Error correction
Prototype validatedLogical qubits are the core path from noisy devices to useful systems.
Roadmaps now track logical error rates instead of raw qubit count.
Industry detail
Multiple hardware approaches are converging on error correction, control systems, and cloud access.
Industry system
Dependencies, demand, capabilities, companies, milestones, and evidence in one workspace.
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Stage
Prototype
Companies
9
Milestones
4
Global axes
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Full records
Capabilities, milestones, participants, evidence, and live source checks remain available after the connected view.
Capability map
The main technical capabilities that define progress in this industry.
Logical qubits are the core path from noisy devices to useful systems.
Roadmaps now track logical error rates instead of raw qubit count.
Control electronics must scale without overwhelming cooling budgets.
Hardware stacks are consolidating around manufacturable modules.
Entanglement links are an early layer for distributed quantum systems.
Metropolitan testbeds are connecting labs and telecom assets.
Compilers and error mitigation shape what near-term machines can do.
Cloud access is turning prototypes into shared development platforms.
Free API layer
Public APIs expand the research graph while preserving neutral analytical framing.
Recent milestones
Observable events tied to capabilities, companies, and sources.
Cloud delivery plans make fault-tolerant quantum computing easier to connect with real developer workflows and enterprise pilots.
Evidence
Logical-qubit demonstrations tied to practical workloads move the benchmark beyond raw qubit counts.
Evidence
Error correction is the bridge from noisy prototypes to reliable computation.
Evidence
Progress is increasingly measured by useful circuit depth and logical qubits.
Evidence
| Date | Milestone | Capability | Related | Evidence |
|---|---|---|---|---|
| Jun 15, 2026 | QuEra and AWS announce cloud fault-tolerant quantum roadmapCloud delivery plans make fault-tolerant quantum computing easier to connect with real developer workflows and enterprise pilots. Quantum Computing | Error correction | ||
| May 21, 2026 | Pasqal demonstrates logical qubits on differential-equation workloadsLogical-qubit demonstrations tied to practical workloads move the benchmark beyond raw qubit counts. Quantum Computing | Error correction | ||
| Apr 3, 2024 | Logical-qubit demonstrations improve error-rate benchmarksError correction is the bridge from noisy prototypes to reliable computation. Quantum Computing | Error correction | ||
| Dec 4, 2023 | Quantum roadmap shifts emphasis toward modular systems and error correctionProgress is increasingly measured by useful circuit depth and logical qubits. Quantum Computing | Error correction |
Related participants
Public companies, smaller public companies, private/startup participants, and research institutions.
Companies directly tied to the sector's capabilities, products, or supply stack.
Quantum systems and cloud platform
Neutral-atom quantum hardware
Quantum hardware and software
Neutral-atom quantum hardware
Photonic quantum hardware
Photonic quantum platform
Trapped-ion quantum hardware
Superconducting quantum hardware
Large platforms, customers, or infrastructure players that explain why the field matters.
Institutions and programs that support the technology path.
Small-cap public
Trapped-ion quantum hardware
Small-cap public
Superconducting quantum hardware
Private
Photonic quantum hardware
Private
Quantum hardware and software
Private
Neutral-atom quantum hardware
Private
Neutral-atom quantum hardware
Startup
Photonic quantum platform
Evidence
Signals and milestones remain traceable as provider data expands the research graph.