Volumes | Turbo Expo: Power for Land, Sea, and Air | American Society of Mechanical Engineers Digital Collection

Topics: Ducts , Flow (Dynamics) , Heat transfer , Reynolds number , Pressure , Turbulence , Vortices , Suction , Computation , Cross section (Physics)

Local Heat Transfer in Turbine Disk-Cavities: Part I — Rotor and Stator Cooling With Hub Injection of Coolant

R. S. Bunker, D. E. Metzger, S. Wittig

GT 1990; V004T09A006https://doi.org/10.1115/90-GT-025

Abstract

View Articletitled, Local Heat Transfer in Turbine Disk-Cavities: Part I — Rotor and Stator Cooling With Hub Injection of Coolant

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Topics: Cavities , Coolants , Cooling , Disks , Heat transfer , Rotors , Stators , Turbines , Flow (Dynamics) , Coatings

Local Heat Transfer in Turbine Disk-Cavities: Part II — Rotor Cooling With Radial Location Injection of Coolant

R. S. Bunker, D. E. Metzger, S. Wittig

GT 1990; V004T09A007https://doi.org/10.1115/90-GT-026

Abstract

View Articletitled, Local Heat Transfer in Turbine Disk-Cavities: Part II — Rotor Cooling With Radial Location Injection of Coolant

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Topics: Cavities , Coolants , Cooling , Disks , Heat transfer , Rotors , Turbines , Stators , Flow (Dynamics) , Heat transfer coefficients

Heat Transfer and Aerodynamics of a High Rim Speed Turbine Nozzle Guide Vane Tested in the RAE Isentropic Light Piston Cascade (ILPC)

S. P. Harasgama, E. T. Wedlake

GT 1990; V004T09A008https://doi.org/10.1115/90-GT-041

Abstract

View Articletitled, Heat Transfer and Aerodynamics of a High Rim Speed Turbine Nozzle Guide Vane Tested in the RAE Isentropic Light Piston Cascade (ILPC)

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Topics: Aerodynamics , Cascades (Fluid dynamics) , Heat transfer , Nozzle guide vanes , Pistons , Turbines , Mach number , Reynolds number , Chords (Trusses) , Engines

Navier-Stokes Analysis of Turbine Blade Heat Transfer

R. J. Boyle

GT 1990; V004T09A009https://doi.org/10.1115/90-GT-042

Abstract

View Articletitled, Navier-Stokes Analysis of Turbine Blade Heat Transfer

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Topics: Heat transfer , Turbine blades , Turbulence , Blades , Eddies (Fluid dynamics) , Flow (Dynamics) , Prandtl number , Pressure gradient , Reynolds number , Turbines

Gas Turbine Film Cooling: Flowfield due to a Second Row of Holes

A. K. Sinha, D. G. Bogard, M. E. Crawford

GT 1990; V004T09A011https://doi.org/10.1115/90-GT-044

Abstract

View Articletitled, Gas Turbine Film Cooling: Flowfield due to a Second Row of Holes

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Topics: Film cooling , Gas turbines , Boundary layers , Density , Jets , Shear stress , Turbulence

Effects of Vortices With Different Circulations on Heat Transfer and Injectant Downstream of a Single Film-Cooling Hole in a Turbulent Boundary Layer

P. M. Ligrani, C. S. Subramanian, D. W. Craig, P. Kaisuwan

GT 1990; V004T09A012https://doi.org/10.1115/90-GT-045

Abstract

View Articletitled, Effects of Vortices With Different Circulations on Heat Transfer and Injectant Downstream of a Single Film-Cooling Hole in a Turbulent Boundary Layer

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Topics: Boundary layer turbulence , Film cooling , Heat transfer , Vortices , Flow (Dynamics) , Temperature , Boundary layers , Heat flux

Effect of Incidence on Wall Heating Rates and Aerodynamics on a Film Cooled Transonic Turbine Blade

Cengiz Camci, Tony Arts

GT 1990; V004T09A013https://doi.org/10.1115/90-GT-046

Abstract

View Articletitled, Effect of Incidence on Wall Heating Rates and Aerodynamics on a Film Cooled Transonic Turbine Blade

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Topics: Aerodynamics , Heating , Turbine blades , Cooling , Blades , Convection , Flow (Dynamics) , Heat transfer , Pressure , Suction

Heat Transfer Measurements and Calculations in Transitionally Rough Flow

M. H. Hosni, Hugh W. Coleman, Robert P. Taylor

GT 1990; V004T09A014https://doi.org/10.1115/90-GT-053

Abstract

View Articletitled, Heat Transfer Measurements and Calculations in Transitionally Rough Flow

