Course descriptions - nagysandor.eunagysandor.eu/tantervezes/EuBMSc/studies/ebscappl_encl3.pdf ·...

Eurobachelor application - Enclosure 3. Course descriptions

1

Course descriptions Table of contents Compulsory core courses 2 Courses of the "Chemist" specialization 31 Elective courses 71


2

Compulsory core courses

Programme Chemistry BSc

Course title Analytical Chemistry (1)

Name of

lecturer

Miklós Orbán

Type of course compulsory, semi-optional, elective

Module non-chemical, core-chemical, specialized chemical, chemistry teacher

Number of

credits

4

Year of study 1

Semester fall, spring

Form of tuition lectures, practice, laboratory practice, other

Course

contents

The definition, aim, scope, function of the analytical chemistry. The major steps int he solution of an analytical problem: 1. Sampling: gross sample, laboratory sample. Moisture in the sample. 2. Preparation of the sample to the analysis: disolution, decomposition by fluxes, wet ashing, dry ashing. 3. Separation methods in the analytical chemistry: distillation, solvent extraction, separation by chromatography (GC, HPLC, IEC, IC, EC, CEP, PC, TLC, AC). 4. Chemical methods of the analysis: physical-chemical backgrounds of the analysis, titrimetry (Acidi-alkalimetry, complexometry, precipitation titrimetry, redoximetry), gravimetry and electrogravimetry. 5. Evaluation of the analytical data: random error, systematic error. 6. Selection of the analytical method. 7. Literature of the chemical analysis (treaties, reviews, journals).

Assessment

method

written/oral examination, practical course mark, other

Recommended

reading Schulek Elemér, Szabó Zoltán László: A kvantitativ analitikai kémia elvi alapjai és módszerei (egyetemi tankönyv), Tankönyvkiadó, Budapest, 1971 (2. kiadás)

Burger Kálmán: Az analitikai kémia alapjai: Kémiai és müszeres elemzés

(egyetemi tankönyv), 5.(1999) vagy 6. (2002) kiadás.

D.A. Skoog, D.M.West, F.J. Holler: Fundamentals of Analytical Chemistry,

(6. 7. vagy) 8. edition, Thomson, London, 2003

D.C. Harris: Quantitative Chemical Analysis, 5. edition, W.H: Freeman and Co. USA, 1999

Language of

instruction

Hungarian


3


Course title Analytical chemistry laboratory practice

Name of

lecturer

Ágnes Buvári



Number of

credits

1

Year of study 2



Course

contents

The common reactions of inorganic ions in aqueous solutions, qualitative identification. Problem solving in connection with analytical procedures and their theoretical bases. Preparation of samples for the analysis. Volumetric methods: preparation of standard solutions, standardization; acid-base titrations; methods based on complex formation and precipitation; redox titrations: measurements with permanganate, chromate, bromate and cerium(IV) standard solutions, iodometry; methods for the analysis of natural waters. Determination of two or more components in the presence of each other. Titrations in non-aqueous solutions. Separations by distillation, ion exchange, precipitation. Instrumental methods of end point detection: conductometry, potentiometry. Potentiometric determination of pH with glass electrode. Application of semi-quantitative fast tests.

Assessment

method


Recommended

reading

Barcza Lajos: A mennyiségi kémiai analízis gyakorlati kézikönyve (Manual of quantitative chemical analysis), Medicina Kiadó, Budapest, 2005

Recommended textbooks: Burger Kálmán: Az analitikai kémia alapjai: Kémiai és műszeres elemzés

(Fundamentals of analytical chemistry: Chemical and instrumental methods), Semmelweis Kiadó, 1999

Barcza Lajos - Buvári Ágnes: A minőségi kémiai analízis alapjai (Fundamentals of qualitative chemical analysis), (4., átdolgozott kiadás) Medicina Kiadó, Budapest, 1997

D.A. Skoog, D.M. West, F.J. Holler: Fundamentals of Analytical Chemistry, 6th ed., Saunders College Publ. (USA), 1992

Language of

instruction

Hungarian


4


Course title BASICS OF NUCLEAR CHEMISTRY

Name of

lecturer

Sándor Nagy (coordinator)



Number of

credits

2

Year of study 2



Course

contents

Theory: Subatomic particles, nuclear structure, stability and instability, decay modes, kinetics of radioactive decay, radioactive decay series, radioactive equilibrium, radiometric dating, interaction of nuclear radiations with matter, detection of nuclear radiations, dosimetry, basics of radiation protection.

Practice: Statistics of nuclear decay, working with basic pieces of equipment used in nuclear measurements (counters, detectors, discriminators, single and multi-channel scalers).

Assessment

method


Recommended

reading

• Attila Vértes, István Kiss: Nuclear Chemistry, Elsevier, Amsterdam, 1987

• Attila Vértes, Sándor Nagy, Zoltán Klencsár: Handbook of Nuclear Chemistry, Kluwer, Amsterdam, 2003

• Joseph Magill, Jean Galy: Radioactivity, Radionuclides, Radiation, Springer, Berlin, 2005

Electronic “handouts” for the lab: • To be prepared.

Electronic material on the web by the coordinator of the course: • Sándor Nagy Honorary Theme Editor: Theme 6.104. Radiochemistry

and Nuclear Chemistry (consisting of 14 Topics written by international experts from various fields of nuclear science, meant for self-study etc.), under preparation for UNESCO-EOLSS (www.eolss.net)

Links to suggested sources of nuclear information (most of them free to use):

The evaluated and organized list consists of about 15 pages ready to be posted on the homepage of the course coordinator as soon as it becomes necessary.

Language of

instruction

Hungarian


5


Course title Biological Chemistry

Name of

lecturer

András Perczel



Number of

credits

3

Year of study 2



Course

contents

1. Carbohydrates (monosaccharides, important disaccharides and

polysaccharides)

2. Amino acids, peptides, proteins (peptide synthesis, steric structure

of peptides and proteins, enzymes)

3. Nucleic acids: types and building units (synthesis of nucleosides,

nucleotides and oligonucleotides, synthesis of oligonucleotides on

solid support). Structure and biological function of nucleic acids.

Sequence determination of DNA. Polymerase chain reaction (PCR).

4. Lipides. Groups of lipids (simple and complex lipids). Fats and oils,

phospholipides, terpenes, steroids (cholesterol, bile acids, steroid

hormones).

5. Alkaloids (main families and important representatives).

6. Vitamines, coenzymes, prosthetic groups, bioreagents.

Assessment

method


Recommended

reading

Hollósi-Laczkó-Asbóth: Biomolekuláris kémia I. Berg-Tymocko-Stryer: Biochemistry, 5th edition Bruckner Győző: Szerves Kémiai I-2, III-2 Kajtár Márton: Természetes szénvegyületek kémiája (valamint az előadás megkezdésére elkészülő új ábragyűjtemény)

Language of

instruction

Hungarian


6


Course title Chemical Materials Science A+E

Name of

lecturer

Éva Kiss, Katalin Sinkó



Number of

credits

2 (1comp. + 1comp. in “Chemist” spec.)

Year of study 2



Course

contents

Materials science is an interdisciplinary research area which covers the chemistry, physics, biology, and engineering of all classes of materials. The results of materials science play essential roles in the environmental protection, the medical and biotechnology, energy transformation, transportation systems, storage and supply, information technology, computing, system controls, as well as the electronic consumer goods. Traditionally, the materials are divided into metals, ceramics, polymers (including composites), and other inorganic and organic materials. Recently, the subdivision of materials considers their properties and applications; structural and functional materials, eco-, biomaterials, magnetic, optic, semiconductor etc. materials. The “Chemical Materials Science” subject introduces the materials according to both traditional and up to date subdivisions. Chemical materials science investigates the basic principles and provides the necessary chemical background for research into the relationship between the synthesis - structure - property triangle of the materials. Thus, it is very important to understand the fundamental processes which lead to specific properties.

Assessment

method

written / oral examination, practical course mark, other

Recommended

reading

R. W. Cahn: The coming of materials science, Pergamon, Amsterdam, W. D. Callister: Materials Science and Engineering, An Introduction, Wiley, W.F. Smith: Principles of Materials Science and Engineering, McGraw-Hill

Ch. Elschenbroich, A Salzer: Organometallics, VCH, Weinheim, 1992. (Eng.)

Műszaki felülettudomány és orvosbiológiai alkalmazásai (Sz.: Bertóti I, Marosi Gy., Tóth .), B+C Kiadó, Budapest

M. Barsoum: Fundamentals of Ceramics (McGraw-Hill, Boston, 2000)

Language of

instruction

Hungarian


7


Course title Chemical Technology Laboratory Practice

Name of

lecturer

István T. Horváth and László T. Mika

Type of course Compulsory, semi-optional, elective


Number of

credits

4

Year of study 3

Semester spring

Form of tuition laboratory practice

Course

contents

Introduction to the applications of chemical technology.

