QuTech develops scalable prototypes of quantum computers and a secure quantum internet, leveraging the principles of quantum mechanics. By uniting scientists, engineers, and industry partners, the organization creates hardware and protocols that can be integrated into future computing and communication systems.
Funding
Funding not disclosed
Founders
Product
Problem
Current computing and communication systems are limited by classical hardware, which cannot efficiently solve certain complex problems or provide provably secure data transmission. Existing quantum technologies are still experimental, with fragile qubits, high error rates, and a lack of scalable architectures, preventing practical deployment in industry and society.
Solution
QuTech develops scalable prototypes of quantum computers and a secure quantum internet by advancing both hardware and software layers of the quantum computing stack. Their research focuses on spin qubits in quantum dots, superconducting qubits, and hybrid approaches such as fluxonium and Andreev spin qubits, aiming to achieve fault-tolerant operation through quantum error correction. In parallel, the Quantum Internet division creates a full control stack and networking protocols to enable quantum communication over long distances, including integration with existing telecom infrastructure and development of networked quantum computing. By collaborating with industry partners like Intel, IMEC, and specialized startups, QuTech translates laboratory breakthroughs into modular, cryogenic control electronics and scalable architectures that can be integrated into future computing and communication systems.
Target Audience
Primary customers are research institutions, technology companies, and government agencies seeking to adopt quantum computing or quantum‑secure communication capabilities, as well as industry partners developing large‑scale quantum hardware and networking solutions.
Features
- Development of modular spin‑qubit processors and superconducting logical qubits with built‑in error correction for fault‑tolerant operation
- Cryogenic integrated control and readout electronics placed close to qubits to reduce latency and heat load in large‑scale systems
- Full quantum computing control stack translating high‑level algorithms into low‑level pulse sequences for diverse qubit technologies
- Quantum internet prototype stack, including quantum key distribution and entanglement distribution compatible with existing telecom networks
- Collaborative projects with industry (e.g., Intel, IMEC, Quantware) to bridge academic research and industrial-scale manufacturing
- Demonstrator platforms such as Quantum Inspire and quantum‑link experiments showcasing end‑to‑end quantum communication