|
Title
|
Theory of Information
|
||
|
Code
|
ÚMV/TIN1/03
|
Teacher
|
Bukovský Lev
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To
introduce students to mathematical attempts at solving selected problems of
computer science.
|
||
|
Content
|
Measurement
of information. Entropy and its properties. Shanon’s theorems. Coding and
basic types of codes. Using of algebraic structures in construction of codes.
Kolmogorov complexity. Basic properties and relation to the notion of
entropy. Complexity and randomness.
|
||
|
Recommended reading
|
J. H. van Lint, Introduction to Coding Theory,
Springer 1992
M. Li and P. Vitanyi, Kolmogorov Complexity and its
Applications, Handbook of Theoretical Computer Science, Elsevier, 1990, p.
188-252
|
||
|
Title
|
Mathematical Foundations of Cryptography
|
||
|
Code
|
ÚINF/MZK/06
|
Teacher
|
Geffert Viliam, Lacko
Vladimír
|
|
ECTS credits
|
6
|
Hrs/week
|
3/2
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture, Practical
|
||
|
Content
|
Classical
cryptography. Steganography. Conventional symmetric cryptography. Feistel
networks. Encryption modes: ECB, CBC, CFB, OFB. Security definitions. Models
of an adversary. Cryptoanalysis. Asymmetric cryptosystems. One-way functions
with trapdoors. RSA cryptosystem. El-Gamal cryptosystem. Generating large
prime numbers. Elliptic curves cryptography. Keyed Hash functions. Collision
resistant functions. Birthday paradox. SHA-1. Message authentication codes.
Password security. Digital signatures. Blind signatures. Key management.
X509. Certificates. Certification authorities. Electronic payments.
Electronic cash.
|
||
|
Exclusive courses
|
ÚINF/UKR1/03
|
||
|
Title
|
Theory of Codes
|
||
|
Code
|
ÚMV/TKO1/04
|
Teacher
|
Horňák Mirko
|
|
ECTS credits
|
6
|
Hrs/week
|
4/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To acquaint
students with the basic principles and theoretical bases of text coding and
possibilities for their application.
|
||
|
Content
|
Monoids. Basic
notions of theory of codes. Examples of codes. Important classes of codes.
Maximal codes. Submonoids generated by codes. Stable submonoids. Group codes.
Free hull of a set of words. Test for recognising codes. Measure of a code.
Bernoulli distribution. Dyck code. Complete sets in monoids. Thin codes.
Composition of codes. Indecomposable codes.
|
||
|
Recommended reading
|
J. Berstel and D. Perrin, Theory of Codes, Academic
Press 1985
|
||
|
Title
|
Matroid Theory
|
||
|
Code
|
ÚMV/TMT/04
|
Teacher
|
Horňák Mirko
|
|
ECTS credits
|
5
|
Hrs/week
|
3/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To acquaint
students with basic notions of matroid theory and possibilities of using
matroids in various disciplines of discrete mathematics.
|
||
|
Content
|
Independent
sets and bases. Properties of rank function. Closure operator. Circuits.
Duality in matroids. Hyperplanes. Submatroids. Restriction, contraction,
minor of a matroid. Transversals. Radó-Hall's Theorem and its
generalisations. Greedy algorithm versus matroids.
|
||
|
Recommended reading
|
D. J. A. Welsh, Matroid Theory, Academic Press,
1976
|
||
|
Title
|
Computational Complexity
|
||
|
Code
|
ÚINF/VYZ1/04
|
Teacher
|
Geffert Viliam
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
3
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To give
students background in the computational complexity and theory of
NP-completeness.
|
||
|
Content
|
Deterministic
and nondeterministic algorithms with polynomial time; NP-completeness.
Deterministic simulation of a nondeterministic Turing machine. Satisfiability
of Boolean formulae. Other NP-complete problems: satisfiability of a formula
in a conjunctive normal form, 3-satisfiability, 3-colorability of a graph,
3-colorability of a planar graph, knapsack problem, balancing, etc. Space
bounded computations, classes LOG-space and P-space. Deterministic
simulation: Savitch’s theorem. Closure under complement. Classification of
computational complexity of problems.
|
||
|
Alternate courses
|
ÚINF/VYZ1/03 orÚINF/VYZ1/00
|
||
|
Recommended reading
|
A.V.Aho and J.D.Ullman. The design and analysis of
computer algorithms. Addison-Wesley, 1974.
