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Aerospace Semiconductor Market, Opportunity, Growth Drivers, Industry Trend Analysis and Forecast, 2025-2034

Published Jul 17, 2025
Length 221 Pages
SKU # GMI20284257

Description

The Global Aerospace Semiconductor Market was valued at USD 8.4 billion in 2024 and is estimated to grow at a CAGR of 8.4% to reach USD 18.7 billion by 2034.

The market growth is driven by rising demand for satellite communications, growing adoption of IoT in aerospace, and the electrification of aircraft systems. These semiconductors are crucial in enhancing the performance, reliability, and power efficiency of critical aerospace subsystems, including avionics, propulsion, communication, and navigation. With aerospace platforms becoming increasingly digitized and automated, semiconductors are playing a transformative role in enabling intelligent functionalities such as real-time diagnostics, autonomous navigation, system redundancy, and predictive maintenance. These features are essential for enhancing flight safety, reducing operational downtime, and optimizing maintenance schedules.

In particular, the integration of artificial intelligence and machine learning capabilities into semiconductor hardware enables smarter avionics and adaptive control systems. Wide-bandgap materials like Gallium Nitride (GaN) and Silicon Carbide (SiC) are revolutionizing power electronics by delivering high-voltage, high-efficiency performance in compact form factors. These components are increasingly replacing bulky mechanical and hydraulic systems in both military and commercial aircraft, supporting the shift toward More Electric Aircraft (MEA) designs that offer weight reduction, increased energy efficiency, and improved system reliability under extreme aerospace conditions.

The discrete semiconductor devices segment generated USD 2.7 billion in 2024, making it the largest revenue contributor by type. This segment comprises components such as diodes, transistors, and thyristors, which are critical for power regulation, signal conditioning, and high-speed switching functions within aerospace systems. Their widespread use in electric flight systems, including power distribution units, battery management systems, and electric propulsion modules, underscores their essential role in the aerospace industry. The adoption of high-power discrete devices is particularly prevalent in hybrid-electric and fully electric aircraft, where performance, thermal efficiency, and fault tolerance are paramount.

In terms of application, avionics systems & flight control segment generated USD 2.7 billion in 2024. This segment is driven by the growing complexity of flight management systems, which require high-speed data processing, low-latency communication, and robust fail-safe mechanisms. High-performance microcontrollers, analog ICs, and field-programmable gate arrays (FPGAs) are being embedded into mission-critical avionics to enhance navigation accuracy, system responsiveness, and operational safety. As the aviation industry continues to embrace autonomous, optionally piloted, and unmanned aerial systems, the demand for intelligent semiconductor solutions that support fault-tolerant architectures, sensor fusion, and real-time data analytics is accelerating rapidly.

The commercial aircraft segment generated USD 3.8 billion in 2024, emerging as the leading end-use sector. This dominance is attributed to the surging demand for next-generation commercial jets equipped with advanced avionics, inflight connectivity, and sustainable propulsion systems. Airlines are increasingly retrofitting older aircraft with upgraded semiconductor-based electronics to improve fuel efficiency, reduce emissions, and enhance passenger experience through connected cabin systems. From flight control and cabin lighting to infotainment and power management, semiconductors are at the heart of modern commercial aircraft operations.

North America Aerospace Semiconductor Market held 43% share in 2024, driven by robust defense expenditure, a highly developed aerospace infrastructure, and the presence of several key market players such as RTX Corporation, Honeywell Aerospace, and ON Semiconductor. The region benefits from a robust ecosystem of OEMs, Tier-1 suppliers, and government-backed R&D initiatives focused on advancing semiconductor capabilities for defense, space, and civil aviation. Ongoing modernization programs in military aircraft, increasing investments in satellite and space technologies, and the expansion of electric aircraft testing programs are all contributing to the region’s sustained market leadership.

Major companies operating in the market include ON Semiconductor, RTX Corporation, Honeywell Aerospace, Analog Devices, STMicroelectronics, Infineon Technologies, and Microchip Technology. These firms are actively investing in radiation-hardened chips, AI-integrated architectures, and miniaturized sensor ICs to meet evolving aerospace demands. Strategic collaborations, trusted foundries, and localization initiatives are reshaping global supply chains to enhance traceability and resilience in defense-grade semiconductor sourcing.

