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Luke J. O'Driscoll

Researcher at Durham University

Publications -  15
Citations -  152

Luke J. O'Driscoll is an academic researcher from Durham University. The author has contributed to research in topics: Conductance & Molecular wire. The author has an hindex of 6, co-authored 13 publications receiving 79 citations. Previous affiliations of Luke J. O'Driscoll include University of Southern Denmark.

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Electrochemical control of the single molecule conductance of a conjugated bis(pyrrolo)tetrathiafulvalene based molecular switch

TL;DR: In this article, a three redox state single molecule switch, based on bis(pyrrolo)tetrathiafulvalene (BPTTF) has been designed, synthesised and investigated using scanning tunnelling microscopy break junction (STM-BJ) studies and quantum transport calculations.
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Carbazole-Based Tetrapodal Anchor Groups for Gold Surfaces: Synthesis and Conductance Properties.

TL;DR: A series of oligo(phenylene‐ethynylene) wires with one tetrapodal anchor and a phenyl or pyridyl head group designed to bind strongly to gold surfaces without disrupting the conductance pathway of the wires are presented.
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A review of oligo(arylene ethynylene) derivatives in molecular junctions.

TL;DR: A comprehensive review of Oligo(arylene ethynylene) (OAE) derivatives can be found in this article with emphasis on structure-property relationships with respect to the electronic conductance of OAEs.
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Unusual dual-emissive heteroleptic iridium complexes incorporating TADF cyclometalating ligands

TL;DR: Five new neutral heteroleptic iridium(iii) complexes IrL2(pic) (2-6) based on the archetypical blue emitter FIrpic have been synthesised and show weak thermally activated delayed fluorescence (TADF) in solution.
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Reversible thermal switching of aqueous dispersibility of multiwalled carbon nanotubes.

TL;DR: Easily reversible aqueous dispersion/precipitation of multiwalled carbon nanotubes has been demonstrated using small-molecule non-ionic pyrene-based surfactants, which exhibit lower critical solution temperature (LCST) phase behaviour.