Laser Directed
Energy Weapons.

01 The executive briefing

Laser weapons are becoming a procurement and industrial story. The decisive change is the appearance of identified buyers, funded manufacturing work and initial deliveries alongside the familiar footage of drones being brought down. In September 2026, AeroVironment announced a US$464.8 million US Army production contract for its LOCUST family. Britain has contracted DragonFire for initial naval installations; Israel has received its first full Iron Beam system. These are materially different commitments from a laboratory demonstration. [2] [3] [4]

The proposition is compelling: use electricity to defeat some aerial threats, reducing the draw on finite stocks of interceptors. The practical test is harder. A useful laser weapon must see and follow an object, deliver its intended effect through the atmosphere, operate safely, manage heat and power, and remain serviceable with the people and equipment available to its customer. Each successful demonstration answers only part of that question.

The clearest near-term opportunity is an additional layer of drone defence. A laser can relieve pressure on other weapons while those weapons retain essential roles. NATO's integrated air-defence policy explicitly combines different systems and technologies. The commercial opportunity therefore extends from the laser source to sensors, optical directors, software, integration, training and support. [5]

The five companies at the heart of this report represent several different businesses. INLEAP Photonics brings industrial beam-steering expertise to compact drone defence. Ground A is a new venture building an integrated product. QinetiQ supplies a critical laser source and test expertise. MBDA is a weapons integrator spanning national programmes. Rafael leads an Israeli air-defence programme with Elbit supplying its high-power laser. Comparing them as five equivalent manufacturers would obscure where each earns its place.

The German entrants are particularly timely. INLEAP's approximately €20 million (about US$22.4 million) seed financing and Ground A's €9.1 million (about US$10.2 million) pre-seed disclosure appeared in September. INLEAP then demonstrated Laserdome publicly at Strausberg on 14 October. Ground A's September statement placed GA 1000 in testing and validation. Investor backing and a successful test are meaningful milestones; neither establishes a large operational fleet. [6] [7] [8]

The most revealing number may be 365 days. In August, a senior US counter-drone official described a planned year-long pilot to measure operating cost, repair downtime, power demand and contractor dependence. That is the evidence buyers need to turn attractive firing costs into dependable protection. [9]

DFC assessment: the opportunity is real, but the competition will be decided by repeatable performance, integration and support as much as by laser power.

The following chapters explain the technology, distinguish the companies and their offerings, trace money to actual customers, and set out plausible paths for the industry. Evidence is current to 21 October 2026. Future dates remain targets; supplier performance claims remain attributed.

02 Why this matters now

The drone problem has changed the economics of defence. A small aircraft can create a serious military or commercial threat without costing anything like the asset it threatens. Defenders must also consider the cumulative burden of repeated incidents: ammunition, personnel, maintenance and disruption. The value of a defensive system depends both on what it prevents and on how long it can continue protecting a site.

Political demand has become explicit. NATO's July 2026 Drone Edge statement says Allies are investing more than US$40 billion in counter-drone capabilities over five years and developing a counter-drone marketplace. This is a broad commitment covering many technologies. It supplies context for laser demand, not a laser market-size estimate or an allocation to the companies in this report. [10]

Europe is also building common procurement and industrial pathways. In September, the EU Council designated five defence projects of common interest, including DECODER for drones and counter-drone systems and a federated air-and-missile-defence project. The designation makes those projects eligible for EDIP funding. It does not identify a laser order. Its relevance is institutional: governments are trying to combine fragmented requirements into larger programmes. [11]

Three developments make lasers more plausible within that environment. Electrically powered laser technology offers a route away from dependence on a consumable interceptor for every engagement. Smaller sources and improved optical control have made more compact systems possible. Finally, buyers are funding the less glamorous work of integrating equipment into platforms and organisations. GAO describes technological progress alongside the continuing challenge of moving systems into widespread use. [12]

Where the laser fits

The choice is among different effects, not simply among brands of equipment. Radio-frequency jamming disrupts susceptible communications or navigation. A laser applies concentrated optical energy to an object. A high-power microwave system acts on electronics, potentially over a broader area. Guns, interceptor drones and missiles provide physical interception with different characteristics. Detection is a separate task shared across these approaches. [13] [12]

This creates room for several business models. An entrant may sell an effector that joins someone else's command system. Another may offer the complete site-protection package. A prime contractor may qualify the weapon for a particular ship. A photonics specialist can participate without owning the customer relationship for the whole system.

