Aug. 29, 2013
/PRNewswire/ -- German Weather Service (DWD) has installed Lockheed Martin (NYSE: LMT) WindTracer
Doppler lidar systems at the
airports as part of the Low Level Wind Shear Alert System (LLWAS). Selex Systems Integration provided the LLWAS, which includes WindTracer lidar and weather radar.
By adding WindTracer lidar at the two largest airports in
, DWD takes a leading role in
, following International Civil Aviation Organization (ICAO) Recommendation to provide concise information on wind shear which could adversely affect aircraft on the approach or take-off path.
WindTracer monitors atmospheric conditions and measures wind speed and direction along airport flight paths. It complements radar by excelling in dry and clear weather conditions. By using WindTracer, Selex has developed
first radar and lidar operational integration for wind shear detection in all weather conditions.
WindTracer has been used worldwide for more than a decade to detect hazardous winds and aircraft wakes, providing improved safety for more than one million flights. The system successfully operates at airports in
is the third busiest airport, having handled 57.5 million passengers in 2012, according to Airports Council International, and
is the seventh busiest, accommodating over 38 million passengers in 2012.
"WindTracer represents an affordable wind shear detection system for customers around the globe. Combined with weather radar, the system gives the airport a comprehensive picture of wind hazards," said Dr.
, director of WindTracer Programs at Lockheed Martin. "As a result, the highest detection rate for wind hazards, in both dry and wet environments, is achieved."
WindTracer operates by transmitting pulses of eye-safe infrared laser light that reflect off naturally occurring aerosol particles in the atmosphere. Wind moves these particles, which alters the frequency of the light that is scattered back to the system. WindTracer processes the return signal and automatically detects hazardous winds to ensure operational safety during high-impact weather.