4-8 August 2015
America/Detroit timezone

Magnetic Catalysis in Graphene

7 Aug 2015, 14:50
East Partition (Alumni Center)

East Partition

Alumni Center

Field and String Theory Field and String Theory


christopher Winterowd (University of Utah)


One of the most important developments in condensed matter physics in recent years has been the discovery and characterization of graphene. A two-dimensional layer of Carbon arranged in a hexagonal lattice, graphene exhibits many interesting electronic properties, most notably the property that the low energy excitations can be described by the Dirac equation for a massless fermion. These excitations interact strongly via the Coulomb interaction and thus non-perturbative methods can be useful. Using methods borrowed from lattice QCD, we study the graphene effective theory in the presence of an external magnetic field. Graphene, along with other $(2+1)$-dimensional field theories, has been predicted to undergo spontaneous breaking of chiral symmetry including the formation of a gap as a result of the external magnetic field. This phenomenon is known as magnetic catalysis. Our study investigates magnetic catalysis using a fully non-perturbative approach.
Oral or Poster Presentation Oral

Primary authors

Prof. Carleton DeTar (University of Utah) christopher Winterowd (University of Utah)

Presentation Materials