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Magnetic light

Scientific Reports · 2012 · Vol. 2(1) · pp. 492–492
Arseniy I. KuznetsovAndrey E. MiroshnichenkoYuan Hsing FuJingbo ZhangBoris Luk’yanchuk

Abstract

Spherical silicon nanoparticles with sizes of a few hundreds of nanometers represent a unique optical system. According to theoretical predictions based on Mie theory they can exhibit strong magnetic resonances in the visible spectral range. The basic mechanism of excitation of such modes inside the nanoparticles is very similar to that of split-ring resonators, but with one important difference that silicon nanoparticles have much smaller losses and are able to shift the magnetic resonance wavelength down to visible frequencies. We experimentally demonstrate for the first time that these nanoparticles have strong magnetic dipole resonance, which can be continuously tuned throughout the whole visible spectrum varying particle size and visually observed by means of dark-field optical microscopy. These optical systems open up new perspectives for fabrication of low-loss optical metamaterials and nanophotonic devices.

Metamaterials and Metasurfaces ApplicationsPlasmonic and Surface Plasmon ResearchPhotonic Crystals and ApplicationsNanophotonicsMetamaterialMie scatteringNanoparticleMaterials scienceResonatorResonance (particle physics)SiliconVisible spectrumMagnetic nanoparticles

Funding

  • Agency for Science, Technology and Research
  • Australian Research Council
Citations
1,078
FWCI
22.27
field-weighted impact
References
67
Percentile
100%
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Cited by
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Nature Nanotechnology · 2016 · 1,921 citations
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