P.van Emde Boas. Machine models and simulations. In
J.van Leeuwen (ed.): Handbook of theoretical computer science. North-Holland,
1990.
Ch.K.Yap. Introduction to the theory of complexity
classes. To be published by Oxford Univ. Press. (Electronic version available
via anonymous ftp://cs.nyu.edu/pub/local/yap/complexity-bk).
|
||
|
Title
|
Classical and Quantum Computations
|
||
|
Code
|
ÚINF/KKV1/06
|
Teacher
|
Semanišin Gabriel
|
|
ECTS credits
|
6
|
Hrs/week
|
3/1
|
|
Assessment
|
Examination
|
Semester
|
3
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To provide
students information on quantum computers and quantum computations. To allow
students to compare classical and quantum models and methods.
|
||
|
Content
|
The basics
of classical theory of computation: Turing machines, Boolean circuits,
parallel algorithms, probabilistic computation, NP-complete problems, and the
idea of complexity of an algorithm.
Introduction of general quantum formalism (pure states, density matrices,
and superoperators), universal gate sets and approximation theorems. Grover's
algorithm, Shor's factoring algorithm, and the Abelian hidden subgroup
problem. Parallel quantum computation, a quantum analogue of NP-completeness,
and quantum error-correcting codes.
|
||
|
Recommended reading
|
1. A. Yu. Kitaev, Classical and
Quantum Computation, American Mathematical Society, Graduate Studies in
Mathematics 47 (2002), ISBN 0-8218-3229-8
2. Gruska, J: Quantum Computing. McGraw-Hill Londýn
1999
|
||
|
Title
|
Combinatorial Algorithms
|
||
|
Code
|
ÚMV/KOA1/04
|
Teacher
|
Jendroľ Stanislav, Lacko
Vladimír
|
|
ECTS credits
|
5
|
Hrs/week
|
3/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Content
|
Introduction
to graphs. Introduction to algorithms and complexity. Sorting algorithms.
Search algorithms. Greedy algorithms. NP-completeness. Trees and rooted
trees. Generating all spanning trees of a graph. Minimum spanning tree
problem. Distance in graphs. Shortest path problem and its analogues.
Location centres. Networks. Eulerian gaphs and Chinese Postman's Problem.
Hamiltonian graphs. Travelling Salesman Problem. Matchings. Transportation
and assignment problems.
|
||
|
Exclusive courses
|
ÚMV/KOO/04
|
||
|
Recommended reading
|
1. N. Christophides, Graph Theory: An Algorithmic
Approach, Academic Press, New York
1975
2. G. Chartrand, O. R. Oellermann,
Applied and Algorithmic Graph Theory, McGraw-Hill, Inc., New York 1993
|
||
|
Title
|
Lattice Theory
|
||
|
Code
|
ÚMV/TZ1/04
|
Teacher
|
Lihová Judita
|
|
ECTS credits
|
5
|
Hrs/week
|
2/1
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture, Practical
|
||
|
Content
|
Distributive
and modular lattices, Boolean algebras. Ideals, representation of
distributive lattices and Boolean algebras. Metric lattices. Congruence
relations of lattices.
|
||
|
Recommended reading
|
G.Grätzer: General Lattice Theory, Birkhäuser, 1998
|
||
|
Title
|
Algorithmically Unsolvable Problems
|
||
|
Code
|
ÚMV/ANP/03
|
Teacher
|
Bukovský Lev
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
4
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To
introduce students to the most important results about the non-existence of
an algorithm for solving a given problem.
|
||
|
Content
|
Axiomatic
theories of natural numbers. Definability of recursive functions. Tarski’s
theorem on undefinability of truth in formalised arithmethic. Godel
incompleteness theorem. Algorithmic unsolvability of particular mathematical
problems. Non-existence of an algorithm for finding a solution to Diophantine
equations. Reduction of problems and degrees of unsolvability.
|
||
|
Recommended reading
|
J. Barwise ed., Handbook of Mathematical Logic, North
Holland 1977S. C. Kleene, Introduction to the Metamathematics, Van Nostrand
1952, ruský preklad Moskva 1957.
