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Graphene properties

This page serves as a graphene cheat sheet, a reference listing all known graphene characteristics along with citations. If you would like to help us improve our list of graphene properties by submitting information which is not listed here, please don't hesitate to e-mail us at contact _AT_ graphene-battery.net. We do not intend this as a commentary page. Rather, our aim is to provide a good, reputable list of graphene properties in one place.

Mechanical properties

Tensile strength: 130 GPa [1]
Young's modulus: 1 TPa [1]
Tension rigidity: 340 GPa·nm [1]
Surface tension: 54.8 mN/m8
Flexural rigidity: 3.18 GPa·nm3 [1]
Thermal conductivity: 2-4 kW·m-1K-1 (freely suspended graphene)[3]
Distance between adjacent layers of graphene in graphite: 3.4 Å [6]

Chemical properties

Burn temperature: 350 °C (662 °F) [2]
Specific surface area: 1168 m2·g-1 [2]

Electrical properties

Band gap: 0 eV (in sheet graphene) [4]
Band gap: ~3.8 eV (in graphene ribbons) [4]
Electron mobility: ~200,000 cm2·V-1·s-1 (intrinsic limit) [7]
Electron mobility: ~40,000 cm2·V-1·s-1 (on SiO2 substrate) [7]
Carrier density: 1012 cm-2 7
Free path for electron-acoustic phonon scattering: >2 μm 7

Optical properties

White light absorption: 2.3 % [5]
White light transmission: 97.7 %

References

[1] - Tsoukleri et al., Subjecting a graphene monolayer to tension and compression
[2] - Eftekhari et al., Curly graphene with Specious Interlayers Displaying Superior Capacity for Hydrogen Storage
[3] - Pop et al., Thermal properties of graphene: Fundamentals and applications
[4] - Bunch, Mechanical and electrical properties of graphene sheets
[5] - Apell et al., High optical absorption in graphene
[6] - Castro Neto et al., The electronic properties of graphene
[7] - Chen et al., "Intrinsic and extrinsic performance limits of graphene devices on SiO2", Nature Nanotechnology, vol. 3, pp. 206-209, 2008.
[8] - S. J. Woltornist et al., "Conductive Thin Films of Pristine Graphene by Solvent Interface Trapping"

    


This page was last modified: November 28th, 2014.
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