That distinction is already visible in NATO experimentation. The August 2026 LCI-X exercise in Latvia examined how information moved among sensors, operators, response systems and different command levels. The programme's focus was interoperability. It is evidence of the integration problem buyers are working on, without implying that any particular laser in this report participated. [14]

03 What a laser weapon actually does

LDEW means laser directed-energy weapon. HEL, or high-energy laser, is the common US shorthand. The energy travels as light rather than inside a projectile. When sufficient optical energy is absorbed by an object, it can produce a damaging thermal effect. The useful outcome depends on the complete system and conditions, so the source's power rating alone cannot establish its military effectiveness. [12]

The light source and the rest of the machine

Modern programmes commonly use electrically powered solid-state lasers. In this terminology, a fibre laser is one type of solid-state laser: the light-producing medium is incorporated into an optical fibre. This matters commercially because industrial photonics can contribute technology, manufacturing knowledge and components. Military use still imposes separate qualification, environmental and support requirements. [15]

Increasing useful output is not simply a matter of building a larger version of a laser pointer. One approach combines the contribution of multiple sources. Spectral combining brings together different wavelengths; a loose visual analogy is reversing a prism's separation of colours. Coherent combining coordinates the phase of optical waves. Both seek useful power with controlled beam quality, through different architectures. MIT Lincoln Laboratory's work explains the distinction and why brightness and beam quality matter alongside total output. [16] [17]

Those techniques also explain the industry's division of labour. A manufacturer can own valuable source or combining technology while another company supplies the director and a third integrates the weapon. DARPA's historical EXCALIBUR research explored coherent combination as a route to compact electrically driven systems. Its ambitions illustrate a research pathway; they should not be mistaken for specifications already achieved by today's products. [18]

The beam director is the optical assembly that places and stabilises the beam. The distinction from the source is fundamental: producing light and controlling it precisely on a moving platform are different engineering tasks. Leonardo's DragonFire account identifies its director as a central element alongside QinetiQ's source and MBDA's overall integration. [20]

Adaptive optics is a broad term for correcting some optical distortions. It can improve propagation under particular conditions, but it cannot abolish cloud, fog or all atmospheric effects. Similarly, stabilisation helps address platform movement without making every moving installation equivalent to a stationary test environment. [21]

Reading a specification without being misled

A kilowatt rating describes power, a rate of energy transfer. It is not an engagement range, a number of drones defeated per minute, or the electrical demand of the complete installation. A catalogue's detection range can also be quite different from the range at which its laser delivers the required effect. Public specifications frequently leave out the environmental and test conditions needed for a fair comparison.

The useful specification is therefore a bundle: the intended mission, the actual system configuration, the conditions in which it was demonstrated, platform requirements and measured availability. Headline output is one descriptor within that bundle. A compact close-range counter-drone system and a larger naval installation can be sensible products for different customers without being directly comparable on a single power chart.

Laser dazzling is another distinct application. It degrades an optical sensor rather than necessarily destroying the aircraft carrying it. The US Navy's ODIN illustrates why labels matter: NAVSEA reported a dedicated training course in May 2026 and described fleet use, while explicitly saying ODIN was not a programme of record. Field use, a destructive-laser capability and formal acquisition status are different propositions. [22]

04 The constraints that shape the market

Atmospheric availability

Fog, clouds, airborne particles and turbulence can reduce or distort optical energy reaching an object. Heating along the beam's path can also affect propagation. Public reports therefore need to preserve the conditions attached to a test. A successful trial in adverse weather establishes performance in those tested conditions; it does not establish universal all-weather coverage. [21]

For a buyer, this is an availability question. A system may perform very well during suitable conditions and still require complementary protection. The relevant economic measure must account for the periods when its contribution is limited. DFC's inference is that site and platform suitability will produce uneven adoption, even if the underlying technology improves steadily.

Power and cooling

An electrical supply makes replenishment attractive, but the installation must convert that electricity, operate its other equipment and remove waste heat. A ship, vehicle and fixed facility offer different integration opportunities and constraints. Source output can grow while the surrounding installation remains difficult or expensive to accommodate. GAO identifies power, thermal management, sensors, optics and platform integration as part of the complete capability. [19]

The difference between fast light and fast defence

Light propagation is extremely fast. Detection, identification, authorisation, tracking, assessment and the physical effect still take time. A replenishable electrical magazine therefore says little by itself about capacity against many arriving threats. Claims about a swarm demonstration must identify the technology involved and what the test actually measured.

