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.

Like humans, machines learn from experience. They make observations from inputs of images, text, or other data, and then look for patterns. After the machine runs through the mathematical layers, it learns to make better decisions based on the examples it was given.

The magic of tensors comes from their special transformational properties that enable them to describe the same physics in all reference frames.

This column will focus on frameworks that work with NVIDIA’s TensorRT, a tool for deploying high-­performance deep neural networks.

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.

Curtiss-Wright will highlight a wide range of its products designed and manufactured at its Ottawa and Mississauga facilities.

Curtiss-Wright is working with NASA and aerospace leaders to return Americans to the Moon and send astronauts to Mars in the early 2030s