Naval Radar Systems Market Size, Share & Industry Analysis, By Radar System Type, By Radar Dimension, By Antenna & Scanning Architecture, By Frequency Band, By Semiconductor Technology, By Radar Technology, By Naval Platform, By Surveillance Range, By Installation Type, By End User, and Regional Forecast, 2026-2034

The global naval radar systems market size was valued at USD 5.49 billion in 2025. The market is projected to grow from USD 5.73 billion in 2026 to USD 9.18 billion by 2034, exhibiting a CAGR of 6.07% during the forecast period.

The market covers shipborne radar solutions used for air and surface surveillance, target detection and tracking, fire control, missile guidance, threat classification, and maritime situational awareness. The market is progressively shifting from mechanically scanned systems toward multifunction AESA and digitally controlled radars capable of simultaneously tracking aircraft, missiles, UAVs, and surface threats.

The global market growth is primarily driven by naval fleet modernization, increasing procurement of frigates/destroyers/corvettes, rising anti-ship and cruise-missile threats, proliferation of UAVs, increase defense budgets, and growing requirements for integrated air and missile defense. Demand is also supported by upgrades to existing vessels, as navies seek longer detection ranges, faster reaction times, improved electronic-counter-countermeasure capability, and scalable radar architectures capable of addressing evolving hypersonic and low-observable threats.

Major market participants include RTX Corporation (Raytheon), Thales S.A., Saab AB, Leonardo S.p.A., and HENSOLDT AG. Across the competitive landscape, key players are emphasizing GaN/AESA technology, modular and scalable radar families, software-defined capability upgrades, digital beamforming, integration with combat-management and weapon systems, and common architectures across multiple vessel classes

Naval Radar Systems Market Trends

Software-Defined, GaN, Digital and Multi-Band Radars are Becoming Standard Architecture for Future Naval Fleets

The strongest technology trend is the move from hardware-defined sensors toward software-defined multifunction radars whose missions and operating modes can be changed through software rather than major hardware replacement. Raytheon is developing next-generation naval radar software for the U.S. Office of Naval Research that allows individual radar building blocks to operate independently and perform multiple functions simultaneously, including improved spectrum sharing. Saab similarly describes Sea Giraffe 1X as software-defined and continuously upgradeable, while SPY-6 combines GaN transmit/receive technology with digital beamforming. These technologies allow fleets to react faster when new UAV, missile or electronic-warfare threats appear.

The next stage is sensor convergence and networked radar operation. Leonardo's naval portfolio includes fully digital AESA systems and dual-band KRONOS configurations, while Thales has developed architectures combining S-band and X-band sensors with dynamic task allocation and advanced fire-control functions. AI-assisted processing, distributed sensor networks, open combat-system interfaces and rapid DevSecOps updates will increasingly move radar value from physical antenna hardware toward software and data processing. Industry consolidation is reinforcing this transition, HENSOLDT has completed the integration of ESG Group and is positioning itself increasingly as a sensor, software and system-integration company rather than only an equipment supplier.

For instance, in June 2026, Raytheon reported that its naval software factory reduced software development and deployment time from roughly six months to about 30 days, supporting a shift from annual toward quarterly planned software updates for U.S. Navy ships.

Market Dynamics

MARKET DRIVERS

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Fleet Modernization and Increasingly Complex Missile/UAS Threats are Accelerating Demand for Multifunction AESA Naval Radars

Navies are replacing legacy mechanically scanned radars with AESA, GaN-based and multifunction radar systems because modern warships must detect aircraft, sea-skimming cruise missiles, ballistic missiles, hypersonic weapons, UAVs and surface targets at the same time. The U.S. Navy’s AN/SPY-6 illustrates this shift: its GaN technology, digital beamforming and scalable Radar Modular Assemblies provide higher sensitivity and faster search-and-track performance than older radar architectures.

