Biomedical Engineering Sciences: Curriculum

Here you'll find detailed information on current courses of the Master's degree program Biomedical Engineering Sciences. Please note that due to ongoing updates not all courses of the program might be fully displayed. A complete overview of the curriculum for the study year 2016/17 is going to be published in the course of the summer semester 2016.

 
Information about the double degree program in cooperation with the Brno University of Technology (BUT) in the Czech Republic:

1. Semester

Name ECTS
SWS
Applied Biomedical Engineering in Projects (K1)
English / kMod
8.50
-
Project-Related Teamwork 1 (PRT1)
English / PRJ
6.00
2.00

Course description

- The students design, handle, and finish a relatively complex cooperative project as a team in the field of biomedical engineering - They produce well-formed project plans and documents, a scientific paper and a poster. They present and discuss their work

Methodology

Groups of students finish a joint project independently, under guidance from lecturers and with external cooperation They observe guidelines and principles of project management, and produce the necessary documents and project outcomes to reach the final goal of their project

Learning outcomes

After passing this course successfully students are able to ...

  • plan a project for a team (requirements analysis, project structure, milestones)
  • handle the project autonomously
  • work on tasks using the methods of science and to document the results
  • implement a project for an external project sponsor

Course contents

  • Specific biomedical engineering knowledge, skills and methods necessary as required by the project
  • Problem analysis, developing concepts, evaluating problem solution approaches
  • Project management and documentation
  • Scientific working

Prerequisites

Basic engineering / medical knowledge and skills in agreement with the project supervisor

Literature

  • Templates
  • topic specific literature

Assessment methods

  • Repetitive project meetings with the responsible supervisor
  • Project documentation (Documentation)
  • 2 pages paper (Paper)
  • Final Presentation

Anmerkungen

The work in this project will go on in the oncoming semester in the course “Project Related Teamwork 2”

Team Management Skills (TMS)
English / SE
1.00
1.00

Course description

In the course the students get to know main principles of leading teams.

Learning outcomes

After passing this course successfully students are able to ...

  • explain the role of leadership in the different stages of team development (for example by Tuckman) and to derive relevant leading actions (for example directive leadership in the forming phase).
  • diagnose dynamics in project teams using models (for example Rank Dynamics, Drama Triangle, TZI) and to develop and argue case-related concrete opportunities for activities (for example delegation of responsibilty, critical discussion).

Course contents

  • Leadership functions and tasks
  • Leadership tools in project teams
  • Role conflicts "colleague" and "project leader"
  • Leading without formal power and competence
  • Overview of theories to group dynamics
  • Conflicts and difficult situations in leading project teams

Prerequisites

none

Literature

  • Berkun, S. (2005): The Art of Project Management, Sebastopol: O’Reilly Media
  • Cronenbroeck, W. (2008): Projektmanagement, Berlin: Cornelsen Verlag [bilingual book: in English and German]
  • Haeske, U. (2008): Teamentwicklung, Berlin: Cornelsen Verlag, [bilingual book: in English and German]

Assessment methods

  • Reflection paper

Anmerkungen

none

Workflows in Medicine (WFM)
English / SE
1.50
1.00

Course description

The course provides an overview on workflows in healthcare systems especially at healthcare providers. It introduces typical examples of workflows with an emphasis on distributed and shared workflows.

Methodology

Lectures, visits to healthcare provider sites, self guided research

Learning outcomes

After passing this course successfully students are able to ...

