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.

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.

These days, program managers are trying to figure out how best to mitigate the potentially harmful effects of supply-chain disruption, while protecting their customer’s program schedule and supporting the warfighter.

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.

The “big data problem” – too much raw data coming too fast over too many channels – remains sizable in both the defense arena and in the commercial realm, but currently entities from both sides are making consistent efforts to chip away at it.

A re-evaluation of hypersonic weapons and vehicles is prompting investment and innovation in test instrumentation and data acquisition.

From intelligence surveillance reconnaissance sensors, video, and other proliferating sources, data just keeps growing. How can you store it and how do you keep it safe?

In order to keep up with the continued acceleration of new technology and to be able to protect the warfighter from the latest threats, it is essential that we can turn our deployed platforms into adaptable entities that can evolve over time and are not static. The SOSA [Sensor Open Systems Architecture] Technical Standard is the next major step in realizing this goal.