Avionics Market

The avionics market is worth USD 52,480.0 million in 2025 and reaches USD 98,353.3 million by 2035, compounding at 6.48% a year. The figure is built bottom-up: roughly 38,600 avionics shipsets delivered globally in 2025 across new-build commercial, business, general-aviation, rotorcraft and military aircraft plus retrofit programs, at an average value of USD 1.36 million per shipset, triangulated against aircraft delivery data, retrofit program disclosures and supplier revenues. Shipset volume grows 4.6% a year on production ramps and retrofit mandates, while value per shipset rises 1.8% a year as integrated flight decks, resilient navigation and connectivity deepen.

What is the core judgment on the avionics market?

Avionics has two stories this decade, and the second is more urgent than the first. The first is volume: commercial aircraft backlogs stretch beyond a decade of production, yet airframers have struggled to raise output, the FAA capped Boeing’s 737 production after the January 2024 door-plug incident, supply chains stayed fragile, so avionics suppliers sell into a demand wall that production cannot climb fast enough. The second is resilience: satellite navigation interference has turned from theoretical threat into daily operational reality, with GNSS jamming and spoofing affecting thousands of flights a day across the Baltic, Eastern Mediterranean and Middle East since 2023, prompting safety bulletins from European and American regulators and forcing airlines, avionics makers and standard-setters into an accelerated program of spoofing detection, multi-constellation receivers and alternative navigation. Together they define the market’s shape: steady new-build demand bounded by production realities, and a retrofit and upgrade wave driven by navigation integrity, connectivity, surveillance mandates and the ageing of glass cockpits installed two decades ago. Value migrates toward integrated flight-deck platforms, software-defined radios and resilient positioning, where certification barriers protect incumbents. This report models the market shipset by shipset, and the exclusive chapter maintains the GNSS-interference resilience and retrofit-mandate tracker the whole industry now watches.

What counts as avionics?

Avionics covers the electronic systems aboard aircraft: flight-deck displays and integrated cockpits, flight management and flight control electronics, communications, navigation and surveillance systems, weather radar and terrain awareness, health monitoring, and cabin and mission electronics, valued at supplier realised prices for new-build line-fit and retrofit programs. Ground systems, air-traffic-control infrastructure and in-flight-entertainment content sit outside the boundary, which the methodology defines precisely. The category sits within our aircraft systems and components coverage.

Why did navigation integrity become the priority?

Because the satellite signal every modern aircraft trusts turned out to be easy to disrupt. Satellite navigation underpins area navigation, approaches, terrain warning and surveillance, and conflict-zone electronic warfare has spilled into civil airspace: jamming degrades position, spoofing falsifies it, sometimes corrupting aircraft clocks and terrain alerts long after the aircraft leaves the affected area. Incident reports climbed sharply from 2023, European safety agencies and the FAA issued bulletins and guidance, and industry bodies convened to fix procedures and equipment. The engineering response creates avionics demand: receivers that detect and reject spoofing, multi-frequency multi-constellation navigation, stronger inertial integration, and retained or restored ground-based navigation as a backup layer. Certification cycles mean the upgrade arrives over years, not months, and the model carries it explicitly, retrofit and line-fit uptake of resilient navigation by fleet and region, while the exclusive chapter tracks incident geography and regulatory milestones.

What fills the avionics bay?

The first driver is the commercial production ramp: narrowbody and widebody output keeps climbing against record backlogs, and every new aircraft carries a complete avionics suite; the model links line-fit volume to airframer build rates by program with explicit slippage risk.

The second driver is retrofit and modernisation: aging glass cockpits, surveillance mandates, datalink requirements and resilient-navigation upgrades drive retrofit programs across airline, business and military fleets, a volume engine partly independent of new production.

The third driver is defense modernisation: fighter, transport and rotorcraft programs, plus mission-system upgrades, grow with allied budgets and carry the highest value per shipset.

The fourth is connectivity and data: satellite connectivity, health monitoring and predictive maintenance turn avionics into data platforms, raising value per shipset and creating recurring service revenue.

What holds avionics back?

Three restraints are modelled. Production constraints lead: airframers have repeatedly missed build-rate targets on supply-chain and quality problems, and avionics line-fit demand inherits every slip; the downside scenario applies a prolonged production cap. Certification cost and duration are second: every new system or change carries lengthy, expensive certification, slowing innovation and upgrades. Third is component supply: semiconductor obsolescence and constrained electronics supply force redesigns and lengthen lead times, a cost the pricing chapter tracks.

