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Small drones have become one of the most difficult threats on the modern battlefield. Unlike larger aircraft, they are small, fast, and highly maneuverable, making them difficult to track and engage. The challenge becomes even greater when both the drone and the defending vehicle are moving simultaneously, forcing fire control systems to continuously compensate for motion on both sides.
To address that problem, a new fire control software package (SWAT-FC) has been developed to improve the accuracy of vehicle-mounted weapons against moving aerial targets.
The software continuously processes information from onboard sensors to calculate and maintain an accurate firing solution while the host vehicle remains in motion. Instead of requiring the vehicle to stop before engaging a target, the system dynamically updates targeting calculations as both the platform and the drone change position.
Maintaining an accurate aim point under these conditions is a demanding computational task. Vehicle movement, target maneuvers, terrain changes, and weapon dynamics must all be factored into the firing solution in real time. According to NextGenDefense, the software performs these calculations continuously, allowing the weapon system to remain locked onto small drones throughout an engagement.
The technology was adapted from work originally conducted for the Future Attack Reconnaissance Aircraft program before being incorporated into a broader effort focused on countering small unmanned aerial systems.
Recent testing paired the software with a Common Remotely Operated Weapon Station during live evaluations. According to the development team, the demonstrations successfully engaged drone targets while collecting operational data that will be used to further improve system speed and accuracy.
Another notable feature is the software’s modular open-systems architecture. Rather than relying on a fixed design, the framework allows future algorithms, sensors, and capabilities to be integrated more rapidly as new technologies become available.
From a defense perspective, accurate firing while on the move is becoming increasingly important. Modern military units frequently operate in highly mobile environments, where stopping to engage aerial threats may expose vehicles to additional risks. Software capable of maintaining targeting performance during movement can help improve survivability while reducing response times against rapidly emerging drone threats.
As unmanned aerial systems continue to proliferate, advances in fire control software are becoming just as important as improvements in sensors and weapons themselves. The ability to continuously calculate precise firing solutions against moving drones represents another step toward more effective mobile counter-UAS capabilities.
