Authors:
Suraj Gujar, Tanisha Malwa
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RISC-V Market Size & Share 2026-2035
Report ID: GMI14490
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Published Date: August 2026
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RISC-V Market
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RISC-V Market Size
The RISC-V market was valued at USD 2.3 billion in 2025 and is projected to reach USD 3 billion in 2026, before advancing to USD 34.7 billion by 2035 at an approximately 31.3% CAGR during 2026–2035.
RISC-V Market Key Takeaways
Market Leader: SiFive, Inc. led with over 15.3% market share in 2025.
Leading Players: Top 5 players in this market include SiFive, Inc., Andes Technology Corp., Codasip S.R.O., Infineon Technologies AG, Starfive Technology Co. Ltd., which collectively held a market share of 53.1% in 2025.
Growth reflects a widening set of commercial uses for an instruction-set architecture that permits implementers to combine a standardized base with ratified and application-specific extensions. RISC-V International lists vector, bit-manipulation, and cryptography extensions among its ratified specifications, establishing common technical building blocks while leaving room for differentiated silicon designs [1]RISC-V International, Ratified Specifications, undated, riscv.org.
The opportunity is concentrated where processors must perform more than general-purpose control. Edge AI systems, connected devices, industrial equipment, and emerging data-center accelerators can pair domain-specific compute blocks with a configurable control plane. This makes architecture choice increasingly tied to system design, compiler support, verification effort, and software portability rather than only to the price of a processor core.
Ecosystem breadth is improving the commercial conditions for that transition. RISC-V International reported more than 4,120 members in 2024, spanning organizations involved in silicon, software, systems, and research [2]RISC-V International, RISC-V 2024: A Year of Global Growth and Innovation, late 2024, riscv.org. Membership alone does not ensure interoperable products, but it expands the pool working on specifications, tools, and implementation know-how. The remaining adoption constraint is whether those efforts translate into qualified software stacks and reproducible platform profiles for volume programs.
GMI Analyst View
The market's projected expansion depends less on replacing incumbent processor architectures wholesale than on winning new design starts in which workload specialization is valuable. A standard base ISA reduces the need to create a processor environment from zero, while extensions allow suppliers to differentiate around vector processing, security, real-time control, or custom acceleration. That combination is commercially attractive when the cost and schedule of building a bespoke system outweigh the value of strict software portability.
The central tension is that the same freedom that supports customized silicon can make qualification more difficult. The strongest revenue pools should therefore emerge where common software foundations coexist with tightly controlled hardware configurations, rather than where each device requires a unique software port. Ecosystem coordination and profile adoption are consequential because they determine whether customization remains an engineering advantage or becomes a lifecycle-support burden.
Key Drivers
Rising demand for open-source and customizable processor architectures
RISC-V's modular design offers chip teams an alternative to a fixed processor roadmap when workload demands differ materially across products. The ratified V, B, and K extensions provide standardized paths for vector operations, bit manipulation, and cryptographic functions, respectively . For system designers, that structure can reduce the amount of proprietary architecture work needed to address recurring functions while retaining latitude to add specialized capabilities.
The economic consequence is most visible in ASIC and SoC programs that need a processor to coordinate unique accelerators, interfaces, or real-time functions. Rather than treating the CPU as an undifferentiated component, designers can use the ISA as a controlled interface between custom hardware and software. Value shifts toward toolchains, verification, integration, and long-term support, which favors suppliers able to make customization repeatable rather than merely possible.
Growing adoption of AI, edge computing, and machine learning workloads
AI and edge workloads place control, sensing, connectivity, and inference functions close together. RISC-V can serve as the programmable control element around specialized compute hardware, particularly where designers need to balance latency, energy use, and local data handling. SiFive introduced its Intelligence X390 solution for generative AI and machine-learning applications in October 2023, illustrating the commercial focus on configurable compute for these workloads [3]SiFive, SiFive Announces Differentiated Solutions for Generative AI and ML Applications Leading RISC-V into a New Era of High-Performance Innovation, October 11, 2023, sifive.com.
This demand is not limited to large accelerators. Espressif's ESP32-C3 combines a RISC-V processor with Wi-Fi and Bluetooth Low Energy connectivity, while the ESP32-C6 adds Wi-Fi 6, Bluetooth Low Energy, Thread, and Zigbee capabilities [4]Espressif Systems, ESP32-C3 Wi-Fi & BLE 5 SoC, undated, espressif.com, . Such devices show why connected edge deployments can be an early volume market: the processor is selected as part of a complete connectivity and firmware platform, not as a stand-alone compute purchase.
