During a recent live-fire exercise off Norway’s coast, Norwegian officers did something no US ally had ever done before: they took over an American smart bomb while it was already falling toward its target, steering it in real time through a secure digital link.
A routine drill that turned into a landmark moment
The operation took place on 14 May 2025 during “Jotun Strike”, a large-scale military exercise staged near Andøya in northern Norway. The event brought together the Norwegian Armed Forces and the US Air Force for what, on paper, looked like a standard live‑fire trial.
Two American F‑15E Strike Eagle fighter jets released GBU‑53/B StormBreaker bombs, advanced precision munitions designed to locate and hit targets in bad weather and through poor visibility. Under normal circumstances, the aircraft that deploys the bomb keeps responsibility for the strike.
This time, something different happened.
Once the StormBreaker bombs were in the air, Norwegian operators seized control and guided them to targets of their own choosing.
Using a secure data link, Norwegian personnel redirected the munitions mid-flight. They adjusted trajectories, selected targets inside their own firing range, and demonstrated they could manage the weapons from launch to impact without American pilots needing to stay on station.
For Oslo and Washington, this was more than a technical “first”. It was the first time a US ally had been allowed to take operational control of American weapons in real conditions, outside a lab or simulated environment. In alliance politics, that level of trust is rare.
How a networked bomb can change a battlefield
The GBU‑53/B StormBreaker is not just a guided bomb. It is part of a broader concept sometimes called “networked munitions” – weapons that communicate, receive data in real time, and can change their own behavior after release.
Built by Raytheon, the StormBreaker combines three different guidance modes: radar, infrared, and semi‑active laser. These sensors allow the bomb to track moving and concealed targets, at night or through cloud, rain or smoke. That flexibility gives commanders more options against vehicles trying to hide or escape.
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StormBreaker can be retasked while it is already flying, thanks to its data link and onboard processing.
The weapon is equipped with a communication channel compatible with Link 16, the NATO-standard tactical network. Through this link, Norwegian controllers were able to:
- Update target coordinates in real time
- Alter the bomb’s flight path to avoid restricted zones
- Abort a strike if conditions changed on the ground
This approach breaks with the old idea of “fire and forget”. Instead of committing fully at launch, forces can adapt the strike as the situation evolves. The launching aircraft can also turn away immediately after release, reducing the time it spends near enemy air defences.
The quiet role of the P‑8A Poseidon
Another aircraft played a crucial but less flashy role in Jotun Strike: the P‑8A Poseidon, a maritime patrol jet used for anti‑submarine and surveillance missions. During the exercise, the Poseidon fed live data into the network guiding the bombs.
Its radar and sensors spotted and tracked potential targets, then transmitted updated information that the StormBreakers could use mid-flight. This showed that munitions can be directed not only by the aircraft that launches them, but by any allied platform plugged into the network.
In practice, that means a patrol aircraft, a frigate, or even ground-based radars could cooperatively guide the same weapon, handing off control as needed.
A small Nordic country pushing a big doctrinal shift
The Norwegian side of the project did not appear overnight. Since 2019, a specialist cell called NOBLE, under Norway’s operational headquarters, has been working on how to control advanced weapons using software and systems already in service, rather than buying entire new arsenals.
The Norwegian concept aims to turn existing aircraft, ships and sensors into a single, shared weapon-control “brain”.
According to Norwegian defence sources, the NOBLE team has focused on a core software layer that can merge data from various platforms and use it to steer a weapon smoothly, regardless of where that weapon was built. In other words, the bomb does not need to be Norwegian for Norway to guide it.
This matters a lot inside NATO. For the first time, a US-made bomb took part in a tactical maneuver fully controlled by a smaller allied nation. Norway effectively “borrowed” a strike capability usually reserved for larger powers, using code and connectivity as the bridge.
New options for NATO operations
The success of Jotun Strike hints at a future where control of a weapon can move between allies during a single mission. A US aircraft could launch a StormBreaker, then hand control to Norway or another partner whose sensors have a better view of the target area.
Norway, for its part, can leverage this concept with platforms it already fields, such as the F‑35 fighter jet and the Joint Strike Missile. It does not need to own everything; it needs to connect everything it has, and synchronise with what others bring.
For alliance planners, this opens a range of scenarios:
| Scenario | Who launches | Who guides | Advantage |
|---|---|---|---|
| Arctic strike | US fighter jet | Norwegian ground station | Localised control, better knowledge of terrain |
| Maritime interdiction | Norwegian F‑35 | NATO frigate | Ship radar tracks fast boats in real time |
| High-threat airspace | Stand-off bomber | Allied drone near the front line | Bomber stays far from enemy missiles |
What “networked warfare” really means
Behind the technical jargon lies a simple idea: data has become as decisive as explosives. A bomb that can be updated in flight turns every radar, drone or patrol plane into a potential “shooter”, even if it carries no weapons itself.
This raises new questions about responsibility and control. If one country launches a weapon and another finishes the strike, who signs off on the engagement? How do allies share legal and political accountability? Those issues are only starting to be addressed inside NATO councils.
The approach also brings risks. Any system that depends on connectivity needs robust protection against jamming and cyber attacks. An adversary who disrupts the network could delay or misdirect weapons, or simply force forces back toward older, less flexible tactics.
Key terms that shape this new landscape
Several concepts sit at the heart of what Norway tested:
- Link 16: A secure military communication standard used by many NATO aircraft, ships and ground units to share a common picture of the battlefield.
- Autonomous target selection: The ability of a weapon to rank and choose among detected threats based on preset rules, while still allowing humans to intervene.
- Interoperability: The capacity of different nations’ systems to work together without needing custom hardware for each partnership.
Exercises like Jotun Strike function as controlled laboratories for these ideas. They show how far trust can go between allies and highlight where procedures, safeguards and training still need work.
For smaller countries in particular, the Norwegian experiment offers a concrete example: with the right digital architecture, software expertise and political agreements, they can gain access to advanced strike options without owning a vast fleet of bombers or their own families of precision munitions.
At the same time, militaries will need realistic simulations and repetitive drills to make sure human operators stay ahead of the systems they control. Practising loss of signal, last‑second aborts, and handovers between nations reduces the chance of tragic mistakes once these concepts move from test ranges to real conflicts.
