Mobile High Power Microwave Weapon Market Size, Share & Industry Analysis, By Platform, By Technology, By HPM Source, By System Architecture, By Application, By End User, and Regional Forecast, 2026-2034

The global mobile high power microwave weapon market size was valued at USD 325.0 million in 2025. The market is projected to grow from USD 384.5 million in 2026 to USD 1,538.8 million by 2034, exhibiting a CAGR of 18.9% during the forecast period.

The market encompasses High-Power Microwave (HPM) weapons, Directed energy weapons, Electromagnetic weapon systems, HPM generators, pulsed-power modules, antennas, beam-control systems, and related integration and support services. These non-kinetic weapons use microwave pulse technology to disrupt, disable, or damage electronic systems. They are increasingly deployed across ground, airborne, and naval mobile defense systems for counter-UAS, force protection, air defense, and battlefield electronic attack.

Market growth is driven by the adoption of drones and swarms, rising demand for counter-drone systems and counter-UAS solutions, and increasing defense investment in tactical directed energy systems, electronic warfare systems, and advanced military electronics. Key participants in the market include Epirus, RTX, Leidos, and Lockheed Martin. Competitive positioning depends on power output, waveform agility, multi-target capability, mobility, system integration, and scalability. Related Electromagnetic Pulse (EMP) weapons, broader defense energy weapons, and other next-generation defense technologies are also influencing future development.

MOBILE HIGH POWER MICROWAVE WEAPON MARKET TRENDS

Operational Testing and Platform Integration are Propelling Market Growth

The market is gradually transitioning from laboratory development and standalone demonstrators toward operationally deployable HPM systems integrated with sensors, command-and-control networks, and layered counter-UAS architectures. Defense forces are increasingly evaluating HPM weapons under realistic operating conditions to determine reliability, power requirements, maintainability, electromagnetic compatibility, and effectiveness against evolving drone threats. Development is also shifting toward mobile ground systems, compact airborne HPEM subsystems, autonomous platforms, and multi-effector air-defense architectures.

• In August 2026, the U.S. Army announced a 365-day directed-energy operational pilot covering high-power microwave and high-energy laser systems at multiple military installations.

Continued operational evaluation is expected to accelerate the transition of HPM systems from experimental programs toward deployable counter-drone, critical-infrastructure protection, base-defense, and maneuver-force applications.

MARKET DYNAMICS

MARKET DRIVERS

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Increasing Drone-Swarm Threats are Propelling Market Growth

The rapid proliferation of low-cost unmanned aircraft, coordinated drone swarms, and electronically controlled battlefield systems is the primary driver for the global mobile high power microwave weapon market growth. Conventional missile-based interception can become economically unsustainable against large numbers of inexpensive drones. At the same time, HPM systems provide speed-of-light engagement, deep magazines, broad-area effects, and the potential to turn off multiple electronic targets during a single engagement. These characteristics are increasing military investment in HPM-based counter-UAS systems as part of layered air-defense networks.

• In April 2025, the U.S. Army employed its IFPC-HPM system in the Indo-Pacific for the first time during Exercise Balikatan. The system successfully demonstrated the defeat of drone swarms and operated alongside FS-LIDS to provide layered non-kinetic counter-UAS effects.

Increasing deployment of autonomous systems, loitering munitions, and coordinated UAS attacks is expected to sustain demand for mobile HPM systems across military bases, maneuver formations, naval platforms, and critical assets.

MARKET RESTRAINTS

Complex Safety, Spectrum, and Regulatory Requirements May Hamper Market Growth

HPM weapons generate powerful electromagnetic emissions that must operate without creating unacceptable effects on friendly communications, radar, navigation equipment, personnel, nearby infrastructure, or other electronic systems. Integration therefore requires detailed electromagnetic-environment assessment, safety certification, spectrum coordination, platform testing, and rules governing operational employment.

These requirements can increase development timelines and certification expenditure, particularly when systems are intended for use around populated bases, airports, naval vessels, or sensitive infrastructure. As HPM weapons move closer to regular field deployment, compliance, spectrum management, electromagnetic compatibility, and operational-safety requirements could slow acquisition and restrict deployment in complex operating environments.

