Faculty of Metalurgy and Technology / / TERMODINAMIKA - VIŠI KURS

Course:

TERMODINAMIKA - VIŠI KURS/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10800	Obavezan	1	8	3+2+0

Programs
Prerequisites	No prerequisites
Aims	Using the results of statistical thermodynamics, establish a connection between classical and molecular thermodynamics. Understanding the thermodynamics of processes and phenomena that occur in the solid phase and the interaction of the solid phase with other phases.
Learning outcomes	After successful completion of this course, the student will be able to: - Thermodynamically analyses complex technological processes; - Solves thermodynamic problems by connecting classical and molecular approaches; - Adapt the technological project to new or changed thermodynamic conditions; - Interdisciplinary approaches to solving other physical and chemical problems; - Explain the properties of the material and plan the processing of the material to obtain the desired properties; - Innovatively combines knowledge in practical problem-solving.
Lecturer / Teaching assistant	prof. dr Veselinka Grudić, prof. dr Vanja Asanović
Methodology	Lectures, exercises, homework assignments, quizzes, project, consultation, midterm exams and final exam.

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures	Introduction to statistical thermodynamics. Intermolecular forces. Molecular theory.
I week exercises	Examples: Intermolecular forces. Molecular theory.
II week lectures	Fugacities in gas mixtures.
II week exercises	Examples: Fugacities in gas mixtures.
III week lectures	Fugacities in liquid mixtures.
III week exercises	Examples: Fugacities in liquid mixtures.
IV week lectures	Excess functions and partial miscibility. UNIFAC equation for calculation of activity coefficients.
IV week exercises	Examples: Excess functions and partial miscibility. Consideration of project topics.
V week lectures	Models and theories of solutions.
V week exercises	Examples: Models and theories of solutions.
VI week lectures	Polymers. Equations of state for polymer solutions.
VI week exercises	Midterm exam 1.
VII week lectures	Thermodynamics of emulsions.
VII week exercises	Examples: Polymers. Equations of state for polymer solutions.
VIII week lectures	Solubilities of gases in liquids. Solubilities of solids in liquids.
VIII week exercises	Make-up Midterm exam 1.
IX week lectures	High-pressure phase equilibria.
IX week exercises	Examples: Solubilities of gases in liquids.
X week lectures	Molecular simulation.
X week exercises	Molecular simulation.
XI week lectures	Thermodynamics of surfaces and interfaces. Anisotropy of surface energy. Internal boundaries - chemical discontinuity. Internal boundaries - structural discontinuity.
XI week exercises	Midterm exam 2.
XII week lectures	Stability of crystal disorder. Defect complexes in metals.
XII week exercises	Examples: Solubilities of solids in liquids.
XIII week lectures	Equilibrium constants for defect reactions.
XIII week exercises	Make-up Midterm exam 2.
XIV week lectures	Defects in nonstoichiometric compounds.
XIV week exercises	Essay presentation.
XV week lectures	Preparation for final exam.
XV week exercises	Essay presentation.

Student workload	Per week: 8 credits x 40/30 hours = 10 hours and 40 minutes Total workload for the course: 8 x 30 = 240 hours
Per week	Per semester
8 credits x 40/30=10 hours and 40 minuts 3 sat(a) theoretical classes 0 sat(a) practical classes 2 excercises 5 hour(s) i 40 minuts of independent work, including consultations	Classes and final exam: 10 hour(s) i 40 minuts x 16 =170 hour(s) i 40 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 10 hour(s) i 40 minuts x 2 =21 hour(s) i 20 minuts Total workload for the subject: 8 x 30=240 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 48 hour(s) i 0 minuts Workload structure: 170 hour(s) i 40 minuts (cources), 21 hour(s) i 20 minuts (preparation), 48 hour(s) i 0 minuts (additional work)
Student obligations	Students are required to attend classes, do their homework, submit essays and take the midterm exams.
Consultations	Tuesday and Thursday, 9:00 - 11:00.
Literature	J. M. Prausnitz, R. N. Lichtenthaler, E. G. de Azevedo, Molecular Thermodynamics of Fluid-Phase Equilibria, 3rd ed., Prentice Hall, New Jersey, 1998. B.E. Poling, J.M. Prausnitz, J.P. OConnell, The Properties of Gases and Liquids, 5th ed., McGraw-Hill, New York, 2001. R. A. Swalin, Thermodynamics of Solids, ed. J. E. Burke, B. Chalmers, J. A. Krumhansl, Wiley-Interscience, John Wiley and Sons, New York, 1972.
Examination methods	Two essays (10 points each); Two Midterm exams (15 points each, total 30 points); Final exam (50 points); Passing grade is obtained if at least 50 points are collected.
Special remarks	-
Comment	-