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Topics: Flow (Dynamics) , Heat transfer , Surface roughness , Turbulence , Air flow , Boundary layer turbulence , Boundary layers , Computation , Pressure gradient , Skin friction (Fluid dynamics)

Full Coverage Discrete Hole Film Cooling: The Influence of the Number of Holes and Pressure Loss

G. E. Andrews, A. A. Asere, M. L. Gupta, M. C. Mkpadi, A. Tirmahi

GT 1990; V004T09A015https://doi.org/10.1115/90-GT-061

Abstract

View Articletitled, Full Coverage Discrete Hole Film Cooling: The Influence of the Number of Holes and Pressure Loss

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Topics: Film cooling , Pressure , Cooling , Coolants , Design , Flow (Dynamics) , Combustion chambers , Combustion gases , Density , Turbine blades

Numerical Investigation of the Three-Dimensional Temperature Field in the Near Hole Region of a Film Cooled Turbine Vane

X. Coudray

GT 1990; V004T09A016https://doi.org/10.1115/90-GT-062

Abstract

View Articletitled, Numerical Investigation of the Three-Dimensional Temperature Field in the Near Hole Region of a Film Cooled Turbine Vane

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Topics: Temperature , Turbines , Cooling , Film cooling , Boundary layers , Boundary-value problems , Computation , Design , Finite element analysis , Flat plates

Gas Turbine Rotor Blade Film Cooling With and Without Simulated NGV Shock Waves and Wakes

M. J. Rigby, A. B. Johnson, M. L. G. Oldfield

GT 1990; V004T09A017https://doi.org/10.1115/90-GT-078

Abstract

View Articletitled, Gas Turbine Rotor Blade Film Cooling With and Without Simulated NGV Shock Waves and Wakes

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Topics: Blades , Film cooling , Gas turbines , Nozzle guide vanes , Rotors , Shock waves , Wakes , Heat transfer , Pistons , Suction

The Effect of a Turbulent Wake on the Stagnation Point: Part I — Skin Friction Results

Dennis E. Wilson, Anthony J. Hanford

GT 1990; V004T09A018https://doi.org/10.1115/90-GT-092

Abstract

View Articletitled, The Effect of a Turbulent Wake on the Stagnation Point: Part I — Skin Friction Results

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Topics: Skin friction (Fluid dynamics) , Wake turbulence , Boundary layers , Flow (Dynamics) , Circular cylinders , Fluctuations (Physics) , Geometry , Oscillations

Concave-Wall Laminar Heat Transfer and Görtler Vortex Structure: Effects of Pre-Curvature Boundary Layer and Favourable Pressure Gradients

R. I. Crane, H. Umur

GT 1990; V004T09A019https://doi.org/10.1115/90-GT-094

Abstract

View Articletitled, Concave-Wall Laminar Heat Transfer and Görtler Vortex Structure: Effects of Pre-Curvature Boundary Layer and Favourable Pressure Gradients

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Topics: Boundary layers , Heat transfer , Pressure gradient , Vortices , Flow (Dynamics) , Heat transfer coefficients , Skin friction (Fluid dynamics)

Prediction and Measurement of Film Cooling Effectiveness for a First-Stage Turbine Vane Shroud

D. Granser, T. Schulenberg

GT 1990; V004T09A020https://doi.org/10.1115/90-GT-095

Abstract

View Articletitled, Prediction and Measurement of Film Cooling Effectiveness for a First-Stage Turbine Vane Shroud

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Topics: Film cooling , Turbines , Flow (Dynamics) , Cascades (Fluid dynamics) , Pressure , Airfoils , Algorithms , Atmospheric pressure , Boundary layers , Compressors

Recent Progress in Research Pertaining to Estimates of Gas-Side Heat Transfer in an Aircraft Gas Turbine

Robert W. Graham

GT 1990; V004T09A021https://doi.org/10.1115/90-GT-100

Abstract

View Articletitled, Recent Progress in Research Pertaining to Estimates of Gas-Side Heat Transfer in an Aircraft Gas Turbine

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Topics: Aircraft , Gas turbines , Heat transfer , Computer technology , Data acquisition , Fluid dynamics , Governments , Instrumentation , Modeling , Stress

Laminar Boundary Layer Interaction With an Unsteady Passing Wake

D. E. Paxson, R. E. Mayle

GT 1990; V004T09A022https://doi.org/10.1115/90-GT-120

Abstract

View Articletitled, Laminar Boundary Layer Interaction With an Unsteady Passing Wake