  • describe workflows in healthcare as requirements from a technical point of view
  • evaluate existing and design new workflows using relevant literature (e.g. standards, clinical guidelines, research publications, product documentation)
  • consider views of different stakeholders (doctors, care persons, other care providers, patients, administration, ...) in projects

Course contents

  • Discussion of example workflows (Admission and discharge between GPs, resident care organisations and hospitals, radiology and laboratory workflows, use and maintenance of medical devices, clinical paths, …)
  • elements ad methods for documenting workflows (goals, results, contributions, roles, use cases, …)
  • on site visits to healthcare providers

Prerequisites

none

Literature

  • 2013 ACCF/AHA Guideline for the Management of Heart Failure: A Report of the American College of Cardiology Foundation/American Heart Association Task Force on Practice Guidelines. Clyde W. Yancy, Mariell Jessup, Biykem Bozkurt, Javed Butler, Donald E. Casey, Jr, Mark H. Drazner, Gregg C. Fonarow, Stephen A. Geraci, Tamara Horwich, James L. Januzzi, Maryl R. Johnson, Edward K. Kasper, Wayne C. Levy, Frederick A. Masoudi, Patrick E. McBride, John J.V. McMurray, Judith E. Mitchell, Pamela N. Peterson, Barbara Riegel, Flora Sam, Lynne W. Stevenson, W.H. Wilson Tang, Emily J. Tsai and Bruce L. Wilkoff. Circulation, 2013;128:e240-e327; originally published online June 5, 2013
  • doi: 10.1161/CIR.0b013e31829e8776, online (24.10.2014) http://circ.ahajournals.org/content/128/16/e240
  • Connor, M. J. & Connor, M. J. Missing elements revisited: information engineering for managing quality of care for patients with diabetes. J Diabetes Sci Technol, iAbetics Inc., Menlo Park, California, USA., 2010, 4, 1276-1283
  • Shepherd, M.; Painter, F. R.; Dyro, J. F. & Baretich, M. F.: Identification of human errors during device-related accident investigations.IEEE_M_EMB, 23, 2004, 66-72.
  • IHE Laboratory Technical Framework, Volume 1 (www.ihe.net).
  • IHE Radiology Technical Framework Volume 1 (www.ihe.net).
  • see course materials

Assessment methods

  • 2-4 pages workflow paper
Economic & Legal Issues (K2)
English / kMod
5.50
-
Advanced English (AEN1)
English / SE
1.50
1.00

Course description

We aim at conveying the language-related criteria and methods required for writing documents, and for leading and participating in discussions on current issues and topics in the Biomedical Engineering profession

Methodology

Seminar

Learning outcomes

After passing this course successfully students are able to ...

  • structure and write various types of documents using language-related criteria and methods;
  • lead a professional discussion in English, i.e. to apply appropriate language and techniques for effective formulation of questions, moderation, summarizing etc.

Course contents

  • Formal and language requirements for writing various types of documents
  • Language and techniques for leading a professional discussion
  • Choosing, researching and presenting and leading a discussion on an appropriate professional topic

Prerequisites

Common European Framework of Reference for Languages Level B2

Literature

  • Göschka, M. et al (2014) Guidelines for Scientific Writing
  • Harvard Business Review 20-Minute Manager Series: Running Meetings
  • Additional current handouts

Assessment methods

  • active participation in class activities and timely completion of assignments
Corporate Management in Life Science Technologies (COM)
English / ILV
3.00
2.00

Course description

The course provides an overview of the analysis of investment projects and companies. Students will learn how to determine the cost of capital and how to manage financial risks.

Methodology

Lecture: DiscussionExamplesSeminar: Seminar paperDiscussionExamples

Learning outcomes

After passing this course successfully students are able to ...

  • analyse financial reports of companies according to managerial standards.
  • apply common financial ratios and interprete them.
  • calculate the cost of capital.
  • analyse investment projects.
  • determine the optimal capital structure of a company.
  • manage financial risks and know how to apply hedging instruments.

Course contents

  • Value oriented management
  • Capital budgeting (NPV, IRR, etc.)
  • Financial ratios
  • Financial ratio systems (DuPont, BSC)
  • Value oriented ratios (EVA, CVA, MVA)
  • Interpretation of financial ratios
  • Weighted Average Cost of Capital (WACC)
  • Company valuation
  • Capital structure decisions
  • Business Modeling
  • Introduction to forecasting
  • Statistical methods
  • Scenario analysis
  • Risk management
  • Business risk
  • FX and interest rate risk

