semmelweis university 2 0 1 2 / 2 0 1 3
semmelweis university 2 0 1 2 / 2 0 1 3 semmelweis university 2 0 1 2 / 2 0 1 3
BIOPHYSICS Tutor: Dr. Károly Módos First Semester Lectures (2 hours per week) Laboratory (3 hours per week) Introduction; structure of matter; interactions Laboratory safety rules Gases, crystals, liquids, Boltzmann distribution Data processing Properties of condensed matter Emission spectroscopy. Light sources Liquid crystals, membranes Spectrophotometry Structural organization of Optical lenses; light microscope macromolecular systems Radiations, light, optics Detection of nuclear radiations Wave and corpuscular nature of light Oscilloscope Light absorption and emission, Radioactive power of an X-ray tube light scattering, vision Electromagnetic radiations, thermal radiation Special light microscopes Luminescence Gamma energy determination Lasers Electronic blood particle counting Picoscale X-radiation Determination of skin-impedance Ionizing radiations, radioactive decay Concentration determination with refractometer Dosimetry Isotope diagnostics Sound, ultrasound, hearing Repetition, consultation BIOPHYSICS Second Semester SEMMELWEIS UNIVERSITY / FACULTY OF PHARMACY Lecture (2 hours per week) Laboratory (3 hours per week) Transport phenomena, flow of fluids and gases U V-dosimetry Diffusion, osmosis Dosimetry Thermodynamic aspects of transport processess Amplifier Laws of thermodynamics The attenuation of gamma-radiation Membrane potential Pulse generators Signals as information carriers, signal processing Sine wave oscillators Detectors, transducers, displays Audiometry Basic electronic units and circuits Densitography (CT) Physical methods for structural analysis I Calculations Physical methods for structural analysis II Flow of fluids. Electric model of vascular Regulatory system in technics and b system Some diagnostic methods, endoscopy, Electrocardiography thermography, ultrasound echo, Doppler, X-ray Isotope diagnostics Diffusion Magnetic resonance imaging Sensory function Some therapeutic methods, laser surgery, Repetition radiation therapy Research fields in the Department of Repetition Biophysics and Radiation Biology Faculty of Pharmacy 401
SEMMELWEIS UNIVERSITY / FACULTY OF PHARMACY 402 GENERAL AND INORGANIC CHEMISTRY Lecturers: Dr. Béla Noszál, Dr. István Szalai Tutor: Dr. Krisztina Kurin-Csörgei First Semester Lectures (3 hours per week) Elementary particles: quarks, leptons, gauge particles, electron, proton, neutron. The Bohr model of the atom. Properties of the electron. Heisenberg’s uncertainty principle. Schrödinger’s equation and the quantum numbers. Pauli’s exclusion principle and Hund’s rule. Periodic table and periodic properties. Ionic bond and the types of ions. Covalent bond and its representation in Lewis structures. Hybridization of orbitals. The valence bond theory. Molecular geometry, the VSEPR theory. The formation of molecular orbitals. Bond polarity and moleculepolarity. Single and multiple bonds. Electronegativity and its determination. The ionic character of covalent bonds. Covalent radius, bonding energy, network covalent bonds. Metallic bonding. Weak bonding forces. Dispersion, dipole forces and hydrogen bonding. Multicentered bonds. Chemical equilibria, the law of mass action. Kp and Kc. The Le Chatelier principle. The temperature and pressure dependence of the equilibrium constant. Acid/base equilibria. Conjugated acid-base pairs and their strengths. The acid/base equilibria of water. The pH and its calculation. Strength of acids and bases. Hydrolysis. Buffer systems. Complex formation equilibria. Types of ligands. Mass balance equations, calculation of complex equilibria. Heterogeneous equilibria, the solubility product constant, solubility. Chemical kinetics. Reaction order and molecularity. First order reactions. Age determinations based upon radioactive decompositions. Second order, pseudofirst order and zero order reactions. Reaction mechanisms. The temperature dependence of the reaction rate, collision theory. Catalysis. catalysts. Autocatalytic reactions. Enzyme catalysed, induced and oscillatory reactions. Thermochemistry. Hess’s law. Internal energy and enthalpy changes of reactions. Entropy. Spontaneity of chemical reactions, the free energy. Coupled reactions and their spontaneity. Photochemistry and radiation chemistry. States of matter. Properties and kinetic theory of gases. Properties of liquids. The surface tension. Freezing, boiling. The phase diagram of water. Crystal structures, unit cell. The rate of crystallization. Sublimation. The mechanism of dissolution. Types of concentrations. Rules of dilute solutions. Determination of MM by colligative properties.
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BIOPHYSICS<br />
Tutor: Dr. Károly Módos<br />
First Semester<br />
Lectures (2 hours per week) Laboratory (3 hours per week)<br />
Introduction; structure of matter; interactions Laboratory safety rules<br />
Gases, crystals, liquids, Boltzmann distribution Data processing<br />
Properties of condensed matter Emission spectroscopy. Light sources<br />
Liquid crystals, membranes Spectrophotometry<br />
Structural organization of Optical lenses; light microscope<br />
macromolecular systems<br />
Radiations, light, optics Detection of nuclear radiations<br />
Wave and corpuscular nature of light Oscilloscope<br />
Light absorption and emission, Radioactive power of an X-ray tube<br />
light scattering, vision<br />
Electromagnetic radiations, thermal radiation Special light microscopes<br />
Luminescence Gamma energy determination<br />
Lasers Electronic blood particle counting<br />
Picoscale<br />
X-radiation Determination of skin-impedance<br />
Ionizing radiations, radioactive decay Concentration determination with<br />
refractometer<br />
Dosimetry Isotope diagnostics<br />
Sound, ultrasound, hearing Repetition, consultation<br />
BIOPHYSICS<br />
Second Semester<br />
SEMMELWEIS UNIVERSITY / FACULTY OF PHARMACY<br />
Lecture (2 hours per week) Laboratory (3 hours per week)<br />
Transport phenomena, flow of fluids and gases U V-dosimetry<br />
Diffusion, osmosis Dosimetry<br />
Thermodynamic aspects of transport processess Amplifier<br />
Laws of thermodynamics The attenuation of gamma-radiation<br />
Membrane potential Pulse generators<br />
Signals as information carriers, signal processing Sine wave oscillators<br />
Detectors, transducers, displays Audiometry<br />
Basic electronic units and circuits Densitography (CT)<br />
Physical methods for structural analysis I Calculations<br />
Physical methods for structural analysis II Flow of fluids. Electric model of vascular<br />
Regulatory system in technics and b system<br />
Some diagnostic methods, endoscopy, Electrocardiography<br />
thermography, ultrasound echo, Doppler, X-ray<br />
Isotope diagnostics Diffusion<br />
Magnetic resonance imaging Sensory function<br />
Some therapeutic methods, laser surgery, Repetition<br />
radiation therapy<br />
Research fields in the Department of Repetition<br />
Biophysics and Radiation Biology<br />
Faculty of<br />
Pharmacy<br />
401
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