A 30-kilowatt high-energy laser converts roughly one-quarter to one-third of its electrical input into a beam. The remaining energy becomes a power-conversion and heat-rejection problem.
The Army’s first production high-energy-laser contract therefore creates demand across the entire operating stack: generation, storage, power conditioning, cooling, beam control, and system integration. This supplier layer remains too small to support a standalone market. It becomes commercially significant when deployments reach hundreds of systems or individual weapons scale into the hundreds of kilowatts.
The Cost-Exchange Problem
A Shahed-class one-way attack drone costs approximately $20,000 to $50,000. A PAC-3 MSE interceptor costs $3.871 million, while a THAAD interceptor costs $12.773 million. Using multimillion-dollar missiles against low-cost drones produces an unsustainable cost-exchange ratio and consumes interceptors with long production lead times.
The United States has responded by expanding missile production and counter-unmanned-aircraft programs, but motors, seekers, specialized labor, and industrial capacity constrain replenishment. Lasers add defensive capacity without drawing from interceptor inventories. Their ammunition is electricity, reducing the marginal energy cost of each engagement to a few dollars.
What the Army Bought
The Army awarded AeroVironment a $464.8 million production contract for the Enduring High Energy Laser program, covering as many as 26 systems plus training and lifecycle support.
The LOCUST X3 is a 30-kilowatt, platform-independent laser designed for Group 1–3 unmanned aircraft. It uses a modular open systems architecture with 11 standard interfaces and can deploy on a Joint Light Tactical Vehicle, Infantry Squad Vehicle, or palletized container.
Army engagement profiles include:
- Thirty one-second shots per minute
- Six nine-second shots per minute
- Three 17-second shots per minute against harder targets
These profiles imply a 50% to 90% duty cycle. Sustaining that firing rate makes power delivery and heat rejection central to operational performance.
Power and Thermal Arithmetic
At 30% to 35% wall-plug efficiency, a 30-kilowatt laser beam requires approximately 85 to 100 kilowatts of electrical input. Beam control, tracking, fire control, and cooling raise peak system demand to roughly 120 to 140 kilowatts.
| Item | Estimate |
|---|---|
| Optical output | 30 kW |
| Electrical input to emitter | 85–100 kW |
| Beam director, tracking, and controls | 5–10 kW |
| Chiller in hot conditions | 20–30 kW |
| Peak electrical draw | 120–140 kW |
| Heat rejected to ambient | 90–110 kW |
| Electrical input per optical kilowatt | 4–4.5 kW |
| Average draw at 50%–90% duty | 65–115 kW |
A one-second shot consumes about 0.035 kilowatt-hours of electricity. Nine seconds requires about 0.33 kilowatt-hours, and 17 seconds requires about 0.6 kilowatt-hours. At field-generation costs of $1 to $3 per kilowatt-hour, the energy cost ranges from a few cents to less than $2 per shot.
The expensive machinery sits behind that energy:
- A generator sized for sustained average demand
- Batteries or supercapacitors for peak shaving
- A stable DC bus and precision diode drivers
- Pumps, chillers, and heat exchangers sized for average thermal load
- Beam control capable of maintaining dwell on moving targets
Where Performance Is Constrained
The following cost shares are planning assumptions rather than published program figures.
| Subsystem | Estimated cost share | Primary constraint |
|---|---|---|
| Laser source | 15%–25% | Module power and efficiency |
| Beam director, tracking, and fire control | 25%–35% | Dwell, retargeting, and kill rate |
| Power generation, storage, and conditioning | 10%–15% | Peak power, endurance, and signature |
| Thermal systems | 10%–15% | Duty cycle and hot-weather uptime |
| Integration, vehicle, and command systems | 15%–25% | Deployment and airspace coordination |
The Army’s DE M-SHORAD experience exposed these constraints. Four 50-kilowatt laser prototypes deployed on Strykers in 2024, but vehicle integration, electronics volume, and heat dissipation prevented production readiness.
E-HEL incorporates that lesson through line-replaceable units, platform independence, and standardized interfaces. Those interfaces could eventually support second-source suppliers for power conditioning, cooling, and other subsystems.
Scaling into a Power Plant
At 300 to 500 kilowatts of optical output, electrical demand rises to approximately 1.2 to 2 megawatts, with around 1 megawatt or more of waste heat. Systems in this class require power-plant and heat-plant infrastructure suitable for ships and fixed installations rather than ordinary ground vehicles.
Commercial fiber-laser production can continue reducing emitter cost per kilowatt. Ruggedized generation, power electronics, cooling, and integration scale less efficiently, increasing their share of system cost as weapon power rises.
When the Supplier Layer Becomes a Market
E-HEL represents $464.8 million across as many as 26 systems. If power and thermal equipment account for 20% to 30% of program value, the corresponding opportunity is approximately $100 million to $140 million over the contract. That is insufficient to support a dedicated public-market supplier thesis.
Three developments would change the economics:
| Condition | Trigger | Resulting market |
|---|---|---|
| Deployment volume | Follow-on orders totaling hundreds of systems | Standard expeditionary power stacks |
| Higher power | Fixed-site and shipboard weapons at 100–500 kW | Greater power-and-thermal content per system |
| Shared architecture | Common hardware across lasers, radar, electronic warfare, microwave weapons, and electric vehicles | Rugged power and cooling as force-wide infrastructure |
Vicor, Vertiv, nVent, and Modine already possess scale in power electronics or liquid cooling and could add defense-grade ruggedization. Directed energy currently provides optionality rather than material revenue. Near-term contract value remains concentrated among emitters and integrators such as AeroVironment, nLight, IPG, and Lockheed Martin.
Confirmation Signals
The supplier layer becomes commercially credible when the market shows:
- A second E-HEL production lot or an Army requirement exceeding 100 systems
- Published specifications for power and thermal line-replaceable units
- MOSA-qualified second sources for chillers or power conditioning
- Shared power architectures across multiple high-demand sensors and effectors
Directed-energy weapons turn ammunition into electricity, but sustained operation depends on generation, conditioning, cooling, and beam control. The power-and-thermal layer becomes a standalone market when deployment reaches hundreds of systems or weapon output reaches hundreds of kilowatts. Until then, production revenue remains concentrated in emitters and system integrators, while established power-electronics and cooling companies retain long-term optionality.