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Deirdre L. Olynick

Researcher at Lawrence Berkeley National Laboratory

Publications -  99
Citations -  3470

Deirdre L. Olynick is an academic researcher from Lawrence Berkeley National Laboratory. The author has contributed to research in topics: Lithography & Resist. The author has an hindex of 28, co-authored 99 publications receiving 3304 citations. Previous affiliations of Deirdre L. Olynick include University of California, Los Angeles & University of California.

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Formation of bandgap and subbands in graphene nanomeshes with sub-10 nm ribbon width fabricated via nanoimprint lithography.

TL;DR: Graphene field-effect transistors made from GNMs exhibit very different electronic characteristics in comparison with unpatterned GFETs even at room temperature, which could be employed to construct future electronic devices based on graphene superlattices.
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Nanoscale molecular-switch devices fabricated by imprint lithography

TL;DR: In this article, a single molecular monolayer of bistable rotaxanes sandwiched between two 40-nm metal electrodes was fabricated using imprint lithography, and it was observed that it has high on-off ratios and reversible switching properties.
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Vapor-phase self-assembled monolayer for improved mold release in nanoimprint lithography

TL;DR: This work compared the atomic force microscopy, ellipsometry, reflection-absorption infrared spectroscopy, and contact angle results collected from substrates treated by two different application processes and found that the vapor-phase process was superior.
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One-kilobit cross-bar molecular memory circuits at 30-nm half-pitch fabricated by nanoimprint lithography

TL;DR: In this paper, a process to fabricate a cross-bar structure using UV-curable nanoimprint lithography with a double-layer spin-on resist, metal lift off and Langmuir-Blodgett film deposition was developed.
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Investigation of phonon coherence and backscattering using silicon nanomeshes

TL;DR: Phonon coherence is unimportant for thermal transport in silicon nanomeshes with periodicities of 100 nm and higher and temperatures above 14 K, and phonon backscattering, as manifested in the classical size effect, is responsible for the thermal conductivity reduction.