RISC-V gives automakers greater control over automotive compute costs by providing one scalable architecture across the vehicle. Portable code, shared toolchains, reusable software, and common engineering expertise reduce development cost across processor classes and vehicle models, accelerating time to market while delivering a significant commercial advantage, protecting program economics and opening the door to aftermarket revenue over decade-plus program lifecycles.

The ISA’s extensible design enables OEMs to pay for the compute a workload actually needs, plus deliberately scoped headroom for foreseeable evolution. Each workload-specific silicon chip avoids paying for unused capability three times over: in die cost, energy consumption, and the cooling required to support it. OEMs can differentiate their designs rather than commoditize by adding standard and custom instructions, AI acceleration, or scalable cores and clusters without following one supplier’s roadmap. Meanwhile, IP ownership varies with how each processor is sourced, and licensing a commercial core, adopting an open-source design, or building bespoke silicon each set different terms for royalties, foundry choice, and end-of-life exposure.

Follow the link below to learn in detail how RISC-V gives OEMs and Tier 1s greater economic control.

Automotive OEMs have long managed extensive multi-vendor supply chains, and their commercial success has often depended on managing those chains for stability, choice, and resilience. Semiconductors have become the hardest link to manage on those terms: in the traditional model, the processor architecture inside a vehicle’s electronics is the commercial property of a single licensor, and every sourcing decision downstream inherits that dependency.

RISC-V removes that inherited dependency at the root. Because extensions and ratified profiles are modular features of an open standard rather than one vendor’s product, many silicon and IP vendors can each design their own workload-specific silicon to the same architecture, and OEMs can mitigate shortages by sourcing from more than one of them. The result is a fully owned automotive roadmap.

Those options matter most over time. Today’s vehicle platforms are designed to last ten years but may stay on the road for fifteen to twenty more. The vibrant RISC-V ecosystem turns a re-platforming exercise into a sourcing decision.

We’ve built a page on Supply Chain Resilience, exploring component availability, vehicle lifecycles, the global vendor market, roadmap control, and the thriving ecosystem that maintains the RISC-V open standard itself.

Physical electronic systems with the SDV depend on the correct operation of the silicon and software beneath them, making functional safety fundamental. The same logic extends to cybersecurity: a connected, updatable vehicle is exposed to malicious actors, and a security weakness can become a safety hazard. Both disciplines are heavily regulated and non-negotiable for any component that performs, or connects to one that performs, mission-critical workloads.

RISC-V’s open, fully documented ISA gives silicon vendors, toolchain providers, and system integrators a transparent architectural foundation for implementations targeting ISO 26262 ASIL requirements and vehicles subject to UN R155 and R156. The architecture underlying a safety or security case is published and freely available rather than hidden behind a vendor NDA. This transparency also supports a resilient supply chain: an OEM or Tier 1 evaluating a second source can assess it against familiar architectural terms. Reusing a shared ISA, software ecosystem, tools, and engineering expertise may also reduce duplicated re-engineering or re-certification work across chip families, helping OEMs maintain greater economic control over compliance processes that can otherwise run to tens of millions of dollars per platform.

Throughout the RISC-V Automotive Hub, you’ll find guidance on building automotive silicon to meet these stringent certification requirements.