Rising investment in destroyers, frigates, corvettes and integrated air-and-missile-defense ships is therefore directly expanding radar demand. The U.S. FY2026 defense budget request, included funding for 19 ships and significant investment in advanced sensors, missile defense and hypersonic capabilities. OEM investments also show that this demand is moving from development into large-scale production. Raytheon has invested more than USD 800 million in radar manufacturing and expects to double SPY-6 output by 2028, while Thales and the Netherlands Ministry of Defence agreed in June 2026 to expand radar production, PCB manufacturing and test infrastructure in Hengelo.

For instance, in July 2026, Raytheon received a USD 1.8 billion U.S. Navy SPY-6 production and sustainment contract extension, with options taking cumulative contract value to USD 3.3 billion; SPY-6 is expected to equip more than 50 U.S. Navy ships over the next decade.

MARKET RESTRAINTS

High Integration Cost, Shipboard Power/Cooling Limits and Lengthy Qualification Cycles Restrict Rapid Radar Replacement

Advanced naval radars cannot normally be installed as simple standalone replacements because their antennas, processors, cooling equipment, power supply and combat-system interfaces must be engineered around the ship. The U.S. Navy’s Flight III DDG-51 design required changes to electrical power and cooling systems specifically to accommodate SPY-6, demonstrating the ship-level engineering burden associated with higher-power AESA radars.

Space, weight, power and cooling constraints become even more difficult on older frigates and destroyers, where modernization must compete with electronic warfare systems, communications equipment, directed-energy weapons and other new payloads. This increases installation cost, shipyard time and qualification requirements and can make radar upgrades economically difficult for smaller fleets.

MARKET OPPORTUNITIES

Retrofit Programs, Export Fleets, and Scalable Radar Families are Opening a Large Installed-Base Modernization Opportunity

A major future opportunity lies in upgrading existing destroyers, frigates, corvettes and other surface combatants rather than relying only on new-build ships. Modern modular radars make this increasingly practical because manufacturers can adjust the number, configuration and size of radar arrays for different vessel classes. The U.S. Navy, for example, is moving SPY-6 beyond new Flight III destroyers through the SPY-6(V)4 backfit program for existing Flight IIA destroyers. Similar opportunities exist across NATO, Asia-Pacific and Middle Eastern fleets as operators modernize ships originally designed around older mechanically scanned or early-generation phased-array sensors.

Export and international shipbuilding programs provide another strong growth route. Saab's Sea Giraffe family demonstrates how common radar technology can address large frigates, smaller vessels and even autonomous platforms, while Raytheon's 2026 SPY-6 integration contract includes Germany and allows additional countries to be incorporated through U.S. Foreign Military Sales. Local integration, technology partnerships and domestic production will become increasingly important because governments want sovereign maintenance capacity and secure supply chains. Thales' Dutch production expansion further indicates that radar suppliers are preparing for higher European and government-to-government demand.

For instance, in July 2026, Saab received an approximately USD 927.3 million order from TKMS to equip four new German Navy MEKO A-200 DEU frigates with systems including Sea Giraffe 4A Fixed Face and Sea Giraffe 1X radars, with an option covering additional frigates.

MARKET CHALLENGES

Radars Must Detect Faster, Smaller, and Coordinated Threats While Remaining Effective Under Electronic and Cyber Attack

The fundamental technical challenge is that the threat is advancing almost as quickly as radar technology. Naval sensors must increasingly identify low-radar-cross-section UAVs, sea-skimming missiles, maneuvering ballistic targets, hypersonic weapons and coordinated saturation raids while distinguishing them from sea clutter, civilian traffic and deliberate electronic interference. The U.S. Office of Naval Research specifically identifies the need to counter complex raids involving hypersonic and cruise missiles and is developing advanced radar track filters, fire-control technologies and new waveforms.

Electronic warfare adds another layer of difficulty because future radars must continue to search, track and support weapons while adversaries jam, deceive or attempt to locate radar emissions. Cybersecurity and system validation are becoming equally important because modern radars are essentially high-performance networked computing systems. U.S. testing of SPY-6 has highlighted the importance of evaluating performance in electromagnetically contested environments and establishing representative cyber-survivability testing.

