This white paper highlights the challenges with video system architecture design by looking at a traditional system versus an ideal system solution.

Whether looking for a modular, SFF LRU or a scalable VPX system designed to meet your program requirements, Curtiss-Wright computing systems are built rugged to perform optimally in the harshest deployed environments on land, in the air, or at sea.

A company that was developing their own hypersonic vehicle for use as a technology test bed wanted a flight test instrumentation (FTI), recording, and transmission system.

Advancements in video system technology are helping warfighters quickly and easily assimilate mission-critical information and enhancing tactical situational awareness on the battlefield.

This white paper discusses the challenges faced by hypersonic vehicles and proposes how flight test instrumentation (FTI) can aid in overcoming the challenges.

In the third paper in our series, we cover additional features of the Dolphin PCIe Fabric Communications Library that help minimizes latency, maximize system bandwidth, and optimize configuration flexibility.

In this second white paper in our two-part series, we present several different software interfaces provided for applications development, comparing their advantages and tradeoffs. Finally, we present performance benchmarks using a variety of Curtiss-Wright.

We introduce the use of fabrics for high-performance embedded systems and focus on the hardware and architectural options available to the systems designer.

Ivan Straznicky and Luke Falconer look at the implementation of high-speed serial fabric signaling on VPX/OpenVPX platforms.

In this white paper, Tammy Carter explores the options available in choosing the right parallelization technique.

The modern battlefield requires real-time information, voice communication, video, and data to increase combat effectiveness and warfighter safety. This white paper looks at how rugged COTS displays can meet varied mission requirements.

High-performance GPUs combine with FPGA interface flexibility to provide increased programmability and versatility to the video capabilities of a mission display computer.