Capacitive coupling and direct shuttling of charges in nanoscale plasmonic components
across a dielectric spacer and through a conductive junction lead to excitation of significantly …

Tunable lattice resonances are demonstrated in a hybrid plasmonic crystal incorporating the
phase-change material Ge_2Sb_2Te_5 (GST) as a 20-nm-thick layer sandwiched between …

The possibility of combining functional compounds and plasmonic nanoparticle clusters
opens new doors for developing smart and tunable nanoscale devices. Here, by merging an …

Phase-change materials (PCMs) allow for non-volatile resonance tuning of nanophotonic
components. Upon switching, they offer a large dielectric contrast between their amorphous …

Phase-change materials (PCMs) and compounds enable a combination of features for
implementing advanced and multifunctional nanophotonic applications. Possessing …

The ability to manipulate light propagation at the nanoscale is of vital importance for future
integrated photonic circuits. In this work we exploit the high contrast in the optical properties …

The high dielectric optical contrast between the amorphous and crystalline structural phases
of non-volatile phase-change materials (PCMs) provides a promising route towards …

For miniaturized active nanophotonic components like adjustable lenses, resonance tuning
of nanoantennas is essential. Phase-change materials (PCMs) have been established as …

Nanoscale active devices, such as all-optical modulators and electro-optical transducers,
can be implemented in heterostructures that integrate plasmonic nanostructures with …

Phase‐change materials (PCMs) are a promising platform for programmable metamaterials
in the infrared (IR) spectral range. This is based on the large refractive index change …