Manoilov E. Photoluminescence in the visible spectral range of nanocrystalline silicon formed by pulsed laser deposition

Українська версія

Thesis for the degree of Candidate of Sciences (CSc)

State registration number

0405U003935

Thesis Registration Form

0405U003935.pdf

Applicant for

Specialization

  • 01.04.07 - Фізика твердого тіла

21-10-2005

Specialized Academic Board

К 26.199.01

Essay

The complex investigation results of mechanism of the photoluminescence in visible range of spectrum at room temperature in films with Si quantum dots formed by pulsed laser deposition are presented. It was set that the structural model of photoluminescent films represents the nanocomposite two-phase system: the low-dimensional Sі nanocrystals in SіO2 matrix. It was shown that the nature of visible photoluminescence in Si quantum dots was determined by effects of the dimensional quantization radiative annihilation of excitons. Nano-/monosilicon heterojunctions with photosensitive and electroluminescent properties have been obtained. The method to form electron emitters of cold cathodes on a basis nanostructured silicon has been offered.

Read more

Files

ARef.doc

Diser.doc

Similar theses

0424U000081

Igor G. Churilov

Peculiarities of thermal influence on morphological changes and the mechanism of liquid phase formation in condensed one-component films (Pb, Sn, In, Bi) and in binary layered films (Bi/Sn, Pb/Sn, Pb/In)

0424U000065

Mazur Dmytro V.

X-ray absorption and magnetic circular dichroism spectra features in compounds containing oxygen and based on 4th period metals

0523U100214

Serhii V. Oliinyk

Physical basis of formation of electrical and photoelectric properties of AIIBVI crystals and electrical properties of multicomponent coatings

0522U100045

Bohdanov Yevhen Ivanovych

Effects of azimuthal asymmetry of radiation scattering in crystals and new possibilities of diffuse-dynamical diffractometry

0522U100002

Vladymyrskyi Igor A.

Thermally-induced structural phase transitions in heterogeneous systems based on magnetic and nonmagnetic nanolayers