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Paul Delaney

Researcher at Queen's University Belfast

Publications -  22
Citations -  4549

Paul Delaney is an academic researcher from Queen's University Belfast. The author has contributed to research in topics: Carbon nanotube & Diamond. The author has an hindex of 15, co-authored 22 publications receiving 3949 citations. Previous affiliations of Paul Delaney include Lawrence Berkeley National Laboratory & University of California, Berkeley.

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The nitrogen-vacancy colour centre in diamond

TL;DR: The nitrogen-vacancy (NV) colour centre in diamond is an important physical system for emergent quantum technologies, including quantum metrology, information processing and communications, as well as for various nanotechnologies such as biological and sub-diffraction limit imaging, and for tests of entanglement in quantum mechanics as mentioned in this paper.
Journal ArticleDOI

The nitrogen-vacancy colour centre in diamond

TL;DR: The nitrogen-vacancy (NV) colour centre in diamond is an important physical system for emergent quantum technologies, including quantum metrology, information processing and communications, as well as for various nanotechnologies such as biological and sub-diffraction limit imaging, and for tests of entanglement in quantum mechanics as mentioned in this paper.
Journal ArticleDOI

Broken symmetry and pseudogaps in ropes of carbon nanotubes

TL;DR: In this paper, it was shown that a broken symmetry of the (10,10) tube caused by interactions between tubes in a rope induces a pseudogap of about 1/eV at the Fermi level.
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The negatively charged nitrogen-vacancy centre in diamond: the electronic solution

TL;DR: In this article, a self-consistent model of the complete electronic structure of the nitrogen-vacancy center was developed to describe the effects of electric, magnetic and strain interactions, as well as the variation of the centre's fine structure with temperature.
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Correlated electron transport in molecular electronics.

TL;DR: Application of the correlated formalism to benzene-dithiol gives current-voltage characteristics close to experimental observations, which can solve the open system quantum many-body problem accurately, treats spin exactly, and is valid beyond the linear response regime.