Electro Optic Systems is headquartered in Canberra, Australia, and built Apollo on decades of laser and electro-optic work that began with tracking satellites rather than shooting at drones.³ The system is rated from 50 to 150 kilowatts of laser power, can destroy more than twenty Group 1 drones a minute at its stated output, and stores over two hundred engagements in its own internal power reserve when cut off from external electricity.^1,4 EOS describes the complete package (laser source, beam director, radar cueing and cooling) as fitting inside a single 20-foot ISO shipping container, with a vehicle-mounted configuration also on offer.¹

Apollo's core pitch is economics as much as physics. EOS says each shot costs under ten cents in electricity, an estimate meant to contrast with missile interceptors that can run into six figures per launch against the same cheap drones.⁵ That arithmetic matters most against drone swarming raids, coordinated attacks by dozens of low-cost aircraft designed to overwhelm a defender's magazine of expensive missiles rather than any single target's armor.⁴ EOS also markets Apollo as ITAR-free, meaning the underlying technology and intellectual property are wholly owned by EOS rather than subject to United States export-control law, a point aimed at customers wary of American re-export restrictions on weapons they might want to modify or resell.²

Within EOS's own product line, Apollo is the high-power laser complement to the company's older Slinger remote weapon station, a gun-based counter-drone system EOS markets for the same layered air-defense role at a different price and range point.¹ The two are designed to plug into shared, NATO-standard command and control, letting an operator mix a laser's cheap-per-shot precision against a single high-value target with a gun's saturating fire against a fast-moving swarm.¹ As of mid-2026 Apollo has one confirmed paying customer, is fighting a public credibility dispute over a second, and is still working toward its first delivered, fielded unit, a status this article covers in detail below.

The 50 to 150 Kilowatt Scalable Fiber Laser and the Group 1-3 Kill Envelope

Apollo's laser output is rated across a 50 to 150 kilowatt band, with EOS positioning the lower end as the exported configuration and the upper end as a growth path already under discussion with at least one prospective customer.^1,6 Published figures describe a hard-kill range of 50 meters to 3 kilometers against drones and a longer optical sensor-denial range of 50 meters to 15 kilometers, the latter meant to blind or dazzle a drone's camera or seeker well before the beam is powerful enough to physically destroy the airframe.^1,6 EOS states the system can destroy more than 20 Group 1 drones per minute, with some marketing material citing up to 50 per minute at shorter ranges, against the smallest weight class in the standard NATO/US unmanned-aircraft classification (Group 1 covers aircraft under about 20 lb, Group 3 up to roughly 1,320 lb).^4,6

Target acquisition runs through an integrated radar for detection and cueing, paired with electro-optical and infrared tracking and beam-locking optics that keep the laser aimed at a moving target once cued.⁶ EOS advertises 360-degree coverage, including engagements against targets diving or climbing steeply, and a slew rate fast enough to swing the beam director 60 degrees and lock onto a new target in under 1.5 seconds, a figure aimed squarely at the reaction-time problem posed by a coordinated multi-drone attack rather than a single slow-moving aircraft.^1,6

Radar Cueing, Command and Control, and Why Apollo Has No Gun of Its Own

Apollo carries no kinetic weapon of its own, no cannon and no interceptor rocket, its entire kill mechanism is the laser beam itself, which EOS and independent coverage both classify as a genuinely non-kinetic weapon rather than a conventional gun or missile system wearing a laser rangefinder.^1,4 That distinguishes it from the company's own Slinger remote weapon station, which fires a conventional cannon, and from most legacy air-defense systems tracked in this leaf, whose specifications (warhead type, missile speed, interceptor guidance mode) simply do not apply to a directed-energy weapon with no expendable round.¹ EOS states Apollo integrates with NATO-fielded command-and-control and integrated air-defense networks rather than requiring a proprietary control system, letting a customer slot it into an existing layered air-defense architecture alongside radars and missile batteries it already operates.¹

Because a laser engagement is not human-reviewable in real time the way a missile launch decision is, EOS and its 2026 acquisition MARSS have both discussed the operator's role in a swarm engagement as human on the loop rather than the older, slower human in the loop doctrine. MARSS chief executive Johannes Pinl has argued a human operator cannot realistically track more than four or five simultaneous drone threats, so a saturating swarm effectively forces automated detection and engagement logic, with the human role shifting to monitoring and override authority from a command post rather than approving every individual shot.⁸