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points

Faculty of Metalurgy and Technology / / KINETIKA - VIŠI KURS

Course:

KINETIKA - VIŠI KURS/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10801	Obavezan	1	8	3+2+0

Programs
Prerequisites	-
Aims	Acquaintance of students with differential and integral forms of the rate laws of complex chemical reactions, as well as methods of determining the reaction order. Acquiring knowledge about the influence of temperature on the kinetics of chemical reactions and about the theoretical settings of the kinetics of reactions based on the theory of collisions, the theory of transition states and the theory of monomolecular reactions.
Learning outcomes
Lecturer / Teaching assistant	Full professor Ivana Bošković
Methodology	Lectures, calculation exercises. Test. Seminar paper. Consultations.

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures	Introduction. Chemical kinetics, chemical thermodynamics and conversion. Quantitative description of conversion.
I week exercises	Calculation examples accompanying the theoretical teaching.
II week lectures	Conversion of reactants to products. Elementary reactions. Complex kinetic systems
II week exercises	Calculation examples accompanying the theoretical teaching.
III week lectures	Reaction mechanism. Conversion of irreversible chemical reactions.
III week exercises	Calculation examples accompanying the theoretical teaching.
IV week lectures	Differential and integral forms of the rate law of irreversible chemical reactions.
IV week exercises	Calculation examples accompanying the theoretical teaching.
V week lectures	Integral and differential methods of determining the order of the reaction.
V week exercises	Calculation examples accompanying the theoretical teaching.
VI week lectures	Physico-chemical methods in studying the kinetics of chemical reactions.
VI week exercises	Calculation examples accompanying the theoretical teaching.
VII week lectures	The rate of complex reactions. Comparison of the rate laws of elementary and complex reactions
VII week exercises	Calculation examples accompanying the theoretical teaching.
VIII week lectures	Reversible reactions.
VIII week exercises	Calculation examples accompanying the theoretical teaching.
IX week lectures	Consecutive reactions
IX week exercises	Calculation examples accompanying the theoretical teaching.
X week lectures	Chain reactions
X week exercises	Calculation examples accompanying the theoretical teaching.
XI week lectures	Parallel reactions.
XI week exercises	Calculation examples accompanying the theoretical teaching.
XII week lectures	The influence of temperature on the rate of chemical reactions (activation energy of complex chemical reactions, dependence of activation energy on temperature)
XII week exercises	Calculation examples accompanying the theoretical teaching.
XIII week lectures	Reactions in solutions (kinetics of charged and uncharged reaction participants and the influence of physico-chemical properties of solvents on reaction kinetics).
XIII week exercises	Calculation examples accompanying the theoretical teaching.
XIV week lectures	The rate constant and pre-exponential factor in the collision theory of bimolecular reactions.
XIV week exercises	Test
XV week lectures	Classification of basic types of catalytic reactions. Catalytic reactions on surfaces. Heterogeneous catalysis.
XV week exercises	Seminar paper.

