PlanQC builds digital quantum computers that use neutral‑atom qubits trapped in optical lattices, offering room‑temperature operation, long coherence times, and fast, high‑fidelity gates. Their full‑stack solution combines scalable hardware, algorithms, and software to deliver quantum‑accelerated computing for enterprises, research institutions, and government agencies in data‑center‑ready on‑premise, cloud, or hybrid HPC configurations.
Funding
$32.5M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
4OCHDCFounders
Product
Problem
Current quantum computing platforms rely on technologies that face scalability limits, require complex cryogenic infrastructure, and suffer from variability in qubit performance, hindering the deployment of large, reliable quantum systems for industrial and scientific applications.
Solution
PlanQC builds digital quantum computers using neutral atoms as qubits, which are naturally identical and free from fabrication defects. The atoms are trapped in optical lattices and manipulated with laser-driven Rydberg gates, providing fast, high-fidelity two‑qubit operations and coherence times of several seconds. Because neutral‑atom arrays can be arranged in 1D, 2D or 3D configurations, the architecture scales from hundreds to potentially millions of qubits without architectural bottlenecks. The systems operate at room temperature with low energy consumption, allowing integration into standard data‑center environments as on‑premise hardware, cloud services, or hybrid HPC solutions. This full‑stack approach combines hardware, algorithms, and software to deliver quantum‑accelerated solutions for industry, science, and society.
Target Audience
Primary customers are enterprises, research institutions, and government agencies seeking quantum‑accelerated computing for tasks such as materials discovery, optimization, and advanced simulation.
Features
- Identical neutral‑atom qubits that eliminate fabrication variability
- Scalable architecture capable of expanding from hundreds to millions of qubits
- Flexible connectivity via configurable 1D, 2D, or 3D atom arrays
- Fast Rydberg‑mediated two‑qubit gates driven by laser light
- Extreme coherence times of several seconds for reliable quantum information storage
- Room‑temperature operation with no cryogenic requirements
- Energy‑efficient laser cooling and compact hardware design
- Data‑center‑ready form factor for seamless integration with existing IT infrastructure