THE CONTENTS OF THE COURSE
Week 1 - Introductory lecture. Introduction of students to the method of course delivery, methods of knowledge review, final grade structure, and their obligations.
Week 2 - Fundamentals of mechanical macro processes. Characterization of disperse systems. Methods of measurement, representation and approximation of particle size distribution.
Week 3 - Characterization of disperse systems. Measuring instruments. Calculation examples. Laboratory task I: Granulometry.
Week 4 - Fundamentals of mechanical separation. Separation by sedimentation in a gravitational field. Design of sedimentation equipment.
Week 5 - Separation by sedimentation in a centrifugal field. Sigma concept. Theoretical principles, equipment, selection of centrifuges, calculation examples. Laboratory task II: Sedimentation test.
Week 6 - First partial exam, online.
Week 7 - Separation by filtration. Cake filtration and deep-bed filtration. Compressible and non-compressible filter cakes. Resistance of filter media and filter cake.
Week 8 - Separation by filtration in a centrifugal field. Theoretical principles, equipment, selection of filters and filtration centrifuges, calculation examples. Laboratory task III: Filtration test.
Week 9 - Mixing of liquids. Design of mixing systems. Fundamentals of mechanical mixing, impeller types, calculation examples. Laboratory task IV: Mixing of liquids.
Week 10 - Mixing of suspensions. Fluidization. Just-suspension criteria equations. Scale-up of the mechanical mixing process.
Week 11 - Second partial exam, online.
Week 12 - Fundamentals of powder mixing. Assessment of mixture quality. Causes and types of segregation. Kinetics of powder mixing. Equipment, selection of equipment, calculation examples.
Week 13 - Comminution and agglomeration. Theoretical principles. Equipment, selection of equipment, calculation examples. Laboratory task V: Comminution kinetics.
Week 14 - Third partial exam, online.
Week 15 - Oral exam
GENERAL AND SPECIFIC COMPETENCE
Acquire knowledge of equipment selection, definition of optimal process conditions, and analysis of complex processes in chemical engineering.
STUDENTS' TEACHING OBLIGATIONS AND THEIR PERFORMANCE
Regular participation in classes (lectures, seminars and lab tutorials), minimum attendance 75% . Writing papers, homework and seminar assignments.
TEACHING METHODS
Lectures, seminars and laboratory tasks.
KNOWLEDGE TESTING AND EVALUATION
Continuous assessment of knowledge is conducted through three midterm exams and an oral examination upon completion of the lectures. A minimum of 50% of the available points is required to pass each written midterm exam. Students may retake only one failed midterm exam.
The final grade consists of points earned in the written midterm exams and the oral examination (35% + 35%), laboratory exercises (10%), attendance (5%), and participation in the online course, including self-assessment tests, quizzes, games, homework assignments, and seminar assignments (15%).
Students who do not achieve a minimum of 50% of the total points from all written midterm exams are required to take both the written and oral parts of the examination during the regular examination period.
MONITORING OF THE COURSE QUALITY AND SUCCESSFULNESS
University-level student survey. Anonymous surveys to assess individual forms of teaching within the online course during the semester.
LEARNING OUTCOMES AT THE LEVEL OF THE COURSE
1. Distinguish methods of measuring particle size distribution.
2. Create diagrams of the cumulative and differential particle size distribution.
3. Analyze the laws of mechanical separation processes (sedimentation, filtration).
4. Identify the advantages and disadvantages of mechanical separation processes.
5. Analyze the mechanical mixing of homogeneous and heterogeneous systems.
6. Analyze the energetic and kinetic aspects of the comminution and size enlargement processes.
7. Present a solution to a given problem.
8. Solve experimental tasks and comment on the results obtained.
LEARNING OUTCOMES AT THE LEVEL OF THE STUDY PROGRAMME
1. Interpret the fundamental principles of chemical engineering in the fields of modelling and simulation of chemical reactions, of momentum, mass and energy transport processes and of separation processes.
2. Define chemical engineering problems, which includes their analysis and formulation in order to solve them using fundamental principles.
3. Select appropriate methods of analysis, modelling, simulation and optimisation.
4. Explain the principles of basic design of processes.
5. Solve real chemical engineering problems by scientific approach.
6. Critically review literature data sources, both in printed and Internet form, to collect necessary information for solving chemical engineering problems.
7. Demonstrate effective communication skills, both in writing and presentation, including English, and capability of working effectively in teams that may involve professionals from other disciplines.
8. Demonstrate capability of learning on their own and recognising the need for lifelong learning.
LITERATURE
1. G. Matijašić, Introduction to mechanical process engineering (in Croatian), HDKI i FKIT, 2022. - compulsory literature
2. G. Matijašić, Course materials given through e-course in Merlin platform, Faculty of chemical engineering and technology - compulsory literature
3. M. Hraste, Mechanical process engineering (in Croatian), Hinus, 2003.- compulsory literature
4. M. Rhodes, Introduction to Particle Technology, John Wiley and Sons, 2008. - non-mandatory literature
5. J. P. K. Seville, U. Tuzun, R. Clift, Processing of Particulate Solids, Chapman and Hall, 1997. - non-mandatory literature
6. H. H. Schubert: Mechanische Verfahrenstechnik, VEB Deutscher Verlag fuer Grundstoffindustrie, 1986. - non-mandatory literature
7. A. Rushton, A.S. Ward, R. G. Hodlich: Solid-Liquid Filtration and Separation Technology, VCH Weinheim, 1996. - non-mandatory literature
8. R. J. Wakeman, E.S. Tarleton; Equipment Selection, Modeling and Process Simulation, Elsevier, 1999. - non-mandatory literature
9. N. Harnby, M. F. Edwards, A. W. Nienow: Mixing in Process Industry, Butterworths, 1992. - non-mandatory literature
|
-
Nastavni materijali u okviru e-kolegija na platformi Merlinu, G. Matijašić, Fakultet kemijskog inženjerstva i tehnologije, 2021.
-
Uvod u mehaničko procesno inženjerstvo, G. Matijašić, HDKI i FKIT, 2022.
-
Introduction to Particle Technology, M. Rhodes, John Wiley & Sons Ltd., 2008.
-
Processing of particulate solids, J. P. K. Seville, U. Tüzün, R. Clift, Chapman & Hall, 1997.
-
Mechanische Verfahrenstechnik, H. H. Schubert, VEB Deutscher Verlag fuer Grundstoffindustrie, 1986.
-
Solid-Liquid Filtration and Separation Technology, A. Rushton, A.S. Ward, R.G. Hodlich, VCH Weinheim, 1996.
-
Equipment Selection, Modeling and Process Simulation, R. J. Wakeman, E. S. Tarleton, Elsevier, 1999.
-
Mixing in Process Industry, N. Harnby, M. F. Edwards, A. W. Nienow, Butterworths, 1992.
|
Pristupačnost
