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Electronic Quantum Transport in Graphene.

Research output: ThesisDoctoral Thesis

Unpublished

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Electronic Quantum Transport in Graphene. / Kopylov, Sergey.
Lancaster: Lancaster University, 2013. 110 p.

Research output: ThesisDoctoral Thesis

Harvard

Kopylov, S 2013, 'Electronic Quantum Transport in Graphene.', PhD, Lancaster University, Lancaster.

APA

Kopylov, S. (2013). Electronic Quantum Transport in Graphene. [Doctoral Thesis, Lancaster University]. Lancaster University.

Vancouver

Kopylov S. Electronic Quantum Transport in Graphene.. Lancaster: Lancaster University, 2013. 110 p.

Author

Kopylov, Sergey. / Electronic Quantum Transport in Graphene.. Lancaster : Lancaster University, 2013. 110 p.

Bibtex

@phdthesis{e336fa995ef3466488397082cf6e527f,
title = "Electronic Quantum Transport in Graphene.",
abstract = "Graphene is a new two-dimensional material with interesting electronic properties and a wide range of applications. Graphene epitaxially grown on the Si-terminated surface of SiC is a good candidate to replace semiconductors in field-effect transistors. In this work we investigate the properties of epitaxial monolayer and bilayer graphene and develop a theoretical model used to describe the charge transfer between graphene and donors in SiC substrate. This model is then used to describe the behaviour of an epitaxial graphene-based transistor and the conditions for its operation. We also apply our model to understand the successful application of epitaxial graphene in quantum resistance metrology and to describe the effect of bilayer patches on the resistance quantization. Finally, we study how the ordering of adatoms on top of mechanically exfoliated graphene due to RKKY interaction affects the transport properties of graphene.",
keywords = "MiAaPQ, Applied physics., Physical chemistry.",
author = "Sergey Kopylov",
note = "Thesis (Ph.D.)--Lancaster University (United Kingdom), 2013.",
year = "2013",
language = "English",
publisher = "Lancaster University",
school = "Lancaster University",

}

RIS

TY - BOOK

T1 - Electronic Quantum Transport in Graphene.

AU - Kopylov, Sergey

N1 - Thesis (Ph.D.)--Lancaster University (United Kingdom), 2013.

PY - 2013

Y1 - 2013

N2 - Graphene is a new two-dimensional material with interesting electronic properties and a wide range of applications. Graphene epitaxially grown on the Si-terminated surface of SiC is a good candidate to replace semiconductors in field-effect transistors. In this work we investigate the properties of epitaxial monolayer and bilayer graphene and develop a theoretical model used to describe the charge transfer between graphene and donors in SiC substrate. This model is then used to describe the behaviour of an epitaxial graphene-based transistor and the conditions for its operation. We also apply our model to understand the successful application of epitaxial graphene in quantum resistance metrology and to describe the effect of bilayer patches on the resistance quantization. Finally, we study how the ordering of adatoms on top of mechanically exfoliated graphene due to RKKY interaction affects the transport properties of graphene.

AB - Graphene is a new two-dimensional material with interesting electronic properties and a wide range of applications. Graphene epitaxially grown on the Si-terminated surface of SiC is a good candidate to replace semiconductors in field-effect transistors. In this work we investigate the properties of epitaxial monolayer and bilayer graphene and develop a theoretical model used to describe the charge transfer between graphene and donors in SiC substrate. This model is then used to describe the behaviour of an epitaxial graphene-based transistor and the conditions for its operation. We also apply our model to understand the successful application of epitaxial graphene in quantum resistance metrology and to describe the effect of bilayer patches on the resistance quantization. Finally, we study how the ordering of adatoms on top of mechanically exfoliated graphene due to RKKY interaction affects the transport properties of graphene.

KW - MiAaPQ

KW - Applied physics.

KW - Physical chemistry.

M3 - Doctoral Thesis

PB - Lancaster University

CY - Lancaster

ER -