April 15, 2016
1:30PM
-
2:30PM
1080 Physics Research Building - Smith Seminar Room
Add to Calendar
2016-04-15 12:30:00
2016-04-15 13:30:00
Condensed Matter Theory Seminar - W. Vincent Liu (Univ. of Pittsburgh) "Dirac bosons and topological edge excitations of an interacting Bose gas in an orbital optical lattice"
When interacting ultracold atoms are loaded into the metastable but long lived higher orbital excited bands of an optical lattice, would it be possible for the atoms to exhibit conceptually novel phases that have no prior analogue from the well-known past condensed matter models? In this talk, I will report some of our recent findings when exploiting symmetries, quantum phases, and topology beyond natural conditions in such artificial quantum orbital systems.
1080 Physics Research Building - Smith Seminar Room
OSU ASC Drupal 8
ascwebservices@osu.edu
America/New_York
public
Date Range
2016-04-15 13:30:00
2016-04-15 14:30:00
Condensed Matter Theory Seminar - W. Vincent Liu (Univ. of Pittsburgh) "Dirac bosons and topological edge excitations of an interacting Bose gas in an orbital optical lattice"
When interacting ultracold atoms are loaded into the metastable but long lived higher orbital excited bands of an optical lattice, would it be possible for the atoms to exhibit conceptually novel phases that have no prior analogue from the well-known past condensed matter models? In this talk, I will report some of our recent findings when exploiting symmetries, quantum phases, and topology beyond natural conditions in such artificial quantum orbital systems.
1080 Physics Research Building - Smith Seminar Room
America/New_York
public
When interacting ultracold atoms are loaded into the metastable but long lived higher orbital excited bands of an optical lattice, would it be possible for the atoms to exhibit conceptually novel phases that have no prior analogue from the well-known past condensed matter models? In this talk, I will report some of our recent findings when exploiting symmetries, quantum phases, and topology beyond natural conditions in such artificial quantum orbital systems.