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DTSTART:20240310T030000
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DTSTAMP:20240708T130028Z
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DTSTART;TZID=America/New_York:20240704T113000
DTEND;TZID=America/New_York:20240704T123000
DESCRIPTION:Abstract: A crucial requirement for large-scale quantum informa
 tion processing will be the development of modular quantum processors capa
 ble of transmitting quantum information between qubits housed at different
  nodes. In this talk\, I will describe a strategy for generating “which-
 path” entanglement between a qubit and a light pulse [1].The resulting q
 ubit—which-path entangled state can be used for distributing entanglemen
 t between nodes in a quantum network\, or for achieving optimal quantum-en
 hanced phase estimation in an interferometer using phase sensitive (rather
  than photon-number-resolving) measurements [2]. Finally\, I will also des
 cribe strategies for performing long-range "flying-cat" parity checks of d
 istant stationary qubits using conditional phase shifts on propagating lig
 ht pulses [3]. This could allow for the implementation of distributed faul
 t-tolerant quantum computing\, or for the measurement based preparation of
  entangled resource states for quantum communication protocols.\n\n[1] Z. 
 M. McIntyre and W. A. Coish\, Phys. Rev. Lett. 132\, 093603 (2024)\n[2] Z.
  M. McIntyre and W. A. Coish\, arXiv:2405.13265\n[3] Z. M. McIntyre and W.
  A. Coish\, Phys. Rev. Research 6\, 023247 (2024)\n\nCo-sponsored by: Prof
 . Nicolas Quesada\n\nSpeaker(s): Zoé McIntyre\n\nJ. Armand Bombardier J-2
 074\, Polytechnique Montréal\, Montréal\, Quebec\, Canada\, J3X 1P7
LOCATION:J. Armand Bombardier J-2074\, Polytechnique Montréal\, Montréal\
 , Quebec\, Canada\, J3X 1P7
ORGANIZER:Benjamin.crockett@ieee.org
SEQUENCE:18
SUMMARY:Corralling cats in a quantum network
URL;VALUE=URI:https://events.vtools.ieee.org/m/425749
X-ALT-DESC:Description: <br /><div><strong>Abstract: </strong>A crucial req
 uirement for large-scale quantum information processing will be the develo
 pment of modular quantum processors capable of transmitting quantum inform
 ation between qubits housed at different nodes.&nbsp\;In this talk\, I wil
 l describe a strategy for generating &ldquo\;which-path&rdquo\; entangleme
 nt between a qubit and a light pulse [1].The resulting qubit&mdash\;which-
 path entangled state can be used for distributing entanglement between nod
 es in a quantum network\, or for achieving optimal quantum-enhanced phase 
 estimation in an interferometer using phase sensitive&nbsp\;(rather than p
 hoton-number-resolving) measurements [2]. Finally\, I will also describe s
 trategies for performing long-range "flying-cat" parity checks of distant 
 stationary qubits using conditional phase shifts on propagating light puls
 es [3].&nbsp\;This could allow for the implementation of distributed fault
 -tolerant quantum computing\, or for the measurement based preparation of 
 entangled resource states for quantum communication protocols.</div>\n<div
 >&nbsp\;</div>\n<div>[1] Z. M. McIntyre and W. A. Coish\, Phys. Rev. Lett.
  132\, 093603 (2024)</div>\n<div>[2] Z. M. McIntyre and W. A. Coish\, arXi
 v:2405.13265</div>\n<div>[3] Z. M. McIntyre and W. A. Coish\, Phys. Rev. R
 esearch 6\, 023247 (2024)</div>
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