Name | Status | Size (W x H x L) | Use | Location | Comments |
---|---|---|---|---|---|
Windtech Boundary Layer Wind Tunnel | Operational | 3.0 m × 2.0 m × 23.0 m (9.8 ft × 6.6 ft × 75 ft) | Low-Speed / Boundary Layer Wind Tunnel | Bexley, Australia | WINDECH owns and operates one of the largest boundary layer wind tunnel labs in the world with a total of 3 wind tunnels under one roof. Each wind tunnel is 3.0m wide, 2.0m high and has a fetch length of 23m. |
A2 wind tunnel | 4.3 m × 3.0 m × 6.1 m (14 ft × 9.8 ft × 20 ft) | Full scale general purpose | Mooresville, NC, USA | ~$500/hr full scale race car, motorcycle, bicycle | |
ACE Climatic Wind Tunnel | 6 m × 5.55 m × 14 m (20 ft × 18 ft × 46 ft) | Full scale: automotive, motorsport, cycling, skiing, architectural, transit, truck, product development | Oshawa, Ontario, Canada | Available and accessible for all industries requiring wind tunnel services or climatic services | |
Lockheed Martin Low Speed Wind Tunnel (LSWT) | Operational | 7.9 m × 9.0 m (26 ft × 30 ft)
7.0 m × 4.9 m (23 ft × 16 ft) |
Aeronautics, Full Scale Automotive, V/STOL Aircraft, General Purpose | Marietta, GA, USA | Larger test section was designed for use of V/STOL aircraft but is not limited to such. Max speed of ~200 mph in smaller test section and ~100 mph in the larger test section. |
ACE Climatic Wind Tunnel | 6 m × 5.55 m × 14 m (20 ft × 18 ft × 46 ft) | Full scale: automotive, motorsport, cycling, skiing, architectural, transit, truck, product development | Oshawa, Ontario, Canada | Available and accessible for all industries requiring wind tunnel services or climatic services | |
AeroDyn Wind Tunnel | Full scale NASCAR racecars | Mooresville, NC, USA | |||
Aircraft Research Association Ltd (ARA) | Operational | 2.7 m × 2.4 m (8 ft 10 in × 7 ft 10 in) | Bedford, UK | Transonic closed circuit, continuous flow wind tunnel. Mach number 0 - 1.4. Reynolds Number 3.5 to 16.7 million/m[1] | |
Automotive Wind Tunnel Emmen (LWTE) | Operational | 2.45 m × 1.55 m × 3.8 m (8 ft 0 in × 5 ft 1 in × 12 ft 6 in) | Low speed automotive and general purpose | Emmen, Switzerland | Belt system for rolling road simulation |
Auto Research Center (ARC) | 2.3 m × 2.1 m (7 ft 7 in × 6 ft 11 in) | Subsonic research and development including: 50% scale model automotive rolling road, wind turbine design and optimization, and cycling | Indianapolis, IN, USA | Wind tunnel has a moving ground plane as well as primary and secondary boundary layer suction. Subsonic testing capabilities for motorsports, production cars, commercial semi-trucking, cycling, wind turbines, architecture, aerospace, academic research, and industrial research and development. | |
Boeing Icing Wind Tunnel – BRAIT | Operational | 1.22 m × 1.83 m (4 ft 0 in × 6 ft 0 in) | Seattle, WA | ||
Boeing Low-speed Aero-Acoustic Facility – LSAF | Operational | Seattle, WA | |||
Boeing Polysonic (supersonic) Wind Tunnel – PSWT | Operational | 1.22 m × 1.22 m (4 ft 0 in × 4 ft 0 in) | St. Louis, MO | ||