Student workload	Weekly: 8 credits x 40/30 = 10 hours and 40 minutes In the semester: (10 hours and 40 minutes) x 16= 170 hours and 40 minutes
Per week	Per semester
8 credits x 40/30=10 hours and 40 minuts 3 sat(a) theoretical classes 0 sat(a) practical classes 2 excercises 5 hour(s) i 40 minuts of independent work, including consultations	Classes and final exam: 10 hour(s) i 40 minuts x 16 =170 hour(s) i 40 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 10 hour(s) i 40 minuts x 2 =21 hour(s) i 20 minuts Total workload for the subject: 8 x 30=240 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 48 hour(s) i 0 minuts Workload structure: 170 hour(s) i 40 minuts (cources), 21 hour(s) i 20 minuts (preparation), 48 hour(s) i 0 minuts (additional work)
Student obligations	Students are required to attend classes, do test and defend a seminar work
Consultations	Consultations are scheduled in agreement with the students.
Literature	1.J.I.Steinfeld, J.S.Francisko, W.L.Hase, Chemical Kinetics and Dynamics, New Jersey 1989.
Examination methods	- Activity during lectures: (0 - 10 points), - Test: (0 - 30 points), - Seminar paper: (0 - 10 points), - Final exam: (0 - 50 points).
Special remarks	-
Comment	-

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points

Faculty of Metalurgy and Technology / / MODELIRANJE PROCESA U EKSTRAKTIVNOJ METAL. ČELIKA

Course:

MODELIRANJE PROCESA U EKSTRAKTIVNOJ METAL. ČELIKA/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10802	Izborni	1	7	3+1+1

Programs
Prerequisites
Aims
Learning outcomes
Lecturer / Teaching assistant
Methodology

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures
I week exercises
II week lectures
II week exercises
III week lectures
III week exercises
IV week lectures
IV week exercises
V week lectures
V week exercises
VI week lectures
VI week exercises
VII week lectures
VII week exercises
VIII week lectures
VIII week exercises
IX week lectures
IX week exercises
X week lectures
X week exercises
XI week lectures
XI week exercises
XII week lectures
XII week exercises
XIII week lectures
XIII week exercises
XIV week lectures
XIV week exercises
XV week lectures
XV week exercises

Student workload
Per week	Per semester
7 credits x 40/30=9 hours and 20 minuts 3 sat(a) theoretical classes 1 sat(a) practical classes 1 excercises 4 hour(s) i 20 minuts of independent work, including consultations	Classes and final exam: 9 hour(s) i 20 minuts x 16 =149 hour(s) i 20 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 9 hour(s) i 20 minuts x 2 =18 hour(s) i 40 minuts Total workload for the subject: 7 x 30=210 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 42 hour(s) i 0 minuts Workload structure: 149 hour(s) i 20 minuts (cources), 18 hour(s) i 40 minuts (preparation), 42 hour(s) i 0 minuts (additional work)
Student obligations
Consultations
Literature
Examination methods
Special remarks
Comment

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points

Faculty of Metalurgy and Technology / / FAZNE TRANSFORMACIJE (ODABRANA POGLAVLJA)

Course:

FAZNE TRANSFORMACIJE (ODABRANA POGLAVLJA)/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10803	Izborni	2	7	3+1+1

Programs
Prerequisites	No prerequisites
Aims	Studying the fundamental phenomena to understand the correlation among thermodynamics, kinetics, mass transfer, mechanical properties and the creation of microstructure.
Learning outcomes	After successful completion of this course, students will be able to: - Analyze the problem of microstructural stability; - Apply the Johnson-Mehl-Avrami equation to describe the kinetics of phase transformations; - Explain rapid solidification; explain precipitation from a supersaturated solid solution and the growth of a precipitate; analyze the bainite transformation; - Analyze diffusionless transformations; identify thermoelastic and pseudoelastic effects of martensitic transformations; - Solve complex problems that arise in practice in metallurgy, materials and chemical technology.
Lecturer / Teaching assistant	prof. dr Vanja Asanović
Methodology	Lectures, exercises. Essays, consultation.

