The world's first germanium quantum processor — CMOS-compatible, fault-tolerant, and ready for semiconductor manufacturing.
Germanium hole-spin qubits deliver the perfect combination of scalability, speed, and compatibility with existing semiconductor manufacturing processes. Unlike competing qubit platforms, germanium integrates directly into standard CMOS fab lines.
Groove Quantum leverages decades of semiconductor knowledge to define qubits using gate-defined quantum dots in germanium quantum wells. The same lithographic techniques used to make transistors are used to define qubits — making scale-up a matter of engineering, not physics.
Our devices are fabricated using industry-standard photolithography and epitaxial growth, enabling production at established semiconductor foundries. This foundry-compatible approach dramatically reduces time-to-market and cost compared to bespoke qubit fabrication methods.
Enable post-quantum encryption algorithms and quantum key distribution systems resilient to future attacks, securing critical infrastructure for governments and enterprises.
Simulate molecular interactions at quantum fidelity, accelerating drug design and reducing the cost of pharmaceutical R&D pipelines from years to months.
Solve complex optimization problems in energy systems, climate simulation, and materials science — at scales impossible for classical supercomputers.
Science, 2024 — Breakthrough demonstration of a 10-qubit germanium array achieving record gate fidelity benchmarks.
Read Paper →Nature Nanotechnology, 2023 — Demonstrating scalable qubit architectures compatible with multiplexed cryo-CMOS readout.
Read Paper →Nature, 2021 — First demonstration of a two-dimensional grid of germanium hole-spin qubits with coherent quantum operations.
Read Paper →Nature, 2020 — World's first germanium-based quantum processor, establishing the foundation for scalable spin-qubit computing.
Read Paper →Backed by leading deep-tech investors committed to quantum computing's future.
Germanium hole-spin qubits offer a compelling path to scalable quantum processors. We explain the physics and why it matters for real-world quantum advantage.
Read More →
How we leverage existing semiconductor foundry infrastructure to produce germanium qubit devices — and what this means for quantum computing's commercial future.
Read More →
A frank assessment of where different qubit platforms stand today — and why fidelity benchmarks matter more than raw qubit counts.
Read More →Partner with Groove Quantum to explore germanium qubit technology and shape the future of scalable quantum hardware.
Get in Touch