книги / Наноструктуры и наноматериалы. Синтез, свойства и применение
.pdfОдномерные наноструктуры: нанонити и наностержни |
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2d I*-
Фоторезист (0,4 мкм) i— Si (100 нм)
S i0 2 (0,5 мкм)
Экспонирование ультрафиолетовым излучением и проявление
Полоска фоторезиста
Реактивное ионное травление и удаление фоторезиста
Полоска кремния
К огда d= 2 мкм, w=130 нм
1)Окисление
2)Охлаждение
3)Окисление
Рис. 4.38. Последовательность операций, используемых для получения монокристаллических кремниевых нанонитей [Y. Yin, В. Gates, and Y. Xia, Adv. Mater. 12, 1426 (2000)].
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фоторезиста, а затем было перенесено на подложку с помощью реактивного ион ного травления или процесса жидкостного травления. Кремниевые нанострукту ры отделяли от подложки с помощью небольшого перетравливания. На рис. 4.39 представлены СЭМ-изображения кремниевых наноструктур, полученных с помо щью такой ближнеполевой оптической литографии, с последующим переносом изображения на кремний с помощью реактивного ионного травления, окисления кремния при 850°С на воздухе в течение ~1 ч и отслаивания в растворе HF [209].
4.6.Заключение
Вэтой главе обобщены основы и общие подходы к изготовлению одномерных наноструктур. Фундаментальные идеи способствуют развитию разнообразных методов формирования таких структур, которые уже реализованы на практике. Однако не все методы синтеза рассмотрены в этой главе. Ее содержание ограни чено наиболее важными принципами и концепциями различных наиболее часто применяющихся методов синтеза одномерных наноструктур.
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