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Topics: Boundary layers , Wakes , Flow (Dynamics) , Oscillations

The Effect of Incident Wake Conditions on the Mean Heat Transfer of an Airfoil

K. Dullenkopf, A. Schulz, S. Wittig

GT 1990; V004T09A023https://doi.org/10.1115/90-GT-121

Abstract

View Articletitled, The Effect of Incident Wake Conditions on the Mean Heat Transfer of an Airfoil

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Topics: Airfoils , Heat transfer , Wakes , Cascades (Fluid dynamics) , Blades , Flow (Dynamics) , Boundary layers , Cross-flow , Cylinders , Generators

More on the Turbulent-Strip Theory for Wake-Induced Transition

R. E. Mayle, K. Dullenkopf

GT 1990; V004T09A024https://doi.org/10.1115/90-GT-137

Abstract

View Articletitled, More on the Turbulent-Strip Theory for Wake-Induced Transition

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Topics: Strips , Turbulence , Wakes , Flow (Dynamics) , Boundary layers , Dimensional analysis , Wake turbulence

Heat Transfer Measurements in Rectangular Channels With Orthogonal Mode Rotation

W. D. Morris, G. Ghavami-Nasr

GT 1990; V004T09A025https://doi.org/10.1115/90-GT-138

Abstract

View Articletitled, Heat Transfer Measurements in Rectangular Channels With Orthogonal Mode Rotation

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Topics: Heat transfer , Rotation , Flow (Dynamics) , Blades , Coolants , Cooling , Ducts , Gas turbines , Geometry , Rotors

Combustor Exit Temperature Distortion Effects on Heat Transfer and Aerodynamics Within a Rotating Turbine Blade Passage

S. P. Harasgama

GT 1990; V004T09A026https://doi.org/10.1115/90-GT-174

Abstract

View Articletitled, Combustor Exit Temperature Distortion Effects on Heat Transfer and Aerodynamics Within a Rotating Turbine Blade Passage

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Topics: Aerodynamics , Combustion chambers , Heat transfer , Temperature , Turbine blades , Blades , Pressure , Rotors , Turbines , Boundary layers

Unsteady Heat Transfer Measurements on a Rotating Gas Turbine Blade

M. A. Hilditch, R. W. Ainsworth

GT 1990; V004T09A027https://doi.org/10.1115/90-GT-175

Abstract

View Articletitled, Unsteady Heat Transfer Measurements on a Rotating Gas Turbine Blade

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Topics: Blades , Gas turbines , Heat transfer , Rotors , Fluctuations (Physics) , Gages , Simulation , Calibration , Electronic circuits , Enameling

Heat Transfer From a Rotating Disc

G. H. Dibelius, M. Heinen

GT 1990; V004T09A028https://doi.org/10.1115/90-GT-219

Abstract

View Articletitled, Heat Transfer From a Rotating Disc

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Topics: Heat transfer , Rotating disks , Disks , Flow (Dynamics) , Natural convection , Cavities , Coolants , Cooling , Density , Friction

Heat Transfer Characteristics of Turbulent Flow in a Square Channel With Angled Discrete Ribs

S. C. Lau, R. D. McMillin, J. C. Han

GT 1990; V004T09A029https://doi.org/10.1115/90-GT-254

Abstract

View Articletitled, Heat Transfer Characteristics of Turbulent Flow in a Square Channel With Angled Discrete Ribs

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Topics: Heat transfer , Turbulence , Pressure drop , Airfoils , Cooling , Flow (Dynamics) , Friction , Gas turbines , Reynolds number , Turbulent heat transfer

An Experimental Investigation of Nozzle-Exit Boundary Layers of Highly Heated Free Jets

J. Lepicovsky

GT 1990; V004T09A030https://doi.org/10.1115/90-GT-255

Abstract

View Articletitled, An Experimental Investigation of Nozzle-Exit Boundary Layers of Highly Heated Free Jets

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Topics: Boundary layers , Jets , Nozzles , Reynolds number , Boundary layer turbulence , Mach number , Temperature , Momentum , Pressure , Pressure measurement

Experimental Performance of a Heat Flux Microsensor

J. M. Hager, S. Simmons, D. Smith, S. Onishi, L. W. Langley, T. E. Diller

GT 1990; V004T09A031https://doi.org/10.1115/90-GT-256

Abstract

View Articletitled, Experimental Performance of a Heat Flux Microsensor

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Topics: Heat flux , Microsensors , Gages , Signals , Transients (Dynamics) , Turbulence , Boundary layers , Calibration , Convection , Flow (Dynamics)

