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Kjeld Møller Pedersen

Researcher at Aalborg University

Publications -  307
Citations -  5754

Kjeld Møller Pedersen is an academic researcher from Aalborg University. The author has contributed to research in topics: Second-harmonic generation & Plasmon. The author has an hindex of 30, co-authored 306 publications receiving 4997 citations. Previous affiliations of Kjeld Møller Pedersen include University of Toronto & Aarhus University.

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Second‐order optical nonlinearities in dilute melt proton exchange waveguides in z‐cut LiNbO3

TL;DR: In this paper, the second-order susceptibilities of planar optical waveguides are measured by detecting the reflected second-harmonic signal generated by a 532 nm beam directed onto the waveguide surface.
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Directly patterned TiO2 nanostructures for efficient light harvesting in thin film solar cells

TL;DR: In this paper, two nanostructural designs of light-trapping back-surface reflectors (BSR) have been fabricated for increasing the photon-harvesting properties of thin-film solar cells: a quasiperiodic nano-crater design and a random nano-bump design.
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Local excitation of surface plasmon polaritons by second-harmonic generation in crystalline organic nanofibers

TL;DR: In this article, the surface plasmon polaritons (SPPs) were characterized using angle-resolved leakage radiation spectroscopy in the excitation wavelength range of 850-1325 nm and compared to simulations based on a Green's function area integral equation method.
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Polarization-resolved two-photon luminescence microscopy of V-groove arrays.

TL;DR: This work investigates electromagnetic field enhancement effects from a µm-sized composition of 450-nm-deep V-grooves milled by focused ion beam in a thick gold film and assembled to feature, within the same structure, individual V-Grooves as well as one- and two-dimensional 300- nm-period arrays of, respectively, parallel and crossed V- Grooves.
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Optical properties and size/shape dependence of α-Sn nanocrystals by tight binding

TL;DR: In this article, a very accurate tight binding parametrization was proposed to calculate the electronic and optical properties of round and faceted nanocrystals under both tensile and compressive strain.