For example, the US Air Force's THOR demonstration in April 2023 involved high-power microwaves. It was an early demonstrator, described in an Air Force announcement the following month. Its reported success cannot be transferred to a laser product or treated as proof of unlimited multi-target capacity. [23]

Field reliability

Optical systems must survive contamination, vibration, transport and maintenance outside a controlled laboratory. An airborne platform adds its own aerodynamic and mechanical difficulties. AFRL's 2023 HARDROC flight work investigated a beam director using a low-power, subscale test system. That was evidence about a subsystem, not a demonstration of an airborne weapon defeating threats. [24]

Maintainability is receiving more attention. A June 2026 US Naval Research Laboratory demonstration of a dual-use laser system examined adverse conditions, field repair and user feedback. The significance lies in the questions being tested. It does not provide a fleet-wide reliability rate. [25]

Safe use in shared airspace

Infrastructure protection introduces aircraft, bystanders and other legitimate users into the operating environment. Eye safety, identification and authorised use have to be established for the particular system and setting. A supplier's safety proposition should be assessed against the conditions and controls supporting it.

In April 2026, the FAA and US defence authorities announced completion of a safety assessment for a high-energy laser counter-drone system, with continued coordination to protect civilian aviation. That is tangible progress for the assessed system. It is not a general approval for any company to operate lasers around airports. [26]

05 Five names and five industrial positions

INLEAP Photonics

Position: a German photonics specialist translating industrial beam steering into compact counter-drone products.

Hanover-based INLEAP originated as a Laser Zentrum Hannover spin-off. Its industrial work covers fast laser-processing applications, and a pre-seed round led by HTGF closed in summer 2025. Ventis Capital and private investors also participated; the amount was undisclosed. That history gives the defence offering a technology and manufacturing foundation, while military qualification remains a separate task. [27]

FASTLIGHT SHIELD is its principal drone-defence effector. The Bundeswehr Cyber Innovation Hub's Laserdome case records trials beginning in April 2026 and successful drone interceptions. It describes software-assisted operation with human authorisation and continuing work on environmental behaviour and unfamiliar drone types. This provides a useful government-linked account of a system in development. [28]

On 14 October 2026, a public demonstration at Strausberg brought down a flying drone, according to rbb's report carried by Tagesschau. The same account described readiness in two to three years as conditional on further development and procurement. The distinction matters because a demonstration can be convincing while a military purchasing and fielding process remains ahead. [8]

The company offers a second configuration, FASTLIGHT HELD, on an unmanned ground vehicle. Its May 2026 announcement combines an INLEAP effector, a Hentschel System ground platform and STARK counter-UAS software. Delivery availability from 2027 was a company ambition, rather than a disclosed Bundeswehr series order. [29]

September's financing is intended to expand production and testing, quality processes, sales and service. The company names UVC Partners as lead investor, alongside HTGF, Balnord, Sentris and Scale Capital. Scale Capital explicitly describes an approximately €20 million (about US$22.4 million) seed round, resolving ambiguity in the company's phrase “in total.” The undisclosed earlier round prevents a reliable lifetime funding total. [30] [6]

Its safety positioning could be commercially significant for infrastructure customers. A BMVg-commissioned study announced in June involves INLEAP, Laser Zentrum Hannover, BG ETEM and AGIMUS, examining conditions for laser use on Bundeswehr sites. The study announcement did not disclose a price or final approval. DFC's view is that verified safety and acceptance evidence may prove as commercially important as the optical technology. [31]

Ground A

Position: a recently founded German company proposing an integrated, transportable drone-defence system.