SEGMENTATION ANALYSIS

By Radar System Type

Rising Long-Range Missile Threats to Accelerate Adoption of Long-Range Air & Missile-Defense/Early-Warning Radar Segment

By radar system type, the global market is classified into multifunction air & surface surveillance radar, long-range air & missile-defense/early-warning radar, surface search & navigation radar, fire-control & target-tracking radar, missile illumination & guidance radar, periscope/small-target detection radar, carrier/flight-deck/air-traffic-control radar, coastal/naval-base surveillance radar, and others.

The long-range air & missile-defense / early-warning radar sub-segment is estimated to grow with a highest CAGR of 7.82% during the forecast period of 2026-2034. Growth is being driven by increasing naval requirements to detect ballistic missiles, cruise missiles, hypersonic weapons, high-altitude aircraft, and long-range UAVs before they enter engagement zones. Modern destroyers and air-defense frigates are therefore being equipped with high-power multifunction phased-array radars capable of providing early warning and fire-control-quality tracking.

The multifunction air & surface surveillance radar sub-segment accounted for the largest market share of 25.15% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 7.43% during the forecast period.

By Radar Dimension

Demand for Higher-Precision Multi-Target Tracking to Drive 4D/Precision Multifunction Radar Growth

By radar dimension, the global market is classified into 2D radar, 3D radar, and 4D/precision multifunction radar.

The 4D/precision multifunction radar sub-segment is estimated to grow with a highest CAGR of 6.93% during the forecast period of 2026-2034. In addition, this sub-segment accounted for the largest market share of 40.85% in 2025. The growth is driven by as navies increasingly require accurate information on target range, bearing, altitude, and velocity simultaneously. These systems offer stronger capability against fast-moving missiles, UAV swarms, low-flying aircraft, and maneuvering surface targets compared with conventional 2D or 3D systems. Their ability to combine surveillance, tracking, classification, and weapon-support functions also reduces the need for multiple separate sensors.

The 3D radar sub-segment accounted for the second-largest market share of 36.73% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 5.86% during the forecast period.

By Antenna & Scanning Architecture

Continuous 360-Degree Coverage and Faster Reaction Times to Propel Fixed-Face Active Electronically Scanned Array (AESA) Radar Adoption

By antenna & scanning architecture, the global market is classified into mechanically scanned radar, passive electronically scanned array (PESA), rotating active electronically scanned array (AESA), fixed-face active electronically scanned array (AESA), hybrid mechanical-electronic scanning radar, and conformal / distributed array radar.

The fixed-face Active Electronically Scanned Array (AESA) sub-segment is estimated to grow with a highest CAGR of 7.97% during the forecast period of 2026-2034.  In addition, this sub-segment accounted for the largest market share of 30.83% in year 2025. Fixed AESA arrays eliminate mechanical rotation and enable simultaneous surveillance in multiple directions, allowing warships to react more quickly to missile raids, aircraft, and UAV threats approaching from different bearings. Their electronic beam steering improves track-update rates, reliability, and resistance to electronic countermeasures. Increasing deployment on advanced destroyers and frigates is therefore shifting the naval radar market toward four-face and distributed fixed-array architectures.

The rotating Active Electronically Scanned Array (AESA) sub-segment accounted for the second-largest market share of 22.61% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 7.21% during the forecast period.

By Frequency Band

Long-Range Surveillance and Missile-Defense Requirements Strengthen Demand for S-Band Naval Radar

By frequency band, the global market is classified into L-band, S-band, C-band, X-band, Ku-band, and dual-band/multi-band.

The S-band sub-segment is estimated to grow with a highest CAGR of 7.14% during the forecast period of 2026-2034. In addition, this sub-segment accounted for the largest market share of 28.99% in year 2025. S-band frequencies provide a strong balance between long-range detection, weather penetration, target discrimination, and tracking accuracy, making them particularly suitable for naval air surveillance and missile-defense missions. Their use is expanding within multifunction AESA systems designed to detect aircraft, cruise missiles, ballistic threats, and UAVs at extended ranges. Increasing deployment of integrated air-defense frigates and destroyers is therefore supporting sustained S-band radar procurement.

The X-band sub-segment accounted for the second-largest market share of 27.09% in year 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.00% during the forecast period.