A Weapon That Ships in a Container, and What EOS Still Will Not Disclose

Apollo's basic form factor is a standard 20-foot ISO shipping container housing two protruding emitter units, chosen specifically so the system can be transported, hidden, and set up using the same logistics chain as any other containerized military equipment, without a bespoke trailer or hull built around it.^1,4 EOS says an experienced crew can bring a deployed Apollo unit to operational readiness in under two hours.⁴ A vehicle-mounted configuration is also offered for customers wanting a more mobile fit than a static or towed container.⁷

What EOS has not published is nearly as notable as what it has. The company has never released a unit price, a system weight, a total production count, or a detailed accounting of how many Apollo units exist today versus how many remain contracted for future delivery, all standard figures for most weapon systems covered in this leaf.¹ EOS also declined for months to name its first export customer, describing the Netherlands only as an undisclosed European NATO member until later reporting and a Dutch defense-establishment appearance made the buyer's identity public.^6,15 That pattern of selective disclosure, real and substantial contract announcements paired with withheld operational and financial detail, later became a central theme when a short-seller report challenged EOS's characterization of its second announced order, covered under History below.¹⁰

From Satellite Laser Ranging to the World's First Remote Weapon Station

Electro Optic Systems traces back to the early 1980s, when laser physicist Dr. Ben Greene and a group of colleagues spun the company out of a government satellite-tracking research program, building electro-optical sensors, laser rangefinders and precision gimbals to track satellites and space debris from the ground.³ Management later realized that same pointing, tracking and stabilization technology could be repurposed to aim a weapon rather than a telescope, and EOS built what is generally credited as one of the first true remote weapon stations, a system letting a gunner fire accurately from inside an armored vehicle rather than exposed in an open turret.³ By the late 1980s the United States Army had become an early customer for that technology, and EOS states it has never lost a competitive weapon-station shootout against a rival bidder since.³ EOS Defence Systems, the subsidiary that now houses the company's weapon-station and counter-drone business, was formally established in 1993, and the parent group listed on the Australian Securities Exchange in 2002.²⁰

The 2018 Houthi Drone Raids and EOS's Pivot Toward a Counter-Drone Laser

EOS Group CEO Dr. Andreas Schwer, who took over the company in August 2022 and reorganized it around three business pillars including high-energy lasers, has traced Apollo's origin to 2018, when Houthi forces in Yemen used low-cost drones and cruise missiles to strike targets inside Saudi Arabia.⁷ According to Schwer, that campaign convinced EOS that its Cold War and post-Cold War laser-tracking expertise, developed for tracking satellites during an era when the United States and the Soviet Union both pursued space-based laser weapon research, needed to be redirected toward a ground-based counter-drone system rather than remaining a purely space-surveillance capability.⁷ EOS spent roughly three years running field tests and firing trials of the laser against real targets in close cooperation with prospective customers before offering it commercially, work that culminated in the August 2025 Netherlands order.⁶

The Netherlands contract was announced without naming the buyer, described only as an undisclosed European NATO member state, before later coverage and a Dutch army general's public remarks confirmed the customer.^6,15 EOS unveiled the Apollo name on 8 September 2025 in London, the day before exhibiting the system at DSEI as part of the Team Defence Australia pavilion, with CEO Schwer stating Apollo was ready for partners to adopt, localize and sustain as their own.² Royal Netherlands Army Brigadier General Marc van Ockenburg later described high-energy lasers as forming an indispensable new category of weapon system with real operational and logistical advantages, framing the Dutch order as an extension of a defense relationship with EOS that stretches back almost two decades through earlier remote-weapon-station purchases.¹⁵

The Disputed South Korean Order and a Short-Seller Attack on EOS

On 16 December 2025 EOS announced a conditional agreement worth up to $80 million to supply a 100-kilowatt Apollo system to a South Korean partner, structured around a joint venture to develop and license the technology for the local market, with the buyer identified as Goldrone Co., Ltd.⁹ EOS said the deal required the customer to inspect and accept its new Singapore manufacturing facility before proceeding, with the laser reaching South Korea by the end of 2027 if the agreement held.⁹

On 6 February 2026, New York-based short seller Grizzly Research published a report calling the Goldrone deal a smoke-and-mirrors show meant to mislead investors, pointing to Goldrone's tiny scale (peak recorded revenue of about $476,000 in 2018, a handful of employees, an office above a rural restaurant, and an active fundraising effort to keep operating) as evidence the counterparty could not plausibly fund an $80 million laser weapon order.¹⁰ The same report also challenged EOS's public description of the Netherlands contract, arguing Dutch officials characterized it as funding a prototype for delivery around 2028 while EOS's own CEO had described it as the company's first operational deployment moving beyond prototypes to real-world use.¹⁰ EOS shares fell as much as 16 percent before trading was halted on the Australian Securities Exchange.¹¹

