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Appendix C. European Roundtable Discussions 237<br />

Individual Presentations from Research Groups<br />

The last part of the workshop at KTH was devoted to presentations from<br />

individuals who gave brief overviews of the nanoscale science <strong>and</strong><br />

technology research efforts in their individual groups.<br />

Prof. David Havil<strong>and</strong>, now at KTH, described his efforts in nanostructure<br />

physics. He uses lithographically defined nanostructures to study electronic<br />

transport phenomena such as Coulomb blockage, spin-dependent transport,<br />

<strong>and</strong> theory involving quantum optics in nanostructures <strong>and</strong> diffraction optics<br />

in nanostructures. Prof. Havil<strong>and</strong> collaborates closely with Profs. P. Delsing<br />

<strong>and</strong> T. Cleason of the Single Electron Group at Chalmers.<br />

Prof. K.V. Rao of KTH described his group’s research in large scale<br />

applications of soft magnetic materials. The work is entitled Functional<br />

Nanometric <strong>Science</strong> <strong>and</strong> consists of three primary thrusts:<br />

1. Production by several different techniques such as thin film deposition<br />

using rf laser ablation, rf sputtering, <strong>and</strong> e-beam deposition; rapid<br />

solidification technology such as melt spinning to produce GMR<br />

materials; <strong>and</strong> chemical co-precipitation techniques.<br />

2. Characterization using surface probe microscopy; atomic force, scanning<br />

tunneling, <strong>and</strong> magnetic force microscopy (AFM, STM, <strong>and</strong> MFM) are<br />

key techniques.<br />

3. Applications of nanostructures, under study as magnetic dots, novel<br />

GMR materials, high T c -based tapes from nanosize precursors,<br />

nanolithography <strong>and</strong> carbon nanotubes <strong>and</strong> fullerenes as nanoscale<br />

electrodes.<br />

Prof. Arne Rosén of Chalmers University of <strong>Technology</strong> <strong>and</strong> Göteborg<br />

University presented a detailed overview of the nanoscale science being<br />

carried out in his Molecular Physics Group. The title of his talk, “Clusters,<br />

Fullerenes, Nanotubes <strong>and</strong> Nanowires: New Building Blocks in<br />

Nanoscience,” accurately describes the presentation. A brief description of<br />

the key areas of interest is given here. The key research areas in his group<br />

cover six main themes:<br />

1. surfaces <strong>and</strong> catalysis<br />

2. metal clusters<br />

3. fullerenes <strong>and</strong> nanotubes<br />

4. combustion engine research (there is a center dedicated to this work)<br />

5. medical-related research<br />

6. related other projects<br />

Two areas that are almost entirely devoted to nanoscale work are the<br />

metal cluster <strong>and</strong> the fullerene <strong>and</strong> nanotube research areas. In both areas<br />

there is a strong experimental effort, coupled with a strong theoretical effort.

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