Ion-exchange for water clean-up.

Biotechnology

Extraction

Low temperature polymerization

Waste water treatments

Absorber-desorber systems

Assessment

method

written examination, practical course mark, other

Recommended

reading

http://www.kemtech.net

Language of

instruction

Hungarian


8


Course title Chemical Technology

Name of

lecturer

István T. Horváth



Number of

credits

3

Year of study 3

Semester fall

Form of tuition lectures

Course

contents

Introduction to the fundamentals and applications of chemical technology.

Program: The role of chemical technology in the world. The role of physical chemistry in chemical technology. The fundamentals of chemical engineering. Energy production. The raw materials of the chemical and petrochemical industry. Chemical processes related to water. The products and processes of the inorganic chemical industry. Synthetic fuels. C1 chemical processes. The products and processes of the organic chemical industry. The fundamentals and products of biotechnology. Agricultural chemicals. Chemical technologies used in the electronic industry.

Assessment

method


Recommended

reading


Language of

instruction

Hungarian


9


Course title Colloid and surface chemistry

Name of

lecturer

Tibor Gilányi



Number of

credits

2

Year of study 2



Course

contents

Basic principles. Definitions. Practical and scientific importance of colloids. Main groups of colloid systems. Morphological principles of colloid systems. Dispersions (microphases). Thermodynamic and kinetic stability. Stability of colloids and factors that can alter stability. Micellar colloids. Macromolecules. Interfacial phenomena: surface tension, adsorption,adhesion. Network type (cohesive) colloid systems. Experimental techniques.

Assessment

method


Recommended

reading

Wolfram E.: Kolloidika, Rohrsetzer S. (ed.): Kolloidika, D.J. Show: Introduction to Colloid and Surface Chemistry

Language of

instruction

Hungarian


10


Course title Environmental chemistry

Name of

lecturer

Imre SALMA



Number of

credits

2

Year of study 2



Course

contents

Energy balance of the Earth, global climate, basic properties and structure of the atmosphere, hydrosphere and geo-sphere, chemical processes in the environment, biogeochemical cycles, anthropogenic perturbations

Assessment

method


Recommended

reading

Manahan, S.E.: Environmental chemistry, Lewis, Boca Raton, 1999 and 2004.

Language of

instruction

Hungarian


11


Course title General chemistry laboratory practice

Name of

lecturer

Dávid Frigyes



Number of

credits

5 (recently divided into 3 lab.+ 2 chemical calc.)

Year of study 1



Course

contents

storing and handling chemicals; volume, mass, density measurements; preparation of solutions; separation of mixtures, recrystallization of contaminated salts; melting point determination; boiling point determination; distillation; determination of refractive index; determination of the composition of mixtures, gravimetry, gas volume measurement; determination of reaction endothermicity; pH of salt solutions, buffer solutions; sample calculations

Assessment

method


Recommended

reading Dr. Hartmann Hildegárd: Általános Kémiai Példatár, egyetemi jegyzet, Eötvös Kiadó, 1994

Villányi Attila: Ötösöm lesz Kémiából, Műszaki Könyvkiadó, Budapest, 2000

Language of

instruction

Hungarian


12


Course title General chemistry

Name of

lecturer

Géza Fogarasi



Number of

credits

4

Year of study 1



Course

contents

This is an introductory course for chemistry majors, covering the following main topics. Basic principles and concepts of chemistry. Properties of gases: the gas laws; kinetic theory of gases. Thermochemistry: internal energy and enthalpy. The direction of spontaneous changes: entropy and Gibbs free energy. Equilibrium: homogeneous and heterogeneous equilibria; aqueous electrolytes, buffer solutions, hydrolysis. States of matter, phase transitions; crystals; colloids. Electrochemistry: galvanic cells, electrolysis, practical applications. Basic concepts of reaction kinetics. The atomic - molecular structure of matter: quantum properties, the wave-particle dual nature of matter. The hydrogen atom. Electronic structure of atoms and the periodic system. Chemical bonding; ionic bonds and the octet rule. The covalent bond, Lewis structures, resonance. Quantum mechanical description of the chemical bond. Intermolecular interactions.

Assessment

method


Recommended

reading

James E. Brady, GENERAL CHEMISTRY, Wiley & Sons, 1990.

Language of

instruction

Hungarian


13


Course title Inorganic chemistry laboratory practice

Name of

lecturer

Gábor Magyarfalvi



Number of

credits

6

Year of study 1



Course

contents

Preparation and reactions of inorganic elements and compounds. Preparation of gases. Aqueous and non-aqueous phase reactions. Basic synthetic and purification methods. Foundations of qualitative analysis. Chemical calculations relevant to the subject.

Assessment

method


Recommended

reading

Lengyel Béla: Általános és Szervetlen Kémiai Praktikum, Tankönyvkiadó, Budapest, 1990 Dr. Hartmann Hildegárd: Általános Kémiai Példatár, egyetemi jegyzet,

Eötvös Kiadó, 1994 Szakács László, Mörtl Mária, Knausz Dezső: Általános Kémiai Példatár, egyetemi tankönyv, ELTE Eötvös Kiadó, 2002

Language of

instruction

Hungarian


14


Course title Instrumental analysis laboratory practice (1)

Name of

lecturer

Imre Varga



Number of

credits

4

Year of study 2



Course

contents

Application of flame photometry, flame atomic absorption spectrophotometry, AC-arc spectroscopy, liquid cromatography, gas chromatography, UV-VIS spectrophotometry, fluorescence spectroscopy, DC- and pulse polarography, coulombmetris titrations, direct potentiometry and potentiometric titrations to qualitative and quantitative analysis.

Assessment

method


Recommended

reading

Modern methods of elemental analysis (Záray G. Editor) (in hungarian) Akadémiai Kiadó, Budapest 2006

Kellner R., Mermet J.M., Otto M,. Widmer H.M., Analytical Chemistry, Wiley 1998

Language of

instruction

Hungarian


15


Course title Instrumental Analysis

Name of

lecturer

Gyula Záray



Number of

credits

4

Year of study 2



Course

contents

Sampling and sample preparation methods;

Atomic spectroscopy: Atomic spectra; atomic absorption spectrometry; inductively coupled plasma atomic emission and mass spectrometry; X-ray fluorescence spectrometry; glow discharge atomic emission and mass spectrometry; hyphenated techniques for speciation of elements

Molecular spectroscopy: Molecular spectra; Ultraviolet and visible absorption spectrometry; molecular fluorescence spectrometry;

Electroanalytical methods: voltametry, potentiometry; stripping techniques;

Separation techniques: gas chromatography; high performance liquid chromatography;

Assessment

method


Recommended

reading

Douglas A. Skoog, Donald M. West, F. James Holler: Fundamentals of Analytical Chemistry, Saunders College Publishing, 1992

Language of

instruction

Hungarian


16


Course title Introduction of Mathematics for Chemists

Name of

lecturer

Ferenc Izsák



Number of

credits

2

Year of study 1



Course

contents

Problem solving course for studying basics of calculus and mathematical statistics. The problems are frequently related to physical chemistry, theoretical chemistry and handling of experimental data.

Assessment

method


Recommended

reading

Kovács József – Takács Gábor – Takács Miklós: Analízis Nemzeti Tankönyvkiadó, Budapest, 1997 Lukács Ottó: Matematikai statisztika Műszaki könyvkiadó, Budapest, 1999

Language of

instruction

Hungarian


17


Course title Introduction of Mathematics for Chemists

Name of

lecturer

Ferenc Izsák



Number of

credits

4

Year of study 1



Course

contents

Lectures on the basics of calculus for studying chemistry subjects, especially physical chemistry and theoretical chemistry. Teaching mathematical statistics as a preparation for instrumental laboratory practices.

Assessment

method


Recommended

reading

Kovács József – Takács Gábor – Takács Miklós: Analízis Nemzeti Tankönyvkiadó, Budapest, 1997 Lukács Ottó: Matematikai statisztika Műszaki könyvkiadó, Budapest, 1999

Language of

instruction

Hungarian


18


Course title Laboratory practice for chemical computations

Name of

lecturer

András Baranyai



Number of

credits

2

Year of study 1



Course

contents

Conventions of word processing in science. Creation of figures, maps, tables and formulas. Collecting information, scientific literature from the internet, accessing databasis. Application of mathematical statistics for chemical problems: searching for extreme, solving linear and nonlinear systems of equations, fitting curves and estimating parameters.

Assessment

method


Recommended

reading

Material accessible on the internet

Language of

instruction

Hungarian


19


Course title Laboratory Practice in Colloid Chemistry

Name of

lecturer

É. Kiss



Number of

credits

4 (2 comp. + 2 comp. in “Chemist” spec.)

