Germany has launched a new defence technology programme to develop airborne laser weapons for combat aircraft, seeking a potentially cheaper and more sustainable way to counter the growing threat posed by low-cost attack drones and cruise missiles. The initiative reflects a wider shift in modern warfare, where inexpensive unmanned aerial systems are increasingly challenging conventional air-defence capabilities and forcing militaries to reconsider the economics of missile-based interception.
Berlin has awarded German defence company MBDA Deutschland a contract to develop a pod-based airborne laser weapon demonstrator. The programme will examine whether high-energy laser technology can be integrated into aircraft and potentially establish the technological foundation for a future directed-energy capability for the German Air Force, known as the Luftwaffe.
The development comes as military forces across Europe and elsewhere face an expanding threat from one-way attack drones, particularly those demonstrated extensively in the wars in Ukraine and Iran. These relatively inexpensive systems can be deployed in large numbers against military installations, critical infrastructure, airfields and other high-value targets, potentially forcing defenders to expend sophisticated and expensive interceptor missiles against comparatively cheap weapons.
In a statement released on November 2, 2026, MBDA confirmed that it had received an order from the Bundeswehr’s Federal Office for Equipment, Information Technology and In-Service Support (BAAINBw) to construct an airborne laser demonstrator.
“MBDA in Germany has received an order from the procurement office of the Bundeswehr Federal Office for Equipment, Information Technology and Use of the Bundeswehr (BAAINBw) to build a demonstrator for an airborne laser. The goal is to create the technological foundations for future laser weapons on board aircraft,” the company said.
The contract value, development schedule, laser power output and intended aircraft platform have not been disclosed. However, an accompanying conceptual illustration showed two large, unmanned, fighter-like aircraft carrying substantial laser pods beneath their fuselages, suggesting that unmanned combat aircraft could be among the platforms considered for future integration.
Germany operates a substantial fleet of Eurofighter Typhoon multirole fighters and is also acquiring American-made F-35A Lightning II stealth aircraft. Both platforms could potentially benefit from future directed-energy capabilities, although MBDA has not identified either aircraft as the demonstrator’s intended host.
The company indicated that the programme would go beyond laboratory research by designing essential components of the laser pod for eventual flight operations.
“The order now issued provides that essential components of the so-called laser pod are already designed for later flight operations. This is intended to test the feasibility of an air-based laser weapon and to lay the foundation for future operational capability in the Air Force,” MBDA stated.
The company described airborne laser development as the “supreme discipline” of laser weapon technology because of the demanding requirements associated with aircraft integration. Unlike ground-based or naval systems, an airborne weapon must operate within strict limitations on weight, dimensions, electrical power consumption and resistance to vibration, acceleration and other flight-related stresses.
More importantly, MBDA identified the long-term objective as developing a laser capability capable of countering drones and cruise missiles.
The increasing availability of inexpensive one-way attack drones has exposed a significant weakness in conventional air-defence systems: the imbalance between the cost of an attacking weapon and the interceptor required to destroy it.
In Ukraine, large-scale drone attacks have demonstrated how relatively inexpensive unmanned systems can threaten military facilities, energy infrastructure and urban areas. Similar developments in the Middle East have reinforced concerns that future conflicts could involve repeated waves of drones designed to overwhelm conventional air-defence networks.
Using expensive air-to-air missiles against every incoming drone is economically unsustainable, particularly during prolonged engagements or attacks involving dozens or hundreds of targets.
Germany’s proposed airborne laser could provide another layer of defence by allowing pilots to engage suitable targets without expending conventional missiles. Rather than launching a physical projectile, the system would direct a concentrated, high-energy laser beam towards a target, heating and damaging critical components until the drone or missile becomes ineffective.
Several Western countries have already explored cheaper alternatives to conventional missiles. The United States and the United Kingdom, for example, have integrated the Advanced Precision Kill Weapon System II (APKWS-II), a laser-guided 70mm rocket, into aircraft including the F-15 and Eurofighter Typhoon.
Saudi Arabia, which operates Eurofighter Typhoon and F-15SA aircraft, has also received authorisation to acquire the rockets. France has pursued a similar approach by equipping its Rafale fighters with 68mm laser-guided rockets for counter-drone operations.
However, these weapons should not be confused with the technology Germany is attempting to develop. APKWS-II and similar systems use laser guidance to direct conventional rockets towards designated targets. They still require physical ammunition, launchers and stockpiles.
Germany’s programme, by contrast, involves a true directed-energy weapon that uses a high-power laser beam itself to destroy or disable a target. If successfully developed, it could offer a different approach to aerial defence, particularly against relatively slow and vulnerable drones.
The airborne demonstrator builds on Germany’s longer-term investment in high-energy laser research. According to MBDA, laser technology has been recognised as a strategic research and development priority and a national key technology since 2019 under the German government’s and Defence Ministry’s SVI strategy.
MBDA has been developing laser effectors and directed-energy technologies for different branches of the armed forces, investing its own resources and constructing several technology demonstrators.
The company is also drawing on Germany’s existing industrial experience in naval laser weapons. MBDA and Rheinmetall have previously worked on high-energy laser demonstrators intended for naval applications, where larger platforms provide considerably more space for power-generation equipment, cooling systems and other supporting technologies.
