Future Market Insight (FMI), in its latest report, estimates the global SiC & GaN power semiconductor market size to reach US$ 2,170.8 million in 2024. Sales are predicted to soar at an impressive CAGR of 27.1%, courtesy of which the global market valuation will total a staggering US$ 23,718.0 million by 2034.
SiC and GaN Power Semiconductor Market Insights
Attributes | Key Insights |
---|---|
Base Market Value in 2023 | US$ 1,747.3 million |
Market Size in 2024 | US$ 2,170.8 million |
Market Value in 2034 | US$ 23,718.0 million |
Value CAGR (2024 to 2034) | 27.1% |
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With trends like electric vehicle revolution, industrial automation, and renewable energy integration gaining momentum, the importance of power semiconductors increases significantly. These electronic devices are mainly used as switches and find applications in power electronics, including automobiles and mobile devices, etc., that need controlled and stabilized power supply.
Compound semiconductors, including gallium nitride (GaN) and silicon carbide (SiC), offer numerous benefits over traditional silicone-based semiconductors. They work more efficiently at high temperatures, high power densities, higher voltages, and higher frequencies. As a result, their demand is rising rapidly.
GaN and SiC power semiconductors are increasingly adopted in applications such as industrial PV inverters, motor devices, power supplies, and others. High adoption of these applications will provide the impetus for the growth of the SiC & GaN power semiconductor market through 2034.
The rise of renewable energy sector is ushering a new life into SiC and GaN power semiconductor industry. Several governments and regulatory bodies globally are launching new initiatives to facilitate the adoption of eco-friendly energy sources.
For instance, in 2021, the European Commission introduced the European Solar Initiative to scale up Europe's solar PV industrial ecosystem. Such initiatives are anticipated to generate high demand for power semiconductors like SiC and GaN through 2034.
Escalating demand for energy-efficient electronic devices and systems is set to boost sales growth. SiC and GaN power semiconductors offer excellent performance when it comes to lower energy loss, making them suitable where efficiency is paramount.
High preference for silicon carbide (sic) power devices over conventional silicon semiconductors due to their multiple advantages will fuel their demand. Similarly, the shift towards renewable energy sources and surging adoption of hybrid and electrified vehicles are predicted to propel SiC & GaN power semiconductor demand.
Lack of formalized testing and qualification processes can hamper market growth. Complexity of designing an efficient and reliable circuit with SiC & GaN components can be difficult. High initial investment and construction costs can deter adoption. Similarly, supply chain disruptions and shortages can hinder SiC and GaN production.
Growth of 5G network technology is set to create growth opportunities for SiC and GaN power semiconductors manufacturers. The high efficiency of SiC power devices is fueling their adoption in industrial device applications.
Another key factor creating growth prospects for the market is the escalating demand for compact and efficient power electronics in consumer electronics. Subsequently, increased focus on energy efficiency in automotive systems is leading to the adoption of SiC and GaN devices.
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A key trend observed in the silicon carbide and gallium nitride power devices industry is a collaboration between semiconductor manufacturers to accelerate innovation and market movement. Increased availability of gallium nitride (GaN) in RF microwave applications due to its high-frequency capabilities will propel demand.
Advances in packaging technology are increasing thermal efficiency and reliability of power semiconductors. This will positively impact the SiC and GaN power electronics market during the projection period.
From 2019 to 2023, global sales of SiC & GaN power semiconductors grew at a CAGR of 9.4%, reaching a market size of US$ 1,747.3 million in 2023. This growth was fueled by increased demand for power semiconductors in electric vehicles (EVs), power storage devices, and other applications.
Future Forecast for SiC and GaN Power Semiconductor Market
Over the forecast period, the global SiC & GaN power semiconductor industry is poised to rise at a CAGR of 27.1%. Total valuation at the end of 2034 is predicted to reach US$ 23,718.0 million, spurred by rising popularity of electric vehicles and adoption of industrial automation.
The transition toward renewable energy resources is acting as a catalyst triggering SiC and GaN power semiconductor sales. This is because these power semiconductors are increasingly used in renewable energy systems to enhance their efficiency and performance.
As technology continues to evolve, manufacturers are focusing on developing novel solutions with high performance and improved efficiency. This will bode well for the market during the assessment period.
The section below sheds light on nations leading the global industry. The United States, Japan, Korea, and China are set to remain leading end-users of SiC & GaN power devices owing to the booming semiconductor industry and the rise of electric vehicles.