EOS shares partly recovered, closing up nearly 12 percent the trading day after the rebuttal, though the stock remained well below its pre-report level for weeks afterward, and analysts covering the company were split between maintaining bullish price targets and flagging the unresolved credibility question over the South Korean order.¹³

A Singapore Factory, a European Acquisition, and a Push Toward 300 Kilowatts

In February 2026, days after the Grizzly Research dispute broke, EOS opened a dedicated high-energy laser manufacturing and integration facility in Singapore, intended as a regional production hub supporting both the Netherlands and any future South Korean order, alongside broader Asia-Pacific customer demand.¹⁴ On 13 January 2026 EOS had already announced an agreement to acquire MARSS, a European counter-drone command-and-control company whose AI-driven NiDAR platform fuses sensor data across a battlefield and recommends engagement responses, a deal EOS completed by mid-2026 for an upfront cash payment of about $36 million plus up to $160 million in earn-out payments tied to future MARSS orders.^16,8 The acquisition was pitched as turning EOS from a components and effectors supplier into a full prime contractor able to bid entire integrated counter-drone systems, laser and gun effectors paired with MARSS's detection and decision software, rather than selling Apollo as a standalone weapon a customer must integrate itself.¹⁶

On 10 February 2026, at the World Defense Show in Saudi Arabia, EOS also announced a strategic partnership with Turkish defense manufacturer ROKETSAN to jointly pursue integrated counter-drone opportunities where local industrial participation is a procurement requirement, pairing EOS's kinetic and laser effectors with ROKETSAN's platform-integration and regional relationships.¹⁷ Separately, EOS has said it is in late-stage talks for a 300-kilowatt version of Apollo for an unnamed Middle Eastern customer, reportedly seeking the higher power level to add a counter-rocket, artillery and mortar capability on top of counter-drone defense amid regional tensions linked to the Iran conflict, a contract that if signed would launch a roughly three-year development program.¹⁸

Apollo has not been used in combat. Every publicly reported test and demonstration of the system has taken place under EOS's own field-trial program rather than against a real, hostile threat, and no operator has announced fielding a unit in an active conflict zone as of mid-2026.⁶

The system's commercial case nonetheless rests directly on real conflicts. Houthi drone and missile raids on Saudi Arabia beginning around 2018, the same group's later attacks on Red Sea shipping from 2023 onward, and the mass use of cheap first-person-view and loitering drones in the Russia-Ukraine war have all been cited by EOS and by industry press as the demand driver behind Apollo, even though none of those conflicts has involved Apollo hardware itself.^7,18 The pending 300-kilowatt order under discussion for a Middle Eastern customer is likewise described as motivated by regional tension connected to the Iran conflict rather than by any confirmed deployment.¹⁸

Apollo is not sold as a set of fixed, separately named models so much as a single scalable design offered across a 50 to 150 kilowatt power range, with the lower end representing the configuration EOS has actually contracted to deliver to the Netherlands and the upper end available to customers willing to pay for a longer effective range and faster kill rate.^1,6 A distinct 300-kilowatt variant is under negotiation for an undisclosed Middle Eastern buyer specifically to add counter-rocket, artillery and mortar capability that the lower-power configurations are not sized for, a substantially different engineering target from shooting down a Group 1 drone.¹⁸

Following the 2026 MARSS acquisition, EOS also began offering Apollo as part of an integrated system built around MARSS's NiDAR command-and-control software rather than only as a standalone containerized weapon a customer must wire into its own network, a packaging distinction EOS argues lets it compete for larger, prime-contractor-level programs rather than only supplying an effector to someone else's system.¹⁶ EOS's partnership with ROKETSAN points toward a further variant path, an Apollo-derived system integrated onto ROKETSAN platforms for markets where local industrial content is a contractual requirement, though as of mid-2026 no such configuration had been contracted.¹⁷

The Kingdom of the Netherlands is Apollo's only confirmed customer. The Dutch Ministry of Defence signed the EUR71.4 million order in August 2025 for delivery of the system, spare parts, training and documentation between 2025 and 2028, with EOS indicating it could ship the first hardware as early as mid-2027, ahead of the contracted schedule.^1,6 The order built on an existing defense relationship between the Netherlands and EOS stretching back nearly twenty years through earlier remote-weapon-station purchases, a track record Dutch officials cited directly when discussing the laser order.¹⁵

