Military-display designers continue to face stringent size, weight, power, and cost (SWaP-C) constraints while integrating commercial innovations like HD – and soon 4K – into systems that must work with legacy sensors and interfaces while also complying with a variety of open architectures and standards.

Today’s modern warfighters have grown up with smartphones and tablets with intuitive, multitouch projected capacitive (PCAP) touch screens. They rely heavily on these devices in their personal lives and they expect to have access to the same capabilities and conveniences in the field.

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.

The fast growth of small satellites and their lower life cycle and launch costs has created a sizable market for low-cost electronic components that have radiation-resistant characteristics.

The risk of failure for avionics equipment on-board spacecraft due to radiation exposure is a critical issue for launchers, re-entry vehicles, space habitats and satellites

Introducing the Smart Backplane subsystem (KAM/CSB/12U), a rugged multi-slot chassis designed specifically for data acquisition, data processing, and recording in radiation-intensive space environments.

Kevin Rooney discusses common issues such as waterproofing, operating in extended temperature ranges, readability challenges, and glare with rugged LCD mission displaying.