Photonic Control Research
Research into scalable photonic integrated circuits for atom array control and manipulation.
Research Focus
This research thrust develops atom-control photonic integrated circuits (APICs) and scalable modulation systems to enable precise control of large neutral atom arrays, addressing the scaling challenges of conventional bulk optic approaches.
Selected Publications
Integrated Photonics for Quantum Technologies
Research into silicon nitride and lithium niobate photonic platforms optimized for atomic transition wavelengths, enabling chip-scale control of neutral atom qubits.
Scalable Optical Control of Atom Arrays
Development of acousto-optic and electro-optic modulator arrays for parallel, independent control of hundreds to thousands of individual atomic qubits.
High-Power Integrated Optical Sources
Low-noise laser systems integrated with photonic circuits for scalable delivery of control light to atom array systems.
Technical Background
Scaling neutral atom quantum computers to thousands of qubits requires replacing bulk optics with integrated photonic solutions:
- Wavelength coverage: Photonic circuits optimized for atomic transitions (780nm Rb, 852nm Cs, etc.)
- Parallel modulation: Arrays of integrated modulators for site-selective control
- Phase stability: Chip-scale integration reduces path-length fluctuations
Related Research Areas
- Logical Qubits - Fault-tolerant quantum computation
- Fast Readout - Cavity-enhanced detection
- Quantum Networking - Photonic interconnects
Principal Investigators
Dirk Englund (MIT) Quantum Photonics Group
Adrian Menssen (MIT)