E. Mendelson, Introduction to Mathematical Logic, Van
Nostrand 1963.
M. Davis, Hilbert's Tenth Problem is Unsolvable,
Amer. Math. Monthly,1973, 233--269.
|
||
|
Title
|
Databases Systems
|
||
|
Code
|
ÚMV/DBS/04
|
Teacher
|
Soták Roman, Horňák Mirko
|
|
ECTS credits
|
6
|
Hrs/week
|
3/1
|
|
Assessment
|
Examination
|
Semester
|
4
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To teach
students to use and understand the principles of database modelling and the theory
of databases through work with a selected concrete database system.
|
||
|
Content
|
Formal
foundations of database systems: logic of database systems, relation algebra.
Functional dependencies, decompositions. Normal forms. SQL: aggregate
functions, nested queries, modification of data, integrity constraints,
modification of the table structure, transitive closure, next aspects of SQL.
|
||
|
Recommended reading
|
J. Ullman: Principles of database and knowledge –
base systems, Comp. Sci. Press., 1988
|
||
Compulsory elective courses
|
Title
|
Taxes and Information Systems
|
||
|
Code
|
ÚMV/DIS/04
|
Teacher
|
Cechlárová Katarína, Semanišin Gabriel, Soták Roman
|
|
ECTS credits
|
5
|
Hrs/week
|
3/2
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture, Practical
|
||
|
Content
|
Information
system, subsystem, information system development life cycle. Visual
modelling, overview of modelling techniques. Structured methodologies.
Algorithms in taxes.
|
||
|
Exclusive courses
|
ÚMV/DIS/00
|
||
|
Alternate courses
|
ÚMV/DIS/00
|
||
|
Recommended reading
|
Booch G., Jacobson I., Rumbaugh J.: The Unified
Modelling Language user Guide, Addison-Wesley Pub. Co. 1998, ISBN
0-20157168-4
|
||
|
Title
|
Geometric Transformations
|
||
|
Code
|
ÚMV/GZ/04
|
Teacher
|
Ivančo Jaroslav
|
|
ECTS credits
|
5
|
Hrs/week
|
2/1
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To provide
deeper knowledge of projective spaces and transformation groups.
|
||
|
Content
|
Projective
spaces, Projective transformations, collineations. Fixed elements of a
collineation. A clasification of collineations.
|
||
|
Recommended reading
|
S. V. Duzhin, B. D. Chebotarevsky: Transformation
Groups for Beginers, AMS 2004
|
||
|
Title
|
Control Theory
|
||
|
Code
|
ÚMV/TS1/04
|
Teacher
|
Cechlárová Katarína
|
|
ECTS credits
|
6
|
Hrs/week
|
3/1
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To teach
students the basic concepts of controllable systems.
|
||
|
Content
|
Controllable
systems. Pontrjagin maximum principle. Linear systems, bang-bang
controls, singular controls.. Discrete
systems, dynamic programming, Bellmann’s optimality principle. Practical
applications of theoretical results.
|
||
|
Alternate courses
|
ÚMV/TS1/99 or ÚMV/TS1/00
|
||
|
Recommended reading
|
K. Macki, A. Strauss: Introduction to Optimal Control
Theory, Springer, 1980
G. Feichtinger, R.F. Hartl: Optimale Kontrolle okonomischer
Prozesse, Berlin, 1986
|
||
|
Title
|
Graph Theory
|
||
|
Code
|
ÚMV/TGT/04
|
Teacher
|
Jendroľ Stanislav, Madaras
Tomáš
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To provide
students deeper knowledge of graph theory.
|
||
|
Content
|
Connectivity
of graphs. Hamiltonian graphs. Colouring of graphs. Planar graphs. Oriented
graphs. Automorphism of graphs. Snarks. Minors of graphs.
|
||
|
Recommended reading
|
J. Bang-Jensen and G. Gutin, Digraphs: Theory,
Algorithms and Applications. Springer-Verlag London 2001
J. A. Bondy and U.S.R. Murty, Graph Theory with
Applications. North Holland, Amsterdam 1976.
