Novel materials with defined composition and structures at the nanoscale are increasingly desired in several research fields spanning a wide range of applications. The development of new approaches of synthesis that provide such control is therefore required in order to relate the material properties to its functionalities. Self-assembling materials such as block copolymers (BCPs), in combination with liquid phase infiltration (LPI) processes, represent an ideal strategy for the synthesis of inorganic materials into even more complex and functional features. This review provides an overview of the mechanism involved in the LPI, outlining the role of the different polymer infiltration parameters on the resulting material properties. We report newly developed methodologies that extend the LPI to the realisation of multicomponent and 3D inorganic nanostructures. Finally, the recently reported implementation of LPI into different applications such as photonics, plasmonics and electronics are highlighted.

Liquid Phase Infiltration of Block Copolymers / Murataj, Irdi; Cara, Eleonora; Baglieri, Nicoletta; Pirri, Candido Fabrizio; De Leo, Natascia; Ferrarese Lupi, Federico. - In: POLYMERS. - ISSN 2073-4360. - 14:20(2022). [10.3390/polym14204317]

Liquid Phase Infiltration of Block Copolymers

Murataj, Irdi;Cara, Eleonora;Baglieri, Nicoletta;Pirri, Candido Fabrizio;De Leo, Natascia;Ferrarese Lupi, Federico
2022

Abstract

Novel materials with defined composition and structures at the nanoscale are increasingly desired in several research fields spanning a wide range of applications. The development of new approaches of synthesis that provide such control is therefore required in order to relate the material properties to its functionalities. Self-assembling materials such as block copolymers (BCPs), in combination with liquid phase infiltration (LPI) processes, represent an ideal strategy for the synthesis of inorganic materials into even more complex and functional features. This review provides an overview of the mechanism involved in the LPI, outlining the role of the different polymer infiltration parameters on the resulting material properties. We report newly developed methodologies that extend the LPI to the realisation of multicomponent and 3D inorganic nanostructures. Finally, the recently reported implementation of LPI into different applications such as photonics, plasmonics and electronics are highlighted.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11696/85519
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