Boeing Propulsion Wind Tunnel - BPWT (9x9) | Operational | 2.74 m × 2.74 m (9 ft 0 in × 9 ft 0 in) | Low-speed, atmospheric, non-return, induction-type facility. Typical models include engine inlets, exhaust nozzles, small engines or powered vehicles, aerodynamic half or full models, as well as thrust reversers. | Seattle, WA | |
Boeing Subsonic (low-speed) Wind Tunnel - BVWT | Operational | 6.1 m × 6.1 m (20 ft × 20 ft) | Philadelphia, PA | Contact Boeing Technology Services for additional information about or to use Boeing Facilities[2] | |
Boeing Transonic Wind Tunnel – BTWT | Operational | 2.44 m × 3.67 m (8 ft 0 in × 12 ft 0 in) | Seattle, WA | ||
Cal Poly's Low- Speed Wind Tunnel | 1.22 m × .9144 m × 4.27 m (4 ft 0 in × 3 ft 0 in × 14 ft 0 in) | Low speed: Scale model testing, Aerospace, Automotive, IR industry | San Luis Obispo, CA, USA | Startups, major Aerospace corporations and other scientific equipment tested here. Rolling road implementation in progress. | |
Calspan Wind Tunnel | Operational | 2.44 m × 2.44 m (8 ft 0 in × 8 ft 0 in) | Subsonic / Transonic | Buffalo, New York, USA | The only independently owned and operated wind tunnel in the United States. |
Central Aerohydrodynamic Institute: T-1 | 3 m (9.8 ft) diameter x 6 m (20 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-2 | 6 m (20 ft) diameter x 14 m (46 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-5 | 2.25 m (7 ft 5 in) diameter x 3.15 m (10 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-101 | 24 m × 14 m × 24 m (79 ft × 46 ft × 79 ft)[3] | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-102 | 4 m × 2.33 m × 4 m (13 ft × 7.6 ft × 13 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-103 | 4 m × 2.33 m × 3.8 m (13 ft × 7.6 ft × 12 ft) (elliptical) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-104 | 7 m (23 ft) diameter | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-105 | 4.5 m (15 ft) diameter x 7.5 m (25 ft)[4] | Vertical | Zhukovsky, Russia | ||
Central Aerohydrodynamic Institute: T-106 | 2.7 m (8 ft 10 in) diameter x 3.5 m (11 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-107 | 2.48 m (8 ft 2 in) diameter x 4.85 m (16 ft) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-109 | 2.5 m × 2.5 m × 5.5 m (8 ft 2 in × 8 ft 2 in × 18 ft 1 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-112 | .6 m × .6 m × 2.55 m (2 ft 0 in × 2 ft 0 in × 8 ft 4 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-113 | .6 m × .6 m × 1.9 m (2 ft 0 in × 2 ft 0 in × 6 ft 3 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-116 | 1 m × 1 m × 2.35 m (3 ft 3 in × 3 ft 3 in × 7 ft 9 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-117 | 2.5 m × 2.4 m × 1.9 m (8 ft 2 in × 7 ft 10 in × 6 ft 3 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-113 | .6 m × .6 m × 1.9 m (2 ft 0 in × 2 ft 0 in × 6 ft 3 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-124 | 1 m × 1 m × 4 m (3 ft 3 in × 3 ft 3 in × 13 ft 1 in) | Zhukovsky, Russia | |||
Central Aerohydrodynamic Institute: T-128 | 2.75 m × 2.75 m × 12 m (9 ft 0 in × 9 ft 0 in × 39 ft 4 in) | Zhukovsky, Russia | |||
CRIACIV Boundary Layer Wind Tunnel - University of Florence | Operational |
|
Building, bridges, general purpose | Prato - Italy | Closed circuit wind tunnel, T-shaped diffuser, one atmospheric test section (max speed 31 m/s). |