The new programme reportedly prioritises German suppliers and domestic technological expertise, potentially strengthening the country’s defence-industrial base while reducing dependence on foreign technologies.
However, transferring laser weapons from ships to aircraft represents a substantially more difficult engineering challenge.
A naval vessel can accommodate relatively large generators, batteries, energy-management equipment and cooling systems. A fighter aircraft has much less available space and must balance every additional kilogram against fuel capacity, weapons payload, range and flight performance.
High-energy lasers require substantial electrical power and generate significant amounts of waste heat. Engineers must therefore develop compact power-generation and energy-storage arrangements alongside efficient thermal-management systems capable of operating during demanding flight conditions.
The laser beam itself also faces environmental challenges. Atmospheric moisture, dust, smoke and turbulence can absorb, scatter or distort laser energy, reducing the amount of power reaching the target. These factors can affect effective engagement distance and the time required to destroy an incoming weapon.
Other critical requirements include beam quality, target tracking, stabilisation, precision, operating altitude and the duration for which the laser must remain focused on a particular target.
Consequently, Germany’s engineers must fit the laser source, power-conditioning equipment, energy storage, cooling infrastructure, beam director and tracking systems into a relatively compact pod or aircraft compartment without significantly compromising the aircraft’s operational performance.
Germany is not the first country to investigate airborne laser weapons. The United States has spent years exploring whether directed-energy systems could protect aircraft against incoming missiles and other aerial threats.
One of its prominent initiatives was the Self-Protect High Energy Laser Demonstrator (SHiELD), an Air Force Research Laboratory programme designed to develop a pod-mounted laser capable of defending aircraft against surface-to-air and air-to-air missiles.
The US Air Force described SHiELD as a programme to develop a directed-energy system housed in an aircraft pod to demonstrate defensive capabilities against incoming missile threats.
Washington also pursued the Airborne High Energy Laser (AHEL) programme, which was intended to integrate a high-energy laser weapon aboard an AC-130J gunship.
Despite significant research and testing, neither initiative resulted in an operational airborne laser capability deployed across the US Air Force fleet. The programmes nevertheless demonstrated the technical difficulties associated with developing compact, powerful and flight-ready directed-energy systems.
China has also reportedly explored airborne laser technology. Chinese media previously suggested that Beijing was interested in equipping its J-20 stealth fighter with laser weapons. However, no operational integration of such a system has been publicly confirmed.
These experiences demonstrate that the principal challenge is not simply producing a powerful laser beam. It is developing an entire weapons system that can generate sufficient energy, maintain beam stability, manage heat and reliably engage targets under real operational conditions.
If Germany succeeds, the proposed system could offer several important advantages over conventional air-to-air missiles and guided rockets.
The most significant is the potential reduction in the cost of individual engagements. Advanced air-to-air missiles such as the European Meteor and American AIM-120 AMRAAM can cost hundreds of thousands of euros, with some configurations and procurement contracts exceeding one million euros per missile.
Even relatively inexpensive guided rockets require physical ammunition that must be manufactured, transported, stored and replenished.
A laser weapon does not require a separate projectile for every engagement. Its marginal firing cost is primarily associated with the electricity consumed, alongside maintenance, cooling requirements and component wear. Although the overall system would be expensive to develop and operate, repeated engagements could become considerably cheaper than using conventional interceptors.
Another major advantage is the absence of a traditional ammunition magazine. A laser’s firing capacity is instead constrained by available electrical power, thermal management and the time required to maintain the beam on a target. As long as these systems can support continued operation, the weapon can engage additional targets without requiring physical ammunition to be reloaded.
This could become particularly valuable during large-scale drone attacks, when aircraft may face multiple incoming threats and have only a limited number of conventional missiles available.
Speed is another important advantage. Laser energy travels at the speed of light, meaning there is effectively no projectile flight time between the aircraft and its target. Once the system has acquired and tracked a target, energy can be delivered almost immediately. However, the laser may still need to remain focused on the target for a certain period to cause sufficient damage.
Directed-energy weapons could also reduce some forms of collateral damage. Unlike conventional missiles, they do not require explosive warheads to destroy targets. A precisely directed beam can damage sensors, motors, batteries, control systems and other vulnerable components without creating the same explosive fragmentation associated with conventional interceptors.
Nevertheless, this does not eliminate collateral risks altogether. Damaged drones and missiles can still fall onto populated areas, while the effectiveness of a laser depends heavily on target characteristics and environmental conditions.
For Germany, an airborne laser would therefore be a complementary capability rather than a replacement for existing missile systems. Conventional interceptors would remain essential against enemy aircraft, sophisticated cruise missiles and other high-performance threats, while lasers could potentially handle selected lower-cost targets.
Combined with ground-based and naval laser weapons, electronic warfare systems and conventional air-defence interceptors, an operational airborne laser could strengthen Germany’s layered defence architecture.
The programme remains at the demonstrator stage, and significant engineering challenges must be overcome before the technology can become an operational weapon. Nevertheless, its strategic objective is clear: Germany wants its future combat aircraft to have a more economical way of confronting the growing number of drones and missiles shaping modern warfare, while preserving expensive conventional weapons for the threats that require them most.
