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SEMMELWEIS UNIVERSITY / FACULTY OF MEDICINE<br />

84<br />

BASES OF BIOSTATISTICS AND INFORMATICS<br />

Tutor: Dr. István Voszka<br />

Lecture (1.5 hours/week) Practice (2 hours/week)<br />

1. Introduction Graphical representation of functions<br />

2. Role of „change” in theory and The most important functions and their<br />

in practice representation by computer<br />

3. Descriptive statistics Use of excel tables<br />

4. Elements of probability calculus Mean, standard deviation, variance,<br />

standard error<br />

5. Probability calculus and statistics Descriptive statistics<br />

6. Principles of hypothesis testing Hypothesis testing 1.: t-tests<br />

7. Parametric and non-parametric tests Hypothesis testing 2.: non-parametric tests<br />

for comparison of two groups<br />

8. Comparison of more groups, Hypothesis testing 3.: Mann-Whitney<br />

analysis of variance U-test<br />

9. Examination of dependence relations Analysis of variance<br />

of variables<br />

10. Evaluation of diagnostic tests Categorical variables, contingency table<br />

11. Human body as signal source, Regression analysis<br />

signal processing<br />

12. Concept of information, databases Calculation of correlation<br />

13. Clinical databases Bioinformatical databases<br />

14. Evidence based medicine, role of Publication databases, clinical databases<br />

mathematical logics in diagnostics<br />

MEDICAL BIOPHYSICS I.<br />

Tutor: Dr. István Voszka<br />

First Semester<br />

Week Lecture (1.5 hours per week) Laboratory (2 hours per week)<br />

1 Radiations (basic concepts) Laboratory safety rules<br />

2 Properties of electromagnetic radiations; Resonance<br />

wave and corpuscular nature<br />

3 Attenuation of radiation Emission spectroscopy. Light sources<br />

4 Luminescence and its applications Spectrophotometry<br />

5 Lasers and their medical applications Optical lenses; light microscope<br />

6 Thermal radiation, thermography. Detection of nuclear radiations<br />

Biological effects of light<br />

7 Production and spectrum of X-radiation Oscilloscope<br />

Cyclotron; Linear accelerator;<br />

8 Attenuation of X-radiation, interactions Special light microscopes<br />

X-ray diagnostics<br />

9 Atomic structure; Radioactive decay law Optics of the eye<br />

Gamma-radiation and its detection<br />

10 Radiotherapy, radiosurgery; Polarimeter<br />

Isotope diagnostics

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