Full Coverage Impingement Heat Transfer at High Temperatures

R. A. A. Abdul Husain, G. E. Andrews

GT 1990; V004T09A032https://doi.org/10.1115/90-GT-285

Abstract

View Articletitled, Full Coverage Impingement Heat Transfer at High Temperatures

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Topics: Heat transfer , High temperature , Cooling , Heat transfer coefficients , Transients (Dynamics) , Coolants , Low temperature , Combustion , Flow (Dynamics) , Heating

Free Convection Phenomena in a Ribbed Wall

N. S. Maravegias, D. P. Georgiou, D. D. Papailiou

GT 1990; V004T09A033https://doi.org/10.1115/90-GT-286

Abstract

View Articletitled, Free Convection Phenomena in a Ribbed Wall

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Topics: Natural convection , Flow (Dynamics) , Heat transfer , Turbulence , Cooling , Currents , Design , Flat plates , Forced convection , Temperature

A Technique for Measuring Convective Heat Transfer at Rough Surfaces

Z. Wang, P. T. Ireland, T. V. Jones

GT 1990; V004T09A034https://doi.org/10.1115/90-GT-300

Abstract

View Articletitled, A Technique for Measuring Convective Heat Transfer at Rough Surfaces

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Topics: Convection , Surface roughness , Blades , Channel flow , Cooling , Heat transfer coefficients , Manufacturing , Thermal conductivity , Turbine blades

Measurement and Calculation of End Wall Heat Transfer and Aerodynamics on a Nozzle Guide Vane in Annular Cascade

N. W. Harvey, T. V. Jones

GT 1990; V004T09A035https://doi.org/10.1115/90-GT-301

Abstract

View Articletitled, Measurement and Calculation of End Wall Heat Transfer and Aerodynamics on a Nozzle Guide Vane in Annular Cascade

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Topics: Aerodynamics , Cascades (Fluid dynamics) , Heat transfer , Nozzle guide vanes , Airfoils , Mach number , Boundary layers , Engines , Flow visualization , Gages

An Investigation of Convective Heat Transfer in a Rotating Coolant Channel

J. O. Medwell, W. D. Morris, J. Y. Xia, C. Taylor

GT 1990; V004T09A036https://doi.org/10.1115/90-GT-329

Abstract

View Articletitled, An Investigation of Convective Heat Transfer in a Rotating Coolant Channel

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Topics: Convection , Coolants , Cooling , Ducts , Equations of motion , Finite element methods , Heat conduction , Heat transfer , Numerical analysis , Turbine blades

Influence of High Rotational Speeds on the Heat Transfer and Discharge Coefficients in Labyrinth Seals

W. Waschka, S. Wittig, S. Kim

GT 1990; V004T09A037https://doi.org/10.1115/90-GT-330

Abstract

View Articletitled, Influence of High Rotational Speeds on the Heat Transfer and Discharge Coefficients in Labyrinth Seals

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Topics: Discharge coefficient , Heat transfer , Heat transfer coefficients , Rotors , Test facilities , Clearances (Engineering) , Compressible flow , Dimensions , Fins , Gages

Heat Transfer in Rotating Serpentine Passages With Smooth Walls

J. H. Wagner, B. V. Johnson, F. C. Kopper

GT 1990; V004T09A038https://doi.org/10.1115/90-GT-331

Abstract

View Articletitled, Heat Transfer in Rotating Serpentine Passages With Smooth Walls

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Topics: Heat transfer , Flow (Dynamics) , Buoyancy , Coolants , Heat transfer coefficients , Rotation , Turbine blades , Cooling , Coriolis force , Gas turbines

An Experimental Investigation of Heat Transfer in an Orthogonally Rotating Channel Roughened With 45 Degree Criss-Cross Ribs on Two Opposite Walls

M. E. Taslim, L. A. Bondi, D. M. Kercher

GT 1990; V004T09A039https://doi.org/10.1115/90-GT-332

Abstract

View Articletitled, An Experimental Investigation of Heat Transfer in an Orthogonally Rotating Channel Roughened With 45 Degree Criss-Cross Ribs on Two Opposite Walls

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Topics: Heat transfer , Cooling , Rotation , Heat transfer coefficients , Blades , Circuits , Surface roughness , Turbine blades , Aircraft engines , Creep

Turbine Tip and Shroud Heat Transfer

D. E. Metzger, M. G. Dunn, C. Hah

GT 1990; V004T09A040https://doi.org/10.1115/90-GT-333

Abstract

View Articletitled, Turbine Tip and Shroud Heat Transfer

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Topics: Heat transfer , Turbines , Blades , Leakage flows , Clearances (Engineering) , Pressure , Flow (Dynamics) , Airfoils , Computation , Cooling

