes Around the Leading Edge of a Blunt Body
K. Funazaki, M. Yokota, S. Yamawaki
GT 1995; V004T09A042https://doi.org/10.1115/95-GT-183
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Topics: Cooling , Wakes , Turbulence , Density , Temperature , Aircraft engines , Flow (Dynamics) , Generators , Liquid crystals , Thermocouples
Gas Turbine Model Scaling
Mark R. D. Davies, John D. Wallace
GT 1995; V004T09A043https://doi.org/10.1115/95-GT-205
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Topics: Gas turbines , Boundary layers , Heat transfer , Engines , Entropy , Test facilities , Viscosity , Boundary-value problems , Dimensional analysis , Flow (Dynamics)
Adiabatic Effectiveness, Thermal Fields, and Velocity Fields for Film Cooling With Large Angle Injection
Atul Kohli, David G. Bogard
GT 1995; V004T09A044https://doi.org/10.1115/95-GT-219
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Topics: Film cooling , Momentum , Turbulence , Cooling , Density
Full Coverage Effusion Film Cooling With Inclined Holes
G. E. Andrews, I. M. Khalifa, A. A. Asere, F. Bazdidi-Tehrani
GT 1995; V004T09A045https://doi.org/10.1115/95-GT-274
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Topics: Film cooling , Cooling , Flow (Dynamics) , Combustion chambers , Density , Adiabatic cooling , Air flow , Gas turbines , Lasers
Leading Edge Film Cooling Effects on Turbine Blade Heat Transfer
Vijay K. Garg, Raymond E. Gaugler
GT 1995; V004T09A046https://doi.org/10.1115/95-GT-275
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Topics: Film cooling , Heat transfer , Turbine blades , Coolants , Flow (Dynamics) , Heat transfer coefficients , Pressure , Blades , Engines , Suction
A Combined Experimental/Computational Study of Flow in Turbine Blade Cooling Passage: Part I — Experimental Study
D. G. N. Tse, D. B. McGrath
GT 1995; V004T09A047https://doi.org/10.1115/95-GT-355
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Topics: Cooling , Flow (Dynamics) , Turbine blades , Coriolis force , Fluctuations (Physics) , Heat transfer , High pressure (Physics) , Lasers , Pressure , Reynolds number
Endwall Heat Transfer and Aerodynamic Measurements in an Annular Cascade of Nozzle Guide Vanes
M. C. Spencer, G. D. Lock, T. V. Jones, N. W. Harvey
GT 1995; V004T09A048https://doi.org/10.1115/95-GT-356
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Topics: Cascades (Fluid dynamics) , Heat transfer , Nozzle guide vanes , Mach number , Engines , Flow (Dynamics) , Flow visualization , Heat transfer coefficients , High pressure (Physics) , Liquid crystals
The Application of Thin Film Gauges on Flexible Plastic Substrates to the Gas Turbine Situation
S. M. Guo, M. C. Spencer, G. D. Lock, T. V. Jones, N. W. Harvey
GT 1995; V004T09A049https://doi.org/10.1115/95-GT-357
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Topics: Gages , Gas turbines , Thin films , Heat transfer , Aluminum , Metals , Nozzle guide vanes , Temperature , Boundary-value problems , Calibration

Electric Power

Off-Design Performance of Multipressure Heat Recovery Boilers
Nicola Bettagli, Bruno Facchini
GT 1995; V004T10A001https://doi.org/10.1115/95-GT-154
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Topics: Boilers , Design , Heat recovery , Heat recovery steam generators , Combined cycle power stations , Flow (Dynamics) , Heat transfer , Pressure , Simulation , Temperature
Comparative Performance of Gas/Steam Combined Cycle Power Plants
R. Yadav, Lakshman Singh
GT 1995; V004T10A002https://doi.org/10.1115/95-GT-155
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Topics: Combined cycle power stations , Steam , Design
Characteristics Charts for Preliminary Design and Selection of a Gas Turbine Cogeneration Plant
K. Sarabchi, G. T. Polley
GT 1995; V004T10A003https://doi.org/10.1115/95-GT-156
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Topics: Cogeneration plants , Design , Gas turbines , Boilers , Integrated systems
Gas Turbine Performance: New Application and Test Correction Curves
Scott T. Cloyd, Arthur J. Harris, Jr.
