
Turbines
UTSR Projects
The University Turbine Systems Research (UTSR) Program addresses scientific research to develop and transition advanced turbines and turbine-based systems that will operate cleanly and efficiently when fueled with coal-derived synthesis gas (syngas) and hydrogen fuels. This research focuses on the areas of combustion, aerodynamics/heat transfer, and materials, in support of the Department of Energy (DOE) Office of Fossil Energy’s Advanced Turbine Program goals.
These goals and the relevance of the research are advanced by the close interaction between participating universities and gas turbine manufactures and gas turbine users. UTSR also offers a Gas Turbine Industrial Fellowship program to recruit qualified university research students. This fellowship brings highly trained student researchers from the university to industrial gas turbine manufacturing environments. The UTSR Fellowship experience often results in the employment of highly trained professionals in the gas turbine industry working to continue the advancement of gas turbine technology.
The UTSR Program has evolved over time in response to power generation markets and DOE objectives. , Evolution of objectives has involved a transition from turbines operating on natural gas to coal derived syngas to very high hydrogen fuels derived from syngas. Since conceptually advanced turbines are fuel flexible this adaptation is possible. This fuel flexibility will also allow gas turbines to be used in integrated gasification combined cycle (IGCC) applications that are configured to capture carbon dioxide (CO2). Future IGCC plants utilizing pre-combustion CO2 will produce a high hydrogen content fuel for the gas turbine; the fuel will then be combusted in the turbine and the CO2 will be permanently stored in the ground. The transition requires the development of low-emission turbine combustion technologies for this variety of fuels, improved turbine hot section flow path aero/heat transfer methods, and durable, low-cost materials for the stressing environment.
Active Projects | Completed Projects
Combustion |
Number |
Title |
Performer |
Principle Investigator |
| NT0000752 |
An Experimental and Chemical Kinetics Study of the Combustion of Synga and High Hydrogen Content Fuels |
Penn State University & Princeton University |
Robert Santoro (PSU), Fred Dryer (Princeton), & Yiguang Ju (Princeton) |
| NT0005054 |
Combustion Dynamics in Multi-Nozzle Combustors Operating on High-Hydrogen Fuels |
Penn State University & Georgia Tech |
Dom Santavicca (PSU) & Tim Lieuwen (Georgia Tech) |
| NT0006551 |
Numerical and Experimental Study of Mixing Processes Associated with Hydrogen and High Hydrogen Content Fuels |
University of California -- Irvine |
Vincent McDonell |
| SCIES-SR122 |
Turbulent Flame Speed Measurements and Modeling of Syngas Fuels |
Georgia Tech |
Jerry Seitzman |
| SCIES-SR126 |
High Pressure Kinetics of Syngas and Nearly Pure Hydrogen Fuels |
University of Colorado |
John Daily |
Aero/Heat Transfer |
Number |
Title |
Performer |
Principle Investigator |
| NT0000753 |
Aerodynamics and Heat Transfer Studies of Parameters Specific to the IGCC Requirements: High Mass Flow Endwall Contouring, Leading Edge Filleting and Blade Tip Ejection under Roating Turbine Condition |
Texas A&M University |
Meinhard Schobeiri |
| NT0005055 |
Designing Turbine Endwalls for Deposition Resistance with 1400C Combustor Exit Temperatures and Syngas Water Vapor Levels |
Ohio State University & Birgham Young University |
Jeffrey Bons (OSU) & Tom Fletcher (BYU) |
| SCIES-SR123 |
Syngas Particulate Deposition and Erosion at the Leading Edge of a Turbine Blade with Film Cooling |
Virginia Tech |
Danesh Tafti |
| SCIES-SR127 |
Simulating Particle Deposition and Mitigating Deposition Degradation Effects in Film Cooled Turbine Sections |
University of Texas |
David Bogard |
Materials |
Number |
Title |
Performer |
Principle Investigator |
| NT0006552 |
Degradation of Thermal Barrier Coatings from Deposits and Its Mitigation |
Ohio State University |
Nitin Padture |
| NT0000765 |
Hafnia-based Nanostructured Thermal Barrier Coatings for Advanced Hydrogen Turbine Technology |
University of Texas -- El Paso |
Chintalapalle Ramana |
| SCIES-SR124 |
Materials for Oxy-Fuel Turobmachine Conditions |
University of Pittsburgh |
Gerald Meier |
| SCIES-SR125 |
Evaluating Coatings for Current and Future Service |
University of California Santa Barbara |
Ted Bennett |
|