Mercury is redefining how Synthetic Aperture Radar (SAR) systems are tested. In a recent interview with Aerospace & Defense Technology Magazine (SAE Media Group), Michael Goff, Senior Principal Scientist at Mercury, shares how our ARES-SAR simulator can replicate high-resolution ground returns and moving targets without costly and complex flight testing. Powered by advanced DRFM and real-time simulation software, it enables testing of advanced radar modes like GMTI and ATR, right from the lab.
Recommended
Webinar: New Technologies Driving Military Radar
Device, module and test/measurement experts will discuss and debate future trends in military radar technology such as high voltage GaN, AI/ML in radar, cognitive radar, DRFM developments etc.
Learn about critical technology for next-gen army vehicle autonomous driving, navigation and advanced teaming capabilities, key computing architectures such as GCIA / CMFF, & security / anti-tamper.
Article: Inside Story: U.S. Army’s Next-Generation LTAMDS Radar System
Inside Track Story highlighting the U.S. Army's LTAMDS radar and Mercury's processing subsystems that will perform signal processing, beamforming, and ethernet switching on LTAMDS.
SIGNAL Executive Video: Expanding EW/Countermeasure System Capability With Direct RF
In this interview, Bob Sgandurra, Director of Product Management at Mercury Systems, discusses the advancements in Direct RF data converters, system requirements and design engineering.
DRFM-based radar environment simulators and radar target generators are efficient, cost-effective solutions to methods validating radar systems and electromagnetic environment combat pilot training.
Case Study: Training for Electronic Warfare: Rapid Modernization of Training Systems for Today's Jamming Threats
Case study on portable jamming training system for radar and communications operators for electronic warfare.
Article: Direct RF Converters and FPGAs Boost Electronic Warfare Applications
Emerging FPGA architectures combine advanced RF converters and high-performance processing engines in a single package. Learn how to apply these devices to increase the effectiveness of EW systems.
White Paper: The Need for Direct RF in an Evolving Defense Environment
This white paper describes next generation direct RF to redefine what’s possible in radar and software radio, from jamming to electronic intelligence to significant bandwidth performance.
Case Study: Securing Electronic Warfare (EW) Systems with state-of-the-art semiconductor technology
Learn how Mercury helped a leading A&D customer secure electronic warfare (EW) systems and simplify computing architecture with state-of-the-art, Direct RF, multi-chip module (MCM) technology.
8:09Vodcast: Discussing EW trends and emerging capabilities
Ahead of Mercury’s attendance at the 59th Annual #AOC International Symposium, the MercuryNOW vodcast team met with Dr. Bill Conley, #Mercury CTO and chair of the 2022 Symposium, to discuss the latest
One platform, many solutions – from silicon to systems
For the U.S. and its allies, there’s a trusted technology company working in lockstep with the defense systems pioneers, avionics visionaries and new technology futurists to develop...
White Paper: COTS Software Defined Radio for 5G Development
COTS Software Defined Radio for 5G Development
White Paper: Processing Evolution for the Future Electronic Battlespace
Electronic battlefield complexity is a growing challenge. New, more sophisticated RF processing capabilities must be rapidly developed and deployed to operate successfully in contested environments.
Electronic warfare systems demand multifunctionality and integration in RF and microwave designs
Radio frequency (RF) and microwave technology used in the military is everevolving and necessarily acclimating to the congested digital battlefield...
White Paper: Rappid; an app-ready, spectrum processing platform
Rappid: A modular, application-ready spectrum processing platform
Article: EverythingRF Interview with Rodger H. Hosking from Mercury Systems
Hosking discusses how Mercury’s innovations from direct RF digitization to advanced SoM platforms—are enabling real-time AI/ML, reducing SWaP-C, and accelerating mission success at the tactical edge.