R. Diestel, Graph Theory, Springer-Verlag. New
York 2000, 2nd edition.
|
||
|
Title
|
Introductory Course in Quantum Computers
|
||
|
Code
|
ÚFV/KVP/02
|
Teacher
|
Mockovčiak Samuel
|
|
ECTS credits
|
3
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Content
|
Reasons to
study quantum computers (QC): microtechnology, dissipation of energy,
"classical PC" is time-demanding. Quantum mechanics for QC. Hilbert
space of quantum states. Operators of observables. EPR paradox. Reversible
gates. Qubits as quantum states, their evolution. Quantum memory registers.
Logic circuits. Quantum algorithms. Superposition of states and parallelism
of computations. Entaglement of quantum states. Teleportation. Quantum
information..
|
||
|
Recommended reading
|
J. Gruska: Quantum Computing, McGraw Hill,
Maidenhead, 1999
C.PWilliams, S.H. Clearwater: Explorations in Quantum
Computing,
Springer Verlag, New York, 1998
G.Birkhoff, T.C.Bartee: Aplikovaná Algebra, Alfa,
Bratislava, 1981
|
||
|
Title
|
Foundations of Knowledge Systems
|
||
|
Code
|
ÚINF/ZNA1/06
|
Teacher
|
Vojtáš Peter
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Content
|
Relations
of formal models: DBMS, SQL, and logic programming. Summary of different
formal models of computational processes, connections among them and
translations. Gentzenov systems, semantics and verification of programs.
Formal specifications, temporal logics: formulas, models, tableaux.
|
||
|
Recommended reading
|
M. Ben-Ari. Mathematical logic for Computer Science
2ed. Springer Verlag London 2001
J. Ullman. Principles of database and
knowledge based systems. Comp. Sci. Press 1988
J. W. Lloyd. Foundations of logic programming.
Springer Berlin 1987
|
||
|
Title
|
Applied Linear Algebra
|
||
|
Code
|
ÚMV/ALA1/04
|
Teacher
|
Studenovská Danica
|
|
ECTS credits
|
5
|
Hrs/week
|
2/1
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To teach
students basic knowledge about linear algebra; to make students able to apply
the theory in concrete excercises.
|
||
|
Content
|
Matrices
over Euclidean rings, canonical forms. Polynomial matrices. Similar matrices.
Jordan normal form. Functions of matrices, sequences, series. Inversion of
singular matrices, pseudoinverse matrices and their application.
|
||
|
Alternate courses
|
ÚMV/ALA1/99
|
||
|
Recommended reading
|
H.E.Rose: Linear algebra, A pure mathematical
approach, Birkhäuser Verlag, 2002
D.Serre: Matrices, Theory and applications, Springer
Verlag, 2002.
http://www.cs.ut.ee/~toomas_l/linalg/
|
||
|
Title
|
Fractal Geometry
|
||
|
Code
|
ÚMV/FRG1/03
|
Teacher
|
Bukovský Lev
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To
introduce students to the mathematical approach to analysing the concept of a
fractal with the possibility of using the results for the construction of
fractals.
|
||
|
Content
|
Concept of
a fractal. Basic topology of metric spaces. Self-similarity of a fractal.
Fractal as fixpoint of a mapping. Construction of a fractal by iteration.
Topological dimension and basic properties. Hausdorff measure and Hausdorff
dimension. Topological and Hausdorff dimension of particular fractals. Some
methods of construction of a fractal (topological dynamics).
|
||
|
Recommended reading
|
G. A. Edgar: Measure, Topology and Fractal Geometry,
Springer 1990
K. Falconer, Fractal Geometry, John Willey 1992
H. O. Peitgen, H. Jurgens and D. Saupe, Fractals for
Classroom, I, II, Springer Verlag, Berlin 1991
|
||
|
Title
|
Encoding and Transfer of Information
|
||
|
Code
|
ÚINF/KPI1/01
|
Teacher
|
Geffert Viliam, Jirásek
Jozef
|
|
ECTS credits
|
4
|
Hrs/week
|
2/1
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To provide
students knowledge of basic principles of information theory, coding and data
compression.
|
||
|
Content
|
Introduction
to information theory: entropy, Markov models. Huffman coding, adaptive
Huffman coding, applications. Arithmetic coding, dictionary techniques,
applications. Lossless image compression. Scalar and vector quantisations.
