Number of hours
- Lectures 20.0
- Projects -
- Tutorials 4.0
- Internship -
- Laboratory works 36.0
ECTS
ECTS 5.0
Goal(s)
For the “energy networks” section, students will be able to:
-Understand, analyze and size the production, storage and distribution of energy networks (heat, gas, electricity).
For the “system reliability” section, students will be able to
-develop models of system reliability, with increasing complexity
-evaluate and analyze a system's dependability performance
-take account of dependability requirements in the design and management of a system
-design a system to comply with dependability specifications
Benoit DELINCHANT
Content(s)
- Power to Gas and Gas to Power
o Hydrogen production from fossil fuel and renewable energy
o Hydrogen storage and transport
o Hydrogen safety
o Laboratory work
o Conferences
- An Introduction to District Heating
o The fundamental idea of district heating
o Demand
? Heat demand (space heating, domestic hot water supply, industrial heat demands, other demands)
? Heat loads
? Substation
? One-way
? Two-way
o Distribution
? District heating network
? Two-pipes, three-pipes and four-pipes systems
? The anergy-grid concept
? Distribution heat losses and pressure losses
? Non-meshed vs meshed grids
? Grid control and operating modes
o Heat supply
? Base and Peak generators + thermal storage
? Boilers
? CHP (Combined Heat And Power)
? Solar
? Geothermal
? Heat-pump
? Intelligent control of district heating systems
? Expert law vs. optimal control
? Short-term heat load forecasting
? Production and distribution optimal control
? Demand-side management in district heating
- Réseaux de chaleur solaires et stockage = « Solar District Heat and storage »
o Integration of solar thermal heat in district heating networks: solar collectors, dimensioning, storage needs, economical analysis, existing examples
o Review of the main processes for thermal energy storage : from material properties to the system, from low to high temperature, from short duration to interseaonnal storage..
o Project/case study: parametrical investigation of solar heat production in a district heating system
- Systems reliability, dependability and safety
o Probabilistic failure models and lifetime modelling of engineering components
o Qualitative approaches to system reliability analysis (FMECA, ...)
o Reliability modelling and analysis of systems and networks of independent components (Fault Tree Analysis, Reliability Block Diagrams, Event Tree Analysis, Structure Function, Minimal Cutsets, Importance Measures)
o Markov processes for systems and networks reliability modelling (systems with dependent components, passive redundancies, tested components, ...)
o Reliability of maintained systems and maintenance policies modelling
o Reliability of safety instrumented systems (IEC 61508)
Bibliography - Marvin Rausand, Arnljot Hoyland, System Reliability Theory - Models, Statistical Methods and Applications. Wiley Series in Probability and Statistics. 2004.
- J.D. Andrews, T.R. Moss, Reliability and Risk Assessment. Longman Scientific & Technical. 1993
- M. Modarres, What every engineer should know about Reliability and Risk Analysis. Marcel Dekker. 1993
Heat transfer and thermodynamic
Session normale/ First session
Evaluation non rattrapable (EN) / EN assessment : BE
Evaluation rattrapable (ER) / ER assessment : épreuve écrite de 2h (2*1h) en présentiel ou en distanciel / 2h written exam
Session de rattrapage / Second session
La note obtenue remplace la note de ER. Le EN n'est pas rattrapable. / The new mark will replace the first one (ER). No resitting for the EN exam.
Session 1 : ET 40 % + CC 60%
Session 2 : ET 40 % + CC 60%(report de S1)
The exam is given in english only
The course exists in the following branches:
- Curriculum - Master's Degree in Engineering SEM - Semester 9 (this course is given in english only
)
Course ID : 5EU5DH7
Course language(s):
You can find this course among all other courses.