By Semiconductor Technology

Higher Power Efficiency and Detection Performance Accelerate Solid-State GaN Radar Deployment

By semiconductor technology, the global market is classified into magnetron-based radar, high-power vacuum-electronics radar, solid-state GaAs radar, solid-state GaN radar, and hybrid/legacy solid-state radar.

The solid-state GaN radar sub-segment is estimated to grow with a highest CAGR of 7.38% during the forecast period of 2026-2034. In addition, this sub-segment accounted for the largest market share of 32.34% in 2025. Gallium nitride technology enables radar transmit/receive modules to operate at higher power and efficiency while generating less heat than many earlier semiconductor technologies. This improves radar detection range, sensitivity, reliability, and the ability to track smaller or lower-radar-cross-section targets. As naval forces move toward high-power AESA systems, GaN is increasingly becoming a preferred technology for next-generation multifunction and missile-defense radars.

The solid-state GaAs radar sub-segment accounted for the second-largest market share of 27.98% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.62% during the forecast period.

By Radar Technology

Automated Threat Recognition and Faster Decision-Making Drive AI/ML-Assisted Target Detection & Classification

By radar technology, the global market is classified into pulse-doppler radar, digital pulse-compression radar, digital beamforming radar, software-defined radar, low probability of intercept (LPI) radar, FMCW radar, AI/ML-assisted target detection & classification, passive / multistatic radar, and others.

The AI/ML-assisted target detection & classification sub-segment is estimated to grow with a highest CAGR of 10.10% during the forecast period of 2026-2034. The highest growth rate across the radar-technology category. Navies are facing increasingly dense operational environments involving UAV swarms, missiles, aircraft, vessels, decoys, and electronic interference, creating demand for automated processing of large radar-data volumes. AI-enabled algorithms can improve target classification, reduce false alarms, identify unusual behavior, and help prioritize the most dangerous threats.

The digital beamforming radar sub-segment accounted for the largest market share of 24.88% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 7.43% during the forecast period.

By Naval Platform

Expansion of Autonomous Naval Operations Accelerates Radar Demand on Unmanned Surface Platforms

By naval platform, the global market is classified into large surface combatants, medium surface combatants, small surface combatants, patrol & maritime-security vessels, submarines, amphibious & support ships, and unmanned surface platforms.

The unmanned surface platforms sub-segment is estimated to grow with a highest CAGR of 8.25% during the forecast period of 2026-2034. Navies are increasingly deploying unmanned surface vessels for intelligence, surveillance and reconnaissance, maritime security, mine countermeasures, distributed sensing, and persistent patrol missions. These platforms require compact, lightweight, low-power radars that can operate autonomously and share target information with manned warships and command centers.

The large surface combatants sub-segment accounted for the largest market share of 28.72% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.33% during the forecast period.

By Surveillance Range

Growing Stand-Off Engagement Requirements to Boost Very Long/Extended-Range Radar Adoption

By surveillance range, the global market is classified into short range — below 50 km, medium range—50–150 km, long range—150–300 km, and very long/extended range-above 300 km.

The very long/extended range-above 300 km sub-segment is estimated to grow with a highest CAGR of 7.26% during the forecast period of 2026-2034. Modern naval warfare increasingly requires threats to be detected as far from the fleet as possible so commanders have sufficient time to classify, track, and engage incoming missiles or aircraft. Extended-range radars also support cooperative engagement and networked air-defense operations by providing early target information to other ships, aircraft, and missile-defense assets. Rising concern over ballistic missiles, hypersonic weapons, and long-range anti-ship missiles is therefore strengthening demand for higher-power radar systems with surveillance ranges above 300 km.

The long range — 150–300 km sub-segment accounted for the largest market share of 28.82% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.46% during the forecast period.

By Installation Type

Rapid Capability Enhancement Without Full Hardware Replacement Drives Software & Processing Upgrade Segment Growth

By installation type, the global market is classified into new-build/line-fit, mid-life modernization/retrofit, radar replacement/obsolescence upgrade, and software & processing upgrade.