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures	The problem of microstructure stability. Homogeneous and heterogeneous phase transformations.
I week exercises	Quantitative microscopy.
II week lectures	Driving force for microstructural changes. Mechanisms of microstructure change. Johnson-Mehl-Avrami equation.
II week exercises	Quantitative microscopy.
III week lectures	Structural instability due to free energy. Instability due to the non-uniform arrangement of dissolved atoms.
III week exercises	Diffusion equations. Consideration of essay topics.
IV week lectures	Precipitation from supersaturated solid solution. Growth of a precipitate from a supersaturated solid solution. Decomposition of secondary phases.
IV week exercises	Kinetics of growth of secondary phases along grain boundaries. Growth kinetics of the Widmanstätten structure.
V week lectures	Metastable alloys. Rapid solidification. Cooling rate and subcooling.
V week exercises	Case studies.
VI week lectures	Metastable phase diagrams.
VI week exercises	Midterm exam 1.
VII week lectures	Metastable and quasi-crystalline phases.
VII week exercises	Segregation.
VIII week lectures	Amorphous alloys. Crystallization.
VIII week exercises	Make-up midterm exam 1.
IX week lectures	Structural instability due to deformation.
IX week exercises	Case studies.
X week lectures	Microstructural instability due to boundary surfaces.
X week exercises	Case studies.
XI week lectures	Selected examples of microstructural instability causes.
XI week exercises	Midterm exam 2.
XII week lectures	Bainite transformation.
XII week exercises	Case studies.
XIII week lectures	Classification of diffusionless transformations. Martensitic transformation.
XIII week exercises	Make-up midterm exam 2.
XIV week lectures	Thermoelastic and pseudoelastic effects of martensitic transformations.
XIV week exercises	Presentation of the first essay.
XV week lectures	Preparation for the final exam.
XV week exercises	Presentation of the second essay.

Student workload	Per week: 7 credits x 40/30 hours = 9 hours and 20 minutes. Total workload for the course: 7 x 30 = 210 hours.
Per week	Per semester
7 credits x 40/30=9 hours and 20 minuts 3 sat(a) theoretical classes 1 sat(a) practical classes 1 excercises 4 hour(s) i 20 minuts of independent work, including consultations	Classes and final exam: 9 hour(s) i 20 minuts x 16 =149 hour(s) i 20 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 9 hour(s) i 20 minuts x 2 =18 hour(s) i 40 minuts Total workload for the subject: 7 x 30=210 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 42 hour(s) i 0 minuts Workload structure: 149 hour(s) i 20 minuts (cources), 18 hour(s) i 40 minuts (preparation), 42 hour(s) i 0 minuts (additional work)
Student obligations	Students are required to attend classes, submit essays and take the midterm exams.
Consultations	Tuesday and Thursday, 09:00 - 11:00.
Literature	J.W.Martin, R.D.Doherty, B. Cantor, Stability of Microstructure in Metallic Systems, Cambr. Univer. Press, 1997. J.W.Christian, The Theory of Transformations in Metals and Alloys, Elsevier Science Ltd., Oxford, 2002. K.A Jackson, Kinetic Processes: Crystal Growth, Diffusion and Phase Transf. in Materils, Wiley-VCH Ver. GmbH & Co. KGaA., 2004. H.U.Aaronson, Lectures on the Theory of Phase Transformations, Mineral, Metals and Mat. Soc., 2000.
Examination methods	Two essays (10 points each, total of 10 points); two midterm exams (15 points each, total of 30 points); Final exam (50 points); Passing grade is obtained if at least 50 points are collected.
Special remarks	-
Comment	-

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points

Faculty of Metalurgy and Technology / / MEHANIZMI OJAČAVANJA I DIZAJN MATERIJALA

Course:

MEHANIZMI OJAČAVANJA I DIZAJN MATERIJALA/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10804	Izborni	1	7	3+1+1

Programs
Prerequisites	No prerequisites
Aims	Study of structural changes to understand the relationship between thermomechanical processing, structure and mechanical properties of materials.
Learning outcomes	After successful completion of this course, students will be able to: - Explain microstructure changes due to the application of different thermomechanical processing procedures; - Analyze material properties after performing the various thermomechanical processing procedures; - Apply different techniques of material strengthening; - In practice, apply advanced knowledge about fracture, fatigue and creep of materials in the area of material design; - In the context of interaction between materials and the environment, analyze the impact of materials on the environment and the impact of the environment on the properties of materials to prevent material degradation and environmental pollution.
Lecturer / Teaching assistant	prof. dr Nada Jauković i prof. dr Vanja Asanović
Methodology	Lectures, exercises. Essays, consultation.

