Radiation-Hardened Electronics Market Size & Share Analysis - Trends, Drivers, Competitive Landscape, and Forecasts (2024 - 2030)

Radiation-Hardened Electronics Market Size

Radiation-Hardened Electronics Market Growth Drivers & Opportunities

Growing Application Area with Extensive R&D Is Key Trend

• The biggest trend in the market is the rising usage of these components in critical applications where safety is highly prized.
• This drives their usage in the aerospace and defense sector, where components must suffer intense electromagnetic forces and radiation.
• In the same way, in nuclear power plants, rad-hard electronics enable efficient monitoring and control of the system, protecting everything and everyone from damage due to radiation leakage.
• Hence, to leverage the widening application, high investments are being poured into R&D to create new designs, use new materials, and advance the fabrication process.
• Moreover, intelligence, surveillance, and reconnaissance (ISR) methodologies and systems continue to advance, especially with the integration of AI and other technologies.
• This raises the demand for electronic components that exhibit higher reliability under excess loads and complex scenarios, while guarding against excess radiation exposure.

Expanding Demand for Satellites Drives Market

• The biggest driver for the radiation-hardened electronics market is the expanding demand for satellites.
• In December 2023, more than 9,600 satellites were in orbiting the earth, with many more launches scheduled for the coming years.
• For instance, the SpaceX-owned Starlink already has over 6,000 LEO satellites in orbit, and it plans to deploy a total of 12,000, with possibilities of further increasing this number to 34,400.
• Europa Clipper, Artemis II, VIPER, PRIME-1, Lunar Trailblazer, Martian Moon eXploration, and Hera are some of the most-prominent space missions planned for 2024.
• While in space, manned/unmanned craft and satellites are at a high risk of total ionizing dose (TID) and single-event effects (SEE) due to radiation, which can damage equipment.
• Therefore, electronic components capable of withstanding such environments are needed, which essentially propels the usage of rad-hard electronics.

Reconfigurable Radiation‐Hardened Devices Offer Opportunities

• The increasing demand for reconfigurable radiation‐hardened devices creates a market opportunity for the players.
• These devices allow satellite users to modify their scope of operation while in orbit, thus majorly reducing the reconfiguration cost.
• Major companies operating in the vertical are participating in the development of new software-defined radiation-hardened electronic components.
• For instance, in April 2022, Microchip Technology Inc. announced the launch of new commercial off-the-shelf (COTS) RT SuperFlash devices for defense and aerospace applications.
• They feature Microchip memory technology’s 50-kilorad total ionizing dose tolerance in a 64-Mbit serial quad I/O NOR flash memory device.

Radiation-Hardened Electronics Market Analysis

Component Analysis

The power management ICs category holds the largest radiation‐hardened electronics market revenue share, of around 30%, in 2024, due to the rising demand for metal oxide silicon transistors and diodes for various high-end applications in the aerospace, military, and medical sectors.

The FPGA category will witness the highest CAGR, of 4.5%, over the forecast period. This is attributed to the high demand for radiation tolerance, flexibility, and customizability of the electronic components used in the aerospace and defense industries. Additionally, the rising popularity of reconfigurable components in these applications drives this category.

The following components have been analyzed:

• Mixed-Signal ICs
• Processors & Controllers
• Power Management ICs (Largest Category)
• Memory
• Sensors
• Field-Programmable Gate Arrays (Fastest-Growing Category)
• Application-Specific ICs
• Others

Product Type Analysis

The larger market share, of 65%, is held by the COTS category in 2024, which is also expected to be the faster-growing during this decade, with 4.0% CAGR. This is attributed to the high bandwidth of COTS devices. Moreover, the emerging private spaceflight industry is primarily driven by commercial design approaches, open-system architectures, and COTS electronic technologies. Furthermore, in the healthcare industry, companies are acquiring COTS products instead of designing customized solutions, which is driving the market.

The segment is bifurcated as follows:

• Commercial Off-the-Shelf (Larger and Faster-Growing Category)
• Customized

Manufacturing Technique Analysis

The RHBD category holds the largest share in the market, of 55%, as this method brings together several concepts, including component configuration and layout solution. This technique allows for the reconfiguration of circuit operations to prevent cell failure during missions and aids in improving reliability in harsh environments. Moreover, the majority of the radioactive material applications are witnessing the integration of electronic components made via the RHBD technique. For instance, in January 2022, BAE Systems plc was awarded a USD 60-million contract for the supply of next-generation RHBD microelectronics, by using the commercial foundry services of Intel, for the U.S. defense and aerospace community.

The RHBS category has the highest CAGR, in this decade. This is because of this technique is cost-effective over traditional ones, which are based on modifications to the hardware. The usage of this method is primarily driven by the growing demand for adaptability and affordability while designing advanced electronic components for space and other critical applications.