Year of study 2



Course

contents

Basic phenomena in surface and colloid chemistry studied on model systems: adsorption on solid and fluid surfaces/interfaces, self-assembly in solutions, particle and molecular size determination by various methods, stability and coagulation of colloidal systems, rheological and mechanical properties of polymeric and dispersed materials

Assessment

method


Recommended

reading Rohrsetzer Sándor: Kolloidkémiai laboratóriumi gyakorlatok, Tankönyvkiadó, Budapest

Wolfram Ervin: Kolloidika, Tankönyvkiadó, Budapest

D. J. Shaw: Bevezetés a kolloid- és felületi kémiába, Műszaki könyvkiadó,

Budapest

D.J. Shaw: Introduction to Colloid and Surface Chemistry, Butterworth Heinemann Ltd., Oxford

Language of

instruction

Hungarian


20


Course title Labour safety

Name of

lecturer

István Jalsovszky



Number of

credits

2 (1+1)

Year of study 1



Course

contents

Introducing to labour safety, incident safety, harms of chemicals, unhealthy materials sanitary regulations and protection, application of first aid, protection of labour environs, environment, industrial hygiene, fire- and explosion defence, fire alarm regulations, precautionary measures for electric, pressure-tight and mechanical equipments, worker’s psychology, ergonomics

Assessment

method


Recommended

reading

Lecture notes

Language of

instruction

Hungarian


21


Course title Measuring techniques in physics

Name of

lecturer

Károly Süvegh (coordinator)



Number of

credits

2

Year of study 1



Course

contents

Topics covered by the course: basics of vacuum technique: pumps, measuring devices, connectors; basics of optics: optical elements, image formation of lenses and mirrors, slits, coherence and interference of light; elasticity measurements; sedimentation in gravitational and centrifugal fields; semiconductor diodes, analogue electronics; digital electronics, BOOL-algebra, flip-flops; data acquisition, signal/noise ratio, sensitivity; process controlling, signal processing, data processing

Assessment

method


Recommended

reading

Syllabus for the measurements (provided by the course) Also in electronic form: www.chem.elte.hu/departments/magkem/hun/oktatas/fizlab.html Suggested books given in the syllabus

Language of

instruction

Hungarian


22


Course title Organic Chemistry (1)

Name of

lecturer

István Jalsovszky



Number of

credits

4

Year of study 1



Course

contents

Basic principles of organic chemistry: structure and bonding in organic molecules, stereochemistry, determining organic structures by spectroscopy, acidity and basicity, reaction types, summary of mechanistic principles. Chemistry of open-chain and cyclic aliphatic compounds.

Assessment

method


Recommended

reading

Lecture notes.

Books:

T. W. Graham Solomons, Craig B. Fryhle: Organic Chemistry, 7th

edition.

L. G. Wade, Jr.: Organic Chemistry, 4th edition.

Language of

instruction

Hungarian


23


Course title Organic chemistry laboratory practice (1)

Name of

lecturer

Dénes Szabó



Number of

credits

4

Year of study 2



Course

contents

heating of reaction mixtures, recrystallisation techniques, filtration, solvent extraction, drying of liquids, distillation, vacuum, steam distillation, mechanical agitation, determination of boiling point and melting point, thin layer chromatography, gaschromatography

Assessment

method


Recommended

reading

Szerves kémiai praktikum. Ed. György Orosz, Nemzeti Tankönyvkiadó Rt. 1998.

Language of

instruction

Hungarian


24


Course title Organic chemistry laboratory practice (2)

Name of

lecturer

Zsuzsa Majer, Decker



Number of

credits

4 (2 comp. +2 comp. in “Chemist” spec.)

Year of study 2



Course

contents

Main topics are: organic syntheses of aliphatic and aromatic compounds, isolation of natural products and organic qualitative analyses. The preparations will be routinely characterized by simple spectroscopic methods (IR, UV-vis) and separation techniques (thin layer-, column-, high pressure liquid chromatography).

Assessment

method


Recommended

reading

Szerves kémiai praktikum Ed. György Orosz, Nemzeti Tankönykiadó Rt., 1998.

Language of

instruction

Hungarian


25


Course title Organic Chemsitry (2)

Name of

lecturer

József Rábai



Number of

credits

3

Year of study 2



Course

contents

The syntheses, reactions and characterisations of aromatic and heteroaromatic compounds as well as the molecular structure and chemical reactivity is treated with the electron theory of chemical bonding. Selected reaction mechanisms and physico-chemical properties of compounds are correlated with the (ground and exited state) structures of molecules. Functinal group interconversions will serve to develop personal skills for the solution of complex organic synthesis problems.

Assessment

method


Recommended

reading

Organic Chemistry (Edited by the Department of Organic Chemistry, collection and narrative of the lecture schemes)

Further readings: T. W. Graham Solomons, Craig B. Fryhle: Organic Chemistry (seventh edition) ISBN 0-471-19095-0

Language of

instruction

Hungarian


26


Course title Physical Chemistry (1)

Name of

educator

Ernő Keszei, György Inzelt



Number of

credits

3+1

Year of study 1



Course

contents

The course presupposes the knowledge acquired during the courses physics (1) and calculus. Based on this knowledge, the course begins with a postulatory development of the basics of phenomenological thermo-dynamics, with an outlook to the classical foundations of the topic. A more detailed discussion of a number of chemical applications follows, including mixtures, phase equilibria, chemical equilibria and the chemical thermo-dynamics of electrically charged phases. A brief discussion of the principles of general transport phenomena is followed by some details of diffusion, viscous flow and electric conduction. The focus in applied electrochemistry is on the equilibrium description of galvanic cells.

Assessment

method


Recommended

reading

P.W. Atkins: Physical Chemistry, 7th edition, Oxford, 1998 H.B. Callen: Thermodynamics, New York, 1985

Language of

instruction

Hungarian


27


Course title Physical Chemistry (2)

Name of

lecturer

Ernő Keszei, György Inzelt



Number of

credits

2+1

Year of study 2



Course

contents The material of this course is based on the knowledge of physical chemistry (1). It begins with a brief development of statistical thermodynamics, followed by the basics of chemical kinetics, along with its application for practically relevant problems. The second part deals with kinetics of electrode reactions, practical and technological applications of electrochemistry, corrosion and corrosion prevention.

Assessment

method


Recommended

reading

M.J. Pilling, P.W. Seakins: Reaction Kinetics, Oxford, 1993 P.W. Atkins: Physical Chemistry, 7th edition, London, 1998 F. Scholz (editor) Electroanalytical Methods, Springer, 2002

Language of

instruction

Hungarian


28


Course title Physical Chemistry Laboratory (1)

Name of

lecturer

Győző Láng



Number of

credits

4

Year of study 2



Course

contents

This course is intended to acquaint the students with the practice of experimental physical chemistry. The goal of the labs, therefore, is to provide a modest introduction to this area of scientific activity. The main topics are: Preparation for an experiment. Calibration of devices and instruments. Data acquisition and processing, computer-based data acquisition. Fundamental limitations on instrumental precision.Treatment of experimental data. Methods to verify and explore fundamental concepts in physical chemistry. Experiments in thermodynamics, kinetics, electrochemistry. Calorimetry, temperature dependence of the vapor pressure, phase equilibria, measurement of surface tension, colligative properties, chemical equilibria, kinetics of homogeneous and heterogeneous reactions, transport processes (viscosity, diffusion). Simple electrochemical measurements: measurement of the electromotive force, temperature dependence of EMF, conductance of solutions.

Assessment

method


Recommended

reading

Szalma, J., Láng, G., Péter, L.: Fundamental methods in the physical chemistry laboratory measurements and data processing (in preparation) Garland, C.W., Nibler, J.W, Shoemaker, D.P.,: Experiments in Physical Chemistry, McGraw-Hill, New York, 2002. Atkins, P.W.: Physical Chemistry, 7th edition, London, 1998

Caria, M.: Measurement Analysis, An Introduction to the Statistical Analysis of Laboratory Data in Physics, Chemistry and the Life Sciences,World Sci. Pub. Co., 2000.

Language of

instruction

Hungarian


29


Course title Physics (1)

Name of

lecturer

Jenő Kürti



Number of

credits

4

Year of study 1



Course

contents

Basic knowledge in mechanics and electro-dymamics: scalars, vectors, kinematics and dynamics of a point mass, Newton's laws, harmonic oscillator, gravity, scattering of particles, system of particles, rigid bodies, accelerated reference frame, vibrations and waves, deformable bodies, fluids; basic electric and magnetic phenomena, light as electromagnetic wave. During the treatment of the laws of physics the elements of differential- and integral calculus will be introduced gradually..

