Mezzanine processors offer the system designer considerable flexibility to add powerful processing capabilities in industry-recognized rugged COTS formats.

Ethernet has grown to become a universal networking technology, to meet the need for higher performance, many embedded systems now use “backplane Ethernet” to communicate between cards in modular systems.

As the next generation of embedded defense systems becomes even more complex with more computation power, memory, data, and speed, the problem of designing effective fault-tolerant systems also becomes more difficult. Learn more in this paper!

The increasing speed requirements for DCCs to handle more significant volumes of data and higher channels densities have meant the DDC function has migrated into the domain of FPGAs, saving space while providing greater flexibility.

This white paper discusses the factors driving trends in moving from 6U rugged deployed systems to 3U based systems and looks at solutions for addressing the challenges.

Today, data acquisition chassis need to be mounted in locations that are small, inaccessible and subject to harsh environmental conditions. Read about how such systems can be designed.

Rotorcraft experience some unique phenomena because of how they operate and these can affect the accuracy of pressure measurements. Certain solutions help alleviate these issues.

GPUs are exiting the sandbox and on their way to being accepted as a mainstay building block in the heterogeneous collection of deployable processing technologies. Read this free white paper to learn more.

This paper explores the role of High-Performance Computing (HPC) tools in the embedded market, speeding delivery time while decreasing costs. We look at the power of combining HPC tools such as cluster managers, debugger and profilers, and mapping.

This paper describes how SAR processing was accelerated by 39 to 46 times faster than a single core of an Intel Core i7 CPU running at 3.6GHz. It introduces two major innovations that help meet these SWaP-C requirements.

This white paper describes how high-performance embedded computing (HPEC) brings supercomputing processing power to defense and aerospace applications including radar, sigint, and image processing systems.

Modern-day processors for imaging, radar, and other sensors are complex systems each unique with diverse processing requirements per company, platform, sensor, and application.