Ground A GmbH is a Düsseldorf-registered defence technology company. [32]

Its GA 1000 combines radar, optical sensing, software and a laser effector. The marketed format occupies a Euro-pallet footprint and uses separate portable energy modules. The company describes automatic detection and tracking, with a human making the engagement decision. The company targets military users, critical infrastructure and public safety. For infrastructure, it advertises purchase or a service model. These are product and commercial propositions, rather than a list of verified customers. [33] [34]

Ground A says it was founded in January 2026 and closed €9.1 million (about US$10.2 million) of pre-seed financing in June. Its release webpage is dated 8 September, while the body carries an August dateline. Vsquared Ventures led; named participants include Quantum Systems, GRIF, Robin Capital, ABACON, Leblon Capital and OVNI Capital. At announcement, GA 1000 was entering testing and validation, with series production planned for 2027. The reviewed release identifies no military production order. Investor participation is not customer acceptance. [7]

Its public material requires careful reading. “Several kilometres” describes detection, not a demonstrated laser engagement distance. The website also labels its imagery as AI-generated. [33] DFC would treat the next important proof points as independently documented trials, an identified customer, qualification and a funded production commitment.

QinetiQ

Position: a source-technology and test specialist with an established route into a national procurement programme.

QinetiQ supplies DragonFire's laser source and testing expertise under MBDA's prime contract. Its £67 million (about US$89.4 million) award, announced in January 2026, sits within that programme. It must not be added to the £316 million (about US$421.8 million) prime contract as another increment of government spending. The arrangement demonstrates how a subsystem company can capture meaningful work without selling the complete weapon directly to the Navy. [35]

In July 2026, QinetiQ announced £20 million (about US$26.7 million) of its own investment in laser development and manufacturing at Farnborough and Malvern, alongside HELENA, the brand for its high-energy laser-source products. That is corporate capacity investment, distinct from both customer orders and venture financing. The strategic inference is that QinetiQ aims to serve additional UK and allied programmes through a reusable source business. Future market share is still unproven. [36]

MBDA

Position: the weapons integrator linking sources, optical control, platforms and government customers.

In Britain, MBDA leads DragonFire, with QinetiQ and Leonardo. The Ministry of Defence awarded a £316 million (about US$421.8 million) contract in November 2025 after further testing. A March 2026 parliamentary answer identifies the first two units under that contract and the first Type 45 destroyer installation planned for 2027. This is contracted initial capability, with installation and sustained naval operation still ahead at the evidence cutoff. [37] [3]

Leonardo's beam director is an essential part of this industrial picture. Treating DragonFire as MBDA's laser alone would miss the source and optical-control businesses inside it. Conversely, buying a source module would not deliver the integrated naval capability for which MBDA is responsible.

MBDA also participates in different national arrangements. In Germany it partners Rheinmetall on a naval system; in France it works with CILAS, Safran and Thales. An Italian memorandum with Leonardo, announced in December 2024, concerns further laser development and is not a disclosed Italian procurement award. MBDA's presence across these networks does not make them one common product. [38]

Rafael

Position: the prime developer and integrator of Israel's Iron Beam family, connected to an existing national air-defence architecture.

Rafael markets the main Iron Beam as a 100 kW-class system, Iron Beam-M as a 50 kW-class mobile offering, and Lite Beam as a smaller tactical product. A naval variant is also presented. Catalogue ranges and target coverage are supplier specifications; mobile and naval listings do not by themselves establish purchases. The later name “Iron Beam 450” should not be read as a 450 kW rating. [39] [40]

Elbit supplies the high-power laser source, while Rafael integrates the system under Israel's Directorate of Defense Research and Development. The first full Iron Beam was delivered to the IDF on 28 December 2025, according to the defence ministry. Additional systems were described as in production. The announcement did not disclose a nationwide deployed quantity or an engagement-level performance dataset. [4]

Israel's June 2026 test update is commercially significant because it describes Iron Beam working with Iron Dome through the latter's battle-management network. Integration into an established defensive architecture can be a strong route to adoption. It does not mean that Iron Dome's earlier missile interceptions can be counted as laser successes. [41]

The combat-history distinction is essential. In May 2025, Israel announced wartime interceptions by smaller Rafael laser prototypes, explicitly distinguishing them from the more powerful Iron Beam then under development. The prototypes' reported record should not be transferred to the later delivered full system. No named foreign Iron Beam purchaser was verified in this research. [42]

06 Europe's wider industrial network

Germany's naval programme

Germany has moved beyond a cooperation announcement. On 9 July 2026, Rheinmetall reported a BAAINBw contract with the MBDA Deutschland/Rheinmetall working group to develop a naval laser system. The stated value is in the mid three-digit million-euro range (also hundreds of millions of US dollars; no exact amount disclosed), with operational readiness expected in 2029. The release supplies neither an exact value nor a production quantity. [43]

