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Description of courses and programme: SEMESTER B'

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The Programme of Study and the description of the courses are available in pdf format:

OVERVIEW:

SEMESTER A

1.Molecular Biology & Genomics

2.Biomolecular Structure and Function

3.Programming Languages and Software Tools in Bioinformatics I

4.Statistics in Bioinformatics

5.Principles and Methods in Bioinformatics

6.Application of Informatics in the Study and Preservation of Biodeversity

During the second semester, more advanced topics of informatics and programming are covered, along with their applications to actual research problems.

More information is given below:

SEMESTER B
1.  Computational Analysis of Biomacromolecular Sequences
Coordinator: Prof. S. Hamodrakas
Lecturers: Prof. S. Hamodrakas | Assoc. Prof. G. Rodakis | Dr. I. Almyrantis | Dr. P. Bagos | Dr. V. Oikonomidou
Compulsory Module
Semester: B
Syllabus:
  • Introduction: DNA and protein sequences
  • Sequence similarity search algorithms: Sequence homology and similarity and their importance, dynamic programming algorithms, Global Alignment and Needleman & Wunch algorithm, Local Alignment and Smith & Waterman algorithm, Calculation of alignment's statistical significance, Importance of Identity matrixes, gaps and penalties, Heuristics methods for similarity searches in databases (BLAST, FASTA etc).
  • Multiple sequence alignment: Multidimensional dynamic programming algorithms, Heuristic methods for multiple sequence alignments (HMMER, SAM, HMM-Pro etc), phylogenetic trees and multiple alignments
  • Discovery of patterns and periodicities in protein and DNA sequences
  • Prediction algorithms based on protein and DNA sequences: Empirical statistical methods, Clustering, Neural networks, Ηidden Markov Models, Genetic algorithms. Applications of the above mentioned methods for:
    • Secondary structure prediction of proteins and RNA
    • Prediction of Transmembrane segments and their orientation in proteins
    • Gene finding in DNA sequences
    • Multiple sequence alignments using Hidden Markov Models (HMMER, SAM, HMM-Pro etc)
    • Sequence clustering in families
2.  Computational Analysis of Biomacromolacular Structures
Coordinator: Prof. E. Iliopoulos
Lecturers: Prof. S. Hamodrakas | Prof. E. Iliopoulos | Dr. M Vlasi | Dr. N. Papandreou | Dr. V. Oikonomidou
Compulsory Module
Semester: B
Syllabus:
  • Introduction - Biomolecular structures - Determination methods
  • Fold recognition
  • Fitting (Anteposition) of stereo structures
  • Comparative homology modeling - Threading
  • Modelling of protein structures by molecular mechanics and molecular dynamics.
  • Protein-Ligand docking - Drug design
  • Protein-protein structural recognition (docking)
  • Structure quality evaluation methods - Methods for stereochemical structure checks
3.  Programming Languages and Software Tools in Bioinformatics II
Coordinator: Prof. S. Hamodrakas
Lecturers: Prof. S. Hamodrakas
Compulsory Module
Semester: B
Syllabus:
PART I The JAVA programming language
  • Classes and Objects, Java foundation classes, Applets and Applications, Topics in Graphical User Interface design, Distributed computing, JavaBeans, JAVA applications in Bioinformatics - the BIOJAVA project

PART II The perl programming language

  • Scalar variables, lists, arrays, strings. Flow control structures. Subroutines, Associative arrays (hashes). Input/output. Pattern matching with regular expressions. Perl applications in Bioinformatics - the BIOPERL project.
4.  Molecular Recognition - Molecular Diseases - Structural Drug Design
Coordinator: Prof. I. Iliopoulos
Lecturers: Prof. S. Hamodrakas | Prof. E. Iliopoulos | Dr. M Vlasi | Dr. V. Oikonomidou
Compulsory Module
Semester: B
Syllabus:
  • Structural elements of biomolecules: Size and environment of biomolecules
  • Biomolecular interactions: Protein-protein interaction types, Protein-DNA interaction types
  • Molecular recognition: Binding and dissociation constants, Binding energy, A molecular recognition example, Entropy terms in complex creation, Degrees of molecular recognition - high fidelity recognition, Evolution and molecular recognition, Interactions of proteins and nucleic acids.
  • Energetic analysis of interactions: Molecular mechanics, Introduction to the methodology of "ab initio" protein folding, the empirical function of energy, energy minimization, energy surface, Enthalpy and entropy, Molecular dynamics.
  • Protein folding - molecular chaperones: New approaches for protein folding with or without intermediate states, The value of molecular topology, Molecular chaperones.
  • Biological membranes and membrane proteins: Composition and structure of biological membranes, membrane proteins, Membrane protein structure, Families of membrane proteins, Channels and receptors.
  • Cellular Translocation of proteins: The endoplasmic reticulum function, protein targeting and signal sequences, protein translocation in mitochondria, chloroplasts and the nucleus.
  • Drug design: Methodology, Drug design based on target?s structure, Problems - Resistance of infectious diseases and cancer against therapeutic agents.
  • Chemical signal transduction: Usual molecular mechanisms for signal transduction, Hormones, Neurotransmitters, Signal transduction in membranes and cytoplasm, Steroid hormones and their receptors. Feromones.
5.  Methodology of Research
Coordinator: Prof. S. Hamodrakas
Lecturers: Prof. S. Hamodrakas | Prof. L. Margaritis | Prof. E. Moudrianakis | Assoc. Prof. G. Rodakis | Prof. E. Iliopoulos | Lecturer G. Goulielmos
Compulsory Module
Semester: B
Syllabus:
  • General issues
  • Science, Scientific Field and Scientific Research
  • Biological research.
  • Ethics in scientific research and specifically in biological sciences
  • Bioinformatics and moral dilemmas. The role of a bioinformatician in different stages of a project.
  • Writing, evaluating and publishing the results of scientific research in the academic press (journals, conferences etc).
  • Choosing the appropriate journal (Sources, Information, Instructions to authors, peer review system, journal evaluation)
  • Type of Articles (review, letters etc). Scientific paper format (Abstract, Introduction, Materials and Methods, Results, Discussion).
  • Assessment of a submitted paper through the peer review system. Answering reviewer?s comments.
  • Applications.
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