Wnioski końcowe

1. Domieszkowanie ceramiki BaTiO3 lantanem w ilości 0,4 mol.% wywołuje:

gigantyczną wartość przenikalności elektrycznej, przy stosunkowo niskim pozio‑

•

mie strat dielektrycznych, co predysponuje otrzymany materiał do zastosowania jako alternatywne wypełnienie ultrakondensatorów;

pojawienie się właściwości piezorezystywnych w temperaturze pokojowej, co po‑

•

zwala przypuszczać, że ceramika BLT4 stanowi materiał bazowy do potencjalnych zastosowań w piezorezystywnych czujnikach ciśnienia;

pojawienie się właściwości półprzewodnikowych, a powyżej temperatury Curie

•

— właściwości pozystorowych, co może zaowocować zastosowaniem otrzymanej ceramiki w termistorach PTCR.

2. Wprowadzenie jonów żelaza do ceramiki tytanianu baru lantanu poprawia właściwoś‑

ci piezoelektryczne, a 0,3 mol.% Fe³⁺ powoduje znaczny wzrost piezoelektrycznego współczynnika d33, co plasuje omawianą ceramikę w grupie materiałów bezołowio‑

wych stanowiących konkurencję dla ceramiki typu ‑PZT, które mogą być wykorzysta‑

ne do bezołowiowych piezoelektryków.

3. Dodatkowym atutem zsyntezowanych materiałów, których właściwości zostały omó‑

wione na kartach niniejszej pracy, jest ekonomiczna i przyjazna środowisku technolo‑

gia otrzymywania. Dyskutowane materiały konstrukcyjne z powodzeniem znajdą za‑

stosowanie w innowacyjnych elementach elektronicznych, dedykowanych do aplikacji w nowoczesnych układach mechatronicznych i automatycznych.

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W dokumencie Właściwości perowskitowej ceramiki ferroelektrycznej na bazie tytanianu baru (Stron 167-188)