Germany has launched a new defence technology programme to develop an airborne laser weapon that could eventually be integrated into its combat aircraft, reflecting growing concerns over the proliferation of inexpensive attack drones and the increasing cost of defending against them.
The programme, awarded to German defence company MBDA Deutschland, will focus on developing a pod-based airborne laser weapon demonstrator to establish whether high-energy laser technology can be operated effectively from an aircraft. The initiative could lay the technological foundation for a future capability within the German Air Force, known as the Luftwaffe.
The development comes as modern conflicts, particularly the wars in Ukraine and Iran, have demonstrated how relatively inexpensive, one-way attack drones can threaten expensive military installations, aircraft, infrastructure and other high-value targets. Their growing availability has created a significant challenge for air defence forces, which frequently have to use costly missiles to destroy comparatively cheap drones.
Germany’s proposed airborne laser system is intended to provide a more economical alternative for engaging such threats while preserving conventional air-to-air missiles for more sophisticated targets, including enemy aircraft and advanced cruise missiles.
In an official statement released on November 2, 2026, MBDA Deutschland confirmed that it had received an order from the Bundeswehr’s Federal Office for Equipment, Information Technology and Use (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 company did not disclose the contract’s financial value, development schedule, laser power output or the aircraft platform intended for the initial demonstration.
However, an illustration accompanying the announcement depicts two large, unmanned, fighter-like aircraft carrying laser weapon pods beneath their fuselages. The imagery has raised the possibility that Germany could eventually explore integrating the technology into unmanned combat aircraft, although MBDA has not confirmed the intended platform.
The Luftwaffe operates a substantial fleet of Eurofighter Typhoon multirole fighters and is also acquiring F-35A Lightning II stealth aircraft from the United States. Both platforms could potentially benefit from future directed-energy capabilities if the technology can be adapted to their operational requirements.
MBDA said the initial order includes the development of essential components of the so-called laser pod, with some elements already being designed 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,” the company stated.
The company described airborne laser development as the “supreme discipline” of laser weapon technology because of the demanding requirements associated with aircraft integration, particularly concerning weight, dimensions and resistance to the stresses of flight.
More importantly, MBDA identified countering drones and cruise missiles as a central objective of the future capability.
The company said the long-term ambition was to develop an airborne laser weapon that could be used to “repel drones and cruise missiles,” suggesting that the programme is intended to address some of the most pressing challenges facing modern air forces.
The rapid spread of inexpensive one-way attack drones has fundamentally changed the economics of modern warfare.
In Ukraine, both Russian and Ukrainian forces have extensively employed drones for reconnaissance, surveillance, targeting and direct attacks. Russia has also repeatedly used large numbers of one-way attack drones against Ukrainian cities, military facilities and energy infrastructure.
Similarly, conflicts involving Iran and other regional actors have highlighted the growing importance of relatively inexpensive unmanned aerial systems in large-scale attacks.
These weapons can be manufactured and deployed at considerably lower costs than conventional aircraft or precision-guided missiles. Their relatively simple designs, combined with increasingly sophisticated navigation and targeting systems, allow them to threaten military facilities and civilian infrastructure over considerable distances.
For defenders, however, the financial equation is often unfavourable. Destroying a relatively inexpensive drone with a sophisticated air-to-air missile or surface-to-air interceptor can cost considerably more than the attacking weapon itself.
This creates a particular problem during sustained attacks or coordinated drone swarms, when air defence forces may be required to expend large quantities of expensive interceptors within a relatively short period.
Several countries have therefore begun exploring cheaper alternatives.
One option has been the Advanced Precision Kill Weapon System II (APKWS II), a laser-guided rocket that converts conventional unguided rockets into precision-guided weapons.
The US Air Force and Britain’s Royal Air Force have integrated APKWS II rockets into their respective F-15 and Eurofighter fleets for missions that include countering unmanned aerial threats. Saudi Arabia, which operates Eurofighter Typhoons and F-15SA fighters, has also received authorization to acquire the rockets.
France has pursued a similar approach by equipping its Rafale fighters with laser-guided 68mm rockets for counter-drone operations.
However, Germany’s new programme represents a different technological approach.
Unlike APKWS II and other laser-guided rockets, which use laser energy to guide a physical projectile towards a target, the proposed German system is a genuine high-energy laser weapon.
Instead of launching a missile or rocket, it would direct a concentrated beam of laser energy towards a target, heating or damaging critical components until the weapon becomes ineffective or is destroyed.
Depending on the laser’s power, engagement distance and target characteristics, the system could potentially damage drone sensors, electronics, propulsion systems or structural components without requiring an explosive warhead.
Germany has been treating high-energy laser technology as a strategic research and development priority for several years.
According to MBDA, laser technology has been recognised as a national key technology since 2019 under the German government’s and Federal Ministry of Defence’s strategic research framework.
The company said it had invested substantial resources in developing laser effectors and weapons for different branches of the armed forces, including producing and testing several technology demonstrators.
“Since 2019, laser technology has been considered a strategic key topic of German research and development as well as a national key technology within the framework of the SVI strategy of the Federal Government and the Federal Ministry of Defense,” MBDA said.
The company added that its previous work had helped develop the technologies necessary for future laser weapons.
The latest programme also reportedly places emphasis on German suppliers, domestic engineering expertise and national technological capabilities. This approach could help reduce dependence on foreign defence technology while strengthening Germany’s domestic directed-energy weapons industry.
