Cockayne, E.
(2012),
Graphing and Grafting Graphene: Classifying Finite Topological Defects, Physical Review B, [online], https://doi.org/10.1103/PhysRevB.85.125409
(Accessed December 12, 2024)
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Graphing and Grafting Graphene: Classifying Finite Topological Defects
Published
Author(s)
Abstract
The structure of finite-area topological defects in graphene is described in terms of both the direct honeycomb lattice and its dual triangular lattice. Such defects are equivalent to cutting out a patch of graphene and replacing it with a different patch with the same number of dangling bonds. An important subset of these defects, bound by a closed loop of alternating 5- and 7-membered carbon rings, explains most finite-area topological defects that have been experimentally observed. Previously unidentified defects seen in scanning tunneling microscope (STM) images of graphene grown on SiC are identified as isolated divacancies or divacancy clusters.Citation
Physical Review B
Volume
85
Pub Type
Journals
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Keywords
graphene, defects, topological defects, STM images, simulations
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Created March 8, 2012, Updated October 17, 2022