Assessment

method

Written/oral examination, practical course mark, other

Recommended

reading

A fizika alapjai, Ed. Erostyák János és Litz József, Tankönyvkiadó, Budapest 2002 Fizika II, Ed. Litz József, Nemzeti Tankönyvkiadó, Budapest 2005

Mai fizika, R.P. Feynman, R.B. Leighton, M. Sands, Műszaki Könyvkiadó, Bp.1970

Language of

instruction

Hungarian


30


Course title Theoretical Chemistry

Name of

lecturer

Péter Szalay



Number of

credits

3

Year of study 2



Course

contents

Foundation of quantum mechanics; atomic and molecular wave functions, orbitals; methods of theoretical chemistry: independent particle approximation; valence bond method, the Hückel model; crystal field and ligand field theories; the principals and history of spectroscopy: vibrational and rotational spectroscopy, visible, UV- and electronspectroscopy; magnetic resonance spectroscopy; diffraction methods

Assessment

method


Recommended

reading

P. W. Atkins and R.S. Friedman, Molecular Quantum Mechanics, Oxford University Press

Language of

instruction

Hungarian


31

Courses of the "Chemist" specialization


Course title Advanced Laboratory Course in Organic Chemistry

Name of

lecturer

István Jalsovszky



Number of

credits

6

Year of study 3



Course

contents

Multistep organic syntheses, reactions under pressure, syntheses catalysed by UV-light, electrochemical syntheses. Structure elucidations by spectroscopic methods. Using the reviews of research literature.

Assessment

method


Recommended

reading

Vogel’s: Textbook of Practical Organic Chemistry, 5th edition.

Ninomiya and T. Naito: Photochemical Synthesis, AP 1989.

T. Shono: Electroorganic Synthesis, AP1991

Language of

instruction

Hungarian


32


Course title Applications of nuclear chemistry

Name of

lecturer

Zoltán Homonnay



Number of

credits

2

Year of study 3



Course

contents

Nuclear reactions and their application in various fields such as the production of artificial radioactive isotopes, energetics, medical practice and fundamental material research. Nuclear methods based on the interaction of radiation and matter (neutron activation analysis, γ-spectroscopy, α- and β-backscattering and absorption, electron spectroscopies, Mössbauer spectroscopy, positron annihilation spectroscopy). Radiation chemistry and hot atom chemistry. Industrial application of radioisotopes. Radiotracer methods. Isotope effects and isotope enrichment technologies. Nuclear reactors and their environmental impact. Methods and equipment for environmental monitoring. Biological applications and nuclear medicine.

Assessment

method


Recommended

reading

Handouts prepared by the lecturer either in written or electronic form. Recommended literature:

Attila Vértes, István Kiss: Nuclear Chemistry, Elsevier, Amsterdam, 1987 Attila Vértes, Sándor Nagy, Zoltán Klencsár: Handbook of Nuclear Chemistry, Kluwer, Amsterdam, 2003 Joseph Magill, Jean Galy: Radioactivity, Radionuclides, Radiation, Springer, Berlin, 2005

G. Choppin, J.O.Liljenzin, J.Rydberg, Radiochemistry and Nuclear Chemistry, Butterworth-Heinemann, 2002.

Language of

instruction

Hungarian


33


Course title Applied Colloid Science

Name of

lecturer

Ferenc Csempesz



Number of

credits

1+3

Year of study 2-3

Semester fall(3), spring(2)


Course

contents

Colloidal particles, colloid systems. Basic principles of formation and elimination of colloids. Disperse and cohesive colloid systems. Nano-structures in nature and organisms. Colloids in bio-medical, pharmaceutical, agricultural, industrial and environmental applications. Colloidchemical/physical methods for controlling interfacial- and transport processes and rheological properties.

Assessment

method


Recommended

reading

Wolfram E.: Kolloidika (egyetemi jegyzet), II/2 és I-III választott részek

Tankönyvkiadó, Budapest, 1977. Rohrsetzer S.: Kolloidika (egyetemi tankönyv), választott részek Tankönyvkiadó, Budapest, 1991. D.H. Everett: Basic Principles of Colloid Science,

Royal Society of Chemistry, London, 1988 ISBN 0-85186-443-0

K. Holmberg: Handbook of Applied Surface and Colloid Chemistry, Vol.:1,2, Wiley&Sons, England, 2001.

ISBN 0-471-49083-0

F.Csempesz: Expermental Colloid Chemistry, Semmelweis University, Budapest, 1996.

Language of

instruction

Hungarian


34


Course title Biochemistry

Name of

lecturer

Zoltán Gáspári



Number of

credits

2

Year of study 3



Course

contents

Molecular organization of life. The central dogma. Basics of metabolism and metabolic pathways. Protein structure and function. Basic enzyme kinetics and mechanisms. Regulation of gene expression. Biochemistry of sensory systems. Introduction to basic experimental techniques.

Assessment

method


Recommended

reading

Berg-Tymoczko-Stryer: Biochemistry 5th ed.

Language of

instruction

Hungarian


35


Course title Bioinorganic Chemistry

Name of

lecturer

Margit Varga



Number of

credits

2

Year of study 3

Semester Fall, spring


Course

contents

Development of bioinorganic chemistry. Biochemical evolution: the effect of primeval atmosphere to the biochemical evolution of copper and iron. Summarized presentation of the role of elements in biological systems. Interaction of geological and biological environment; uptake of elements. Bioinorganic chemistry of essential (Na, K, Mg, Ca, Fe, Mn, Co, Cr, Ni, Cu, Zn and Mo) and some non-essential (Ti, V) metals. Biochemistry of oxygen and nitrogen groups, complexes of oxygen and nitrogen. Biomineralization. Toxicity of elements: molecular mechamism of toxicity, effects of some toxic elements (Hg, Pb, Cd, Al, As) for the living organisms. Natural detoxification. Medical problems: disorder of copper metabolism (Wilson-, Menkes disease) and therapy. Effect of deficiency and excess of elements. Metals and metal-complexes in the therapy of different diseases (Li, Au): Anticarcinogenic metal-complexes. Methods of physical-chemistry for the investigation of biological systems.

Assessment

method


Recommended

reading Endre Kőrös: Bioinorganic chemistry (lecture notes)

W. Kaim, B. Schwederski: Bioinorganic Chemistry, Wiley, 1994

Language of

instruction

Hungarian


36


Course title Cell Biology

Name of

lecturer

Gábor Réz



Number of

credits

2

Year of study 3



Course

contents

The cell as a self-regulating open system. The genetic apparatus. The biomembranes. Form and function of the eukaryotic membrane organelles. Ligands, receptors, signalisation. The cytoskeleton and cell motility. Extracellular matrix, cell-to-cell and cell-to-ECM adhesion. Plant cells. The cell cycle and its regulation. Mitosis, meiosis, cytokinesis. Cell death. Malignous transformation.

Assessment

method


Recommended

reading

Cooper, G. M.: The Cell. A Molecular Approach. ASM press, Washington DC, 2002 (and forthcoming edition)

Language of

instruction

Hungarian


37


Course title Chemical informatics in drug discovery

Name of

lecturer

Ödön Farkas



Number of

credits

2

Year of study 3



Course

contents

The concept and modelling of molecules. Conventional naming and coding of chemical structures. Data bases of chemical structures, properties, experimental data and their management. Fast approximation of molecular properties. QSAR and its application for drug design. The concept a use of pharmacophores. High throughput screening methods. Combinatorial virtual chemistry.

Assessment

method


Recommended

reading

Chemical informatics in drug design (lecture notes, Department of Organic Chemistry, Eötvös Loránd University, 2006, in preparation)

Arup K. Ghose, Vellarkad N. Viswanadhan: Combinatorial Library Design and Evaluation: Principles, Software Tools, and Applications in Drug Discovery (ISBN 0824704878), 2001

http://www.chemaxon.com

Language of

instruction

Hungarian


38


Course title Chemical Process Engineering

Name of

lecturer

István T. Horváth, László T. Mika



Number of

credits

2

Year of study 3

Semester spring


Course

contents

Introduction to the fundamentals of chemical process engineering.

Program: Introduction to the chemical process engineering. Chemical reactors. Separation processes: distillation, adsorption, absorption, extraction, membrane separation. Drying. Hydrodynamic processes: filtration, micro filtration, settling, dust separation, droplet separation. Combined separation processes. Preparative chromatography. Heat exchange. Introduction to the process controlling.

Assessment

method

written and oral examination, practical course mark, other

Recommended

reading


Language of

instruction

Hungarian


39


Course title Computational chemistry

Name of

lecturer

Gergely Tóth



Number of

credits

4 (2+2)

Year of study 3



Course

contents

The computational practice follows the topics of the lectures. Different software packages will be used in the practice.