Literature

  • Eugene F. Brigham, Michael C. Erhardt, Financial Management – Theory and Practice, 14th edition, 2014
  • Pablo Fernandez, Company Valuation Methods, 2014
  • Graham Friend, Stefan Zehle, Guide to Business Planning, The Economist Newspaper Ltd., 2014, ISBN 1 86197 474 4 (Kapitel 14 und 17)
  • Karl Knezourek, Folienskriptum zur Lehrveranstaltung, 2015 (wird vor Beginn der 1. LV elektronisch zur Verfügung gestellt)

Assessment methods

  • Seminar paper (30%)
  • Written exam (70%)

Anmerkungen

Classes start on time. Students are reminded to arrive on time. Students who arrive late for a lecture or leave early will receive 0% attendance for that class.

EU-Law (EUL)
English / VO
1.00
1.00

Course description

The European Union is since the accession of Austria on 1st of January 1995 one of the most important institutions for all citizens in the country. The influence is marked in all areas of the daily life: economics, social affairs, budget, research and development, legislature. That’s why it’s necessary to know, where the new rules come from, how they have been elaborated and in which tasks the European Union have, in this way we all can prepare us for the future. This course will give an overview over the institutions, their structure, their tasks and influence, but also give examples and exercises including their solutions. It will also introduce the different kind of rules of the EU, so the student can work at the end autonomously with European law.

Learning outcomes

After passing this course successfully students are able to ...

  • explain the institutions of the EU
  • identify types of cases (Failure to fulfil obligations, action for failure to act, action for annulment, procedure for preliminary ruling) and to provide suggestions for decisions of the court
  • select and apply appropriate legal instruments

Course contents

  • Directives have to be transposed into national law. The student must learn to deal with the legal system to know which law is valid for him. However, also other legal aspects are dealt: the student will elaborate the reasoning for a legal case to get a feeling what is legally allowed in the EU and will also draft a directive because of given issues.

Prerequisites

The course is elaborated for students with no knowledge about the European institutions and European law

Literature

  • Treaty of the Functioning of the European Union
  • Teaching material in the campus system

Assessment methods

  • Written final exam, which contains both theory questions and case exercises.
Elective Module 1 (K4)
English / kMod
8.00
-
Advanced Programming for Medicine (APM)
English / ILV
4.00
2.00

Course description

This course gives a practical introduction into IHE Technical Frameworks (TF). We will start by examining the IHE landscape of technical frameworks (Focused on IT-Infrastructure TF). Tools are presented and applied, which are needed in order to fulfill requirements defined by the different IHE profiles. The single assignments will sum up to a project showing a real-world implementation of communicating/storing/accessing medical information in the growing field of eHealth.

Methodology

Short-Presentations (lecturer)Project work (in groups)

Learning outcomes

After passing this course successfully students are able to ...

  • plan and implement a basic Client – Server Architecture
  • analyse and implement IHE PCD Profile and the use of HL7 v2
  • analyse and implement IHE XDS Document Source
  • establish and integrate and CDA document within an XDS Environment
  • develop an ATNA client to send audit messages to an open source ATNA

Course contents

  • Continua Health Alliance Architecture for including medical device data in Electronic Health RecordsStandards/Basic Technologies:
  • HL7 v2, v3 (CDA)
  • Web Services: Http, Soap, WSDL
  • XML: XSD, XML-Parser, O/X - Mapper

Prerequisites

Fundamentals and Understanding of object-oriented programming (used OOP-language and IDE: Java, Eclipse)

Literature

  • Teaching materials in the campus system
  • IHE ITI-Technical Frameworks Vol 1-4
  • IHE DEC-Technical Frameworks Vol 1-2
  • Moodle links

Assessment methods

  • Continuous assessment
  • Project presentations and project report
Biomedical Engineering for Therapy & Rehabilitation (BETR)
English / ILV
4.00
2.00

Course description

The course provides knowledge of different rehabilitation issues in different areas of application.

Methodology

Lectures and group discussions, Laboratory Course Rehabilitation Engineering

Learning outcomes

After passing this course successfully students are able to ...

