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Andre K. Geim

Researcher at University of Manchester

Publications -  466
Citations -  232754

Andre K. Geim is an academic researcher from University of Manchester. The author has contributed to research in topics: Graphene & Magnetic field. The author has an hindex of 125, co-authored 445 publications receiving 206833 citations. Previous affiliations of Andre K. Geim include University of Nottingham & Russian Academy of Sciences.

Papers
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Submicron probes for Hall magnetometry over the extended temperature range from helium to room temperature

TL;DR: In this paper, mesoscopic Hall sensors made from various materials and their suitability for accurate magnetization studies of submicron samples over a wide temperature range and, especially, at room temperature.
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Gate-Defined Quantum Confinement in InSe-Based van der Waals Heterostructures.

TL;DR: Strong quantum confinement and manipulation of single electrons in devices made from few-layer crystals of InSe using electrostatic gating are demonstrated and gate-controlled quantum dots in the Coulomb blockade regime as well as one-dimensional quantization in point contacts are reported, revealing multiple plateaus.
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Scattering of ballistic electrons at a mesoscopic spot of strong magnetic field

TL;DR: In this article, the authors report quenching of the Hall effect with increasing magnetic field confined in a micron-sized spot, which is explained by a rapid increase in the number of electrons that are scattered or quasilocalized by the magnetic region.
Patent

Transistor device and materials for making

TL;DR: In this article, the authors proposed an application related to graphene based heterostructures and transistor devices comprising graphene, which consisted of a first graphene layer, a spacer layer, and a third graphene layer.
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Transport of hydrogen isotopes through interlayer spacing in van der Waals crystals.

TL;DR: In this paper, van der Waals gaps between atomic planes of layered crystals provide angstrom-size channels that make quantum confinement of protons apparent even at room temperature, even for the lightest atom, hydrogen.