Technical Event
Lab Tours of the University of Waterloo
11 June 2026 • 2:00 PM - 3:30 PM EDT | QNC 0101 Lobby
Photonics for Quantum attendees are invited to tour the labs at the University of Waterloo. Shuttles provided.
Quantum Photonic Devices Lab (Prof. Michael Reimer)
The QPD lab at the Institute for Quantum Computing focuses on developing InAsP/InP nanowire-based quantum dot sources for high-rate single-photon/entangled photon generation as a platform for quantum networks as well as exploring waveguide quantum electrodynamics. The lab is also developing novel quantum detectors based on InGaAs nanowire metasurface APDs for applications in imaging and sensing, and photonic integrated circuits to manipulate light at the single photon level.
QuantumIon lab (Prof. Rajibul Islam)
The QuantumIon lab develops a quantum processor using up to 16 barium ion qubits. Our system features a Sandia National Labs surface trap with 96 DC electrodes and a centrally-positioned design that maximizes optical access while maintaining ultra-high vacuum. We have developed specialized preparation methods for ¹³³Ba sources and use novel waveguide technology to achieve individual ion control with negligible crosstalk. As part of the Open Quantum Design initiative, this system will provide remote access for academic quantum research.
Engineered Quantum Systems Lab (Prof. Chirs Wilson)
The EQS lab at the Institute for Quantum Computing investigates light-matter interactions in the quantum regime using superconducting microwave circuits. Research efforts include microwave quantum optics, waveguide quantum electrodynamics, and analog quantum simulation.
Nano-Photonics and Quantum Optics Lab (Prof. Michal Bajcsy)
The NPQO lab at the Institute for Quantum Computing explores novel light-matter and photon-photon interactions using nanoscale photonic structures such as photonic-crystal slabs, metasurfaces, and hollow-core fibers. By interfacing quantum emitters—including cold atoms, quantum dots, and color centers—the lab investigates hybrid quantum systems that bridge platforms like single-photon sources, atomic memories, and superconducting qubits. Current projects also integrate approaches from nanophotonics, cold atom physics, and machine learning, with applications ranging from quantum networks to biosensing using graphene-oxide–based FETs.
Quantum Photonic Devices Lab (Prof. Michael Reimer)
The QPD lab at the Institute for Quantum Computing focuses on developing InAsP/InP nanowire-based quantum dot sources for high-rate single-photon/entangled photon generation as a platform for quantum networks as well as exploring waveguide quantum electrodynamics. The lab is also developing novel quantum detectors based on InGaAs nanowire metasurface APDs for applications in imaging and sensing, and photonic integrated circuits to manipulate light at the single photon level.
QuantumIon lab (Prof. Rajibul Islam)
The QuantumIon lab develops a quantum processor using up to 16 barium ion qubits. Our system features a Sandia National Labs surface trap with 96 DC electrodes and a centrally-positioned design that maximizes optical access while maintaining ultra-high vacuum. We have developed specialized preparation methods for ¹³³Ba sources and use novel waveguide technology to achieve individual ion control with negligible crosstalk. As part of the Open Quantum Design initiative, this system will provide remote access for academic quantum research.
Engineered Quantum Systems Lab (Prof. Chirs Wilson)
The EQS lab at the Institute for Quantum Computing investigates light-matter interactions in the quantum regime using superconducting microwave circuits. Research efforts include microwave quantum optics, waveguide quantum electrodynamics, and analog quantum simulation.
Nano-Photonics and Quantum Optics Lab (Prof. Michal Bajcsy)
The NPQO lab at the Institute for Quantum Computing explores novel light-matter and photon-photon interactions using nanoscale photonic structures such as photonic-crystal slabs, metasurfaces, and hollow-core fibers. By interfacing quantum emitters—including cold atoms, quantum dots, and color centers—the lab investigates hybrid quantum systems that bridge platforms like single-photon sources, atomic memories, and superconducting qubits. Current projects also integrate approaches from nanophotonics, cold atom physics, and machine learning, with applications ranging from quantum networks to biosensing using graphene-oxide–based FETs.