Superconducting Quantum Computing

Represents a breakthrough in solving complex computational challenges far beyond the capabilities of classical computers. Their ability to leverage quantum phenomena like superposition and entanglement has positioned them as a game-changer in industries like cryptography, materials science, drug discovery, and financial modeling.

SPINQ

Taurus™

Developed by SpinQ, the SpinQ Taurus embodies next-generation superconducting quantum computing. With long coherence times, high fidelity, and support for quantum error correction and parametric gates, we provide a scalable and reliable foundation for advanced quantum research and industrial applications. The platform supports up to 100+ superconducting qubits, enabling breakthroughs in biopharmaceuticals, materials science, FinTech, and AI. Designed for both academic innovation and industrial deployment, SpinQ Taurus accelerates the path toward practical quantum advantage.

Advantages

Superconducting QPU

SPINQ®

QPU C Series

The new-generation QPU C Series superconducting quantum chips adopt an enhanced 2D lattice topology, greatly improving qubit connectivity and scalability. The architecture supports high-density integration of up to 100+ superconducting qubits and provides native support for quantum error correction, enabling surface-code with code distance up to d = 7. This advancement establishes a robust physical foundation for conducting multi-level quantum error correction experiments and building fault-tolerant quantum computing architectures in future large-scale quantum systems.

Advantages

SPINQ® QCM  System

Quantum  Control

& Measurement System

The new-generation QPU C Series superconducting quantum chips adopt an enhanced 2D lattice topology, greatly improving qubit connectivity and scalability. The architecture supports high-density integration of up to 100+ superconducting qubits and provides native support for quantum error correction, enabling surface-code with code distance up to d = 7. This advancement establishes a robust physical foundation for conducting multi-level quantum error correction experiments and building fault-tolerant quantum computing architectures in future large-scale quantum systems.

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