(Image courtesy of Lockheed Martin).

Doppler Radar To Fill Gaps in Missile Defense Systems

Sept. 24, 2015
Lockheed Martin has entered into an agreement with Weibel Scientific to develop continuous wave Doppler radars that fills gaps in ballistic missile defense systems.

Lockheed Martin will collaborate on radar with Weibel Scientific that fill gaps in ballistic missile defense systems, while being immune to interference from buildings and other large obstacles.

The companies plan to design the gap-filling tracking radar so that it can continuously transmit and receive ultrasound waves. That will enable the radar system to measure the velocity and position of ballistic missiles in real-time. 

The GFTR system is still in development and few details have been released. But it will probably share technology used in Weibel's continuous wave Doppler radar, which contain multiple receivers and advanced signal processing to calculate location. Typically, CW Doppler radar usually only provides an object's velocity.

Weibel's multi-frequency surveillance and tracking radars include phased-array antennas, beam-shaping transmitters, and multi-beam receivers to target moving objects at distances further than 1,000 km. The GFTR system will be designed, developed, and tested at Weibel's facilities in Denmark, with Lockheed providing support from its development site in New Jersey.

Over the years, Weibel has had several contracts with the U.S. Department of Defense. In 2012, the company was received a $36-million order of 1,995 Doppler radars for missile defense applications. Weibel's multi-frequency tracking radars have also been used by NASA to track debris during rocket launches.

Sponsored Recommendations

UHF to mmWave Cavity Filter Solutions

April 12, 2024
Cavity filters achieve much higher Q, steeper rejection skirts, and higher power handling than other filter technologies, such as ceramic resonator filters, and are utilized where...

Wideband MMIC Variable Gain Amplifier

April 12, 2024
The PVGA-273+ low noise, variable gain MMIC amplifier features an NF of 2.6 dB, 13.9 dB gain, +15 dBm P1dB, and +29 dBm OIP3. This VGA affords a gain control range of 30 dB with...

Fast-Switching GaAs Switches Are a High-Performance, Low-Cost Alternative to SOI

April 12, 2024
While many MMIC switch designs have gravitated toward Silicon-on-Insulator (SOI) technology due to its ability to achieve fast switching, high power handling and wide bandwidths...

Request a free Micro 3D Printed sample part

April 11, 2024
The best way to understand the part quality we can achieve is by seeing it first-hand. Request a free 3D printed high-precision sample part.