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Proceedings Papers

Proceedings Volume Cover
ASME 1982 International Gas Turbine Conference and Exhibit
April 18–22, 1982
London, England
Conference Sponsors:
  • International Gas Turbine Institute
ISBN:
978-0-7918-7958-0
Volume 3: Coal, Biomass and Alternative Fuels; Combustion and Fuels; Oil and Gas Applications; Cycle Innovations

Coal, Biomass and Alternative Fuels

Coalification, Coal Structure and its Impact on Associated Engineering Problems
S. Raj, R. Raj
GT 1982; V003T05A001https://doi.org/10.1115/82-GT-166
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Topics: Coal
Ruhrchemie/Ruhrkohle’s Technical Version of the Texaco Coal Gasifier as Part of a Combined Cycle Plant
B. Cornils, J. Hibbel, P. Ruprecht, R. Dürrfeld, J. Langhoff
GT 1982; V003T05A002https://doi.org/10.1115/82-GT-167
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Topics: Coal , Combined cycle power stations , Fuel gasification , High pressure (Physics) , Carbon dioxide , Energy generation , Methane , Slurries , Steady state , Steam
Utilization of Coal-Derived Fuel in Advanced Power Generation Systems: An Evaluation
R. D. Lessard, F. L. Robson, W. A. Blecher, A. W. Carlson
GT 1982; V003T05A003https://doi.org/10.1115/82-GT-168
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Topics: Coal , Energy / power systems , Fuels , Gaseous fuels , Fuel gasification , Combined cycle gas turbines , Cycles , Electricity (Physics) , Magnetohydrodynamics , Molten carbonate fuel cells
A Fluidized Bed Combustion Heat Transfer Model Using Finite Elements
P. E. Jenkins, T. W. Richardson
GT 1982; V003T05A004https://doi.org/10.1115/82-GT-169
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Topics: Finite element analysis , Fluidized bed combustion , Heat transfer , Combustion chambers , Finite element methods , Fluidized beds , Heat conduction , Poisson equation , Temperature
Measured Particle Rebound Characteristics Useful for Erosion Prediction
T. Wakeman, W. Tabakoff
GT 1982; V003T05A005https://doi.org/10.1115/82-GT-170
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Topics: Erosion , Particulate matter , Flow (Dynamics) , High temperature , High temperature materials , Temperature , Testing , Turbomachinery
Erosion Resistance and Efficiency of Energy Exchangers
W. J. Thayer, III, R. T. Taussig
GT 1982; V003T05A006https://doi.org/10.1115/82-GT-191
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Topics: Combustion chambers , Energy consumption , Erosion , Fluidized beds , Gas turbines , Machinery , Particulate matter , Power stations , Waves , Wear
An Assessment of Erosion in PFBC Power Plant Turbines
R. A. Wenglarz, S. J. Schneider
GT 1982; V003T05A007https://doi.org/10.1115/82-GT-194
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Topics: Erosion , Power stations , Turbines , Blades , Particulate matter , Boilers , Cascades (Fluid dynamics) , Combustion , Combustion chambers , Damage
Dust Removal Concepts for Pressurized Fluidized Bed Systems
R. R. Boericke, W. E. Moore
GT 1982; V003T05A008https://doi.org/10.1115/82-GT-210
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Topics: Dust removal , Fluidized beds , Filters , Acoustics , Ceramics , Combined cycles , Energy generation , High temperature
A General Performance Model for the Open-Loop Water-Cooled Gas Turbine
M. A. El-Masri, Y. Kobayashi, J. F. Louis
GT 1982; V003T05A009https://doi.org/10.1115/82-GT-212
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Topics: Gas turbines , Water , Cycles , Turbines , Critical heat flux , Design , Heat transfer , Pressure , Steam , Temperature
High-Temperature Turbine Technology Readiness
M. W. Horner, A. Caruvana
GT 1982; V003T05A010https://doi.org/10.1115/82-GT-213
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Topics: High temperature , Turbines , Gas turbines , Temperature , Coal , Combined cycle power stations , Combustion , Combustion chambers , Fuel systems , Gaseous fuels
Steam Injection in Medium-BTU Gas-Fueled, High Temperature Combined Cycle Power Plants
