How Much Does the Army E-HEL Laser Weapon Cost?
Published on | Written by Alec Pow
This article was researched using 13 sources. See our methodology and corrections policy.
The Army’s Enduring High Energy Laser is moving from prototype work toward a production counter-drone weapon. A defensible August 2026 estimate is $20.8 million to $25 million per fielded E-HEL system when the expected program value is spread across the Army’s disclosed production quantities. Raymond James estimated the E-HEL opportunity at approximately $500 million, and current reporting describes the coming contract as a major production award rather than another small demonstration effort, according to Raymond James coverage.
The $20.8 million to $25 million range is a ThePricer acquisition estimate, not a published Army unit price. The Army’s draft procurement calls for up to 24 systems, which puts a $500 million program at about $20.83 million per fielded system. WIRED reports that the earlier Army requirement covered up to 20 weapons, which would put the same program value at $25 million each. The sources also show that these totals include engineering, spare parts, system integration, logistics, and support, so the bare laser hardware would represent only part of the figure.
E-HEL spending is measured per fielded weapon package, not per laser emitter. Mobile configuration, sensors, power generation, cooling, vehicle integration, engineering support, and the number of systems ordered all affect the delivered value.
TL;DR: Expect an Army E-HEL acquisition value near $21 million to $25 million per fielded system based on the current $500 million program estimate and disclosed quantities, with historical Army laser programs showing that development-heavy systems can cost far more.
How Much Does the Army E-HEL Laser Weapon Cost?
Jump to sections
- Estimated E-HEL fielded-system value $20.8 million to $25 million (at $30 per hour, earning that amount would take about 333 to 401 years of full-time work, before taxes)
- Reported program opportunity approximately $500 million
- Planned production quantity up to 24 systems in the 2026 draft procurement
- Earlier Army requirement up to 20 weapons
- LOCUST X3 engagement expense below $5 per shot

$20.8 Million to $25 Million Estimate Origin
The strongest current dollar figure comes from the investment community after the Army disclosed negotiations with AeroVironment. Raymond James valued the E-HEL opportunity at approximately $500 million (about 8 thousand years of full-time work at $30 per hour) in July 2026. A separate report describes the expected Army procurement at the same $500 million scale and says the requirement covers 24 systems in E-HEL contract reporting. Dividing $500 million by 24 gives $20.83 million as a blended acquisition value per system.
The earlier requirement produces the upper end. WIRED reported on August 4, 2026 that the expected AeroVironment deal would be worth hundreds of millions of dollars and that the Army’s original request covered up to 20 weapons in its Army laser contract report. Applying the separately reported $500 million opportunity value to 20 systems gives $25 million per weapon package. The quantity changed as the acquisition matured, so $20.8 million to $25 million is more useful than pretending one exact unit figure has already been awarded.
Worked example
- Estimated E-HEL program value $500 million
- 24-system case $500 million ÷ 24 = $20.83 million
- 20-system case $500 million ÷ 20 = $25 million
- Planning range $20.83 million to $25 million per fielded system
What E-HEL Package Includes
E-HEL is an Army counter-drone weapon built around a high-energy laser. A complete fielded package contains much more hardware than the fiber laser that creates the beam. Detection and tracking sensors locate the target, fire-control software directs the engagement, power equipment supplies electrical energy, thermal hardware removes heat, and a beam director keeps energy focused on the drone. The system can also require a tactical vehicle or deployable structure, communications hardware, operator controls, and support equipment.
AeroVironment’s LOCUST X3 is connected to the program because the Army entered E-HEL negotiations with the company, but E-HEL is an Army acquisition program rather than a simple commercial LOCUST purchase. It also serves a narrower counter-UAS mission than large missile-defense systems such as Patriot.
The Army confirmed in July 2026 that it was negotiating the E-HEL production effort with AeroVironment, according to Army acquisition reporting. That production step is what separates the current price discussion from earlier laboratory and prototype laser spending.
