Our high-performance, trapped-ion quantum computers are engineered to drive value for your business from day one. Powered by our proprietary Electronic Qubit Control technology, Oxford Ionics quantum computers deliver unparalleled performance, seamless integration, and field-upgradeable architecture. This fundamental technology is manufactured via the existing semiconductor supply chain, making it inherently scalable and allowing our customers to benefit from access to increased compute power at unprecedented speed. 

Whether you’re exploring early applications or scaling to production workloads, our systems evolve with your organisation – ensuring your business remains at the very forefront of quantum innovation.

Key features

Ultra-high fidelity qubits

Our trapped-ion qubits have record-breaking performance in all key quantum computing metrics, including 99.99% two-qubit fidelity, drastically reducing error correction overheads and unlocking value sooner.

Field-upgradable systems

Oxford Ionics’ quantum computers can be upgraded to the highest performing systems by swapping out the credit-card-sized Quantum Processor Unit (QPU) – keeping your business at the cutting edge.

Ultra-low cross-talk parallel gates

Modular, unit-cell based architecture means we can run many gates in parallel with no effect on neighbouring operations. Running operations in parallel, rather than sequentially, dramatically reduces time to solution and increases algorithm efficiency.

All-to-all connectivity

Our flexible QPU architecture enables all-to-all qubit connectivity, vastly increasing algorithm efficiency and enabling a wider array of Quantum Error Correction (QEC) protocols.

Mid-circuit measurement

Feed-forward by mid-circuit measurement supports Quantum Error Correction (QEC) protocols and unlocks multiple applications, including quantum-classical algorithms.

Highly automated

Our technology minimises physical upkeep requirements and is self-calibrating, delivering ultra-stable, highly automated turnkey quantum computers designed to maximise uptime.

A powerful roadmap to scalable fault-tolerant quantum computing Learn more

Use cases

Unlock the power of quantum Shaping the future for every user

Whether conducting crucial early research or groundbreaking algorithm development, our quantum computers empower universities and national laboratories to explore complex problems beyond the reach of classical computing. By leveraging our high-performance quantum computers, researchers can experiment with cutting-edge quantum architectures, validate theoretical models, and train the next generation of scientists in quantum technologies.

Quantum computers are a crucial technology for government institutions, addressing key national priorities like digital security, climate modelling, and infrastructure optimisation. Oxford Ionics’ quantum computers can enable government agencies to simulate complex physical systems, strengthen cybersecurity defences, and accelerate breakthroughs in materials science and energy research – driving national innovation, security, and digital sovereignty.

With seamless integration into existing data centres, Oxford Ionics quantum computers help HPC customers extend their capabilities beyond classical computing to tackle problems such as advanced machine learning, material modelling, engineering simulation, and large-scale optimisation. By leveraging our quantum computers alongside traditional supercomputers, HPC facilities can accelerate time-to-solution for complex workloads, reduce energy consumption for certain tasks, and offer cutting-edge computational services for their clients.

Quantum computing will pave the way for enterprises to develop fundamental, cutting-edge innovations across a range of industries, including financial services, pharmaceuticals, engineering, and manufacturing. By deploying Oxford Ionics quantum computers today, enterprises can become quantum-ready, gaining a competitive advantage through faster insights, earlier exploration of new product and service offerings, and a head start on integrating this transformative and inevitable technology.

Case studies

UK National Quantum Computing Centre

In 2025, we deployed a quantum computer called QUARTET to the UK’s National Quantum Computing Centre (NQCC). The NQCC is the UK’s National centre for quantum computing, focused on enabling the adoption of quantum computing technology across industry, academia, and government.

QUARTET is a full-stack, trapped-ion quantum computer that leverages Oxford Ionics’ proprietary Electronic Qubit Control technology. Quartet will be used for applications and use case research, as part of the NQCC’s flagship SparQ program, aimed at accelerating the adoption of quantum technology across UK enterprises.
Find out more

Cyberagentur

Oxford Ionics is developing a state-of-the-art mobile quantum computer for Agentur für Innovation in der Cybersicherheit GmbH, or 'Cyberagentur'. Founded by the German Federal Government, Cyberagentur aims to progress research and innovation in the field of cybersecurity to promote the country’s internal and external security.

Cyberagentur will use Oxford Ionics’ portable quantum computer, called Mini-Q, for application development in national security and defence. Oxford Ionics is uniquely positioned in the industry to deliver a mobile quantum computer owing to its ability to integrate everything required to trap and control its qubits onto a standard thumbnail-sized chip.
Find out more

DARPA Quantum Benchmarking Initiative

With a long history of backing transformational advances, DARPA is the United States’ primary research and development agency focused on identifying cutting-edge technologies with the potential for national security applications. Through its Quantum Benchmarking Initiative, the agency has solicited innovative approaches to constructing utility-scale fault-tolerant quantum computers.

Oxford Ionics was selected by DARPA to advance to the first round of its QBI program after showing DARPA its existing technology capabilities and its clear roadmap towards fault-tolerant quantum computers. Its proposed approach rests on three crucial pillars: unmatched operation fidelities, unparalleled scalability, and built using technologies that exist today.
Find out more