J. P. Lewis, C. Kinney
GT 1982; V003T05A011https://doi.org/10.1115/82-GT-274
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Topics: Combined cycle power stations , High temperature , Steam , Fuels , Water , Combustion , Combustion chambers , Cooling towers , Gas turbines , Natural gas

Combustion and Fuels

Smoke Reduction in FJR-710 Turbofan Engines by an Airblast Combustor
K. Eguchi, A. Ishii, K. Kitahara, K. Suzuki, T. Tagashira
GT 1982; V003T06A001https://doi.org/10.1115/82-GT-24
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Topics: Combustion chambers , Engines , Smoke , Turbofans , Emissions , Air flow , Aircraft engines , Durability , Flames , Fuels
Penetration and Break-Up Studies of Discrete Liquid Jets in Cross Flowing Airstreams
G. A. Hussein, A. K. Jasuja, R. S. Fletcher
GT 1982; V003T06A002https://doi.org/10.1115/82-GT-25
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Topics: Atmospheric pressure , Design , Jets , Lasers , Light scattering , Photography , Temperature
Evaluation of Shale Oil as a Utility Gas Turbine Fuel
R. A. Sederquist, J. Frese, J. McVey, C. L. Knauf, H. Schreiber
GT 1982; V003T06A003https://doi.org/10.1115/82-GT-26
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Topics: Fuels , Gas turbines , Shales , Engines , Nitrogen oxides , Combustion chambers , Electricity (Physics) , Emissions , Hot water , Nitrogen
Thermal Decomposition of Aviation Fuel
A. E. Peat
GT 1982; V003T06A004https://doi.org/10.1115/82-GT-27
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Topics: Aviation , Fuels , Engines , Metals , Temperature , Carbon , Flow (Dynamics) , Fuel injectors , Fuel systems , Gas turbines
Alternative Fuels: Burner Concepts and Emission Characteristics of a Silo Combustor
W. Krockow, H. Schabbehard
GT 1982; V003T06A005https://doi.org/10.1115/82-GT-29
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Topics: Combustion chambers , Emissions , Fuels , Coal , Combustion , Nitrogen oxides , Design , Gases , Heat , Methane
A Model for Computation of Net Local Soot Generation
S. S. Koussa
GT 1982; V003T06A006https://doi.org/10.1115/82-GT-30
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Topics: Computation , Soot , Combustion chambers , Turbulence
Combustor Liner Temperature in the Gas Turbine Using Heavy Fuels
Y. S. H. Najjar
GT 1982; V003T06A007https://doi.org/10.1115/82-GT-31
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Topics: Combustion chambers , Fuels , Gas turbines , Temperature , Aviation , Fuel oils , Radiation (Physics) , Smoke , Temperature measurement
Plain-Jet Airblast Atomization of Alternative Liquid Petroleum Fuels Under High Ambient Air Pressure Conditions
A. K. Jasuja
GT 1982; V003T06A008https://doi.org/10.1115/82-GT-32
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Topics: Fuels , Petroleum , Pressure , Fuel oils , Gas turbines , Lasers , Light scattering , Sprays , Viscosity
Fuel Microemulsions for Jet Engine Smoke Reduction
D. W. Naegeli, C. A. Moses
GT 1982; V003T06A009https://doi.org/10.1115/82-GT-33
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Topics: Fuels , Jet engines , Microemulsions , Smoke , Ethanol , Emissions , Radiation (Physics) , Surfactants , Water , Combustion
Acoustic Control of Dilution-Air Mixing in a Gas Turbine Combustor
P. J. Vermeulen, J. Odgers, V. Ramesh
GT 1982; V003T06A010https://doi.org/10.1115/82-GT-35
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Topics: Acoustics , Combustion chambers , Gas turbines , Design , Flow (Dynamics) , Stress , Temperature distribution , Temperature profiles
The Low Temperature Properties of Aviation Fuels
G. Brunton, R. R. Willock, M. A. Voisey
GT 1982; V003T06A012https://doi.org/10.1115/82-GT-48
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Topics: Aviation , Fuels , Low temperature , Aircraft , Flight , Flow (Dynamics) , Phase transition temperature , Safety , Turbines
Deposit Formation in Hydrocarbon Fuels
R. Roback, E. J. Szetela, L. J. Spadaccini
GT 1982; V003T06A013https://doi.org/10.1115/82-GT-49
