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DTSTART:20230326T030000
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DTSTART:20231029T020000
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DTSTAMP:20230609T144650Z
UID:5895E181-BAFB-40E1-92C4-31FA44BD5FD2
DTSTART;TZID=Europe/Warsaw:20230605T170000
DTEND;TZID=Europe/Warsaw:20230605T183000
DESCRIPTION:Quantum computing offers the potential for an exponential speed
 -up of certain classes of computational problems\, and\, as such\, the dev
 elopment of a practical quantum computer has been a field of intense resea
 rch over the past two decades. Yet\, it is still early in the development 
 of these systems\, as we have just reached the point at which laboratory e
 xperiments have shown that quantum computers can outperform classical comp
 uters at certain computational tasks. As such\, it is an exciting time in 
 the field\, analogous to the early days of classical computer development.
  As microwave engineers there is a tremendous opportunity to contribute to
  quantum computing\, as the control and measurement of most quantum proces
 sors is carried-out using microwave techniques. In this talk\, I will desc
 ribe the use of microwaves in quantum computing\, with a focus on the supe
 rconducting qubit technology which was used to show that a quantum compute
 r is capable of post-classical computation. The talk will be geared toward
  microwave engineers with no background in quantum computing and will prov
 ide a glimpse into the fundamentals\, contemporary system architectures\, 
 recent experiments\, and\, finally\, major microwave challenges that must 
 be overcome if fault tolerant quantum computing is to become a reality. Wh
 ile the “quantum” aspects of quantum computing will be described\, the
  deeper technical discussion will focus on the specification and design of
  the microwave control and measurement systems required to operate these s
 ystems\, using Google’s state-of-the-art Sycamore quantum computer as an
  example. Ongoing research in scalable control and measurement electronics
  will also be described.\n\nSpeaker(s): Joseph Bardin\, \n\nVirtual: https
 ://events.vtools.ieee.org/m/362201
LOCATION:Virtual: https://events.vtools.ieee.org/m/362201
ORGANIZER:krznyka@pg.edu.pl
SEQUENCE:10
SUMMARY:QUANTUM COMPUTING: WHAT IS IT\, HOW DOES IT WORK\, AND WHAT ARE THE
  OPPORTUNITIES FOR MICROWAVE ENGINEERS?
URL;VALUE=URI:https://events.vtools.ieee.org/m/362201
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;Quantum computing offers the potential for
  an exponential speed-up of certain classes of computational problems\, an
 d\, as such\, the development of a practical quantum computer has been a f
 ield of intense research over the past two decades. Yet\, it is still earl
 y in the development of these systems\, as we have just reached the point 
 at which laboratory experiments have shown that quantum computers can outp
 erform classical computers at certain computational tasks. As such\, it is
  an exciting time in the field\, analogous to the early days of classical 
 computer development. As microwave engineers there is a tremendous opportu
 nity to contribute to quantum computing\, as the control and measurement o
 f most quantum processors is carried-out using microwave techniques. In th
 is talk\, I will describe the use of microwaves in quantum computing\, wit
 h a focus on the superconducting qubit technology which was used to show t
 hat a quantum computer is capable of post-classical computation. The talk 
 will be geared toward microwave engineers with no background in quantum co
 mputing and will provide a glimpse into the fundamentals\, contemporary sy
 stem architectures\, recent experiments\, and\, finally\, major microwave 
 challenges that must be overcome if fault tolerant quantum computing is to
  become a reality. While the &amp;ldquo\;quantum&amp;rdquo\; aspects of quantum co
 mputing will be described\, the deeper technical discussion will focus on 
 the specification and design of the microwave control and measurement syst
 ems required to operate these systems\, using Google&amp;rsquo\;s state-of-the
 -art Sycamore quantum computer as an example. Ongoing research in scalable
  control and measurement electronics will also be described.&lt;/p&gt;
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