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

COTS suppliers have focused on increasing connectivity speeds within and between systems for decades, following the introduction of the VPX standard.

Curtiss-Wright data acquisition units capture critical test flight data on the SLS rocket boosters, core stage, upper stage and the Orion crew module

Vetronics systems today are increasingly focused on C4ISR [command, control, communications, computers, intelligence, surveillance, and reconnaissance], interoperability with other battlefield elements, and the capability to be optionally unmanned if necessary.

Curtiss-Wright provides the telemetry data system used on the Vega-C Launcher.

Boeing Orbital Flight Test-2 mission for Boeing’s CST-100 Starliner spacecraft supported by Curtiss-Wright data acquisition technology

The Curtiss-Wright AMMS has a high-speed embedded computing suite for high -performance processing, and a modular, scalable open-systems architecture.

Military experts are developing new enabling technologies to help unmanned aircraft, ground vehicles, submarines, and surface vessels swarm and make decisions without human intervention.

Curtiss-Wright data acquisition units support SLS test data collection goal

The wave of commercially developed communications and remote-sensing satellites seeks to balance costs, capability, size, weight, and power consumption in the latest new space designs.

Contested space, where nations compete for military dominance outside Earth’s atmosphere, is driving many military space platforms, but commercial space and small satellites continue to change the way the military suppliers of space electronics approach radiation-hardened component design from testing to deployment.

New GPGPU modules expand Curtiss-Wright’s family of high-performance embedded computing (HPEC) processors for artificial intelligence (AI) applications.