Military Antenna Market Size and Share
Military Antenna Market Analysis by Mordor Intelligence
The military antenna market size stood at USD 4.56 billion in 2025 and is forecasted to reach USD 6.15 billion by 2030, advancing at a 6.17% CAGR. Rapid growth in global defense spending, multi-orbit satellite communications programs, and the transition to software-defined, mesh-networked platforms are the primary forces expanding the military antenna market. Large-scale US and allied investments in proliferated low-Earth-orbit (LEO) constellations, fifth-generation tactical radios, and Active Electronically Scanned Array (AESA) retrofits are accelerating demand for frequency-agile apertures that support multi-domain operations. At the same time, Asia-Pacific rearmament and European rapid-reaction initiatives are widening the customer base for resilient, high-bandwidth antenna technologies. In parallel, commercial space-internet partnerships are shortening procurement cycles and lowering barriers to entry for innovative suppliers.
Key Report Takeaways
- By platform, ground platforms led with 36.32% revenue share in 2024; space-based systems are projected to advance at a 10.97% CAGR through 2030, the fastest among all platforms.
- By frequency band, ultra-high-frequency (UHF) systems commanded 30.56% of the military antenna market share in 2024, while super-high-frequency (SHF) solutions are forecasted to rise at a 9.54% CAGR to 2030.
- By technology, array antennas captured 33.23% revenue share in 2024; microstrip antennas are expected to expand at an 8.39% CAGR through 2030.
- By application, communications dominated the military antenna market, with a 41.56% share in 2024, and command-and-control (C2) data-link systems are advancing at a 7.49% CAGR to 2030.
- By component, the radiating element commanded 39.45% of the military antenna market share in 2024, while the radome as a component is forecasted to rise at a 7.27% CAGR to 2030.
- By region, North America held a 46.34% revenue share in 2024; Asia-Pacific is set to register the fastest regional CAGR, at 6.55%, by 2030.
Global Military Antenna Market Trends and Insights
Drivers Impact Analysis
| Driver | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Software-defined multifunction apertures | +1.20% | North America and Europe | Medium term (2-4 years) |
| Rapid surge in constellation-based SATCOM demand | +1.80% | Global, led by North America | Short term (≤ 2 years) |
| Multi-domain operations doctrine adoption | +1.00% | NATO nations, Australia, Japan, South Korea | Medium term (2-4 years) |
| Quad-band AESA retrofit programs | +0.90% | North America, Europe, select Asia-Pacific allies | Long term (≥ 4 years) |
| LEO tactical ISR surge | +1.40% | Global, concentrated in contested regions | Short term (≤ 2 years) |
| Battlefield 5G mesh networking | +0.80% | North America, Europe, advanced Asia-Pacific markets | Medium term (2-4 years) |
| Source: Mordor Intelligence | |||
Software-Defined Multifunction Apertures Drive Platform Integration
Software-defined apertures allow a single antenna surface to perform communications, radar, and electronic-warfare tasks without swapping hardware, reducing lifecycle costs and platform drag.[1]Office of Naval Research, “Active Aperture Array,” onr.navy.mil US naval demonstrations show polarization-agile elements that adjust beam patterns through firmware updates, enabling over-the-air capability refresh. L3Harris has field-tested conformal antennas that blend with aircraft skins, lowering observability while preserving gain across X-, Ku-, and Ka-bands. The Space Force’s SCARS effort fast-tracks phased-array adoption to ensure rapid re-tasking of ground terminals for evolving orbits. Early adopters in North America and Europe intend to retrofit legacy airborne and naval assets across the medium-term horizon, solidifying this driver’s incremental boost to the military antenna market.
Constellation-Based SATCOM Demand Reshapes Military Communications
The Pentagon’s decision to lease Starshield capacity signals an institutional pivot toward commercial LEO bandwidth that shortens latency from 600 milliseconds on legacy geostationary routes to under 40 milliseconds on LEO paths.[2]SpaceNews, “Pentagon Embracing Starshield,” spacenews.com DARPA’s Blackjack program validates automated cross-linking between military payloads and commercial buses, assuring fault tolerance through constellation redundancy. Multi-orbit routers under Army test dynamically switch between LEO, medium, and geostationary assets to preserve connectivity when adversaries jam a specific layer. The resulting surge in compact, flat-panel antennas that auto-steer across Ka-, Ku-, and X-bands positions constellation-centric programs as the largest single demand catalyst over the next two years.
