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.

One way to take optimal advantage of the increased performance of the NVMe storage devices is to use an NVMe-based in-line hardware encryptor.

Much of the innovation in high-performance embedded computing starts with microprocessors.

Trying to strike a balance between power and security with data-at-rest in the field – and doing it all within a highly constrained space in an environment with dirt and moisture that threatens to damage expensive equipment – is a tall order indeed.

Designed with Intel® Xeon® D processor architecture, Curtiss-Wright's CHAMP-XD1 processor card is ideally suited for compute-intensive aerospace and defense applications, meeting the high performance, reliability, and security standards these industries require.

Optimized for performance, speed, security, and SWaP, Curtiss-Wright CHAMP-XD1 processor cards leverage Intel® Xeon® D processor architecture to meet the high demands of modern defense missions.

Telemetry data from military flight tests often needs to be secured, not only when at rest, but also while in motion across a network or a telemetry link.

Today, increasing demand for functionality in modern aircraft is driving a critical need for virtualized avionics systems that combine separate capabilities into a single ruggedized and compact computer.