Data processing, interpolation, smoothing, derivation, integration, Fourier transformation, reaction kinetic calculations, modelling of condensed phases with Monte Carlo and classical dynamics, quantum mechanical calculations, modelling of biomolecules, computer aided drug research

Assessment

method

written/oral examination, practical course mark

Recommended

reading

Baranyai A, Schiller Róbert, Statisztikus mechanika vegyészeknek ,Akadémiai, 2003. Valkó P. és Vajda S.: Műszaki–tudományos feladatok megoldása személyi

számítógéppel, Műszaki, 1987. Török F. és Pulay Péter: Elméleti Kémia I, Nemzeti Tankönyvkiadó, 1994. Frank Jensen: Introduction to Computational Chemistry, Wiley, 1999. Kémia újabb eredményei 80. kötet, Akadémiai, 1995. Notes on internet in progress

Language of

instruction

Hungarian


40


Course title Electrochemistry

Name of

lecturer

György Inzelt



Number of

credits

3

Year of study 3



Course

contents

The development and importance of electrochemical concepts,

investigation methods and technologies. Thermodynamical

description of homogeneous and heterogeneous electrochemical

systems. The structure of the electrochemical double layer.

Kinetics of electrochemical processes. Electrochemical

methods. Spectroelectrochemistry. Techniques for the

investigation of surfaces. Electrosorption. Electrocatalysis.

Organic electrochemistry. Photoelectrochemistry.

Electrochemical technologies. Enviromental electrochemistry.

Electrochemical sensors.

Assessment

method


Recommended

reading

Electroanalytical Methods (ed. F. Scholz), Springer, 2002. A.J. Bard, L.R. Faulkner: Electrochemical Methods, Wiley, 2000. Selected papers and reviews.

Language of

instruction

Hungarian


41

Programme Chemistry BSc Course title Environmental chemistry of the atmosphere and water resources

Name of

lecturers

Ferenc GARAY Katalin BARKÁCS

Type of

course

Semi-optional

Module Specialized chemical Number of

credits

2

Year of study 3 Semester Fall Form of

tuition

Lectures

Course

contents

Atmosphere:

- Brief history of environmental protection emphasizing the events relating to the atmosphere - Structure of the atmosphere, constituents of the atmosphere: gas phase components and aerosol - Energy balance of the Earth, albedo, greenhouse effect, role of clouds - Mass transfer in the atmosphere, dry and wet sedimentation - Role of stratospheric ozone - Principle chemical reactions in the troposphere and stratosphere - Basic terms of air pollution, progress of air pollution, emission sources - Global warming, carbon dioxide, methane, nitrous oxide - Depletion of the stratospheric ozone layer, halogenated hydrocarbons - Acid sedimentation, sulfur dioxide, nitric oxide, nitrogen dioxide, ammonia, London-type smog - Carbon monoxide, tropospheric ozone, organic pollutants, photochemical smog - Polluting metals, metalloids, aerosol - Impact of natural events on the atmosphere - Basic terms of toxicology - Requirements relating to the quality of ambient air, thresholds, traffic generated air pollution, smog alarm,

Hungarian legislation, examples for the analytical determination of organic air pollutants in ambient air - Requirements relating to the quality of workplace air, thresholds, Hungarian legislation, examples for

analytical determination of pollutants in workplace air

Hydrosphere:

- Water types, resources and management - Water usage, pollution, classification and (qualitative-quantitative) determination of the main water

polluting species - Sampling, preservation and storage strategies, sample preparation (enrichment) procedures and qualification

tests of surface-, ground- and undersurface (aquifier) waters - Physico-chemical and biochemical methods in water quality monitoring - Water quality maps - Drinking water purification and treatment technologies, strategies of drinking water TLVs, national

standards - International legislation on diminishing pollutants, international agreements, WHO, EU recommendations

Assessment

method

Written examination

Recommende

d reading

S. E. Manahan: Environmental Chemistry, 6th ed., CRC Press, Boca Raton, 1994.

Language of

instruction

Hungarian


42


Course title Fortran and C programming with chemical scope

Name of

lecturer

Péter Szalay



Number of

credits

1+1

Year of study 2-3



Course

contents

History of FORTRAN programming language, its standard versions; basic elements of a FORTRAN program; structure of the FORTRAN programs; Input/output within FORTRAN; writing, compiling and running FORTRAN programs; Basic elements of a C programs; structure of the C program; standard libraries; Input/output within C; writing, compiling and running C programs; Writing FORTRAN and C programs to solve chemical problems.

Assessment

method


Recommended

reading

M. Metcalf és John Reid: FORTRAN 91/95 explained, Oxford University Press, 2000.

Brian W. Kernighan és Dennis M. Ritchie: The C programming Language, Bell Telephone Laboratories, Inc, 1988.

Language of

instruction

Hungarian


43


Course title Green Chemistry Laboratory Practice

Name of

lecturer

István T. Horváth



Number of

credits

4

Year of study 2,3

Semester Fall(3 year), spring(2,3 year)

Form of tuition laboratory practice

Course

contents

Introduction to the applications of green chemistry.

Halogenation of alkenes

Dehydration of alcohols

Synthesis of cyclohexane and adipic acid

Porphyrine synthesis

Microwave assisted synthesis

Diels-Alder reaction

Bioethanol synthesis

Benzoin condensation

Pechman reaction

Sun-light conversion

Assessment

method


Recommended

reading


Language of

instruction

Hungarian


44


Course title Harms and Protection of the Environment

Name of

lecturer

Katalin Barkács



Number of

credits

2

Year of study 3



Course

contents

Environmental management. Sources and removal of air-, water-, soil (gas-, liquid- and solid state) pollutants. Main environmental impacts of industrial-, agricultural-, communal- and traffic (transport) caused emissions, effects of noise and vibration. Qualification and handling of solid wastes, sludge and wastewaters. Life-cycle, recycling, handling, reuse and disposal of the different waste types. Economic-, legislated- and technical solutions, technology oriented basic strategies of pollution prevention and environmental protection.

Assessment

method


Recommended

reading

http://www.kemtech.net, www.kvvm.hu,

Selected chapters of environmental protection handbooks, e.g.

P.N.Cheremisinoff-Y.C.Wu: Hazardous Waste Management Handbook,Prentice-Hall Int. Limited, London (UK), 1994

J.C. Mycock, J.D. McKenna, L. Theodore: Handbook of Air pollution Control Engineering and Technology, Lewis Publishers, CRC Press Inc., New York (US), 1995

H.F.Lund: The McGraw-Hill Recycling Handbook, McGraw-Hill Inc., New York (US), 1993

Gy. Filep: Soil Chemistry, Akadémiai Kiadó, Budapest, Hungary, 1999

(in English)

Language of

instruction

Hungarian


45


Course title Instrumental analytical laboratory

Name of

lecturer

Katalin Zih-Perényi



Number of

credits

4

Year of study 3



Course

contents Thermo analysis. Application of differential scanning calorimetry (DSC) in

polymer study. Determination of Ca-oxalate and Ca carbonate by

thermogravimetry. Electro analysis. Determination of Pb2+ / Cd2+- ions by

differential pulse anodic stripping voltammetry (DPSV) in anal. grade

NaNO3. Atomic spectrometry. Determination of As\Se contamination in

soils coupling hydride generation to inductively coupled plasma atomic

emission spectrometry (HG-ICP-AES). Selective leaching of cave sediment

and determination of its Pb\Cu content by graphite furnace atomic

absorption spectrometry (GFAAS). Chromatography. Determination of

trace organic contaminants in Danube water by gas chromatography and

mass spectrometric detection (GC-MS).

Interpretation of some high efficiency analytical techniques by interactive

teaching software. On-line operation of instruments and off-line evaluation

of data.

Assessment

method


Recommended

reading R. Kellner, J.M. Mermet, M.Otto, H.M. Widmer Analytical chemistry, Wiley, 1998

http:\\anal.chem.elte.hu

Language of

instruction

Hungarian


46


Course title Interactions in colloid and nanosize systems

Name of

lecturer

Tibor Gilányi



Number of

credits

2

Year of study 3



Course

contents

Interfaces. Excess interfacial energy and its consequences. Electrical structure of solid/liquid interfaces. Small particles and particle systems. Dispersions. Macromolecular and association colloids. Theories of colloid stability.

Colloid systems in external fields. Influence of gravitational (centrifugal), electrical and electromagnetic field on colloid systems.

Assessment

method


Recommended

reading

R. J. Hunter: Foundation of Colloid Science, Clarendron Press, Oxford, 1993

Language of

instruction

Hungarian


47


Course title Introduction to Gene technology

Name of

lecturer

László Nyitray



Number of

credits

2

Year of study 3



Course

contents

Principles of molecular biology. Molecular cloning. Enzymes uses in recombinant DNA technology. Construction of recombinant DNA molecules. Vector-host sytems. DNA (genomic and cDNA) linraries. DNA sequencing. In vitro mutagenesis. Production of recombinant proteins in pro- and eukaryotic cells. Interaction techniques. Gene knock-out and knock in. Transgenic organisms.

Assessment

method


Recommended

reading

Nyitray L. & Szilágyi L.: Géntechnológia (electronic version)

Alberts et al.: Molecular Biology of the Cell. Lodish et al.: Molecular Cell Biology.