Multi-Domain Operations Doctrine Accelerates Antenna Innovation
NATO’s concept of synchronized effects across land, sea, air, cyber, and space requires every platform to act as a node on a resilient network, prompting urgent upgrades to frequency-agile antennas able to survive electromagnetic interference. US Marine Corps 5G field trials demonstrate 100 Mbps dismounted throughput that supports augmented-reality targeting and logistics apps under electronic-warfare stress. Army Network Modernization events recorded 35% latency reductions during mesh-radio handovers when AESA apertures handled simultaneous C2 and ISR links. As coalition exercises codify these requirements, conformal and embedded antennas that can hot-switch among satellite, cellular, and line-of-sight modes are attracting procurement priority through 2029.
LEO Tactical ISR Surge Transforms Intelligence Gathering
US Space Force requests 120 imaging satellites by 2028, targeting sub-one-minute revisit rates, necessitating ground terminals that process Ku-band downlinks while operating from mobile vehicles. China’s Guowang blueprint for 12,992 spacecraft embeds synthetic-aperture radar and laser-cross-links that require precision-pointing phased arrays and optical apertures on uncrewed aerial vehicles. Field commanders now demand antennas that auto-align to moving satellites within 5 seconds, replacing heavy motorized dishes with slim electronically steered panels. This tactical-ISR boom accelerates orders for lightweight, carbon-fiber skins hosting hundreds of gallium-nitride (GaN) elements, reinforcing a positive uplift on overall CAGR.
Restraints Impact Analysis
| Restraint | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| ITAR-linked export bottlenecks | −0.8% | US allies worldwide | Long term (≥ 4 years) |
| GaN semiconductor supply risk | −1.2% | Global, acute for AESA programs | Medium term (2-4 years) |
| Platform electromagnetic congestion | −0.6% | Advanced military platforms globally | Short term (≤ 2 years) |
| Budget re-prioritization post-2030 | −0.9% | NATO countries, developed defense markets | Long term (≥ 4 years) |
| Source: Mordor Intelligence | |||
ITAR Export Controls Constrain Global Market Access
Updated US Munitions List rules now cover wideband phased-array sub-components, obliging suppliers to secure multiple export licenses per design iteration.[3] US Government Accountability Office, “Export Controls,” gao.gov Smaller OEMs cite six-to-nine-month delays for approvals, elongating cash cycles, and deterring joint development with European partners. Russia’s workaround via parallel imports underscores how excessive controls can redirect demand to non-aligned suppliers, eroding the US share in emerging regions. Because coalition interoperability remains a priority, lower-tier militaries often postpone antenna upgrades rather than navigate complex compliance, trimming the growth potential of the military antenna market in export-dependent segments.
GaN Semiconductor Supply Chain Vulnerabilities Threaten Production
China mines 98% of the world’s gallium feedstock, and its 2024 export license regime triggered spot-price spikes of 42%, inflating AESA transmitter costs by up to 7%. The ban directly endangers 11,000 US systems, including F-35 radars, that rely on GaN power amplifiers. DARPA’s USD 31.3 million ultrawide-bandgap initiative with Raytheon aims to transition diamond-based transistors by 2027, yet volume yields remain uncertain. Until alternative substrates mature, production schedules for next-gen wideband antennas face a medium-term bottleneck, subtracting 1.2 percentage points from forecast CAGR.
Segment Analysis
By Platform: Space Systems Propel Next-Generation Capabilities
Ground vehicles and fixed installations retained 36.32% of 2024 revenues as armies fielded vehicle-mounted SATCOM-on-the-Move arrays that double throughput versus legacy whip antennas. The military antenna market size for ground assets will continue to climb steadily on the back of brigade-level networking programs through mid-decade. In contrast, space platforms are charting a 10.97% CAGR as the Space Development Agency funds 1,000-satellite LEO layers that require thousands of planar phased arrays for cross-link and downlink tasks.
The proliferation of small-sat buses opens opportunities for lightweight Ka-band horn arrays, micro-strip patch clusters, and laser-com terminals. Airborne fleets are integrating AESA pods that raise surveillance range by 70% while adding compatibility with Link-16 and future Link-22 waveforms. Naval adopters favor circular shipboard antennas that interrogate targets in 50 microseconds, enhancing IFF cycles in congested littorals. Space systems’ share of the military antenna market will keep widening as resilient multi-orbit constellations underpin joint-force communications.
Note: Segment shares of all individual segments available upon report purchase
By Frequency Band: Higher Frequencies Enable Advanced Capabilities
Ultra-high frequency (UHF) gear delivered 30.56% revenue in 2024, underpinned by the Mobile User Objective System sustainment that guarantees fleetwide push-to-talk beyond 2035. Yet customers now migrate toward super-high frequencies, pursuing greater than 75 Mbps data rates and anti-jam performance, which explains the 9.54% CAGR forecast for SHF portfolios.