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures	Dislocation theory. The force on a dislocation.
I week exercises	Dislocations in metal crystals.
II week lectures	Dislocations and plastic deformation.
II week exercises	Slip systems in different crystal forms.
III week lectures	Dislocation density and the stress. Dislocation velocity. Strengthening mechanisms. Dislocation mechanism of deformation strengthening.
III week exercises	Consideration of essay topics.
IV week lectures	Grain boundary strengthening. Solid solution strengthening.
IV week exercises	Case studies.
V week lectures	Precipitation and dispersion strengthening.
V week exercises	Case studies.
VI week lectures	Deformation and strengthening of two-phase alloys. Fiber reinforcement. Strengthening by crystal imperfections.
VI week exercises	Midterm exam 1.
VII week lectures	Thermally activated plastic deformation. Superplasticity.
VII week exercises	Case studies.
VIII week lectures	Material fatigue.
VIII week exercises	Make-up midterm exam 1.
IX week lectures	Mechanical properties of intermetallic compounds.
IX week exercises	Case studies.
X week lectures	Materials fracture.
X week exercises	Case studies.
XI week lectures	Design and cost analysis. Selection of materials for different purposes.
XI week exercises	Midterm exam 2.
XII week lectures	Fracture analysis: causes and prevention.
XII week exercises	Case studies.
XIII week lectures	Interaction materials - environment. Corrosion. Solid-gas reactions. Friction and wear. Damage caused by radiation.
XIII week exercises	Make-up midterm exam 2.
XIV week lectures	New materials – potential for innovation.
XIV week exercises	Presentation of the first essay.
XV week lectures	Preparation for final exam.
XV week exercises	Presentation of the second essay.

Student workload	Per week: 8 credits x 40/30 hours = 10 hours and 40 minutes. Total workload for the course: 8 x 30 = 240 hours.
Per week	Per semester
7 credits x 40/30=9 hours and 20 minuts 3 sat(a) theoretical classes 1 sat(a) practical classes 1 excercises 4 hour(s) i 20 minuts of independent work, including consultations	Classes and final exam: 9 hour(s) i 20 minuts x 16 =149 hour(s) i 20 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 9 hour(s) i 20 minuts x 2 =18 hour(s) i 40 minuts Total workload for the subject: 7 x 30=210 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 42 hour(s) i 0 minuts Workload structure: 149 hour(s) i 20 minuts (cources), 18 hour(s) i 40 minuts (preparation), 42 hour(s) i 0 minuts (additional work)
Student obligations	Students are required to attend classes, submit essays and take the midterm exams.
Consultations	Tuesday and Thursday, 09:00 - 11:00.
Literature	J. M. Prausnitz, R. N. Lichtenthaler, E. G. de Azevedo, Molecular Thermodynamics of Fluid-Phase Equilibria, 3rd ed., Prentice Hall, New Jersey, 1998. B.E. Poling, J.M. Prausnitz, J.P. OConnell, The Properties of Gases and Liquids, 5th ed., McGraw-Hill, New York, 2001. R. A. Swalin, Thermodynamics of Solids, ed. J. E. Burke, B. Chalmers, J. A. Krumhansl, Wiley-Interscience, John Wiley and Sons, New York, 1972.
Examination methods	Two essays (10 points per each, a total of 20 points); two midterm exams (15 points each, a total of 30 points); Final exam (50 points); a Passing grade is obtained if at least 50 points are collected.
Special remarks	-
Comment	-

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points

Faculty of Metalurgy and Technology / / FENOMENI SINTEROVANJA

Course:

FENOMENI SINTEROVANJA/

Course ID	Course status	Semester	ECTS credits	Lessons (Lessons+Exercises+Laboratory)
10805	Izborni	1	7	3+1+1