MARKET OPPORTUNITIES

Waveform-Agile and Solid-State HPM Technologies Present Significant Opportunities

Advances in solid-state microwave sources, high-power amplifiers, phased-array antennas, waveform control, pulsed-power electronics, and compact energy-storage technologies are expanding the potential target set of HPM weapons. Conventional fixed-frequency HPM systems can have limited effectiveness against varying electronic vulnerabilities. In contrast, waveform-agile systems can adjust frequency, bandwidth, pulse characteristics, and other parameters to improve electromagnetic coupling with different targets. Improvements in size, weight, power, and cost could also enable wider deployment on tactical vehicles, unmanned platforms, aircraft, and naval vessels.

The U.S. Navy is similarly researching solid-state sources, adjustable waveforms, higher-frequency HPM technologies, and arrayable microwave sources. These technologies create opportunities beyond counter-UAS missions, including electronic attack, missile defense, vehicle and vessel disruption, autonomous-platform protection, and multi-domain electromagnetic warfare.

MARKET CHALLENGES

Balancing Range, Power, Mobility, and Reliable Target Effects Poses Challenges to Market Growth

Mobile HPM weapons must generate sufficient electromagnetic energy to produce reliable effects while remaining within the size, weight, power, cooling, and mobility limits of tactical platforms. HPM effectiveness also varies according to target electronics, shielding, frequency response, coupling pathway, orientation, distance, and operating environment. This makes battle-damage assessment and predictable target defeat more complex than conventional kinetic weapons. ONR identifies SWaP limitations, electromagnetic interoperability, vulnerability assessment, battle-damage measurement, and engagement of diverse threats as continuing directed-energy challenges.

Overcoming these engineering and operational limitations will be critical before HPM weapons can progress from limited prototype deployments to broader serial procurement across land, airborne, and maritime platforms.

Segmentation Analysis

By Platform

Higher Deployment Flexibility and Counter-UAS Demand to Support Ground-Based Systems Segment’s Dominance

Based on platform, the market is divided into ground-based systems, airborne systems, naval/maritime systems, and others. The ground-based systems include vehicle-integrated systems, trailer / towed systems, and transportable / emplaced systems. Airborne systems further include manned fixed-wing systems, manned rotary-wing systems, reusable UAV systems, and expendable air-launched systems. Naval/maritime systems also include major surface combatants, small combatants & patrol vessels, amphibious & auxiliary vessels, and unmanned surface vessels.

The ground-based systems segment dominated the market in 2025, as most operational HPM programs remain focused on protecting military bases, maneuver formations, air-defense assets, and critical infrastructure from drones and electronic threats. Ground platforms can accommodate comparatively larger power supplies, cooling systems, antennas, and energy-storage equipment while offering easier deployment and maintenance than airborne or naval configurations.

• In July 2025, Epirus received a USD 43.55 million U.S. Army contract to deliver two IFPC-HPM Generation II systems, including testing, support equipment, spares, and options for additional system support.

The airborne systems segment is anticipated to grow with the fastest CAGR of 22.9% over the forecast period.

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By Technology

High Peak-Power Concentration and Established Counter-Electronics Applications to Support Narrowband HPM Segment’s Dominance

Based on technology, the market is divided into narrowband HPM, mesoband HPM, wideband/ultra-wideband HPM, and others.

The narrowband HPM segment dominated in 2025, owing to its ability to concentrate very high microwave power within a defined frequency range, enabling stronger and more predictable effects against targeted electronic systems. Narrowband architectures are also comparatively mature within military HPM development, with established high-gain antenna and microwave-source designs supporting counter-electronics, counter-UAS, and electronic-attack applications.

The wideband/ultra-wideband HPM segment is anticipated to rise with the fastest CAGR of 21.5% over the forecast period.

By HPM Source

High Peak-Power Generation Capability and Established Military Applications to Drive Vacuum Electronic Segment’s Growth

Based on HPM source, the market is divided into vacuum electronic, solid-state, and hybrid.

The vacuum electronic segment dominated the market in 2025, owing to its ability to generate extremely high peak microwave power required for disrupting and damaging electronic systems at operationally relevant distances. Vacuum electronic technologies, including magnetrons, klystrons, and traveling-wave tubes, offer high-power output and established performance in pulsed microwave applications.

The hybrid segment is anticipated to rise with the fastest growth rate of 23.1% over the forecast period.

By System Architecture

Lower Integration Complexity and Higher Prototype Deployment to Support Standalone Systems Segment’s Dominance

Based on system architecture, the market is divided into standalone systems, integrated HPM systems, multi-effector systems, and distributed HPM networks.