Table of Contents

221 Pages
Chapter 1: Methodology
1.1. Research Design
1.1.1. Research approach
1.1.2. Data collection methods
1.1.3. Base estimates and calculations
1.1.4. Base year calculation
1.1.5. Key trends for market estimates
1.2. Forecast model
1.3. Primary research & validation
1.4. Some of the primary sources (but not limited to):
1.4.1. Inputs from primary interviews:
1.5. Data Mining Sources
1.5.1. Secondary Sources
1.5.1.1. Paid Sources
1.5.1.2. Public Sources
1.6. Sources, by region
Chapter 2: Executive Summary
2.1. Industry snapshot
2.2. Business trends
2.3. Type trends
2.4. Technology trends
2.5. Application trends
2.6. End Use trends
2.7. Regional trends
Chapter 3: Industry Insights
3.1. Industry snapshot
3.1.1. Raw Material Suppliers
3.1.2. Semiconductor Fabrication Plants
3.1.3. Component Manufacturers
3.1.4. System Integrators
3.1.5. End user
3.1.6. Factor Affecting the Value Chain
3.1.7. Disruptions
3.1.8. Future Outlook
3.1.9. Manufacturers
3.1.10. Distributors
3.2. Supplier Landscape
3.3. Profit margin analysis
3.4. Key News and Initiatives
3.5. Regulatory landscape
3.5.1. International
3.5.1.1. AS9100
3.5.1.2. DO-254
3.5.1.3. MIL-STD-883
3.5.1.4. DO-160
3.5.1.5. ITAR (International Traffic in Arms Regulations)
3.5.1.6. ECSS (European Cooperation for Space Standardization)
3.5.1.7. SAE AS5553
3.5.2. North America
3.5.2.1. Industries of the Future Act of 2020, U.S.
3.5.2.2. UL 61010-1: Safety Requirements for Electrical Equipment for Measurement, Control, and Laboratory Use _ 55
3.5.2.3. OSHA (Occupational Safety and Health Administration)
3.5.2.4. National Institute of Standards and Technology (NIST)
3.5.2.5. ASTM F2070
3.5.3. Europe
3.5.3.1. The Restriction of Hazardous Substances Directive 2002/95/EC
3.5.3.2. EU REACH
3.5.3.3. CE
3.5.3.4. EMVA 1288
3.5.4. Asia Pacific
3.5.4.1. Japan Electronics and Information Technology Industries Association (JEITA)
3.5.4.2. KC Certification, South Korea
3.5.4.3. CCC Certification, China
3.5.5. Middle East & Africa
3.5.5.1. GSO IEC 60751:2015
3.5.5.2. GSO IEC 60747-14-3:2014
3.5.5.3. GSO IEC 62496-2-4:2017
3.5.6. Latin America
3.5.6.1. Normas Regulamentadoras (NR13), Brazil
3.5.6.2. NOM-001-SEDE, Mexico
3.6. Impact forces
3.6.1. Growth drivers
3.6.1.1. Increased power efficiency in aerospace semiconductor applications
3.6.1.2. Rising demand for satellite communication
3.6.1.3. Increased adoption of IoT in aerospace
3.6.1.4. Growth in electric and hybrid aircraft
3.6.1.5. Advancements in AI for avionics systems
3.6.2. Pitfalls & challenges
3.6.2.1. Long design cycles delaying new technology adoption
3.6.2.2. High sensitivity to economic downturns and budgets
3.7. Growth Potential
3.8. Porter’s Analysis
3.9. PESTEL Analysis
Chapter 4: Competitive Landscape, 2024
4.1. Competitive Landscape
4.2. Company market share analysis, 2024
4.3. Competitive analysis of the key market players
4.4. Strategic Initiative
4.4.1. Texas Instruments
4.4.2. Analog Devices (ADI)
4.4.3. Microchip Technology
4.4.4. STMicroelectronics
4.4.5. Infineon Technologies
4.4.6. ON Semiconductor
4.4.7. Teledyne Technologies Inc.
4.5. Competitive Positioning Matrix
4.6. Strategic Outlook Matrix
Chapter 5: Aerospace Semiconductor Market, By Type
5.1. Key Trends
5.2. Discrete devices
5.3. Optical devices
5.4. Microwave devices
5.5. Sensors
5.6. ICs (Integrated Circuits)
5.7. Hybrid ICs
