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SPARCLE
Announcement.
SPARCLE Partners
MACAWS (Aircraft Lidar Experiment)
SPARCLE Homepage
GHCC Homepage
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Spinoff Applications
for Coherent LIDAR |
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Space-Based:
- Global profiling of wind velocity, aerosol concentrations, and DIAL
measurements of water vapor and other molecular concentrations. Cloud frequency
and characteristics
- Global change research - model inputs and validation
- Numerical weather prediction - safety and fuel savings for air and
sea transportation, prevention of severe weather related loss of life and
property, agriculture assistance, military planning and logistics
- Wind profiling of Mars and other solar system bodies from orbiting
or surface platforms
- Spacecraft automated rendezvous, stand off operations, docking, and
capture
- River flow, height, and width measurements
- Pollution - study, abatement strategies, and enforcement
- Nuclear weapons - nonproliferation monitoring and treaty enforcement
- Remote sensing missions to other planets
Aircraft-Based:
- Take-off and landing: wind shear and wake vortex detection; clear air
turbulence warning
- Cruising: route optimization for fuel efficiency, true airspeed, angle
of attack, and sideslip angle measurement
- Collision Avoidance
- Volcanic ash detection and avoidance (using polarization)
- Taxi way obstacle detection and avoidance
- "Ground truth" measurements for orbiting instruments
- Flight Testing
- High speed commercial aircraft: inlet unstart warning and control
Ship-based
- Route optimization for fuel efficiency
Ground-Based:
- Miscellaneous:
- River flow, height, and width measurement
- Wind profiling for improved shuttle launch and landing safety
- Wind profiling for ELV launch optimization
- Wind field mapping to study effects of orographic features on planned
or existing structures
- Wind field mapping for optimum siting of energy producing windmills
- Meteorological data acquisition
- Laboratory research lasers
- "Ground truth" measurements for orbiting instruments
- Airport
- Airport monitoring of wind turbulance, wind shear, and wake vortices
- Automotive
- Improved law enforcement monitoring of vehicle speed and location
- Velocity and range remote sensing for collision avoidance
- Doppler, range, reflectance imaging for automatic vehicle guidance
- Wind mapping for coefficient of drag reduction research
- Remote measurement of exhaust flow rate and composition
- Fuel and coolant flow rate measurement
- High speed motion measurement of engine components
- Medical:
- Non-invasive blood flow rate monitoring in arteries, veins, retinas,
etc.
- Non-invasive Doppler imaging of internal organs
- Diagnostics during surgery
- Pollution Abatement:
- "Over the fence" pollution monitoring
- Mass flow rate measurement of high stack emissions
- Wind field mapping for pollution transport determination
- Military:
- Wind measurements for improved targeting for military ordnance, and
for parachute dropped personnel and supplies
- Weapon fire control
- Rocket launch wind monitoring
- Improved weather prediction for planning and logistics
- Nuclear weapon nonproliferation monitoring
- Take-off and landing: wind shear and wake vortex detection; clear air
turbulence warning
- Cruising: route optimization for fuel efficiency, true airspeed, angle
of attack, and sideslip angle measurement
- Automatic Target Recognition (ATR)
- Identification, Friend or Foe (IFF)
Comments regarding our web service may be e-mailed to:
paul.meyer@msfc.nasa.gov
Responsible Official: Dr. James E. Arnold (jim.arnold@msfc.nasa.gov)
Page Curator: Diane Samuelson (diane.samuelson@msfc.nasa.gov)
Last Updated: July 8, 1998 |