Моделирование оптических поляризационных процессов на лазерно-модифицированном титане с пленкой поливинилового спирта
Аннотация
Исследованы оптические спектры поверхностных плазмон-поляритонов на лазерно-модифицированном титане с осажденной микронной полимерной пленкой поливинилового спирта (ПВС).
Метаповерхность титана создавалась лазерным фемтосекундным воздействием l = 1.035 мк и длительностью t = 280 фс с линейной и круговой поляризацией излучения. Пакеты лазерных импульсов точечно наносились на поверхность шагом через 100 мк через ti = 25–750 мс. При линейной поляризации излучения на скрайбированной поверхности титана возникали дорожки сканов «ripple» («рябь») структур с плотностью штрихов до N ~1200 мм–1. Установлено, что при круговой поляризации воздействующего излучения на титан, возникали абляционные точечные каверны с лепестковыми кольцевыми «ripple» нано-микроструктурами вдоль линии распространения импульсов луча.
Проведено математическое моделирование действительной Re (e) и мнимой Im (e) диэлектрических проницаемостей и установлено практически полное совпадение спектральных параметров в спектрах отражения поляризованного излучения. При анализе спектров так же было установлено наличие максимума поглощения в ИК-области, обусловленного присутствием пленки ПВС.
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Литература
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