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We Are

Quantum X Labs

Multi Domain Quantum Technology Frontiers
Israeli expertise. Global quantum ambition.
Advancing cold-atom quantum technologies through physics, AI and engineering.
Quantum computing and error correction, quantum sensing and precision timing, quantum applications and quantum cybersecurity.
The company's broad spectrum of developments and technologies enables it to be part of various quantum markets, end users and opportunities.
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Who we are

Israeli expertise.
Global quantum ambition.

An Israeli multi-disciplinary quantum technology company. We build, own and commercialise cold-atom quantum technologies — advancing the science, securing the IP and turning it into real-world impact across defence, industry, medicine and critical infrastructure.

Our goal: to be a significant and integral force in the quantum revolution — shaping the technologies that will define how humanity computes, communicates, navigates and secures its future.

0Professors, PhDs & experts
0Patent applications pendingComputing · sensing · applications · security
0Physical qubits on the neutral-atom platformLaunched May 2026
0Solution areas, one teamPhysics · AI · engineering

Solutions

Our Solutions

From neutral-atom hardware and AI-assisted error correction to sensing, timing, applications and security — what we build, and where it stands.

Platform launched · May 2026

Quantum Computing

A neutral-atom platform: laser-cooled atoms in reconfigurable optical tweezer arrays, 50+ physical qubits.

Explore computing

Benchmarked · CUDA-Q QEC

Quantum Error Correction

AI-assisted decoding: a patented, code-agnostic machine-learning decoder, benchmarked on real hardware data.

Explore error correction

Prototype · proof-of-concept

Quantum Applications

Hybrid quantum-classical algorithms for simulation, sampling and complex data — Nuclear Quantum and CliniQuantum.

Explore applications

Validated on IBM hardware · Oct 2026

Quantum Cybersecurity

QuantumQ Security: detect, encrypt, verify — security building blocks grounded in quantum physics.

Explore security

In development · patent pending

Quantum Sensing & Timing

Rotation sensing without moving parts, and a compact rubidium atomic clock for precision timing.

Core Products — cold-atom components for labs and hardware teams: atomic sources, 2D MOT, Zeeman slowers.

Products Catalog

Industries

Industries we build for

Where our work meets a concrete need. Unless a result is stated, these are potential applications.

Defense & Aerospace

Navigation and timing when GNSS is denied or jammed.

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Healthcare & Life Sciences

Clinical trial data analysis that finds the responders averages miss.

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Nuclear Energy & Engineering

Fewer samples for the same precision in particle-transport simulation.

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Telecommunications & Critical Infrastructure

Precision timing for synchronising networks and grids — potential application.

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Cybersecurity & Secure Communications

Quantum-native detection, encryption and verification.

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Research & Advanced Computing

Cold-atom components and a code-agnostic QEC decoder for labs.

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Research & results

Quantum breakthroughs

Numbers from our published work. Each one links to its source — and says what it measures.

Partners & Collaborators

Partners, collaborators and ecosystem

Questions

Quantum, briefly

Short answers to the questions we are asked most — about the field, and about what we actually do.

What is a neutral-atom quantum computer?
A quantum computer whose qubits are individual atoms, laser-cooled and held in an array of optical tweezers. Our platform pairs that array with Rydberg-mediated two-qubit gates and an AI-assisted error-correction decoder.
Why does quantum error correction matter?
Qubits are noisy. Without error correction, large-scale quantum computation is impossible — and decoding the error data fast enough is the bottleneck. That is the problem our patented machine-learning decoder addresses.
What is a logical qubit?
Information encoded across many physical qubits so that defined errors can be detected and corrected. Logical qubits are what long, reliable programs run on; building toward them is the centre of our roadmap.
Is any of this quantum advantage?
Not yet, and we say so. Our published results come from simulators, GPU-accelerated workflows and hardware benchmarks. They validate methods; they are not a demonstration of quantum advantage.
What do your quantum sensors measure?
Rotation — a gyroscope based on atomic nuclei, and an optically read hemispherical resonator — and time, with a rubidium Ramsey-CPT atomic clock. Both are in development.
How do you work with partners?
Research collaboration, pilots on real problems, and cold-atom components for labs and hardware teams. Tell us the computation or measurement that is holding you back — we will say honestly whether our work applies. Explore a partnership.

Our Offices & Labs

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News & insights

Latest updates

Research notes and results from the team.

All blog postsIn the press

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