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  <name>CSLS Workshop on Quantum Computation</name>
  <metadata>
  <md:version>1.4</md:version>
  <md:created>2005/03/31 09:44:53 US/Central</md:created>
  <md:revised>2005/05/01 14:28:55.056 GMT-5</md:revised>
  <md:authorlist>
      <md:author id="vontobel">
      <md:firstname>Pascal</md:firstname>
      <md:othername>Olivier</md:othername>
      <md:surname>Vontobel</md:surname>
      <md:email>vontobel@ece.wisc.edu</md:email>
    </md:author>
  </md:authorlist>

  <md:maintainerlist>
    <md:maintainer id="vontobel">
      <md:firstname>Pascal</md:firstname>
      <md:othername>Olivier</md:othername>
      <md:surname>Vontobel</md:surname>
      <md:email>vontobel@ece.wisc.edu</md:email>
    </md:maintainer>
  </md:maintainerlist>
  
  <md:keywordlist>
    <md:keyword>quantum computation</md:keyword>
  </md:keywordlist>

  <md:abstract/>
</metadata>

  <content>

    <section id="overview">
      <name>
        Workshop Overview
      </name>

      <para id="abstract">

        Quantum computation uses quantum mechanical phenomena to perform
        operations on data measured by qubits. It is part of quantum
        information processing, which has the potential to revolutionize our
        methods of securing, processing, storing, retrieving, transmitting and
        displaying information. A quantum computer can implement new
        algorithms, to perform e.g. rapid integer factorization, thereby
        threatening current cryptosystems, and quicker database
        searches. Practical difficulties have limited us to seven qubit
        computers so far, but the possibilities of this emerging technology
        have led to many centers, learned and popular articles, and even the
        movie "Timeline". In this workshop, three experts in the theoretical,
        experimental, and engineering aspects of quantum computation will take
        us from basics to cutting-edge.

      </para>

      <list id="talks">

        <item>
          Go to the talk on
          <link src="#cleve_title">
            Quantum Information, Computation, and Communication</link>
          (by Prof. Richard Cleve)
        </item>
      
        <item>
          Go to the talk on
          <link src="#divincenzo_title">
            Prospects for Real Quantum Information Processing Devices in the
            Laboratory</link>
          (by Dr. David DiVincenzo)
        </item>
  
        <item>
          Go to the talk on
          <link src="#lloyd_title">
            The Future of Quantum Information Processing:
            How Big, How Fast, How Powerful?</link>
            (by Prof. Seth Lloyd)
        </item>

      </list>

      <para id="remark">
        Remark: This workshop was held on February 10, 2005 as part of the
        <link src="http://cnx.rice.edu/content/col10277/latest/">
          Computational Sciences Lecture Series (CSLS)</link>
        at the University of Wisconsin-Madison.
      </para>

    </section>

    <section id="cleve_title">

      <name>
        Quantum Information, Computation, and Communication
      </name>

      <para id="cleve_affiliation">
        By
        <link src="http://www.cs.uwaterloo.ca/research/individual/cleve.shtml">
          Prof. Richard Cleve</link>
          (University of Waterloo,
           Canada)
      </para>

      <para id="cleve_media">

        (Slides are not available)
        |
        <link src="mms://real.cae.wisc.edu/ece/CSLS/CSLS-S05_Cleve.wmv">
          Video [WMV]</link>

      </para>

      <para id="cleve_abstract">

        ABSTRACT: A quantum computer is an information processing device that
        harnesses the strange power of quantum mechanics: it can exist in
        several states simultaneously and its computation paths can interfere
        with each other. Following a brief introduction to quantum
        information, the talk will review developments in quantum algorithms
        and various notions of communication with quantum information.  

      </para>

    </section>

    <section id="divincenzo_title">

      <name>
        Prospects for Real Quantum Information Processing Devices in the
        Laboratory
      </name>

      <para id="divincenzo_affiliation">
        By
        Dr. David DiVincenzo
        (IBM Watson Research Center,
         USA)
      </para>

      <para id="divincenzo_media">

        <link src="csls12_divincenzo_slides.pdf">
          Slides of talk [PDF]</link>
        |
        <link src="mms://real.cae.wisc.edu/ece/CSLS/CSLS-S05_DiVincenzo.wmv">
          Video [WMV]</link>

      </para>

      <para id="divincenzo_abstract">   

        ABSTRACT: Some very hard things have to happen in the laboratory to
        make even rudimentary quantum information processing a reality. I will
        give a report "from the trenches" to give some idea of how you start
        from scratch -- in a state of the art solid state physics lab -- and
        try to make a working qubit. I will also give a point of view on
        progress on other fronts where things seem to be going better, in
        particular in the atomic physics lab.
        

      </para>

    </section>

    <section id="lloyd_title">

      <name>
        The Future of Quantum Information Processing:
        How Big, How Fast, How Powerful?
      </name>

      <para id="lloyd_affiliation">
        By
        <link src="http://www-me.mit.edu/people/personal/slloyd.htm">
          Prof. Seth Lloyd</link>
        (MIT, Cambridge, Massachusetts,
         USA)
      </para>

      <para id="lloyd_media">

        (Slides are not available)
        |
        <link src="mms://real.cae.wisc.edu/ece/CSLS/CSLS-S05_Lloyd.wmv">
          Video [WMV]
        </link>

      </para>

      <para id="lloyd_abstract">

        ABSTRACT: Existing quantum computers and quantum communication systems
        operate at the fundamental performance limits posed by the laws of
        physics. This talk reviews the physical limits to quantum information
        processing, and explores the future of the field.

      </para>

    </section>

  </content>
  
</document>