Language of

instruction

Hungarian


48


Course title Introduction to modern biology

Name of

lecturer

Zoltán Gáspári



Number of

credits

2 (1+1)

Year of study 1-3



Course

contents

Basic tools and methods in molecular biology, genome projects, molecular basis of life, molecules as information carriers, fundametals of evolution. Informatics in modern biology, dealing with molecular data, literature searches.

Assessment

method


Recommended

reading

Berg-Tymoczko-Stryer: Biochemistry 5th ed. Ernst Mayer: What evolution is

Language of

instruction

Hungarian


49


Course title Java and C++

Name of

lecturer

János Rohonczy and Zoltán Horváth



Number of

credits

1+1

Year of study 1



Course

contents

Java language features. Comparison of Java and C++. Compilation, console and gui applications, applets. Language elements. Types, operators, control structures. Objects and classes. Attribures and methods. Access types. Static, constructor, inheritance. Exceptions. Java libraries.

Assessment

method


Recommended

reading

Stroustrup, B.: The C++ Programming Language, Addison-Wesley, 2000. ISBN: 0201700735

Savitch, W.: Java : An Introduction to Problem Solving and Programming, Prentice Hall, 2004. ISBN: 0131492020

http://java.sun.com/docs/

Language of

instruction

Hungarian


50


Course title Laboratory practice of separation techniques

Name of

lecturer

Kornél Torkos



Number of

credits

4

Year of study 3



Course

contents

Basics of separation methods, equipments (GC, HPLC, MS etc), operation conditions, sample preparation methods(SPE,SPME, headspace extractions, Soxhlet etc.) derivatization methods, packed and capillary techniques, GC, GC-MS, HPLC, HPLC-MS techniques thin layer chromatography, measure of environmental phamaceutical and food samples, quality assurance, softwares.

Assessment

method


Recommended

reading

current chromatographic books

Language of

instruction

Hungarian


51


Course title Mathematics in chemistry

Name of

lecturer

Péter Surján



Number of

credits

6 (4+2)

Year of study 2-3



Course

contents

Elementary vector analysis: gradient vector, divergence, curl, Laplace operator. Extremal points of multi-variable functions, auxiliary conditions, Lagrange multiplicators. Variational calculus, Euler-Lagrange equation. Volume integrals, line integrals. Nonorthogonal and curvilinear coordinate systems. Komplex functions. Simple differential equations in chemistry. Fourier series, Fourier transformation. Orthogonal polynomials. The mathematics of molecular symmetry: elements of group theory.

Assessment

method


Recommended

reading

Lecture notes

Language of

instruction

Hungarian


52


Course title Meteorology

Name of

lecturer

Judit Bartholy


Module Specialized chemical

Number of

credits

2

Year of study 1-3



Course

contents

The history of meteorology, the formation of the atmosphere. The composition and vertical structure of the atmosphere, atmospheric radiation processes, radiation laws. Heat circulation and atmospheric dynamics: the basic concepts of thermodynamics. Water in the atmosphere. The formation and classification of clouds. General atmospheric circulation and the circulation of the oceans. Low-latitude and midlatitude weather systems. Atmospheric optics, atmospheric electricity. Synoptic meteorology. Numerical weather prediction models. Using the information provided by weather satellites, radars etc.

Assessment

method


Recommended

reading

Lutgens K.F., Tarback J.E. (2001): The Atmosphere, Prentice Press, New York, 484 p.

Pearce, R.P., editor, (2002): Meteorology at the Millennium, Academic Press, San Francisco, 333 p.

Ernst W.G. (1994): Earth Systems: Process and Issues. Cambridge University Press, Cambridge, 566 p.

IPCC (2001): Climate Change 2001: (a) Third Assessment Report. (b) The Scientific Basis. Cambridge University Press, Cambridge, UK.

Lamb H. H. (1984): Climate: Present, past and future. Vol. 2. Climatic History and the Future.

Methuen, CO LTD London, Barnes Noble Books, New York, 835 p.

Language of

instruction

Hungarian or English


53


Course title NUCLEAR CHEMISTRY LABORATORY PRACTICE

Name of

lecturer

Károly Süvegh (coordinator)



Number of

credits

3

Year of study 3



Course

contents

The course is a laboratory practice covering the following topics: work with open radioactive sources; tracer techniques; isotope separation; studying coincidence curcuits; Compton-scattering; X-ray fluorescence (XRF), gamma-spectroscopy; neutron activation analysis; nuclear reactors; Mössbauer spectroscopy; positron lifetime spectroscopy; dosimetry, radiation protection; environmental samples; environment protection.

Assessment

method


Recommended

reading

Sylabus for the measurements (provided by the course, also in electronic form) Attila Vértes, István Kiss: Nuclear Chemistry, Elsevier, Amsterdam, 1987 Suggested: Nagy Sándor: Nukleáris mérések statisztikája (English text is under preparation ). Books given in the Syllabus

Language of

instruction

Hungarian


54


Course title Organic spectroscopy

Name of

lecturer

Elemér Vass



Number of

credits

2

Year of study 3



Course

contents

The course covers the theoretical aspects of some of the most important spectroscopic methods used in the structure investigation of organic compounds such as UV-visible, infrared, circular dichroism (CD), NMR and mass spectrometry, with special emphasis to the structure elucidation based on complex spectral evaluation.

Assessment

method


Recommended

reading

Joseph B. Lambert, Herbert F. Shurvell, David A. Lightner, R. Graham Cooks: Organic Structural Spectroscopy, Prentice Hall, Upper Saddle River, New Jersey, USA (2001).

L.D. Field, S. Sternhell, J.R. Kalman: Organic Structures from Spectra, Third Edition, John Wiley & Sons, Chichester, UK (2002).

Language of

instruction

Hungarian


55


Course title Organometallic and Catalysis Laboratory Course

Name of

lecturer

László Szepes (co-ordinator)



Number of

credits

5

Year of study 3



Course

contents

In course of the laboratory practice the students get experience in the field of advanced preparative and manipulation techniques like semi-micro syntheses in vacuum and inert atmosphere, the Schlenk technique, electro- and photochemical preparations, microwave assisted reactions, chemical vapour deposition. The studied chemical systems include – among others – transition metal catalysts, clusters, organometallic reagents and precursors.

Assessment

method


Recommended

reading

The manual containing experimental procedures together with discussion and brief theory is available via inernet. Faigl Ferenc, Kollár László, Kotschy András, Szepes László: Szerves Fémvegyületek Kémiája, Nemzeti Tankönyvkiadó, Budapest, 2001., I.-III. fejezet (Hung.)


Language of

instruction

Hungarian


56


Course title Organometallic Chemistry

Name of

lecturer

László Szepes



Number of

credits

2

Year of study 3



Course

contents

The course intends to provide the students with the definitions and basic principles of organometallic chemistry, its history and its position in chemistry, the main trends in research and applications. Further topics as the nature of the metal-carbon bond, the basic groups of compounds, stability and thermochemistry, preparation as well as characteristic reactions are discussed. Typical examples concerning structure and bonding, as well as industrial applications are shown.

Assessment

method

written / oral examination, practical course mark, other

Recommended

reading

Faigl Ferenc, Kollár László, Kotschy András, Szepes László: Szerves Fémvegyületek Kémiája, Nemzeti Tankönyvkiadó, Budapest, 2001., I.-III. fejezet (Hung.)


Language of

instruction

Hungarian


57


Course title Petrology practice

Name of

lecturer

György Szakmány



Number of

credits

2 (1+1)

Year of study 3



Course

contents

Formation of igneous, metamorphic and sedimentary rocks, the rock cycle. Basic distinctive differences of the features of igneous, metamorphic and sedimentary rock types. Classification of igneous rocks. Recognition of rock forming minerals in igneous rocks. Textures and structures of igneous rocks, their genetic relation. Recognition and description of the most important igneous rock types. Classification of metamorphic rocks. Recognition of rock forming minerals in metamorphic rocks. Textures and structures of metamorphic rocks, their genetic relation. Recognition and description of the most important metamorphic rock types. Classification of sedimentary rocks. Textural-structural characteristics of different types of sedimentary rocks. Recognition and description of the most important sedimentary rocks. The most important types and localities of the rock types in Hungary

Assessment

method


Recommended

reading

Chris Pellant: Kőzetek és ásványok. – Határozói kézikönyvek, 1993. Pápay L: Kristálytani, ásványtani, kőzettani alapismeretek,

JATEPress, Szeged, 1994. Hartai Éva: A változó Föld, Miskolc 2004.

