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1 article(s) from Benel, Cahit

Near-field effects and energy transfer in hybrid metal-oxide nanostructures

Ulrich Herr,
Balati Kuerbanjiang,
Cahit Benel,
Giorgos Papageorgiou,
Manuel Goncalves,
Johannes Boneberg,
Paul Leiderer,
Paul Ziemann,
Peter Marek and
Horst Hahn

Beilstein J. Nanotechnol. 2013, 4, 306–317, doi:10.3762/bjnano.4.34

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Figure 1: CVR chamber consisting of precursor sources, reaction zone and thermophoretic powder-collection sys...

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Figure 2: X-ray diffraction patterns (Cu Kα radiation) from the TiO₂:Eu nanophosphors produced by the CVR met...

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Figure 3: Normalized emission spectra of Eu³⁺ in TiO₂ under excitation at 330 or 390 nm.

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Figure 4: Excitation spectrum of TiO₂:Eu nanoparticles detected at 617 nm emission.

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Figure 5: Decay of the TiO₂:Eu emission intensity with time for excitation at 330 nm.

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Figure 6: Decay of the TiO₂:Eu emission intensity at 617 nm with time for excitation at 460 nm.

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Figure 7: STEM image of TiO₂:Eu nanoparticles coated with a shell of 3 nm Al₂O₃ and TiO₂.

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Figure 8: High-resolution TEM image of TiO₂ nanoparticles coated with Al₂O₃ showing that the Al₂O₃ coating is...

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Figure 9: SEM image of Ag nanoantennas from the nanosphere lithography process (using colloid spheres with 3 ...

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Figure 10: Confocal microscopy images of the Ag nano-antenna structures (produced using 3 μm diameter colloid ...

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Figure 11: Calculated field-enhancement factor (normalized to the amplitude E₀ of the incident light) for bowt...

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Figure 12: Field enhancement ratio (scale goes from 0 to 90) for Ag bow-tie nano-antennas with tip-to-edge len...

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Figure 13: Dependence of the field enhancement in the centre of the gap of a bowtie antenna structure on the i...

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Figure 14: Field enhancement ratio for an array of Ag nanoantenna structures with tip-to-edge length of 370 nm...

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Figure 15: SEM image of spin coated TiO₂:Eu layer on Ag nanoantenna structures.

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Figure 16: (a) AFM image of the spin coated TiO₂:Eu layer. The antenna structure is still visible in this regi...

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Figure 17: Fluorescent intensity obtained by confocal microscopy of spin-coated nanoantenna structures under e...

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Figure 18: Emission spectrum of VTLUNP organic pigment under excitation with 532 nm radiation.

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Figure 19: Excitation spectrum of VTLUNP organic pigment for emission at 614 nm.

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Figure 20: (a) AFM image of Ag nanoantennas spin coated with VTLUNP (b) AFM height profiles along the lines 1 ...

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Figure 21: Representative scattering (a, c) and fluorescence (b, d) images of the samples spin coated with VTL...

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Figure 22: Representative fluorescence images (recorded at 614 nm) of samples without SiO_x layer (a, b) and sa...

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Full Research Paper

Published 14 May 2013

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