Directed Energy Weapons Market by Type (Laser Weapons, Microwave Weapons, Particle Beam Weapons), Platform (Air, Land, Naval), Power Output, Application - Global Forecast 2025-2032
Description
The Directed Energy Weapons Market was valued at USD 17.11 billion in 2024 and is projected to grow to USD 20.62 billion in 2025, with a CAGR of 21.20%, reaching USD 79.73 billion by 2032.
Comprehensive introduction to directed energy weapons covering technological principles, operational roles, strategic implications, and evolving defense contexts
Directed energy weapons are transitioning from experimental demonstrators to mission-capable options across multiple defense and security use cases, driven by advances in power electronics, beam control, and system integration. The technology family encompasses high-energy lasers, high-power microwave systems, and emerging particle beam concepts; each brings distinct operational advantages and technical constraints that influence procurement choices and deployment strategies. Over recent development cycles, integration activity has concentrated on creating modular, shipboard, airborne, and ground-replaceable assemblies that reduce logistic burden while increasing system availability.
As the ecosystem matures, attention has shifted from single-component breakthroughs toward system-of-systems interoperability, where directed energy capabilities are layered within broader sensor-to-shooter chains. This trend is reflected in growing collaboration between prime integrators, specialized suppliers, and research institutions to validate interfaces and mature safety frameworks. In parallel, regulatory and export-control considerations are becoming central to program timelines and international cooperation, prompting organizations to adopt rigorous compliance and verification protocols. Moving forward, stakeholders must balance near-term operational utility with mid-term sustainment and training investments to realize the full potential of directed energy technologies in contested environments.
Critical examination of transformative shifts reshaping directed energy weapon development, deployment doctrine, industrial base dynamics, and deterrence
The landscape for directed energy weapons is experiencing several transformative shifts that are redefining development priorities and procurement decisions. Advances in fiber and solid-state laser technologies have compressed size, weight, power, and cooling footprints, enabling more rapid integration onto tactical platforms and prompting a move from proof-of-concept demonstrations to fleet-level experimentation. Concurrently, improvements in beam control and adaptive optics are expanding realistic engagement envelopes, increasing effectiveness against swarms, rotary-wing threats, and sensitive sensor arrays. These technical evolutions are accompanied by a broader doctrinal reappraisal, as militaries reassess how directed energy can contribute to layered defenses and non-kinetic escalation management.
Industry dynamics are also changing: supply chain specialization is intensifying, with firms concentrating on high-value subsystems such as power conversion, thermal management, and optical assemblies, while integrators focus on end-to-end system assurance. At the same time, partnerships between defense primes, niche vendors, and national labs are compressing technology maturation cycles, enabling accelerated field trials. Finally, policy and export frameworks are progressively influencing cross-border collaboration, research partnerships, and component sourcing, reinforcing the need for resilient procurement strategies that anticipate regulatory shifts and geopolitical friction.
Analysis of the cumulative impact of United States tariffs in 2025 on directed energy supply chains, component sourcing, collaborations and program schedules
The imposition of tariffs and trade measures in 2025 introduced novel frictions into the procurement and supply chains that support directed energy weapon programs. Component sourcing strategies that previously relied on globally distributed suppliers have been forced to adapt, as tariff exposure alters relative cost and lead-time calculus for critical subsystems such as high-power laser modules, beam control electronics, and exotic optical materials. In response, some organizations have accelerated localization efforts for sensitive components, while others have explored dual-sourcing arrangements to mitigate single-vendor dependencies and tariff-driven price volatility.
The cumulative effect has been a re-evaluation of supplier contracts, inventory policies, and long-lead procurement decisions, with program managers placing greater emphasis on supplier qualification, compliance documentation, and freight optimization. For international collaborations, tariff regimes have prompted renewed focus on in-country production sharing and intellectual property agreements to minimize cross-border friction. Operationally, program timelines have adjusted to reflect increased lead times for certain assemblies and to incorporate contingency budgets for alternative sourcing. Collectively, these shifts have emphasized the importance of supply-chain visibility, proactive risk management, and strategic procurement that balances performance requirements with resilience to trade policy changes.