Ka-band terminals that auto-track LEO, MEO, and GEO orbits exemplify this pivot, demanding dielectric-lens arrays and multi-beam feeds to cut swap-out time under field conditions. High-frequency (HF) and very-high-frequency (VHF) solutions remain integral for long-range skywave messaging and electronic warfare (EW) cueing. Extremely high-frequency millimeter-wave channels support synthetic aperture imaging and airborne fire-control radars, underscoring the frequency-band diversification that keeps the military antenna market competitive across mission sets.
By Technology: Microstrip Antennas Accelerate Integration Trends
Array architectures captured 33.23% of 2024 billings, anchored by Northrop Grumman’s USD 1.7 billion APG-83 AESA program, which slots seamlessly into F-16 nose bays without structural rework. The modular nature of tile-based arrays fosters rapid scalability across fighter, frigate, and UAV classes.
Microstrip patches, however, are registering an 8.39% CAGR as they satisfy stealth, weight, and cost constraints for unmanned platforms and soldier-worn radios. Production runs now laminate copper or graphene traces onto flexible polyimide, yielding bend-radius tolerances below 20 mm and insertion-loss cuts of 15%. Wire, reflector, and lens antennas continue to serve legacy HF, ground radar, and multi-beam SATCOM roles, ensuring a diversified technology mix within the military antenna industry.
By Application: Command-and-Control Data-Link Systems Drive Innovation
Communications systems represented 41.56% of 2024 spending as navies and armies standardized on MIDS-JTRS terminals that add Link-16 voice and data in one chassis. Command-and-control (C2) data links are rising at 7.49% CAGR, fed by battlefield digital twin initiatives that require low-latency video and sensor fusion. The military antenna market size for data-link hardware is projected to exceed USD 1.8 billion by 2030 as cross-domain kill-chain concepts mature.
Navigation, reconnaissance, electronic-warfare, and signals-intelligence applications collectively create pull for frequency-hopping patches, dual-polarized spiral antennas, and ultra-wideband log-periodic arrays. Each subsystem emphasizes software reconfigurability to adapt to spectrum-sharing rules and adversary counter-measures, reinforcing R&D on fast-tuning phase shifters and MEMS switches.
Note: Segment shares of all individual segments available upon report purchase
By Component: Advanced Materials Enable Performance Breakthroughs
Radiating elements accounted for 39.45% of the military antenna market share in 2024, reflecting their pivotal role in boosting gain, bandwidth, and power efficiency through gallium-nitride semiconductors and metamaterial surfaces. This slice of the military antenna market size continues to grow as spectrum-sharing demonstrations prove the value of electronically tunable elements that maintain link margin in congested electromagnetic environments. Feed networks and coax assemblies benefit from additive manufacturing that lowers insertion loss by up to 15% while raising peak power handling, a key requirement for high-power shipboard and airborne radars. RF/microwave switches and phase shifters unlock real-time beam steering and frequency agility fundamental to software-defined apertures; DARPA’s USD 31.3 million ultrawide-bandgap program using synthetic diamond and aluminum nitride underscores the strategic importance of these subsystems. Other components—advanced cooling, structural supports, and integration kits—round out the architecture, ensuring compatibility across vehicular, maritime, airborne, and space platforms.
Radomes represent the fastest-growing component category, advancing at a 7.27% CAGR between 2025 and 2030. Fiber-reinforced polymer composites deliver lighter weight, improved impact resistance, and stable dielectric properties over extreme temperature swings. Laboratory work shows silica-fiber-enhanced composites holding dielectric constant and loss tangents within 2% of nominal values after prolonged humidity and thermal cycling, a performance level that safeguards antenna efficiency in expeditionary settings. The rise of conformal, platform-specific radomes further reduces drag on aircraft and signature on vehicles, while embedded anti-icing layers cut maintenance downtime. These trends confirm a broad military push toward materials and manufacturing innovations that extend service life, lower total ownership cost, and keep electromagnetic performance intact across the full operational envelope.
Geography Analysis
North America accounted for 46.34% of 2024 revenues as the United States lifted its defense allocation to USD 997 billion and prioritized resilient satellite communications across the Joint All-Domain Command and Control (JADC2) framework. Pentagon programs such as DEUCSI and the USD 10 billion Proliferated Warfighter Space Architecture secure a multi-orbit backbone that demands tens of thousands of phased-array terminals. Canada’s NORAD modernization funnels USD 38 billion over 20 years into X-band over-the-horizon radars. At the same time, Mexico’s digital-border surveillance buys amplify demand for VHF and UHF sensors, though at smaller volumes.
