Hybrid Colloidal Plasmonic‐Photonic Crystals

Abstract

We review the recently emerged class of hybrid metal-dielectric colloidal photonic crystals. The hybrid approach is understood as the combination of a dielectric photonic crystal with a continuous metal film. It allows to achieve a strong modification of the optical properties of photonic crystals by involving the light scattering at electronic excitations in the metal component into moulding of the light flow in series to the diffraction resonances occurring in the body of the photonic crystal. We consider different realizations of hybrid plasmonic-photonic crystals based on two- and three-dimensional colloidal photonic crystals in association with flat and corrugated metal films. In agreement with model calculations, different resonance phenomena determine the optical response of hybrid crystals leading to a broadly tuneable functionality of these crystals.

Peculiarities of photonic crystal recording in functional polymer nanocomposites by multibeam interference holography

“…Hybrid materials for PCS are perspective, especially with combination of photonic and plasmonic properties; they are so called hybrid photonicplasmonic heterocrystals [9].…”

Far-field disentanglement of modes in hybrid plasmonic-photonic crystals by fluorescence nano-reporters

“…Furthermore, the coupling strength between the photonic and plasmonic components of such a hybrid structure is strongly increased if the plasmonic component possesses its own resonances, one/some of them overlapping the resonances of the photonic crystal [12]. In particular, hybrid structures obtained by nanosphere lithography [13] and consisting of ordered arrays of metal half-shells vapor-deposited in thin films (thickness of the order of 20 -30 nm) on top of 2D colloidal crystals (2D CC) used as substrates present interesting optical properties [14,15].…”

Оптические Свойства Металлодиэлектрических Структур На Основе Фотонно-Кристаллических Опаловых Матриц-=sup=-*-=/Sup=-

“…В их число входят гибридные плазмонно-фотонные металло-диэлектрические структуры, дающие возможность целе-направленно формировать оптический отклик систем, что значительно расширяет их функциональные воз-можности [2][3][4][5][6]. При этом физика процессов, вызыва-ющих модификацию исходной ФЭС, определяется как дизайном создаваемой гетероструктуры, так и методом * Доклад на XIV Международной конференции " Физика диэлектри-ков", Санкт-Петербург, 29 мая−2 июня 2017 г.…”