Expansion of IoT, automotive, and embedded semiconductor applications
Industrial and connected-device programs reward architectures that can be configured around long product lifecycles, deterministic control requirements, and diverse peripheral combinations. Microchip's PolarFire SoC FPGA family combines FPGA fabric with a five-core RISC-V CPU cluster consisting of four U54 application cores and one E51 monitor core . The configuration illustrates a mixed-criticality design pattern in which programmable logic, Linux-capable application processing, and monitoring functions can be integrated within one platform.
Automotive demand follows a different technical path. McKinsey describes current premium vehicles as carrying roughly 100–150 or more electronic control units and identifies a shift toward zonal compute architectures that reduce ECU count by consolidating functions . The implication is not that every legacy ECU becomes a RISC-V opportunity. Instead, RISC-V is more relevant where zonal controllers, body electronics, sensing, and subsystem control create new requirements for configurable compute and controlled software integration.
Increasing government investment in domestic semiconductor ecosystems
Government semiconductor programs widen the addressable market by funding design capabilities, research infrastructure, and domestic supply-chain development. The U.S. CHIPS and Science Act became law on August 9, 2022, authorizing approximately USD 52.7 billion in semiconductor manufacturing, research, and workforce funding . The European Chips Act, Regulation (EU) 2023/1781, was adopted on September 13, 2023 and established a framework intended to mobilize more than EUR 43 billion in public and private investment .
RISC-V benefits where policymakers and public institutions view an open ISA as a means to develop local design capacity and reduce dependence on a narrow set of proprietary architecture suppliers. India's C-DAC announced the ARIES ECO, ARIES NOVA, and THEJAS64 SoCs in January 2025 under the MeitY Digital India RISC-V program, demonstrating the connection between government-backed processor development and deployable domestic platforms . Public support can accelerate early ecosystems, although commercial durability will still depend on software maintenance, manufacturing access, and customer qualification.
Key Restraints
Limited software ecosystem maturity compared with ARM and x86
Software readiness remains a gating item for deployments that need established operating-system support, application portability, security maintenance, debugging, or safety-oriented development flows. The RISE project, launched by Linux Foundation Europe in May 2023, brought together charter members including Google, Intel, Qualcomm, MediaTek, NVIDIA, and Red Hat to accelerate RISC-V software development, including coordination around the Linux kernel and Android support . That collaboration indicates both progress and the scale of the remaining integration task.
Android provides a useful example of the distinction between direction and readiness. Google had identified RISC-V as a Tier-1 Android platform goal by early 2023 , while its October 2023 guidance specified an rva22-plus-vector feature target for Android RISC-V devices . These milestones improve alignment around a future platform baseline, but they do not eliminate the validation, performance-tuning, and application-compatibility work required before a device program can rely on a mature ecosystem.
Fragmentation caused by vendor-specific custom extensions
Custom extensions can improve performance or efficiency for a narrow workload, yet they can also reduce software portability if compilers, libraries, and operating systems must account for divergent instruction sets. The technical question is therefore not whether customization is permissible, but whether it is bounded by a stable software contract. Ratified extensions and profiles can narrow that gap by defining shared capabilities; uncontrolled implementation-specific extensions can widen it .
Fragmentation changes procurement behavior. A buyer selecting a processor for a long-lived industrial, automotive, or infrastructure program must assess not only silicon performance, but also the availability of tools, maintenance commitments, and a credible migration route. For IP suppliers, the commercial reward from differentiation is highest when specialized features are accompanied by compiler support and a disciplined compatibility strategy. Otherwise, the customization benefit can be offset by higher lifecycle costs for the customer.
GMI Analyst View
RISC-V's growth case is strongest where it is used as a platform for controlled specialization, but this is also where the software challenge becomes most acute. The architecture can reduce dependence on a single processor roadmap, yet every additional implementation choice adds pressure on compilers, middleware, validation, and support. Adoption will therefore be paced by the ability to convert technical flexibility into a predictable engineering process.
The RISE initiative and Android feature-set work demonstrate that ecosystem coordination is moving from broad advocacy toward practical compatibility work , . Suppliers positioned to pair configurable cores with robust tooling should have an advantage in design wins that require long-term maintenance. Vendors that rely on highly differentiated extensions without an accompanying software path may capture prototypes but face a more difficult conversion into repeat production programs.
RISC-V Market Segment Analysis
Architecture Type
Standard RISC-V generated USD 959.45 million in 2025 and is expected to grow at a 26.6% CAGR during 2026–2035. Its larger starting base reflects use cases where standardized functionality, lower integration complexity, and broad developer familiarity matter more than deep architectural differentiation. This segment is structurally important because it supplies the common software foundation from which the broader ecosystem can scale.