Which systems carry the value?

Flight deck and displays lead with 30% of 2025 revenue, USD 15,744.0 million, integrated cockpits being the largest single package. Communications, navigation and surveillance hold 26%, USD 13,644.8 million, and grow fastest on resilient-navigation and datalink upgrades. Flight control and management electronics take 24%, USD 12,595.2 million, and health monitoring, cabin and mission systems contribute 20%, USD 10,496.0 million. Each category is modelled from shipset volume and content, with revenue tables through 2035.

Where are aircraft equipped?

North America leads with 44% of 2025 revenue, USD 23,091.2 million, on airframe, business-jet and defense production, growing 6.0% a year. Europe holds 27%, USD 14,169.6 million, at 6.2% on Airbus production and European defense spending, and Asia Pacific 20%, USD 10,496.0 million, compounding fastest at 7.6% on fleet growth, Chinese programs and regional MRO. The Middle East contributes USD 2,624.0 million at 7.4%, Latin America USD 1,574.4 million, and Africa USD 524.8 million. Six regional models sum to the global figure, with country tables in the Excel model.

Who supplies the cockpit?

Honeywell Aerospace anchors the industry with integrated flight decks, navigation and connectivity across commercial, business and defense aircraft. Collins Aerospace, part of RTX, carries the broadest avionics portfolio from flight decks to communications, Thales holds the European position across flight management, navigation and in-flight systems, Garmin dominates general aviation and has pushed into business and light-jet flight decks, and Safran brings navigation, inertial and flight-control electronics. Around them sit L3Harris, Chinese domestic suppliers and specialist navigation and connectivity firms. The competitive chapter profiles each supplier’s platform wins, certification depth, retrofit franchise and resilience offerings, because in avionics the program selection locks in a decade.

How are avionics priced?

Average value runs USD 1.36 million per shipset in 2025 across a wide span: general-aviation suites in the tens of thousands, business-jet flight decks in the low millions, commercial narrowbody and widebody suites higher, and military mission avionics at the top. Line-fit contracts run program-life with escalation clauses, retrofit is priced per aircraft or per fleet, and software and data services increasingly add recurring revenue. The pricing chapter publishes shipset value bands by aircraft class and region, retrofit program economics and the cost of resilient-navigation upgrades.

How do the scenarios navigate 2035?

The base case carries 4.6% shipset growth and 1.8% value growth for a 6.48% revenue CAGR and USD 98,353.3 million in 2035. The production-slip scenario, with build-rate caps persisting and retrofit budgets tightening, trims the legs to 3.0% and 1.0%, landing near USD 77,900 million. The upcycle scenario, with production recovering on schedule and resilience retrofits compounding, lifts the legs to 5.6% and 2.4%, carrying the market past USD 114,700 million. Each 1-point change in shipset growth moves the 2035 figure by roughly USD 9,200 million. Published avionics forecasts span roughly 5% to 8% CAGRs; ours sits centrally, and the report states which production assumptions separate the ends.

Which regulations govern avionics?

Three regulatory layers shape the market. Certification first: airworthiness authorities certify every system under design-assurance standards for hardware and software, and certification timelines and costs set the pace of change. Airspace modernisation second: surveillance, datalink and performance-based navigation mandates under NextGen, SESAR and national programs force equipage upgrades on fixed dates. Navigation resilience third: safety bulletins and guidance on GNSS interference, together with evolving standards for spoofing-resilient receivers and alternative navigation, are creating the decade’s most consequential new equipage requirements. The regulatory chapter maps these layers by region with dates, because avionics demand follows the mandate calendar.

How does the avionics retrofit business work?

The retrofit business works through mandates, obsolescence and airline economics, and it gives avionics suppliers revenue that does not depend on new aircraft production. When regulators require new equipment, such as surveillance transponders, datalink communications or improved navigation, every affected aircraft in the fleet must be upgraded by a deadline, creating a wave of retrofit orders. When electronic components become obsolete and spares run short, operators replace older displays, flight management computers or radios with modern equivalents. And when new equipment saves fuel, reduces maintenance or enables better routes, airlines and business-jet owners upgrade voluntarily. Retrofit work is carried out under supplemental type certificates or service bulletins, often by maintenance providers working with the original equipment supplier, and each aircraft type needs its own certified installation. The large fleets of narrowbody aircraft and business jets built in the 2000s and early 2010s now sit in the prime window for flight-deck and navigation upgrades, and GNSS-interference resilience adds a new reason to act. In the model, retrofit shipsets account for roughly a quarter of total volume, rise around mandate deadlines, and hold up when new-aircraft production slips, providing a stabilising layer under the market.