  • define rehabilitation
  • describe the roles of the different members of rehabilitation teams and the processes within the teams
  • explain rehabilitation within different medical fields
  • describe active and passive methods of rehabilitation and physical medicine
  • describe the role of biomedical engineers within rehabilitation teams

Course contents

  • Physical Medicine
  • Rehabilitation
  • Rehabilitation team
  • Biofeedback
  • Telerehabilitation
  • Cancer Rehabilitation
  • Cardiac Rehabilitation
  • Neurological Rehabilitation
  • Pulmological Rehabilitation
  • Trauma Rehabilitation
  • Prosthetics
  • Orthotics
  • Gender-specific aspects in Physical medicine and Rehabilitation
  • Gait Analysis
  • Prosthetics of upper and lower extremities
  • Reha@home

Prerequisites

- Physiology- Anatomy

Literature

  • See course material in the campus system

Assessment methods

  • Multiple Choice Moodle Exam
Medical Information Systems (MIS)
English / ILV
4.00
2.00

Course description

The course focuses on IHE Technical Frameworks (Used in ELGA) and touches Continua Healthy Alliance Guidelines for establishing standardized, interoperable and future proof medical information systems.

Methodology

Lectures, discussions and group work, self organised work on given topics

Learning outcomes

After passing this course successfully students are able to ...

  • use the basic terminologies of IHE
  • explain the processes of the IHE Connectathon and the requirements
  • describe the difference between all XDR, XDM and XDS and their interrelation
  • describe the IHE Cross-Community Profiles work (based on XCA, XCPD)
  • describe Identity Management in IHE (based on PIX, PDQ)
  • describe the basics of IT-Security according IHE Security Profiles (CT, ATNA, XUA, BPPC)
  • describe the Architecture and Security Requirements of ELGA

Course contents

  • IHE/HL7/IEEE/Continua terminologies
  • General understanding of IHE
  • Document Exchange Profiles
  • IT-Security Profiles
  • PHR/EHR Integration
  • Clinical Document Architecture

Prerequisites

- Basic programming skills - Basic concepts of healthcare

Literature

  • Teaching materials in the campus system
  • http://ihe.net/Technical_Frameworks/
  • http://www.continuaalliance.org/
  • http://elga.gv.at/
  • Moodle Links

Assessment methods

  • exercises in groups
  • Final Exam
Modelling in Cardiovascular Systems (MCVS)
English / ILV
4.00
2.00

Course description

This course provides basic knowledge of cardiovascular system dynamics, in particular focusing on the numerical modeling of cardiac pathophysiology and mechanical circulatory assistance.

Learning outcomes

After passing this course successfully students are able to ...

  • explain the basics of cardiovascular system dynamics
  • explain the basics of modeling of dynamical systems using analogies
  • solve (numerically) differential equations that model cardiovascular systems using Simulink
  • autonomously build numerical models of the cardiovascular system

Course contents

  • Selection from:
  • Introduction to blood flow hydrodynamics
  • Introduction to cardiac and vascular biomechanics
  • Introduction into compartmental models modeling through analogies
  • Modeling of cardiac mechanics
  • Modeling of vascular mechanics
  • Modeling of lung mechanics
  • Modeling of ventricular assist devices and cardiovascular interaction

Prerequisites

- Basic knowledge of Matlab and Simulink- Basic understanding of first and second order linear ordinary differential equations- Basics of cardiovascular anatomy and physiology

