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Michael S. Fuhrer

Researcher at Monash University

Publications -  329
Citations -  29591

Michael S. Fuhrer is an academic researcher from Monash University. The author has contributed to research in topics: Graphene & Carbon nanotube. The author has an hindex of 70, co-authored 309 publications receiving 26802 citations. Previous affiliations of Michael S. Fuhrer include University of California & University of New South Wales.

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Tuning bulk and surface conduction in the proposed topological Kondo insulator SmB(6)

TL;DR: By separately tuning bulk and surface conduction channels, it is shown conclusive evidence for a model with an insulating bulk and metallic surface states, with a crossover temperature that depends solely on the relative contributions of each conduction channel.
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Temperature Control of Electromigration to form Gold Nanogap Junctions

TL;DR: In this article, a linear correlation between the cross sectional area of the gold nanowires and the power dissipated in the junction during electromigration was observed, indicating that the feedback mechanism operates primarily by controlling the temperature of the junction.
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Temperature control of electromigration to form gold nanogap junctions

TL;DR: In this paper, a linear correlation between the cross-sectional area of the gold nanowires and the power dissipated in the junction during electromigration was observed, indicating that the feedback mechanism operates primarily by controlling the temperature of the junction.
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Diffusive charge transport in graphene on SiO2

TL;DR: In this paper, the effects of the corrugations (ripples) of graphene on SiO2 on transport were evaluated by measuring the height-height correlation function, and it was shown that the Corrugations cannot mimic long-range (charged impurity) scattering effects, and have too small an amplitude-to-wavelength ratio to significantly affect the observed mobility via short-range scattering.
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Long range intrinsic ferromagnetism in two dimensional materials and dissipationless future technologies

TL;DR: In this article, the authors review recent progress in two-dimensional ferromagnetism in detail and predict new possible 2D ferromagnetic materials, and discuss the prospects for applications of atomically thin ferromagnets in novel dissipationless electronics, spintronics, and other conventional magnetic technologies.