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Course BMED360

In Vivo Imaging and Physiological Modelling

Course offered :

Current programmes of study

Number of credits 10
Course offered (semester) Autumn/spring(minimum 2 students)
Subject overlap HUFY372
Schedule Schedule
Reading list Reading list

Language of Instruction

English

Pre-requirements

Physics, computer science, mathematics or statistics, on bachelor level. Students with bachelor's degree in biology/life sciences, and strong interest and some previous experience in biomedical image analysis and programming could also be qualified.

Learning Outcomes

The students will be able to explain the physical principles of MRI and functional MRI imaging for exploration / estimation of the physiological and morphological parameters (e.g. k-space and pulse sequences, tensor estimation and eigen-decomposition, deconvolution, compartment modeling, statistical modeling, and geometric modeling). Students will also achieve practical knowledge of software and algorithms for quantitative analysis of image-based information in space and time, and be able to install and modify these programs for use in analysis and visualization of their own data. This knowledge is particularly linked to MATLAB and Python.

 

After completion of the course the student should be able to:

 

Present knowledge about

 

  • Basic principles of MRI.
  • Methdos for image analysis.
  • Software tools for image processing.

 

 

Skills and general competence

 

  • Perform simple scripting and programming.
  • Install and adapt image processing tools.
  • Communicate and translate imaging problems between (i) a biological or medical formulation and (ii) a computational & algorithmic formulation.

 

Contact Information

Department of Biomedicine

studie@biomed.uib.no

(+47) 55 58 64 39 / 55 58 64 40 / 55 58 60 95

 

Course coordinator:

Erlend Hodneland, http://uib.no/persons/Erlend.Hodneland

Course offered (semester)

Autumn/spring(minimum 2 students)

Language of Instruction

English

Aim and Content

Obtain theoretical and practical knowledge on functional and quantitative in vivo imaging in man and animal using magnetic resonance imaging (MRI) and computer-based image analysis. The focus is on brain imaging (perfusion, diffusion, permeability mapping) and structural and functional connectivity, but also examples from functional kidney imaging and (image-based) systems biology will be presented. A major objective is also to give insight about the importance of mathematical models and computations in analysis and understanding of complex physiological processes, and the need of cross-disciplinary collaborations.

Learning Outcomes

The students will be able to explain the physical principles of MRI and functional MRI imaging for exploration / estimation of the physiological and morphological parameters (e.g. k-space and pulse sequences, tensor estimation and eigen-decomposition, deconvolution, compartment modeling, statistical modeling, and geometric modeling). Students will also achieve practical knowledge of software and algorithms for quantitative analysis of image-based information in space and time, and be able to install and modify these programs for use in analysis and visualization of their own data. This knowledge is particularly linked to MATLAB and Python.

 

After completion of the course the student should be able to:

 

Present knowledge about

 

  • Basic principles of MRI.
  • Methdos for image analysis.
  • Software tools for image processing.

 

 

Skills and general competence

 

  • Perform simple scripting and programming.
  • Install and adapt image processing tools.
  • Communicate and translate imaging problems between (i) a biological or medical formulation and (ii) a computational & algorithmic formulation.

 

Pre-requirements

Physics, computer science, mathematics or statistics, on bachelor level. Students with bachelor's degree in biology/life sciences, and strong interest and some previous experience in biomedical image analysis and programming could also be qualified.

Recommended previous knowledge

General human physiology dealing with diffusion, perfusion and microcirculation. Basic knowledge of brain anatomy and neurophysiology, and molecular and cell biology. Background in mathematics (e.g. calculus & linear algebra) and some experience with using computers in biomedical applications (e.g. statistical packages, signal processing, etc.). Access to a computer with MATLAB and Image Processing Toolbox installed, in addition to Python/Sage.

Subject Overlap

HUFY372

Teaching Methods

Lectures + programming lab and demonstrations. Term and project-task. Course materials, including links to software and data, are available from the course web page.

Compulsory Requirements

Mid-term project on given topic.

Assessment methods

Oral presentation of personal project (20 min. + 5 min.discussion) (80% of final grading) + multiple choice (20% of final grading).

Grading Scale

A-F

Reading List

Webpage:

http://sites.google.com/site/bmed360

References:

Paul Tofts (Ed.) Quantitative MRI of the Brain: Measuring Changes Caused by Disease http://eu.wiley.com/WileyCDA/WileyTitle/productCd-0470014296.html

Jirsa VK, McIntosh AR (Editors) Handbook of Brain Connectivity.

http://www.springerlink.com/content/978-3-540-71462-0 .

Gonzalez RC, Woods RE. Digital Image Processing, 3rd ed., Prentice Hall, 2008

http://www.imageprocessingplace.com

Gonzalez RC, Woods RE, Eddins SL. 2nd ed. Digital Image Processing Using MATLAB, Prentice Hall, 2009. http://www.imageprocessingplace.com

Course Unit Evaluation

Written evaluation on My Space/Mi side.

Contact Information

Department of Biomedicine

studie@biomed.uib.no

(+47) 55 58 64 39 / 55 58 64 40 / 55 58 60 95

 

Course coordinator:

Erlend Hodneland, http://uib.no/persons/Erlend.Hodneland