The programme builds on demonstrator work aboard the frigate Sachsen and at WTD 91. Rheinmetall reports extensive firings and maritime experience; these remain company-reported trial results. Its July announcement says the partners are forming a joint venture and stresses domestic supply chains. The business opportunity includes a qualified German maritime system and its industrial support, rather than merely selling a more powerful source. [43]

Another German route joins TRUMPF and Rohde & Schwarz. Their October 2025 partnership combines industrial high-energy laser expertise with spectrum-control and radar capabilities. The announced intention is to integrate the laser into a wider drone-defence offering. No customer, order value or delivered fleet was specified. The pairing nevertheless illustrates why established industrial suppliers could enter alongside venture-funded companies. [44]

France's two tracks

France has a small acquired capability in CILAS HELMA-P and a separate higher-power development pathway. A French Senate equipment report records three HELMA-P weapons acquired in July 2024. CILAS says its equipment participated in protection of the Paris Olympic and Paralympic Games. The event deployment should not be represented as a record of destroying hostile drones at the Games. [45] [46]

CILAS occupies an important industrial junction. MBDA and Safran acquired ArianeGroup's 63% stake in 2022 through their equally owned HMS Laser vehicle. CILAS continued to serve other customers. The structure links a specialist photonics supplier with larger defence integrators without turning every CILAS activity into an MBDA weapon programme. [47]

SYDERAL, notified by DGA in August 2025, brings together MBDA, Safran, Thales and CILAS for a more powerful demonstrator. DGA separately identifies a €10 million (about US$11.2 million) 2024 award to Lumibird and CILAS for laser sources; that amount is not the value of the whole SYDERAL system contract. MBDA describes a ground and maritime demonstration by the end of 2030. [48] [49]

The European supply-chain investment

The European Defence Fund's TALOS-TWO selection sheet sets a maximum EU contribution of €25 million (about US$28.0 million) against an estimated €25.3 million (about US$28.4 million) project cost. CILAS coordinates a consortium including Leonardo, MBDA France, Rheinmetall, Thales and specialist research organisations. Its work on sources and beam combining aims to contribute to a European 100 kW-class capability toward 2030. [50]

This is research funding, not a purchase of operational weapons. Its industrial purpose is still significant: sovereign capability depends on sources, optics, qualified suppliers and know-how as well as final assembly. DFC's assessment is that the supply chain could be a more durable area of competition than national product branding alone.

07 The wider procurement picture

United States: the move toward production

The US landscape contains distinct technologies and procurement histories. AeroVironment's LOCUST, inherited through its acquisition of BlueHalo, has moved from prototype work toward production. AV completed the BlueHalo transaction in May 2025; treating the two as independent current competitors would double-count one ownership chain. [51]

On 2 September 2026, AV announced a US$464.8 million production agreement for the Army's Enduring-High Energy Laser programme, covering dozens of LOCUST X3 systems over the following years, with support and training. AV calls it the first US production contract for high-energy laser weapons. The exact quantity, initial obligations and payment schedule were not disclosed in the release. [2]

Six days later, AV announced a first international direct commercial LOCUST order of more than US$50 million, including systems and support. The customer was unnamed. That establishes an announced export sale; it does not identify a country or allow attribution to a particular foreign service. [52]

Lockheed Martin has a separate naval route through HELIOS, delivered to the US Navy in August 2022. Its 60-plus-kW-class system combines a high-energy laser with optical dazzling and surveillance. That combination illustrates the possibility of several functions within one installation, while delivery of an early system remains different from a large fleet buy. [53]

RTX/Raytheon has also delivered compact counter-drone lasers. Its June 2023 release describes the palletised 10 kW H4 as its fourth system delivered to the Air Force and eighth to the US defence department. Those are delivery claims, stronger than a concept announcement, but not an independently verified combat success rate. RTX's microwave products are a separate category. [54]

nLIGHT is particularly relevant to the photonics supply-chain story. Its July 2026 Joint Laser Weapon System agreement carries US$44 million initially, with a US$627 million ceiling for development, integration and potential production. The company's roadmap describes initial prototypes followed by higher-power iterations. The ceiling is not committed sales, and proposed later output classes are not delivered capability. [55]

