The Bloomberg Terminal
of Quantum Compute

Fast gate speeds (tens to hundreds of nanoseconds), mature fabrication technology using standard semiconductor processes, and strong industry investment make this the most commercially advanced platform.

Exceptional gate fidelities (99.9%+), long coherence times (seconds to hours), and native all-to-all qubit connectivity eliminate the need for SWAP routing that limits other architectures.

Large qubit counts (100–10,000+ atoms in reconfigurable arrays), programmable connectivity via atom repositioning, and operation at room temperature (atoms laser-cooled to µK). Naturally suited to analog quantum simulation.

Operates at room temperature (no cryogenics required), photons travel at the speed of light with minimal decoherence, and photonic hardware is compatible with existing fiber-optic telecommunications infrastructure for quantum networking.

Topological protection could dramatically reduce the error rate per physical qubit, potentially enabling fault-tolerant quantum computing with far fewer physical qubits than other approaches.

Very large qubit counts (5000+ physical qubits), fast sampling times (~microseconds per anneal), and a well-developed software ecosystem (D-Wave Ocean SDK) optimized for combinatorial optimization problems in logistics, finance, and scheduling.