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Nano-mapping of Surface and Subsurface Physical Properties of 2D materials

Research output: Contribution to conference - Without ISBN/ISSN › Abstract › peer-review

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Nano-mapping of Surface and Subsurface Physical Properties of 2D materials. / Kolosov, Oleg Victor; Kay, Nicholas; Spiece, Jean et al.
2016. 18.

Research output: Contribution to conference - Without ISBN/ISSN › Abstract › peer-review

Harvard

Kolosov, OV, Kay, N, Spiece, J, Alsharif, G, Robinson, BJ & Dinelli, F 2016, 'Nano-mapping of Surface and Subsurface Physical Properties of 2D materials', pp. 18. <http://www.anm2016.com/wp-content/uploads/2016/07/Abstract-Book-GT-Final.pdf>

APA

Kolosov, O. V., Kay, N., Spiece, J., Alsharif, G., Robinson, B. J., & Dinelli, F. (2016). Nano-mapping of Surface and Subsurface Physical Properties of 2D materials. 18. http://www.anm2016.com/wp-content/uploads/2016/07/Abstract-Book-GT-Final.pdf

Vancouver

Kolosov OV, Kay N, Spiece J, Alsharif G, Robinson BJ, Dinelli F. Nano-mapping of Surface and Subsurface Physical Properties of 2D materials. 2016.

Author

Kolosov, Oleg Victor ; Kay, Nicholas ; Spiece, Jean et al. / Nano-mapping of Surface and Subsurface Physical Properties of 2D materials. 1 p.

Bibtex

@conference{ceb163a627304b7bab5170f89cbcd45c,
title = "Nano-mapping of Surface and Subsurface Physical Properties of 2D materials",
abstract = "A massive interest in two-dimensional materials (2DM) triggered by graphene (GR) discovery1 is fueled by the unique electronic, mechanical and thermal properties of these few-atomic-layers-thick materials. While electronic properties of graphene and other 2DM{\textquoteright}s such as MoS2, WS, Bi2Se3, were extensively studied, their mechanical and thermal properties, equally record-breaking, are much less explored, due to inadequate tools for nanoscale probing of physical properties of atomically thin layers.Here we overcome this by combining atomic force microscopy (AFM) with specialist nanomechanical, nanothermal and nanoelectrical probes. By applying these to the single and few layer Gr and MoS2 we were able to explore the nanomechanical interaction of 2DM{\textquoteright}s andthe substrate, including layers adhesion and stresses; observe internal defects in the few layer 2DM{\textquoteright}s, and defect movement under applied strain; map the nanoscale distribution, and quantify electrical charges trapped at the 2DM-substrate interface; observe with microscale and nanoscale resolution local electrical and thermal transport in these materials.",
keywords = "Graphene, 2D materials, SPM, nanothermal, ultrasonic force microscopy, nanomechanics, NEMS, QEMS",
author = "Kolosov, {Oleg Victor} and Nicholas Kay and Jean Spiece and Ghazi Alsharif and Robinson, {Benjamin James} and Franco Dinelli",
year = "2016",
month = jun,
day = "25",
language = "English",
pages = "18",

}

RIS

TY - CONF

T1 - Nano-mapping of Surface and Subsurface Physical Properties of 2D materials

AU - Kolosov, Oleg Victor

AU - Kay, Nicholas

AU - Spiece, Jean

AU - Alsharif, Ghazi

AU - Robinson, Benjamin James

AU - Dinelli, Franco

PY - 2016/6/25

Y1 - 2016/6/25

N2 - A massive interest in two-dimensional materials (2DM) triggered by graphene (GR) discovery1 is fueled by the unique electronic, mechanical and thermal properties of these few-atomic-layers-thick materials. While electronic properties of graphene and other 2DM’s such as MoS2, WS, Bi2Se3, were extensively studied, their mechanical and thermal properties, equally record-breaking, are much less explored, due to inadequate tools for nanoscale probing of physical properties of atomically thin layers.Here we overcome this by combining atomic force microscopy (AFM) with specialist nanomechanical, nanothermal and nanoelectrical probes. By applying these to the single and few layer Gr and MoS2 we were able to explore the nanomechanical interaction of 2DM’s andthe substrate, including layers adhesion and stresses; observe internal defects in the few layer 2DM’s, and defect movement under applied strain; map the nanoscale distribution, and quantify electrical charges trapped at the 2DM-substrate interface; observe with microscale and nanoscale resolution local electrical and thermal transport in these materials.

AB - A massive interest in two-dimensional materials (2DM) triggered by graphene (GR) discovery1 is fueled by the unique electronic, mechanical and thermal properties of these few-atomic-layers-thick materials. While electronic properties of graphene and other 2DM’s such as MoS2, WS, Bi2Se3, were extensively studied, their mechanical and thermal properties, equally record-breaking, are much less explored, due to inadequate tools for nanoscale probing of physical properties of atomically thin layers.Here we overcome this by combining atomic force microscopy (AFM) with specialist nanomechanical, nanothermal and nanoelectrical probes. By applying these to the single and few layer Gr and MoS2 we were able to explore the nanomechanical interaction of 2DM’s andthe substrate, including layers adhesion and stresses; observe internal defects in the few layer 2DM’s, and defect movement under applied strain; map the nanoscale distribution, and quantify electrical charges trapped at the 2DM-substrate interface; observe with microscale and nanoscale resolution local electrical and thermal transport in these materials.

KW - Graphene

KW - 2D materials

KW - SPM

KW - nanothermal

KW - ultrasonic force microscopy

KW - nanomechanics

KW - NEMS

KW - QEMS

M3 - Abstract

SP - 18

ER -