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We Are

Quantum X Labs

Multi Domain Quantum Technology Frontiers
Israeli expertise. Global quantum ambition.
Quantum computing and error correction, quantum sensing and precision timing, quantum applications and quantum cybersecurity.
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Who we are

Building Israel’s cold-atom quantum future.

Bringing together expertise in atomic physics, precision engineering and AI to develop practical quantum technologies.

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.

20+Professors, PhDs & experts
8Patent applications pendingComputing · sensing · applications · security
50+Physical qubits on the neutral-atom platformLaunched May 2026
5Solution areas, one teamPhysics · AI · engineering

Solutions

Our Solutions

One neutral-atom platform and the technologies around it: computing, AI-assisted error correction, applications, cybersecurity, sensing and precision timing. Choose an area to jump to it.

Platform launched · May 2026

Quantum Computing

A neutral-atom quantum computing platform: laser-cooled atoms held in reconfigurable optical tweezer arrays, with 50+ physical qubits and native Rydberg-mediated two-qubit gates.

Explore cold-atom computing →

Benchmarked · NVIDIA CUDA-Q QEC

Quantum Error Correction

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

Explore error correction →

Prototype · proof-of-concept

Quantum Applications

CliniQuantum · Nuclear Quantum

Hybrid quantum-classical algorithms for simulation, sampling and complex data analysis.

Explore applications →

Validated on IBM hardware · Oct 2026

Quantum Cybersecurity

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

Explore cybersecurity →

Core Products — cold-atom components for labs and hardware teams: compact 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.

Quantum sensing →

Healthcare & Life Sciences

Clinical trial data analysis that finds the responders averages miss.

CliniQuantum →

Nuclear Energy & Engineering

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

Nuclear Quantum →

Telecommunications & Critical Infrastructure

Precision timing for synchronising networks and grids.

Potential application

Atomic clock →

Cybersecurity & Secure Communications

Quantum-native detection, encryption and verification.

QuantumQ Security →

Research & Advanced Computing

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

Core Products →

Finance

Explore quantum and hybrid approaches to complex optimization and risk problems — portfolio optimization, risk modeling and scenario analysis, benchmarked against classical baselines.

Exploratory · potential application

Quantum applications →

Your sector is not listed?

Tell us the computation or measurement that is holding you back.

Talk to us →

Research & results

Quantum breakthroughs

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

Roadmap

From physics to logical qubits

Where the neutral-atom platform stands today, and the targets we are building toward.

  1. 2026Achieved

    50+ physical qubits on the neutral-atom platform, with native Rydberg two-qubit gates.

  2. 2027One of Israel’s largest cold-atom labs

    ~2 logical qubits · hundreds of physical qubits.

  3. 2029Error-corrected computing

    ~100 logical qubits · thousands of physical qubits.

  4. 2030Full fault-tolerant scale-up

    ~700–800 logical qubits · ~100,000 physical qubits.

See the roadmap

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

Contact

Talk to the team

Partnerships, sales, research collaboration or a general question — one form, straight to the team.