Near-field optical microscopy by means of infrared photocurrent mapping has rapidly developed in recent years. In this letter we introduce a near-field induced contrast mechanism arising when a conducting surface, exhibiting a magnetic moment, is exposed to a nanoscale heat source. The magneto-caloritronic response of the sample to near-field excitation of a localized thermal gradient leads to a contrast determined by the local state of magnetization. By comparing the measured electric response of a magnetic reference sample with numerical simulations we derive an estimate of the field enhancement and the corresponding temperature profile induced on the sample surface
Recent suggestions of nanoscale heat confinement on the surface of synthetic and biogenic magnetic n...
Heat generation by pointlike structures is an appealing concept for its implications in nanotechnolo...
We present a theory of the Seebeck effect in nanomagnets with dimensions smaller than the spin diffu...
Near-field optical microscopy by means of infrared photocurrent mapping has rapidly developed in rec...
Probing spatial variation of temperature at the nanoscale provides key information for exploring div...
Localized laser heating creates temperature gradients in all directions leading to three-dimensional...
Recently, local probes used in optical experiments added a new dimension to the study of the optical...
Advanced magnetic microscopies are key to advancing our understanding and application of novel magne...
We present the results of an experiment to locally resolve the spin Seebeck effect in a high-quality...
The search for novel tools to control magnetism at the nanoscale is crucial for the development of n...
The ability to probe nanoscale heat flow in a material is often limited by lack of spatial resolutio...
Photonic nanomaterials, and in particular plasmonic nanoantennas, enable the manipulation of light-m...
We present thermoelectric measurements of the heat dissipated due to ferromagnetic resonance of a Pe...
Images of magnetic bits written in a Pt/Co multilayer are presented. Using photosensitive semiconduc...
Recent suggestions of nanoscale heat confinement on the surface of synthetic and biogenic magnetic n...
Heat generation by pointlike structures is an appealing concept for its implications in nanotechnolo...
We present a theory of the Seebeck effect in nanomagnets with dimensions smaller than the spin diffu...
Near-field optical microscopy by means of infrared photocurrent mapping has rapidly developed in rec...
Probing spatial variation of temperature at the nanoscale provides key information for exploring div...
Localized laser heating creates temperature gradients in all directions leading to three-dimensional...
Recently, local probes used in optical experiments added a new dimension to the study of the optical...
Advanced magnetic microscopies are key to advancing our understanding and application of novel magne...
We present the results of an experiment to locally resolve the spin Seebeck effect in a high-quality...
The search for novel tools to control magnetism at the nanoscale is crucial for the development of n...
The ability to probe nanoscale heat flow in a material is often limited by lack of spatial resolutio...
Photonic nanomaterials, and in particular plasmonic nanoantennas, enable the manipulation of light-m...
We present thermoelectric measurements of the heat dissipated due to ferromagnetic resonance of a Pe...
Images of magnetic bits written in a Pt/Co multilayer are presented. Using photosensitive semiconduc...
Recent suggestions of nanoscale heat confinement on the surface of synthetic and biogenic magnetic n...
Heat generation by pointlike structures is an appealing concept for its implications in nanotechnolo...
We present a theory of the Seebeck effect in nanomagnets with dimensions smaller than the spin diffu...