The standalone systems segment dominated the global mobile high power microwave weapon market share in 2025, as much of the market remains in the prototype, demonstration, and early-fielding phase. Standalone architectures reduce integration complexity by combining microwave generation, antenna systems, fire control, power equipment, and operator interfaces within a dedicated weapon configuration.

• In September 2024, the U.S. Air Force awarded Leidos a USD 13.10 million contract to design, evaluate, and construct the Genesis Chamber HPM prototype, with the program intended to transition technology demonstrators toward military-specification equipment.

The distributed HPM networks segment is anticipated to rise with a steady growth rate of 24.2% over the forecast period.

By Application

Rising Drone-Swarm Threats and Cost-Effective Multi-Target Engagement to Support Counter-UAS & Swarm Defense Segment’s Dominance

Based on application, the market is divided into counter-UAS & swarm defense, air & missile defense, base/site protection, maneuver force protection, maritime defense, offensive electronic attack, and others.

The counter-UAS & swarm defense segment dominated applications in 2025, as military forces increasingly require economical ways to defeat large numbers of inexpensive drones without consuming costly missile interceptors. HPM weapons offer broad electromagnetic effects, speed-of-light engagement, low cost per engagement, and deep magazines while potentially affecting multiple electronically dependent targets simultaneously.

• In December 2024, NASA finalized its Low Earth Orbit Microgravity Strategy, establishing commercial low-Earth-orbit infrastructure as a core element of the agency's long-term approach for maintaining human presence, scientific research, technology development & exploration preparation following the International Space Station transition.

The maneuver force protection segment is anticipated to rise with the fastest growth rate of 24.7% over the forecast period.

By End User

Growing Ground-Based Counter-UAS and Force-Protection Requirements to Support Army Segment’s Dominance

Based on end user, the market is divided into army, air forces, naval & marine forces, and homeland security agencies.

The army segment dominated the market in 2025, as ground forces face increasing exposure to small drones, FPV systems, loitering munitions, and coordinated swarms around forward operating bases, command posts, logistics nodes, maneuver formations, and air-defense units. Armies can also accommodate larger mobile or trailer-based HPM systems more readily than aircraft or smaller naval platforms, supporting faster technology transition. Currently, army programs are increasingly focused on turning HPM from experimental technology into soldier-operated counter-UAS capability.

• In May 2024, Epirus completed delivery of four IFPC-HPM systems to the U.S. Army and completed New Equipment Training and Engineering Developmental Testing, advancing the systems toward operational use by Army personnel.

The homeland security agencies segment is anticipated to rise with the fastest CAGR of 23.2% over the forecast period.

Mobile High Power Microwave Weapon Market Regional Outlook

By region, the market is segmented into North America, Europe, Asia Pacific, Middle East, and Rest of the World.

North America

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North America dominated the market in 2025, with a valuation of USD 166.6 million, and is projected to grow to USD 193.4 million by 2026. The region’s growth is supported by extensive U.S. defense R&D, operational counter-UAS requirements, advanced microwave and pulsed-power expertise, and a concentrated directed-energy industrial base. The U.S. leads regional demand through Army, Air Force, Navy, DARPA, and defense-wide HPM programs covering ground-based counter-swarm systems and airborne high-power electromagnetic weapons.

• In March 2025, the U.S. Air Force Research Laboratory awarded a USD 15 million ceiling contract for the High-Power Electromagnetic Weapon Systems Transition Program, focused on development, testing, and integration of airborne HPEM weapon subsystems through 2029.

U.S. Mobile High Power Microwave Weapon Market

Based on North America’s strong contribution and the U.S. dominance within the region, the U.S. market can be approximated at around USD 161.8 million in 2025. Ground-based systems currently account for the largest activity base, led by counter-UAS and force-protection programs, while airborne and maritime HPM applications are gradually gaining investment.

The U.S. position is strengthened by dedicated HPM R&D funding, prototype manufacturing, effects testing, pulsed-power and antenna development, operational integration, and a mature supplier ecosystem. U.S. Army budget documentation also identifies Epirus as the HPM technology provider for IFPC and supports continuing development of Generation-2 mobile HPM prototypes.

Europe

Europe represents an established market, supported primarily by the U.K. and complemented by broader electronic-warfare and directed-energy capabilities across France, Germany, Italy, and other NATO countries. Regional demand is being driven by drone-swarm threats, military-base protection, force protection, and the requirement for lower-cost alternatives to missile-based interception.