The software & processing upgrade sub-segment estimated to grow with a highest CAGR of 7.18% during the forecast period of 2026-2034. Naval operators are increasingly extending the service life and capability of existing radar systems through new processors, signal-processing algorithms, threat libraries, cybersecurity improvements, and software-defined operating modes. Software upgrades allow navies to respond to new missiles, UAVs, electronic-warfare threats, and operating requirements without replacing the complete radar installation. This approach reduces modernization cost and shipyard downtime while enabling more frequent capability improvements throughout the vessel lifecycle.

The new-build / line-fit sub-segment accounted for the largest market share of 42.57% in 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.42% during the forecast period.

By End User

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Expanding Maritime Surveillance and Border-Security Missions Accelerate Coast Guard Radar Procurement

By end user, the global market is classified into navy, coast guard, marine/amphibious forces, naval base & coastal defense commands, and maritime border/security agencies.

The coast guard sub-segment is estimated grow with a highest CAGR of 6.46% during the forecast period of 2026-2034. Coast guards are expanding maritime-domain-awareness capabilities to address illegal fishing, smuggling, piracy, unauthorized vessel movements, maritime-border violations, and protection of exclusive economic zones. This is increasing demand for surface-search, navigation, coastal-surveillance, and small-target-detection radars across offshore patrol vessels and other maritime-security platforms. Growing procurement of modern patrol fleets, combined with stronger requirements for persistent surveillance of territorial waters, is therefore supporting faster radar adoption among coast guard organizations.

The navy sub-segment accounted for the largest market share of 71.43% in year 2025. In addition, the sub-segment is projected to grow at a CAGR of 6.24% during the forecast period.

Naval Radar Systems Market Regional Outlook

By region, the market is categorized into Europe, North America, Asia Pacific, and the rest of world.

North America

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North America held the dominant share in 2025, valued at USD 1.95 billion, and also maintained the leading share in 2026, with USD 2.02 billion. The U.S. Navy’s fleet-wide transition to AN/SPY-6 AESA radars across new and existing destroyers and other surface combatants is increasing radar procurement because the Navy requires simultaneous detection of ballistic missiles, hypersonic weapons, cruise missiles, aircraft, and surface threats. Canada’s Canadian Surface Combatant recapitalization and broader modernization of maritime surveillance capabilities are also creating demand for next-generation shipborne sensors and integrated combat systems.

U.S. Naval Radar Systems Market

Based on North America's strong contribution and the U.S. dominance within the region, the U.S. market reached USD 1.84 billion in 2025 and is estimated to have a CAGR of 4.82% during the forecast period.

Europe

Europe is projected to grow with a highest CAGR of 7.22% during the forecast period. In 2025, the market value stood at USD 1.45 billion. The renewal of European frigate and destroyer fleets in response to high-intensity warfare and increasingly sophisticated missile threats is driving adoption of fixed-face AESA and multifunction radars. France is installing the four-panel Sea Fire AESA radar on its FDI frigates, while the U.K., Germany, and other European navies are progressing new frigate and combat-system programs, resulting in sustained demand for surveillance, fire-control, and air-defense radar systems.

U.K. Naval Radar Systems Market

The U.K. market was valued at USD 0.34 billion in 2025 and is estimated to grow at a rate of 4.81% during the forecast period.

Germany Naval Radar Systems Market

The German market was valued at USD 0.26 billion in 2025 and is estimated to grow at a rate of 9.92% during the forecast period.

Rest of Europe Naval Radar Systems Market

The rest of Europe market was valued at USD 0.23 billion in 2025 and is estimated to grow at a rate of 5.79% during the forecast period.

Asia Pacific

Asia Pacific’s market was valued at USD 1.68 billion in 2025 and secures the position of the second-largest region in the market. The region is increasing naval radar acquisition because China-related maritime competition, ballistic/hypersonic missile threats, and expanding blue-water naval operations are pushing countries toward stronger fleet air and missile defense. Japan is building two Aegis System Equipped Vessels for advanced ballistic-missile threats, while Australia is introducing CEAFAR active phased-array technology on its surface fleet and progressing Hunter-class frigates, directly expanding demand for advanced naval AESA radar architectures.

