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Proceedings Papers
Volume 2: Aircraft Engine; Marine; Microturbines and Small Turbomachinery
Aircraft Engine
The F109-GA-100 Engine Designed Specifically for Trainer Use
GT 1990; V002T02A007https://doi.org/10.1115/90-GT-167
Topics:
Engines
,
Durability
,
Air Force
,
Cycles
,
Design
,
Fuel efficiency
,
Fuels
,
Life cycle costing
,
Maintenance
,
Power stations
An Analytical Approach to Reliability, Failure Forecasting and Product Quality
GT 1990; V002T02A011https://doi.org/10.1115/90-GT-190
Topics:
Failure
,
Product quality
,
Reliability
,
Computer software
,
Cycles
,
Design
,
Engineers
,
Errors
,
Gas turbines
,
Hardening (Curing)
A Small Gas Turbine for Drone Aircraft: Design Philosophy
GT 1990; V002T02A013https://doi.org/10.1115/90-GT-196
Topics:
Aircraft
,
Design
,
Gas turbines
,
Unmanned aerial vehicles
,
Turbojets
,
Thrust
,
Aerospace industry
,
Engines
,
Weight (Mass)
Garrett’s Turboshaft Engines and Technologies for the 1990s
GT 1990; V002T02A015https://doi.org/10.1115/90-GT-204
Topics:
Engines
,
Gas turbines
,
Aviation
,
Wings
,
Aerospace industry
,
Aircraft engines
,
Fuel consumption
,
Generators
,
Motors
,
Propulsion
T407/GLC38: A Modern Technology Powerplant
GT 1990; V002T02A017https://doi.org/10.1115/90-GT-242
Topics:
Power stations
,
Engines
,
Aircraft
,
Gas turbines
,
Signals
,
Aircraft engines
,
Army
,
Aviation
,
Engine design
,
Generators
Derivative T406 Based Turbofans for Advanced Trainers
GT 1990; V002T02A018https://doi.org/10.1115/90-GT-243
Topics:
Air Force
,
Aircraft
,
Navy
,
Training programs
,
Turbofans
,
Undergraduate students
Gas Turbine Engine Test Cell Modeling
GT 1990; V002T02A019https://doi.org/10.1115/90-GT-244
Optimizing Aircraft Performance With Adaptive, Integrated Flight/Propulsion Control
GT 1990; V002T02A021https://doi.org/10.1115/90-GT-252
Topics:
Aircraft
,
Flight
,
Propulsion
,
Engines
,
Thrust
,
Algorithms
,
Control algorithms
,
Fuel consumption
,
Aircraft engines
,
Cycles
Evaluating Thermographic Phosphors in an Operating Turbine Engine
B. W. Noel, H. M. Borella, W. Lewis, W. D. Turley, D. L. Beshears, G. J. Capps, M. R. Cates, J. D. Muhs, K. W. Tobin
GT 1990; V002T02A022https://doi.org/10.1115/90-GT-266
Topics:
Gas turbines
,
Phosphors
,
Engines
,
Fluorescence
,
Lasers
,
Temperature
,
Temperature effects
Economic Considerations of Aircraft Turbines Manufacturing
GT 1990; V002T02A024https://doi.org/10.1115/90-GT-278
Topics:
Aircraft
,
Manufacturing
,
Turbines
,
Design
,
Gas turbines
,
Manufacturing industry
Why an Engine Air Particle Separator (EAPS)?
GT 1990; V002T02A026https://doi.org/10.1115/90-GT-297
Topics:
Engines
,
Particulate matter
,
Gas turbines
,
Swirling flow
,
Centrifugal force
,
Cycles
,
Design
,
Drops
,
Erosion
,
Generators
Accelerated Mission Tests and Reliability Improvement of F3-30 Engine
GT 1990; V002T02A027https://doi.org/10.1115/90-GT-322
Topics:
Engines
,
Reliability
,
Defense industry
,
Turbofans
RAMSCRAM: A Flexible RAMJET/SCRAMJET Engine Simulation Program
GT 1990; V002T02A028https://doi.org/10.1115/90-GT-323
Topics:
Ramjets
,
Scramjets
,
Simulation
,
Flight
,
Fuels
,
Air-breathing engines
,
Engines
,
Equilibrium (Physics)
,
Flow (Dynamics)
,
Rocket engines
A New Method of Predicting the Performance of Gas Turbine Engines
GT 1990; V002T02A031https://doi.org/10.1115/90-GT-337
Topics:
Gas turbines
,
Algorithms
,
Computation
,
Turbines
,
Dimensions
,
Stability
Airframe/Propulsion Integration at Transonic Speeds
GT 1990; V002T02A032https://doi.org/10.1115/90-GT-338
Topics:
Aircraft
,
Mach number
,
NASA
,
Nozzles
,
Propellers
,
Propulsion
,
Propulsion systems
,
Thrust
,
Tunnels
,
Turbofans
Simulation of Aircraft Gas Turbine Engines
GT 1990; V002T02A033https://doi.org/10.1115/90-GT-342
Topics:
Aircraft
,
Gas turbines
,
Simulation
,
Computer software
,
Computers
,
Engines
,
Performance characterization
,
Steady state
Computational Fluid Dynamic Applications for Jet Propulsion System Integration
GT 1990; V002T02A034https://doi.org/10.1115/90-GT-343
Topics:
Computational fluid dynamics
,
Jet propulsion
,
Flow (Dynamics)
,
Aircraft
,
Design
,
Nozzles
,
Diffusers
,
Engineers
,
Flight
,
Fluid mechanics
Integrated Propulsion System Requirements for Control of STOVL Aircraft
GT 1990; V002T02A036https://doi.org/10.1115/90-GT-364