Programs
Prerequisites	No mutual dependency
Aims	The objectives are focused on training the students to deeply understand mechanism of sintering and to apply them in accordance with treated material and its performances
Learning outcomes	After the completion of this course, student should: 1. Fully understand sintering phenomena 2. Be capable to prove a certain sintering mechanism based on structure of the sample 3.Deeply understand different types of sintering and processes of material transport 4.Understand and apply sintering regimes on different samples: light, heavy, refractory metals as well as Fe alloys
Lecturer / Teaching assistant	Prof. dr Mira Vukčević
Methodology	Lectures, exercises, debates, assay, final exam

Plan and program of work
Preparing week	Preparation and registration of the semester
I week lectures	General characteristics of metal sintering process
I week exercises	Crystal lattice defects, vacancies, dislocations
II week lectures	Characteristics of real lattice, processes of position change
II week exercises	Characteristics of real lattice, discussion with prepared data and photographs
III week lectures	Sintering in the presence of solid phase
III week exercises	Forming and growth of the contacts, densification processes
IV week lectures	Contacts densification velocity, grain borders, sintering of two or more phases in solid state
IV week exercises	Examples from different experiments
V week lectures	The basic elements of the sintering in the presence of liquid phase, analysis of the experimental microstructure, examples
V week exercises	Sintering in the presence of liquid phase
VI week lectures	Sintering in the presence of liquid phase: processes in early stage of sintering, processes in the interim sintering stage, final stage of sintering
VI week exercises	1st. Colloquium
VII week lectures	Special cases of the sintering in the presence of liquid phase
VII week exercises	Examples for supersolidus sintering, infiltration, reaction sintering
VIII week lectures	Strengthened sintered material-copper based
VIII week exercises	Dispersed strengthened Cu Alloys
IX week lectures	Light-metals-based sintered materials
IX week exercises	Sintered ultra light Al Alloys, Strength sintered Al alloys, refractory sintered Al alloys
X week lectures	Sintered refractory metals
X week exercises	Refractory and heavy metals
XI week lectures	The use of different hardener, SiC, intermetallides
XI week exercises	Examples
XII week lectures	Presentation of assays
XII week exercises
XIII week lectures	Sintering of ceramics
XIII week exercises	Examples on sintering of ceramics
XIV week lectures	2nd Colloquium
XIV week exercises	Corrective 2nd Colloquium
XV week lectures
XV week exercises

Student workload
Per week	Per semester
7 credits x 40/30=9 hours and 20 minuts 3 sat(a) theoretical classes 1 sat(a) practical classes 1 excercises 4 hour(s) i 20 minuts of independent work, including consultations	Classes and final exam: 9 hour(s) i 20 minuts x 16 =149 hour(s) i 20 minuts Necessary preparation before the beginning of the semester (administration, registration, certification): 9 hour(s) i 20 minuts x 2 =18 hour(s) i 40 minuts Total workload for the subject: 7 x 30=210 hour(s) Additional work for exam preparation in the preparing exam period, including taking the remedial exam from 0 to 30 hours (remaining time from the first two items to the total load for the item) 42 hour(s) i 0 minuts Workload structure: 149 hour(s) i 20 minuts (cources), 18 hour(s) i 40 minuts (preparation), 42 hour(s) i 0 minuts (additional work)
Student obligations	Presence during the lectures, Completion of exercises. Colloquia, assays, final written exam
Consultations	Tuesdays and Thursdays from 12a.m
Literature	1.M.Mitkov, D.Božić, Z.Vujović, Metalurgija praha ( 1998) 2. R.German G.Messing, R.Cornwall, Sintering technology ( edited) (2013) 3. Z.Z.F, Sintering of advanced materials ( 2021) 4.S-Joong, l.kang, Sintering: Densification, Grain Growth, Microstructure ( 2022)
Examination methods	Colloquia, assays, final exam
Special remarks	-
Comment	-

Grade:	F	E	D	C	B	A
Number of points	less than 50 points	greater than or equal to 50 points and less than 60 points	greater than or equal to 60 points and less than 70 points	greater than or equal to 70 points and less than 80 points	greater than or equal to 80 points and less than 90 points	greater than or equal to 90 points