More Than 24 Lasers
The Army’s January 2026 draft request calls for production and rapid fielding of up to 24 E-HEL systems. It also includes engineering services, production units, spare parts, system engineering, risk-reduction studies, and contractor logistics support under several contract line items, according to the draft production requirement. Those extra lines are one reason the calculated $20.83 million (about 334 years of full-time work at $30 per hour) figure should be described as fielded acquisition value instead of laser hardware price.
| Cost component | What the Army may be buying |
|---|---|
| Weapon hardware | Laser, beam director, sensors, control equipment, power, and cooling |
| Engineering | System integration, configuration work, and technical changes |
| Spares | Replacement assemblies and field support inventory |
| Testing | Acceptance work and verification before deployment |
| Fielding support | Logistics, contractor support, training-related work, and deployment activity |
HII’s role gives a concrete view of those non-emitter expenses. The company says its E-HEL facility supports assembly, integration, subsystem checks, power testing, thermal testing, laser-performance work, and factory acceptance testing in its E-HEL integration announcement. A contract paying for those functions cannot be read like a catalog order for 24 identical pieces of hardware.
Historical Army Lasers
Earlier Army high-energy laser programs were expensive because they combined vehicle integration with prototype engineering. In 2019, the Army awarded $203 million for competing 50-kilowatt DE M-SHORAD prototypes, with the agreement carrying potential value up to $490 million for four prototype laser-equipped Strykers, according to the Army contract announcement. Dividing the potential ceiling by four gives $122.5 million per prototype vehicle, but that figure included substantial development work and competition between vendors.
By 2021, a later award looked much closer to recurring hardware production. The Army selected Kord Technologies and Raytheon under a $123.9 million contract for three additional 50-kilowatt laser weapon systems on Stryker A1 vehicles, according to the follow-on laser award. That works out to approximately $41.3 million per additional system. E-HEL’s estimated $20.8 million to $25 million fielded value would sit below that historical figure, which is plausible for a smaller counter-drone package after years of laser development.
Mobile Configuration, Power
AeroVironment describes LOCUST X3 as a modular 20 to 35-plus-kilowatt system that can operate in mobile, fixed, semi-fixed, containerized, and maritime configurations. The configuration changes what must be purchased around the laser. Vehicle-mounted systems need structural mounts, electrical interfaces, communications, stabilization, environmental protection, integration testing, and equipment that can survive movement over rough ground.
The Army’s own experience with vehicle-mounted lasers shows why power and heat are part of the financial picture. A 50-kilowatt DE M-SHORAD system mounted its power and thermal equipment directly on a Stryker, with batteries feeding the laser and onboard systems handling recharge and heat dissipation, according to an Army engineering description.
E-HEL uses a different program and configuration, but the same categories of supporting hardware remain relevant. A palletized installation may reduce vehicle integration work, yet it still needs electrical supply, cooling, sensors, communications, and a deployable structure.
Three Reported Cost Cases
Production case. The current E-HEL opportunity is approximately $500 million. With a requirement of up to 24 systems, that supports the article’s $20.83 million lower planning figure. This case is closest to the question of what fielded E-HEL systems may cost because it concerns the current production effort.
Prototype case. BlueHalo received a $95.4 million Army Space and Missile Defense Command contract in 2024 for advanced directed-energy prototype work, including multiple prototype activities, according to the BlueHalo award announcement. That money bought development capacity rather than a batch of E-HEL production weapons, so it belongs in research context rather than the unit-price range.
Firing case. AeroVironment says LOCUST X3 engagements can cost below $5 per shot on its LOCUST X3 release. That amount covers the marginal engagement expense, not the weapon’s acquisition, generators, thermal equipment, sensors, maintenance, personnel, or vehicle. The striking gap between a multimillion-dollar fielded system and a single-digit firing expense is one of the main reasons the Army is pursuing lasers for repeated drone defense.