• In December 2024, British Army personnel completed their first operational experimentation trials with the U.K.'s RFDEW demonstrator, successfully testing the system against drone threats across multiple engagement scenarios and configurations.

Continued European investment is expected to shift the market from standalone demonstrators toward vehicle-integrated systems, layered counter-UAS architectures, improved range, and mission-optimized RF directed-energy weapons for land and potentially maritime applications.

U.K. Mobile High Power Microwave Weapon Market

The U.K. market value in 2025 was estimated at around USD 17.7 million, representing roughly 5.5% of global revenues.

Germany Mobile High Power Microwave Weapon Market

The German market size reached approximately USD 9.1 million in 2025, equivalent to around 2.8% of global sales.

Asia Pacific

Asia Pacific is expected to register the fastest market growth, supported by China's expanding mobile HPM capability, Japan's dedicated HPM research programs, India's pursuit of Anti-UAS HPM systems, and increasing counter-drone modernization across South Korea and Australia. China currently represents the region's largest indigenous capability base, while Japan is advancing joint research and technology validation for future air and maritime HPM applications.

• In September 2025, Japan's Ministry of Defense FY2026 budget request proposed USD 9.4 million for continued HPM research aimed at neutralizing drones and strengthening counter-drone and swarm-defense capabilities.

Increasing regional investment in solid-state electronics, compact power systems, counter-UAS networks, and electromagnetic warfare is expected to support rapid adoption of vehicle-integrated, transportable, airborne, and eventually maritime HPM systems.

Japan Mobile High Power Microwave Weapon Market

The Japan market size in 2025 was estimated at around USD 7.4 million, accounting for roughly 3.16% of global revenues.

China Mobile High Power Microwave Weapon Market

China’s market value was estimated at around USD 31.8 million, representing roughly 9.78% of global sales.

India Mobile High Power Microwave Weapon Market

The Indian market value in 2025 was estimated at around USD 10.3 million, accounting for roughly 2.29% of global revenues.

Middle East

Middle East demand is supported by persistent drone, loitering-munition, and critical-infrastructure threats across the region. Israel, the UAE, and Saudi Arabia represent the principal potential adoption centers due to their advanced air-defense, counter-UAS, electronic-warfare, and defense-industrial capabilities. Regional investment in RF weapons, electromagnetic attack, directed-energy testing, and non-kinetic counter-drone technologies provides a strong foundation for future mobile HPM deployment.

Israel Mobile High Power Microwave Weapon Market

The Israel market size in 2025 was estimated at around USD 11.5 million, accounting for roughly 3.5% of global revenues.

Rest of the World

Rest of the World, comprising Latin America and Africa, currently accounts for a smaller share of the market due to limited publicly disclosed HPM procurement and a comparatively early directed-energy technology base. Demand is expected to expand as military and security organizations address growing drone threats around borders, airfields, strategic installations, maritime infrastructure, and major public facilities. Brazil represents one of the more developed Latin American defense-electronics markets, while South Africa maintains established research capabilities in electronic warfare and high-power electromagnetic technologies.

Latin America Mobile High Power Microwave Weapon Market

The Latin America market size in 2025 was estimated at around USD 10.4 million, accounting for roughly 3.2% of global revenues.

COMPETITIVE LANDSCAPE

Key Industry Players

Focus on Program Maturity, System Integration, and Operational Readiness to Shape Competitive Positioning

The global mobile high power microwave weapon market is characterized by competition among directed-energy developers, defense primes, microwave-source specialists, pulsed-power companies, and system integrators. Competitive positioning is primarily determined by HPM source efficiency, waveform agility, engagement range, multi-target capability, size-weight-and-power performance, mobility, electromagnetic compatibility, platform integration, and demonstrated effectiveness against drones and electronic targets.

Leading participants are pursuing distinct technology and deployment strategies. Epirus is advancing solid-state, software-defined HPM systems for mobile counter-UAS applications, while RTX and Leidos are developing high-power microwave solutions for layered air defense and counter-swarm missions. Lockheed Martin is pursuing airborne HPM concepts.

