The hydrogenation of metals often leads to changes in optical properties in the visible range. This allows for fundamental studies of the hydrogenation process, as well as the exploration of various applications using these optical effects. Here, we focus on recent developments in metal hydride-based optical fiber and plasmonic sensors and smart windows. Both applications benefit from the existence of a reflective metallic state, which is lost on hydrogenation and allows for large reversible optical changes. In this article, we review the status of both technologies and their prospects for applications
Hydrogen plays an essential role in many sectors of the industry. For example, hydrogen is necessary...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Mg shows great potential as a metal hydride for switchable optical response and hydrogen detection d...
The hydrogenation of metals often leads to changes in optical properties in the visible range. This ...
Metal hydrides often display dramatic changes in optical properties upon hydrogenation. These shifts...
We report on the implementation of Pd-capped chemo-chromic metal hydrides as a sensing layer in fibe...
Optical hydrogen sensors have a promising future in a society where hydrogen detection becomes incre...
An optical fiber containing structured hydrogen sensing points, consisting of Palladium and/or Magne...
In this review, we discuss the evolution of localized surface plasmon resonance and surface plasmon ...
In this review, we discuss the evolution of localized surface plasmon resonance and surface plasmon ...
An optical fiber containing structured hydrogen sensing points, consisting of Palladium and/or Magne...
Hydrogen detection is an environmental priority. Numerous hydrogen sensors have been developed, but ...
The large optical reflectance changes, which occur when hydrogen enters the lattice of a thin Mg-Ti ...
The large optical reflectance changes, which occur when hydrogen enters the lattice of a thin Mg-Ti ...
Pd-capped gasochromic metal hydrides can be used as sensing layer in fiber optic hydrogen detectors....
Hydrogen plays an essential role in many sectors of the industry. For example, hydrogen is necessary...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Mg shows great potential as a metal hydride for switchable optical response and hydrogen detection d...
The hydrogenation of metals often leads to changes in optical properties in the visible range. This ...
Metal hydrides often display dramatic changes in optical properties upon hydrogenation. These shifts...
We report on the implementation of Pd-capped chemo-chromic metal hydrides as a sensing layer in fibe...
Optical hydrogen sensors have a promising future in a society where hydrogen detection becomes incre...
An optical fiber containing structured hydrogen sensing points, consisting of Palladium and/or Magne...
In this review, we discuss the evolution of localized surface plasmon resonance and surface plasmon ...
In this review, we discuss the evolution of localized surface plasmon resonance and surface plasmon ...
An optical fiber containing structured hydrogen sensing points, consisting of Palladium and/or Magne...
Hydrogen detection is an environmental priority. Numerous hydrogen sensors have been developed, but ...
The large optical reflectance changes, which occur when hydrogen enters the lattice of a thin Mg-Ti ...
The large optical reflectance changes, which occur when hydrogen enters the lattice of a thin Mg-Ti ...
Pd-capped gasochromic metal hydrides can be used as sensing layer in fiber optic hydrogen detectors....
Hydrogen plays an essential role in many sectors of the industry. For example, hydrogen is necessary...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Mg shows great potential as a metal hydride for switchable optical response and hydrogen detection d...