Title :
Modeling and simulation for Sensor Craft multi-mission radar
Author :
Genello, Gerard I. ; Baldygo, William J., Jr. ; Callahan, Michael J.
Author_Institution :
Radar Signal Process. Branch, Air Force Res. Lab., Rome, NY, USA
Abstract :
The objective of this paper is to review the tools available for modeling and simulating the Sensor Craft radar system concept and assess the challenging role and potential for STAP processing to support its intended missions in severe clutter. Airborne surveillance radar systems such as those proposed for Sensor Craft, will operate in a severe and dynamic interference environment. This interference is a sum of clutter, electronic counter measures (ECM), electromagnetic interference (EMI), and noise. The ability to detect weak airborne and ground targets requires the suppression of interference in real time. STAP techniques offer the promise of superior interference suppression capability. Extensive research into STAP for the AMTI mission, i.e. high radial velocity targets competing with clutter from the antenna sidelobes, has proven its superiority over non-adaptive techniques. Looking to the future, the advantages of STAP for the AMTI mission needs to be extended to GMTI, i.e., slow targets competing with clutter from the antenna main beam
Keywords :
airborne radar; electronic countermeasures; interference suppression; military radar; radar clutter; search radar; space-time adaptive processing; AMTI mission; STAP processing; Sensor Craft multi-mission radar; airborne surveillance radar systems; antenna sidelobes; dynamic interference environment; electromagnetic interference; electronic counter measures; interference suppression capability; radial velocity targets; severe clutter; Airborne radar; Counting circuits; Electromagnetic interference; Electromagnetic measurements; Electronic countermeasures; Interference suppression; Noise measurement; Radar clutter; Sensor systems; Surveillance;
Conference_Titel :
Aerospace Conference, 2001, IEEE Proceedings.
Conference_Location :
Big Sky, MT
Print_ISBN :
0-7803-6599-2
DOI :
10.1109/AERO.2001.931254