Guide
How to Evaluate a Compute Company
Compute hardware is hard to judge from the outside. Announcements are full of peak numbers, partnerships and roadmaps. This guide lists what to look at when you assess a company that designs chips, and which claims deserve extra scepticism. It is a framework for research, not investment advice.
Process node and manufacturing
The process node is the manufacturing technology used to make the chip. Names such as 3 nm or 5 nm are marketing labels and no longer measure a physical dimension. They still indicate a generation, with smaller numbers generally meaning denser and more efficient chips.
Ask which foundry will make the chip, since few can build the most advanced nodes. TSMC makes most leading AI chips. Ask also about advanced packaging and memory supply, because limited capacity there has constrained shipments.
A newer node is not automatically better. It costs more, and a design on an older node can be the right choice for a lower-cost product.
Software stack
Software often decides whether a chip succeeds. Customers need compilers, libraries, and support for frameworks such as PyTorch. They need debugging tools and documentation.
Ask how much work it takes to run an existing model. A chip that needs a team to rewrite code is a harder sell than one that runs a model with a few changes. NVIDIA's CUDA ecosystem is the benchmark every challenger is measured against.
Look for public documentation, open-source code and independent developers using the tools. Their absence is informative.
Memory and interconnect
Peak compute is the easiest figure to quote and often the least useful. Look instead at memory capacity, memory bandwidth, and the speed of links between chips.
For language models, memory bandwidth and capacity frequently set real-world speed. Our guide to the memory wall explains why. For large systems, the network between chips matters just as much.
Customers and revenue
Separate real deployment from interest. A named customer running a product in production is strong evidence. Phrases such as engaged with, evaluating, or letter of intent are weak.
Check customer concentration. A company that depends on one buyer carries more risk than one with several. Check whether the revenue comes from chips, from services, or from licensing designs, since these are different businesses.
For public companies, read the filings. Filings carry legal liability for false statements, and press releases carry much less.
Funding and finances
Look at how much money was raised, when, and from whom. Funding from experienced chip investors or strategic partners carries information. A large headline round shows investor appetite, not a working product.
Chips are capital intensive. A single advanced-node tape-out can cost tens of millions of dollars or more, and a company needs enough runway for several iterations. Ask how long the money lasts at the current spending rate.
Treat valuations as opinions about the future, not as measures of technical progress.
Tape-out status
Tape-out is the point at which a finished chip design is sent to a factory to be made. After that, the first chips come back after a wait of typically a few months. Engineers then test them in a stage called bring-up. Later come validation and then volume production.
These stages are very different. A simulation, an FPGA prototype and a test chip are not a product. Ask whether silicon exists, whether it works at the claimed speed, and whether it is in volume production. Delays are common, and a second tape-out to fix problems is not unusual.
What to be sceptical about
Be careful with the following claims.
Benchmarks against an old chip, or at a different numerical precision, are not fair comparisons. Results quoted as up to a given multiple are best cases. Performance per watt is meaningless without saying what workload and what power boundary, chip or full system, were used.
Peak figures that assume the chip is fully used rarely hold in practice. Results for an unusually sparse model, or an unusually small one, may not transfer to your workload.
Roadmaps that keep moving, and announcements of partnerships that never turn into revenue, are common warning signs. So is a lack of independent results. MLPerf entries, third-party tests and customer references all help.
A short checklist
Does working silicon exist? Who makes it? What is the delivered speed on a real model? Can an engineer run PyTorch code on it? Who is paying for it today? How long does the funding last? Who are the founders, and have they shipped chips before?
The company pages on Compute Compass list funding, founding year, location and technology tags, which is a starting point for these questions. Always check primary sources before relying on a figure.
Companies mentioned
- NVIDIA NVIDIA designs GPUs, CPUs, DPUs and networking products such as NVLink, InfiniBand and Ethernet, and develops the CUDA software platform that runs on its GPUs. Its Data Center products are widely used for AI training and inference, and it also sells GeForce graphics cards for gaming and RTX workstation GPUs. NVIDIA is fabless. Foundries such as TSMC make its wafers, memory comes from suppliers including SK hynix, Micron and Samsung, and partners handle assembly and packaging. The company was incorporated in 1993 and is based in Santa Clara, California.