Differential encoding, delta modulation, subband coding, wavelets. Transform
coding, DFT, DCT, application to JPEG. Analysis/synthesis schemes; fractal
compression. Video compression.
|
||
|
Alternate courses
|
ÚINF/KPI1/00
|
||
|
Recommended reading
|
D. Hankersson, G. Harris, P. Johnson: Introduction to
Information Theory and Data Compression, CRC Pr.,1998
K. Sayood: Introduction to Data Compression, Morgan
Kaufmann, 1996
J. Adámek: Coding and Inormation Theory, ČVUT, 1994
(Czech)
|
||
|
Title
|
Theory of Groups
|
||
|
Code
|
ÚMV/TGR1/04
|
Teacher
|
Lihová Judita
|
|
ECTS credits
|
5
|
Hrs/week
|
2/1
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture, Practical
|
||
|
Content
|
Cyclic
groups; quotient groups. Finitely generated Abelian groups. Groups of
permutations and their applications.
|
||
|
Recommended reading
|
M.Hall: The Theory of Groups, New York, 1959
L.Fuchs: Abelian groups, Akadémiai Kiadó,Budapest,
1966
|
||
|
Title
|
Game Theory
|
||
|
Code
|
ÚMV/TH1/04
|
Teacher
|
Cechlárová Katarína, Hajduková Jana
|
|
ECTS credits
|
6
|
Hrs/week
|
3/1
|
|
Assessment
|
Examination
|
Semester
|
3
|
|
T/L method
|
Lecture, Practical
|
||
|
Objective
|
To teach
the basic methods of game theory and to have students model situations from
everyday life as simple games.
|
||
|
Content
|
Examples of
games. Extensive form of a game, value of the game. Von Neumann Morgenstern
theory of utility. Matrix games and their solution. Bimatrix games.Theory of
negotiations. n-person games: core, Shapley value. Economic applications of
game theory.
|
||
|
Alternate courses
|
ÚMV/TH1/99
|
||
|
Recommended reading
|
K. Binmore, Fun and games, D.C. Heath, 1992
G. Owen: Game Theory, Academic Press.
L.C. Thomas:
Games, Theory and Applications,
Wiley, New York.
H.S. Bierman, L.Fernandez, Game Theory with Economic
Applications, Addison-Wesley, 1998
|
||
Elective courses
|
Title
|
Queueing Theory
|
||
|
Code
|
ÚMV/THO1/04
|
Teacher
|
Horňák Mirko
|
|
ECTS credits
|
6
|
Hrs/week
|
4/-
|
|
Assessment
|
Examination
|
Semester
|
1, 3
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To acquaint
students with functioning of simple queuing systems and with the analysis of
corresponding stochastic processes and Markov chains.
|
||
|
Content
|
Queuing
system. Input request stream. Intensity and parameter of input request
stream. Stationarity. Memoryless stochastic process. Markov's theorem.
Ergodic theorem. Markov chain.
|
||
|
Recommended reading
|
B.V. Gnedenko and I.N. Kovalenko, Introduction to
Queueing Theory, Second Edition, Birkhauser Boston, Cambridge MA 1989
|
||
|
Title
|
Probability and Statistics
|
||
|
Code
|
ÚMV/PST1b/04
|
Teacher
|
Skřivánková Valéria, Ohriska Ján
|
|
ECTS credits
|
6
|
Hrs/week
|
2/2
|
|
Assessment
|
Examination
|
Semester
|
1
|
|
T/L method
|
Lecture, Practical
|
||
|
Content
|
Random
vectors, their distributions and characteristics. Correlation and regression.
