FEATURES OF THE FORMATION OF AN ARRAY OF ISOLATED POLYMER P(VDF-TrFE) NANOPARTICLES IN PORES OF A PERIODIC NANOSTRUCTURED SILICON OXIDE MEMBRANE

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Abstract

This work is devoted to the technological features of creating an array of pyroelectric nanoparticles placed in the pores of a silicon oxide membrane, ensuring their thermal insulation both from each other and from the supporting substrate. Mechanisms of anodic oxidation of the Al/Ti/SiO 2 structure, ensuring the self-organization of a nanostructured oxide mask with specified geometric parameters, have been established. It has been shown that from a certain thickness of the adhesion layer, overgrowing of the open areas of the mask with titanium oxide nanoparticles does not occur. The regularities of the method of local ion etching of multilayer structures are determined, which ensures control of the depth of the formed pores by controlling the ion current. A correlation has been established between the lateral size of the cavities in silicon and the aspect ratio of aluminum oxide pores. The possibility of forming a silicon oxide membrane with pyroelectric polymer nanoparticles embedded in its pores has been demonstrated.

About the authors

Alexey N. Belov

National Research University of Electronic Technology, Zelenograd

Email: nanointech@mail.RUS
Moscow, Russia

Nikita V. Vostrov

Tver State University

Tver, Russia

Grigory N. Pestov

National Research University of Electronic Technology, Zelenograd

Moscow, Russia

Alexander V. Solnyshkin

Tver State University

Tver, Russia

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