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Mass transfer operationsLaajuus (6 ECTS)

Course unit code: TO00AA49

General information


Credits
6 ECTS

Objective

After completion of this course the student will have the knowledge on physical and technical basics, calculations and realization of mass transfer operations and processes.
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After completion of this course the student will be able to evaluate the ideality and non-ideality of binary mixture and knows how to calculate vapor liquid equilibrium of ideal mixtures and flash distillations. The student is able to generate different types of vapor liquid diagrams using simulation programs and compare them to experimental diagrams of literacy and one made in physical chemistry laboratory. The student will be able to select and calculate the theoretical number of stages, the height and the diameter of a distillation, absorption and extraction column. The student is familiar with the diagrams of extraction and is able to select an appropriate adsorbent, crystallizer and drier.

Content

Vapor liquid equilibrium, concept of ideality and non-ideality of binary mixtures, phase equilibrium and diagrams, flash distillation, distillation and distillation columns, absorption: theory, application of mass transfer coefficients and absorbers, extraction: theory and diagrams, leaching and supercritical extraction, selecting and dimensioning of columns, crystallization: theories and equipment, adsorption and adsorbents, drying and dryers
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Diffusion, mass transfer coefficients, Gibbs phase rule, activity and fugacity coefficients, correlations in calculations of activity and fugacity coefficients and their applicability to different mixtures, batch distillation, azeotropic and extractive distillation, shortcut methods for multi-component distillation, extraction equipment, other separation methods, simulation of distillation and dimensioning of the column with a computer program, cases of mass transfer operations

Qualifications

Basic course in mathematics A, fluid flow and balances, physical chemistry

Further information

Class room teaching: 70 h
Laboratory exercises (with PC-programs): 4 h
Project: 20 h
Exam: 2x3h
Student individual workload: 86 h
Total: 186 h
Follow-up of the student workload analysis performed: -

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