Naval warfare demands seamless, real-time data sharing across multiple platforms, from aircraft to surface ships to submarines. As conflicts become increasingly complex and fast-paced, the key to winning lies in the ability to communicate critical data in real time.

Modular open system approach (MOSA) strategies such as the Future Airborne Capability Environment (FACE) Technical Standard are changing how the Department of Defense acquires technology. In this podcast with Tim Reed, Chief Executive Officer for Lynx Software Technologies, he and I discuss how MOSA benefits the warfighter and what it means to be certified conformant other the FACE Technical Standard.

Designers of test and measurement systems for military applications such as radar and electronic warfare (EW) are stepping up to use artificial intelligence (AI) solutions to enable better testing of cognitive functionality. Meanwhile, modern digital architecture adoption is driving military test requirements.

Walking through the corridors of the Tampa Convention Center at SOF Week earlier this year, you couldn’t escape the palpable buzz of innovation. This annual gathering serves as a launchpad for technologies that could potentially shape the future of U.S. Special Operations Command (USSOCOM) and other governmental bodies.

The pace at which technology is ramping up, including in the military electronics and implements arena, is forcing the defense and aerospace industry to increase its adoption of new tech and parts. Such advances in pace and adoption does expose companies to more risk, but the military supply chain is not alone in this dilemma.

FirePoint Innovations – a partnership between Wichita State University (WSU) and the U.S. Army’s Combat Capabilities Development Command, Aviation and Missile Center (DEVCOM, AvMC) – recently cut the ribbon on its Applied Innovation Center (AIC) in Huntsville, Alabama.

This new whitepaper explore the use of a high speed Ethernet RDMA interconnect between a GPU system and NVMe based storage system. Combined with Critical I/O’s StoreEngine and StorePak NVMe 3U VPX modules and built-in recording software, this approach moves data directly to and from GPU memory with high efficiency and ultra-low latency.

Millimeter wave scanners are superior to traditional metal detectors because they can identify and locate both metallic and nonmetallic threats. This article describes how mmWave imaging hardware works and will present a chipset that uses edge processing to manage massive data loads to enable the development of walkthrough security scanning systems.