Countries | CAGR (2024 to 2034) |
---|---|
United States | 27.6% |
Canada | 29% |
Germany | 26% |
United Kingdom | 24% |
China | 31.1% |
Japan | 28.5% |
South Korea | 29.6% |
The United States SiC & GaN power semiconductor market value is forecast to grow significantly, tolating US$ 3,804 million by 2034. Demand for SiC & GaN power semiconductors in the nation will surge at an impressive CAGR of 27.6% over the next ten years.
Growing adoption of electric vehicles (EVs) is a prominent factor fueling demand for high-performance energy semiconductors such as SiC and GaN in the United States. This is because these semiconductors are essential to increase the performance and energy efficiency of the EV powertrain.
Escalating popularity of renewable energy systems such as solar and wind energy in the United States is creating the need for capable advanced power electronics, where SiC and GaN semiconductors excel. These semiconductors enhance the efficiency of renewable energy systems.
The surging trend towards industrial automation in various industries is anticipated to uplift demand for SiC and GaN power semiconductors in the United States. This is because these powerful semiconductors offer high efficiency, low switching losses, and improved thermal performance in automation systems.
Future Market Insights’ latest analysis predicts China SiC & GaN power semiconductor market to thrive at a staggering 31.1% CAGR during the forecast period. Sales of SiC and GaN power semiconductors in the country will total around US$ 6,019.2 million by 2034.
China is emerging as a key player in the electric vehicle sector due to growing environmental concerns and favorable government support. This, in turn, is positively impacting SiC & GaN power semiconductor sales.
SiC and GaN power semiconductors are widely used in motor drives, powertrains, lighting systems, LiDAR autonomous control, and other automotive applications. Thus, growing popularity of electric vehicles in China will boost sales growth through 2034.
There is also a surge in demand for high-performance semiconductors as adoption of renewable energy systems such as solar and wind energy continues to increase. SiC and GaN power semiconductors can handle the high power requirements of these systems and improve their performance.
The section below sheds some light on leading segments along with their projected growth rates. Companies can use this information to offer demanding products to solidify their positions in the global industry.
By material type, the SiC segment will retain its market dominance, holding a share of 78.3% by 2034. Based on component, the transistors segment will thrive at a robust CAGR of 28%. By application, the automotive segment is set to account for a revenue share of 74.0% in 2034.
Market Growth Outlook by Material Type
By Material Type | Value CAGR |
---|---|
SiC | 26.6% |
GaN | 29.1% |
The latest analysis predicts the SiC power semiconductor segment to grow at 26.6% CAGR during the next decade. It will total a valuation of US$ 18,564 million by 2034, holding around 78.3% of the global SiC & GaN power semiconductor market share.
Growing usage of SiC in electric vehicles and renewable energy systems like solar inverters is boosting segment growth. SiC semiconductor’s ability to handle high voltages and temperatures makes them popular in these high-power applications.
Silicon carbide (SiC) has become the most important resource to be used when dealing with new wide-bandgap, which allows less losses and more switching speed. SiC semiconductors offer higher efficiency than silicon, mainly due to significantly lower energy loss and reverse charge. This leads to more switching power and less energy required in the switch-on and switch-off phase.
GaN segment, however, is catching up and is set to rise at a higher CAGR of 29.1% through 2034. This can be attributed to GaN’s high-frequency capabilities and other advantages.
Market Growth Outlook By Component
Component | Value CAGR |
---|---|
Diodes | 26.2% |
Transistor | 28.0% |
Power Module | 27.7% |
Hybrid Devices | 25.9% |
As per the latest report, transistor segment is poised to grow at a staggering CAGR of 28.0% through 2034. This is attributable to escalating adoption of transistors, especially metal-oxide-semiconductor field-effect transistors (MOSFETs), for a wide range of applications in power electronics.
Silicon carbide transistors are increasingly used in high-voltage power converters as they can meet the stringent requirements regarding size, weight, and/or efficiency of these applications. The excellent properties of silicon carbide (SiC) enable the design of fast-switching unipolar devices as opposed to IGBT (Insulated Gate Bipolar Transistor) switches.
WBG transistors have the tendency to switch faster and can work at higher frequencies than silicon. The unique combination of these features makes these transistors attractive for demanding circuits used in automotive applications, especially electric vehicles and hybrid electric vehicles (HEVs).
Market Growth Outlook By Application
Application | Value CAGR |
---|---|
Automotive | 26.9% |
Industrial | 27.6% |
When it comes to SiC & GaN power semiconductor usage, the automotive industry leads from the forefront. The target segment is set to thrive at 26.9% CAGR during the assessment period, accounting for a revenue share of 74.0% in 2034.
