Pasqal develops quantum processors that use ordered neutral atoms arranged in two‑dimensional and three‑dimensional arrays, enabling scalable quantum computing hardware. Their technology leverages precise atom‑by‑atom control to deliver high‑fidelity quantum operations for research and industry applications.
Funding
Funding not disclosed
Founders
Product
Problem
Current quantum computing hardware faces limitations in scalability, coherence, and gate fidelity, making it difficult for researchers and industry to run large‑scale quantum algorithms reliably. Existing platforms often rely on superconducting circuits or trapped ions, which can be complex to scale to higher qubit counts while maintaining precise control. These constraints hinder progress toward practical quantum advantage in fields such as chemistry, materials science, and optimization.
Solution
Pasqal addresses these challenges by building quantum processors that trap neutral atoms in ordered two‑dimensional and three‑dimensional arrays. Using optical tweezers and laser‑based manipulation, the platform achieves atom‑by‑atom positioning and deterministic loading, enabling deterministic scaling of qubit numbers. The neutral‑atom approach provides intrinsically long coherence times and allows high‑fidelity entangling gates mediated by Rydberg interactions. Pasqal’s hardware integrates with a software stack that translates quantum algorithms into native pulse sequences, facilitating rapid experimentation and deployment. By offering a modular architecture, the system can be expanded without major redesign, supporting both academic research and industrial quantum‑computing workloads.
Target Audience
Primary customers are quantum research institutions, corporate R&D labs, and enterprises seeking to run quantum simulations or optimization tasks that require high‑fidelity, scalable quantum processors.
Features
- Ordered neutral‑atom arrays configurable in 2D and 3D geometries for flexible qubit connectivity
- Atom‑by‑atom optical tweezer control enabling deterministic loading and reconfiguration of qubits
- High‑fidelity Rydberg‑mediated entangling gates with coherence times suitable for deep circuit execution
- Scalable modular hardware design that allows incremental addition of qubits while preserving performance
- Integrated software toolchain that compiles high‑level quantum programs into hardware‑native pulse schedules
- Real‑time calibration and error mitigation routines to maintain gate accuracy across large arrays