Insightful segmentation analysis revealing how distinctions in type, application, platform, and power output influence capability priorities, R&D roadmaps
A nuanced segmentation view of directed energy systems reveals how technology choices, mission demands, platform integration, and power classifications interlock to shape design trade-offs and acquisition priorities. When viewed by type, systems fall into laser weapons, microwave weapons, and particle beam weapons; laser implementations further differentiate into chemical, fiber, and solid-state architectures, each with distinct thermal and logistical profiles, while microwave solutions span active-denial concepts and high-power microwave payloads, and particle-beam concepts are emerging around electron and proton beam physics. These technical distinctions drive divergent lifecycle support models and technical entry barriers.
Application-oriented segmentation highlights discrete operational pathways for homeland security, industrial, military, and research customers, with each sector prioritizing different attributes such as safety protocols, continuous-operation endurance, lethality curves, or experimental flexibility. Platform segmentation-air, land, naval, and space-introduces mechanical and environmental integration constraints that influence cooling schemes, power generation strategies, and form-factor choices. Power-output segmentation into high-power, medium-power, and low-power bands further delineates tactical utility, engagement duration, and logistic support demands. Together, these intersecting segmentation lenses allow stakeholders to anticipate capability trade-offs, align procurement specifications with mission intent, and plan R&D investment to close the most critical capability gaps.
Regional perspectives revealing adoption trajectories, industrial strengths, export controls, and collaboration patterns shaping directed energy deployment
Regional dynamics are central to understanding the adoption trajectory and operational posture of directed energy systems, as industry maturity, regulatory environments, export-control regimes, and sovereign priorities vary considerably across geographies. In the Americas, modernization programs and naval experimentation have driven early operational deployments, with strong demand for shipboard and ground-based systems that address asymmetric threats and protect high-value assets. Europe, the Middle East & Africa feature a mix of advanced research capabilities and nascent procurement pathways, where collaborative defense programs and export-control frameworks play a central role in shaping cross-border development and industrial partnerships. Meanwhile, Asia-Pacific reflects a rapidly expanding capability base driven by ambitious platform integration projects, national strategic priorities, and concentrated investments in power electronics and optical manufacturing.
These regional distinctions affect not only procurement timelines but also partnership models, workforce development, and supply-chain resiliency planning. Cross-regional engagement often requires alignment on standards, safety protocols, and export compliance, and successful programs invariably blend indigenous capability development with targeted international collaboration to accelerate deployment while preserving strategic autonomy.
Company-level insights revealing competitive positioning, partnership networks, intellectual property focus, and capability gaps that shape leadership
Company-level analysis demonstrates that leadership in directed energy emerges from a combination of deep technical specialization, systems-integration competence, and effective partner networks that span component suppliers, research institutions, and prime contractors. Firms that have invested in proprietary thermal management, beam-steering software, and power-conversion subsystems tend to occupy high-value positions in supply chains, while integrators that prioritize safety certification, modularity, and maintainability secure more frequent inclusion in platform modernization efforts. Intellectual property strategies that balance patent protection with collaborative licensing agreements have enabled accelerated technology transfer without unduly restricting partner access.
Despite pockets of concentrated capability, capability gaps persist in areas such as ruggedized high-efficiency power supplies, compact energy storage for mobile platforms, and hardened optics for contested environments. Competitive positioning often depends less on single-product performance and more on the ability to deliver validated, field-ready solutions supported by sustainment pathways and compliance documentation. Strategic partnerships and targeted acquisitions remain the most effective mechanisms for rapidly closing capability gaps, enabling companies to offer integrated solutions that meet stringent operational requirements and long-term sustainment needs.
Actionable recommendations enabling leaders to accelerate adoption, reinforce supply resilience, prioritize R&D, and align procurement with strategic objectives
Industry leaders should pursue a pragmatic portfolio approach that balances near-term operational capability with longer-term technology maturation and supply-chain resilience. First, prioritize modularity and open interfaces to allow incremental upgrades and ease of integration across air, land, naval, and emerging space platforms, thereby reducing platform-specific sunk costs and accelerating fielding. Second, strengthen supplier qualification and dual-sourcing strategies for critical subsystems to mitigate tariff and geopolitical risks; investments in selective localization or verified alternative suppliers can reduce single-point failures without compromising performance.
Third, focus R&D investments on the highest-leverage technology gaps such as compact high-efficiency power conversion, thermal management solutions suitable for austere environments, and advanced beam control algorithms that improve effectiveness under contested conditions. Fourth, formalize safety, testing, and certification processes early in development to shorten transition pathways from laboratories to operational use. Finally, cultivate cross-sector partnerships that combine prime integrator systems knowledge with specialist provider innovation, and align acquisition pathways with realistic sustainment plans to ensure long-term availability and readiness. Executed together, these recommendations will position organizations to deliver capability rapidly while protecting program timelines and strategic objectives.
