Nanoplasmonic sensing is typically based on quantification of changes in optical extinction or scattering spectra. Here we explore the possibility of facile self-referenced hydrogen sensing based on angle-resolved spectroscopy. We found that heterodimers built from closely spaced gold and palladium nanodisks exhibit pronounced directional scattering, that is, for particular wavelengths, much more light is scattered toward the Au than toward the Pd particle in a dimer. The effect is due to optical phase shifts associated with the material asymmetry and therefore highly sensitive to changes in the permittivity of Pd induced by hydrogen loading. In a wider perspective, the results suggest that directional scattering from bimetallic antennas, a...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Recent progress in nanophotonics includes demonstrations of meta-materials displaying negative refra...
We present an optical method of study of nanoparticle properties using photonic crystal surface wave...
Nanoplasmonic sensing is typically based on quantification of changes in optical extinction or scatt...
Plasmonic hybrid nanomaterials are highly desirable in advanced sensing applications. Different comp...
Plasmonic hybrid nanomaterials are highly desirable in advanced sensing applications. Different comp...
Hydride-forming metal nanoparticles sustaining localized surface plasmon resonance have emerged as p...
In this article, a chiral plasmonic hydrogen-sensing platform using palladium-based nanohelices is d...
When light interacts with metallic nanoparticles smaller than its wavelength it can excite a collect...
Reversible tuning of localized surface plasmon resonances is achieved with strong resonance intensit...
Accurate and reliable hydrogen sensors are an important enabling technology for the large-scale intr...
<p>When light interacts with metallic nanoparticles smaller than its wavelength it can excite a coll...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Scrutinizing functional nanosystems and relating details in their size, chemistry, and geometry to f...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Recent progress in nanophotonics includes demonstrations of meta-materials displaying negative refra...
We present an optical method of study of nanoparticle properties using photonic crystal surface wave...
Nanoplasmonic sensing is typically based on quantification of changes in optical extinction or scatt...
Plasmonic hybrid nanomaterials are highly desirable in advanced sensing applications. Different comp...
Plasmonic hybrid nanomaterials are highly desirable in advanced sensing applications. Different comp...
Hydride-forming metal nanoparticles sustaining localized surface plasmon resonance have emerged as p...
In this article, a chiral plasmonic hydrogen-sensing platform using palladium-based nanohelices is d...
When light interacts with metallic nanoparticles smaller than its wavelength it can excite a collect...
Reversible tuning of localized surface plasmon resonances is achieved with strong resonance intensit...
Accurate and reliable hydrogen sensors are an important enabling technology for the large-scale intr...
<p>When light interacts with metallic nanoparticles smaller than its wavelength it can excite a coll...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Scrutinizing functional nanosystems and relating details in their size, chemistry, and geometry to f...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Nanostructured metal hydrides are able to efficiently detect hydrogen in optical sensors. In the lit...
Recent progress in nanophotonics includes demonstrations of meta-materials displaying negative refra...
We present an optical method of study of nanoparticle properties using photonic crystal surface wave...