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Mathematical Ecology: In-Depth Study of Ecological & Epidemiological Modeling, Summaries of Dynamics

Information about a biannual learning unit, 'mathematical ecology' offered by université catholique de louvain in 2021. The course covers mathematical modeling of ecological and epidemiological processes using systems theory. Students will learn to identify, describe, and explain theoretical concepts, use mathematical tools, and model ecological and epidemiological applications through an individual project. The course includes lectures, practicals, and individual projects, and covers topics such as single-species population models, population interactions, epidemiology, random walks, diffusion, and population dynamics in space.

What you will learn

  • What are the learning outcomes students can expect from the 'Mathematical Ecology' course?
  • What are the main themes covered in the 'Mathematical Ecology' course?
  • What mathematical concepts and computer tools will students learn to use in the 'Mathematical Ecology' course?

Typology: Summaries

2021/2022

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Université catholique de Louvain - Mathematical ecology - en-cours-2021-linma2510
UCLouvain - en-cours-2021-linma2510 - page 1/3
linma2510
2021 Mathematical ecology
5.00 credits 30.0 h + 22.5 h Q2
This biannual learning is being organized in 2021-2022
Teacher(s) Deleersnijder Eric ;Hanert Emmanuel ;Van Effelterre Thierry ;
Language : English
Place of the course Louvain-la-Neuve
Main themes This course covers the mathematical modelling of ecological and epidemiological processes in the context of
systems theory. It aims to analyse the properties of key ecological and epidemiological models, particularly
population models. Basically, the models studied refer to the laws of physics, and in particular the concepts of
conservation of matter. This course aims to introduce basic tools for understanding and, if possible predicting,
the spatio-temporal evolution of ecological and epidemiological systems. These tools include ordinary differential
equations, partial differential equations and numerical methods to approximate these equations.
Learning outcomes
1
Contribution of the course to the program objectives
1.1, 1.2, 1.3
2.2, 2.4
3.1, 3.2, 3.3
5.3, 5.5, 5.6
Specific learning outcomes of the course
At the end of the course LMAPR2510, students will be able to:
Identify, describe and explain the theoretical concepts of mathematical modeling of ecological and
epidemiological processes in the context of systems theory ;
Explain mathematical concepts and computer tools to model the spatio-temporal dynamics of these
processes ;
Activate and mobilize these concepts and tools in an operational manner in order to model the
processes governing an ecological or epidemiological application, through an individual project ;
Justify and defend the methodological choices that were made for the complete analysis of the case
study, integrating into the discussion the underlying theoretical concepts presented in the course and
illustrated in practical work ;
Write a brief report, argued on the basis of results and appropriately illustrated with graphs and charts,
using accurate and appropriate scientific vocabulary
- - - -
The contribution of this Teaching Unit to the development and command of the skills and learning outcomes of the programme(s)
can be accessed at the end of this sheet, in the section entitled “Programmes/courses offering this Teaching Unit”.
Evaluation methods Due to the COVID-19 crisis, the information in this section is particularly likely to change.
Individual report based on a project and oral defense during the exam session.
Teaching methods Due to the COVID-19 crisis, the information in this section is particularly likely to change.
The course is taught through lectures that include many examples. Practicals and larger-scale individual projects
are also proposed to the students so that they can implement the theoretical concepts covered in the lectures.
Content The course covers the following elements, in particular through a detailed presentation of examples made using
Matlab and/or Python:
1. Single-species population models: logistic growth model - microbial growth models - age distribution models.
2. Populations interactions and biodiversity models: predator-prey Lotka-Volterra models - competitive exclusion
principle - coexistence.
3. Key elements of mathematical modeling in epidemiology of infectious diseases: compartmental models
- dynamics at the population level (epidemics, endemic states) - basic reproduction ratio (R0) - infectious
disease control.
4. Random walks, diffusion and characteristic time scales.
5. Population dynamics in space : advection-diffusion-reaction equations - dynamics of a species in the presence
of dispersion - dynamics of several species with dispersion - nonlinear progressive waves - effect of dispersion
on populations in competition ' pattern formation.
Inline resources Lecture notes and Matlab scripts available on Moodle :
https://moodleucl.uclouvain.be/course/view.php?id=9201
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linma

