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Quantum mechanical studies of carbon structures
Author(s) -
N. C. Bartelt,
Donald K. Ward,
Xiaowang Zhou,
Michael S. Foster,
Peter A. Schultz,
Bryan Z. Wang,
Kevin F. McCarty
Publication year - 2015
Language(s) - English
Resource type - Reports
DOI - 10.2172/1227805
Subject(s) - graphene , carbon nanotube , materials science , nanostructure , nanotechnology , quantum , mechanical strength , carbon fibers , chemical physics , composite material , chemistry , composite number , physics , quantum mechanics
Carbon nanostructures, such as nanotubes and graphene, are of considerable interest due to their unique mechanical and electrical properties. The materials exhibit extremely high strength and conductivity when defects created during synthesis are minimized. Atomistic modeling is one technique for high resolution studies of defect formation and mitigation. To enable simulations of the mechanical behavior and growth mechanisms of C nanostructures, a high-fidelity analytical bond-order potential for the C is needed. To generate inputs for developing such a potential, we performed quantum mechanical calculations of various C structures.

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