Random sample, sampling distributions and characteristics. Point estimates
and their properties. Maximum likelihood method. Interval estimates;
confidence interval construction. Testing of statistical hypothesis; critical
region and level of significance. Parametric and nonparametric tests.
|
||
|
Recommended reading
|
Mandenhall W.: Introduction to probability and
statistics,PWS Publishers, Boston, 1987
Sincich T.: Statistics by example, Dellen Publishing
Company, New Jersey, 1990
|
||
|
Title
|
Mathematical Economics
|
||
|
Code
|
ÚMV/MAE1/04
|
Teacher
|
Cechlárová Katarína
|
|
ECTS credits
|
5
|
Hrs/week
|
3/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To teach
the basic concepts and methods of modern mathematical economics.
|
||
|
Content
|
The notion
of exchange economy. Edgeworth box. Preferences and utility functions.
Optimality in exchange economies. Existence of core. Walrasian equilibrium.
Optimality and decentralisation. Production economies.
|
||
|
Alternate courses
|
ÚMV/MAE1/99
|
||
|
Recommended reading
|
C.D. Aliprantis, D.J. Brown, O. Burkinshaw: Existence
and optimality of competitive equilibria, Springer 1989
W. Hildenbrand, A.P. Kirman: Equilibrium analysis,
North Holland,
A. Takayama: Mathematical economics, Cambridge
University Press, 1985
|
||
|
Title
|
Polyhedral Theory
|
||
|
Code
|
ÚMV/POT1/04
|
Teacher
|
Jendroľ Stanislav
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To teach
students basic knowledge of the theory of convex polyhedra and polyhedral
maps.
|
||
|
Content
|
Combinatorial
and geometric properties of three-dimensional convex polyhedra and their
analogues: polyhedral maps. Euler’s theorem; Steinitz’s theorem. Light
subgraphs. Face and vertex vectors. Groups of symmetries of polyhedra.
Applications in optimisation and chemistry.
|
||
|
Recommended reading
|
B. Grunbaum: Convex polytopes (2nd edition), Springer
New York 2003
G.M. Ziegler: Lectures on Polytopes, Springer-Verlag,
New York, 1996
|
||
|
Title
|
Number Theory
|
||
|
Code
|
ÚMV/TCI/04
|
Teacher
|
Harminc Matúš
|
|
ECTS credits
|
4
|
Hrs/week
|
2/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To
familiarise students with the divisibility and congruences of integers,
linear and quadratic congruences and arithmetic functions.
|
||
|
Content
|
Euclidean
algorithm. Fundamental theorem of arithmetic. Primes, composites, canonical
form and its applications. Congruences, criteria of divisibility. Arithmetic
functions. Euler’s theorem. Fermat’s theorem. Wilson’s theorem. Linear and
quadratic congruences.
|
||
|
Recommended reading
|
M. B. Nathanson: Elementary Methods in Number Theory.
Springer, 2000
H. E. Rose: A Course in Number Theory. Clarendon
Press, Oxford, 1994
|
||
|
Title
|
Universal Algebra
|
||
|
Code
|
ÚMV/UAL/04
|
Teacher
|
Studenovská Danica
|
|
ECTS credits
|
5
|
Hrs/week
|
3/-
|
|
Assessment
|
Examination
|
Semester
|
2
|
|
T/L method
|
Lecture
|
||
|
Objective
|
To provide
basic knowledge of universal algebra and to make students able to apply this
knowledge in concrete situations.
|
||
|
Content
|
Algebraic
structures. Homomorphisms and congruences. Direct and subdirect products.
