The department is located at:
Ångström Laboratory, Polacksbacken, Lägerhyddsvägen 1.
Here's how to find us.
The seminars are available in several formats:
- Web: http://www.physics.uu.se/en/seminars/calendar
- iCal: http://www.physics.uu.se/sv/calendar/all/ical
- RSS-feed: http://www.physics.uu.se/en/seminars/upcoming/rss.xml
Information about Astronomy and Space Physics seminars
- Usual seminar time is Thursday, 14.00 sharp (45 min talk + 15 min discussion)
- Usual seminar room is Hiorters rum, floor 3, house 7
- Group meetings: Planets: Tue 15-16, IRFU: Wed 11-12, Galaxies: Fri 15-16, Stars: Fri 14-15
- Seminars at other Swedish institutes: Stockholm, Lund, Onsala
- Past and present IRFU seminars: 1996-present day
- Comments or inquiries regarding Astronomy and Space Physics seminars should be directed to the
seminar organizers (Andreas Korn and Eric Stempels).
Information about Nuclear and Particle Physics seminars
- Usual seminar time is Thursday, 15.15 (45-50 min talk + 10-15 min discussion)
- Usual seminar room is 12167, floor 2, southern end of house 1
- Comments or inquiries regarding Nuclear and Particle Physics seminars should be directed to the seminar organizer (Andrzej Kupsc and Richard Brenner).
Information about Theoretical Physics seminars
- Usual seminar time is Wednesday, 13.15-14.15
- Usual seminar room is Oseenska rummet, floor 3 house 7
- Past seminars: 2003-
- Comments or inquiries regarding the Theoretical Physics seminars should be directed to the seminar organizer (Thomas Klose)
Information about Applied Nuclear Physics seminars
- Comments or inquiries regarding the Applied Nuclear Physics seminars should be directed to the seminar organizer (Anna Davour)
Information about Materials Theory seminars
- Usual seminar time is Friday, 12.00-12.45
- Usual seminar room is Å80101, floor 0 house 8
- Comments or inquiries regarding the "Materials Theory Friday Seminars" should be directed to the seminar organizer (Sumanta Bhandary)
Senast uppdaterad 2014-05-14 14:14.
Recently a new single-layer material—graphene—has been discovered. This is a material where quasi-particle behavior is described by very same Dirac equation that governs behavior of relativistic particles. Dirac fermionic spectrum leads to very unusual properties of these materials, including Klein paradox, chirality of carriers, unusual electron transport, and impurity states. These properties are not unique to graphene, instead they represent universal consequences of the Dirac spectrum of the fermionic excitation sector. I will explore these similarities with other materials exhibiting similar spectra including d-wave superconductors, superfluid 3He and recently discovered topological insulators and discuss the unique role of symmetries that protect the Dirac spectrum.
I will discuss frustrated magnetism and the different magnetic states of 1D and 2D Cr nanostructures adsorbed on Pd(111) surface.
To be added