EOS Apollo laser system targets drone threats at speed of light

Attack reaches the target at the speed of light
EOS describes the fundamental advantage of laser weapons over kinetic systems in countering autonomous drones.
Mark

So the Apollo laser is fast—speed of light, obviously—but what makes it different from other counter-drone systems already in use?

Mimi

The integration. It's not just a laser cannon. It's detection at 25 kilometers, tracking of 1,000 objects simultaneously, AI-powered threat classification, and then the choice of which weapon to use. That layering is the real advantage.

Luke

But we should be clear: the source doesn't say this system has been tested in actual combat. The 20-drones-per-minute figure comes from testing, not operational deployment. We don't know how it performs against Group 3 drones or in contested environments.

Mark

What about cost? The source says each shot is under 10 cents.

Mimi

That's the electricity cost per shot. But you have to account for the system itself, the sensors, the command infrastructure. The per-shot cost is cheap, but the total cost of ownership is different.

Luke

Right. And the source doesn't give us the price of the Apollo system itself, or the Slinger, or the full integrated package. We know the operating cost is low, but not the capital cost.

Mark

Why is this being shown at a Polish defense exhibition?

Mimi

Poland is on NATO's eastern flank. Drone threats are real there—Ukraine has demonstrated autonomous drone capabilities extensively. Poland is a natural market for this technology.

Luke

The source doesn't explicitly say Poland is a target customer. It just says EOS is exhibiting at MSPO. We can infer interest, but we shouldn't state it as fact.

Mark

The autonomous drone problem—drones that can't be jammed—is that actually a widespread threat now?

Mimi

The source references Ukraine and the evolution of drone technology there. Autonomous navigation without GPS or radio contact is becoming more common. That's the threat Apollo is designed to address.

Luke

But the source doesn't quantify how many autonomous drones are actually in use, or how significant the threat is compared to radio-controlled drones. It's presented as a future problem, or an emerging one, but we don't have hard numbers on prevalence.

  • Autonomous drones that navigate without radio or GPS have rendered electronic jamming obsolete, leaving defenders scrambling for a response that works against a threat that cannot be talked down.
  • Apollo fires at the literal speed of light, locking onto targets in under 1.5 seconds and leaving no debris trail, no spent munitions, and no window for evasion — a weapon whose physics are its advantage.
  • The system's AI simultaneously tracks over 1,000 airborne objects across 25 kilometers, classifying threats and recommending countermeasures in real time, turning a chaotic sky into a managed picture.
  • At under 10 cents per shot and over 200 kills per charge, Apollo reframes the economics of air defense — a drone swarm costing thousands can be met with a response costing dollars.
  • Packaged in a standard shipping container and operational within two hours of arrival, the system is designed for the fluid, wide-area conflicts where threats move faster than traditional infrastructure can follow.

At a major defense exhibition in Kielce, Poland, in September 2026, Australian firm Electro Optic Systems presented a quiet but consequential argument: that the age of the drone has outpaced the age of the jammer, and that light itself may be the only answer fast enough to matter. Their Apollo laser system — capable of destroying a drone in under 1.5 seconds at a cost of less than a dime per shot — represents not merely a new weapon, but a philosophical shift in how nations might defend their skies against threats that no longer need a human hand to guide them.

At the 34th International Defence Industry Exhibition in Kielce, Poland, Australian defense contractor Electro Optic Systems unveiled Apollo — a high-energy laser weapon system built to answer a problem that has quietly reshaped modern warfare: drones that fly autonomously, without radio contact or GPS, and therefore cannot be jammed.

The system fires at the speed of light, operating at 50 to 150 kilowatts of power, locking onto a drone in under 1.5 seconds. There is no evasion possible, and when the target is destroyed, only debris remains — no spent munitions, no recovery operation. But EOS frames Apollo not as a standalone weapon, rather as one layer in a broader architecture. Detection begins at over 25 kilometers. Artificial intelligence tracks more than 1,000 objects simultaneously, classifying threats and recommending responses in real time.

