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UID:DSC-17976
DTSTART;TZID=Europe/Berlin:20210427T164000
SEQUENCE:1619388544
TRANSP:OPAQUE
DTEND;TZID=Europe/Berlin:20210427T181000
URL:https://dresden-science-calendar.de/calendar/en/detail/17976
LOCATION:TUD\,    
SUMMARY:Physikalisches Kolloquium: Topolectric circuits - the drosophila fo
 r synthetic topological matter
CLASS:PUBLIC
DESCRIPTION:Speaker: \nInstitute of Speaker: \nTopics:\nWillkommen\n Locati
 on:\n  Name: TUD ()\n  Street:   \n  City:  \n  Phone: \n  Fax: \nDescript
 ion: <p>Veranstaltungseinladung als pdf-Download (https://tu-dresden.de/m
 n/physik/ressourcen/dateien/physikalisches-kolloquium/2021-04-27-Phys_Koll
 oq-Thomale-SoSe2021.pdf).</p>  <p><strong>Kurzfassung</strong>: Pioneered
  by topological insulators and semimetals\, topological states of matter h
 ave shaped a significant part of contemporary condensed matter physics\, a
 nd have largely branched out into adjacent fields such as photonics\, mech
 anics\, and other metamaterial setups. Recently\, the frontier has shifted
  to topological systems which embody enrichments imposed by Floquet theory
 \, non-Hermiticity\, and non-linearity. In analogy to the paradigmatic exa
 mple of the drosophila as the biological system most amenable to studies o
 f genetic functionality\, we establish electric circuit networks as the ca
 nonical platform for the study of topological states of matter. We explore
  the topological functionality of circuit networks realizable through the 
 plethora of available electronic components\, which have been perfected th
 rough decades of industrial refinement. Approaching topology from differen
 t angles involves circuit network realizations of periodic driving\, gain 
 and loss\, non- reciprocity\, and synthetic dimensions. The combination of
  node-resolved measurability\, flexibility of boundary conditions\, and lo
 cal as well as non-local defect tunability ensures a large scope of diagno
 stic settings. The outstanding accessibility and scalability of electric c
 ircuit metamaterials will provide a new laboratory for topological matter.
 </p>  <p><strong>Biographie</strong>: Ronny Thomale studied physics and c
 omputer science at the University of Kalsruhe and University of California
 \, Berkeley (2002-2005). After a PhD in Karlsruhe in 2008\, he pursued his
  postdoctoral stages at Princeton University as a Feodor Lynen Fellow and 
 Stanford University as an SITP Fellow\, before accepting a tenure track pr
 ofessorship at the EPF Lausanne in 2012. In 2013 he moved to the Julius-Ma
 ximilian University Würzburg where since 2016 he holds the chair for theo
 retical physics 1 (TP1).</p>
DTSTAMP:20260823T082654Z
CREATED:20210423T220601Z
LAST-MODIFIED:20210425T220904Z
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