It builds on earlier German efforts involving MBDA and Rheinmetall, which have collaborated on high-energy laser technology, particularly for naval applications.
Nevertheless, transferring laser weapons from ships or ground installations to combat aircraft represents a considerably more difficult engineering challenge.
High-energy laser weapons require substantial electrical power and generate significant amounts of waste heat.
On ships, large electrical generators and extensive cooling systems can support such weapons. Ground-based installations can also draw electricity from fixed power infrastructure and accommodate comparatively large energy-management systems.
Combat aircraft operate under much stricter limitations.
A fighter jet has limited electrical generation capacity, restricted internal volume and strict payload constraints. Any additional equipment must also withstand vibration, acceleration, temperature fluctuations, aerodynamic pressure and other stresses associated with high-speed flight.
Engineers must therefore find a way to package several sophisticated components into a relatively compact and lightweight system.
These include the laser source, power-conditioning equipment, energy storage, thermal-management systems, beam director and precision tracking technology.
The system must generate sufficient energy to destroy or disable targets without significantly reducing the aircraft’s range, speed, manoeuvrability or weapons-carrying capacity.
Environmental conditions present another major obstacle.
Atmospheric moisture, dust and turbulence can absorb, scatter or distort laser energy, reducing the amount of power that reaches a target. The effectiveness of the weapon can therefore vary according to weather, altitude, humidity and engagement distance.
Engineers must also determine how long the laser needs to remain focused on a target to achieve a successful engagement, a requirement commonly known as dwell time.
Tracking accuracy is equally important, particularly when engaging small drones that can manoeuvre unpredictably or operate at different speeds and altitudes.
Consequently, the German demonstrator will need to establish whether an aircraft can carry a sufficiently powerful laser while maintaining the operational performance expected of a modern combat platform.
Germany is not the first country to explore airborne laser weapons.
The United States has conducted some of the most ambitious research into integrating directed-energy weapons into military aircraft.
One prominent initiative was the Self-Protect High Energy Laser Demonstrator, known as SHiELD. The programme sought to develop a pod-mounted laser system capable of protecting combat aircraft against incoming surface-to-air and air-to-air missiles.
The US Air Force Research Laboratory described the initiative as an effort to demonstrate how directed-energy technology could provide aircraft with an additional defensive capability against missile threats.
The United States also pursued the Airborne High Energy Laser (AHEL) programme, which was intended to deploy a laser weapon aboard the AC-130J Ghostrider gunship.
Despite considerable research and testing, these initiatives did not result in an operational airborne laser capability being deployed across the US Air Force.
The challenges associated with electrical power, cooling, weight, atmospheric interference and aircraft integration have continued to complicate efforts to turn experimental systems into practical weapons.
China has also reportedly explored the possibility of equipping its J-20 stealth fighter with laser weapons. Chinese media previously discussed the potential integration of directed-energy technology into the aircraft, but no operational installation has been publicly confirmed.
These experiences illustrate the technological difficulties Germany will have to overcome before its demonstrator can evolve into a deployable military system.a
If successfully developed, Germany’s airborne laser weapon could significantly change how its combat aircraft manage air-to-air engagements.
Modern air-to-air missiles, including the European Meteor and the American AIM-120 Advanced Medium-Range Air-to-Air Missile (AMRAAM), are sophisticated weapons that can cost hundreds of thousands of euros or more than one million euros, depending on the variant and procurement arrangement.
Using such missiles against inexpensive drones can therefore create an unsustainable cost imbalance, particularly during prolonged operations involving large numbers of incoming targets.
Even relatively inexpensive guided rockets such as APKWS II require physical ammunition that must be manufactured, transported, stored and replenished after use.
A laser weapon operates differently.
Its principal operational limitation is not the number of missiles or rockets carried by an aircraft but the amount of electrical energy available and the ability to manage the heat generated during firing.
Once installed, the system could potentially engage multiple targets without requiring a separate physical interceptor for every engagement. The marginal cost of each shot could be substantially lower than that of a conventional missile, although the overall system would still involve significant development, procurement, maintenance and operating expenses.
This could prove particularly valuable during attacks involving large numbers of drones or repeated waves of incoming weapons.
Another important advantage is the speed of engagement. A laser beam travels at the speed of light, meaning there is effectively no projectile flight time after the weapon has established a firing solution.
This could provide a rapid response against targets approaching an aircraft or threatening protected airspace.
Laser weapons may also reduce the risk of collateral damage in certain engagements because they do not require explosive warheads. By concentrating energy on specific components, they could disable a drone’s propulsion system, sensors or control electronics without producing the same explosive effects as conventional interceptors.
However, lasers cannot eliminate collateral risks entirely. Damaged drones may still fall onto populated areas, and the effectiveness of an engagement depends on the weapon’s ability to maintain sufficient energy on the target.
Ultimately, Germany’s proposed airborne laser is unlikely to replace conventional air-to-air missiles. Instead, it would offer an additional layer of defence, allowing pilots to use lower-cost directed energy against suitable drones and potentially slower cruise-missile threats while preserving expensive interceptors for more demanding engagements.
Combined with ground-based and naval laser systems, electronic warfare and conventional missile defence, an airborne capability could strengthen Germany’s broader counter-drone architecture.
For the moment, however, the programme remains at the demonstrator stage. Its success will depend on whether German engineers can overcome the difficult power, cooling, weight and atmospheric challenges that have prevented several previous airborne laser projects from becoming operational weapons.