CSTB Jules Verne Wind Tunnel | operational | Automotive, Rail, Full scale general purpose | CSTB Nantes, France | Three test sections with wind speeds up to 280 km/h | |
EDITH supersonic wind tunnel (Experimental plateform FAST) | operational | 1.2 m (3 ft 11 in) diameter x 1.7 m (5 ft 7 in) | Long shot time running (20 minutes). | Laboratoire ICARE, CNRS, Orleans, FRANCE | Fundamental research on shock waves. Aerodynamic and aerothermal behavior of probes and models. Fluidic thrust vectoring of supersonic nozzle |
European transonic wind tunnel | 2 m × 2.4 m × 9 m (6 ft 7 in × 7 ft 10 in × 29 ft 6 in) | Transonic | Cologne, Germany | ||
Glenn L. Martin Wind Tunnel | 2.36 m × 3.35 m (7 ft 9 in × 11 ft 0 in) | Low speed: scale model testing, automotive, aerospace | University of Maryland, College Park, Maryland, USA | ||
GVPM | Operational |
|
Building, bridges, rail, aeronautical, general purpose | Milano - Italy | Vertically arranged closed circuit wind tunnel with two test sections: one atmospheric (max speed 16 m/s), one aeronautical (max speed 55 m/s) with possibility to test with open / closed jet. |
Large Amplitude Multi-Purpose (LAMP) Vertical Wind Tunnel Bihrle Applied Research | Operational | 3.05 m (10 ft) diameter | Vertical, Subsonic, High AOA, Static or body-axis oscillatory | Neuburg a.d. Donau, Germany | Privately owned wind tunnel. +- 180 Degree AOA and +-90 Degree Sideslip. Diverse testing capability: static, wind body axis dynamic, Multi-body axis dynamic, simultaneous force moment and pressure data acquisition. |
Large Wind Tunnel Emmen (LWTE) | Operational | 7.0 m × 5.0 m × 15.0 m (23 ft × 16 ft × 49 ft) | Low speed aerospace, full scale automotive and general purpose | Emmen, Switzerland | |
MARHy wind tunnel(Experimental plateform FAST) | operational | 5 m (16 ft) diameter x 2.5 m (8 ft 2 in) | Hypersonic/supersonic rarefied wind tunnel. No limit running time. Reynolds number /cm: 26.3 < Re < 7522;Mach number: 0.8 < Mach < 20 | Laboratoire ICARE, CNRS, Orleans, FRANCE | Fundamental and applied research of fluid dynamic phenomena in rarefied compressible flows. Aerodynamic and aerothermal behavior of probes and models;Plasma flow control in rarefied and super/hypersonic flows. |
Modine Wind Tunnels |
|
Racine, Wisconsin, USA | Climatic wind tunnel testing, large truck and automotive | ||
NASA Ames 7×10 foot Wind Tunnel (operated by the US Army) | 2.13 m × 3.05 m (7 ft 0 in × 10 ft 0 in) | Mountain View, California, USA | |||
NASA Ames Hypersonic Propulsion Integration 16 Inch Shock | .41 m (1 ft 4 in) diameter | Hypersonic propulsion | Mountain View, CA, USA | ||
NASA Ames Hypersonic Propulsion Integration Direct-Connect | Hypersonic propulsion | Mountain View, CA, USA | |||
NASA Ames National Full Scale Aerodynamic Complex (operated by the US Air Force) |
|
Subsonic | Mountain View, California, USA | Largest wind tunnel in the world | |
NASA Ames Subsonic 12 Foot High-Rn Pressure | 3.66 m (12 ft) diameter | Subsonic | Mountain View, CA, USA | ||
NASA Ames Supersonic 9×7 Foot High-Rn | 2.74 m × 2.13 m (9 ft 0 in × 7 ft 0 in) | Supersonic | Mountain View, CA, USA | ||