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Topics: Fuels , Carbon , Wall temperature , Copper , High pressure (Physics) , Nickel , Nickel plating , Plating , Thermal stability
Experience With Large Gas Turbine Combustion Chambers
A. Lienert, O. Schmoch
GT 1982; V003T06A014https://doi.org/10.1115/82-GT-57
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Topics: Combustion chambers , Gas turbines , Maintenance , Turbines , Combustion , Failure , Inspection , Manholes , Peak load , Stress
Catalytic Burners for Stationary Combustion Turbines: A Preliminary Design Analysis
L. C. Angello, P. W. Pillsbury, J. L. Toof
GT 1982; V003T06A015https://doi.org/10.1115/82-GT-58
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Topics: Combustion , Design , Turbines , Combustion chambers , Gas turbines , Combustion technologies , Emissions , Fuels , Nitrogen , Nitrogen oxides
Experimental Study of External Fuel Vaporization
E. J. Szetela, J. A. TeVelde
GT 1982; V003T06A016https://doi.org/10.1115/82-GT-59
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Topics: Fuels , Heat exchangers , Temperature , Aircraft , Diesel , Engines , Flow (Dynamics) , Gas chromatography , Gas turbines , Heat transfer coefficients
An Examination of the Mechanism of Flame Stabilization by the Interaction of a Rich Two-Phase Combustible Mixture Jet With a Counter Air Stream
I. Wierzba
GT 1982; V003T06A017https://doi.org/10.1115/82-GT-60
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Topics: Flames , Flow (Dynamics) , Fuels , Vapors
Atomization Quality of Twin Fluid Atomizers for Gas Turbines
M. M. Elkotb, M. A. Elsayed Mahdy, M. E. Montaser
GT 1982; V003T06A018https://doi.org/10.1115/82-GT-61
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Topics: Fluids , Gas turbines , Fuels , Pressure , Flow (Dynamics) , Drops , Nozzles , Geometry , Heat , Needles
Carbon Formation by the Pyrolysis of Gas Turbine Fuels in Preflame Regions of Gas Turbine Combustors
C. D. Hurley
GT 1982; V003T06A019https://doi.org/10.1115/82-GT-84
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Topics: Carbon , Combustion chambers , Fuels , Gas turbines , Pyrolysis , Diesel , Temperature , Aviation
Fluid Pulsed Thermocouple Rake System for Automated High Gas Temperature Measurements
F. K. Gabriel, E. A. DeZubay, R. W. Mitchell
GT 1982; V003T06A020https://doi.org/10.1115/82-GT-107
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Topics: Fluids , Temperature measurement , Thermocouples , Temperature , Combustion , Data acquisition , Design , Errors , Microelectronic devices , Reliability
Scale Combustor Tests With Simulated Lower Heating Value Gas
A. McWhirter, A. E. Dezubay
GT 1982; V003T06A021https://doi.org/10.1115/82-GT-108
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Topics: Combustion chambers , Heating , Carbon dioxide , Design , Fuels , Gaseous fuels , Nitrogen oxides , Regression analysis , Stoichiometry
Chemical and Physical Properties of Soot as a Function of Fuel Molecular Structure in a Swirl-Stabilized Combustor
R. M. Himes, R. L. Hack, G. S. Samuelsen
GT 1982; V003T06A022https://doi.org/10.1115/82-GT-109
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Topics: Combustion chambers , Fuels , Soot , Smoke , ASTM International , Chemical properties , Combustion systems , Density , Molecular weight , Particulate matter
The Potential Impact of Future Fuels on Small Gas Turbine Engines
J. A. Saintsbury, P. Sampath
GT 1982; V003T06A023https://doi.org/10.1115/82-GT-133
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Topics: Fuels , Gas turbines , Aviation , Engines , Aircraft , Combustion
Particulate and Sulfur Oxides Emissions From a 60-MW Heavy Duty Gas Turbine Burning No. 2 Distillate Fuel: Methods Development and Test Results
G. L. Touchton, III, M. B. Hilt
GT 1982; V003T06A024https://doi.org/10.1115/82-GT-136
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Topics: Combustion , Emissions , Fuels , Gas turbines , Particulate matter , Sulfur
An Empirically-Based Simulation Model for Heavy-Duty Gas Turbine Engines Using Treated Residual Fuel