Language of

instruction

Hungarian


58


Course title Physical Chemistry Laboratory (2)

Name of

lecturer

Győző Láng



Number of

credits

5

Year of study 3



Course

contents

This course is intended to acquaint the students with the practice of experimental physical chemistry. The goal of the labs is to gain familiarity with a variety of advanced level physico-chemical measurement techniques. The main topics are: Experimental study of phase and chemical equilibria using conductometry, spectrophotometry, and potentiometry. Determination of equilibrium constants. Experimental investigation of transport processes in chemical systems, determination of characteristic parameters. The dependence of viscosity on temperature. Measuring the viscosity with a falling ball Höppler viscosimeter. Fundamentals of Gas Chromatography. Study of the chemical kinetics of homogeneous and heterogeneous reactions. Determination of rate coefficients. Electrochemical measurements: mean activity coefficients from cell measurements, transport processes in electrolyte solutions, kinetics of electrode processes. Determination of pH and ion product for water. Study of electrochemical power sources.

Assessment

method


Recommended

reading

Szalma, J., Láng, G., Péter, L.: Fundamental methods in the physical chemistry laboratory measurements and data processing (in preparation) Garland, C.W., Nibler, J.W, Shoemaker, D.P.,: Experiments in Physical Chemistry, McGraw-Hill, New York, 2002.

Atkins, P.W.: Physical Chemistry, 7th edition, London, 1998

Language of

instruction

Hungarian


59


Course title Physics (2)

Name of

lecturer

Jenő Kürti



Number of

credits

2

Year of study 2-3



Course

contents

Basic knowledge in electro-dynamics: electrostatics and magnetostatics in vacuum and in materials, non stationary electric and magnetic fields, Maxwell's equations, basic phenomena with direct and alternating currents, light as electromagnetic wave.

Assessment

method


Recommended

reading

A fizika alapjai, Ed. Erostyák János és Litz József, Tankönyvkiadó, Budapest 2002 Fizika II, Ed. Litz József, Nemzeti Tankönyvkiadó, Budapest 2005

Mai fizika, R.P. Feynman, R.B. Leighton, M. Sands, Műszaki Könyvkiadó, Bp.1970

Language of

instruction

Hungarian


60


Course title Polymer Chemistry and Technology

Name of

lecturer

Béla Iván



Number of

credits

3

Year of study 3



Course

contents

The production of polymers and products fabricated therefrom grows further at a much higher rate than the growth of the national economies all over the world. The aim of this course is providing the fundamental knowledge of this very important part of chemistry and related industries, that is the basics of polymer science and the production and processing technologies will be discussed.

Assessment

method


Recommended

reading

Ferenc Farkas: Plastics and Environment, Academic Publisher, Budapest, 2000 (In Hungarian: Műanyagok és a környezet, Akadémiai Kiadó, Budapest, 2000) George Odian: Principles of Polymerization, Third Edition, Wiley Interscience, 1991 http://www.pslc.ws/macrog/

Language of

instruction

Hungarian


61


Course title Quantum mechanics

Name of

lecturer

Péter Surján



Number of

credits

4 (2+2)

Year of study 2-3



Course

contents

Representation of physical observables with hermitian operators. Description of the physica state by wave functions, probability interpretation. Schrödinger equation. Perturbation theory. Electronic structure of atoms. Scattering theory. The electron spin. Pauli principle. The chemical bond in quantum mechanics, simple molecules. Hartree-Fock modell.

Assessment

method


Recommended

reading

G. Marx: Quantum Mechanics (in Hungarian), any quantum mechanics textbook in English + lecture notes

Language of

instruction

Hungarian


62


Course title R&D management

Name of

lecturer

István T. Horváth



Number of

credits

2

Year of study 1-3

Semester Fall and spring

Form of tuition Lecture

Course

contents

Introduction to the fundamentals of R&D management

Corporate Strategy

R, D & E Framework

Core Competencies, Competitor Assessment

Strategic Alliances

Technology Strategy Development

Development Strategies

Assessment

method

written and oral examination, practical course mark, other

Recommended

reading


Language of

instruction

Hungarian


63


Course title Reaction kinetics

Name of

lecturer

Keszei, Ernő



Number of

credits

3

Year of study 3



Course

contents The material of this course is based on the knowledge of the two compulsory physical chemistry courses. It begins with a brief survey of statistical thermodynamics, followed by advanced material of chemical kinetics, both theoretical and practical. A few topics (like reaction dynamics, state-selective rate constants, solution kinetics, photochemistry, ultrafast laser chemistry, nonlinear chemical dynamics and enzyme kinetics) are discussed in details.

Assessment

method

oral examination, practical course mark, other

Recommended

reading

M.J. Pilling, P.W. Seakins: Reaction Kinetics, Oxford, 1993 P.W. Atkins: Physical Chemistry, 7th edition, London, 1998

Language of

instruction

English


64


Course title Self-assembly systems of macromolecules and biopolymers

Name of

lecturer

Miklós Nagy



Number of

credits

2

Year of study 2-3



Course

contents

Structural principles of macromolecules and polymers. Fundamentals of polymer chemistry. Chemical and physical characterization of macromolecules. Properties of one and multi-component systems. Shape and conformation of natural and synthetic macromolecules. Hierarchic and self-assembled structures. Relationship between function and structure. Experimental methods.

Assessment

method


Recommended

reading

Wolfram E: Kolloidika, Rohrsetzer S.(ed.) : Kollodika, L. Mandelkern: An Introduction to Macromolecules, H. Morawetz Macromolecules in Solution and A. G. Walton: Biopolimers

Language of

instruction

Hungarian


65


Course title Statistical Mechanics

Name of

lecturer

András Baranyai

Type of course semi-optional,

Module specialized chemical,

Number of

credits

2

Year of study 2 or 3

Semester spring


Course

contents

Theory connecting the properties of individual molecules to their behaviour as an ensemble of molecules on macroscopic scale; explaining the laws and rules of thermodynamics on a molecular basis; starting from canonical mechanics through the caotic dynamics of particles to expressions usable in model calculations

Assessment

method

oral examination

Recommended

reading

A. Baranyai and R. Schiller:Statistical Mecahnics For Chemists (Akadémia Kiadó, Budapest, 2003, in Hungarian)

Language of

instruction

Hungarian


66


Course title Structural Chemistry

Name of

lecturer

Antal Csámpai



Number of

credits

2

Year of study 3



Course

contents

The basic principle of the most important methods of structure determination and the scope and limits of their application in inorganic chemistry. Structure and reactivity of simple and more complex inorganic compounds, recognition of synthetic possibilities on the basis of structural considerations taking into account eg. the principle of isolobality, with special regard to borane-, carborane-, metallocarborane- and metal clusters. The application of different levels of theory of chemical bonding to interpret the structure of more complex inorganic compounds.

Assessment

method


Recommended

reading

N. N. Greenwood and A. Earnshow: The chemistry of elements (Pergamon Press, 1984.)

F. Cotton, G. Wilkinson: Advanced Inorganic Chemistry (John Wiley & Sons, 1992.)

Bodor E., Papp S.: Szervetlen Kémia (Tankönyvkiadó, 1983.)

Language of

instruction

Hungarian


67


Course title Technology management

Name of

lecturer

István T. Horváth



Number of

credits

1

Year of study 3

Semester spring

Form of tuition seminar practice

Course

contents

Introduction to the applications of technology management

Introduction to the fundamentals of R&D management

Corporate Strategy

R, D & E Framework

Core Competencies, Competitor Assessment

Strategic Alliances

Technology Strategy Development

Development Strategies

Assessment

method


Recommended

reading


Language of

instruction

Hungarian


68


Course title Theoretical Chemistry

Name of

lecturer

Attila G. Császár



Number of

credits

2

Year of study 2, 3

Semester Fall, spring


Course

contents

Theoretical description of chemical systems, also in electric and magnetic fields. The Hartree and the Hartree-Fock models and their applications. Electronic structure calculations with variational techniques. Molecular mechanics and molecular modelling. Computation of molecular properties. Chemical theory of simpler inorganic and organic chemical reactions. Molecular symmetry. Microwave spectroscopy. Infrared and Raman spectroscopy of simpler inorganic and organic chemical systems. Chemical applications of ESR and NMR spectroscopies. Mass spectrometry. Gas electron diffraction and X-ray diffraction for identifying structures of chemical species. the principals and history of spectroscopy: vibrational (IR and Raman) and rotational spectroscopy, visible, UV- and electronspectroscopy; magnetic resonance spectroscopy; diffraction methods.

Assessment

method


Recommended

reading

P. W. Atkins and R.S. Friedman, Molecular Quantum Mechanics, Oxford University Press.

Language of

instruction

Hungarian


69


Course title Theoretical Organic Chemistry

Name of

lecturer

András Perczel



Number of

credits

2

Year of study 3



Course

contents

7. Concept of computational chemistry: theory and practice of force-field, semi empirical, ab initio post Hartree-Fock and DFT methods.

