- Admission : /en/education/bachelor/chemistry/admission/
- Structure of studies : /en/education/bachelor/chemistry/structure-of-studies/
- Study program : /en/education/bachelor/chemistry/study-program/
- Career perspectives : /en/education/bachelor/chemistry/career-perspectives/
- Exchange programs : /en/education/bachelor/chemistry/exchange-programs/
- People : /en/education/bachelor/chemistry/people/
- Admission : /en/education/bachelor/chemistry/admission/
- Structure of studies : /en/education/bachelor/chemistry/structure-of-studies/
- Study program : /en/education/bachelor/chemistry/study-program/
- Career perspectives : /en/education/bachelor/chemistry/career-perspectives/
- Exchange programs : /en/education/bachelor/chemistry/exchange-programs/
- People : /en/education/bachelor/chemistry/people/
Study program
Course description
Back-
Objectives
At the end of this course, students should be able to model the behavior of an ideal chemical reactor operating in batch or continuous mode, simulate it using the numerical tools provided (Excel or Matlab or Python) and visualize the various process variables (concentrations, volume, temperature) for a variety of operating conditions.
In particular, students should be able to:
- understand, explain and model the behavior of various ideal chemical reactors operating in isothermal mode.
- describe the kinetics of a complex reaction scheme in such a way that it can be used without error in the material balance of a reactor.
- write and solve material balances for each of the chemical reactors studied.
- compare the advantages and disadvantages of the reaction techniques presented in different practical situations.
- optimize the conduct of a chemical reaction by choosing the right reactor or arrangement of reactors.
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Content
The objective of the Reaction Technology 1 course is to discuss how to model and simulate the behavior of ideal chemical reactors, with a view to understanding, selecting, sizing and optimizing them.
The course is structured as follows:
- Introduction and definitions
- Solving systems of differential equations using numerical tools (Excel, Python, Matlab)
- Material balances on ideal isothermal reactors
- Conversion, sizing and optimization of continuous reactors
- Multiple reactions, selectivity and tubular membrane reactors
The didactic model used in this course will be that of a flipped classroom. Students will be required to view and/or read the documentation distributed prior to the course, so as to be able to work effectively on the various projects and exercises solved in class. For a preliminary introduction to what a flipped classroom is, the following video explains the principle: https://www.youtube.com/watch?v=UNMx2p9aGAU
Type of teaching and workload
Course specification
Evaluation methods
- Continuous assessment Written work
- Exam: written (180 min.)
Course grade calculation method
Final grade: 0.5 x (continuous assessment grade + exam grade)
Reference work
- Fogler, H. S. (2020). Elements of chemical reaction engineering (6th ed.). Prentice Hall.
Intructor(s) and/or coordinator(s)
Thierry Chappuis