Transparent research methodology describing data collection, expert consultations, technical validation processes, and multicriteria analysis for validation
The research approach underpinning this executive summary relied on a structured, multi-method process designed to ensure analytical rigor and traceability. Primary inputs included structured consultations with subject-matter experts from industry, academia, and defense services, augmented by technical briefings and system test reports where available. Secondary inputs consisted of peer-reviewed technical literature, open-source government publications, and supplier technical datasheets that inform component-level performance characteristics. Throughout, emphasis was placed on cross-validation of claims using independent sources and technical plausibility checks.
Analytical steps incorporated multicriteria evaluation of technology readiness, integration risk, and logistical burden, with sensitivity checks to explore alternative sourcing and policy scenarios. Where possible, technical parameters were examined in the context of realistic operational constraints, and safety and regulatory considerations were explicitly incorporated into assessments of deployment feasibility. The methodology favored transparency in assumptions and traceability in citations, enabling readers to follow the analytical logic and replicate key judgment calls if desired. This disciplined approach ensures that conclusions rest on documented evidence, expert insight, and conservative validation practices.
Conclusive synthesis of strategic implications, core challenges, technology inflection points, and pragmatic pathways for integrating directed energy capabilities
The synthesis presented here underscores that directed energy weapons are becoming a credible and increasingly integrated element of contemporary defense capabilities, but their successful adoption depends on coordinated technological, industrial, and policy actions. Technically, rapid progress in laser architectures, beam control, and power management is unlocking practical use cases, yet deployment at scale requires continued attention to thermal management, power generation, and system reliability under operational stress. Institutionally, procurement strategies that emphasize modularity, supplier diversification, and early safety certification will accelerate transition from experimental platforms to operational units.
Policy and geopolitical factors will remain central determinants of international cooperation, component sourcing, and collaborative research. Responsible integration requires clear safety standards, export-compliant frameworks, and training regimens that mitigate misuse risks. In sum, stakeholders who combine focused R&D investments, resilient supply-chain practices, and disciplined acquisition processes will be best positioned to convert technological promise into reliable, deployable capability while managing strategic risk and operational constraints.
Please Note: PDF & Excel + Online Access - 1 Year
Comprehensive introduction to directed energy weapons covering technological principles, operational roles, strategic implications, and evolving defense contexts
Directed energy weapons are transitioning from experimental demonstrators to mission-capable options across multiple defense and security use cases, driven by advances in power electronics, beam control, and system integration. The technology family encompasses high-energy lasers, high-power microwave systems, and emerging particle beam concepts; each brings distinct operational advantages and technical constraints that influence procurement choices and deployment strategies. Over recent development cycles, integration activity has concentrated on creating modular, shipboard, airborne, and ground-replaceable assemblies that reduce logistic burden while increasing system availability.
As the ecosystem matures, attention has shifted from single-component breakthroughs toward system-of-systems interoperability, where directed energy capabilities are layered within broader sensor-to-shooter chains. This trend is reflected in growing collaboration between prime integrators, specialized suppliers, and research institutions to validate interfaces and mature safety frameworks. In parallel, regulatory and export-control considerations are becoming central to program timelines and international cooperation, prompting organizations to adopt rigorous compliance and verification protocols. Moving forward, stakeholders must balance near-term operational utility with mid-term sustainment and training investments to realize the full potential of directed energy technologies in contested environments.
Critical examination of transformative shifts reshaping directed energy weapon development, deployment doctrine, industrial base dynamics, and deterrence
The landscape for directed energy weapons is experiencing several transformative shifts that are redefining development priorities and procurement decisions. Advances in fiber and solid-state laser technologies have compressed size, weight, power, and cooling footprints, enabling more rapid integration onto tactical platforms and prompting a move from proof-of-concept demonstrations to fleet-level experimentation. Concurrently, improvements in beam control and adaptive optics are expanding realistic engagement envelopes, increasing effectiveness against swarms, rotary-wing threats, and sensitive sensor arrays. These technical evolutions are accompanied by a broader doctrinal reappraisal, as militaries reassess how directed energy can contribute to layered defenses and non-kinetic escalation management.