GT 1995; V004T10A004https://doi.org/10.1115/95-GT-167
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Topics: Gas turbines , Engines , Fuels , Exhaust systems , Generators , Heating , Methane , Natural gas , Pressure
Thermodynamic Study of Coupled Steam-Gas Turbine Plant With Steam Extraction and Injection
Zheng Qun, Li Shunglong, Yang Yaogen
GT 1995; V004T10A005https://doi.org/10.1115/95-GT-170
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Topics: Steam , Turbines , Gas turbines , Feedwater , Heat , Steam turbines , Water , Boilers , Cycles , Exhaust systems
New 200 MW Class 501G Combustion Turbine
L. Southall, G. McQuiggan
GT 1995; V004T10A006https://doi.org/10.1115/95-GT-215
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Topics: Combustion , Turbines , Combined cycles
Qualifying Combustion Turbines for Inlet Air Cooling Capacity Enhancement
Brian J. Kitchen, Jerry A. Ebeling
GT 1995; V004T10A007https://doi.org/10.1115/95-GT-266
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Topics: Combustion , Cooling , Turbines , Exhaust systems , Flow (Dynamics) , Heat , Pressure , Temperature
The 501D5A Combustion Turbine
Douglas E. Hintz
GT 1995; V004T10A008https://doi.org/10.1115/95-GT-267
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Topics: Combustion , Turbines , Engines , Combustion systems , Compressors , Cycles , Emissions , Flow (Dynamics) , Heat , Rotors
Design, Part Load and Transient Operation of Combined Cycle Plants With Water Flashing
P. J. Dechamps
GT 1995; V004T10A009https://doi.org/10.1115/95-GT-268
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Topics: Combined cycle power stations , Design , Flashing , Stress , Transients (Dynamics) , Water , Combined cycles , Pressure , Heat recovery steam generators , Flash tanks
A Numerical Method for Power Plant Simulations
Carlo Carcasci, Bruno Facchini
GT 1995; V004T10A010https://doi.org/10.1115/95-GT-269
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Topics: Engineering simulation , Numerical analysis , Power stations , Simulation , Cycles , Algebra , Combustion chambers , Compressors , Energy generation , Gas turbines
Development of Advanced Thermal Barrier Coatings for Severe Environments
Warren A. Nelson, Robert M. Orenstein, Paul S. DiMascio, Curtis A. Johnson
GT 1995; V004T10A011https://doi.org/10.1115/95-GT-270
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Topics: Thermal barrier coatings , Gas turbines , Coating processes , Coatings , Design , Engineers , Superalloys , Combustion chambers , Delamination , Energy generation
Gas Turbine Power Generation Evolutionary Advances for the Future
James C. Corman
GT 1995; V004T10A012https://doi.org/10.1115/95-GT-271
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Topics: Energy generation , Gas turbines , Energy / power systems , Emissions , Fuels , Biomass , Coal , Combined cycles , Combustion systems , Fuel gasification
Energy Industry Changes: The Role of Advanced Combustion Turbine Technology
George Touchton, Arthur Cohn
GT 1995; V004T10A013https://doi.org/10.1115/95-GT-280
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Topics: Combustion , Energy industry , Turbines , Compressed air , Distributed power generation , Durability , Electricity (Physics) , Power stations , Reliability , Storage
Ensuring Adequate Coolant Purity for Advanced Gas Turbines
D. E. Woodmansee, A. K. Tolpadi, T. H. Hwang, A. D. Maddaus
GT 1995; V004T10A014https://doi.org/10.1115/95-GT-281
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Topics: Coolants , Gas turbines , Particulate matter , Computational fluid dynamics , Flow (Dynamics) , Inspection , Sedimentation , Turbulence
Novel Compressed Air Energy Storage (CAES) Systems Applying Air Expanders
Isaac Shnaid, Dan Weiner, Shimshon Brokman
GT 1995; V004T10A015https://doi.org/10.1115/95-GT-282
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Topics: Compressed air , Energy storage , Gas turbines , Heat , Reservoirs , Temperature , Air compressors , Economic analysis , Electricity (Physics) , Exhaust systems
The KEMA Gas Turbines Target Project: Overview and Status
R. A. Rooth
GT 1995; V004T10A016https://doi.org/10.1115/95-GT-283
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Topics: Gas turbines , Power stations , Rotors , Blades , Combustion chambers , Compressors , Creep , Emissions , Fatigue , Filtration
Gas Turbine Inlet Air Cooling and the Effect on a Westinghouse 501D5 CT
Chuck Kohlenberger
GT 1995; V004T10A017https://doi.org/10.1115/95-GT-284
