Nvidia turned a graphics processor into the engine of artificial intelligence. Its chips run the overwhelming majority of AI inference — the stage where a trained model answers a query instead of learning from data. Now a 19-person company in Eindhoven wants to do that job without a GPU at all.

On September 15, it raised more than €200 million. The company is Euclyd. Samsung co-led the round with Somerset Capital Partners, EQT's Scaleup Europe Fund and Innovation Industries. EIFO, imec.xpand, the Brabant Development Agency and Quadri also participated. At roughly $231 million, this is the largest European AI-inference chip round of 2026, and the biggest deeptech cheque the Scaleup Europe Fund has written.

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Inference, not training, is where the money is moving. Nearly all new AI compute is now bought to serve models, not to build them.

The bet is co-design: build the processor and the memory as one system, rather than sourcing the parts separately.

Nothing is proven yet. The first commercial silicon is scheduled for 2028, and the company books no product revenue today.
$231M Series A raise

Euclyd Series A, September 2026

Co-led by Samsung, EQT's Scaleup Europe Fund, Somerset Capital Partners and Innovation Industries. · Euclyd press release, 2026

What Euclyd is actually building

The company calls itself a semiconductor systems company, and the wording is deliberate. It is not selling a faster chip the way a challenger sells a faster car. It is rebuilding the vehicle around a different engine.

Two products sit on the roadmap. craftwerk is a programmable accelerator that the company describes as the first silicon designed for agentic AI — workloads where a model runs many steps, calls tools and holds state, rather than answering one prompt. CWS, or craftwerk station, is a rack-scale machine the company bills as the lowest-power exascale AI factory. Exascale means a computer capable of roughly a quintillion operations per second. The claim is less about peak speed than about how little electricity it takes to reach it.

The interesting engineering lies in the pairing. Most inference systems drop an off-the-shelf memory stack next to a compute die and hope the interconnect keeps up. The company designs both sides together, an approach known as processor-memory co-design. Data then moves less often, and each move costs less energy. That is where the efficiency argument comes from.

What does "agentic AI silicon" actually mean?

Agentic workloads split a task into many small steps. Each step calls memory, and each call burns power. Hardware tuned for single-shot answers wastes capacity on that pattern. craftwerk is aimed at the many-step case instead. · Euclyd, 2026

Why Samsung wrote the cheque

Samsung is the world's largest memory manufacturer, and for an inference startup that matters more than the cash. Memory bandwidth, not raw arithmetic, now sets the ceiling on how fast and how cheaply a model can serve requests. A partner who controls memory supply — and can also fabricate logic — removes two of the hardest bottlenecks a young chip company faces.

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What Samsung brings: memory supply at scale, foundry access, and a global systems network that reaches enterprise buyers it cannot reach alone.

CEO Bernardo Kastrup told CNBC that the investor knows the supply chain as well as the balance sheet. The subtext is allocation. In a market where the best memory is committed years in advance, a strategic backer is worth more than a larger cheque from a passive fund.

The company also recruited a chairman with unusual weight. Peter Wennink, the former president and chief executive of ASML, joined the board. ASML builds the lithography machines that make advanced chips possible, and Wennink spent a decade at the centre of Europe's semiconductor supply chain. His arrival signals that the company is pitching industrial execution, not a research paper.

The bottleneck is memory, not arithmetic

Every serious inference company tells a version of the same story. Models got large. Serving them got expensive. The expense is no longer dominated by the maths. It is dominated by shuttling weights and activations between memory and compute, and by the energy that shuttling consumes.

AI is becoming a foundation of economic growth, scientific discovery and national competitiveness, but its potential will remain constrained unless we fundamentally change the infrastructure beneath it.— Bernardo Kastrup, Founder and CEO, Euclyd

As we wrote in September, the inference bottleneck is memory, not compute. The company is selling that thesis as silicon: a system where memory and processor are designed as one. A second piece in our archive traced how inference spending overtook training across 2026. It is the latest company to raise against that thesis.

