- Helsing conducted the first maritime launch of its HX-2 strike drone from a fast insertion craft in the littorals off Plymouth, UK, according to the company's announcement.
- The HX-2 weighs 12 kg, reaches 220 km/h, has a 100 km range, and uses onboard AI to operate autonomously in GPS-denied and EW-contested environments.
Helsing, a German AI defense company, has conducted the first launch of its HX-2 strike drone from a coastal vessel in the waters off Plymouth, UK, the company announced, marking a new operational environment for a system it has been developing and deploying on the battlefield in Ukraine.
The trial took place off a fast insertion craft in the littorals off Plymouth, which Helsing describes as its maritime home, according to the company’s announcement. “We are moving fast to further extend the operational capabilities of the HX-2, building on our experience on the battlefield in Ukraine. More to come soon,” Helsing stated.
The maritime launch test extends the HX-2’s deployment options beyond ground-based operations into the coastal and littoral environment, a significant capability expansion for a drone designed around software-defined flexibility rather than platform-specific constraints.
The HX-2 is a 12-kilogram strike drone built for mass production, capable of engaging artillery, armored vehicles, and other military targets at ranges up to 100 kilometers, according to Helsing’s product specifications. It reaches a maximum speed of 220 kilometers per hour and carries a multi-purpose anti-tank and anti-structure munition as its standard payload, with multiple payload options available. At 12 kilograms, it sits in a weight class that is man-portable and can be deployed from small craft, vehicles, or dismounted positions without specialist launch infrastructure, which is precisely what the Plymouth trial demonstrated by using a fast insertion craft rather than a dedicated naval platform.
The system’s defining characteristic is not its physical specifications but what its onboard AI enables. The HX-2 is designed to search for, re-identify, and engage targets even without a signal or continuous data connection, making it immune to the hostile electronic warfare measures that have rendered many drone systems ineffective in contested electromagnetic environments, according to Helsing’s description. That capability addresses the core vulnerability that has defined drone warfare in Ukraine, where Russian EW systems have successfully jammed GPS navigation and control links on large numbers of Ukrainian dronesбaccording to the company.
Over-the-air software updates allow the HX-2 to adapt to new threats and tactics without requiring hardware changes, a capability that has become operationally essential in an environment where adversary countermeasures evolve faster than hardware procurement cycles can respond. Ukraine has demonstrated repeatedly that the tactical drone environment changes on a timescale measured in weeks, not years, and a drone whose response to new EW threats requires a hardware redesign and production cycle is obsolete before it can be fixed. The HX-2’s software-defined architecture means that countermeasures discovered on Monday can potentially be addressed in a software update deployed by Wednesday.
The swarm dimension of the HX-2’s capability comes through its integration with Altra, Helsing’s reconnaissance-strike software platform. Altra enables the coordinated operation of multiple HX-2 systems alongside ISR assets, artillery systems, and battlefield management software, creating what Helsing describes as a scalable system of systems capable of delivering swarm strikes. A coordinated swarm of 12-kilogram drones operating at 100-kilometer range, sharing targeting data through a common software platform, presents an air defense problem that is qualitatively different from defending against individual strike drones. The same system that handles a single HX-2 engagement may be overwhelmed by a simultaneous launch of ten, and the Altra integration is specifically designed to exploit that defensive scaling problem.