NASA Ames Transonic 11 Foot High-Rn | 3.35 m (11 ft) diameter | Transonic | Mountain View, CA, USA | ||
NASA Ames Unitary Plan Wind Tunnel | Mountain View, CA, USA | ||||
NASA Glenn Hypersonic Test Facility | Hypersonic | Sandusky, Ohio, USA | |||
NASA Glenn 10- by 10-Foot Abe Silverstein Supersonic Wind Tunnel | 3.05 m × 3.05 m (10 ft × 10 ft) | Supersonic | Cleveland, OH, USA | ||
NASA Glenn 9- by 15-Foot Wind Tunnel | 2.74 m × 4.57 m (9 ft 0 in × 15 ft 0 in) | Subsonic | Cleveland, OH, USA | ||
NASA Glenn 8- by 6-Foot Wind Tunnel | 2.44 m × 1.83 m (8 ft 0 in × 6 ft 0 in) | Transonic | Cleveland, OH, USA | ||
NASA Glenn Aero-Acoustic Propulsion Laboratory Nozzle Aeroacoustic Test Rig | 1.300 m (4 ft 3 in) diameter | Acoustic testing of exhaust nozzles, subsonic | Cleveland, OH, USA | Free-jet | |
NASA Glenn Engine Components Research Lab | Cleveland, OH, USA | ||||
NASA Glenn Icing Research Tunnel | Subsonic Icing | Cleveland, OH, USA | |||
NASA Glenn Propulsion Systems Laboratory | active | Full-Scale Engine Testing | Cleveland, OH, USA | Four test cells: 1 & 2 demolished; 3 & 4 active. Cell 3 has icing capabilities | |
NASA Langley 30-by-60-Foot Full-Scale Wind Tunnel | demolished | 9.144 m × 18.288 m (30 ft × 60 ft) | Full-scale aircraft | Hampton, Virginia, USA | NASA's oldest operating wind tunnel until its closing in October 1995 |
NASA Langley Eight-Foot High Speed Tunnel | 2.44 m (8 ft 0 in) diameter | High speed | Hampton, Virginia, USA | ||
NASA Langley Hypersonic 20 Inch Mach 6 Air | .508 m (1 ft 8 in) diameter | Hypersonic | Hampton, VA | ||
NASA Langley Hypersonic 31 Inch Mach 10 Air | .78 m (2 ft 7 in) diameter | Hypersonic | Hampton, VA, USA | ||
NASA Langley Hypersonic 20 Inch Mach 6 Tetrafluoromethane | Demolished in 2016[10] | .508 m (1 ft 8.0 in) diameter | Hypersonic | Hampton, VA, USA | |
NASA Langley Hypersonic Propulsion Integration 8 Foot High-Temperature Tunnel | 2.44 m (8 ft 0 in) diameter | Hypersonic, high-temperature | Hampton, VA, USA | ||
NASA Langley Hypersonic Propulsion Integration Arc-Heated Scramjet | Hypersonic | Hampton, VA, USA | |||
NASA Langley Hypersonic Propulsion Integration Combustion Scramjet | Hypersonic | Hampton, VA, USA | |||
NASA Langley Hypersonic Propulsion Integration Supersonic Combustion | Hypersonic | Hampton, VA | |||
NASA Langley Hypersonic Propulsion Integration 15 Inch Mach 6 High-Temperature Tunnel | .381 m (1 ft 3 in) diameter | Hypersonic | Hampton, VA, USA | ||
NASA Langley Subsonic 12 Foot Atmospheric Lab | 3.66 m (12 ft) diameter | Subsonic atmospheric | Hampton, VA, USA | ||
NASA Langley Subsonic 20 Foot Vertical Spin Tunnel | 6.10 m (20 ft) diameter | Subsonic vertical spin | Hampton, VA, USA | ||
NASA Langley Subsonic 14×22 foot Atmospheric | 4.27 m × 6.71 m (14 ft × 22 ft) | Subsonic atmospheric | Hampton, VA, USA | ||
NASA Langley Subsonic Low-Turbulence Pressure Tunnel | Subsonic low-turbulence | Hampton, VA, USA | |||
NASA Langley Supersonic High-Rn | Supersonic | Hampton, VA, USA | |||