Literature

  • BOOKS (comprehensive references marked with *):
  • Guyton AC, Hall JE. (2006) Textbook of medical physiology. 11th ed. Elsevier Saunders. *
  • Milnor WR. (1989) Hemodynamics. 2nd ed. Williams & Wilkins.
  • Nichols WW, O’Rourke MF. (2005) McDonald’s blood flow in arteries. 5th ed. Hodder Arnold.
  • Sagawa K, Maughan L, Suga H, Sunagawa K. (1988) Cardiac Contraction and the Pressure-Volume Relationship. Oxford Univ. Press.
  • Scherf HE. Modellbildung und Simulation dynamischer Systeme (2007). 3. Auflage. Oldenburg Verlag. *
  • Werner J (2014) Biomedizinische Techink - Automatisierte Therapiesysteme. Band 9. De Gruyter. *
  • West JB. (2008) Respiratory physiology: the essentials. 8th ed. Lippincott Williams & Wilkins.
  • Zipes DP, Libby P, Bonow R, Braunwald E. (2004) Braunwald's Heart Disease: A Textbook of Cardiovascular Medicine. 7th ed. Saunders.PAPERS:
  • Carabello BA. Evolution of the study of left ventricular function: Everything old is new again. 2002 Circulation 105(23):2701-3.
  • Westerhof N, Lankhaar JW, Westerhof BE. The arterial Windkessel. Med Biol Eng Comput. 2009;47(2):131-41.ONLINE DOCUMENTS (very informative about the key concepts of cardiovascular dynamics):
  • Burkhoff D. 2002. Mechanical Properties Of The Heart And Its Interaction With The Vascular System. Columbia University, NY (www.columbia.edu/itc/hs/medical/heartsim/review.pdf)
  • Mark RG. 2004. CARDIOVASCULAR MECHANICS I, II, III. MASSACHUSETTS INSTITUTE OF TECHNOLOGY (http://ocw.mit.edu/courses/health-sciences-and-technology/hst-542j-quantitative-physiology-organ-transport-systems-spring-2004/readings/cardio_mech.pdf)

Assessment methods

  • Intermediate assignments requiring a written report of the student work
  • Final written exam
Engineering in Medicine (K3)
English / kMod
8.00
-
Cellular Electrophysiology and Bioimpedance (CEBI)
English / ILV
4.00
2.00

Course description

Electric behaviour of cells and tissues under the influence of electromagnetic fields and their possible application in medicine.

Methodology

Lecture

Learning outcomes

After passing this course successfully students are able to ...

  • explain the electric behaviour of cells and tissues under the influence of electromagnetic fields
  • explain applications of electrophysiology and bioimpedance in medicine on examples
  • point out potentials for innovation using electrophysiology and bioimpedance methodology

Course contents

  • Electrolytes
  • Dielectrics
  • Electrical properties of molecules & tissues
  • Instrumentation and measurement, data
  • Models and some selected applications

Prerequisites

Basics of:- Physics/Chemistry- Electronic- Cellular physiology

Literature

  • S. GRIMNES / O.G. Marinsen, Bioimpedance and Bioelectricity Basics, Academic Press 2000 ISBN: 0-12-3003260-1
  • P.J. RITT et al (eds.) Electrical Bioimpedance methodes: Application to Medicine and Biotechnology, Annals of the N.Y. Academy of Siences, Volume 873, 1999,ISBN: 1-57331-190-1

Assessment methods

  • written final exam
Microprocessor-Based Design for Biomedical Applications (MDBA)
English / ILV
4.00
2.00

Course description

This course focuses on software components for embedded applications in biomedical engineering- The theoretical sections review biological and electronic backgrounds and lay a basis for deeper and practically oriented discussions of circuit designs and programming techniques- The open-source ModularEEG amplifier will be shown and the whole firmware to measure EEG-data using a microcontroller and send it to a PC for Biofeedback and BCI purposes will be programmed in groups of 2-4 people. Additionally, a live EEG-recording will be performed and the pitfalls of electrode placement will be shown on the subject

Methodology

Lecture slides Practical exercises Programming tasks (in groups) Project works (in groups)

Learning outcomes

After passing this course successfully students are able to ...