Film Cooling in the Presence of Mainstream Pressure Gradients

A. J. H. Teekaram, C. J. P. Forth, T. V. Jones

GT 1990; V004T09A041https://doi.org/10.1115/90-GT-334

Abstract

View Articletitled, Film Cooling in the Presence of Mainstream Pressure Gradients

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Topics: Film cooling , Pressure gradient , Boundary layer turbulence , Energy dissipation , Engines , Flat plates , Flow (Dynamics) , Gas turbines , Heat transfer coefficients , Mach number

Electric Power

Combined Cycle Enhancement

H. Jericha, F. Hoeller

GT 1990; V004T10A001https://doi.org/10.1115/90-GT-112

Abstract

View Articletitled, Combined Cycle Enhancement

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Topics: Air pollution , Combined cycle power stations , Combined cycles , Cooling , Curbs (Roads) , Cycles , Fuels , Gas turbines , Heat engines , High temperature steam

Modification of a General Electric 7001B Turbine for Increased Reliability by Using 7001E Parts

David K. Prugger, William J. McDermott

GT 1990; V004T10A002https://doi.org/10.1115/90-GT-284

Abstract

View Articletitled, Modification of a General Electric 7001B Turbine for Increased Reliability by Using 7001E Parts

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Topics: Reliability , Turbines , Design , Gas turbines

A Comparative Evaluation of Advanced Combined Cycle Alternatives

Olav Bolland

GT 1990; V004T10A003https://doi.org/10.1115/90-GT-335

Abstract

View Articletitled, A Comparative Evaluation of Advanced Combined Cycle Alternatives

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Topics: Combined cycles , Cycles , Pressure , Steam turbines , Condensers (steam plant) , Exergy , Exergy analysis , Firing , Heat recovery steam generators , Heat transfer

Combined Cycle Plants With Frame 9F Gas Turbines

P. Lugand, C. Parietti

GT 1990; V004T10A004https://doi.org/10.1115/90-GT-345

Abstract

View Articletitled, Combined Cycle Plants With Frame 9F Gas Turbines

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Topics: Combined cycle power stations , Gas turbines , Cycles , Emissions , Energy generation , Firing , Flue gases , Heat recovery steam generators , Nitrogen oxides , Pressure

A Computer Method for Thermal Power Cycle Calculation

E. Perz

GT 1990; V004T10A005https://doi.org/10.1115/90-GT-351

Abstract

View Articletitled, A Computer Method for Thermal Power Cycle Calculation

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Topics: Computers , Cycles , Thermal energy , Thermodynamic power cycles , Algebra , Algorithms , Computer software , Energy budget (Physics) , Steam , Storage

Shop Test of the 501F a 150 MW Combustion Turbine

D. T. Entenmann, I. Fukue, W. E. North, A. Muyama

GT 1990; V004T10A006https://doi.org/10.1115/90-GT-362

Abstract

View Articletitled, Shop Test of the 501F a 150 MW Combustion Turbine

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Topics: Combustion , Turbines , Engines , Design , Stress , Temperature , Circuits , Cooling , Emissions , Engine design

Fully Loaded Factory Test of the CW251B12 Gas Turbine Engine

Ihor S. Diakunchak

GT 1990; V004T10A007https://doi.org/10.1115/90-GT-363

Abstract

View Articletitled, Fully Loaded Factory Test of the CW251B12 Gas Turbine Engine

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Topics: Gas turbines , Engines , Industrial gases , Instrumentation , Metals , Telemetry , Temperature measurement , Test facilities , Testing performance , Turbines

Assessing Diagnostic Techniques for Poblem Identification in Advanced Industrial Gas Turbines

Alexander Lifson, Anthony J. Smalley, George H. Quentin, Joseph P. Zanyk

GT 1990; V004T10A008https://doi.org/10.1115/90-GT-365

Abstract

View Articletitled, Assessing Diagnostic Techniques for Poblem Identification in Advanced Industrial Gas Turbines

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Topics: Industrial gases , Turbines , Combustion , Electric power generation , Sensors , Signals

Coal-Derived Gas Utilization in Combined Gas-Steam Cycle Power Plants

R. Tuccillo, G. Fontana, E. Jannelli

GT 1990; V004T10A009https://doi.org/10.1115/90-GT-366

Abstract

View Articletitled, Coal-Derived Gas Utilization in Combined Gas-Steam Cycle Power Plants