The Pentagon's combined July JLWS announcement names nLIGHT Defense and Lockheed Martin Aculight: US$86 million initial awards against an US$847 million total programme ceiling. The intention is to move integrated systems toward practical use on ground and naval platforms. This is funded development and transition work, distinct from the Army's later LOCUST production award. [56]

Israel: a government-backed system entering the force

Israel's initial Iron Beam delivery is supported by a broader manufacturing commitment. An agreement announced in October 2024 allocated approximately NIS 2 billion (about US$643.6 million) to expanding production with Rafael and Elbit. Elbit separately announced an approximately US$200 million contract for high-power laser systems and support. Those figures describe different levels of the same programme and should not automatically be added. [57] [58]

US support adds another financing layer. The April 2024 supplemental appropriation provides US$1.2 billion for Israeli procurement of Iron Beam. An appropriation is funding authority; it is not automatically supplier revenue or an additional order on top of every Israeli contract. The reviewed sources do not supply a complete reconciliation of the funding flows. [59]

South Korea: fielding and localisation

South Korea provides an important example of government-confirmed fielding. DAPA's June 2026 release says Cheon Gwang, the Block-I laser system, entered service in December 2024. The original production contract was with Hanwha Aerospace, following ADD-led development. DAPA records KRW87.1 billion (about US$65.6 million) invested in development; that is not the production contract value. [60] [61]

The June update also describes ADD and Hanwha Systems localising the laser source for future production. Hanwha Aerospace's system-production role and Hanwha Systems' component role should remain distinct. This is a concrete example of the link between military adoption and supply-chain sovereignty, without a disclosed deployed quantity or combat record. [60]

Australia and the Netherlands: an export programme

Australia's Electro Optic Systems, or EOS, has a €71.4 million (about US$80.1 million) contract for a 100 kW-class system with the Netherlands Ministry of Defence. The original August 2025 announcement described fulfilment from Singapore during 2025-2028; later investor material identifies the customer. Design-review progress and a manufacturing facility are industrial milestones, not evidence of a Dutch operational fleet. [62] [63]

A September 2026 letter of intent concerns making Apollo fully operational and developing Dutch production with a European supply chain. It is separate from the original order. Further procurement remains conditional on subsequent work. This offers a useful view of export competition: the proposition can include local industrial participation and support as well as the hardware. [64]

EOS also signed a US$80 million conditional agreement with South Korea's Goldrone in December 2025. Goldrone is a commercial counterparty, not a disclosed Korean government buyer. EOS's July 2026 filing said the required financial conditions could be completed in 2027, without guarantee. The value belongs in a conditional pipeline category, outside confirmed unconditional demand. [65] [66]

Türkiye, India and China

Türkiye's Roketsan ALKA combines laser and electromagnetic capabilities. In February 2026, Roketsan stated that serial production activities began in 2023 and that the system was in the Turkish Armed Forces inventory. It also announced a technology-cooperation agreement with EOS. These are supplier statements of fielding and cooperation; the agreement disclosed no new customer order value. [67]

India's DRDO demonstrated laser capability and subsequently tested an integrated air-defence system combining missiles and a laser in 2025. A January 2026 statement lists that integrated system among those receiving Acceptance of Necessity. This is an acquisition approval stage, not proof of a signed laser-specific purchase or delivery. The integrated trial's results should not all be assigned to the laser. [68] [69]

China's defence ministry confirms high-energy lasers and high-power microwaves in the anti-drone formation of its September 2025 parade. That establishes official presentation. It supplies no transparent procurement value, deployment inventory or comparable combat dataset. The available evidence does not support a credible league table based on parade footage and catalogue claims. [70]

These are selected programmes with useful public evidence, not an exhaustive census. The varying quality of disclosure is itself part of the market: a buyer or investor cannot compare all systems on equal public data.

08 Follow the money without double counting

Five kinds of money support this industry: venture investment in a company; corporate investment in facilities; research grants; customer development or production contracts; and public budget authority. They answer different questions. A financing round tests investor conviction. A customer contract tests willingness to pay for a defined task. Accepted deliveries and repeat orders test something further.

Selected financing and contract register

These rows must not be totalled. They contain different currencies, overlapping prime and subcontract values, multi-year commitments, research and production, and conditional amounts. Currency conversion would not solve those incompatibilities.

