Due to the COVID-19 crisis, the information below is subject to change,
in particular that concerning the teaching mode (presential, distance or in a comodal or hybrid format).
3 credits
30.0 h
Q1
Teacher(s)
Halen Henri; Maetz Philippe; Rollin Xavier (coordinator);
Language
French
Main themes
1. Concepts studied during the course :
- Soil and water quality.
- Causes, mechanisms and consequences of water and soil alterations.
- Legal contexts of soil and water protection.
- Soil and water quality standards and their scientific bases.
- Selection of physico-chemical, chemical, and biological diagnostic criterions for assessing water and soil quality.
- The development and setting up of permanent monitoring programmes on water and soil quality.
- The physico-chemical characteristics of pollutants that determine their behaviour (including transport) in soils and waters.
- The principles of Risk Based Land Management.
- Strategies and techniques for water treatment and soil remediation.
- Soil and water quality.
- Causes, mechanisms and consequences of water and soil alterations.
- Legal contexts of soil and water protection.
- Soil and water quality standards and their scientific bases.
- Selection of physico-chemical, chemical, and biological diagnostic criterions for assessing water and soil quality.
- The development and setting up of permanent monitoring programmes on water and soil quality.
- The physico-chemical characteristics of pollutants that determine their behaviour (including transport) in soils and waters.
- The principles of Risk Based Land Management.
- Strategies and techniques for water treatment and soil remediation.
Aims
At the end of this learning unit, the student is able to : | |
1 | a. Contribution de l'activité au référentiel AA (AA du programme) M.1.1 ; M.1.2 ; M.1.3 ; M.1.5., M. 2.1 ; M.2.2 ; M.2.3 ; M.4.5., M.4.7., M.7.1, M.7.2., M.7.3., M.8.1. b. Formulation spécifique pour cette activité des AA du programme (maximum 10) At the end of the activity the student should be able to : - summarize the European legal framework on water quality and for soil protection ; - explain the concepts of "good ecological and chemical status" of water bodies, soil quality and soil degradation; - identify the main potential pollutants in waters and soils, as well as their main characteristics and properties, and explain the main mechanisms by which they could affect the different possible targets and produce an impact, at different spatial and temporal scales; - explain, and differentiate for soil and water, the concepts of the DPSIR analysis scheme, and the concepts of water- and land- use; - list the key elements and indicators (physico-chemical, chemical, biological and hydromorphological) of water or soil pollution, prioritize and explain their methods of measurement; -define the concept of "quality standards" for water and soil, explain their scientific bases, critically interpret their values and use them adequately; - make a first interpretation of data concentrations of contaminants in soil and groundwater in terms of risk; - explain the principles of water flow and pollutant transport in soils, groundwater and surface waters; - propose a monitoring network focussing on either water or soil quality that would be based on defined objectives and development means ; for each kind of network : justify the choices made concerning the measuring station locations and types of indicators; - make good use of the legislations on water quality or on soil protection and contaminated site management; - make good use of the principles of Risk Based Land Management ; - identify, predict and justify the main treatment technologies for water treatment or for site remediation applicable for a given context. |
Other information
This course can be given in English.
Online resources
Moodle
Group Teams LBIRE2105
Group Teams LBIRE2105
Bibliography
- Copie des transparents
- Didacticiel en ExcelTM
- Ouvrages de référence :
1. Partie « eaux » :
- Benedini M. & Tsakiris G. (2013) Water Quality Modelling for River and Streams. Water Science and Technology Library, Vol. 70. Springer.
2. Partie « sols » :
- L. Citeau, A. Bispo, M. Bardy, D. King. coord. (2008). Gestion durable des sols. Collection Savoir Faire, Editions Quae, 320p.
- F. A. Swartjes (Ed.) (2011). Dealing with Contaminated Sites: From Theory towards Practical Application . Springer
- O. Atteia (2005). Chimie et pollutions des eaux souterraines, Tech & Doc Lavoisier.
3. Partie « air» :
R. Delmas, G. Mégie, V-H. Peuch, Physique et chimie de l’atmosphère, Collection Echelles, Edition Belin, 2005
B. Sportisse, Pollution atmosphérique, Des processus à la modélisation, Springer, 2008
- Didacticiel en ExcelTM
- Ouvrages de référence :
1. Partie « eaux » :
- Benedini M. & Tsakiris G. (2013) Water Quality Modelling for River and Streams. Water Science and Technology Library, Vol. 70. Springer.
2. Partie « sols » :
- L. Citeau, A. Bispo, M. Bardy, D. King. coord. (2008). Gestion durable des sols. Collection Savoir Faire, Editions Quae, 320p.
- F. A. Swartjes (Ed.) (2011). Dealing with Contaminated Sites: From Theory towards Practical Application . Springer
- O. Atteia (2005). Chimie et pollutions des eaux souterraines, Tech & Doc Lavoisier.
3. Partie « air» :
R. Delmas, G. Mégie, V-H. Peuch, Physique et chimie de l’atmosphère, Collection Echelles, Edition Belin, 2005
B. Sportisse, Pollution atmosphérique, Des processus à la modélisation, Springer, 2008
Faculty or entity
AGRO
Programmes / formations proposant cette unité d'enseignement (UE)
Title of the programme
Sigle
Credits
Prerequisites
Aims
Master [120] in Biology of Organisms and Ecology
Interdisciplinary Advanced Master in Science and Management of the Environment and Sustainable Development
Master [120] in Forests and Natural Areas Engineering
Master [120] in Environmental Bioengineering
Master [120] in Environmental Science and Management
Master [120] in Agriculture and Bio-industries