For closer engagements, the Slinger — a 30-millimeter cannon system mountable on combat vehicles — handles targets from 800 meters out. Apollo covers the laser's own range of 50 meters to 3 kilometers, and in testing neutralized more than 20 small drones per minute.

The economics are the system's most striking feature. Each shot costs less than 10 cents — essentially electricity. Running on internal power alone, Apollo can achieve over 200 kills before recharging. Against the cost of missiles or manned sorties, the arithmetic is difficult to ignore.

Practically, the entire system ships in a standard 20-foot container and reaches operational readiness within two hours of arrival — a mobility that matters when threats emerge unpredictably across wide areas. EOS presented Apollo at the Australian Pavilion, positioning it for consideration by allied nations navigating the same unmanned threat landscape.

At the 34th International Defence Industry Exhibition in Kielce, Poland, in September 2026, Australian defense contractor Electro Optic Systems unveiled a system designed to address one of modern warfare's most pressing problems: how to stop drones that operate autonomously, without radio contact or GPS signals, and therefore cannot be jammed into submission.

The answer, EOS argues, is speed. Their Apollo laser weapon system fires at the speed of light—literally the fastest possible attack vector. The scalable high-energy laser operates at 50 to 150 kilowatts of power and can lock onto and engage a drone in less than 1.5 seconds. Once fired, the beam reaches its target instantaneously, leaving no time for evasion. When the drone is destroyed, only debris falls; there is no spent missile or rocket to recover or account for, a practical advantage over kinetic weapons.

But Apollo is not presented as a standalone tool. EOS frames it as one component of a layered defense architecture that begins with detection. The system can identify unmanned aircraft from more than 25 kilometers away and simultaneously track over 1,000 objects—both friendly and hostile—in real time. Artificial intelligence and machine learning classify threats and recommend which countermeasure to deploy. This integration of sensors, analysis, and effectors is the real innovation: a complete picture of the airspace, updated continuously, with automated decision support.

When engagement is necessary, EOS offers two options. The Slinger is a 30-millimeter cannon system, weighing roughly 400 kilograms, that can be mounted on various combat vehicles. It fires proximity-fused ammunition that detonates near the target, and it can engage drones at ranges exceeding 800 meters, or ground targets at up to 2,000 meters. Apollo complements it, detecting drones from 50 meters to 15 kilometers away and engaging them from 50 meters to 3 kilometers. The laser is effective against Group 1, 2, and 3 unmanned aircraft—a classification that includes small tactical drones weighing up to roughly 900 grams. In testing, Apollo demonstrated the ability to neutralize more than 20 Group 1 drones per minute.

The economics are striking. Each laser shot costs less than 10 cents—essentially the price of electricity. A system powered by an external source has unlimited ammunition capacity and can engage an unlimited number of targets. Operating on internal power alone, Apollo can achieve over 200 kills before requiring recharge. Compare this to the cost of a missile or a manned aircraft sortie, and the arithmetic becomes clear: laser weapons offer a scalable, repeatable, and affordable response to drone swarms.

Deployment is practical. The entire Apollo system fits inside a standard 20-foot shipping container. From the moment it arrives at a location, the system can be operational within two hours. This mobility matters in a conflict where threats emerge across wide areas and resources must be repositioned quickly.

The technology addresses a specific vulnerability in modern air defense. Drones equipped with autonomous navigation can reach a target, identify it, and attack without any radio link to an operator—which means jamming is useless. Kinetic effectors become the only reliable option. Laser weapons, by virtue of their speed and precision, represent a new category of response. EOS presented Apollo at the Team Defence Australia stand in the Australian Pavilion, positioning the system for potential adoption by allied nations watching the evolution of unmanned warfare.

Once a drone is destroyed, only its debris falls to the ground, not the missile or rocket used to destroy it.
— EOS on the operational advantage of laser weapons
The cost of countering drones with lasers is essentially limited to the cost of electricity required to power the laser system.
— EOS on the economics of laser-based counter-drone defense
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