Taken to the extreme, today’s high-end graphics processors (GPUs) can execute thousands of simultaneous operations, which is fundamental for highly parallel 3D visualizations and complex AI [artificial intelligence] processing tasks.

New and efficient approaches to cabinet and console design, fabrication, integration, and qualification are enabling prime defense contractors to quickly equip the U.S. Navy with better electronics technology and enclosures while increasing return on investment.

Power, reliability and real-time computing capabilities are just some of the advantages of using multicore processors.

The latest high-performance embedded computing image and video processors rely heavily on general-purpose graphics processing units (GPGPUs) to capture as much detail as possible.

Through-armor video systems provide in-vehicle crews of manned and remote crews of unmanned ground vehicles with critical visibility and situational awareness. This vital visual information needs to be accessible as close to real-time as possible.

What are the benefits of using a modular open systems approach to upgrade legacy military electronics systems?

Military-display designers continue to face stringent size, weight, power, and cost (SWaP-C) constraints while integrating commercial innovations like HD – and soon 4K – into systems that must work with legacy sensors and interfaces while also complying with a variety of open architectures and standards.

Awards are in three tiers -- ranging from platinum, the highest, to the gold awards, and finally to the silver awards.