Led by the University of Tennessee, Knoxville, the goal of this University Leadership Initiative (ULI) project is to demonstrate a viable aerodynamic wing-design concept that enables a 70% reduction in aircraft fuel/energy consumption relative to 2005 baseline for revolutionary and transformational aircraft configurations. This is being accomplished within a five-year project timeline to further the development and maturation of the slotted, natural-laminar-flow airfoil concept through both computational and experimental research activities. Evaluation of the impact of this advanced concept is being completed in all core areas of aeronautics, with specific consideration to aerodynamics, structures, propulsion, stability & control, and acoustics.
Research personnel for the Advanced Aerodynamic Design Center for Ultra-Efficient Commercial Vehicles is comprised of university faculty and students at six universities (Pennsylvania State University, Rutgers University, Texas A&M University, the University of Illinois at Urbana-Champaign, the University of Wyoming, and the University of Tennessee, Knoxville) and two industry partners (Airfoils, Inc. and Boeing Research & Technology). In addition to the achievement of progress milestones toward the project's research activities goals (development of design/optimization software modules, fluidic oscillator configuration tool, slotted, natural-laminar-flow wing geometry, wind-tunnel data, various reports and documentation), this ULI project is highly invested in providing quality, meaningful research opportunities to graduate and undergraduate students within collaborating institutions. To date, more than two dozen college students have contributed on this project through research and educational outreach programming, which consists of the development and teaching of STEM-focused learning modules at local K-12 programs. as well as local Boys and Girls Clubs.
The primary focus of this ULI project is to support technology development that enables 100+ passenger aircraft to satisfy N+2 (mid-term) and N+3 (far-term) fuel/energy consumption goals. These aircraft classes represent over 85% of the current total commercial aircraft fuel consumption in the United States, a percentage forecasted to increase over the next several decades. The 100-210-passenger class aircraft, currently typified by single-aisle, transonic, tube-and-wing configurations, represents approximately half of the total fleet fuel consumption. Performance improvements and fuel-burn reductions for these vehicle classes have the largest impact on total fleet fuel consumption.
Recent NASA-funded concept studies at Boeing and MIT have yielded N+3 design concepts with 154- and 180-passenger capacities, respectively. In both design concepts, attaining natural laminar flow on the main wing is an enabling technology for meeting the performance goals. ULI research activities focus on the further maturation and system integration of the slotted, natural-laminar-flow (SNLF) airfoil, which is a potentially disruptive and revolutionary concept that shows great potential for reducing wing profile drag and enabling N+3-level performance gains for fixed-wing commercial air vehicles.
Organizations Performing Work | Role | Type | Location |
---|---|---|---|
The University of Tennessee, Knoxville | Lead Organization | Academic | Knoxville, TN |
Airfoils, Incorporated | Supporting Organization | Industry | Port Matilda, PA |
Boeing | Supporting Organization | Industry | Chicago, IL |
Pennsylvania State University | Supporting Organization | Academic | University Park, PA |
Rutgers University | Supporting Organization | Academic | Piscataway, NJ |
Texas A&M University | Supporting Organization | Academic | College Station, TX |
University of Illinois | Supporting Organization | Academic | Champaign, IL |
University of Wyoming | Supporting Organization | Academic | Laramie, WY |
Aeronautics Research Mission Directorate (ARMD)
The University of Tennessee, Knoxville
Transformative Aeronautics Concepts Program
James Coder
Phillip Ansell
Onur Bilgen
Kenneth Brentner
Robert L. Campbell
Ryan S. Glasby
Neal Harrison
Abdollah Khodadoust
Mark D. Maughmer
Dimitri Mavriplis
Helen Reed
Sven Schmitz
Dan M. Somers
Stephanie C. Termaath
Edward B. White
Jun 2017 - Jun 2022
Start: 1
Current: 3
Estimated End: 5