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Topics: Coal , Cycles , Power stations , Steam , Combined cycles , Gas turbines , Pressure , Flow (Dynamics) , Carbon dioxide , Combustion

Combined Cycles Permit the Most Environmentally Benign Conversion of Fossil Fuels to Electricity

Guenther Haupt, John S. Joyce, Konrad Kuenstle

GT 1990; V004T10A010https://doi.org/10.1115/90-GT-367

Abstract

View Articletitled, Combined Cycles Permit the Most Environmentally Benign Conversion of Fossil Fuels to Electricity

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Topics: Combined cycles , Fossil fuels , Emissions , Power stations , Steam , Boilers , Carbon dioxide , Coal , Design , Flue gas desulfurization

Off-Design Performances of Fully-Fired Combined Cycle Cogeneration

Fang Gang, Cai Ruixian, Lin Rumou

GT 1990; V004T10A011https://doi.org/10.1115/90-GT-370

Abstract

View Articletitled, Off-Design Performances of Fully-Fired Combined Cycle Cogeneration

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Topics: Combined cycles , Combined heat and power , Design , Boilers , China , Dimensional analysis , Gas turbines , Power systems (Machinery) , Stress

Construction of a 700MW Combined Cycle Plant for YANAI Power Station No. 1

S. Shirakura, N. Ando, K. Hoshino

GT 1990; V004T10A012https://doi.org/10.1115/90-GT-371

Abstract

View Articletitled, Construction of a 700MW Combined Cycle Plant for YANAI Power Station No. 1

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Topics: Combined cycle power stations , Construction , Power stations , Nitrogen oxides , Control systems , Countermeasures , Stress , User interfaces , Combined cycles , Combustion chambers

Experience With External Fires in Gas Turbine Installations and Implications for Fire Protection

R. E. Dundas

GT 1990; V004T10A013https://doi.org/10.1115/90-GT-375

Abstract

View Articletitled, Experience With External Fires in Gas Turbine Installations and Implications for Fire Protection

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Topics: Fire , Gas turbines , Fuels , Damage , Flow (Dynamics) , Gaseous fuels , Generators , Industrial lubrication systems , Lubrication , Separation (Technology)

MS 9001F: A New Advanced Technology 50 Hz Gas Turbine

D. E. Brandt, M. Colas

GT 1990; V004T10A014https://doi.org/10.1115/90-GT-378

Abstract

View Articletitled, MS 9001F: A New Advanced Technology 50 Hz Gas Turbine

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Topics: Gas turbines , Design , Aircraft engines , Compressors , Engineering prototypes , Firing , Flow (Dynamics) , Temperature , Testing

Future of Combined-Cycle Plants in Belgium

Philippe Mathieu

GT 1990; V004T10A015https://doi.org/10.1115/90-GT-379

Abstract

View Articletitled, Future of Combined-Cycle Plants in Belgium

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Topics: Combined cycle power stations , Gas turbines , Construction , Electric power generation , Governments , Nuclear power , Nuclear power stations , Turbojets

NO_x Exhaust Emissions for Gas-Fired Turbine Engines

P. C. Malte, S. Bernstein, F. Bahlmann, J. Doelman

GT 1990; V004T10A016https://doi.org/10.1115/90-GT-392

Abstract

View Articletitled, NO<sub>x</sub> Exhaust Emissions for Gas-Fired Turbine Engines

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Topics: Emissions , Exhaust systems , Gas turbines , Nitrogen oxides , Engines , Steam , Water , Fuels , Pressure , Underground injection

Industrial and Cogeneration

Combustion System Performance of a Water Injected MS7001E Gas Turbine Operating at a NOx Emission Level of 25 PPMVD

David O. Fitts, Richard A. Symonds, Edmond R. Western

GT 1990; V004T11A001https://doi.org/10.1115/90-GT-071

Abstract

View Articletitled, Combustion System Performance of a Water Injected MS7001E Gas Turbine Operating at a NOx Emission Level of 25 PPMVD

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Topics: Combustion systems , Emissions , Gas turbines , Nitrogen oxides , Water , Combustion chambers , Testing , Combined heat and power , Dynamics (Mechanics) , Equipment performance

Development of a New 25MW High Efficiency Heavy-Duty Gas Turbine H-25

Haruo Urushidani, Tetsuo Sasada, Masamichi Wada, Kazuhiko Kawaike

GT 1990; V004T11A002https://doi.org/10.1115/90-GT-072

Abstract

View Articletitled, Development of a New 25MW High Efficiency Heavy-Duty Gas Turbine H-25