What is changing inside the flight deck?

The flight deck is moving from separate boxes toward integrated, software-defined platforms with large touchscreen displays. Older aircraft used dedicated instruments and computers for each function, while modern designs use integrated modular avionics, where shared computing hardware runs many applications, and large-format displays that pilots can configure. Touchscreens, synthetic and enhanced vision that show terrain and runways in poor visibility, electronic checklists and connected electronic flight bags reduce workload and improve safety. For suppliers, this raises software content per aircraft and increases the importance of certification expertise, because every software change on a safety-critical platform must be assured to demanding standards. It also creates recurring revenue from database updates, software upgrades and new features. Business aviation has adopted these technologies fastest, and commercial aircraft follow through new programmes and major upgrades. The model carries integrated flight decks as a driver of value per shipset and expects touchscreen and synthetic-vision features to spread from business jets to regional and commercial aircraft over the forecast.

How do connectivity and data create recurring revenue?

Connectivity and data create recurring revenue by turning avionics from one-time hardware sales into ongoing services. Aircraft now send large volumes of performance and maintenance data to ground systems through satellite and cellular links, and airlines use that data to predict component failures, plan maintenance and reduce fuel burn. Avionics suppliers sell the connectivity hardware, the data platforms and the analytics, often under multi-year subscriptions. Cockpit connectivity also enables real-time weather, flight-plan updates and electronic communication with air-traffic control, which improve efficiency. This report counts hardware and associated software at the time of installation in the market value, and treats subsequent service subscriptions as an adjacent revenue stream, but connectivity content is one of the reasons value per shipset keeps rising, and it makes suppliers with strong data platforms more attractive to airlines choosing new systems.

Why is certification the industry’s strongest barrier?

Certification is the strongest barrier because it makes avionics slow, expensive and risky to develop, which protects established suppliers. Every piece of avionics hardware and software must be designed and verified to aviation assurance standards appropriate to how critical it is, with extensive documentation and testing, and each installation on an aircraft type must be approved by regulators. A new flight management system or display suite can take years and large engineering budgets before it earns revenue, and suppliers with existing certified products, test infrastructure and regulatory relationships have a major advantage. This is why the avionics supply base has changed little over decades apart from consolidation, and why new entrants usually start in general aviation, where certification is lighter, before moving up. The same barrier slows adoption of new technologies such as resilient navigation, because even urgent upgrades must pass certification, which the model reflects in gradual retrofit uptake rather than sudden jumps.

What does winning a new aircraft programme mean for a supplier?

Winning a new aircraft programme means decades of revenue, which is why avionics competitions are fought so hard. When an airframer selects a flight-deck, navigation or communications supplier for a new aircraft, that supplier usually provides the system for every aircraft built over a production run that can last twenty to thirty years, plus spares, repairs and upgrades for the life of each aircraft, which can add another quarter-century. Suppliers therefore invest heavily in development, sometimes sharing costs with the airframer, and accept tough pricing in exchange for the long revenue tail. The last major commercial programme selections were made years ago, and the next generation of narrowbody aircraft is not expected before the 2030s, so current competition focuses on business jets, military platforms, eVTOL and regional aircraft, and on upgrade packages for existing programmes. The model reflects this by holding supplier shares on established programmes stable and allowing share shifts mainly through new platforms and retrofit competitions.

Douglas Exclusive: the GNSS-interference resilience and retrofit-mandate tracker

The market’s most important new driver is navigation integrity, so this report tracks it. The exclusive chapter maps interference incidents by region and severity, regulatory bulletins and emerging requirements, resilient-navigation product certifications and airline uptake, and the full calendar of surveillance, datalink and navigation mandates with the fleets they touch. It converts the calendar into retrofit shipsets and revenue by year. Licence holders receive it as a maintained tab in the Excel model, updated each edition as incidents, standards and mandates evolve.

Methodology and receipts

The model is built bottom-up from shipsets: aircraft deliveries by class and program, retrofit programs by fleet, and avionics content per shipset from supplier disclosures and program evidence, with the boundary against ground systems stated precisely. Every figure carries a numbered source and a confidence grade in the fact sheet above, and the working model ships with every licence. The full method follows the published Douglas Insights methodology. The next scheduled review of this study is September 2027, with material changes published in the edition change log.