Terms. Free algebras. Birkhoff’s theorems about varieties.
|
||
|
Exclusive courses
|
ÚMV/KAL1/04
|
||
|
Recommended reading
|
S.Burris, H.P.Sankappanavar: A Course in Universal
Algebra. Springer-Verlag, 1981
B. Jónsson: Topics in universal algebra, Springer-Verlag
1972
G. Grätzer: Universal Algebra, 2nd edition, Springer
Verlag, 1979
|
||
Study programme Manager Mathematics
(Full-time
master)
Code
Title ECTS Credit
Hours/week Assessment Recommended
Year/Semester
Compulsory
courses
|
ÚMV/DPM1a/03
|
Diploma Work
|
2
|
-/-
|
Recognition
|
1/1
|
|
ÚMV/PST1b/04
|
Probability and Statistics
|
6
|
2/2
|
Examination
|
1/1
|
|
ÚMV/TH1/04
|
Game Theory
|
6
|
3/1
|
Examination
|
1/1
|
|
ÚMV/TS1/04
|
Control Theory
|
6
|
3/1
|
Examination
|
1/1
|
|
KFaDF/DF2p/07
|
History of Philosophy
|
4
|
2/1
|
Examination
|
1/1
|
|
ÚMV/DPM1b/04
|
Diploma Work
|
2
|
-/-
|
Recognition
|
1/2
|
|
ÚMV/KOO/04
|
Combinatorial Optimisation
|
6
|
3/1
|
Examination
|
1/2
|
|
ÚMV/DBS/04
|
Databases Systems
|
6
|
3/1
|
Examination
|
1/2
|
|
ÚMV/MAE1/04
|
Mathematical Economics
|
5
|
3/-
|
Examination
|
1/2
|
|
ÚINF/KKV1/06
|
Classical and quantum Computations
|
6
|
3/1
|
Examination
|
2/3
|
|
ÚMV/THO1/04
|
Queueing Theory
|
6
|
4/-
|
Examination
|
2/3
|
|
ÚMV/DPM1c/04
|
Diploma Work
|
5
|
-/-
|
Recognition
|
2/3
|
|
ÚMV/DPM1d/04
|
Diploma Work
|
15
|
-/-
|
Recognition
|
2/4
|
|
ÚMV/FAN/06
|
Functional Analysis
|
6
|
3/1
|
Examination
|
1/2
|
Compulsory
elective courses
|
ÚINF/ZNA1/06
|
Foundations of Knowledge Systems
|
4
|
2/-
|
Examination
|
1/1
|
|
ÚINF/MZK/06
|
Mathematical Foundations of Cryptography
|
6
|
3/2
|
Examination
|
1/1
|
|
ÚMV/PRA1/04
|
Law
|
3
|
2/-
|
Examination
|
1/1, 2/3
|
|
ÚMV/TGT/04
|
Graph Theory
|
4
|
2/-
|
Examination
|
1/1, 2/3
|
|
ÚMV/TIN1/03
|
Theory of Information
|
4
|
2/-
|
Examination
|
1/1, 2/3
|
|
ÚMV/TKO1/04
|
Theory of Codes
|
6
|
4/-
|
Examination
|
1/1, 2/3
|
|
ÚMV/TMT/04
|
Matroid Theory
|
5
|
3/-
|
Examination
|
1/1, 2/3
|
|
ÚINF/VYZ1/04
|
Computational Complexity
|
4
|
2/-
|
Examination
|
1/1, 2/3
|
|
ÚMV/GZ/04
|
Geometric Transformations
|
5
|
2/1
|
Examination
|
1/1, 2/3
|
|
ÚMV/FRG1/03
|
Fractal Geometry
|
4
|
2/-
|
Examination
|
1/2
|
|
ÚMV/TGR1/04
|
Theory of Groups
|
5
|
2/1
|
Examination
|
1/2
|
|
ÚMV/SKA1/99
|
Seminar on Combinatorial Algorithms
|
2
|
-/2
|
Assessment
|
1/2
|
|
ÚMV/APS1/99
|
Applied Statistics
|
6
|
3/2
|
Examination
|
1/2
|
|
ÚMV/ALA1/04
|
Applied Linear Algebra
|
5
|
2/1
|
Examination
|
1/2, 2/4
|
|
ÚMV/POT1/04
|
Polyhedral Theory
|
4
|
2/-
|
Examination
|
1/2, 2/4
|
|
ÚMV/UAL/04
|
Universal Algebra
|
5
|
3/-
|
Examination
|
1/2, 2/4
|
Recommended
elective courses
|
ÚMV/SVK1/01
|
Student scientific conference
|
4
|
-/-
|
Assessment
|
1/2
|
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