Asia-Pacific shows the fastest 6.55% CAGR amid intensifying maritime disputes and ballistic-missile build-ups. China allocated USD 314 billion to defense in 2025, including LEO communications, Ku-band SAR payloads, and anti-ship radar networks.[4]Anadolu Agency, “Defense Spending on the Rise in East Asia,” aa.com.tr Japan’s 21% budget surge finances long-range hypersonic interceptors and E-scan fighter radars, while Taiwan’s USD 16.5 billion plan centers on F-16 AESA retrofits and indigenous drones. India’s roadmap earmarks USD 415.9 billion through 2029 for Tejas Mk 1A deliveries and integrated battle groups, lifting local production of conformal V/UHF blades. Australia’s AUD 50 billion (USD 32.50 billion) uplift adds beyond-line-of-sight terminals on Hunter-class frigates, advancing regional procurement momentum.
Europe registered USD 693 billion in 2024 outlays, spiking 17% yearly as the Ukraine war sharpened electronic-warfare priorities. The European Union’s EUR 150 billion (USD 174.57 billion) Readiness 2030 finance plan underwrites multi-band AESA retrofits across fighter and surface vessels. Germany placed orders for 20 Eurofighter jets carrying Mk 1 HENSOLDT radars, while the United Kingdom awarded GBP 870 million (USD 1.16 billion) to BAE for Typhoon ECRS Mk2 arrays. Middle-East spending hit USD 243 billion, spurred by Saudi Arabia’s USD 80.3 billion allocation and Israel’s 65% rise to USD 46.5 billion, catalyzing procurements of Ka-band SATCOM and counter-UAS antennas. Africa remains niche, but rising peace-support missions buy compact HF whip systems, revealing incremental opportunities inside the broader military antenna market.
Competitive Landscape
The market structure is moderately consolidated: the top five vendors control an estimated 62% of global revenue, reflecting deep-capital barriers and multi-year platform certifications. L3Harris widened its lead by winning a USD 999 million Navy MIDS-JTRS contract and a USD 587 million Next-Generation Jammer low-band award.[5] Nasdaq, “L3Harris Wins Next Generation Jammer Contract,” nasdaq.com Northrop Grumman capitalized on export-friendly APG-83 configurations, earning USD 1.7 billion across F-16 users.
Strategic M&A is accelerating. Motorola Solutions agreed to acquire Silvus Technologies for USD 4.4 billion to integrate MANET radios with its public-safety portfolio. Honeywell’s USD 1.9 billion purchase of CAES augments RF microelectronics depth, while Qorvo bought Anokiwave to capture beam-forming ASIC expertise. Thales absorbed Cobham Aerospace Communications to bolster L-band cockpit terminals and SATCOM modems.
Competitive differentiation revolves around software-defined networking, GaN power modules, and artificial-intelligence-enabled beam management. L3Harris and Amazon Kuiper partnered to blend commercial and military satellite services, an early indicator of hybrid business models. Start-ups from academia are fielding woven helical antennas that spool from a pocket-size canister, a concept that could disrupt expeditionary deployments if adopted at scale. As next-generation programs emphasize cost-per-bit, vendors equipped with integrated design-to-manufacture toolchains and diversified semiconductor sources will likely expand their share within the military antenna market.
Military Antenna Industry Leaders
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RTX Corporation
-
Lockheed Martin Corporation
-
BAE Systems plc
-
Rohde & Schwarz GmbH & Co. KG
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L3Harris Technologies, Inc.
- *Disclaimer: Major Players sorted in no particular order
Recent Industry Developments
- July 2025: MTI Wireless Edge secured contracts valued at approximately USD 1.6 million from three defense companies—one local and two international. The contracts include the following military antenna technologies: airborne communication antennas, anti-jamming GPS antennas, and beam-forming antennas for UAV and drone management systems.
- September 2024: The US Air Force Research Laboratory awarded Northrop Grumman a USD 54.7 million contract to develop satellite communications antennas for military aircraft, the Department of Defense (DoD).
- September 2024: Viasat, Inc. received a USD 33.6 million contract from the US Air Force Research Laboratory (AFRL) under the Defense Experimentation Using Commercial Space Internet (DEUCSI) program. The contract focuses on developing and delivering Active Electronically Scanned Array (AESA) systems to enhance satellite communications capabilities for tactical aircraft, including rotary wing platforms.