The moat still to cross

The case against is straightforward and well rehearsed. Nvidia's real advantage is not the chip. It is CUDA, the software layer a generation of engineers learned first, plus a supply chain that took twenty years to assemble. Hyperscalers — Google, Amazon, Meta — are building their own inference silicon with unlimited internal demand and no need to win external customers. The startup has neither a software moat nor captive demand. It has an architecture, a balance sheet and a theory.

ParameterNvidiaHyperscaler in-houseEuclyd
Software ecosystem ✔ CUDA, mature ◐ internal only ✗ unproven
Production scale ✔ shipping now ◐ ramping ✗ first silicon 2028
Memory strategy ◐ sourced ◐ sourced or co-packaged ✔ co-designed
External customers ✔ broad ✗ captive only ✗ none yet

Assessment based on company statements and public reporting, September 2026

Read the table one way and the company looks overmatched. Read it another and the picture narrows. On memory co-design — the single axis it chose — no listed competitor is optimised the same way. That is a beachhead, not a fortress. Beachheads can grow. Most do not.

The other variable is capital intensity. A startup that designs both chips and memory must fund two expensive disciplines at once before it has a customer. The €200 million buys roughly two years of runway at that burn, which is one product cycle in silicon. Miss the 2028 window and the money is gone. This is a bet that the architecture is not merely better but cheap enough to reach the market before the incumbents close the gap.

What would it take by 2028?

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By the close of 2028, the company will have shipped its first commercial craftwerk systems and disclosed at least one hyperscale or sovereign design win.

Probability: 40% — the technical premise is credible and the backers are real, but silicon schedules slip and an unproven architecture must earn its place against software that already works.

✅ Arguments for

Samsung aligns memory supply with silicon demand, shortening the hardest part of the timeline.

Sovereign AI programmes in Europe want an alternative to US supply, and the startup is European by design.

Inference, not training, is the faster-growing workload, which rewards hardware built for serving.

Confirmation criteria: a named design win with a hyperscaler, sovereign fund or large enterprise before end-2028.

❌ Arguments against

CUDA's installed base is a genuine switching cost, and co-design does not remove it.

Two years of runway is one silicon cycle. A single delay consumes it.

Hyperscalers can absorb years of losses on in-house chips that a venture-backed startup cannot.

Disconfirmation criteria: a slipped 2028 ship date, or a design win that never converts to volume.

Development scenarios

🟢 Optimistic scenario (25%)

craftwerk ships on time, one hyperscaler licenses the design, and cost-per-token claims survive independent testing.

Implications: the company becomes Europe's credible inference challenger and raises again at a steep step-up.

🟡 Base-case scenario (55%)

The first systems arrive late but work, and the company lands sovereign and private-datacenter customers rather than hyperscalers.

Implications: a viable niche business, but not yet a threat to Nvidia's core.

🔴 Pessimistic scenario (20%)

Tape-out slips into 2029, the round is consumed by engineering, and the next raise happens at a flat or down valuation.

Implications: the architecture survives as licensed intellectual property; the company does not survive as an independent systems vendor.
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Key signals to track

A named tape-out or foundry partner announcement before mid-2027.

The first independent benchmark of cost per token on craftwerk hardware.

Whether Samsung's memory allocation is contractual or merely strategic.

Any hyperscaler licensing its intellectual property instead of buying its systems.
Euclyd raises over €200 million to break the AI efficiency wall
The primary source: exact round size, co-lead investors, the craftwerk and CWS roadmap, and the appointment of Peter Wennink as chairman.
Company statements carry the technical claims; treat the performance figures as Euclyd's own until independently tested.
Samsung backs Nvidia AI chip rival in $230 million funding round
CEO Bernardo Kastrup on what Samsung adds beyond capital, and the 2028 shipping target for Euclyd's first systems.
The interview that framed the round as a challenge to Nvidia's inference dominance.
Dutch AI chip startup Euclyd raises $231 million co-led by Samsung
A concise account of the round and the two-product roadmap, with the efficiency-wall framing Euclyd is using to sell the platform.
Useful for readers tracking how data-center trade press reads the inference-silicon shift.