Chapter 6: Aerospace Semiconductor Market, By Technology
6.1. Key Trends
6.2. Surface-Mount Technology (SMT)
6.3. Through-Hole Technology (THT)
Chapter 7: Aerospace Semiconductors Market, By Application
7.1. Key Trends
7.2. Avionics systems & flight control
7.3. Communication & connectivity solutions
7.4. Power distribution & management
7.5. Navigation & sensing technologies
7.6. Safety & emergency systems
7.7. Aircraft entertainment systems
Chapter 8: Aerospace Semiconductor Market, By End Use
8.1. Key Trends
8.2. Commercial aircraft
8.3. Military aircraft
8.4. Satellite launch vehicle
8.5. Others
Chapter 9: Aerospace semiconductor Market, By Region
9.1. Key Trends
9.2. North America
9.3. Europe
9.4. Asia Pacific
9.5. Latin America
9.6. Middle East & Africa (MEA)
Chapter 10: Company Profiles
10.1. Advanced Micro Devices Inc.
10.1.1. Financial Data
10.1.2. Product Landscape
10.1.3. Strategic Outlook
10.1.4. SWOT Analysis
10.2. Analog Devices (ADI)
10.2.1. Financial Data
10.2.2. Product Landscape
10.2.3. Strategic Outlook
10.2.4. SWOT Analysis
10.3. Broadcom Inc.
10.3.1. Financial Data
10.3.2. Product Landscape
10.3.3. Strategy Outlook
10.3.4. SWOT Analysis
10.4. Crane Aerospace & Electronics
10.4.1. Financial Data
10.4.2. Product Landscape
10.4.3. Strategy Outlook
10.4.4. SWOT Analysis
10.5. Honeywell Aerospace
10.5.1. Financial Data
10.5.1. Product Landscape
10.5.2. Strategic Outlook
10.5.3. SWOT Analysis
10.6. Infineon Technologies
10.6.1. Financial Data
10.6.2. Product Landscape
10.6.3. Strategic Outlook
10.6.4. SWOT Analysis
10.7. MACOM Technology Solutions, Inc.
10.7.1. Financial Data
10.7.2. Product Landscape
10.7.3. Strategic Outlook
10.7.4. SWOT Analysis
10.8. Mercury Systems, Inc.
10.8.1. Financial Data
10.8.2. Product Landscape
10.8.3. Strategic Outlook
10.8.4. SWOT Analysis
10.9. Microchip Technology
10.9.1. Financial Data
10.9.2. Product Landscape
10.9.3. SWOT Analysis
10.10. Northrop Grumman Corporation
10.10.1. Financial Data
10.10.2. Product Landscape
10.10.3. Strategic Outlook
10.10.4. SWOT Analysis
10.11. NXP Semiconductors
10.11.1. Financial Data
10.11.2. Product Landscape
10.11.3. Strategic Outlook
10.11.4. SWOT Analysis
10.12. ON Semiconductor
10.12.1. Financial Data
10.12.2. Product Landscape
10.12.3. SWOT Analysis
10.13. Renesas Electronics
10.13.1. Financial Data
10.13.2. Product Landscape
10.13.3. Strategic Outlook
10.13.4. SWOT Analysis
10.14. RTX Corporation
10.14.1. Financial Data
10.14.2. Product Landscape
10.14.3. Strategic Outlook
10.14.4. SWOT Analysis
10.15. Skyworks Solutions Inc.
10.15.1. Financial Data
10.15.2. Product Landscape
10.15.3. Strategic Outlook
10.15.4. SWOT Analysis
10.16. STMicroelectronics
10.16.1. Financial Data
10.16.2. Product Landscape
10.16.3. SWOT Analysis
10.17. Teledyne Technologies Inc.
10.17.1. Financial Data
10.17.2. Product Landscape
10.17.3. Strategic Outlook
10.17.4. SWOT Analysis
10.18. Texas Instruments (TI)
10.18.1. Financial Data
10.18.2. Product Landscape
10.18.3. Strategic Outlook
10.18.4. SWOT Analysis
10.19. TT Electronics
10.19.1. Financial Data
10.19.2. Product Landscape
10.19.3. SWOT Analysis
10.20. Vishay Intertechnology, Inc.
10.20.1. Financial Data
10.20.2. Product Landscape
10.20.3. SWOT Analysis
Chapter 11: Appendix
11.1. Market Definitions
11.2. Related Studies
11.3. Research practices

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