New Shadow electronic warfare runs on commercial chips to guard combat drones

BAE Systems has unveiled a new electronic warfare family aimed at giving small aircraft stronger protection in contested airspace. The Shadow EW family targets a growing need for compact systems that can fit space-constrained platforms. The new products focus on electronic sensing and self-protection without demanding the size, weight, or power of traditional systems. BAE Systems also designed them for rapid production, making larger-scale deployment more practical. The architecture uses commercially available microchips to support computing needs and simplify the supply chain. That approach could help BAE Systems produce systems faster as demand for affordable EW grows. Compact EW Small drones and other airborne systems increasingly operate near sophisticated electronic threats. Their limited payload capacity makes traditional EW equipment difficult to integrate. Shadow EW addresses that constraint with small, lightweight hardware designed around open architecture principles. The systems can also receive software updates after deployment. That software-defined approach gives operators another way to respond as adversaries change their electronic signatures and tactics. Hardware configurations can also adapt to different platforms and mission requirements. BAE Systems says the family can support both manned and unmanned aircraft. Its platform-agnostic design aims to preserve valuable payload capacity while adding radio-frequency capabilities. The systems can support several EW functions, including threat awareness, targeting, deception, and survivability. They can also participate in collaborative electronic effects across multiple platforms. Commercial chips drive scale BAE Systems is leaning on commercial components to make high-volume EW production more achievable. Commercial microchips can provide substantial computing performance without requiring specialized hardware for every configuration. The strategy also reduces dependence on highly customized components. That can simplify procurement and help manufacturers respond more quickly to changing production requirements. Production scalability sits at the center of Shadow EW’s design philosophy. BAE Systems plans to use established manufacturing methods to support larger orders and faster deliveries. That matters as the U.S. military explores more affordable ways to equip increasingly numerous autonomous and expendable systems. Electronic warfare capability becomes harder to scale when every platform requires an expensive bespoke solution. Software keeps EW adaptable Shadow EW separates much of the system’s adaptability from its physical hardware. Operators can configure capabilities around specific threats and platform architectures. Software updates provide another path for changing the system after deployment. That flexibility could prove important against adversaries that frequently modify their electronic warfare techniques. Rebecca Cruz, director of Shadow EW products at BAE Systems, said battlefield conditions are changing rapidly. She said even smaller platforms need adaptable electronic warfare protection. The family is designed around a configurable approach that lets customers select capabilities suited to individual missions. BAE Systems describes the result as an affordable Electronic Warfare option built for broader fielding. The company has not disclosed specific performance figures for individual Shadow EW variants. Details such as detection ranges, frequency coverage, power consumption, and platform integration options remain limited.The engineering approach focuses on shrinking EW hardware while using software to keep the systems adaptable. Commercial-scale manufacturing also helps BAE Systems keep production costs under control.Get the latest in engineering, tech, space & science - delivered daily to your inbox.Aamir is a seasoned tech journalist with experience at Exhibit Magazine, Republic World, and PR Newswire. With a deep love for all things tech and science, he has spent years decoding the latest innovations and exploring how they shape industries, lifestyles, and the future of humanity.