8. Kinetic and theoretical properties of simple organic reactions as measured and calculated

9. Basic organic reactions: electrophil addition, nucleophil addition, aromatic electrophil substitution, etc.

10. Further topics: computed IR- and NMR-parameters, proton affinity, pK-values, solvent models, etc.

11. Complex systems

Assessment

method


Recommended

reading

T. W. Graham Solomons, Craig B. Fryhle: Organic Chemistry (seventh edition) ISBN 0-471-19095-0, L. G. Wade, Jr.: Organic Chemistry (fourth edition) ISBN 0-13-922741-5

Language of

instruction



70


Course title Use of UNIX

Name of

lecturer

Attila G. Császár



Number of

credits

1+1

Year of study 2, 3



Course

contents

Short history of the UNIX operating system. Basics of the use of UNIX systems. Files. Kernels, shells (ksh, csh, bash, tcsh), and application programs. Files and file systems. Security. Input and output. Filters. Text editing. Editors: vi, emacs. Communication programs. Grep, sed, awk. Archiving. UNIX in a network. Shell programming. Modeling under UNIX.

Assessment

method


Recommended

reading

Brian Kernighan, Rob Pike: A UNIX operációs rendszer, Műszaki Kiadó Bartók-Nagy János, Laufer Judit: UNIX felhasználói ismeretek, Openinfo kiadó Bagoly Zsolt, Papp Gábor: Bevezetés a UNIX rendszerekbe, ELTE jegyzet,

1993; Code Kft, Budapest, 1993. Brian Kernighan, Rob Pike: A UNIX operációs rendszer, Műszaki Kiadó

R.L. Schwartz, T. Christiansen, Learning PERL, O'Reilly, USA, 1997.

Language of

instruction

Hungarian


71

Elective courses


Course title Descriptive and mathematical statistics

Name of

lecturer

András Zempléni



Number of

credits

5(3+2)

Year of study 1-3



Course

contents

Basic definitions of statistics: mean values, quantiles, variation. Basics of time series. Analysis of statistical tables, coefficients of association, correlations. Calculations of indices. Sampling, statistical estimators, confidence intervals. Testing of statistical hypothesis, tests for the mean of normal distribution, chi-squared tests. Linear regression.

Assessment

method


Recommended

reading

R.A.Johnson-G.K.Bhattacharyya: Statistics: Principles and Methods, third edition (Wiley, 1996)

V.K.Rohatgi: An Introduction to Probability Theory and Mathematical Statistics (Wiley, 1976)

Language of

instruction

Hungarian


72


Course title Drug Research

Name of

lecturer

Ferenc Hudecz



Number of

credits

2

Year of study 3



Course

contents

1. History, background and main characteristics of the development of Pharmaceutical Industry. Pharmaceutical Industry in Hungary.

2. Drug discovery and development: from laboratory to clinics. 3. Modern synthesis approaches in drug discovery (combinatorial

chemistry, semisynthetic strategies, enzymatic synthesis). 4. Analytical requirements and methodologies. Stereochemical purity. 5. Structure and function analysis: design and pactice. 6. Chemical informatics from drug design and modelling to data-mining. 7. Random and high-throughput screening. 8. Analysis of mechanism of action (eg. binding assays, functional

studies). Proteomics. 9. Toxicity, biodistribution and metabolism. 10. Stability issue. 11. Drug-targeting and drug-delivery. Drug formulation 12. Phases of clinical trial. Cooperation among chemist, biologist,

pharmacist and clinical doctors. 13. Patent development and application. Practice in the EU. 14. Pharmaceutical industry and environmental aspects.

Success stories in the Hungarian pharmaceutical industry: case studies.

Assessment

method


Recommended

reading

R. Ng: Drugs-From Discovery to Approval, Wiley, 2004 R. B. Silverman: The Organic Chemistry of Drug Design and Drug Action, Academic Press, 1992 P. Krogsgaard-Larsen, T. Liljefors and U. Madsen: Textbook of Drug Design and Discovery 3rd Edition, Taylor and Frances, 2002 Chi-Jen Lee et al.: Development and Evaluation of Drugs: From Laboratory through Licensure to Market, 2nd Edition, 2003

G. Thomas: Medicinal Chemistry: An Introduction, Wiley, 2001

Language of

instruction

Hungarian


73


Course title Environmental Risk-, Impact Assessment and Life Cycle Analysis

Name of

lecturer

Katalin Barkács



Number of

credits

2

Year of study 1-3



Course

contents

Basic phenomena of and needs for Environmental Risk and Impact Assessment, Life Cycle Assessment (LCA of products and wastes).Qualitative and quantitative assessment strategies. Main steps, tools and prescriptions of the processes, feasibility studies. Environmental laws, regulations, guidance, data bases, models. Data collection, review of available site information, defining sampling needs and protocol. Data and methods of evaluation, characterization of exposure, identification of exposure pathways, quantification of exposure, estimation of daily intake, limits of quantification, general considerations. Toxicological information, noncancer and cancer risk assessment. Hazard identification, dose-response assessment, risk and impact characterization, evaluation. TLV-s : setting of health-based and technical standards. Lead exercise, application of the Integrated Risk Information System (IRIS database), of impact matrixes. Uncertainty, combined intakes and pathways, comparative risk and impact analysis, documentation, review and management tools. Case studies.

Assessment

method


Recommended

reading

http://www.kemtech.net, www.kvvm.hu,

L.W.Canter: Environmental Impact Assessment, McGraw-Hill, USA, 1997 Handbooks of EPA Assessment Training Courses on Environmental Risk, Environmental Impact, Washington (US), 1994,1995

Language of

instruction

Hungarian


74


Course title Introduction into the chemistry teaching

Name of

lecturer

Luca Szalay



Number of

credits

2

Year of study 3



Course

contents

Theoretical Part (Oral lessons): history, present situation and future option of education. Review and presentation of the applicable information holders, long standing and new methods, demonstration possibilities. Seminar:

Planned visits in schools in order to analyse and evaluate the implementation of professional methodology in the practice. Introduction to independent didactic analysis and processing of syllabus of the public education of the chemistry.

Assessment

method


Recommended

reading Rózsahegyi Márta-Wajand Judit : 575 kísérlet a kémia tanításához

Tankönyvkiadó, Budapest, 3.kiadás, 1998.

Rózsahegyi Márta-Wajand Judit: Kémia itt, kémia ott, kémia mindenhol

Nemzeti Tankönyvkiadó és ELTE Eötvös Kiadó, Budapest, 1995.

Rózsahegyi Márta-Wajand Judit: Látványos kémiai kísérletek

Mozaik Oktatási Stúdió, Szeged, 1999.

Language of

instruction

Hungarian


75


Course title The History of Chemistry

Name of

lecturer

György Inzelt and András Róka



Number of

credits

2

Year of study 3



Course

contents

The milestones in chemical way of thinking and technologies. The most famous chemists from the ancient times to the end of the 20th century. The development of natural philosophy during centuries. The chemistry in the Bible and Pliny, the elder books. Alchemy and alchemists. The beginning of modern chemistry. Atomistic theories. Elements and their discoveries. Conservation laws. The birth and development of subdisciplines: chemical thermodynamics, electrochemistry, reaction kinetics, aniline and organic dyes and medicines. Chemical symbols. Periodic tables. The advance of chemical methods and technologies. Chemistry and environment. From the vis vitalis to the gentechnologies. The development of scientific communication (universities, journals, conferences).

Assessment

method


Recommended

reading

K.J. Laidler: The World of Physical Chemistry, Oxford Univ Press, Oxford, 1993. J. Hudson: The History of Chemistry, MacMillan, London, 1992. J.R. Partington: A History of Chemistry I-IV, MacMillan, London, 1964 and original publications of the most famous chemists.

Language of

instruction



76


Course title Theoretical basis of physical chemistry laboratory experiments (1)

Name of

lecturer

Győző Láng



Number of

credits

2

Year of study 2



Course

contents

This course is intended to acquaint the students with the theoretical background of experiments and measuring methods. The content of the course is linked to the topics of Physical chemistry laboratory(1). The main topics are: Calibration of devices and instruments. Data acquisition and processing. Digital electronics, computer-based data acquisition. Fundamental limitations on instrumental precision. Treatment of experimental data. Errors in observational data. Calculations. Propagation of errors. Methods to verify and explore fundamental concepts in physical chemistry. Theoretical considerations to experiments in thermodynamics, kinetics and electrochemistry.

Assessment

method


Recommended

reading

Szalma, J., Láng, G., Péter, L.: Fundamental methods in the physical chemistry laboratory measurements and data processing (in preparation) Garland, C.W., Nibler, J.W, Shoemaker, D.P.,: Experiments in Physical Chemistry, McGraw-Hill, New York, 2002. Atkins, P.W.: Physical Chemistry, 7th edition, London, 1998

Caria, M.: Measurement Analysis, An Introduction to the Statistical Analysis of Laboratory Data in Physics, Chemistry and the Life Sciences,World Sci. Pub. Co., 2000.

Language of

instruction

Hungarian

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