The use of semiconductors within automobiles continues to increase. The increased semiconductor value in cars comes from chips used in advanced driver-assistance systems for safety and autonomous-driving features, as well as in the electrification of engine drive systems as the world moves toward a more carbon-neutral environment.
Silicon carbide and gallium nitride are capable of operating at higher frequencies, voltages, and temperatures. This is making them more efficient and ideal for high-performance automotive applications.
The escalating demand for EVs and the recognized benefits of power semiconductors are encouraging major investments in SiC and GaN technologies in automotive industries. As the major players continue to invest heavily in research and development, the market is set to witness the introduction of more and more semiconductors for automotive applications.
Key players are focusing on providing tailored SiC & GaN power semiconductor solutions to meet the specific needs of their clients. They are constantly looking to develop advanced power semiconductors for novel applications.
Various companies are employing strategies like partnerships, distribution agreements, and collaborations to stay ahead of the competition. For instance, recently, Vitesco Technologies entered into a strategic partnership with Canada-based GaN Systems Inc., a leading developer of Gallium Nitride power transistors.
The market is also witnessing mergers and acquisitions as companies look to strengthen their presence in attractive regions. For instance, recently, Transphorm, Inc., a prominent leader in manufacturing wide bandgap gallium nitride (GaN) semiconductor technologies, was acquired by Renesas Electronics Corporation.
Key Developments in the SiC & GaN Power Semiconductor Market
The global market is set to hit a value of US$ 2,170.8 million by 2024.
Global demand is predicted to rise at 27.1% CAGR through 2034.
The SiC & GaN power semiconductor market size is set to reach US$ 23,718.0 million by 2034.
With a 75.1% share in 2024, the automotive segment will retain its market dominance.
STMicroelectronics N.V., Infineon Technologies, and ROHM Semiconductor.
The SIC power semiconductor segment held a market share of 81.3% in 2023.
A compound semiconductor composed of carbide and silicon.
GaN is generally considered better than SiC due to its multiple advantages.
Infineon Technologies, Fujitsu Limited, NXP Semiconductors N.V., and Maxim Integrated.
1. Executive Summary
1.1. Global Market Outlook
1.2. Demand Side Trends
1.3. Supply Side Trends
1.4. Analysis and Recommendations
2. Market Overview
2.1. Market Coverage / Taxonomy
2.2. Market Definition / Scope / Limitations
3. Pricing Models
3.1. Pricing Analysis, By Material Type
3.2. Regional/Country Average Pricing Model Analysis
4. Market Background
4.1. Macro-Economic Factors
4.2. Forecast Factors - Relevance & Impact
4.3. Value Chain
4.4. COVID-19 Crisis - Impact Assessment
4.4.1. Current Statistics
4.4.2. Short-Mid-Long Term Outlook
4.4.3. Likely Rebound
4.5. Market Dynamics
4.5.1. Drivers
4.5.2. Restraints
4.5.3. Opportunity Analysis
5. Global Market Demand (in Value or Size in US$ million) Analysis 2019 to 2023 and Forecast, 2024 to 2034
5.1. Historical Market Value (US$ million) Analysis, 2019 to 2023
5.2. Current and Future Market Value (US$ million) Projections, 2024 to 2034
5.2.1. Y-o-Y Growth Trend Analysis
5.2.2. Absolute $ Opportunity Analysis
6. Global Market Demand Analysis 2019 to 2023 and Forecast, 2024 to 2034
6.1. Historical Market Shipments (‘000 Units) Analysis, 2019 to 2023
6.2. Current and Future Market Shipments (‘000 Units) Projections, 2024 to 2034
6.2.1. Y-o-Y Growth Trend Analysis
7. Global Market Analysis 2019 to 2023 and Forecast 2024 to 2034, by Material Type
7.1. Introduction / Key Findings
7.2. Historical Market Size (US$ million) Analysis By Material Type, 2019 to 2023
7.3. Current and Future Market Size (US$ million) Analysis and Forecast By Material Type, 2024 to 2034
7.3.1. SiC
7.3.2. GaN
7.4. Market Attractiveness Analysis By Material Type