Industry dynamics are also changing: supply chain specialization is intensifying, with firms concentrating on high-value subsystems such as power conversion, thermal management, and optical assemblies, while integrators focus on end-to-end system assurance. At the same time, partnerships between defense primes, niche vendors, and national labs are compressing technology maturation cycles, enabling accelerated field trials. Finally, policy and export frameworks are progressively influencing cross-border collaboration, research partnerships, and component sourcing, reinforcing the need for resilient procurement strategies that anticipate regulatory shifts and geopolitical friction.
Analysis of the cumulative impact of United States tariffs in 2025 on directed energy supply chains, component sourcing, collaborations and program schedules
The imposition of tariffs and trade measures in 2025 introduced novel frictions into the procurement and supply chains that support directed energy weapon programs. Component sourcing strategies that previously relied on globally distributed suppliers have been forced to adapt, as tariff exposure alters relative cost and lead-time calculus for critical subsystems such as high-power laser modules, beam control electronics, and exotic optical materials. In response, some organizations have accelerated localization efforts for sensitive components, while others have explored dual-sourcing arrangements to mitigate single-vendor dependencies and tariff-driven price volatility.
The cumulative effect has been a re-evaluation of supplier contracts, inventory policies, and long-lead procurement decisions, with program managers placing greater emphasis on supplier qualification, compliance documentation, and freight optimization. For international collaborations, tariff regimes have prompted renewed focus on in-country production sharing and intellectual property agreements to minimize cross-border friction. Operationally, program timelines have adjusted to reflect increased lead times for certain assemblies and to incorporate contingency budgets for alternative sourcing. Collectively, these shifts have emphasized the importance of supply-chain visibility, proactive risk management, and strategic procurement that balances performance requirements with resilience to trade policy changes.
Insightful segmentation analysis revealing how distinctions in type, application, platform, and power output influence capability priorities, R&D roadmaps
A nuanced segmentation view of directed energy systems reveals how technology choices, mission demands, platform integration, and power classifications interlock to shape design trade-offs and acquisition priorities. When viewed by type, systems fall into laser weapons, microwave weapons, and particle beam weapons; laser implementations further differentiate into chemical, fiber, and solid-state architectures, each with distinct thermal and logistical profiles, while microwave solutions span active-denial concepts and high-power microwave payloads, and particle-beam concepts are emerging around electron and proton beam physics. These technical distinctions drive divergent lifecycle support models and technical entry barriers.
Application-oriented segmentation highlights discrete operational pathways for homeland security, industrial, military, and research customers, with each sector prioritizing different attributes such as safety protocols, continuous-operation endurance, lethality curves, or experimental flexibility. Platform segmentation-air, land, naval, and space-introduces mechanical and environmental integration constraints that influence cooling schemes, power generation strategies, and form-factor choices. Power-output segmentation into high-power, medium-power, and low-power bands further delineates tactical utility, engagement duration, and logistic support demands. Together, these intersecting segmentation lenses allow stakeholders to anticipate capability trade-offs, align procurement specifications with mission intent, and plan R&D investment to close the most critical capability gaps.
Regional perspectives revealing adoption trajectories, industrial strengths, export controls, and collaboration patterns shaping directed energy deployment
Regional dynamics are central to understanding the adoption trajectory and operational posture of directed energy systems, as industry maturity, regulatory environments, export-control regimes, and sovereign priorities vary considerably across geographies. In the Americas, modernization programs and naval experimentation have driven early operational deployments, with strong demand for shipboard and ground-based systems that address asymmetric threats and protect high-value assets. Europe, the Middle East & Africa feature a mix of advanced research capabilities and nascent procurement pathways, where collaborative defense programs and export-control frameworks play a central role in shaping cross-border development and industrial partnerships. Meanwhile, Asia-Pacific reflects a rapidly expanding capability base driven by ambitious platform integration projects, national strategic priorities, and concentrated investments in power electronics and optical manufacturing.
These regional distinctions affect not only procurement timelines but also partnership models, workforce development, and supply-chain resiliency planning. Cross-regional engagement often requires alignment on standards, safety protocols, and export compliance, and successful programs invariably blend indigenous capability development with targeted international collaboration to accelerate deployment while preserving strategic autonomy.
