The state hidden subgroup problem and an efficient algorithm for locating unentanglement
Location: QNC 4104, Zoom
No black holes from light
Location: QNC 1201, Zoom
Bosonic Quantum Computational Complexity
Location: QNC 1201 and online on Zoom
Quantum Innovators is a five-day workshop offered by the Institute for Quantum Computing (IQC) since 2012 bringing the most promising postdoctoral fellows in quantum information science and technology together.
The pioneering experiments by Hanbury and Twiss are considered by many as the beginnings of experimental quantum optics. These experiments are now particularly relevant in the context of quantum photonics and the characterization of single photon sources.
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Join us for casual conversations with quantum researchers.
Lasers are used in factories for burning through metal and in movies for blowing up space ships. But in the lab, we use them to cool atoms down to within one billionth of a degree of absolute zero.
Significant global efforts are currently underway to build quantum computers. The two main goals for near-term quantum computers are finding and solving interesting problems in the presence of noise and developing techniques to mitigate errors. In this talk, I will outline and motivate an abstraction layer needed to reliably operate quantum computers under realistic noise models, namely, a cycle consisting of all the primitive gates applied to a quantum computer within a specified time period.
Microwave optomechanical circuits have been demonstrated in the past years to be powerful tools for both, exploring fundamental physics of macroscopic and massive quantum objects as well as being promising candidates for novel on-chip quantum limited microwave devices. In this work, we explore a microwave optomechanical device consisting of a coplanar microwave cavity coupled to a mechanical high quality factor nanobeam resonator.
Quantum computation has been developed as a computationally efficient paradigm to solve problems that are intractable with conventional classical computers. Quantum computers have the potential to support the simulation and modeling of many complex physical systems, not just quantum ones, significantly more rapidly than conventional supercomputers.