  • choose a suitable microcontroller for specific project requirements
  • utilize peripheral units like GPIO, UART and ADC
  • implement register-based programs in C programming language
  • explain SW- and HW-components of an EEG acquisition device

Course contents

  • AVR microcontrollers, peripheral units (GPIO, ADC, UART), Interrupts
  • C-programming using GCC, AVRStudio
  • Embedded biomedical devices, sensors and actuators, implants
  • Basics of bioelectric signals (nerve cells, EEG, EMG, EOG, EKG)
  • Biofeedback and Brain Computer Interfaces

Prerequisites

- C - programming skills - Microcontroller basics

Literature

  • Richard H. Barnett, Sarah Cox, Larry O'Cull:Embedded C Programming and the Atmel AVR Paperback – June 5, 20062nd edition, ISBN-13: 978-1418039592 ISBN-10: 1418039594

Assessment methods

  • Programming tasks
  • Theroretical test
  • group projects

2. Semester

Name ECTS
SWS
Applied Biomedical Engineering in Projects 2 (K6)
English / kMod
7.00
-
Project Management and Leadership Skills (PMLS)
English / SE
1.00
1.00
Project Related Teamwork 2 (PA2)
English / PRJ
6.00
2.00
Elective Module 2 (K9)
English / kMod
8.00
-
Advanced Optics (AO)
English / ILV
4.00
2.00
Artificial Intelligence (AI)
English / ILV
4.00
2.00
Electromagnetic Compatibility (EMC)
English / ILV
4.00
2.00
Informatics of Biological Systems (IBS)
English / ILV
4.00
2.00
Processes for Medical Device and System Design (I8)
English / iMod
8.00
-
Processes for Medical Device and System Design (PMDSD)
English / ILV
4.00
2.00
eHealth (EH)
English / ILV
4.00
2.00
Scientific Methodology in Biomedical Sciences (K7)
English / kMod
7.00
-
English Writing Skills (EWS)
English / SE
1.50
1.00
Ethics (E)
English / VO
1.00
1.00
Study Design and Biostatistics (SDBS)
English / SE
3.00
2.00
Writing Skills for Biomedical Papers (WSBP)
English / SE
1.50
1.00

3. Semester

Name ECTS
SWS
Advanced Clinical and Data Engineering (K12)
English / kMod
8.00
-
Advanced Analysis of Biomedical Data (AABD)
English / ILV
4.00
2.00

Course description

Theory of Multivariate Statistics

Methodology

Interactive Lecture with lots of MatLab examples, assignments, project

Learning outcomes

After passing this course successfully students are able to ...

  • do Multiple Regression Analysis
  • name MVA Techniques
  • test and prepare statistical data
  • da a Factor Analysis
  • do an independent component analysis
  • find classificators and do general pattern recognition
  • analyse time and synchronisation problems using using statistical methods
  • apply support vector machines SVM to problems
  • analyse nonstationary problems using statistical methods

Course contents

  • Multiple Regression Analysis
  • Classification of MVA Techniques
  • Basis of MVA – testing and preparing data
  • Factor Analysis
  • ICA – independent component analysis
  • Classification / Pattern Recognition
  • Time and synchronisation Problems
  • SVM
  • Nonstationary Problems

Prerequisites

Statistics, MatLab

Literature

  • Joseph Hair, Rolph Anderson, Barry Babin: Multivariate Data Analysis. Prentice Hall; (19. Feb. 2009) ISBN-10: 0138132631ISBN-13: 978-0138132637

Assessment methods

  • Assignments
  • Projects
  • Final exam
Clinical Engineering (CE)
English / ILV
4.00
2.00

Course description

This lecture gives an overview on the wide field of medical equipment installed and used in hospitals, the special focus is laid upon - how is the equipment used- what is required for its proper installation and application.

Methodology

Presentations, Excursions,

Learning outcomes

After passing this course successfully students are able to ...

  • explain the function and application of the most important medical equipment
  • explain the key parameters for a technical evaluation of the most important medical equipment
  • explain the pre-installation - requirements of the most important medical equipment for a functional and proper installation of the equipment
  • explain the processes of hospital planning using examples

Course contents

  • Project Phases in Hospital Project
  • Basics of functional Hospital Planning (Zoning, Layout)
  • special requirements for electrical installations in a hospital (UPS, line impedance, ...)
  • Medical Equipment from A to Z

Prerequisites

Basics of Anatomy, Physiology, Physics, Electrical engineering and Mechanics

Literature

  • See material in the campus system

Assessment methods

  • Written or oral End exam at the end of the semester
  • presentations of the participants
Elective Module 3 (K13)
English / kMod
8.00
-
Applied Optics in Medical Devices (AOMD)
English / ILV
4.00
2.00

Course description

Basics of applied optics for medical devices

Methodology

Presentation of contentSolution of ExamplesExcursion

Learning outcomes

After passing this course successfully students are able to ...