The same discipline applies to broad national budgets. Britain's nearly £1 billion (about US$1.33 billion) of further directed-energy funding for the parliamentary term is an envelope that includes multiple activities, rather than another DragonFire order. Likewise, the US directed-energy category includes high-power microwaves. Turning either category into a pure laser-market revenue estimate would inflate precision that the evidence does not provide. [71] [15]

A practical DFC market measure would track newly awarded laser-specific work, accepted deliveries and repeat purchases, with research and conditional pipelines shown separately. That would reveal whether production is broadening beyond a few early programmes. It would be more informative than a single unsupported global growth forecast.

09 The economics of a cheap shot

The appeal is easy to understand. The UK Ministry of Defence said in January 2024 that DragonFire's operating cost was typically below £10 (about US$13.35) per shot. Such a figure helps explain why governments are interested. It does not include enough information to compare the complete cost of protecting a ship or installation against every alternative. [72]

The problem is the denominator. A shot is an activity. A successful defensive outcome is a result. Readiness is a capability maintained over time. Equipment, personnel and infrastructure can cost money even when no shot is fired. An engagement can also require other equipment in the network, and a laser-equipped site still needs complementary protection.

The US pilot discussed in August 2026 makes the distinction concrete. Its planned 365-day evaluation covers how much power systems need, how many days they can operate, how much repair they require and whether service personnel can maintain them without contractor support. It also examines use without disrupting a base's ordinary functions. Those measurements can support a comparison with other ways of providing protection. [9]

Utilisation changes the result. As an accounting proposition, greater use can spread fixed acquisition and support costs across more engagements. Infrequent use leaves those fixed costs dominant. Neither circumstance by itself determines whether a purchase is worthwhile: the lives and infrastructure protected can justify a capability even when it is rarely used.

Platform costs matter. An apparently inexpensive effector can become expensive after installation work, extra power equipment, cooling, certification, training and spares. Conversely, a platform with suitable existing infrastructure may make adoption easier. No consistent public dataset presently lets this briefing calculate comparable whole-life costs across the named products.

Industry revenue will not mirror the ammunition model exactly. DFC's assessment is that equipment, integration, upgrades, repair, software and support can become the recurring business around a low-consumable-cost effector. A service proposition may reduce a customer's initial purchase burden, but moves availability and maintenance obligations toward the provider. Ground A's service offering is a useful example of that commercial ambition, rather than evidence that the model has already been proven at scale. [34]

The commercial question is therefore specific: can the supplier deliver the required protection with acceptable availability and support costs, and can it repeat that result across installations? A successful answer creates a business; an attractive electricity figure creates interest.

10 The buyer map

The strongest disclosed customers remain states and their armed forces. Commercial infrastructure is an important intended market, but public product pages naming airports, ports or data centres should not be mistaken for customer lists. Nor does a ministry-funded experiment necessarily mean its procurement authority has accepted a production requirement.

The table consolidates the dated evidence in chapters 5-8. It is a relationship map, not a ranking or a statement of equivalent readiness.

What a customer needs to establish

GAO found that prototype developers and purchasing organisations could lack formal transition arrangements. A successful demonstration can therefore stall without an agreed path into procurement. [19]

For infrastructure customers, the protection package also has to fit site operations and the applicable authority to use it. INLEAP's commissioned safety study and the FAA's system-specific assessment show why this work is substantive rather than an administrative afterthought. A customer considering a service model will also need a clear allocation of responsibilities for operation, maintenance and downtime.

For both groups, a credible supplier should be able to answer six questions:

• What exactly is being supplied: a source, an effector or an integrated protective system?
• Which claimed capabilities have been demonstrated, and under what documented conditions?
• What has actually been ordered, funded and accepted by the named customer?
• What support, repair burden and availability have been measured over time?
• Who owns platform integration, safety approval and long-term sustainment?
• What proves that production units can reproduce the demonstrated result?

These questions explain why qualification, test infrastructure and support can form substantial barriers to entry even when the underlying photonics improves.

11 Where the journey could go

The following are DFC scenarios derived from the documented technology and procurement paths. They are not delivery forecasts or probability estimates.

The most plausible near-term path: selective adoption

Through 2028, the clearest route is a growing number of defined installations: fixed sites, early naval applications and particular vehicle configurations. Existing contracts give that scenario substance. Its success depends on customer acceptance, integration and availability rather than a single breakthrough in output.