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Topics: Cooling , Gas turbines , Temperature , Heat , Exhaust systems , Flow (Dynamics) , Heat recovery steam generators , Engineering standards , Systems engineers
Trial Operation Results of the Fully-Fired Combined Cycle Generating Plants in Chita
T. Mita, N. Ando, A. Kawauchi, K. Morikawa
GT 1995; V004T10A018https://doi.org/10.1115/95-GT-333
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Topics: Air conditioning , Boilers , Combined cycle power stations , Combined cycles , Combustion , Construction , Electricity (Physics) , Exhaust systems , Gas turbines , Gases
Comparative Evaluation of the Effect of Turbine Configuration on the Performance of Heavy-Duty Gas Turbines
Tong Seop Kim, Sung Tack Ro
GT 1995; V004T10A019https://doi.org/10.1115/95-GT-334
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Topics: Gas turbines , Turbines , Degrees of freedom , Engines , Gas flow , High temperature , Systems analysis
Final Report of the Key Technology Development Program for a Next Generation High Temperature Gas Turbine
M. Sato, Y. Kobayashi, H. Matsuzaki, S. Aoki, Y. Tsukuda, E. Akita
GT 1995; V004T10A020https://doi.org/10.1115/95-GT-407
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Topics: Gas turbines , High temperature , Technology development , Blades , Combined cycle power stations , Combustion systems , Cooling , Electricity (Physics) , Heat resistant materials , Nitrogen oxides
The Basic Performance of Combined Cycles and Their Optimum Gas Turbine Pressure Ratios
Ruixian Cai
GT 1995; V004T10A021https://doi.org/10.1115/95-GT-416
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Topics: Combined cycles , Gas turbines , Pressure , Cycles , Fluidized beds , Heat recovery , Steam turbines
Rotational Effects on Heat Transfer at Advanced Engine Conditions
F. W. Staub, A. D. Maddaus, P. K. Tekriwal
GT 1995; V004T10A022https://doi.org/10.1115/95-GT-417
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Topics: Engines , Heat transfer , Computational fluid dynamics , Coolants , Databases , Rotation , Accounting , Cooling , Design , Fluids
Performance Analysis With Different Means of Cooling in a Combined Cycle
Onkar Singh, R. Yadav
GT 1995; V004T10A023https://doi.org/10.1115/95-GT-451
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Topics: Combined cycles , Cooling , Temperature , Cycles , Gas turbines , Pressure , Steam , Turbines , Blades , Compressors
The “3A-Series” Gas Turbines With HBR® Combustors
B. Becker, T. Schulenberg, H. Termuehlen
GT 1995; V004T10A024https://doi.org/10.1115/95-GT-458
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Topics: Combustion chambers , Gas turbines , Machinery , Design , Stress

Industrial and Cogeneration

Split Stream Boilers for High Temperature/High Pressure Topping Steam Turbine Combined Cycles
Ivan G. Rice
GT 1995; V004T11A001https://doi.org/10.1115/95-GT-029
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Topics: Boilers , Combined cycles , High pressure (Physics) , High temperature , Steam turbines , Exhaust systems , Gas turbines , Firing , Flow (Dynamics) , Gaseous fuels
API Standard 616: Scopes for Different Interpretations
G. K. Roy
GT 1995; V004T11A002https://doi.org/10.1115/95-GT-057
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Topics: American Petroleum Institute , Gas turbines , Turbines , Bearings , Bridges (Structures) , Firing , Inspection , Machinery , Rotors , Temperature
Reheat and Regenerative Gas Turbines for Feed Water Repowering of Steam Power Plant
G. Negri di Montenegro, M. Gambini, A. Peretto
GT 1995; V004T11A003https://doi.org/10.1115/95-GT-058
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Topics: Feedwater , Gas turbines , Thermal power stations , Cycles , Brayton cycle , Flow (Dynamics) , Steam , Steam turbines , Computer simulation , Condensers (steam plant)
Synchronous Condensing Using the Generator of Peak Load Plant
Morgan L. Hendry, John C. McGough
GT 1995; V004T11A004https://doi.org/10.1115/95-GT-273
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Topics: Generators , Peak load , Turbines , Condensers (steam plant) , Electronic systems , Gas turbines , Turbogenerators
Benefits of Compressor Inlet Air Cooling for Gas Turbine Cogeneration Plants
Maurizio De Lucia, Carlo Lanfranchi, Vanni Boggio
GT 1995; V004T11A005https://doi.org/10.1115/95-GT-311
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Topics: Cogeneration plants , Compressors , Cooling , Gas turbines , Absorption , Evaporative cooling , Stress , Climate , Cooling systems , Modeling
A Code for Thermal Analysis of STIG Turbines
Carlo M. Bartolini, Danilo Salvi, Marcello Pennacchioli
