Final state exam topics for BMEI

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Areas of the FSE study program BMEI
Compulsory Courses of the Program
AE6M33SSL Statistics and reliability in medicine
1.
2.
3.
4.
Principles of statistical data processing and hypothesis testing, the ROC curve.
Correlation analysis, factor analysis, cluster analysis.
Reliability of complex systems and its calculation
Bathtub curve, systems with repair, backup of technical systems
AE6M31ANS Signal Analysis
5.
6.
Correlation, spectral analysis and coherence analysis. Spectrogram, wavelet transform, resampling,
filter banks.
Description and properties of systems in time and frequency domains. Convolution, stability,
causality. Design of digital filters, filter examples, cumulative totals, customized filtering.
7.
Discretization of continuous systems / signals, the choice of sampling period, quantization. Parametric
methods, adaptive filtering.
AE6M33LI Medical Informatics
8. Electronic Health Record. Standards and classification systems in medicine.
9. Data, information and knowledge in medicine. Protection and data security and transmission.
10. Information systems, decision support, intelligent monitoring systems. Mobile applications.
AE6M33MOS Modeling and simulation in biomedicine
11. Modeling techniques used in biomedical engineering (Matlab - Simulink, Modelica) and modeling
technology (types of models, models of continuous and discrete time, linear and nonlinear models with
lumped parameters).
12. Formalization and creation of a model, its identification, verification and interpretation of the biological
system. Steady-state simulations and investigation. Uncoupled models and feedback systems. Problems
of optimization and homeostasis.
13. Models of cellular and physiological regulation, models of populations. Models of individual systems
and entire networks defined in biomedical engineering. Application of models for the creation of
artificial organs.
AE6M33ZMO Medical image processing
14. The basic image processing algorithms - geometric and intensity transformations, filtration. Detection
and classification.
15. Image segmentation algorithms, their implementation and use.
16. Image registration algorithms, their implementation and use.
Compulsory courses of
Biomedical Engineering study branch
AE6M31BSG Biological signals
1.
2.
3.
Biopotentials, evoked and native biological signals, types, genesis.
The signals used in internal medicine, neurology, ophthalmology and sleep medicine. Parameters of
signals, their capture and processing.
The signals used in phoniatry and ENT. Characteristics of voice and speech patterns, processing.
AE6M31LET Medical Technology
4.
5.
6.
7.
Sensing biological potentials, electrodes for sensing biopotentials, electrode properties, half-cell
potential, equivalent electric circuit of the electrode, the input amplifiers for measuring biopotentials,
amplifier requirements, suppression of common mode signals, instrument amplifier.
Medical instrumentation, classification of medical devices, basic static and dynamic parameters, the
general input impedance of the device, block diagram of the diagnostic and therapeutic devices.
Apparatus for diagnosing the cardiovascular system (ECG, blood pressure, cardiac output measurement,
pulse oximetry) - principle of operation, principles of design, basic requirements and characteristics.
Further medical devices (electroencephalograph, electromyograph, measurement of body temperature,
devices for intensive medicine, medical monitors) - principle of operation, principles of design, basic
requirements and characteristics.
AE6M38KLS Construction of medical systems
8.
General principles and principles of design and construction of medical devices - technical standards
and requirements for design, construction and operation of medical electrical equipment.
9. Principles of design and construction of basic blocks of medical devices - reference sources - measuring
amplifiers - measuring transducers.
10. Electromagnetic compatibility of medical devices.
AE6M34BMS Biomedical sensors
11. Electrical and physical properties of sensors and microactuators (static and dynamic). Basic physical
principles of sensors (Piezo-resistive, piezoelectric, capacitance, inductance, pn transition, with Hall
sensor magnetoresistive, ferromagnetic, etc.).
12. Sensors and microsensors for the measurement of basic physical, chemical and biochemical
variables. Basic principles, basic electronic structure (ISFET, MOS ...), electronic circuit.
13. Microactuators (micromanipulators), nanotechnology, nanosensors and nanosystems in medicine.
AE6M33ZSL Medical Imaging Systems
14. Ultrasonic imaging in medicine. Generation, detection, demodulation, creating an image, use in
medicine.
