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PHYSICAL ORGANIC CHEMISTRY<br />

Institute of Organic Chemistry<br />

SEMMELWEIS UNIVERSITY / FACULTY OF PHARMACY<br />

The number of registered organic compounds is well over 15 million. Innumerable basic reactions<br />

contact them. How can we find an order in this jungle of compounds and cavalcade of reactions?<br />

How can the reactions be oriented? How can they be used for synthesis of drugs and many other<br />

practically important compounds (polymers, dyestuffs, etc.)? How do energy changes direct<br />

organic reactions? How can we control the factors influencing them?<br />

Organic reactions take place in the interaction of atomic and molecular orbitals. These changes<br />

are the molecular base of life, too. Is it possible to get an insight into them by simple<br />

mathematical methods?<br />

All these questions concern physical organic chemistry, i.e. the study oganic reaction mechanism.<br />

Programme<br />

1. Systematics of organic reaction mechanism according to the notation system of IUPAC.<br />

2. The basic concepts and applications of perturbational molecular orbital (PMO) method for<br />

interpretation of reaction mechanism.<br />

3. Energetics or organic reactions.<br />

4. Experimental methods for investigation of reaction mechanism.<br />

5. Factors which influence the reaction (reagents, concentration, solvent, catalyst,<br />

temperature, etc.).<br />

6. Analysis of the basic organic reaction types on selected examples.<br />

7. Symmetry principles in organic reactions.<br />

8. Orbital interactions as the molecular base of life processes.<br />

COMPUTATIONAL CHEMISTRY AND QSAR METHODS<br />

Institute of Organic Chemistry<br />

1. Computational chemistry and molecular modeling: topics, scope and limits.<br />

2. Quantum chemistry: basic principles and methods.<br />

3. Molecular mechanics and dynamics.<br />

4. Chemical stability and reactivity: thermodynamics and kinetics:<br />

qualitative and quantitative predicting methods; case studies.<br />

5. Secondary interactions: molecular basis of receptor-ligand interactions.<br />

6. QSAR methods: prediction of biological activity.<br />

7. Applications and practice.<br />

Faculty of<br />

Pharmacy<br />

477

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