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James Hone

Researcher at Columbia University

Publications -  702
Citations -  128248

James Hone is an academic researcher from Columbia University. The author has contributed to research in topics: Graphene & Monolayer. The author has an hindex of 127, co-authored 637 publications receiving 108193 citations. Previous affiliations of James Hone include DARPA & Santa Fe Institute.

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Exciton Dipole Orientation of Strain-Induced Quantum Emitters in WSe2.

TL;DR: These findings provide experimental support of the recently proposed interlayer defect exciton model and highlight the importance of an underlying three-dimensional strain profile of deformed monolayer semiconductors, which is essential to optimize emitter-mode coupling in nanoplasmonics, for dipole-dipole coupling schemes, or for magnetic proximity-coupling.
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Fabrication of Nanoscale Bioarrays for the Study of Cytoskeletal Protein Binding Interactions Using Nanoimprint Lithography

TL;DR: A high throughput patterning process used to create arrays of molecular-scale features for the study of cytoskeletal protein binding interactions using a shadow-evaporated metal mask to facilitate lift-off of features defined by nanoimprint lithography is described.
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Improving the radiation hardness of graphene field effect transistors

TL;DR: In this paper, the effects of gamma radiation on graphene field effect transistors (GFETs) were investigated and a method to mitigate those effects by developing a radiation-hardened version of back-gated GFETs was proposed.
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The device level modulation of carrier transport in a 2D WSe2 field effect transistor via a plasma treatment

TL;DR: The carrier transport in the oxidized WSe2 FET is shown to change to a high performance p-type device with greatly reduced channel and contact resistances with the increase in the plasma oxidation time.
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Simultaneous electrical and optical readout of graphene-coated high Q silicon nitride resonators

TL;DR: In this paper, a graphene-on-silicon-nitride (G2S) drum was placed in a tunable optical cavity to observe position dependent damping and resonant frequency control of the devices due to optical absorption by graphene.