China Naval Radar Systems Market

The Chinese market was valued at USD 0.39 billion in 2025 and is estimated to grow at a rate of 5.00% during the forecast period.

India Naval Radar Systems Market

The Indian market was valued at USD 0.05 billion in 2025 and is estimated to grow at a rate of 4.17% during the forecast period.

Japan Naval Radar Systems Market

The Japanese market was valued at USD 0.04 billion in 2025 and is estimated to grow at a rate of 6.24% during the forecast period.

Rest of World

The rest of world consist of Latin America and Middle East & Africa. These regions are expected to witness moderate growth in this market during the forecast period. The Middle East & Africa market was valued at USD 0.28 billion in 2025. Regional navies are strengthening radar capability because missile, UAV, asymmetric maritime, and coastal-security threats require faster detection and engagement of multiple targets near strategically important sea lanes. Turkey has introduced indigenous CENK-400N AESA, AKREP fire-control, and ALPER LPI radars aboard the TCG İstanbul and is extending these systems across new national frigates, while the UAE is expanding domestic corvette and OPV construction, creating additional opportunities for integrated naval sensors and combat systems.

The Latin America market was valued at USD 0.12 billion in 2025. Growth is primarily linked to replacement of ageing frigates and the requirement to protect large exclusive economic zones, offshore energy resources, fisheries, and maritime trade routes. Brazil’s four-ship Tamandaré-class frigate program is introducing the TRS-4D AESA multifunction radar to improve air/surface surveillance and weapon designation, while similar modernization of Chilean Type 23 frigates demonstrates wider regional movement from legacy radars toward modern AESA systems.

COMPETITIVE LANDSCAPE

Key Industry Players

Technology-Led Modernization, Integrated Combat Systems, and Production Expansion Intensify Competition in Market

The global naval radar systems market is becoming increasingly technology-driven, as leading defense electronics suppliers compete around AESA architectures, GaN transmit/receive modules, digital beamforming, fixed-face arrays, multi-band operation, and software-defined radar functions. Major OEMs are moving away from standalone surveillance radars toward multifunction sensor families that combine air and surface surveillance, missile detection, target tracking, fire-control support, and electronic-warfare awareness within common architectures. Recent programs such as SPY-6, Sea Giraffe 4A, TRS-4D, NS200/SMART-L, KRONOS and SPY-7 demonstrate the broader industry shift toward scalable radar families that can be installed across frigates, destroyers, corvettes and retrofit platforms. Software is also becoming a stronger competitive differentiator, as suppliers develop rapidly upgradeable architectures that can introduce new threat libraries, signal-processing algorithms and multi-mission functions without replacing the complete radar hardware.

Competitive positioning is also shifting toward production scale, localization, system integration and long-term lifecycle support, rather than radar performance alone. Radar manufacturers are expanding manufacturing and test infrastructure because naval modernization programs are moving into higher-volume production. At the same time, consolidation and integration of software, electronic warfare and mission-system capabilities are enabling companies to compete for a larger portion of the vessel electronics value chain, while modular product families and local production partnerships are improving access to export and government-to-government procurement programs.

LIST OF KEY NAVAL RADAR SYSTEMS MARKET COMPANIES PROFILED IN REPORT

• Lockheed Martin Corporation (U.S.)
• Northrop Grumman Corporation (U.S.)
• RTX Corporation — Raytheon (U.S.)
• Leonardo S.p.A. (Italy)
• Thales S.A. (France)
• Saab AB (Sweden)
• HENSOLDT AG (Germany)
• BAE Systems plc (U.K.)
• Indra Sistemas, S.A. (Spain)
• Terma A/S (Denmark)
• Israel Aerospace Industries Ltd. — ELTA Systems Ltd. (Israel)
• Bharat Electronics Limited (BEL) (India)
• ASELSAN A.S. (Turkey)
• Hanwha Systems Co., Ltd. (South Korea)
• Mitsubishi Electric Corporation (Japan)