A second, conditional order announced in December 2025 named South Korea, through the small counterparty Goldrone Co., Ltd., as a prospective customer for an $80 million laser weapons joint venture, but EOS's own February 2026 financial disclosures explicitly excluded that agreement from its firm order backlog, and independent reporting has raised serious doubts about whether the deal will actually close.^9,12 Until that status changes, South Korea is best described as a disputed, unconfirmed prospective customer rather than a confirmed operator. Despite Apollo being an Australian design, EOS's home country, Australia, has not been publicly confirmed as ordering the Apollo system itself, even as EOS has continued winning separate domestic contracts for its older R400 remote-weapon-station family through 2026.³

Apollo enters a laser counter-drone field defined less by raw power than by contract status, and its strongest point of comparison is which rival has actually converted years of demonstrator trials into a signed, funded delivery. The United Kingdom's DragonFire, built by a MBDA-led consortium with Leonardo and QinetiQ, sits in the 50-kilowatt class and moved from demonstrator to a GBP316 million Royal Navy production contract in November 2025, targeting a first Type 45 destroyer fit in 2027.¹⁹ Israel's Iron Beam, built by Rafael Advanced Defense Systems, sits in the roughly 100-kilowatt class and has moved furthest toward genuine operational relevance, developed specifically against the high-intensity rocket, mortar and drone threat environment Israel already faces.¹⁹

Apollo's genuine edge over both rivals is that it is the only one of the three with a signed, named export customer outside its home country, the Netherlands order, giving EOS a real claim to being first to market internationally even before Apollo has completed a single fielded deployment.¹ Its disadvantage against Iron Beam is operational seasoning, Rafael's system has moved further toward real combat relevance in an active threat environment, while Apollo remains, like DragonFire, a system whose only public results come from EOS's own controlled field trials rather than a customer's operational service.¹⁹ Against DragonFire specifically, the more direct comparison is transparency and financial credibility rather than beam physics, DragonFire's cost, schedule and technical setbacks have been aired publicly through UK parliamentary and Ministry of Defence channels, while Apollo's equivalent scrutiny arrived abruptly, through a hostile short-seller report rather than a government audit process, and produced a company rebuttal rather than an independent government accounting.^10,12

What is the EOS Apollo laser weapon?

Apollo is a scalable, 50-to-150-kilowatt high-energy laser weapon built by the Australian company Electro Optic Systems to destroy or disable small and medium drones, unveiled publicly in September 2025 after a world-first 100-kilowatt-class export order to the Netherlands the previous month.^1,2

How much does the Apollo laser weapon cost per shot?

EOS's headline figure is under ten cents in electricity per engagement, though the company has separately cited roughly one to two euros per shot in generator fuel in a more technical discussion of Apollo's role within an integrated defense system, a smaller gap than the marketing figure alone suggests.^5,8

Who manufactures the Apollo laser weapon?

Electro Optic Systems (EOS), an Australian defense technology company headquartered in Canberra with laser and electro-optic roots in satellite tracking rather than weapons, designs and builds Apollo, and manufactures it partly through a dedicated Singapore facility opened in February 2026.^3,14

Is the EOS Apollo laser weapon in service?

Not yet fully. The Netherlands has a confirmed order for delivery between 2025 and 2028, with EOS suggesting first units could ship as early as mid-2027, but no operator has announced Apollo as operationally fielded or used in a real engagement as of mid-2026.^1,6

What is the range of the Apollo laser weapon?

EOS states a hard-kill range of 50 meters to 3 kilometers against Group 1 to 3 drones and a longer optical sensor-denial range of 50 meters to 15 kilometers for disrupting a drone's camera or seeker rather than destroying the airframe outright.^1,6

How does the Apollo laser weapon compare to DragonFire and Iron Beam?

Apollo, the UK's DragonFire and Israel's Iron Beam are all high-energy laser counter-drone weapons in a similar power class, but they differ sharply in maturity, DragonFire has a signed Royal Navy production contract, Iron Beam is closest to genuine operational relevance against a real threat environment, and Apollo is the only one of the three with a confirmed export sale outside its home country, even as it faces public questions over a second, disputed order.^19,10

Has the Apollo laser weapon been used in combat?

No. All public information about Apollo comes from EOS's own field trials and demonstrations rather than a real engagement, and the conflicts most often cited as driving demand for the system, Houthi drone attacks on Saudi Arabia and Red Sea shipping and the drone war in Ukraine, have not involved Apollo hardware itself.^7,18

Who has bought the Apollo laser weapon?

The Netherlands is the only confirmed buyer, under an EUR71.4 million contract signed in August 2025. A second, $80 million conditional order announced for South Korea in December 2025 is disputed, and EOS's own reporting excludes it from the company's firm order backlog.^1,9,12