Theoretical study of phonons in large-scale and layered materials: method development and applications

  • Exfoliation of graphene in 2004 initiated a tremendous interest (both theoretical as well as experimental) in the field of the two-dimensional (2D) materials. Such materials have typically layered structures, so the field of 2D materials is naturally related to the more general field of layered materials. A special (and relatively unexplored) class of such materials are the so-called misfit layered compounds (MLCs), which are made up of layers of 2D crystals whose lattice constant ratio is an irrational number. Moreover, with the ever growing interest in the chemistry and physics of new materials, there is a high demand for novel and improved theoretical and computational methods, especially for ones which offer accurate, ab-initio theoretical description of large systems (such as the aforementioned MLCs) with low computational costs. One of the methods that seems to meet these demands well is the density-functional based tight-binding. This thesis is a summary of my work on the above mentioned topics, including: i) development of new phonon calculation methods in the SCC-DFTB formalism ii) investigation of layered, intercalated PbNbS2 and misfit (PbS)1.14NbS2 compounds through Raman spectroscopy iii) investigation of a new family of layered materials, with the formula XY3 (X = group 14, Y = group 15 element)

Download full text

Cite this publication

  • Export Bibtex
  • Export RIS

Citable URL (?):

Search for this publication

Search Google Scholar Search Catalog of German National Library Search OCLC WorldCat Search Catalog of GBV Common Library Network Search Catalog of Jacobs University Library Search Bielefeld Academic Search Engine
Meta data
Publishing Institution:IRC-Library, Information Resource Center der Jacobs University Bremen
Granting Institution:Jacobs Univ.
Author:Vladimir Bacic
Referee:Veit Wagner, Balint Aradi
Advisor:Agnieszka Kuc
Persistent Identifier (URN):urn:nbn:de:gbv:579-opus-1010102
Document Type:PhD Thesis
Language:English
Date of Successful Oral Defense:2021/08/30
Date of First Publication:2021/11/09
Academic Department:Physics & Earth Sciences
PhD Degree:Physics
Focus Area:Health
Call No:2021/16

$Rev: 13581 $