The insertion of a metal-coated tip on the surface of a photonic crystal microcavity is used for simultaneous near field imaging of electric and magnetic fields in photonic crystal nanocavities, via the radiative emission of embedded semiconductor quantum dots (QD). The photoluminescence intensity map directly gives the electric field distribution, to which the electric dipole of the QD is coupled. The magnetic field generates, via Faraday's law, a circular current in the apex of the metallized probe that can be schematized as a ring. The resulting magnetic perturbation of the photonic modes induces a blue shift, which can be used to map the magnetic field, within a single near-field scan. © 2011 Elsevier B.V
International audienceLight–matter interactions are often considered to be mediated by the electric ...
Electric and magnetic optical fields carry the same amount of energy. Nevertheless, the efficiency w...
Light–matter interactions are often considered to be mediated by the electric component of light onl...
The insertion of a metal-coated tip on the surface of a photonic crystal microcavity is used for sim...
We demonstrate the nonresonant magnetic interaction at optical frequencies between a photonic crysta...
We directly investigate, by means of near-field spectroscopy, the spatial distribution of the optica...
In nano-optics, light is controlled at length scales smaller than the wavelength. Consequently, inve...
We demonstrate the nonresonant magnetic interaction at optical frequencies between a photonic crysta...
We report a study of single quantum dots inside photonic crystal cavities with a low-temperature sca...
Tailoring the electromagnetic field at the nanoscale has led to artificial materials exhibiting fasc...
We directly investigate, by means of near-field spectroscopy, the spatial distribution of the optica...
Nanophotonic structures, which offer a sub-wavelength control over light and nearby emitters, promis...
Photonic nanomaterials, and in particular plasmonic nanoantennas, enable the manipulation of light-m...
International audienceLight–matter interactions are often considered to be mediated by the electric ...
Electric and magnetic optical fields carry the same amount of energy. Nevertheless, the efficiency w...
Light–matter interactions are often considered to be mediated by the electric component of light onl...
The insertion of a metal-coated tip on the surface of a photonic crystal microcavity is used for sim...
We demonstrate the nonresonant magnetic interaction at optical frequencies between a photonic crysta...
We directly investigate, by means of near-field spectroscopy, the spatial distribution of the optica...
In nano-optics, light is controlled at length scales smaller than the wavelength. Consequently, inve...
We demonstrate the nonresonant magnetic interaction at optical frequencies between a photonic crysta...
We report a study of single quantum dots inside photonic crystal cavities with a low-temperature sca...
Tailoring the electromagnetic field at the nanoscale has led to artificial materials exhibiting fasc...
We directly investigate, by means of near-field spectroscopy, the spatial distribution of the optica...
Nanophotonic structures, which offer a sub-wavelength control over light and nearby emitters, promis...
Photonic nanomaterials, and in particular plasmonic nanoantennas, enable the manipulation of light-m...
International audienceLight–matter interactions are often considered to be mediated by the electric ...
Electric and magnetic optical fields carry the same amount of energy. Nevertheless, the efficiency w...
Light–matter interactions are often considered to be mediated by the electric component of light onl...