Sqale 30 LQ
- 30 Logical Qubits
- 4,000 Physical Qubits
- Optimized compilation of fault-tolerant circuit
- Individual qubit addressing and dynamic reconfigurability
Gate Performance
99.90%
Neutral Atom Control and Circuit Optimization
Sqale combines precise neutral atom control with full-stack software optimization to improve circuit speed for real-world applications, not simply increase qubit count.
Current systems pair 100+ physical qubits with all-to-all connectivity, individual gate addressing, and logical qubit operation at the application level.
Neutral Atoms Built to Scale
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Naturally identical atoms support consistent qubit behavior.
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Atom motion enables all-to-all connectivity with less routing overhead.
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Long coherence times support stable execution and error-corrected workflows.
Roadmap Highlights
Sqale Roadmap
Each generation builds on the same neutral atom platform, combining larger logical workloads, stronger error correction, and deeper hardware-software integration. Roadmap figures updated September 2025.
Explore Roadmap
Sqale 100 LQ
- 100 Logical Qubits
- 10,000 Physical Qubits
- Exponential speed-up demonstration
- Real-time atom reloading
Gate Performance
99.95%
Sqale 1,000 LQ
- 1,000 Logical Qubits
- 100,000 Physical Qubits
- Soft decoding enhancement
- Large-scale advanced photonic beaming
Gate Performance
99.99%+
Integrated Photonics
Scaling with Chip-Scale Light
Scaling neutral atom QPUs to thousands of qubits demands precise laser control. Infleqtion is integrating chip-scale photonics to boost performance while reducing size, weight, and power.
Learn About Integrated Photonics
Specifications
Sqale Specifications and Planned Capabilities
Compare today's system with the next planned generation.
| Specification | Available now | Upcoming (2027) |
|---|---|---|
| On-premises | Available now | Pre-order |
| Cloud access | Private beta | Expected |
| Physical qubits | 100+ | 500+ |
| Logical qubits | 30 | 50+ with error detection |
| Representative CZ fidelity | 98.8% raw; 99.48% post-selected | 99.6% |
| Local Rz fidelity | 99.9% | 99.9%+ |
| Global R(theta, phi) fidelity | 99.98% | 99.98%+ |
| Connectivity | All-to-all | All-to-all |
| Mid-circuit measurement and feedback | No | Yes |
| Individual Gate Addressing | Yes | Yes |
| Parallel Gate Addressing | No | Yes |
| QEC cycle time | N/A | O(ms) |
Deployments
Sqale in the Real World
From national testbeds to hybrid computing infrastructure.
- UK NQCC: An operational 100-physical-qubit Sqale system for benchmarking, application research, and skills development.
- IQMP: A fault-tolerant Sqale system planned for 2027, advancing utility-scale quantum computing in Illinois.
- NVIDIA NVQLink: Real-time integration connects Sqale with GPU-accelerated computing for hybrid workflows.
NVIDIA NVQLink unites quantum processors and control systems with NVIDIA AI supercomputing, delivering a turnkey solution for integrating and scaling quantum hardware. Through its NVQLink deployment, Infleqtion is scaling quantum computing access in support of a new ecosystem of hybrid quantum-classical applications.”
Applications
Build What Matters
Build quantum methods beyond classical limits.
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National Security
Explore National SecurityDevelop methods for cryptography, logistics, optimization, and secure, resilient computing in mission-critical environments.
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Energy
Explore EnergyInvestigate grid optimization, resource planning, and quantum simulation for more resilient, efficient energy systems.
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AI and ML
Explore AI and MLExplore quantum-accelerated learning and quantum-inspired models for long-context, signal-processing, and pattern-recognition tasks.
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Materials Science
Explore Materials ScienceModel strongly correlated systems and explore pathways to better batteries, photovoltaics, superconductors, and industrial materials.
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Life Sciences
Explore Life SciencesAdvance molecular modeling, biomarker discovery, genomics, and computational workflows for drug discovery and precision medicine.
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Finance
Explore FinanceResearch portfolio optimization, risk modeling, and resource-efficient error correction for high-value financial workloads.
More Solutions
Extend Your Workflow
Connect Sqale to software and explore neutral atom building blocks from the same platform. Shared physics, photonics, controls, engineering, and software accelerate progress across the stack.
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Explore SuperstaqSuperstaq Quantum Software
Compile, optimize, and execute quantum workloads through open-source Cirq and Qiskit frontends, with hardware-aware performance across the stack.
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Explore Quantum CoresQuantum Cores
Build and scale neutral atom experiments with field-proven vacuum, trapping, control, and photonics components from Infleqtion.
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Explore CMLContextual Machine Learning
Architectures that bring quantum-derived approaches to long-context machine learning on today's GPU infrastructure.
Frequently Asked Questions
Infleqtion builds Sqale, a full-stack quantum computing platform based on neutral atom qubits. The system uses lasers to trap, arrange, control, and measure individual atoms, while Infleqtion’s Superstaq software translates applications into operations optimized for the hardware. The architecture is designed to support scalable error correction and useful logical qubit applications.
Neutral atoms are identical by nature, so they do not require fabrication one qubit at a time. They can be arranged in large, reconfigurable arrays and controlled with light, giving developers flexibility in qubit connectivity and circuit design. Infleqtion combines these properties with individual optical addressing, high-fidelity gates, and a systems approach spanning hardware, controls, and software.
Sqale is built for quantum application research and development in areas where classical computing can struggle with complex interactions or enormous search spaces. Priority areas include materials science, energy-system optimization, AI and machine learning, life sciences, national security, and finance. Many projects use hybrid workflows that combine quantum processors with GPUs, high-performance computing, and domain software.
Yes. In September 2026, Infleqtion announced it had demonstrated 30 entangled logical qubits using 80 physical qubits on its Sqale neutral atom quantum computer, achieving its 2026 logical qubit roadmap milestone. The demonstration incorporated error detection and atom-loss correction, building on earlier results with 12 error-detected logical qubits and four loss-corrected logical qubits. Future roadmap targets include 100-plus logical qubits in 2028 and 1,000-plus logical qubit memories in 2030. Explore the Roadmap.
Organizations can engage Infleqtion for on-premises systems, application research, and collaborative development. Superstaq provides a common software layer for preparing and optimizing workloads across Infleqtion and supported third-party hardware. Availability, system configuration, access terms, and project scope depend on the program, so prospective users should contact Infleqtion to discuss their workload and deployment needs.
Put Sqale to Work on Hard Problems
Plan access, deployment, or co-development.