8. Global Market Analysis 2019 to 2023 and Forecast 2024 to 2034, by Component
8.1. Introduction / Key Findings
8.2. Historical Market Size (US$ million) Analysis By Application, 2019 to 2023
8.3. Current and Future Market Size (US$ million) Analysis and Forecast By Component, 2024 to 2034
8.3.1. Diodes
8.3.2. Transistor
8.3.3. Power Module
8.3.4. Hybrid Devices
8.4. Market Attractiveness Analysis By Component
9. Global Market Analysis 2019 to 2023 and Forecast 2024 to 2034, by Application
9.1. Introduction / Key Findings
9.2. Historical Market Size (US$ million) Analysis By Application, 2019 to 2023
9.3. Current and Future Market Size (US$ million) Analysis and Forecast By Application, 2024 to 2034
9.3.1. Automotive
9.3.1.1. Powertrain
9.3.1.2. On-board Charger
9.3.1.3. Fast & Wireless Charging
9.3.1.4. On-board DC/DC Converter
9.3.1.5. Motor Drive
9.3.1.6. xEV Components
9.3.1.7. Traction Inverters
9.3.1.8. Lighting Systems
9.3.1.9. LiDAR Autonomous Control
9.3.1.10. Other
9.3.2. Industrial
9.3.2.1. Power Supplies
9.3.2.2. Charging Equipment
9.3.2.3. Power Storage
9.3.2.4. Motor Drives
9.3.2.5. PV Inverter
9.3.2.6. Traction Motor Components
9.3.2.7. Communication Equipment
9.3.2.8. Lighting System
9.3.2.9. Robotics Control System
9.3.2.10. Others
9.4. Market Attractiveness Analysis By Application
10. Global Market Analysis 2019 to 2023 and Forecast 2024 to 2034, by Region
10.1. Introduction
10.2. Historical Market Size (US$ million), 2019 to 2023
10.3. Current and Future Market Size (US$ million) Analysis and Forecast By Region, 2024 to 2034
10.3.1. North America
10.3.2. Latin America
10.3.3. Europe
10.3.4. East Asia
10.3.5. South Asia and Oceania
10.3.6. Middle East and Africa
10.4. Market Attractiveness Analysis By Region
11. North America Market Analysis 2019 to 2023 and Forecast 2024 to 2034
11.1. Introduction
11.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
11.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
11.3.1. By Country
11.3.1.1. United States
11.3.1.2. Canada
11.3.2. By Material Type
11.3.3. By Component
11.3.4. By Application
11.4. Market Attractiveness Analysis
11.4.1. By Country
11.4.2. By Material Type
11.4.3. By Component
11.4.4. By Application
12. Latin America Market Analysis 2019 to 2023 and Forecast 2024 to 2034
12.1. Introduction
12.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
12.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
12.3.1. By Country
12.3.1.1. Mexico
12.3.1.2. Brazil
12.3.1.3. Rest of Latin America
12.3.2. By Material Type
12.3.3. By Component
12.3.4. By Application
12.4. Market Attractiveness Analysis
12.4.1. By Country
12.4.2. By Material Type
12.4.3. By Component
12.4.4. By Application
13. East Asia Market Analysis 2019 to 2023 and Forecast 2024 to 2034
13.1. Introduction
13.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
13.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
13.3.1. By Country
13.3.1.1. China
13.3.1.2. Japan
13.3.1.3. South Korea
13.3.2. By Material Type
13.3.3. By Component
13.3.4. By Application
13.4. Market Attractiveness Analysis
13.4.1. By Country
13.4.2. By Material Type
13.4.3. By Component
13.4.4. By Application
14. Europe Market Analysis 2019 to 2023 and Forecast 2024 to 2034
14.1. Introduction
14.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
14.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
14.3.1. By Country
14.3.1.1. Germany
14.3.1.2. United Kingdom
14.3.1.3. France
14.3.1.4. Spain
14.3.1.5. Italy
14.3.1.6. BENELUX
14.3.1.7. Nordics
14.3.1.8. Russia
14.3.1.9. Rest of Europe
14.3.2. By Material Type
14.3.3. By Component
14.3.4. By Application
14.4. Market Attractiveness Analysis
14.4.1. By Country
14.4.2. By Material Type
14.4.3. By Component
14.4.4. By Application
15. South Asia & Oceania Market Analysis 2019 to 2023 and Forecast 2024 to 2034
15.1. Introduction
15.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
15.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
15.3.1. By Country
15.3.1.1. India
15.3.1.2. Indonesia
15.3.1.3. Thailand
15.3.1.4. Malaysia