We have covered the below-mentioned manufacturing techniques:

• Radiation-Hardening by Design (Largest Category)
• Radiation-Hardening by Process
• Radiation-Hardening by Software (Fastest-Growing Category)

Application Analysis

The space category is projected to garner the fastest growth during the forecast period. This will mainly be because of the increasing global ISR operations, which is impelling market players to offer more-robust and -reliable electronic components for spacecraft.

Additionally, owing to the growing number of internet users globally, the burgeoning data volume is crowding the satellite spectrum, thus driving the radiation‐hardened electronics market demand. For instance, over 5 billion people used the internet globally in 2021. Moreover, expanded connectivity usage, through high-altitude platform stations (HAPS), non-geostationary orbit (NGSO) satellite systems, IoT, and 5G, is rising, which is why accessing different frequency bands of the satellite spectrum has become necessary.

Furthermore, the increasing number of satellites being launched drives the market. For instance, over 7,000 individual satellites were orbiting the earth as of April 2021, rising by around 30% compared to 2020. Additionally, 1,200 satellites were launched in 2020, effectively creating a record. Further, according to industry projections, around 1,000 satellites will be launched every year, which would lead to 16,000 satellites in orbit by 2028.

These are the key applications considered in the report:

• Space (Largest and Fastest-Growing Category)
• Aerospace and Defense
• Nuclear Power Plants
• Others

Geographical Analysis

• North America has the largest radiation‐hardened electronics market size, accounting for a revenue share of around 35%, due to the rise in the usage of advanced technologies and miniaturization of components.
• These trends are expected to expand the applications of radiation-hardened electronics to develop innovative and cost-effective solutions.
• In the U.S., the rising demand for secure communication networks by industry players and government organizations has allowed private players, such as
• SpaceX and Amazon, to send communication satellites to the low earth orbit. The changing trends in space exploration, such as space tourism, with new applications and the miniaturization of components, will positively impact the market.
• Moreover, the country has the most satellites orbiting the earth (around 2,800).
• Furthermore, Europe is expected to grow at a steady pace in the industry due to the heavy investment by regional governments in developing an enhanced space system, using advanced radiation-hardened components.
• Moreover, in Europe, the major radiation‐hardened electronics market share is captured by the U.K., due to the surge in the number of spacecraft engineering organizations in the kingdom, which are increasing their efforts to ensure continuous technological advancements in nanosatellites, by using new technologies in the components, such as COTS.
• APAC is expected to witness the fastest growth during the forecast period with an expected CAGR of 4.8%.
• This is due to the rising focus of India, South Korea, and many other developing countries on sufficing their rising power demand through nuclear power plants.
• As per a government source, India’s solar capacity reached 87.2 GW in July 2024, increasing by 30 times over the last 9 years.
• Moreover, countries such as Bangladesh, Laos, and Myanmar have been buying and launching telecommunication satellites, which will drive the APAC market growth.
• Additionally, the APAC industry is becoming increasingly significant, with new players as well as governments concurrently developing new space systems and investing in advanced radiation-hardened components for various end users, including the medical sector and nuclear power plants, for a longer life and higher reliability.

The following is the regional analysis of the market:

• North America (Largest Regional Market)
  • U.S. (Larger and Faster-Growing Country Market)
  • Canada
• Europe
  • U.K. (Fastest-Growing Country Market)
  • Germany
  • France
  • Russia
  • Spain
  • Rest of Europe
• Asia-Pacific (APAC) (Fastest-Growing Regional Market)
  • China (Largest Country Market)
  • India (Fastest-Growing Country Market)
  • Japan
  • South Korea
  • Australia
  • Rest of APAC
• Rest of the World
  • Brazil (Largest Country Market)
  • South Africa
  • Mexico
  • U.A.E. (Fastest-Growing Country Market)
  • Others

Radiation-Hardened Electronics Market Share

The radiation-hardened electronics market is fragmented due to the diversity of applications, which demand components with different features and, often, customized ones. Moreover, safety and efficiency regulations tend to vary across the world, with developed countries displaying higher stringency. This lack of standardization allows a large number of companies to proliferate in the market with specialized components for different applications.

Radiation-Hardened Electronics Market News

• In August 2024, BAE Systems plc received a contract worth USD 48 million from the Air Force Research Laboratory to advance its Insight ISR system.
• In August 2024, Infineon Technologies AG inaugurated the first phase of a new 200-mm SiC power semiconductor factory in Kulim, Malaysia.
• In April 2024, Microchip Technology Inc. and TSMC strengthened their semiconductor production partnership. The collaboration will enable to enable Japan Advanced Semiconductor Manufacturing Inc. to manufacture 40-nm wafers.
• In July 2023, Analog Devices Inc. invested over USD 1 billion expand its semiconductor factory in Beaverton, Oregon.