Company-level insights revealing competitive positioning, partnership networks, intellectual property focus, and capability gaps that shape leadership
Company-level analysis demonstrates that leadership in directed energy emerges from a combination of deep technical specialization, systems-integration competence, and effective partner networks that span component suppliers, research institutions, and prime contractors. Firms that have invested in proprietary thermal management, beam-steering software, and power-conversion subsystems tend to occupy high-value positions in supply chains, while integrators that prioritize safety certification, modularity, and maintainability secure more frequent inclusion in platform modernization efforts. Intellectual property strategies that balance patent protection with collaborative licensing agreements have enabled accelerated technology transfer without unduly restricting partner access.
Despite pockets of concentrated capability, capability gaps persist in areas such as ruggedized high-efficiency power supplies, compact energy storage for mobile platforms, and hardened optics for contested environments. Competitive positioning often depends less on single-product performance and more on the ability to deliver validated, field-ready solutions supported by sustainment pathways and compliance documentation. Strategic partnerships and targeted acquisitions remain the most effective mechanisms for rapidly closing capability gaps, enabling companies to offer integrated solutions that meet stringent operational requirements and long-term sustainment needs.
Actionable recommendations enabling leaders to accelerate adoption, reinforce supply resilience, prioritize R&D, and align procurement with strategic objectives
Industry leaders should pursue a pragmatic portfolio approach that balances near-term operational capability with longer-term technology maturation and supply-chain resilience. First, prioritize modularity and open interfaces to allow incremental upgrades and ease of integration across air, land, naval, and emerging space platforms, thereby reducing platform-specific sunk costs and accelerating fielding. Second, strengthen supplier qualification and dual-sourcing strategies for critical subsystems to mitigate tariff and geopolitical risks; investments in selective localization or verified alternative suppliers can reduce single-point failures without compromising performance.
Third, focus R&D investments on the highest-leverage technology gaps such as compact high-efficiency power conversion, thermal management solutions suitable for austere environments, and advanced beam control algorithms that improve effectiveness under contested conditions. Fourth, formalize safety, testing, and certification processes early in development to shorten transition pathways from laboratories to operational use. Finally, cultivate cross-sector partnerships that combine prime integrator systems knowledge with specialist provider innovation, and align acquisition pathways with realistic sustainment plans to ensure long-term availability and readiness. Executed together, these recommendations will position organizations to deliver capability rapidly while protecting program timelines and strategic objectives.
Transparent research methodology describing data collection, expert consultations, technical validation processes, and multicriteria analysis for validation
The research approach underpinning this executive summary relied on a structured, multi-method process designed to ensure analytical rigor and traceability. Primary inputs included structured consultations with subject-matter experts from industry, academia, and defense services, augmented by technical briefings and system test reports where available. Secondary inputs consisted of peer-reviewed technical literature, open-source government publications, and supplier technical datasheets that inform component-level performance characteristics. Throughout, emphasis was placed on cross-validation of claims using independent sources and technical plausibility checks.
Analytical steps incorporated multicriteria evaluation of technology readiness, integration risk, and logistical burden, with sensitivity checks to explore alternative sourcing and policy scenarios. Where possible, technical parameters were examined in the context of realistic operational constraints, and safety and regulatory considerations were explicitly incorporated into assessments of deployment feasibility. The methodology favored transparency in assumptions and traceability in citations, enabling readers to follow the analytical logic and replicate key judgment calls if desired. This disciplined approach ensures that conclusions rest on documented evidence, expert insight, and conservative validation practices.
Conclusive synthesis of strategic implications, core challenges, technology inflection points, and pragmatic pathways for integrating directed energy capabilities
The synthesis presented here underscores that directed energy weapons are becoming a credible and increasingly integrated element of contemporary defense capabilities, but their successful adoption depends on coordinated technological, industrial, and policy actions. Technically, rapid progress in laser architectures, beam control, and power management is unlocking practical use cases, yet deployment at scale requires continued attention to thermal management, power generation, and system reliability under operational stress. Institutionally, procurement strategies that emphasize modularity, supplier diversification, and early safety certification will accelerate transition from experimental platforms to operational units.
Policy and geopolitical factors will remain central determinants of international cooperation, component sourcing, and collaborative research. Responsible integration requires clear safety standards, export-compliant frameworks, and training regimens that mitigate misuse risks. In sum, stakeholders who combine focused R&D investments, resilient supply-chain practices, and disciplined acquisition processes will be best positioned to convert technological promise into reliable, deployable capability while managing strategic risk and operational constraints.