J. C. Blanton, W. F. O’Brien, Jr.
GT 1982; V003T06A025https://doi.org/10.1115/82-GT-139
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Topics: Fuels , Gas turbines , Simulation models , Engines , Bearings , Turbines , Water , Combustion , Cooling , Engineering simulation
HC and CO Emission Abatement via Selective Fuel Injection
D. W. Bahr
GT 1982; V003T06A026https://doi.org/10.1115/82-GT-178
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Topics: Emissions , Fuels , Engines , Combustion chambers , Nozzles , Annulus , Aircraft , Carbon , Turbofans
Application of Heavy Fuel Test Results to Gas Turbine Operation
R. S. Rose, A. Caruvana, A. Cohn, H. Von Doering
GT 1982; V003T06A027https://doi.org/10.1115/82-GT-193
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Topics: Fuels , Gas turbines , Water , Nozzles , Temperature , Coke , Cooling , Drops , Economics , Electricity (Physics)
Fuel Tolerance of Staged Combustors
T. J. Rosfjord, R. A. Sederquist, L. C. Angello
GT 1982; V003T06A028https://doi.org/10.1115/82-GT-195
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Topics: Combustion chambers , Fuels , Synthetic fuels , Emissions , Combustion systems , Durability , Electricity (Physics) , Gas turbines , Heating , Hydrogen
Combustion of Medium Heating Value Coal Gas at Turbine Operating Conditions
J. A. Schwab, D. C. Cicero, R. S. Basel
GT 1982; V003T06A029https://doi.org/10.1115/82-GT-197
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Topics: Coal , Combustion , Heating , Turbines , Fuels , Combustion chambers , Emissions , Fluidized beds , Fuel gasification , Gaseous fuels
Combustor Flame Radiation and Wall Temperatures for #2 Distillate and a Coal Derived Liquid Fuel
R. J. Kuznar, E. W. Tobery, A. Cohn
GT 1982; V003T06A030https://doi.org/10.1115/82-GT-208
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Topics: Coal , Combustion chambers , Flames , Fuels , Radiation (Physics) , Wall temperature , Temperature , Combustion , Heat flux , Film cooling
Effect of Using Emulsions of High Nitrogen Containing Fuels and Water in a Gas Turbine Combustor on NOx and Other Emissions
P. P. Singh, P. R. Mulik, A. Cohn
GT 1982; V003T06A031https://doi.org/10.1115/82-GT-224
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Topics: Combustion chambers , Emissions , Emulsions , Fuels , Gas turbines , Nitrogen , Nitrogen oxides , Water , Underground injection , Carbon
A Procedure for Evaluating Fuel Composition Effects on Combustor Life
H. L. Foltz, M. J. Kenworthy
GT 1982; V003T06A032https://doi.org/10.1115/82-GT-296
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Topics: Combustion chambers , Fuels , Temperature , Coolants , Fracture (Materials) , Materials properties , Metals , Service life (Equipment) , Stress , Stress concentration

Oil and Gas Applications

Kawasaki Gas Turbine Engines for Generator Sets
Y. Otsuki, Y. Nishihara, E. Ito, A. Hoshino, I. Inobe
GT 1982; V003T07A001https://doi.org/10.1115/82-GT-6
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Topics: Gas turbines , Generators , Industrial gases , Design , Engines , Turbines
Development of 20,000 to 50,000 HP Aircraft-Derivative Gas Turbines
K. Takeo, Y. Shimura
GT 1982; V003T07A002https://doi.org/10.1115/82-GT-23
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Topics: Aircraft , Gas turbines , Stress , Blades , Engines , Turbines , Reliability , Resonance , Rotor assembly , Strain gages
The Use of Performance-Monitoring to Prevent Compressor and Turbine Blade Failures
R. E. Dundas
GT 1982; V003T07A003https://doi.org/10.1115/82-GT-66
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Topics: Compressors , Failure , Turbine blades , Fatigue , Flutter (Aerodynamics) , Resonance , Vibration , Axial flow , Blades , Gas turbines
