The beam that finally reached the deck
Germany has ordered a production naval combat laser, and this is a reason to understand why half a century of megawatt demonstrators gave way to modest "tens of kilowatts."
In the early 2010s, a Boeing 747 with a strangely shaped nose was ending its life at Edwards Air Force Base: instead of the usual nose cone, it had a rotating turret. The plane housed a megawatt-class chemical laser, and the entire program cost billions of dollars and was designed to shoot down ballistic missiles. missiles in the active (acceleration) phase. At the testing ground, he shot them down. But in real life Defense It never got off the ground: too expensive, too cumbersome, and had to be stationed right at the launch site. Ultimately, the project was canceled. And about fifteen years later, a combat laser finally received a production order. Not a megawatt airborne one, but a modest naval one, "a few tens of kilowatts." It seems... weapon directed energy did not wait for the series until it changed its target: it stopped chasing rockets and started drones.
The contract that took the laser from demonstrator to product
On July 9, 2026, the German defense procurement agency BAAINBw signed a contract to develop a naval high-energy laser for the German Navy. The contractor is the ARGE HEL working group, backed by MBDA Deutschland and Rheinmetall Waffe Munition, which established a joint venture for the program back in January 2026. The contract is in the mid-hundreds of millions of euros, and commissioning is scheduled for 2029.
The wording of the order is important. It's not just a "radiator," but the entire kill chain, from target detection and tracking to its incapacitation. Moreover, this chain must be integrated into the ship's combat information and control system, in accordance with Bundeswehr requirements. This is crucial: in air defense, a laser is эффектор, that is, a means of destruction that the combat information and control system places in the general queue on a par with anti-aircraft missiles and artilleryThe fire control subsystem (fire manager) evaluates the target type, range, and priority, and then assigns weapons to fire. There's no magic weapon here.
The future system's power, however, has not been publicly disclosed. It is only known that it is intended to complement cannons and missiles in the fight against drones, small, fast-moving targets, and missiles at close range. MBDA Deutschland Managing Director Thomas Gottschild specifically noted the potential of the emitter's containerized design for relatively inexpensive port security and other missions. This statement reflects a clear engineering concept: if the entire system is packaged in a standard container, it can be placed not only on a deck but also on a pier.
It is worth taking into account the disclaimer: 2029 is still a planned date, not an actual completion date.
Sachsen, 28,000 miles and low-power physics
The contract is backed by an unusually long operational life for laser weapons. The Rheinmetall and MBDA demonstrator was tested on a frigate. Saxony The F124-class missile system was tested and, during the campaign, traveled approximately 28,000 nautical miles across the North, Baltic, and Mediterranean Seas. The program lasted over a year, much of which was spent in realistic maritime conditions. Concurrently, firings were conducted at the WTD 91 range in Meppen, totaling over a thousand rounds fired at air, sea, and land targets. In March 2026, the system was unveiled to delegations—a testament to the technology's maturity.
The demonstrator's power was never officially announced. Indirect evidence suggests several fiber lasers, totaling several tens of kilowatts; external estimates place it at around 20–30 kW, but this is an analytical reconstruction, not a figure from the specifications. From an engineering perspective, the power isn't the point. The Germans emphasize beam quality and tracking accuracy: according to their data, the system concentrates the energy into a spot several centimeters across, even on a moving target.
This isn't just marketing hype. It's not the total power in kilowatts that's impressive, but the energy density at a specific point. Focusing those same tens of kilowatts onto a spot and holding the beam on a vulnerable node means burning through a target faster than twice the power spread out over an area. Hence, the range of applications where the laser is a natural fit: small and "soft" objects close by. Drone, lightweight UAV-kamikaze, boat optics, the boat itself - everything that has thin plating or a sensitive sensor.