LIST OF KEY MOBILE HIGH POWER MICROWAVE WEAPON COMPANIES PROFILED

• Epirus, Inc. (U.S.)
• RTX Corporation / Raytheon (U.S.)
• Leidos Holdings, Inc. (U.S.)
• Lockheed Martin Corporation (U.S.)
• Radiance Technologies, Inc. (U.S.)
• General Dynamics Corporation (U.S.)
• Radiance Technologies, Inc. / Verus Research (U.S.)
• General Atomics (U.S.)
• QinetiQ Group plc (U.K.)
• Teledyne Technologies Incorporated (U.S.)

KEY INDUSTRY DEVELOPMENTS

• August 2026: Epirus received a USD 11 million U.S. Marine Corps contract for the High-Power Microwave Autonomous Vehicle Operational Capability (HAVOC) program. The company will deliver an autonomy-enabled, vehicle-integrated HPM system for counter-UAS and counter-swarm point defense, with options covering an additional system, training, service, and sustainment.
• July 2026: Lockheed Martin unveiled MORFIUS X-Rotor, a reusable airborne high-power microwave counter-drone system designed to neutralize more than 50 drones during a single flight. The company is accelerating prototype production of the system and its HPM payload while preparing additional flight testing following earlier flight, intercept, and lethality evaluations.
• March 2026: Epirus, General Dynamics Land Systems and Kodiak AI unveiled the Leonidas Autonomous Ground Vehicle, integrating Epirus' HPM effector with an autonomous commercial vehicle platform. The system is designed for mobile counter-UAS, critical-point defense, and homeland-security missions and can operate autonomously or through teleoperation.
• January 2026: Singapore's Defense Science and Technology Agency and Epirus signed a memorandum of understanding to advance HPM-based counter-UAS capabilities.
• May 2025: Leidos received a USD 45 million ceiling IDIQ contract from the U.S. Air Force Research Laboratory for the High-Power Electromagnetic Weapon Systems Transitions program.

REPORT COVERAGE

The global market analysis provides an in-depth study of market size & forecast by all the market segments included in the report. It includes details on the market dynamics, market trends, and regional analysis expected to drive the market in the forecast period. The market report includes Porter’s Five Forces analysis, which illustrates the potency of buyers and suppliers in the market. The market forecast offers information on the technological advancements, new product launches, key trends, major aviation sector developments, and details on partnerships, mergers & acquisitions. The mobile high power microwave weapon market analysis also encompasses a detailed competitive landscape with information on the market share and profiles of key players.

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Report Scope & Segmentation

Research Methodology

1. Bottom Up Approaches

Approach 1: Revenues and Market Share of Mobile High Power Microwave Weapon Providers

• Collection of HPM-specific and directed-energy-related revenues from annual reports, SEC filings, investor presentations, government contract announcements, company websites, and defense program disclosures.
• Identification of revenues attributable specifically to mobile HPM weapons, HPM effectors, RF directed-energy systems, system integration, upgrades, and sustainment.
• Analysis of relevant product and program portfolios of major developers, prime contractors, subsystem suppliers, and platform integrators.
• Assessment of geographical presence, defense-customer exposure, production capability, contract backlog, technology maturity, and participation in government HPM programs.
• Separation of HPM-related revenues from unrelated businesses such as conventional electronic warfare, radar, communications, high-energy lasers, and kinetic counter-UAS weapons.
• Estimation of company-level market shares using attributable HPM revenues, contract values, deliveries, and program participation.
• Triangulation of company-level revenues with government procurement and contract data to derive the global market.

Approach 2: Defense Budget and Procurement Spending Analysis at Country Level (2021–2025)

• Identification of defense budgets allocated to directed-energy weapons, high-power microwave systems, counter-UAS systems, counter-drone swarms, electronic attack, and advanced air defense technologies.
• Review of RDT&E, prototype, procurement, integration, testing, sustainment, and modernization expenditures relating specifically to mobile HPM programs.
• Mapping of HPM expenditure across major procuring countries including the U.S., U.K., China, Russia, Israel, France, Germany, India, South Korea, Japan, and other relevant defense markets.
• Separation of HPM expenditure from high-energy laser, electronic warfare, radar, interceptor, and conventional counter-UAS expenditure.
• Evaluation of annual budget requests, enacted appropriations, contract awards, program extensions, and multi-year procurement plans.
• Conversion of country-level HPM spending into estimated annual addressable market revenues.
• Aggregation of country estimates to establish regional and global market size.