KEY INDUSTRY DEVELOPMENTS

• March 2026: The U.S. Naval Supply Systems Command awarded Frontgrade Technologies Inc. a USD 11.44 million contract for 23 common frequency generators supporting the AN/SPQ-9B shipborne radar, strengthening the sustainment and availability of the Navy’s X-band anti-ship missile defense radar capability.
• February 2026: Lockheed Martin placed its first production purchase order with Fujitsu Limited for the Power Supply Line Replaceable Unit used in the AN/SPY-7(V)1 radar Subarray Suite for Japan’s Aegis System Equipped Vessels; the contract value was not publicly disclosed. The agreement moves Japan toward domestic production and sustainment of critical SPY-7 radar hardware.
• March 2025: U.S. Naval Sea Systems Command awarded Lockheed Martin Rotary and Mission Systems a USD 34.00 million contract modification, funded through Canadian FMS, to modify the AN/SPY-7(V)3 development site, install radar-processing/support equipment and conduct installation and checkout of the engineering-development-model array for Canada.
• February 2025: Damen Naval contracted Saab to provide the combat-system package for Colombia’s new PES frigate, including Sea Giraffe 4A surveillance radars, Ceros 200 fire-control radar/director, 9LV CMS and 9LV fire-control system; the contract value was not publicly disclosed. The program supports Colombia’s transition toward a modern multifunction-radar-equipped surface combatant.
• December 2024: Sweden’s FMV awarded Saab an approximately USD 35.93 million order to deliver Sea Giraffe 1X naval radars in different configurations for Swedish Navy surface vessels and training, with deliveries scheduled during 2024–2026. The software-defined radar provides simultaneous air and surface detection, tracking and classification, including against UAVs.

REPORT COVERAGE

The global naval radar systems market growth analysis includes a comprehensive study of the market size & forecast by all the market segments included in the report. It contains details on the market dynamics and naval radar systems market trends expected to drive the market over the forecast period. It provides information on key aspects, including an overview of technological advancements, pipeline candidates, the regulatory environment, and product launches. Additionally, it details partnerships, mergers & acquisitions, as well as key naval industry developments and prevalence by key regions. The global market research report also provides a detailed competitive landscape with information on the market share and profiles of key major players.

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Report Scope & Segmentation

Research Methodology

1. Bottom Up Approaches

Approach 1: Revenues and Market Share of Major Naval Radar System Players

• Collection of naval-radar-specific revenues from annual reports, defense segment disclosures, investor presentations, contract announcements, government procurement databases, and company product portfolios.
• Analysis of major suppliers such as RTX (Raytheon), Thales, Saab, Leonardo, HENSOLDT, Lockheed Martin, Indra, Mitsubishi Electric, ELTA Systems, and BAE Systems, among others.
• Identification of revenues attributable specifically to shipborne surveillance radar, multifunction radar, fire-control radar, missile-defense radar, navigation radar, radar upgrades, and associated sustainment.
• Estimation of company market shares based on radar contract values, installed base, naval programs served, deliveries, geographic presence, and disclosed defense-electronics revenues.
• Adjustment for undisclosed contracts and privately held suppliers using known naval programs, vessel quantities, radar configurations, delivery schedules, and comparable system values.
• Aggregation of company-level naval radar revenues and addition of the unorganized/smaller supplier portion to estimate the global market size.

Approach 2: Naval Platform and Radar Installation Build-Up Analysis

• Identification of annual and planned deliveries of destroyers, frigates, corvettes, patrol vessels, amphibious ships, aircraft carriers, submarines, support vessels, and unmanned surface vessels.
• Mapping of radar systems installed on major vessel classes, including SPY-6, SPY-7, Sea Giraffe, TRS-4D, NS100/NS200, SMART-L, Sea Fire, KRONOS, CEAFAR, EL/M-series, and other naval radars.
• Estimation of the number of radars installed per vessel based on surveillance, fire-control, navigation, missile-defense, and secondary radar requirements.
• Application of estimated system ASPs according to radar type, AESA/PESA architecture, frequency band, array configuration, detection range, and vessel class.
• Addition of integration, software, processors, cabinets, antennas, installation, testing, spares, and initial support where these form part of radar-system procurement.
• Summation across vessel programs and countries to derive regional and subsequently global naval radar demand.