GT 1995; V004T11A006https://doi.org/10.1115/95-GT-316
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Topics: Thermal analysis , Turbines , Compressors , Design , Temperature , Blades , Computers , Convection , Cooling , Film cooling
The Effect of a Constant Volume Recuperator on Brayton Cycle Efficiency and Equipment Cost
Solomon S. Fineblum
GT 1995; V004T11A007https://doi.org/10.1115/95-GT-317
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Topics: Brayton cycle , Turbines , Pressure , Combustion chambers , Density , Combustion , Design , Evaporation , Flow (Dynamics) , Fuels
Technical/Economic Analysis of an Integrated System for Sludge Dehydration and Electric Power Generation Applying Gas Turbine Cycles
Umberto Ghezzi, Silvano Pasini
GT 1995; V004T11A008https://doi.org/10.1115/95-GT-318
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Topics: Cycles , Diffusion (Physics) , Economic analysis , Electric power generation , Gas turbines , Integrated systems , Water treatment
Feasibility of Utilizing a Bio-Mass Derived Fuel for Industrial Gas Turbine Applications
R. G. Andrews, P. C. Patnaik, J. W. Michniewicz, L. J. Jankowski, V. I. Romanov, V. V. Lupandin, A. V. Ravich
GT 1995; V004T11A009https://doi.org/10.1115/95-GT-319
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Topics: Biomass , Fuels , Industrial gases , Turbines , Engines , Gas turbines , Biofuel , Combustion , Combustion systems , Density
Design Development and Implementation of a Compact 5000 SHP Gas Turbine Package for an Electromagnetic Gun System
Feroze J. Meher-Homji, Gustavo Herrera, Ben Rech
GT 1995; V004T11A010https://doi.org/10.1115/95-GT-320
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Topics: Design , Gas turbines , Turbines , Aluminum , Control systems , Cooling , Dimensions , Displacement , Fans , Fire
A High Efficiency Recuperated Cycle, Optimized for Reliable, Low Cost, Industrial Gas Turbine Engines
Thomas L. Ragland
GT 1995; V004T11A011https://doi.org/10.1115/95-GT-321
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Topics: Cycles , Gas turbines , Industrial gases , Engines , Firing , Temperature , Pressure , Design , Durability , High pressure (Physics)
LM-2500 First Stage Filtration Upgrades
Steven R. Johnson, David A. Thomas
GT 1995; V004T11A012https://doi.org/10.1115/95-GT-322
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Topics: Filtration , Engines , Air treatment systems , Combined heat and power , Gas turbines , Gypsum , Combined cycles , Evaporative cooling , Failure , Filters
Application of an Industrial Gas Turbine for Cogeneration and Process Services
Gary A. Ehlers
GT 1995; V004T11A013https://doi.org/10.1115/95-GT-374
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Topics: Combined heat and power , Industrial gases , Turbines , Steam , Fuels , Gas turbines , Heat , Mechanical drives , Design , Furnaces
Blading Vibration and Failures in Gas Turbines: Part A — Blading Dynamics and the Operating Environment
Cyrus B. Meher-Homji
GT 1995; V004T11A014https://doi.org/10.1115/95-GT-418
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Topics: Dynamics (Mechanics) , Failure , Gas turbines , Vibration , Blades , Design , Creep , Embrittlement , Erosion , Failure mechanisms
Blading Vibration and Failures in Gas Turbines: Part B — Compressor and Turbine Airfoil Distress
Cyrus B. Meher-Homji
GT 1995; V004T11A015https://doi.org/10.1115/95-GT-419
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Topics: Airfoils , Compressors , Failure , Gas turbines , Turbines , Vibration , Blades , Accounting , Failure mechanisms , Pressing
Blading Vibration and Failures in Gas Turbines: Part C — Detection and Troubleshooting
Cyrus B. Meher-Homji
GT 1995; V004T11A016https://doi.org/10.1115/95-GT-420
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Topics: Failure , Gas turbines , Vibration , Blades , Failure mechanisms , Sensors
Blading Vibration and Failures in Gas Turbines: Part D — Case Studies
Cyrus B. Meher-Homji
GT 1995; V004T11A017https://doi.org/10.1115/95-GT-421
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Topics: Failure , Gas turbines , Vibration , Design , Blades , Failure mechanisms , Maintenance , Metallurgy
Advantages of Non-Metallics in Satisfying Criteria for Combined Cycle Expansion Joints
Thomas R. Brown
GT 1995; V004T11A018https://doi.org/10.1115/95-GT-422
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Topics: Combined cycles , Expansion joints , Reliability , Combined cycle gas turbines , Cycles , Design , Gas turbines , Stress , Surges
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