Cost After Fielding
Buying the system is only the first spending layer. Fielded lasers require power generation, thermal management, replacement optics and electronics, sensor upkeep, software support, vehicle maintenance, technician labor, test equipment, and spare assemblies. The Army’s 2025 live-fire work placed high-energy lasers against Group 1 through Group 3 unmanned aircraft and evaluated them as part of a wider air-defense structure, according to its directed-energy test report.
The operating appeal comes from the absence of an expendable missile on each suitable engagement. The Congressional Research Service describes high-energy lasers as having low marginal firing expense and deep magazines when enough power is available in its directed-energy primer. At a reported LOCUST X3 figure below $5, 1,000 engagements would consume less than $5,000 in stated firing expense. That number excludes the multimillion-dollar acquisition and the personnel, fuel, repair, and support costs required to keep the system available.
When Paying for E-HEL Makes Sense
A fielded value above $20 million can make financial sense when the weapon protects a location exposed to repeated drone attacks. Missile-based defense can impose a much higher marginal expense for every engagement because an interceptor is consumed. The comparison is strongest when E-HEL handles suitable lower-tier drones and preserves scarce kinetic weapons for threats that demand them. Published Patriot missile system costs show why air-defense planners care about matching the interceptor to the target rather than firing a premium missile at every drone.
The purchase case weakens where weather, dust, smoke, insufficient electrical power, poor sensor coverage, or rapid simultaneous targets reduce useful firing opportunities. E-HEL also does not remove the need for other counter-UAS layers. A fuller comparison with expendable weapons can use published Hellfire missile costs, which reflect a very different method of defeating a target and a very different spending model.
Makes sense if
- A base or unit faces recurring drone attacks.
- Power and thermal equipment can support repeated firing.
- The laser can be paired with sensors, electronic warfare, guns, and missiles.
- The mission values a very low marginal firing expense after acquisition.
Doesn’t make sense if
- The defended site rarely encounters suitable counter-UAS targets.
- Weather or obscurants regularly reduce laser effectiveness.
- Electrical and maintenance support cannot be sustained.
- The mission requires one weapon to handle every class of air threat.
Article Highlights
- A practical August 2026 E-HEL estimate is $20.8 million to $25 million per fielded system.
- The estimate comes from an approximately $500 million program opportunity spread across disclosed quantities of 20 to 24 systems.
- The calculation represents blended acquisition value, not the laser emitter by itself.
- A historical Army 50-kilowatt laser award worked out to about $41.3 million per additional prototype system.
- An earlier development-heavy laser effort reached a potential $122.5 million per prototype vehicle when its contract ceiling is divided by four.
- LOCUST X3 firing expense is reported below $5 per engagement, separate from acquisition and support spending.
Answers to Common Questions
How much is one Army E-HEL laser expected to cost?
A reasonable current estimate is $20.8 million to $25 million per fielded system based on the approximately $500 million program opportunity and the Army’s disclosed 20-to-24-system acquisition quantities.
Why is the E-HEL estimate a range?
The Army moved from an earlier requirement covering up to 20 weapons to a draft production requirement covering up to 24 systems. The final negotiated contract value and quantity will determine the resulting acquisition value per fielded system.
How much does an E-HEL laser cost to fire?
AeroVironment reports engagement expense below $5 per shot for LOCUST X3. That figure does not include the purchase price, power infrastructure, cooling equipment, sensors, personnel, maintenance, or vehicle.
Are Army laser weapons cheaper than earlier prototypes?
The current E-HEL planning range is below several historical Army laser contract averages. Earlier programs carried heavy prototype engineering and vehicle-integration expenses, so their contract values are better used as historical comparison points than direct E-HEL prices.
Disclosure: Educational content, not financial advice. Prices reflect public information as of the dates cited and can change. Confirm current rates, fees, taxes, and terms with official sources before purchasing. See our methodology and corrections policy.