  • analyze paraxial optical systems based on matrix method (incl. Matlab and comparison with Zemax performed analysis)
  • explain different methods of electromagnetic wave propagation (thin element approximation, local plane interface approximation, plane wave decomposition, local plane wave approximation)
  • explain basic properties of human eye (Cornea, iris, lens, anterior and posterior chamber, retina)
  • explain the general interactions of electromagnetic waves with materials (refraction, diffraction, reflection, absorption, scattering, Plasmon-polaritons, surface plasmons, extinction)
  • Explaining of optical aberrations with Zernike polynomials and measuring them within the mechanical eye model.

Course contents

  • see learning outcomes

Prerequisites

Advanced optics course

Assessment methods

  • Lab protocol and final exam
Biomedical Engineering in Respiration (BER)
English / ILV
4.00
2.00

Course description

This course introduces different aspects of ventilation, lung simulation and the measurement of aerosols in respiratory processes and demonstrates the practical application in laboratory exercises

Methodology

Seminars, Group Work, Laboratory Experiments

Learning outcomes

After passing this course successfully students are able to ...

  • apply the basics of ventilation techniques
  • identify and explain potential methods of lung simulation
  • explain aerosol production and measurement techniques and apply them practically

Course contents

  • Function of the lung
  • Techniques for ventilation
  • Methods for simulation of human lung
  • Techniques for aerosol production
  • Techniques for aerosol measurement

Prerequisites

Lung Anatomy and Physiology, Basics in fluid dynamics

Literature

  • Teaching material in the campus system

Assessment methods

  • Laboratory Protocols
  • Final exam
EEG Acquisition and Analysis (EEG)
English / ILV
4.00
2.00

Course description

This course provides an introduction into the technologies used to record and analyze data from electroencephalography (EEG).

Methodology

Lectures about theory and background, practical demonstrations, practical student work using Matlab.

Learning outcomes

After passing this course successfully students are able to ...

  • develop an algorithm in Matlab to recognize patterns in annotated EEG data and to measure its performance by applying state-of-the-art signal processing and pattern recognition technologies.
  • conduct a digital EEG recording.
  • describe the most important concepts related to sleep EEG scoring (e.g. sleep stages, transient patterns, scoring standards).

Course contents

  • Basics about EEG recording: electrode positions, recording settings, referencing, …
  • Basics about EEG signal processing: spectral analysis, frequency bands, filtering, event-related potentials (ERP) analysis, …
  • Practical demonstrations and introduction to sleep EEG: sleep stages, transient patterns like spindles, scoring standards, …
  • Practical student work using Matlab: european data format (EDF), signal processing toolbox, …
  • Artifacts and their treatment: types of artifacts, artifact minimization and rejection, …
  • Sleep analysis: Somnolyzer 24x7 as a reliable sleep stager, quality reviewing of automatic analysis, models of sleep as a continuum, …
  • Spatial analysis: topography, source localization methods: low-resolution brain electromagnetic tomography (LORETA), …
  • Applications: EEG, ERP and sleep studies in clinical practice and scientific research

Prerequisites

Basic statistics. Matlab knowledge is helpful but not mandatory.

Literature

  • Kemp, Bob, et al. "A simple format for exchange of digitized polygraphic recordings." Electroencephalography and clinical Neurophysiology 82.5 (1992): 391-393.
  • Kemp, Bob, and Jesus Olivan. "European data format ‘plus’(EDF+), an EDF alike standard format for the exchange of physiological data." Clinical Neurophysiology 114.9 (2003): 1755-1761.
  • teaching material

Assessment methods

  • Project in small groups
Image Analysis (IA)
English / ILV
4.00
2.00

Course description

Methods for Image processing for medical image technologies, e.g. CT, PET

Learning outcomes

After passing this course successfully students are able to ...

