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              <div class="moz-text-html" lang="x-western"> <tt>Dear
                  all, </tt><br>
                <br>
                <tt> welcome to today's physics colloquium, </tt> <br>
                <br>
                <tt> Friday 20 May, at 10:15 in FYS1 Speaker:**Ari
                  Harju, Aalto University*** </tt> <br>
                <tt> Title:&nbsp;&nbsp;&nbsp; **</tt><strong></strong><tt>*</tt><strong></strong><tt>
                </tt><strong>Quantum dots and wires in graphene</strong><tt>
                  ****</tt> <small><small><small><small><tt><span
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                  Abstract:</tt> <br>
                <br>
                Graphene, the panacea for most technological ills, is
                also a new flatland of two-dimensional science. The
                electronic properties differ from the two-dimensional
                electron gas in semiconductors, and new physical
                phenomena are expected. In both cases, the
                dimensionality can be further reduced, forming
                structures known as quantum wires and dots. In this
                talk, I will show experimental and theoretical results
                for graphene quantum dots on an Iridium substrate, down
                to a level where the theoretical wave functions can be
                used to model the scanning tunneling spectroscopy data.
                In addition, a way to form graphene quantum wires with
                stable edges is proposed, based on partial
                (de)hydrogenation of graphene on silicon dioxide.<br>
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                    Best regards,<br>
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                  <p class="MsoNormal" style="text-align: justify;">Kari
                    Eskola and Ilari Maasilta </p>
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