There is considerable room for useful capability below the ambition of universal missile defence. If a system can reliably handle a portion of a site's threat burden, it can contribute even while other effectors remain essential. That supports a market made up of several mission-specific products rather than a single winning universal design.

The scaling path: repeat orders and industrial consolidation

From the late 2020s, repeat purchases would be the strongest evidence that initial users value the capability. They could support specialised factories, qualified second sources, maintenance networks and more standardised interfaces. Suppliers that control difficult integration work may retain substantial bargaining power even if optical components become cheaper.

Partnerships may matter as much as head-to-head competition. A promising entrant can become a supplier to a prime, a partner in an integrated package or an acquisition target. An established industrial laser company can bring manufacturing depth. The current links among MBDA, QinetiQ, Leonardo, CILAS, Safran, Rheinmetall and others already show an industry organised through combinations of complementary capabilities.

The more ambitious path: broader target sets and platforms

US JLWS plans and European research programmes point toward higher-power systems and more demanding applications. Those ambitions should be tested in representative demonstrations and funded integration programmes. A larger source does not eliminate atmosphere, heat, platform motion or the need to sustain equipment in service.

Airborne and very high-power concepts face especially demanding integration questions. Public source-development milestones can be valuable without establishing that a practical weapon is ready. The responsible outlook is therefore conditional: expanded capability becomes commercially meaningful when it produces accepted equipment and a customer willing to order more.

The downside path: a durable demonstration market

The industry could also remain fragmented, with many demonstrations and only a small number of repeat customers. Environmental availability, support costs, integration delays or competing technologies could restrain production. In that scenario, research awards and bespoke engineering would continue to dominate some suppliers' revenues.

That outcome would not mean lasers have no military value. It would mean the market grows unevenly and that a large broad counter-drone budget does not automatically become laser sales. Monitoring recurring orders and operating evidence is the way to distinguish selective success from a sector-wide industrial take-off.

12 What to watch next

These are evidence triggers, rather than assumptions that the milestones will be achieved. A delay should be assessed against the actual contractual and technical requirement; an additional press release is not automatically a new order.

The most useful interviews would pair technology questions with commercial ones. Ask a source supplier where it ends and the integrator begins. Ask the integrator which work remains before acceptance. Ask the user what it can maintain without the manufacturer on site. Ask the finance team what is firmly funded, what is optional, and what is merely a ceiling. Together, those answers would explain the business much better than another output comparison.

For DFC, the continuing story is the conversion of photonics expertise into dependable defensive capacity. The important changes will be visible in factories, acceptance records, service arrangements and repeat procurement, as well as on test ranges.

13 Terms and evidence conventions

Scope and method. This is an editorial synthesis of public evidence, focused on five core companies and selected international comparators. Primary government, parliamentary, scientific and company documents underpin technical and procurement claims. The dated INLEAP public demonstration also uses rbb/Tagesschau reporting. Sources can establish what a government or supplier announced without independently validating every performance claim.

Dates and money. The cutoff is 21 October 2026. Financing close dates, announcement dates and delivery targets are kept distinct. Amounts retain their original currencies alongside approximate US-dollar equivalents at ECB reference rates dated 20 October 2026. One euro buys US$1.1215, 0.84028 pounds sterling, 3.4853 Israeli shekels or 1,489.17 South Korean won. Cross-rates divide the dollar rate by the relevant currency rate. These are comparative conversions, not transaction-date values. An undisclosed contract amount cannot be converted precisely. [1] No global market total is calculated, and no non-disclosed customer or unit price is inferred.

Material source issues. MBDA's English German-contract page gives June where Rheinmetall and MBDA's German text give July; this report uses the July 2026 announcement. The current Israeli ministry page for the NIS2 billion (about US$643.6 million) agreement carries a later page date; it reproduces the October 2024 announcement rather than establishing a second order. The January 2026 CRS naval-laser report was read through a mirror. Some US budget and award documents were accessible through indexed official text when direct retrieval failed..

Visuals. Six diagrams are original explanatory graphics. The cover artwork is an AI-assisted editorial illustration: its visible beam and atmospheric layers are visual metaphors, not a depiction of a particular product or real engagement. None of the visuals is a manufacturer design or a photograph of an actual deployment.