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Topics: Gas turbines , Stress , Boilers , Cogeneration plants , Combined cycle power stations , Cycles , Design , Energy generation , Fuel consumption , Heat recovery

The Mechanism of Fouling and the Cleaning Technique in Application to Flow Parts of the Power Generation Plant Compressors

A. D. Mezheritsky, A. V. Sudarev

GT 1990; V004T11A003https://doi.org/10.1115/90-GT-103

Abstract

View Articletitled, The Mechanism of Fouling and the Cleaning Technique in Application to Flow Parts of the Power Generation Plant Compressors

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Topics: Compressors , Energy generation , Flow (Dynamics) , Power stations

Cogeneration Plant Machinery Design for Maintenance and Reliability

Charles E. Zirkelback

GT 1990; V004T11A004https://doi.org/10.1115/90-GT-104

Abstract

View Articletitled, Cogeneration Plant Machinery Design for Maintenance and Reliability

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Topics: Cogeneration plants , Machine design , Maintenance , Reliability , Machinery , Combined cycles , Design , Petrochemicals

Calculating NH₃ Slip for SCR Equipped Cogeneration Units

C. M. Anderson, J. A. Billings

GT 1990; V004T11A005https://doi.org/10.1115/90-GT-105

Abstract

View Articletitled, Calculating NH<sub>3</sub> Slip for SCR Equipped Cogeneration Units

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Topics: Cogeneration plants , Combined heat and power , Computational methods , Pollution

Field Evaluation of On-Line Compressor Cleaning in Heavy Duty Industrial Gas Turbines

Gary L. Haub, William E. Hauhe, Jr.

GT 1990; V004T11A007https://doi.org/10.1115/90-GT-107

Abstract

View Articletitled, Field Evaluation of On-Line Compressor Cleaning in Heavy Duty Industrial Gas Turbines

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Topics: Compressors , Industrial gases , Turbines , Gas turbines , Cogeneration plants , Combined heat and power

Cogenerative, Direct Exhaust Integration of Gas Turbines in Ethylene Production

David H. Cooke, William D. Parizot

GT 1990; V004T11A008https://doi.org/10.1115/90-GT-139

Abstract

View Articletitled, Cogenerative, Direct Exhaust Integration of Gas Turbines in Ethylene Production

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Topics: Exhaust systems , Gas turbines , Oxygen , Furnaces , Cracking (Materials) , Fracture (Process) , Fuels , Boilers , Combined cycles , Combined heat and power

Technical and Other Considerations for the Selection of Inlet Air Filtration Systems for High-Efficiency Industrial Combustion Turbines

Cecil H. Goulding, Myron G. Rasmussen, Frederick M. Fritz, Jr.

GT 1990; V004T11A009https://doi.org/10.1115/90-GT-176

Abstract

View Articletitled, Technical and Other Considerations for the Selection of Inlet Air Filtration Systems for High-Efficiency Industrial Combustion Turbines

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Topics: Combustion , Filtration , Turbines , Air filters

A New Air Filtration System Concept for Space Limited Applications and Retrofits

L. Cuvelier, M. D. Belcher

GT 1990; V004T11A010https://doi.org/10.1115/90-GT-177

Abstract

View Articletitled, A New Air Filtration System Concept for Space Limited Applications and Retrofits

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Topics: Filtration , Filters , Design , Dust , Pulsejets , Combustion , Space

Large ‘Single Blade’ Diverters and Beyond

R. N. Heller, T. H. Hearnden, A. F. Squirrell, R. G. Allshouse

GT 1990; V004T11A011https://doi.org/10.1115/90-GT-178

Abstract

View Articletitled, Large ‘Single Blade’ Diverters and Beyond

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Topics: Blades , Gas turbines , Cogeneration plants , Combined cycles , Construction , Cycles , Dampers , Firing , Heat , Manufacturing

Direct Heat Cogeneration Applications for Kaolin Producers

Jane P. Hill

GT 1990; V004T11A012https://doi.org/10.1115/90-GT-179

Abstract

View Articletitled, Direct Heat Cogeneration Applications for Kaolin Producers

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Topics: Combined heat and power , Heat , Kaolin , Steam , Gas turbines , Heat recovery steam generators , Drugs , Dryers , Paints , Plastics

Improvements in Incinerators by Means of Gas Turbine Based Cogen Systems

Ir. Ted Wiekmeijer

GT 1990; V004T11A013https://doi.org/10.1115/90-GT-180

Abstract

View Articletitled, Improvements in Incinerators by Means of Gas Turbine Based Cogen Systems

