Prof. Dr. Theo Siegrist

Profil

Derzeitige StellungProfessor W-3 und Äquivalente
FachgebietExperimentelle Physik der Kondensierten Materie,Mineralogie und Kristallographie
Keywordsnovel mixed anion structures, Elektrokeramik, Hoch-TC Supraleiter, intermetallische Verbindungen, organische Halbleiter
Auszeichnungen

2023: Member of the Academy of Science, Engineering and Medicine of Florida

2008: AvH Forschungspreis

2006: Fellow of the American Physical Society

Aktuelle Kontaktadresse

LandUSA
OrtTallahassee
Universität/InstitutionFlorida State University
Institut/AbteilungNational High Magnetic Field Laboratory

Gastgeber*innen während der Förderung

Prof. Dr. Matthias WuttigI. Physikalisches Institut, Rheinisch-Westfälische Technische Hochschule Aachen (RWTH), Aachen
Beginn der ersten Förderung01.07.2008

Programm(e)

2008Humboldt-Forschungspreis-Programm für Naturwissenschaftler*innen aus den USA

Projektbeschreibung der*des Nominierenden

Dr. Siegrist is well known internationally for his outstanding research in materials science. He has made important contributions to the field of high Tc superconductors, C60 and RxC60 intercalated phases, intermetallic systems such as the rare-earth transition-metal boro-carbides, and more recently in organic semiconductors based on small molecule solids. During his stay in Germany, he intends to study structure property relationships in phase-change materials with applications in novel information storage systems.

Publikationen (Auswahl)

2015K.S. Siegert, F.R.L. :ange, E.R. Sittner, H. Volker, C. Schlockermann, T. Siegrist and M. Wuttig: Impact of vacancy ordering on thermal transport in crystalline phase-change materials. In: Rev. Progress Phys., 2015, 013001
2012T. Siegrist, P. Merkelbach, M. Wuttig: Phase Change Materials: Challenges on the Path to a Universal Storage Device . In: Annual Review of Condensed Matter Physics, 2012, 215-237
2011Theo Siegrist, Peter Jost, Hanno Volker, Michael Woda, Philipp Merkelbach, Carl Schlockermann, Matthias Wuttig: Disorder-induced localization in crystalline phase-change materials. In: Nature Materials, 2011, 202-208