Topics:
Aircraft
,
Propulsion systems
,
Engines
,
Dynamic response
,
Degrees of freedom
,
Flight
,
Jets
,
Nozzles
,
Propulsion
,
Simulation
Optical Fan Blade Profile Measurement in Rotating Turbomachinery
GT 1990; V002T02A039https://doi.org/10.1115/90-GT-388
Topics:
Blades
,
Turbomachinery
,
Engines
,
Lasers
,
Turbofans
Non-Intrusive Sensing Techniques for Advanced Turbine Engine Structures
GT 1990; V002T02A040https://doi.org/10.1115/90-GT-389
Topics:
Gas turbines
,
Engines
,
Temperature
,
Blades
,
Composite materials
,
Deflection
,
Instrumentation
,
Metals
,
Neutrons
,
Optical fiber
Development of Advanced Diagnostics for Turbine Disks
GT 1990; V002T02A041https://doi.org/10.1115/90-GT-390
Topics:
Disks
,
Turbines
,
Strain sensors
,
Sensors
,
Temperature sensors
,
Design
,
Engines
,
Gas turbines
,
Heat flux
,
High pressure (Physics)
Adaptation of a Small Commercial Fan Jet Trainer for Military Applications
GT 1990; V002T02A042https://doi.org/10.1115/90-GT-391
Topics:
Aircraft
,
Defense industry
,
Design
,
Engines
,
Flight
,
Military systems
,
Test facilities
,
Warfare
Marine
Announcing the LM1600 Marine Gas Turbine Module
GT 1990; V002T03A001https://doi.org/10.1115/90-GT-060
Topics:
Marine gas turbines
,
Engines
,
Exhaust systems
,
Design
,
Acoustics
,
Combustion
,
Cooling
,
Cooling systems
,
Electrical wires
,
Fuel systems
Control System Design: Gas Turbine Machinery: The Use of a Corporate Model for Control System Design
GT 1990; V002T03A003https://doi.org/10.1115/90-GT-194
Topics:
Control systems
,
Design
,
Gas turbines
,
Machinery
,
Hardware
,
Turbines
,
Algorithms
,
Computer programming
,
Computer software
,
Control algorithms
Development of Corrosion Resistant Coatings for Marine Gas Turbine Applications
GT 1990; V002T03A004https://doi.org/10.1115/90-GT-200
Topics:
Coatings
,
Corrosion
,
Marine gas turbines
,
Chemistry
,
Fuels
,
Sulfur
,
Atmospheric pressure
,
Ceramics
,
Diffusion (Physics)
,
Overlays (Materials engineering)
Design and Performance Features of the Marine LM1600 Gas Turbine
GT 1990; V002T03A005https://doi.org/10.1115/90-GT-203
Topics:
Design
,
Gas turbines
,
Maintenance
,
Aircraft
,
Diesel engines
,
Electric propulsion
,
Engines
,
Jet engines
,
Jets
,
Military systems
Marine Support Concepts for Aero Derivative Turbine Engines
GT 1990; V002T03A006https://doi.org/10.1115/90-GT-282
Topics:
Gas turbines
,
Aircraft
,
Engines
,
Military systems
,
Motors
Gas Turbine Powered Blue Riband Winner
GT 1990; V002T03A009https://doi.org/10.1115/90-GT-321
Topics:
Gas turbines
,
Atlantic Ocean
,
Exhaust systems
,
Marine gas turbines
,
Power stations
,
Propulsion systems
,
Vessels
Flow Distribution in a Model Recuperator of an Intercooled-Recuperative Marine Gas Turbine
GT 1990; V002T03A010https://doi.org/10.1115/90-GT-394
Topics:
Flow (Dynamics)
,
Marine gas turbines
,
Brayton cycle
,
Design
,
Diffusers
,
Engines
,
Exhaust systems
,
Fuel consumption
,
Gas turbines
,
Thermal efficiency
Microturbines and Small Turbomachinery
Design of Ceramic Gas Turbine Components
GT 1990; V002T04A002https://doi.org/10.1115/90-GT-048
Testing of Ceramic Components in the Daimler-Benz Research Gas Turbine PWT 110
GT 1990; V002T04A004https://doi.org/10.1115/90-GT-097
Topics:
Gas turbines
,
Industrial ceramics
,
Testing
,
Temperature
,
Vehicles
,
Roads
Reliability Analysis of Ceramics Using the CERAM Computer Program
GT 1990; V002T04A005https://doi.org/10.1115/90-GT-098
Topics:
Ceramics
,
Computer software
,
Event history analysis
,
Failure
,
Disks
,
Thermal shock
Fabrication of ATTAP Ceramic Turbine Components
GT 1990; V002T04A007https://doi.org/10.1115/90-GT-185
Topics:
Ceramics
,
Manufacturing
,
Turbine components
,
Density
,
Experimental design
,
Injection molding
,
Modeling
,
Optimization
,
Ore dressing
,
Rotors
ATTAP/AGT101: Year 2 Progress in Ceramic Technology Development
GT 1990; V002T04A010https://doi.org/10.1115/90-GT-305
Topics:
Ceramics
,
Technology development
,
Turbines
,
Particulate matter
,
Combustion chambers
,
Graphite
,
Industrial ceramics
,
Manufacturing
,
Rotors
,
Shapes
Ceramic Small Gas Turbine Technology Demonstrator
GT 1990; V002T04A011https://doi.org/10.1115/90-GT-306
Topics:
Ceramics
,
Gas turbines
,
Turbines
,
Temperature
,
Turbine components
,
Wheels
,
Brittleness
,
Cobalt
,
Corporate average fuel economy
,
Design