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Topics: Gas turbines , Incinerators , Boilers , Steam , Case studies , Energy generation , Nuclear power stations , Risk analysis , Superheating , Waste heat

Energy Conservation With Catalytic Cracking in the Refinery

Yousef S. H. Najjar

GT 1990; V004T11A014https://doi.org/10.1115/90-GT-181

Abstract

View Articletitled, Energy Conservation With Catalytic Cracking in the Refinery

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Topics: Cracking (Materials) , Energy conservation , Fracture (Process) , Catalysts , Axial flow , Boilers , Boiling , Coke , Combustion , Compressors

Operating Experience in Refinery Application of the 13MW-Class Heavy Duty MF-111 Gas Turbine Engine

J. Masada, I. Fukue

GT 1990; V004T11A015https://doi.org/10.1115/90-GT-182

Abstract

View Articletitled, Operating Experience in Refinery Application of the 13MW-Class Heavy Duty MF-111 Gas Turbine Engine

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Topics: Gas turbines , Design , Combined cycles , Combined heat and power , Combustion , Emissions , Fuels , Industrial gases , Machinery , Temperature

Lubrication Oil Reservoir Mist Elimination

Ronald D. Belden

GT 1990; V004T11A016https://doi.org/10.1115/90-GT-183

Abstract

View Articletitled, Lubrication Oil Reservoir Mist Elimination

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Topics: Hydrocarbon reservoirs , Lubrication , Emissions , Fibers , Maintenance , Pressure drop , Vents

Options in Gas Turbine Power Augmentation Using Inlet Air Chilling

Igor S. Ondryas, Dwayne A. Wilson, Marvin Kawamoto, Gary L. Haub

GT 1990; V004T11A017https://doi.org/10.1115/90-GT-250

Abstract

View Articletitled, Options in Gas Turbine Power Augmentation Using Inlet Air Chilling

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Topics: Gas turbines , Absorption , Cogeneration plants , Economics , Exhaust systems , Steam , Thermal energy storage , Water distribution

Design Considerations in the Development of a 38 MW Gas Turbine Cogeneration Facility

Andrew D. Hall, William E. Hauhe, Jr.

GT 1990; V004T11A018https://doi.org/10.1115/90-GT-283

Abstract

View Articletitled, Design Considerations in the Development of a 38 MW Gas Turbine Cogeneration Facility

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Topics: Combined heat and power , Design , Gas turbines , Cogeneration plants , Emissions , Pollution control , Selective catalytic reduction , Stress , Turbogenerators , Underground injection

‘Recycling’ of Gas Turbines From Obsolete Aircraft

Jose M. Morquillas, Pericles Pilidis

GT 1990; V004T11A019https://doi.org/10.1115/90-GT-309

Abstract

View Articletitled, ‘Recycling’ of Gas Turbines From Obsolete Aircraft

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Topics: Aircraft , Gas turbines , Engines , Combined cycle power stations , Recycling , Seas

The Influences of Fintube Characteristics on the Manufacturing and Operation of Waste Heat Recovery Boilers (W.H.R.B.) Behind Turbines

P. A. Desmet

GT 1990; V004T11A020https://doi.org/10.1115/90-GT-325

Abstract

View Articletitled, The Influences of Fintube Characteristics on the Manufacturing and Operation of Waste Heat Recovery Boilers (W.H.R.B.) Behind Turbines

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Topics: Boilers , Heat recovery , Manufacturing , Turbines , Fins , Construction , Geometry , Heat transfer , Optimization

Gas Turbine Performance Improvement Direct Mixing Evaporative Cooling System American Atlas Cogeneration Facility Rifle, Colorado

J. P. Nolan, V. J. Twombly

GT 1990; V004T11A021https://doi.org/10.1115/90-GT-368

Abstract

View Articletitled, Gas Turbine Performance Improvement Direct Mixing Evaporative Cooling System American Atlas Cogeneration Facility Rifle, Colorado

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Topics: Combined heat and power , Evaporative cooling , Gas turbines , Design

Modified Exhaust-Heated Gas Turbine Cycle With Increased Thermal Efficiency and its Prospect for Industrial Application

Joseph A. Golinski

GT 1990; V004T11A022https://doi.org/10.1115/90-GT-369

Abstract

View Articletitled, Modified Exhaust-Heated Gas Turbine Cycle With Increased Thermal Efficiency and its Prospect for Industrial Application

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Topics: Cycles , Exhaust systems , Gas turbines , Thermal efficiency , Turbines , Natural gas , Combustion , Combustion chambers , Combustion gases , Compressed air