Custom RISC-V accounted for USD 816.38 million in 2025 and has the highest architecture-level forecast CAGR at 33.7%. Its growth profile reflects demand from chip designers seeking to align instruction processing with specialized workloads, including AI, edge processing, networking, and proprietary SoC functions. The addressable value lies not simply in adding instructions; it lies in compressing the engineering cycle between workload definition, hardware implementation, verification, and software enablement.
Extensible RISC-V represented USD 531.23 million in 2025 and is forecast to grow at 32.2% CAGR. This segment occupies the middle ground between a fixed standard configuration and a fully bespoke processor. It can be attractive for buyers that need configurable extensions but do not wish to assume the complete technical and maintenance burden of a custom architecture.
Industry Vertical
Industrial & IoT was the largest vertical at USD 645.45 million in 2025, with a 29.6% forecast CAGR. Its scale reflects the large population of connected controllers, sensors, gateways, and embedded systems where processor selection is tightly connected to power, connectivity, lifecycle, and integration requirements. Deployed wireless SoCs such as Espressif's RISC-V-based ESP32-C3 and ESP32-C6 reinforce the role of complete device platforms in converting architecture interest into volume adoption , [5]Espressif Systems, ESP32-C6 Wi-Fi 6 & BLE 5 & Thread/Zigbee SoC, undated, espressif.com.
Consumer Electronics generated USD 493.89 million in 2025 and is forecast to expand at 31.2% CAGR. Automotive reached USD 301.34 million and is expected to grow at 31.8%, supported by the move toward consolidated vehicle computing architectures rather than a simple increase in discrete ECU count [6]McKinsey & Company, Getting Ready for Next-Generation E/E Architecture with Zonal Compute, undated, mckinsey.com. The design-in process in automotive remains demanding because software support, safety cases, and product lifecycles can outweigh a core-level cost advantage.
Data Centers & HPC, valued at USD 272.77 million in 2025, is the fastest-growing vertical at 33.1% CAGR. The segment offers a high-value outlet for custom and extensible designs, but it also has the most stringent software and performance qualification requirements. Networking & Telecom, at USD 237.98 million and 32.6% CAGR, similarly rewards workload-aware design where packet processing, security, and control-plane functions can be tailored. Aerospace & Defense accounted for USD 191.13 million at a 28.1% CAGR, while other applications contributed USD 164.51 million and are projected to grow at 26.8%.
End User
Chip Designers/IP Integrators led the end-user market with USD 689.28 million in 2025 and a 29.7% CAGR. They are closest to the architecture decision and can realize the most value from custom integration, but they also carry the greatest verification and software-enablement burden. OEMs/Device Manufacturers followed at USD 599.13 million and are projected to grow at 31.7%, reflecting their role in selecting platforms that balance product differentiation against supplier continuity and software support.
Software Developers accounted for USD 403.74 million in 2025 and are forecast to expand at 32.2%. Their participation is commercially significant because a processor ecosystem becomes more defensible when application development, tooling, and deployment environments reduce the marginal cost of supporting another device. Government & Defense Agencies generated USD 292.64 million at a 31.2% CAGR, while other end users represented USD 322.28 million and are expected to grow at 28.7%.
GMI Analyst View
Segment performance points to a split market rather than a uniform migration toward open architectures. Standard implementations provide scale and familiarity, while custom designs create the highest growth potential where a processor is embedded in a differentiated system. Extensible configurations may become the practical bridge for customers that need more performance tailoring than standard products provide but cannot sustain a fully proprietary software environment.
Vertical and end-user patterns reinforce this divide. Industrial & IoT benefits from broad device deployment and integrated connectivity platforms, whereas data centers, HPC, and networking demand deeper software qualification before design activity converts into revenue. The suppliers most likely to capture premium growth will be those that help customers preserve a standard software base while differentiating at the silicon level.
RISC-V Market Regional Analysis
North America
North America generated USD 564.52 million in 2025 and is forecast to grow at 32.2% CAGR. The United States accounted for USD 450.71 million, while Canada represented USD 113.81 million. Federal semiconductor policy provides a supportive background for domestic design and research activity; the CHIPS and Science Act directs substantial funding toward manufacturing and research infrastructure [7]U.S. Congress, H.R.4346 - CHIPS and Science Act, 117th Congress, August 9, 2022, congress.gov. Regional growth is likely to be shaped by the interaction between IP development, custom silicon programs, and the availability of software and verification capabilities needed for commercial deployment.