  • list and explain the usage of file formats
  • perform simple operations of image processing in intensity, image and spatial space
  • visualize and render image data for display
  • describe the basics of the fusion of multimodal image data

Course contents

  • Image representation, file formats, and simple operations
  • Operations in intensity space
  • Filters and image transforms
  • Spatial Transformations
  • Registration
  • Visualization and Rendering

Literature

  • See course material in the campus system

Assessment methods

  • Course immanent assessment method and end exam
Exploring the BME Industries (K11)
English / kMod
4.00
-
Economics and Marketing (EAM)
English / SE
3.00
2.00

Course description

The objective of this class is to provide an understanding how healthcare markets work and how market participants behave there. Students will learn how companies can use marketing tools to successfully conduct analyses, develop strategies and place products in the healthcare market.

Methodology

Lectures with Powerpoint charts, discussions and case studies of marketing- and businessplanning. In addition students will prepare a marketing plan for a new product.

Learning outcomes

After passing this course successfully students are able to ...

  • explain the economic behavior of supply and demand on markets
  • describe and evaluate the various types of markets
  • explain and evaluate various marketing strategies, particularly in connection with the product life cycle
  • evaluate the instruments of the “Marketing Mix” (4 P’s) to achieve specific marketing goals
  • conduct a health care sales call
  • prepare a marketing plan for a health care product

Course contents

  • Healthcare markets, essential elements of microeconomic theory (Demand and supply, market types based on competition etc.), basics of healthcare marketing (Mix of marketing tools, strategies, marketing plan, sales call)

Literature

  • Walter J. Wessels – Economics, Barrons 2012, 5th Edition, ISBN 13: 978-0764147609Recommended for Marketing:
  • Philip Kotler, Kevin Lane Keller, Friedhelm Bliemel - Marketing Management
  • Fred Harms, Dorothee Gänshirt - Gesundheitsmarketing
  • Nils Bickhoff, Svend Hollensen, Marc Opresnik - The Quintessence of Marketing

Assessment methods

  • Marketing Plan, oral exam

Anmerkungen

This class will partly be conducted for both students of MTE and MBE in the 3rd semester.

Selected Problems in BME (SPBME)
English / VO
1.00
1.00

Course description

This course gives an overview and offers experience reports from thematic fields in which alumni of this study program might work

Learning outcomes

After passing this course successfully students are able to ...

  • discuss current topics from the field of biomedical engineering
  • discuss interfaces of biomedical engineering to related fields of competence

Course contents

  • Overview on tasks and activities within the topics of the study program and beyond

Literature

  • Slide sets of the lecturers

Assessment methods

  • Course immanent assessment method
Methods of Scientific Research (I10)
English / iMod
10.00
-
Research and Development Skills (RDS)
English / SE
9.00
1.00

Course description

- Literature research towards the direction of the Master's Thesis- Practical work in a company, healthcare institution or research institution using biomedical engineering skills and methods

Methodology

Supervision of practical workExperience in writing scientific textsPresentations

Learning outcomes

After passing this course successfully students are able to ...

  • analyse a scientific task and elaborate an adequate solution
  • elaborate own results in a scientific paper according to given formal criteria and structure

Course contents

  • Practical work in a company, healthcare institution or research institution
  • writing scientific papers
  • Students perform literature research towards the topic of their Master's Thesis and write an extended abstract which will be presented

Prerequisites

- Scientific Working

Assessment methods

  • Assessment of practical work
  • Scientific quality of written abstract and presentation performance
Seminar for Degree Candidates 1 (SDC1)
English / SE
1.00
1.00

4. Semester

Name ECTS
SWS
Masters Thesis (K14)
English / kMod
30.00
-
Seminar for Degree Candidates 2 (SDC2)
English / SE
2.00
1.00
Writing the Master´s Thesis (MT)
English / SO
28.00
1.00