Quantum Networking Research
Research into photonic interconnects and atom-photon interfaces for distributed quantum computing.
Research Focus
This research thrust develops quantum networking capabilities to connect neutral atom processors through photonic links, enabling distributed quantum computation and communication.
Selected Publications
Atom-Photon Entanglement for Quantum Networks
Research into efficient atom-photon interfaces using cavity QED and free-space collection schemes, demonstrating high-fidelity entanglement between atomic qubits and telecom-wavelength photons.
Quantum Repeaters with Neutral Atoms
Development of quantum memory and entanglement swapping protocols using neutral atom arrays, providing building blocks for long-distance quantum communication.
Integrated Photonic Interconnects
Chip-scale photonic circuits for routing quantum information between atom array modules, enabling modular scaling of quantum processors.
Technical Background
Quantum networking enables scaling beyond single-processor limits:
- Modular architecture: Connect multiple atom array processors through photonic links
- Entanglement distribution: Generate remote entanglement for distributed quantum algorithms
- Error correction: Networked logical qubits for enhanced fault tolerance
Related Research Areas
- Logical Qubits - Fault-tolerant quantum computation
- Photonic Control - Scalable optical systems
- Dual-Species Architectures - Multi-species platforms
Collaborating Institutions
- MIT
- Harvard University
- UCSB (Blumenthal Group)