NASA Langley High-Rn Transonic Dynamics Tunnel | Operational | 4.88 m × 4.88 m (16 ft × 16 ft) | Aeroelasticity, high-risk testing, active controls, rotorcraft performance and stability, transonic aerodynamics. | Hampton, VA, USA | Unique capability to manipulate fluid-structure scaling parameters with use of Heavy-Gas (R-134a) or air as a test medium and variable pressure.[11] Good flow quality for large transonic tunnel (Mach 0–1.2)[12] |
NASA Langley Transonic 16 Foot Atmospheric | 4.88 m (16 ft) | Transonic atmospheric | Hampton, VA, USA | ||
NASA Langley National Transonic Facility | Transonic | Hampton, VA, USA | |||
NASA Langley NASA/GASL HYPULSE Propulsion Integration | Hampton, VA, USA | ||||
ONERA Modane wind tunnel | Operational | 8 m (26 ft) diameter x 14 m (46 ft)[13] | Subsonic atmospheric | ONERA Modane, France | Largest continuous blow-down wind tunnel in the world, Mach 0.05 to 1.[14] |
PHEDRA (Experimental plateform FAST) | operational | 4.5 m (15 ft) diameter x 2.1 m (6 ft 11 in) | Supersonic high enthalpy rarefied wind tunnel. No limit running time . Averaged enthalpy, Mj/kg: few < Ho < 50; Mach number: 2 < Mach < 8;Working gas: N2, Air, CO2, CH4, Ar and extensive mixtures | Laboratoire ICARE, CNRS, Orleans, FRANCE | Fundamental research of high enthalpy fluid dynamic phenomena in non-equilibrium flows. Aerodynamic and aerothermal behavior of probes and models; Atmospheric entry research. |
Poul la Cour Tunnel (PLCT) | operational | 3.0 m × 2.0 m (9.8 ft × 6.6 ft) | Airfoil aerodynamics and aeroacoustics, 10 to 105 m/s, Re~7M | DTU Wind Energy, Roskilde, Denmark | |
RWDI Wind Tunnels | operational |
|
Wind engineering, scale buildings | Guelph, Ontario, Canada | Two wind tunnels |
San Diego Wind Tunnel | San Diego, CA, USA | Major airframers, bicycle manufacturers and professional athletes | |||
Texas A&M Oran W. Nicks Low Speed Wind Tunnel | 3.66 m × 3.05 m × 2.13 m (12 ft × 10 ft × 7.0 ft) | Scale aircraft, UAV, rocket, missile, academic research, automotive, motorsport, cycling, skiing, architectural, transit, truck, product development 0-200MPH | Texas A&M University, College Station, TX, USA | ||
TitanX Jamestown Vehicle Climatic Wind Tunnel | 3.0 m × 3.5 m (9.8 ft × 11 ft) | Climatic testing of vehicle systems and entire trucks | Jamestown, NY, USA | Open for external clients | |
Trisonic wind tunnel | El Segundo, California, USA | ||||
University of British Columbia Boundary Layer Wind Tunnel | 2.5 m × 1.6 m × 23.6 m (8 ft 2 in × 5 ft 3 in × 77 ft 5 in) | Boundary layer, architectural, and wind-engineering studies | Vancouver, BC, Canada | Speed Range: 3 m/s to 20 m/s | |
University of British Columbia Parkinson Wind Tunnel | 1.0 m × 0.7 m × 2.6 m (3 ft 3 in × 2 ft 4 in × 8 ft 6 in) | Aeronautical research, studies of flow-induced oscillations, studies of wind tunnel blockage effects | Vancouver, BC, Canada | Speed Range: 5 m/s to 35 m/s | |
University of Washington Aeronautical Laboratory ("UWAL"), Kirsten Wind Tunnel | 2.44 m × 3.66 m (8 ft 0 in × 12 ft 0 in) | Subsonic | Seattle, WA, USA | ||
University of Washington Dept. of Aero&Astro 3X3 | 1.097 m × 1.097 m (3 ft 7 in × 3 ft 7 in) | Velocity range approx. 20 to 135 mph | Seattle, WA, USA | The original "Boeing Aerodynamical Chamber", built in 1918 with an Eiffel 4 ft by 4 ft and updated in the early 1990s with new power systems and a higher velocity EDL 3 ft by 3 ft | |
