Radiation protection (Centre d'étude nucléaire-Mol)

lbnen2011  2020-2021  Autre site

Radiation protection (Centre d'étude nucléaire-Mol)
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
Q1
Language
English
Aims

At the end of this learning unit, the student is able to :

1 The aim of the course is:
  • to introduce the student to the physical principles of the interaction of subatomic particles and high-energy radiation with matter
  • to learn how to apply the concepts of external/internal radiation dosimetry
  • to introduce the student to the biologic effects of ionising radiation
  • to learn how to apply dispersion models
  • to be able to calculate the effects of shielding materials
  • to know the concepts and legislation of radiation protection
  • to give an overview of the different methods for detecting and quantifying the presence of such particles and radiation
  • to give an introduction to the principles of particle acceleration
 
Content
Part H. Thierens and K. Bacher
1: Radiological quantities and units
1.1   : Exposure and kerma
1.2   : Absorbed dose
1.3   : Equivalent dose
1.4   : Effective dose
1.5   : Operational dose quantities
2: External dosimetry
            2.1 : Ionometry of low energy photon fields
            2.2 : High energy photon fields: the Bragg Gray relation
            2.3 : Dosimetry of neutron fields
3: Internal dosimetry
            3.1 : Concept of committed dose equivalent
            3.2 : Concept of specific effective energy
            3.3 : Compartmental model analysis
            3.4 : Dosimetric model for the respiratory system
3.5 : Dosimetric model for the gastrointestinal tract
            3.6 : Dosimetric model for bone
            3.7 : Metabolic data of important fission products and actinides
4: Biological effects of ionizing radiation
            4.1 : Deterministic and stochastic effects
            4.2 : Overview of direct effects including utero
            4.3 : Overview of late effects: the UNSCEAR report
            4.4 : Biological effect models used in radiation protection
5: Engineering aspects of radiation shielding
            5.1 : Build up factors
            5.2 : Shielding of photon fields
            5.3 : Shielding of combined neutron-photon fields
6: Dispersion of effluents from nuclear facilities
            6.1 : Meteorology of dispersion
            6.2 : Diffusion of effluents-Pasquill conditions
            6.3 : External dose from plume
            6.4 : Internal dose from inhalation
7: Legislation and regulations
            7.1 : The ICRP 103 publication
            7.2 : The conceptual framework of radiological protection
            7.3 : The system of protection in occupational and public exposures
            7.4 : The system of protection in interventions, accidents and emergencies
8: Measurement techniques in radiation protection
            8.1 : Ionometry
            8.2 : Film dosimetry
            8.3: TLD dosimetry
            8.4: OSL dosimetry
Evaluation methods

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

Written examination. Exercise part: "open book", theoretical part "closed book".
Report of lab sessions account for 20% in the total mark.
Other information
This course is part of the Advanced Master programme in nuclear engineering organized by the Belgian Nuclear Higher Education Network (BNEN).  BNEN is organised through a consortium of six Belgian universities and the Belgian Nuclear Research Centre, SCK-CEN and takes place at the SCK-CEN in Mol.
Prof. Hubert Thierens - Universiteit Gent
Prof. Klaus Bacher ' Universiteit Gent
Faculty or entity
EPL


Programmes / formations proposant cette unité d'enseignement (UE)

Title of the programme
Sigle
Credits
Prerequisites
Aims
Master [120] in Electro-mechanical Engineering

Advanced Master in Nuclear Engineering

Master [120] in Mechanical Engineering