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Interconversion of energy carrier processes

Teaching Unit (for year 1): Key energy technologies in Decentralized Energy Systems


facetoface

Face-to-face time

21
hours


studentworkload

Student workload

45
hours


ects

ECTS

2.5


Responsible Teacher

Olivier Herbinet.jpg
Olivier HERBINET

Pedagogic Team

Julia Mainka.png
Julia MAINKA
Olivier Herbinet.jpg
Olivier HERBINET
Silvia Lasala_2.jpg
Silvia LASALA

Aims of the teaching

The teaching intends to provide students with a comprehensive knowledge on the different types of energy conversion processes in the frame of Decentralized Energy Systems. ​The main topics treated in this course are:
Fundamentals of combustion and smart energy carriers
Heat to power technologies:
Centralized power systems based on the use of fossil fuels (gas turbines, natural gas combined cycles, integrated gas combined cycles, ultra-supercritical cycles) and power to heat (heat pumps...)
Decentralized heat-to-power systems (closed power cycles for waste heat recovery, co- and tri-generation)
Gas to power technologies:
Fuel cells (gas = H2) (note that basics of electrochemistry are introduced in another course: “Chemical and electrochemical processes involved in energy”),
Gas engines and gas turbines (gas = fuel).
(Note that power to gas technologies are introduced in the course “energy storage”)
Tools for cycle performance evaluation and heat-exchange optimization: exergy analysis and pinch analysis.

Intended Learning outcomes (measured by the assessment)

Have acquired knowledge and understanding on the treated topics
Be able to optimize storage systems according to multiple optimization criteria Be able to select one (or more) of the possible energy storage technologies according to specific energy production / utilization scenarios
Be able to implement models with relevant physical contents at the relevant scale to describe storage technologies or systems
Be able to utilize a proper scientific language
Be able to engage dialog with specialists
Be able to identify and formulate R&D questions

Learning activities and approach

eleaning

E-learning (online)

None

read

Lectures (onsite)

15h

tutorial

Tutorials (onsite)

15h
Exercises
Visit of a combined cycle power plant

Useful information

Location

-

Practical work equipment

No practical work is planned.

Other information

-

Assessment method

Written exams and Oral exams

Prerequisites

Established knowledge in thermodynamics, fluid mechanics, heat and mass transfer, basics of chemical and electrochemical processes.

Related literature

Fundamentals of Engineering Thermodynamics, M. J. Moran, H. N. Shapiro, D. D. Boettner, John Wiley & Sons, 2010.
Cleaner Combustion, Green Energy and Technology. Battin-Leclerc, F., Simmie, J.M., Blurock, E. (Eds.), 2013. Springer London, London.
Documents provided by teachers
Literature research papers

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