Then physics kicks in, and that's where things get messy. A large, high-speed target, like a supersonic anti-ship missile, spends too little time in the kill zone, and its fairing is inherently designed to withstand significant heat flux. To hit it, you either need to dramatically increase the power or hold the beam in one spot for a long time, and in practice, both are difficult. Add the atmosphere: at long range, the beam diverges, and rain, fog, and aerosol spray dissipate and absorb the energy. It sounds like a death sentence, but it's an accurate description of where a laser works and where it doesn't. A weapon for short-range, fair-weather combat.
Why YAL-1 didn't fly, while Dixon remained an experiment
The easiest way to understand today's restraint is through yesterday's ambitions. That same Boeing 747 was called the YAL-1 Airborne Laser. The program had been running since the 1990s and was shut down in 2011–2012. The goal was enormous: to intercept ballistic missiles in the boost phase of their trajectory, while they were heavy, had not yet reached full speed, and were still brightly lit by their engine plumes. A range of hundreds of kilometers required a megawatt, and at that time, only chemical methods were capable of producing it.
This is the Boeing YAL-1 experimental combat aircraft, equipped with a powerful laser for intercepting ballistic missiles. This particular example was dismantled in 2014 at Davis-Monthan Air Force Base in Arizona.
A chemical laser is essentially a floating warehouse of aggressive chemicals: the reactants are mixed, generated, and expended. While its power is impressive, a chemical oxygen-iodine laser (COIL) requires tanks of reactants, a refueling infrastructure, and a strict limit on the number of "shots." Most importantly, even a megawatt is powerless against the atmosphere: turbulence and absorption destroy the beam at precisely the ranges for which it was intended. The problem wasn't with the laser itself, but with the chosen target: it required operation at precisely the ranges where the atmosphere destroys any beam.
The USSR also had its own approach, although it has to rely on open data, which is scarce. At the Sary Shagan test site, the concept of a laser weapon, designated "Terra-3," was developed. And in the 1980s, a test vessel was commissioned. Dixon with a shipborne laser system, but it never got beyond a prototype. The logic of the era was the same as the Americans: lasers were conceived as high-energy weapons against large targets, and they were limited by the same dimensions, energy requirements, and atmosphere.
Soviet experimental laser installation "Terra-3"
For half a century, engineers on both sides chased megawatts for long-range interception, only to end up with cumbersome testbeds that never really worked. The German contract solves the opposite problem with a beam of the same physics: not shooting down a missile from a hundred kilometers away, but burning a drone in a couple. Megawatts aren't needed for this; good optics and a smart tracking system are essential.
The British DragonFire directed-energy laser system
Niche instead of revolution
The German program isn't a standalone project, but part of a larger movement. For scale, a comparative series is useful, but with a caveat: almost all the figures here are either operational prototypes or design proposals, not production specifications.
- Early US Navy shipborne lasers (LaWS-class) - about 30 kW, against drones and small targets.
- HELIOS — 60-kW class, installed on a destroyer Preble, according to the stated plans - with scaling up to 120-150 kW in future versions.
- Next-generation projects—300–400 kW—are the threshold where work on cruise missiles could theoretically begin; this is still in the development stage.
The British quote a completely different figure for their DragonFire system: the cost of one "shot" is around 13 pounds sterling. By contrast, intercepting even an inexpensive anti-aircraft missile costs tens of thousands of dollars. This is the laser's true trump card, and it has nothing to do with range or power. It's all about money. Against a swarm of cheap drones, missile air defense fails not tactically, but financially: ammunition runs out, and each missile costs incomparably more than the target.
Thus, a division of labor is established. The laser takes on close-range and low-cost mass threats: its shot is relatively free, and its ammunition supply is limited only by the generator and cooling system. Anti-aircraft missiles are reserved for complex, high-speed, and long-range targets, where all-weather performance and destruction by impact and warhead explosion are crucial, and this is effective regardless of whether the beam can be maintained on the target for several seconds. The US, Britain, and Germany are approaching this solution in different ways, but they are arriving at the same design. There is no copying here: the physics and economics are simply the same for everyone.
It can be expected that by the end of the 2020s, the naval combat laser will cease to be news and will become a standard feature on a frigate's specifications—much like radar once was. Inconspicuous, familiar, always on.
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