Збірник наукових праць Наносистеми, наноматеріали, нанотехнології
Рік 2025 Том 23, Випуск 3
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Kenza ALMI, Maria Nor Elyakin BOUMEZRAG, and Said LAKEL

Laboratory of Metallic and Semiconducting Materials, University of Biskra, 07000 Biskra, Algeria

A Review on Synthesis and Characterization of Some Copper-Oxide Properties and Potential Application

677–718 (2025)

PACS numbers: 61.05.cp, 68.55.J-, 73.61.Le, 78.30.Hv, 78.55.Hx, 78.67.Bf, 81.07.Bc

Received 24 December, 2023; in revised form, 27 December, 2023

Цей огляд зосереджений на синтезі та характеризації тонких напівпровідникових плівок на основі металооксиду p-типу (CuO p-типу), що використовуються для хемічної сенсибілізації. Тонкі плівки CuO p-типу мають ряд переваг над металооксидом n-типу, включаючи вищий каталітичний ефект, низьку залежність від вологости та поліпшену швидкість відновлення. Однак сенсорна продуктивність тонкої плівки CuO тісно пов'язана з власними фізико-хемічними властивостями матеріялу та його товщиною. Остання сильно залежить від методів синтези. Тут розглянуто багато методів, що використовуються для вирощування тонкої плівки CuO p-типу. Оксид Купруму називають багатофункціональним матеріялом завдяки широкому спектру хемічних і фізичних властивостей, які часто дуже чутливі до змін параметрів оброблення, хоча завдяки широким дослідженням і розробкам оптимізація параметрів оброблення все ще перебуває в повному розвитку дотепер. Загальні дослідження показали, що різні властивості оксиду Купруму залежать від експериментальних умов. У цьому розширеному огляді ми більше зосереджуємося на обговоренні впливу основних параметрів синтези, таких як розчин-провісник, температура відпалу та товщина наноматеріялу, які вже одержали різні дослідники. Ці чинники критично розглянуто, оцінено та порівняно.

КЛЮЧОВІ СЛОВА: напівпровідниковий оксид Купруму, методи синтези, тонкі плівки p-CuO, розчин-провісник, температура відпалу

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