Variable Density Tunnel | Variable density | Hampton, Virginia, USA | |||
Virginia Tech Stability Wind Tunnel | 1.83 m × 1.83 m (6 ft 0 in × 6 ft 0 in) | Blacksburg, Virginia | |||
Williams F1 Wind Tunnel 2 | Operational | 4.4 m x 2.5 m x 12 m | Motorsport / Automotive | Oxfordshire, UK | |
Wind Shear's Full Scale, Rolling Road, Automotive Wind Tunnel | Wind shear | Concord, NC, USA | |||
Boundary Layer and Subsonic Wind Tunnel (BLAST) at University of Texas at Dallas | Operational | Boundary Layer Test Section:2.8 m (W) x 2.1 m (H) x 30 m (L)
Subsonic Test Section: 2.1 m (W) x 2.1 m (H) x 4 m (L)[16] |
Boundary Layer Development / Low-Speed / Subsonic / General Purpose | Richardson, TX, USA | |
ODTÜ-RÜZGEM Large Scale Wind Tunnel at The Middle East Technical University (METU) | Operational | High Speed Test Section: 2.5 m (W) x 2.5 m (H) x 10 m (L)
Boundary Layer Test Section: 7 m (W) x 3 m (H) x 20 m (L) Open Jet: 3 m equivalent diameter octagonal jet |
Wind energy, aeronautics, civil engineering | Ankara, Turkey | High Speed Test Section: Max speed 100 m/s, TI<0.25%
Boundary Layer Test Section: Max speed 30 m/s with spires and roughness elements Open Jet: Max speed 75 m/s Interchangeable modular test sections, 6x400 kW axial fan array, 750 kW heat exchanger |
References
- ↑ "Transonic Wind Tunnel Testing". www.ara.co.uk. Aircraft Research Association. Retrieved 14 September 2019.
- ↑ "Boeing: Wind Tunnels and Propulsion Testing Services". www.boeing.com. Retrieved 2017-11-21.
- ↑ "Wind tunnel T-101 - Experimental base - TsAGI".
- ↑ "Wind tunnel T-105 - Experimental base - TsAGI".
- ↑ "JULES VERNE CLIMATIC WIND TUNNEL". CSTB. 2017-10-02.
- ↑ "JULES VERNE CLIMATIC WIND TUNNEL". CSTB. 2017-10-02.
- ↑ "CSTB Atmospheric Wind Tunnels". CSTB. 2017-10-02.
- ↑ "NASA Langley's 30-by-60-Foot Tunnel". nasa.gov. National Aeronautics and Space Administration. Retrieved 10 February 2018.
- ↑ "8-Foot High Speed Tunnel". nasa.gov. National Aeronautics and Space Administration. 3 February 2016. Retrieved 10 February 2018.
- ↑ Dietrich, Tamara. "NASA Langley dismantles wind tunnel, part of Columbia disaster probe". dailypress.com. Retrieved 2018-07-24.
- ↑ Ivanco, Thomas G. (2013-06-24). "Unique Testing Capabilities of the NASA Langley Transonic Dynamics Tunnel, an Exercise in Aeroelastic Scaling". AIAA Ground Testing Conference. Fluid Dynamics and Co-located Conferences. San Diego, CA: American Institute of Aeronautics and Astronautics. doi:10.2514/6.2013-2625. hdl:2060/20140000340.
- ↑ ARNOLD ENGINEERING DEVELOPMENT CENTER ARNOLD AFS TN Whitfield, Jack D. Dougherty, Jr, N. S. (July 1977). A Survey of Transition Research at AEDC. OCLC 832032113.
{{cite book}}
: CS1 maint: multiple names: authors list (link) - ↑ "ONERA MODANE WIND TUNNEL". ONERA. 2017-11-16.
- ↑ "ONERA MODANE WIND TUNNEL". ONERA. 2017-11-16.
- ↑ "Our New State-of-the-Art Facility". RWDI. 2016-12-02.
- ↑ "Technical Specification | Boundary Layer and Subsonic Wind Tunnel (BLAST)". blast.utdallas.edu. Retrieved 2022-06-23.
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