15. Magnetic resonance imaging in medicine. Principles, spatial encoding, fast scanning, use in medicine.
16. Imaging methods utilizing ionizing radiation - X-ray, computed tomography, SPECT and
PET. Principles and application in medicine.
AE6M02BFY Biophysics
17. Electromagnetic spectrum – description, radiation sources. Black body radiation and radiometry,
photometry. Detectors of ionizing radiation dosimetry.
18. Haemodynamics - measurement of haemodynamic parameters of the bloodstream (blood pressure,
pulse, blood flow, etc.), basic methods for measuring blood pressure, extracorporeal circulation,
replacement blood vessels and heart, statics and dynamics of ideal fluid, flow of real fluids. Solutions
and body fluids, properties and their measurement. Electrochemistry and principles of the electrodes.
19. Acoustics - Basic definitions, sound propagation, sound pressure gauges, otoacoustic emissions,
audiometry, tympanometry, hearing aids, bone vibrators, cochlear neuroprosthesis.
AE6M02FPT Physics for therapy
20. Rehabilitation methods - electrotherapy, ultrasound therapy, magnetic therapy, phototherapy - Basic
overview of the biological effects of EM fields and use of these effects in medicine. Principles, block
diagrams, indication.
21. Haemodialysis, peritoneal dialysis - Block diagram, principle of operation, description of each block,
indications, capillary hemodialyzer.
22. Prosthetics - block diagrams, requirements on prosthetic replacements, engines used in prosthetic
replacements of the upper limbs, feedback.
AE6M33OZL Health Organization and legislation
23. The health care system, hospitals, funding models, legal relations
24. Legislative aspects of the development, production and distribution of medical devices
25. Medical records, patient data protection, informed consent
Compulsory courses of the
Biomedical Informatics study branch
AE4M33PAL (Advanced Algorithms) - OI
1.
2.
Lexical analyzer, the program implementation. Syntactic tree, top-down parser, LL (1) grammars and
their properties.
Search algorithms in text with linear and sublinear complexity (KMP, BM, Karp-Rabin), the use of
finite automata to search in the text.
AE4M01TAL (Theory of Algorithms) - OI
3.
4.
5.
Basic graph algorithms: minimal skeleton, found a strong coherent component, matching in bipartite
graphs, isomorphism of graphs.
Algorithm, the correctness of the algorithm, algorithm complexity, problem complexity, P class P, NP
class.
NP-complete and NP-hard task, Cooke's Theorem, heuristics for solving NP-hard problems,
probabilistic algorithms.
AE4M33SAD (Machine Learning and Data Analysis) - OI
6.
Cluster analysis, k-means and hierarchical clustering. Association rules and algorithms for their
searches, frequent subgraphs. Principle and independent component analysis.
7.
8.
Computational learning theory, concept space, PAC learning. Learning classification rules, grammars
and learning from texts.
Inductive Logic Programming, learning from logical interpretations, relational features and relational
decision trees, statistical relational learning: probabilistic relational models, Markov logic.
AE6M33BIN (Bioinformatics)
9. Modelling, comparison, alignment and folding of biological sequences
10. Modeling functions, interactions and protein structure.
11. Data analysis of broadband measurements, finding significant units (genes and their groups,
polymorphisms, cellular processes)
AE6M33NIN (neuroinformatics)
12. Recording of extracellular and intracellular neuronal activity, detection and classification of action
potentials, statistical parameters of the firing neuron, generating an artificial action potential,
visualization of neuron activity.
13. Models of neurons: Integrate and Fire model, Poisson and point processes, information transfer in the
brain, temporal and frequency coding
14. Learning processes in neurons, short-and long-term learning, learning in stochastic models of neurons,
learning based on the frequency and temporal characteristics
AE6M33AST (Assistive technology and surveillance systems)
15. Man machine interface, alternative ways to control computers and the issue of text input. Barrier-free
access to the web and software products - the rules of accessible software.
16. Complex integrated systems to support users with different restrictions. Approach to ensure mobility
and control of environment for users with limited mobility: benefits and risks. Technological support
for cognitive disorders.
17. Computer-controlled surveillance systems, their structure, control and safe operation.
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