- August 2024: The US Air Force Research Laboratory awarded RTX Corporation a USD 51.7 million contract to develop satellite communications antennas for military aircraft.
Global Military Antenna Market Report Scope
| Airborne |
| Ground (Vehicle and Man-portable) |
| Naval |
| Space |
| High Frequency (HF) |
| Very High Frequency (VHF) |
| Ultra High Frequency (UHF) |
| Super High Frequency (SHF) |
| Extremely High Frequency (EHF) |
| Wire Antennas |
| Aperture Antennas |
| Array Antennas |
| Reflector Antennas |
| Lens Antennas |
| Microstrip Antennas |
| Communications |
| Navigation and Guidance |
| Surveillance and Reconnaissance |
| Electronic Warfare (EW) and SIGINT |
| Command and Control (C2) Data-Link |
| Radiating Elements |
| Feed Networks and Coax Assemblies |
| RF/Microwave Switches and Phase Shifters |
| Radomes |
| Other Components |
| North America | United States | |
| Canada | ||
| Mexico | ||
| Europe | United Kingdom | |
| France | ||
| Germany | ||
| Italy | ||
| Russia | ||
| Rest of Europe | ||
| Asia-Pacific | China | |
| India | ||
| Japan | ||
| South Korea | ||
| Australia | ||
| Rest of Asia-Pacific | ||
| South America | Brazil | |
| Rest of South America | ||
| Middle East and Africa | Middle East | Saudi Arabia |
| Israel | ||
| Turkey | ||
| Rest of Middle East | ||
| Africa | Egypt | |
| South Africa | ||
| Rest of Africa | ||
| By Platform | Airborne | ||
| Ground (Vehicle and Man-portable) | |||
| Naval | |||
| Space | |||
| By Frequency Band | High Frequency (HF) | ||
| Very High Frequency (VHF) | |||
| Ultra High Frequency (UHF) | |||
| Super High Frequency (SHF) | |||
| Extremely High Frequency (EHF) | |||
| By Technology | Wire Antennas | ||
| Aperture Antennas | |||
| Array Antennas | |||
| Reflector Antennas | |||
| Lens Antennas | |||
| Microstrip Antennas | |||
| By Application | Communications | ||
| Navigation and Guidance | |||
| Surveillance and Reconnaissance | |||
| Electronic Warfare (EW) and SIGINT | |||
| Command and Control (C2) Data-Link | |||
| By Component | Radiating Elements | ||
| Feed Networks and Coax Assemblies | |||
| RF/Microwave Switches and Phase Shifters | |||
| Radomes | |||
| Other Components | |||
| By Geography | North America | United States | |
| Canada | |||
| Mexico | |||
| Europe | United Kingdom | ||
| France | |||
| Germany | |||
| Italy | |||
| Russia | |||
| Rest of Europe | |||
| Asia-Pacific | China | ||
| India | |||
| Japan | |||
| South Korea | |||
| Australia | |||
| Rest of Asia-Pacific | |||
| South America | Brazil | ||
| Rest of South America | |||
| Middle East and Africa | Middle East | Saudi Arabia | |
| Israel | |||
| Turkey | |||
| Rest of Middle East | |||
| Africa | Egypt | ||
| South Africa | |||
| Rest of Africa | |||
Key Questions Answered in the Report
How big is the military antenna market in 2025 and what is its growth outlook to 2030?
The market stands at USD 4.56 billion in 2025 and is projected to reach USD 6.15 billion by 2030, reflecting a 6.17% CAGR.
Which component currently generates the most revenue?
Radiating elements lead with 39.45% of 2024 revenue, driven by GaN-based power amplifiers and metamaterial designs.
Which component is growing fastest through 2030?
Radomes are forecasted to post the strongest growth, registering a 7.27% CAGR on the back of fiber-reinforced composites.
What platform segment is expanding most quickly?
Space-based systems show the highest platform growth at a 10.97% CAGR thanks to proliferated LEO constellations.
Why are super-high-frequency antennas gaining adoption?
Militaries need higher bandwidth and anti-jam resilience for data-rich applications, propelling SHF solutions at a 9.54% CAGR.
How could gallium supply risk disrupt production?
China supplies 98% of raw gallium, and export restrictions could inflate costs and delay AESA deliveries until alternative substrates mature.
What does a market-concentration score of 6 indicate?
About 62% of revenue is held by the top five companies, signaling moderate consolidation that still leaves room for niche entrants.
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