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”
Quantum Computing
with Atoms”
Date: |
Download-files: |
Time: |
Thursday, 17 March 2022 |
Video-Recording for any system with MP4-support - Video.mp4 (ca. 408 Mb) |
15:15 – 16:30
|
Speaker today: Christopher Monroe (Duke University and IonQ, Inc.)
Abstract:
Trapped atomic ions are a leading physical
platform for quantum computers,
featuring qubits with essentially infinite
idle coherence times. Such atomic clock
qubits are controlled with laser beams,
allowing densely-connected and
reconfigurable universal gate sets. The
path to scale involves concrete
architectural paths, from shuttling ions
between Quantum Processing Units
(QPU) cores to modular photonic
interconnects between multiple QPUs.
Full-stack ion trap quantum computers have
thus moved away from the physics
of qubits and gates and toward the
engineering of optical control signals,
quantum gate compilation for algorithms,
and software-defined error correction.
I will summarize the state-of-the-art in
these quantum computers in both
academic and industrial settings, and
speculate on how they might be used
for science and beyond.
Biography: Christopher Monroe is the
Gilhuly Family Presidential Distinguished
Professor of Electrical and Computer
Engineering and Physics, and Director of
the Duke Quantum Center at Duke
University. Monroe is an atomic and quantum
physicist and engineer, with interests in
fundamental quantum phenomena,
quantum information science, and quantum
computer design and fabrication.
Monroe’s research group pioneered most aspects
of ion trap quantum computers,
making the first steps toward a scalable,
reconfigurable, and modular quantum
computer system. Monroe is also co-founder
and Chief Scientist at IonQ, a public
company inside the Washington Beltway that
builds quantum computers based
on trapped atomic ions. Monroe is a chief
architect of the 2018 U.S. National
Quantum Initiative and is a member of the
National Academy of Sciences.