SAXON Q builds the world's leading NV center quantum systems, room-temperature, fab-compatible, and already in customers' hands.
NV center technology is the only quantum modality that runs at room temperature, scales through standard semiconductor fabrication, and embeds into real-world machines.
Operates without cryogenic cooling or dilution refrigerators — at a stable 293 K, in standard ambient environments.
Manufactured on existing CMOS semiconductor lines, bypassing the scaling bottlenecks of bespoke quantum fabs.
The only room-temperature quantum hardware delivered to clients like DLR — and demonstrated live, in public.
Our diamond chip holds billions of carbon atoms. We implant single nitrogen atoms into the lattice; each nitrogen, paired with a neighbouring vacancy, forms an NV qubit. Stable, precise, and operating at room temperature.
SAXON Q produces NV centers with very high yield and can place the qubits with 3 nm precision into the diamond. Why is that important? This allows qubit scalability without any limitation in number, structure and size.
SAXON Q can produce a wire on top of the implanted qubits for electrical control and readout. Why is that important? Electrical control and readout allow for better initialisation, enhanced qubit control and a smaller form factor.
Ion implantation and metal wiring are standard manufacturing processes of the semiconductor industry. Why is that important? The patented quantum-chip manufacturing methods can use equipment from standard semiconductor fabs.
Most quantum systems are built for the lab. SAXON Q builds quantum as a physical layer. Compact, room-temperature systems that move from the data centre to the edge.
From compute to capability, and from raw diamond to a working qubit chip, in four fab-line steps.
Single nitrogen atoms placed at lattice coordinates in synthetic diamond — sub-5 nm precision.
A vacuum furnace diffuses carbon vacancies until they bond with nitrogen, forming stable NV centers.
Standard CMOS lithography integrates transparent coplanar microwave waveguides and control gates.
Spin states are initialised and read out optically, then steered with microwave-frequency gates.
Other systems must be cooled to −273 °C (near absolute zero) on vibration-isolated optical tables. SAXON Q runs at room temperature from a standard outlet, so quantum can finally leave the lab.
Pioneer of mobile room-temperature quantum computing. Live with first customers.
GPU-sized and data-centre ready. SXQ 128 orderable today with 3-month delivery; SXQ 512 from Q2 2027.
A single, embeddable chip with 10,000+ qubits at semiconductor cost.
Beyond conventional quantum-computing use-cases, SAXON Q takes on billion-dollar quantum markets that require both a small form factor and low energy demand.
Where it goesOn-board, real-time optimisation and sensing with no latency.
In-vehicle route, battery and materials computation.
Navigation and simulation where size and power are constrained.
Quantum acceleration co-located with data, not a remote cryo-lab.
Secure, portable compute deployable in the field.
The mobile quantum computer moves even closer to users — the team at the Bechtle competence centre is now certified to deploy SAXON Q systems.
Read article April 2026Philosopher and deep-tech investor Anders Indset joins SAXON Q as a shareholder.
Read article April 2026Third generation of the mobile quantum computer with two processors presented live at Hannover Messe — scalable and room-temperature capable.
Read articleOrder a system, reserve the roadmap, or talk to the team in Leipzig.
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