Factory Testing Gas Turbines and Driven Equipment for Prudhoe Bay, Alaska (EOA)
L. L. Broadbent
GT 1982; V003T07A004https://doi.org/10.1115/82-GT-119
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Topics: Gas turbines , Testing , Delays , Maintenance , Trains
Accuracy Expectations for Gas Turbine and Centrifugal Compressor Performance Testing
T. C. Heard, E. J. Hipp
GT 1982; V003T07A005https://doi.org/10.1115/82-GT-128
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Topics: Compressors , Gas turbines , Testing performance , Errors , Engineers , Uncertainty , Accuracy and precision , Equipment performance , Fuel consumption , Instrumentation
Performance Testing of Gas Turbine Compressor Sets
A. Cleveland
GT 1982; V003T07A006https://doi.org/10.1115/82-GT-199
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Topics: Compressors , Gas turbines , Testing performance , Testing
Low Heating Value Fuel Burning Capabilities of General Electric Industrial Gas Turbines
R. A. Battista, R. P. Pandalai, M. B. Hilt
GT 1982; V003T07A007https://doi.org/10.1115/82-GT-255
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Topics: Combustion , Fuels , Heating , Industrial gases , Turbines , Gas turbines , Aircraft , Combustion systems , Energy generation , Temperature effects
The Status and Prospects of the Industrial and Marine Gas Turbine With Particular Reference to the RB.211
B. H. Slatter
GT 1982; V003T07A008https://doi.org/10.1115/82-GT-279
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Topics: Marine gas turbines , Cycles , Diesel engines , Engines
Operating Experience With Five Sulzer Gas Turbine-Compressor Modules in an Off-Shore Gas Lift Application
A. C. Brunner, A. Maurer
GT 1982; V003T07A009https://doi.org/10.1115/82-GT-282
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Topics: Compressors , Ocean engineering , Turbines , Inspection , Maintenance , Reliability
Oil Field Experience With Gas Turbine-Driven Compressor Stations
H. Saadawi
GT 1982; V003T07A010https://doi.org/10.1115/82-GT-300
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Topics: Compressors , Oil fields , Turbines , Compression , Design , Engineering disciplines , Errors , Teams
Sliding Pressure Operation in Combined Cycles
M. P. Polsky
GT 1982; V003T07A011https://doi.org/10.1115/82-GT-308
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Topics: Combined cycles , Pressure , Stress , Gas turbines , Boilers , Power stations , Pressure control , Steam turbines
Centrifugal Compressor Testing Experience and Practice
R. H. Meier, C. S. Rhea
GT 1982; V003T07A012https://doi.org/10.1115/82-GT-320
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Topics: Compressors , Testing , Testing performance , Instrumentation , Natural gas

Cycle Innovations

A Study of a High Temperature Nuclear Power Plant Incorporating a Non-Integrated Indirect Cycle Gas Turbine
G. Sarlos, W. Helbling, E. Zollinger, N. Gregory, H. Luchsinger
GT 1982; V003T08A001https://doi.org/10.1115/82-GT-39
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Topics: Cycles , Gas turbines , High temperature , Nuclear power stations , Design , Plant design
Cryogenic Turbine Testing
R. J. Iannuzzelli, R. E. Filippi
GT 1982; V003T08A002https://doi.org/10.1115/82-GT-113
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Topics: Data acquisition , Engineers , Instrumentation , Machine testing , Testing , Turbines , Turbomachinery
Status Report: Advanced Heat Exchanger Technology for a CCGT Power Generation System
D. E. Wright, L. L. Tignac
GT 1982; V003T08A003https://doi.org/10.1115/82-GT-164
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Topics: Energy / power systems , Heat exchangers , Coal , Fluidized beds , Ceramics , Combined heat and power , Combustion systems , Design , Energy generation , High temperature