Europe
Europe reached USD 472.59 million in 2025 and is projected to expand at 31.8% CAGR. The United Kingdom represented USD 128.25 million, Germany USD 102.66 million, France USD 63.65 million, Italy USD 40.21 million, Spain USD 35.04 million, and the Netherlands USD 20.39 million. Regulation (EU) 2023/1781 provides a policy framework for strengthening semiconductor capabilities across the region [8]European Commission, Regulation (EU) 2023/1781 - European Chips Act, September 13, 2023, eur-lex.europa.eu. Europe's opportunity is especially connected to industrial automation, automotive electronics, and processor design tools, where long qualification cycles elevate the value of dependable software and support.
The EU Chips Joint Undertaking opened a EUR 20 million call in February 2024 for high-performance RISC-V automotive processors under the European Chips Act framework . Such programs can create early technical momentum, but their commercial relevance will depend on whether research outcomes transfer into automotive-grade development tools, qualified silicon, and sustained supply relationships.
Asia Pacific
Asia Pacific was the largest regional market at USD 952.29 million in 2025 and is forecast to grow at 29.9% CAGR. China contributed USD 389.19 million, India USD 150.53 million, Japan USD 121.23 million, South Korea USD 82.48 million, and Australia USD 52.30 million. The region's scale reflects a broad mix of connected-device manufacturing, semiconductor design activity, and public initiatives that encourage domestic technology capability.
India is a notable example of government-linked ecosystem formation. C-DAC's January 2025 announcement of ARIES ECO, ARIES NOVA, and THEJAS64 under the DIR-V program links RISC-V development to a domestic SoC roadmap . Across Asia Pacific, commercialization will vary by country: high-volume connected devices can accelerate deployment, while advanced automotive, AI, and server-oriented programs require stronger toolchain and system-software maturity.
Middle East & Africa
Middle East & Africa generated USD 140.38 million in 2025 and has the highest regional forecast CAGR at 33.1%. The United Arab Emirates accounted for USD 46.14 million, Saudi Arabia USD 36.90 million, and South Africa USD 23.60 million. The region's smaller base makes high growth mathematically achievable, but the market will require sustained investment in design talent, systems integration, and procurement pathways to convert policy interest into recurring semiconductor demand.
Latin America
Latin America represented USD 177.29 million in 2025 and is expected to grow at 32.7% CAGR. Brazil, Argentina, and Mexico are relevant analytical markets because of their electronics manufacturing, industrial, connectivity, and public-sector technology needs. The regional growth outlook should be interpreted as an early-stage expansion opportunity rather than evidence of a mature local processor-IP ecosystem. Deployment is more likely to follow device manufacturing, industrial modernization, and imported platform adoption than to depend solely on indigenous core design.
GMI Analyst View
Regional results reflect different routes to adoption. Asia Pacific supplies the largest current revenue base because it combines device-scale demand with expanding semiconductor-design activity, while North America and Europe pair faster forecast growth with substantial investments in design infrastructure and strategically important applications. The principal distinction is not merely geography; it is whether a market can support the full chain from processor IP and software through qualification, manufacturing, and end-customer deployment.
Government programs can shorten the path to early projects, as shown by U.S., European, Indian, and EU-level semiconductor initiatives , , , . They cannot by themselves resolve ecosystem fragmentation. Regions that convert public support into common toolchains, validated profiles, and repeatable industrial or automotive deployments should create more durable demand than those relying on isolated prototype programs.
RISC-V Market Share & Competitive Landscape
The market remains moderately concentrated: SiFive held 15.3% of 2025 revenue, followed by Andes Technology at 13.6%, Codasip at 11.4%, Infineon at 8.1%, and StarFive at 4.7%. The five leading participants collectively accounted for approximately 53.1%, while other companies represented 46.9%. This distribution leaves room for specialized IP, tooling, FPGA, microcontroller, and systems players, but it also means competitive position is influenced by ecosystem relevance rather than processor-core performance alone.
Andes Technology Corp. participates as a RISC-V processor-IP supplier. Its competitive relevance is tied to the demand for scalable core configurations and implementation support across embedded and application-oriented designs.
Microchip Technology Incorporated is represented by the PolarFire SoC platform, which integrates FPGA fabric with a five-core RISC-V CPU cluster [9]Microchip Technology, PolarFire SoC FPGAs, undated, microchip.com. This type of integrated architecture is particularly relevant to industrial and defense-oriented system designs that combine application processing, monitoring, and programmable logic.
Renesas Electronics Corporation is included as a major semiconductor participant within the market's company scope. Its relevance is strongest in embedded and automotive-adjacent design environments, where qualification and lifecycle requirements materially shape processor adoption.
SiFive, Inc. is the market leader at 15.3% share. Its October 2023 Intelligence X390 announcement positioned the company around generative AI and machine-learning applications, illustrating the strategic importance of AI-oriented configurable processing in the competitive landscape .
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