Approach 3:  Unit Procurement, Program Delivery and Average System Value Analysis

• Identification of publicly disclosed mobile HPM systems, prototypes, demonstrators, operational systems, and procurement programs globally.
• Collection of available information on systems ordered, prototypes funded, units delivered, planned quantities, deployment locations, and future procurement requirements.
• Classification of systems by wheeled vehicle, tracked vehicle, unmanned ground vehicle, trailer-mounted, containerized, naval, and airborne configurations.
• Estimation of average system value based on disclosed contract value, system quantity, subsystem content, integration requirements, platform configuration, and program stage.
• Development of separate ASP assumptions for prototypes, operational prototypes, low-rate production systems, and mature production systems.
• Calculation of annual market value using estimated units × average system value.
• Adjustment for integration, sensors, command-and-control, power systems, software, training, upgrades, spares, and sustainment where included within HPM procurement contracts.
• Cross-validation against company revenue and government procurement estimates.

2. Top Down Approaches

Approach 1: Global Defense Expenditure Allocation Approach

• Collect annual military expenditure for all major countries within the study scope for 2021–2025.
• Identify the proportion of defense expenditure allocated to equipment procurement, RDT&E, modernization, and advanced weapon systems.
• Estimate spending attributable to air defense, counter-UAS, electronic warfare, and directed-energy weapon programs.
• Separate spending on high-energy lasers, kinetic interceptors, conventional RF jammers, radar systems, and other non-HPM technologies.
• Determine the proportion attributable specifically to high-power microwave and RF directed-energy technologies.
• Further isolate expenditure on mobile, vehicle-mounted, transportable, autonomous, naval-mobile, and other deployable HPM systems.
• Calculate country-level Mobile HPM Weapon market values.
• Aggregate country estimates to determine regional and global market size.
• Cross-check derived values against disclosed government contracts, HPM program budgets, and company revenues.

Approach 2: Counter-UAS and Counter-Swarm Defense Spending Funnel

• Estimate total global defense spending associated with counter-UAS and counter-drone capabilities.
• Divide spending among detection, tracking, command-and-control, electronic warfare, kinetic interceptors, directed-energy weapons, and supporting systems.
• Determine the share attributable to non-kinetic directed-energy defeat systems.
• Separate high-energy laser spending from RF directed-energy and HPM weapon spending.
• Estimate the proportion of HPM expenditure associated with mobile and tactically deployable configurations.
• Allocate expenditure between counter-single-UAS and counter-swarm applications based on identified military requirements and procurement programs.
• Distribute the resulting market across countries based on counter-UAS budgets, drone-threat exposure, military modernization, and procurement activity.
• Validate estimates using programs such as mobile HPM prototypes, RFDEW demonstrators, counter-swarm HPM programs, and operational trials.
• Aggregate the country-level results to derive the global market.

3. List of Key Sources

• U.S. Department of Defense
• U.S. Army
• U.S. Air Force
• U.S. Navy
• DARPA
• AFRL
• RCCTO
• K. Ministry of Defense
• Dstl
• NATO
• European Defense Agency
• European Defense Fund
• National Ministries of Defense
• Government budget justification documents
• gov
• gov
• Congressional Research Service
• Government Accountability Office

 4. Primary Interviews

Supply Side Interviews: 60%

• Key Respondents:
• High-Power Microwave weapon system developers
• RF directed-energy weapon manufacturers
• Counter-UAS and counter-drone weapon system providers
• Directed-energy weapon prime contractors
• Microwave source and RF power amplifier manufacturers
• Gallium Nitride and high-power RF semiconductor suppliers
• High-power antenna and beam-forming system manufacturers
• Pulsed-power, capacitor and energy-storage system suppliers
• Power-conditioning and power-management technology providers
• Thermal-management and cooling-system suppliers
• Electronic warfare and counter-electronics technology companies
• Radar, electro-optical and target-acquisition system providers
• Command, control and battle-management system providers
• Tactical wheeled and tracked vehicle manufacturers

Business development, product management & commercial executives

Demand Side Interviews: 40%

• Key Respondents:
• Ministries and Departments of Defense
• Army air-defense and counter-UAS units
• Air Force base-defense and force-protection units
• Naval force-protection and counter-UAS units
• Marine Corps and expeditionary defense units
• Joint air and missile defense organizations
• Military electronic warfare and counter-electronics units
• Defense procurement and acquisition agencies
• Government directed-energy program offices
• Military research laboratories and defense technology organizations
• Counter-UAS program managers and capability-development teams
• Military base and critical-asset protection authorities
• Defense test and evaluation organizations