Mathematical ecology

5.00 credits 30.0 h + 22.5 h Q

This biannual learning is being organized in 2021-

Teacher(s) Deleersnijder Eric ;Hanert Emmanuel ;Van Effelterre Thierry ;

Language : English

Place of the course Louvain-la-Neuve

Main themes This course covers the mathematical modelling of ecological and epidemiological processes in the context of

systems theory. It aims to analyse the properties of key ecological and epidemiological models, particularly population models. Basically, the models studied refer to the laws of physics, and in particular the concepts of conservation of matter. This course aims to introduce basic tools for understanding and, if possible predicting, the spatio-temporal evolution of ecological and epidemiological systems. These tools include ordinary differential equations, partial differential equations and numerical methods to approximate these equations.

Learning outcomes

1

Contribution of the course to the program objectives

  • 1.1, 1.2, 1.
  • 2.2, 2.
  • 3.1, 3.2, 3.
  • 5.3, 5.5, 5.

Specific learning outcomes of the course At the end of the course LMAPR2510, students will be able to:

  • Identify, describe and explain the theoretical concepts of mathematical modeling of ecological and epidemiological processes in the context of systems theory ;
  • Explain mathematical concepts and computer tools to model the spatio-temporal dynamics of these processes ;
  • Activate and mobilize these concepts and tools in an operational manner in order to model the processes governing an ecological or epidemiological application, through an individual project ;
  • Justify and defend the methodological choices that were made for the complete analysis of the case study, integrating into the discussion the underlying theoretical concepts presented in the course and illustrated in practical work ;
  • Write a brief report, argued on the basis of results and appropriately illustrated with graphs and charts, using accurate and appropriate scientific vocabulary

The contribution of this Teaching Unit to the development and command of the skills and learning outcomes of the programme(s) can be accessed at the end of this sheet, in the section entitled “Programmes/courses offering this Teaching Unit”.

Evaluation methods Due to the COVID-19 crisis, the information in this section is particularly likely to change.

Individual report based on a project and oral defense during the exam session.

Teaching methods Due to the COVID-19 crisis, the information in this section is particularly likely to change.

The course is taught through lectures that include many examples. Practicals and larger-scale individual projects are also proposed to the students so that they can implement the theoretical concepts covered in the lectures.

Content The course covers the following elements, in particular through a detailed presentation of examples made using

Matlab and/or Python:

  1. Single-species population models: logistic growth model - microbial growth models - age distribution models.
  2. Populations interactions and biodiversity models: predator-prey Lotka-Volterra models - competitive exclusion principle - coexistence.
  3. Key elements of mathematical modeling in epidemiology of infectious diseases: compartmental models
    • dynamics at the population level (epidemics, endemic states) - basic reproduction ratio (R0) - infectious disease control.
  4. Random walks, diffusion and characteristic time scales.
  5. Population dynamics in space : advection-diffusion-reaction equations - dynamics of a species in the presence of dispersion - dynamics of several species with dispersion - nonlinear progressive waves - effect of dispersion on populations in competition ' pattern formation.

Inline resources Lecture notes and Matlab scripts available on Moodle :

https://moodleucl.uclouvain.be/course/view.php?id=

Bibliography

  1. Supports de cours : Notes de cours et programmes Matlab disponibles sur iCampus.
  2. Ouvrages de référence : May R.M., 1973, Stability and Complexity in Model Ecosystems, Princeton University Press - Murray J.D., 2002 (3rd ed.), Mathematical Biology (Vol. I & II), Springer - Okubo A., 1980, Diffusion and Ecological Problems: Mathematical Models, Springer-Verlag - Keeling M.J. & Rohani P., 2007, Modeling Infectious Diseases in Humans and Animals, Princeton University Press - Brauer F., van den Driessche P. & Wu J., 2008, Mathematical Epidemiology, Springer.

Other infos The notes are written in English. Lectures are given in English.

This course requires prior training in ordinary and partial differential equations (ODEs and PDEs).

Faculty or entity in

charge

MAP