Please Note: PDF & Excel + Online Access - 1 Year
Table of Contents
193 Pages
- 1. Preface
- 1.1. Objectives of the Study
- 1.2. Market Segmentation & Coverage
- 1.3. Years Considered for the Study
- 1.4. Currency
- 1.5. Language
- 1.6. Stakeholders
- 2. Research Methodology
- 3. Executive Summary
- 4. Market Overview
- 5. Market Insights
- 5.1. Integration of laser-based air defense systems into mobile military platforms
- 5.2. Advancements in microwave directed energy for non-lethal crowd control
- 5.3. Development of high-power fiber lasers for long-range missile interception
- 5.4. Implementing adaptive optics to improve beam precision in battlefield conditions
- 5.5. R&D in railgun and coilgun electromagnetic launch systems for naval applications
- 5.6. Miniaturization of directed energy modules for unmanned aerial systems deployment
- 5.7. International collaborations on directed energy export control and compliance policy
- 5.8. Use of directed energy weapons to counter drone swarm threats in urban environments
- 5.9. Transition from prototype to operational directed energy weapons in armed forces
- 5.10. Commercial and defense industry partnerships driving directed energy weapon cost reduction
- 6. Cumulative Impact of United States Tariffs 2025
- 7. Cumulative Impact of Artificial Intelligence 2025
- 8. Directed Energy Weapons Market, by Type
- 8.1. Laser Weapons
- 8.1.1. Chemical Laser
- 8.1.2. Fiber Laser
- 8.1.3. Solid State Laser
- 8.2. Microwave Weapons
- 8.2.1. Active Denial System
- 8.2.2. High-Power Microwave
- 8.3. Particle Beam Weapons
- 8.3.1. Electron Beam
- 8.3.2. Proton Beam
- 9. Directed Energy Weapons Market, by Platform
- 9.1. Air
- 9.2. Land
- 9.3. Naval
- 9.4. Space
- 10. Directed Energy Weapons Market, by Power Output
- 10.1. High-Power
- 10.2. Low-Power
- 10.3. Medium-Power
- 11. Directed Energy Weapons Market, by Application
- 11.1. Homeland Security
- 11.2. Industrial
- 11.3. Military
- 11.4. Research
- 12. Directed Energy Weapons Market, by Region
- 12.1. Americas
- 12.1.1. North America
- 12.1.2. Latin America
- 12.2. Europe, Middle East & Africa
- 12.2.1. Europe
- 12.2.2. Middle East
- 12.2.3. Africa
- 12.3. Asia-Pacific
- 13. Directed Energy Weapons Market, by Group
- 13.1. ASEAN
- 13.2. GCC
- 13.3. European Union
- 13.4. BRICS
- 13.5. G7
- 13.6. NATO
- 14. Directed Energy Weapons Market, by Country
- 14.1. United States
- 14.2. Canada
- 14.3. Mexico
- 14.4. Brazil
- 14.5. United Kingdom
- 14.6. Germany
- 14.7. France
- 14.8. Russia
- 14.9. Italy
- 14.10. Spain
- 14.11. China
- 14.12. India
- 14.13. Japan
- 14.14. Australia
- 14.15. South Korea
- 15. Competitive Landscape
- 15.1. Market Share Analysis, 2024
- 15.2. FPNV Positioning Matrix, 2024
- 15.3. Competitive Analysis
- 15.3.1. Lockheed Martin Corporation
- 15.3.2. Raytheon Technologies Corporation
- 15.3.3. Northrop Grumman Corporation
- 15.3.4. The Boeing Company
- 15.3.5. BAE Systems plc
- 15.3.6. Thales S.A.
- 15.3.7. Leonardo S.p.A.
- 15.3.8. L3Harris Technologies, Inc.
- 15.3.9. General Atomics
- 15.3.10. Rheinmetall AG
- 15.3.11. Qine
- 15.3.12. Rafael Advanced Defense Systems Ltd.
- 15.3.13. Moog, Inc.
- 15.3.14. Kratos Defense & Axes
- 15.3.15. MBDA UK Limited
- 15.3.16. Honeywell International Inc.
- 15.3.17. Textron Inc.
- 15.3.18. SAIC
- 15.3.19. Applied Research Associates, Inc.
- 15.3.20. Dynetics Inc.
- 15.3.21. AND
- 15.3.22. Kord Technologies Inc.
- 15.3.23. Teledyne Technologies Incorporated
- 15.3.24. Airbus SE
- 15.3.25. Bharat El
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