15.3.1.5. Australia & New Zealand
15.3.1.6. Rest of South Asia & Pacific
15.3.2. By Material Type
15.3.3. By Component
15.3.4. By Application
15.4. Market Attractiveness Analysis
15.4.1. By Country
15.4.2. By Material Type
15.4.3. By Component
15.4.4. By Application
16. Middle East and Africa Market Analysis 2019 to 2023 and Forecast 2024 to 2034
16.1. Introduction
16.2. Historical Market Size (US$ million) Analysis By Market Taxonomy, 2019 to 2023
16.3. Current and Future Market Size (US$ million) Forecast By Market Taxonomy, 2024 to 2034
16.3.1. By Country
16.3.1.1. GCC Countries
16.3.1.2. Turkiye
16.3.1.3. Egypt
16.3.1.4. South Africa
16.3.1.5. Rest of Middle East and Africa
16.3.2. By Material Type
16.3.3. By Component
16.3.4. By Application
16.4. Market Attractiveness Analysis
16.4.1. By Country
16.4.2. By Material Type
16.4.3. By Component
16.4.4. By Application
17. Country-wise Market Analysis
17.1. United States Market Analysis
17.1.1. By Material Type
17.1.2. By Component
17.1.3. By Application
17.2. Canada Market Analysis
17.2.1. By Material Type
17.2.2. By Component
17.2.3. By Application
17.3. Mexico Market Analysis
17.3.1. By Material Type
17.3.2. By Component
17.3.3. By Application
17.4. Brazil Market Analysis
17.4.1. By Material Type
17.4.2. By Component
17.4.3. By Application
17.5. Germany Market Analysis
17.5.1. By Material Type
17.5.2. By Component
17.5.3. By Application
17.6. Italy Market Analysis
17.6.1. By Material Type
17.6.2. By Component
17.6.3. By Application
17.7. France Market Analysis
17.7.1. By Material Type
17.7.2. By Component
17.7.3. By Application
17.8. United Kingdom Market Analysis
17.8.1. By Material Type
17.8.2. By Component
17.8.3. By Application
17.9. Spain Market Analysis
17.9.1. By Material Type
17.9.2. By Component
17.9.3. By Application
17.10. Russia Market Analysis
17.10.1. By Material Type
17.10.2. By Component
17.10.3. By Application
17.11. China Market Analysis
17.11.1. By Material Type
17.11.2. By Component
17.11.3. By Application
17.12. Japan Market Analysis
17.12.1. By Material Type
17.12.2. By Component
17.12.3. By Application
17.13. South Korea Market Analysis
17.13.1. By Material Type
17.13.2. By Component
17.13.3. By Application
17.14. India Market Analysis
17.14.1. By Material Type
17.14.2. By Component
17.14.3. By Application
17.15. Indonesia Market Analysis
17.15.1. By Material Type
17.15.2. By Component
17.15.3. By Application
17.16. Australia & New Zealand Market Analysis
17.16.1. By Material Type
17.16.2. By Component
17.16.3. By Application
17.17. GCC Countries Market Analysis
17.17.1. By Material Type
17.17.2. By Component
17.17.3. By Application
17.18. Turikye Market Analysis
17.18.1. By Material Type
17.18.2. By Component
17.18.3. By Application
17.19. South Africa Market Analysis
17.19.1. By Material Type
17.19.2. By Component
17.19.3. By Application
18. Market Structure Analysis
18.1. Market Analysis by Tier of Companies
18.2. Market Share Analysis of Key Players
19. Competition Analysis
19.1. Competition Dashboard
19.2. Competition Deep Dive
19.2.1. STMicroelectronics N
19.2.1.1. Business Overview
19.2.1.2. Component Material Type Portfolio and Strengths
19.2.1.3. Key Financials
19.2.1.4. Go-to-Market Approach & Strategies
19.2.1.5. Recent Developments (Partnerships, Mergers etc.)
19.2.2. Infineon Technologies
19.2.3. Wolfspeed, Inc
19.2.4. ROHM Semiconductor
19.2.5. ON Semiconductor Corp
19.2.6. NXP Semiconductors N
19.2.7. Microsemi Corporation
19.2.8. Qorvo (UnitedSiC)
19.2.9. Alpha and Omega Semiconductor
19.2.10. Littlefuse
19.2.11. Vincotech GmbH ( Mitsubishi Electric)
19.2.12. Epiluvac AB (Veeco)
19.2.13. Renesas Electronics
19.2.14. Fuji Electric Systems Co
19.2.15. Toshiba
19.2.16. Raytheon (RTX Corporation)
19.2.17. IQE PLC
19.2.18. AGC Inc.
19.2.19. Genesic semiconductor Inc
19.2.20. Panasonic Corporation
19.2.21. Semikron Danfoss
19.2.22. DACO SEMICONDUCTOR CO.,LTD.
19.2.23. SemiQ Inc
19.2.24. VisIC Technologies
19.2.25. SK Powertech
20. Assumptions and Acronyms Used
21. Research Methodology
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