Accelerate Time-to-Market for RISC-V, Image Processors & Compilers
Custom silicon needs software built to match it. For fabless SoC firms and IP vendors, we build both – AI compilers and kernels, camera ISP pipelines, and the System on Chip underneath. We scale your design, verification, and compiler teams, or take the project from spec to signoff.
Where simulation stops, proof begins. We prove NoC deadlock and livelock freedom, AXI4 protocol compliance, cache coherence, and complex RISC-V datapath correctness — driving critical properties from planning to convergence and signoff.
Coverage tells you when you’re done. We build test plans, functional models, test generators and regression automation methods, carrying a block from the very first testbench to signoff.
Toolchain, LLVM and bring-up work for RISC-V targets — developed and regressed on Cloud-V, our on-demand CI with Linux shell, CI/CD scripting and QEMU modes.
The blocks around the core, ready to integrate: IOPMP for I/O physical memory protection, and Debug & N-Trace for core visibility during bring-up and post-silicon.
02
Imaging & Vision
A full ISP engineering practice — algorithm development, image quality tuning and hardware implementation — run on our own imaging platform.
Our own ISP platform is what the three services above are delivered on — one lineage from Python model to C reference to RTL, FPGA and ASIC. It keeps algorithm, tuning and hardware consistent instead of three teams re-deriving the same pipeline.
Custom silicon can’t deliver on its promise without software built to match it. We engineer the full AI software stack — from model optimization to compiler development to hand-tuned runtime kernels — so your workloads run at peak efficiency on any hardware, standard or custom. The result: silicon that performs the way it was designed to, from day one.
Vision, language and multi-modal model deployment built for production. We handle SDK development and end-to-end application pipelines so your models ship ready to run.
We offer a diverse range of engagement options, to accommodate different degrees of collaboration and responsibility, thereby delivering customized solutions aligned with your unique operational needs.
You direct the work
We own delivery
Model 01
Turnkey Project
Ensure timely and accurate project delivery without requiring individual interaction among team members.
Our team lead
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Your team lead
We deliver. One interface — lead to lead. No day-to-day management on your side.
Model 02
Team Augmentation
Dedicated lead on our end to manage work, but both teams operate as a unified entity.
Our team
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Your team
We co-manage. Our lead runs our side; the two teams work as one.
Model 03
Resource Augmentation
Our employees become part of your team.
Our team
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Your team
You manage. Our engineers report into your leads and follow your process.
Not sure which model fits? Tell us the block and the deadline — we’ll tell you which one we’d recommend.
Client work is confidential. Our open-source contributions are not, the same engineers, working to the same review standards. If you want to evaluate how we work before engaging, that is the most direct way to do it.
Recognised by
OpenHW Foundation — Steering Committee and Technical Advisory member since 2021. Verification and RISC-V extensions work on CVA6 and CORE-V Wally.
RISC-V International — Development Partner, contributing to specification work. Cloud-V is the first official RISC-V Lab Partner environment.
RISC-V Development Partner — 10xEngineers is an active contributor to the RISC-V Architectural tests. Our engineers have worked across every stage of the privileged-ISA test pipeline. We have developed tests for extensions from the privileged spec, including the full virtual memory (Sv) and PMP suites and the privileged exception suites.
The RISC-V Architectural Certification Tests (ACTs) are a set of assembly language tests intended to help test that a design faithfully implements the RISC-V specification. We have developed many tests related to RISC-V priviledged and unpriviledged specs including debug.
CHI is the coherent fabric protocol behind essentially every modern Arm-class SoC, and until now there has been no open implementation of it to build on, read, or test against. We have developed this IP in partnership with BOSC (Beijing Institute of Open Source Chip).
Imaging & Vision
Infinite-ISP
A complete open image signal processor, Python model through C, RTL, and FPGA to ASIC.
Design & Verification
riscvISACOV / RVVI
Coverage collection from a device under test over the RISC-V Verification Interface.
Kernel and graph optimisation, proven on your hardware.
VIPs
UCIe 3.0
AMBA CHI Issue E.b
AMBA AXI4
AMBA LTI/ DTI
I2C / I3C
JTAG
Their deep technical knowledge, hard work, and long-standing commitment to the RISC-V open-source ecosystem have made this project possible. The 10xEngineers liaisons contributed the coverpoints for virtual memory — the most complex portion of the functional coverage.
Prof. David Harris
Professor of engineering and co-author of Digital Design and Computer Architecture
10xEngineers have made outstanding contributions to the OpenHW community since joining in 2021, playing a key role in advancing the functionality, verification, and compliance of CVA6 and CV-Wally. We are counting on them for advancing industrial-quality, open-source RISC-V cores.
Florian “Flo” Wohlrab
CEO of OpenHW Foundation
The 10xEngineers team provided exceptional compiler expertise throughout the project. Their LLVM-based tool significantly reduced Error Detection Latency and improved the error coverage of our post-silicon tests.
Share your requirements and we’ll review them with the relevant engineering team. Where there’s a fit, we’ll propose a technical call to scope out the work.