Design of a 6- by 6-Foot Coal-Fired Heater for a CCGT Air Heater
L. H. Russell, J. Campbell, Jr.
GT 1982; V003T08A004https://doi.org/10.1115/82-GT-171
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Topics: Coal , Design , Fluidized beds , Atmospheric pressure , Closed-cycle gas turbines , Combined heat and power , Combustion , Dimensions , Fluids , Heat
Indirect Pulverized-Coal Fired Air Heaters for Gas Turbine Service
D. Anson, H. R. Hazard, L. J. Flanigan
GT 1982; V003T08A005https://doi.org/10.1115/82-GT-172
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Topics: Coal , Gas turbines , Design , Flames , Flow (Dynamics) , Flue gases , Furnaces , Temperature , Metals , Radiation (Physics)
Feasibility of Modifying Large Gas Turbines for Integration With External Heat Sources
S. C. Kuo, T. L. O. Horton, E. R. Fisher, J. E. Bigger
GT 1982; V003T08A006https://doi.org/10.1115/82-GT-179
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Topics: Gas turbines , Heat , Cycles , Solar thermal power , Turbomachinery , Combustion chambers , Conceptual design , Electric power generation , Energy resources , Solar energy
Comparative Performance Study of Closed Cycle Gas Turbine Utilizing Cryogenic Cold
W. H. Lee
GT 1982; V003T08A007https://doi.org/10.1115/82-GT-180
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Topics: Closed-cycle gas turbines , Cycles , Temperature , Liquefied natural gas , Low temperature , Evaporation , Heat exchangers , Heat sinks , Thermal efficiency , Thermodynamic power cycles
Split-Flow Nuclear Gas Turbine Cycle Using Dissociating N2O4
K. Kesavan, J. F. Osterle
GT 1982; V003T08A008https://doi.org/10.1115/82-GT-181
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Topics: Cycles , Flow (Dynamics) , Gas turbines , Condensation , Gas compressors , Nitrogen , Pressure , Pumps , Temperature , Turbines
Fired Heater Versus CCGT/Cogeneration Cycle Parameters
J. Campbell, Jr., J. C. Lee
GT 1982; V003T08A009https://doi.org/10.1115/82-GT-187
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Topics: Combined heat and power , Cycles , Coal , Heat , Closed-cycle gas turbines , Combustion , Fluid pressure , Fluids , Gas turbines , Heat engines
Performance Characteristics of Indirect-Fired Gas Turbine/Cogeneration Cycles
J. C. Lee
GT 1982; V003T08A010https://doi.org/10.1115/82-GT-196
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Topics: Combined heat and power , Cycles , Gas turbines , Performance characterization , Design , Closed-cycle gas turbines , Cogeneration systems , Heat , Pressure , Steam turbines
The Gas Turbine Heat Exchanger in the Fluidized Bed Combustor
C. F. Holt, A. A. Boiarski, H. E. Carlton
GT 1982; V003T08A011https://doi.org/10.1115/82-GT-225
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Topics: Combustion chambers , Fluidized beds , Gas turbines , Heat exchangers , Coal , Oxygen , Pressure , Design , Closed-cycle gas turbines , Combined heat and power
Materials Selection for Metallic Heat Exchangers in Advanced Coal-Fired Heaters
I. G. Wright, A. J. Minchener
GT 1982; V003T08A012https://doi.org/10.1115/82-GT-226
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Topics: Coal , Heat exchangers , Alloys , Combustion chambers , Corrosion , Fluidized beds , Fluids , Nickel , Cladding systems (Building) , Closed-cycle gas turbines
The Nuclear Gas Turbine: A Perspective on a Long-Term Advanced Technology HTGR Plant Option
C. F. McDonald, C. O. Peinado
GT 1982; V003T08A013https://doi.org/10.1115/82-GT-289
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Topics: Gas turbines , Very high temperature reactors , Cycles , Design , Steam , Brayton cycle , Combined cycles , Combined heat and power , Economics , Innovation
Optimum Cycle Parameters of Coal Fired Closed Cycle Gas Turbine in Regenerative and Combined Cycle Configurations
J. S. Rao
GT 1982; V003T08A014https://doi.org/10.1115/82-GT-290
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Topics: Closed-cycle gas turbines , Coal , Combined cycles , Cycles , Compressors , Gases , Helium , Pressure , Carbon dioxide , Performance evaluation
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