*Course Syllabus for*
# Biomathematics

Biomatematik

## FMAN01F, 7.5 credits

**Valid from:** Autumn 2013

**Decided by:** FN1/Anders Gustafsson

**Date of establishment:** 2014-01-27

## General Information

**Division:** Mathematics

**Course type:** Course given jointly for second and third cycle

**The course is also given at second-cycle level with course code:** FMAN01

**Teaching language:** English

## Aim

The course is established in order to introduce doctoral students to the usage of mathematical models for biological problems. Important applications where mathematical models are useful are e.g. within population dynamics, spreading of contageous diseases and midication.
A further aim is to prepare the student for further studies in e.g. biological systems or evolution biology.

## Goals

*Knowledge and Understanding*

For a passing grade the doctoral student must

- be able to present clearly and independently use basic mathematical concepts in biology, in particular regarding cell modelling, evolution dynamics and diffusion phenomena.
- be able to present and give an informal explanation of the mathematical theory behind some central biological models, such as non-linear difference equations, non-linear differential equations and reaction-diffusion equations.

*Competences and Skills*

For a passing grade the doctoral student must

- be able to use computer packages to simulate solutions of biological problems.
- be able to show good capability to independently identify biological problems which can be solved with mathematical modelling, and be able to choose an appropriate method.
- be able to independently apply basic modelling to biological problems which are relevant in industrial applications and research.
- with proper terminology, in a well structured way and with clear logic be able to explain the solution to a biological modelling problem.

## Course Contents

Population growth. Non-linear difference equations. Evolution dynamics. Continuous models. Phase plane methods. Molecule dynamics. The cell cycle. Limit cycles, oscillations and excitable systems. Modelling of diffusion. PDE-models. Pattern formation.

## Course Literature

Edelstein-Keshet, L.: Mathematical Models in Biology. McGraw-Hill College, 1988. ISBN 9780075549505.

**Types of instruction:** Lectures, laboratory exercises

**Examination formats:** Written exam, oral exam, written assignments

**Grading scale:** Failed, pass

**Examiner:**

## Admission Details

## Course Occasion Information

**Course coordinators:**