Core Mission & Overview

The Many Quanta Lab designs and builds scalable quantum systems composed of individual atomic qubits and photons. By developing programmable arrays of neutral atoms, the seeks to advance next-generation quantum computing, simulation, and high-precision quantum sensing.

Research Domains

• Quantum Computation and Simulation: Building programmable neutral-atom arrays where mid-circuit measurements are combined with unitary circuits and higher-dimensional encodings (qudits) to realize scalable quantum processors and simulate novel phases of matter.
• Quantum Metrology: Developing advanced neutral-atom sensors and optical-clock qubits in tweezer arrays, leveraging entanglement and state-of-the-art measurement protocols to push the boundaries of sensing precision.
• Novel Light-Matter Interfaces: Creating efficient interfaces that couple atoms and photons to enable efficient quantum networks, robust photon-photon interactions, and rapid, non-destructive quantum measurements.

Capabilities

• Neutral-Atom Tweezer Arrays: Advanced optical hardware setups for the high-fidelity trapping, manipulation, and local control of individual atomic qubits.
• Multi-Dimensional Qudit Control: Theoretical and experimental frameworks for robust quantum control and entanglement using higher-dimensional atomic states (qudits) rather than standard qubits.
• Fast Quantum Measurement Systems: Scalable techniques for high-speed, non-destructive readouts of atomic states, utilizing specialized ancilla-based architectures and multi-atom gates.
• Coherent Atom-Photon Devices: Engineering dielectric devices and atomic quantum memories based on electromagnetically induced transparency for efficient single-photon generation.

Industry Collaboration & Opportunities

• Scalable Quantum Computing Hardware: Partnering with technology leaders to develop and commercialize neutral-atom quantum processors with multi-dimensional qudit encoding capabilities.
• High-Precision Quantum Sensing & Metrology: Collaborating with defense, aerospace, and navigation industries to integrate high-accuracy tweezer clocks and quantum-enhanced sensors into next-generation positioning and timing systems.
• Quantum Networking Components: Working with telecommunication and cyber-security companies to develop robust atomic quantum memories and interfaces for secure quantum communication networks.
• Potential Market Segments: Quantum Computing & Simulation, Quantum Communication & Cryptography, Aerospace & Defense (Precision Sensing), and Optical Devices.

Selected Publications

• Universal quantum operations and ancilla-based read-out for tweezer clocks (Nature, 2024) – Demonstrating a highly flexible atomic platform that achieves programmable readout and universal operations for advanced optical clock systems.
• Robust control and entanglement of qudits in neutral atom arrays (Physical Review Research, 2026) – Outlining an efficient method for implementing universal gate sets in higher-dimensional atomic systems.
• Fast measurement of neutral atoms with a multi-atom gate (arXiv, 2026) – Introducing a new paradigm for rapid quantum state detection.

Contact & Collaboration

For technological partnerships, licensing opportunities, or collaborative research initiatives, please contact Ramot or Dr. Ran Finkelstein at the School of Physics and Astronomy, Tel Aviv University.