- Cerebras Systems Cerebras Systems builds AI processors around the Wafer-Scale Engine, a single chip made from an entire silicon wafer rather than a cut die. The third generation, WSE-3, powers the company's CS-3 systems, which it sells for on-premises use and also offers as cloud inference and training services. Cerebras is headquartered in Sunnyvale, California. It listed on Nasdaq under the ticker CBRS on May 14, 2026, after pricing its initial public offering at $185 per share.
- Groq Groq designs the Language Processing Unit, or LPU, an inference chip built for fast, predictable execution of AI language models, and runs GroqCloud, a hosted inference service for developers. In December 2025 Groq announced a non-exclusive licensing agreement with NVIDIA for its inference technology, and founder Jonathan Ross and president Sunny Madra joined NVIDIA. Groq remains a separate company, with GroqCloud continuing to operate under new chief executive Simon Edwards. The deal value was reported by CNBC at about $20 billion and was not confirmed by the companies.
- Tenstorrent Tenstorrent designs AI processors and licenses RISC-V and AI intellectual property to customers building their own silicon. Its Wormhole and Blackhole accelerator cards are built around Tensix compute cores, and Blackhole adds on-die RISC-V cores for orchestration without a separate host processor. The company also sells developer systems such as the TT-QuietBox and larger Galaxy servers. Tenstorrent is led by chip architect Jim Keller and emphasizes open-source software and the royalty-free RISC-V instruction set.
- SambaNova SambaNova Systems builds AI inference hardware and software based on its Reconfigurable Dataflow Unit, or RDU, a chip architecture that maps neural network operations directly onto the processor. Its products include the SN40L, announced in 2023 and made by TSMC, and the SN50, with a three-tier memory design. The company sells systems and offers cloud access through SambaCloud. SambaNova is headquartered in Palo Alto, California, and announced a multi-year collaboration and strategic investment with Intel in 2026 after earlier acquisition reports.
- Graphcore Graphcore is a British AI chip designer known for the Intelligence Processing Unit, or IPU, a processor with large on-chip memory built for machine learning workloads. Its headquarters are in Bristol, England, and it also has offices in Cambridge, London, Gdansk and Hsinchu. SoftBank Group acquired Graphcore in July 2024, and it now operates as a wholly owned subsidiary under its existing name. Reported purchase prices varied between sources, and the company disputed one widely cited figure.
- TSMC TSMC is a pure-play semiconductor foundry, meaning it manufactures chips for other companies and does not sell chips under its own brand. Its customers include designers of CPUs, GPUs, smartphone processors and AI accelerators, and it also offers advanced packaging services under the 3DFabric name. In 2025 it reported making over 12,000 products for 534 customers. It sits between chip designers and system makers in the supply chain. TSMC was founded in 1987 by Morris Chang and is headquartered in Hsinchu, Taiwan.
- ASML ASML designs and builds lithography machines, the equipment chipmakers use to print circuit patterns onto silicon wafers. Its product range covers EUV and DUV lithography systems, metrology and inspection tools, and computational lithography software. It sells to chip manufacturers and does not make chips itself, so it sits upstream of foundries and memory makers in the supply chain. ASML was founded in 1984, has its global headquarters in Veldhoven, the Netherlands, and reports more than 44,000 employees.
- Etched Etched designs Sohu, a chip built only for transformer models, the neural network type behind most large language models. A GPU is flexible and carries circuitry for many kinds of workloads. By fixing the design around the transformer, Etched aims to spend more of the chip on useful arithmetic, at the cost of being unable to run many other model types. Etched was founded in 2022 by Gavin Uberti, Chris Zhu and Robert Wachen, and the company says Sohu is made on TSMC 4nm.
- d-Matrix d-Matrix, based in Santa Clara, California, designs chips for running trained AI models, a task known as inference. Its approach is digital in-memory compute, which places arithmetic circuits inside the memory that holds the model data, so less time and energy goes on moving data back and forth. Its Corsair product is a PCIe accelerator card carrying two such chips, each with on-chip SRAM, and it does not rely on costly high bandwidth memory. Corsair was unveiled in November 2024, and Sid Sheth is cofounder and chief executive.
Company details come from the Compute Compass directory and may be out of date. This is not investment advice.