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| Rocket Sled Track
Facility
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U.S. Department of Energy and Sandia National Laboratories
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(Photographs courtesy of AFSEC Photometrics)
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Facility Overview |
Sandia National Laboratories' Rocket Sled Track Facility in Albuquerque, New Mexico, provides a controlled environment for high-velocity impact, aerodynamic, acceleration, and related testing of small and large test items. |

Projectiles just exiting the center of the fireball 3.2 ms after detonation during a 4,000 ft/s directed dispersal sled test |
Tests can be designed to simulate unique scenarios and to provide the maximum data from each test. The facility provides a 10,000-foot track for testing items at very high speeds and a 2,000-foot railroad gauge track for testing very large items. The combination of ingenuity, experience, and instrumentation available at this facility makes it unique for research, test, and evaluation purposes.
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InstrumentationThe Rocket Sled Track has exceptional instrumentation capabilities. The facility uses photometrics, laser trackers, telemetry, and hardwire systems to gather data from a variety of instruments and transducers. Time-space-position information (TSPI) can be acquired at up to 1 KHz with 1-foot accuracy, and transducer data may be sampled at up to 1 MHz. High-speed video, flash x-ray, and film cameras running 40,000 frames per second and higher are available. Hardened data recorders, for use on board sleds or test items, are also available for test purposes. |
Reverse Ballistic Testing
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Launch of Sprint-rocket-powered reverse ballistic sled |
Reverse ballistic testingaccelerating a target on a sled to impact a stationary test item at the end of the trackwas pioneered at the Rocket Sled Track. |
This method of testing allows transducers to be hardwired to the data acquisition system, which allows many channels of high-frequency data to be recorded.
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Parachute Testing
Parachutes for weapons, aircraft, and space vehicles can be tested through the use of tower and ejector sleds. TSPI data can be gathered via telemetry, high-speed photography, and Sandia's laser trackers. The large ejector sled can throw items weighing up to 2,400 pounds to 250 feet of altitude at speeds up to Mach 1.5. The small ejector sled can throw items weighing up to 100 pounds as high as 200 feet at speeds approaching Mach 3.
Acceleration Testing
The relationship between acceleration, velocity, and distance traveled by a test item can be simulated in a variety of ways. Positive and negative acceleration levels up to 100 g's are possible.
Aerodynamics Testing
Aerodynamic characteristicsas they relate to a test item's shape, acceleration, velocity, and distance traveledcan be evaluated in a variety of ways depending on evaluation goals. Onboard cameras and data recording systems are routinely used for this type of application.
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A rocket-assisted, full-size F-4 aircraft traveling at 700 ft/s impacts a 350-ton concrete abutment to test the strength of the concrete for use in a nuclear power facility |
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Free-Flight Rocket Testing
Small free-flight rockets can be designed to deliver payloads and munitions to altitudes and velocities not attainable with ejector sleds. Laser tracking and telemetry can be used to yield real-time trajectory data and high-speed video and film coverage of the flight.
Other Testing Capabilities
The Rocket Sled Facility is also certified to handle
- Items containing radioactive components
- Detonation of up to 250 pounds of high explosives
- Items classified to Top Secret
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