Approach 3: Installed Fleet, Retrofit and Radar Replacement Model

• Assessment of the global active naval fleet by country, vessel class, vessel age, commissioning year, radar configuration, and modernization status.
• Identification of ships approaching mid-life modernization, combat-system upgrades, radar replacement, or obsolescence-management cycles.
• Application of radar replacement and modernization rates according to typical naval vessel service lives and scheduled refit programs.
• Estimation of retrofit expenditure covering AESA upgrades, new radar arrays, digital receivers, processors, signal-processing software, GaN modules, combat-system interfaces, and electronic-warfare compatibility.
• Addition of software and processing upgrades implemented without complete radar replacement.
• Combination of new-build + retrofit + replacement + software upgrade demand to estimate total annual naval radar market value.

2. Top Down Approaches

Approach 1: Naval Procurement and Defense Budget Allocation Analysis

• Collection of national defense and naval procurement expenditure from major naval markets including the U.S., China, UK, France, Germany, Italy, Japan, South Korea, India, Australia, Canada, Saudi Arabia, UAE, Brazil, and others.
• Identification of expenditure allocated to surface combatants, naval modernization, integrated air and missile defense, maritime surveillance, sensors, combat systems, and ship electronics.
• Estimation of the proportion of vessel procurement and modernization expenditure attributable to radar and associated sensor systems.
• Further segregation into surveillance radar, fire-control radar, missile-defense radar, navigation radar, and other shipborne radar systems.
• Country-level estimates are aggregated by region and compared against disclosed naval radar contracts and vessel procurement programs.
• Regional totals are summed to estimate the Global Naval Radar Systems Market.

Approach 2: Parent Market and Addressable Radar Market Analysis

• Assessment of broader markets such as military radar systems, naval combat systems, naval sensors, military electronics, and naval vessel procurement.
• Identification of the proportion attributable specifically to naval/shipborne radar systems.
• Further allocation based on vessel installed base, naval procurement spending, sensor content per vessel, radar replacement cycles, and fleet-modernization activity.
• Validation through major radar programs, including multifunction AESA, air-and-missile-defense radar, surface-search radar, fire-control radar, and navigation radar deployments.
• Comparison of the resulting top-down estimate with company-revenue, vessel-build, installed-base, and contract-based bottom-up models.
• Final market size is established after country-level, company-level, platform-level, and program-level triangulation.

3. List of Key Sources

• Defense ministries and naval organizations: U.S. Department of Defense, U.S. Navy/NAVSEA, UK Ministry of Defence, French DGA, German BAAINBw, Indian Ministry of Defence, Japan MOD/ATLA, Australian Department of Defence, NATO, and other national naval authorities.
• Government budget and procurement documents: defense budget requests, acquisition plans, parliamentary documents, FMS notifications, contract-award databases, shipbuilding plans, and fleet-modernization documents.
• OEM disclosures: annual reports, investor presentations, product portfolios, contract announcements, order backlogs, manufacturing updates, and technology-development releases from major naval radar suppliers.
• Naval and defense publications: Congressional Research Service, U.S. GAO, NATO publications, naval institute publications, government technical papers, and defense research organizations.
• Shipbuilders and combat-system integrators: Naval Group, Fincantieri, BAE Systems, TKMS, Navantia, Huntington Ingalls Industries, General Dynamics Bath Iron Works, Damen Naval, and other naval shipyards.
• Program-level information: ship quantities, commissioning schedules, radar configurations, modernization schedules, system deliveries, retrofit programs, and disclosed contract values.

4. Primary Interviews

Supply Side Interviews: 60%

• Radar OEM executives
• Business development managers
• Naval systems product managers
• Radar-system engineers
• Combat-system integrators
• Shipyard procurement executives
• RF/GaN component suppliers
• Antenna and electronics manufacturers
• Naval aftermarket and MRO providers
• Defense sales and strategy professionals.

Demand Side Interviews: 40%

• Navy procurement officials
• Coast guard representatives
• Naval engineering personnel
• Fleet modernization specialists
• Naval architects
• Defense procurement consultants
• Ship combat-system operators
• Government research organizations
• Maritime-security agencies