Paul Barclay
Professor
My lab studies topics in nanophotonics, quantum optics, and nonlinear optics. Generally, the goal of research in nanophotonics is to create technology to manipulate light within micro- and nanoscale circuits. Nanophotonic circuits are created with many of the same nanoscale fabrication and patterning tools and techniques used to create electronic microchips, and are beginning to play a role in high performance computing and data center architectures at companies like HP, IBM and Intel.
From a more fundamental perspective, nanophotonic devices can create extremely high electromagnetic energy densities at even the single photon level. They accomplish this by concentrating optical energy into nanoscale volumes, and trapping it there for relatively long lengths of time (above a nanosecond, which is a million times longer than a single oscillation at the frequency of light). These enhanced electromagnetic energy densities result in strong interactions between light and the nanophotonic devices, and amplify nominally small optical effects such as nonlinear absorption and optical coupling to mechanical resonances. In the ultimate limit, even for a weak input consisting of only a single photon, these effects can significantly modify the linear response of a nanophotonic device.
Specific projects that utilize these ideas and technology, and that our lab is interested in pursuing are listed below. For updates on our latest work, check our publications.
Nanoscale quantum optics with diamond qubits and photonic devices
Hybrid quantum optomechanics
Quantum sensing
Contact Details
Office: SB 319
Office phone: (403) 220-8517 (403) 220-7978 (lab)
Fax: (403) 210-8876
Email:
Institute for Quantum Science and Technology
University of Calgary
2500 University Drive NW
Calgary, Alberta
Canada T2N 1N4
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My lab studies topics in nanophotonics, quantum optics, and nonlinear optics. Generally, the goal of research in nanophotonics is to create technology to manipulate light within micro- and nanoscale circuits. Nanophotonic circuits are created with many of the same nanoscale fabrication and patterning tools and techniques used to create electronic microchips, and are beginning to play a role in high performance computing and data center architectures at companies like HP, IBM and Intel.
From a more fundamental perspective, nanophotonic devices can create extremely high electromagnetic energy densities at even the single photon level. They accomplish this by concentrating optical energy into nanoscale volumes, and trapping it there for relatively long lengths of time (above a nanosecond, which is a million times longer than a single oscillation at the frequency of light). These enhanced electromagnetic energy densities result in strong interactions between light and the nanophotonic devices, and amplify nominally small optical effects such as nonlinear absorption and optical coupling to mechanical resonances. In the ultimate limit, even for a weak input consisting of only a single photon, these effects can significantly modify the linear response of a nanophotonic device.
Specific projects that utilize these ideas and technology, and that our lab is interested in pursuing are listed below. For updates on our latest work, check our publications.
Nanoscale quantum optics with diamond qubits and photonic devices
Hybrid quantum optomechanics
Quantum sensing
Contact Details
Office: SB 319
Office phone: (403) 220-8517 (403) 220-7978 (lab)
Fax: (403) 210-8876
Email:
Institute for Quantum Science and Technology
University of Calgary
2500 University Drive NW
Calgary, Alberta
Canada T2N 1N4