VŠTE:TEM Thermomechanics - Course Information

TEM pohony

Extent and Intensity

2/2/0. 4 credit(s). Type of Completion: zk (examination).

Teacher(s)

Ing. Jan Kolínský, Ph.D. (seminar tutor)
Ing. Jan Kouba (seminar tutor)

Guaranteed by

Ing. Jan Kolínský, Ph.D.
The Department of Mechanical Engineering – Faculty of Technology – Rector – Institute of Technology and Business in České Budějovice
Supplier department: The Department of Mechanical Engineering – Faculty of Technology – Rector – Institute of Technology and Business in České Budějovice

Timetable of Seminar Groups

TEM/P01: Wed 11:25–12:55 B2, J. Kolínský
TEM/ST2: Sun 7. 4. 8:00–9:30 E7, 9:40–11:10 E7, 11:25–12:55 E7, 14:50–16:20 B5, 16:30–18:00 B5, Sun 19. 5. 13:05–14:35 E5, 14:50–16:20 E5, 16:30–18:00 E5, J. Kolínský
TEM/S01: Thu 16:30–18:00 B3, J. Kouba
TEM/S02: Thu 16:30–18:00 B3, J. Kouba

Course Enrolment Limitations

The course is offered to students of any study field.

Course objectives supported by learning outcomes

The filling of the subject builds on the subject of Physics and is the basis for many technical disciplines. Students will deepen their knowledge of Thermodynamics of gases, heat, and learn the basics of combustion. These findings are a sine qua non for the understanding of the nature of economic production, transformation and distribution of thermal energy. Allows you to correct management of technological processes and is essential for a number of normal thermal technical calculations.

Learning outcomes

Student is able to apply knowledge from the subject of thermodynamics in solving problems in heat cycles and heat transfer.

Syllabus

• 1. Basic concepts. Microscopic and macroscopic view. Thermodynamic system, state, action; the status exchanges. Reversible and irreversible state changes. The quantity of the substance. The internal energy. The state values, the heat, the work. Empirical temperature. The zero and the first law of thermodynamics
• 2. Calorie equation of State and thermal. The different models: an ideal gas, the gas temperature. Unideal gases, solids, liquids, and models. Radiation
• 3. Material quantity dependent on temperature, expansivity, degree of expansion, compressibility. Heat and temperature parameters. Calorimetrs
• 4. A simple system. Isotermal, izobaric, izochoric, adiabatic and polytropic process, p-V diagram
• 5. Thermodynamic machines: engine, refrigerator, heat pump. Second law of thermodynamics, Thomson’s and Carnot’s formulations, the relationships between them. The Wording Of Carathéodory’s
• 6. Carnot cycle, the efficiency of heat engines, entropy, thermodynamic temperature. The third law of thermodynamic.
• 7. The thermodynamic potentials: internal vacancies and the Gibbs energy, enthalpy. Their properties and applicability for a particular job
• 8. Real gases, the properties of liquids and vapours, tables, and charts properties
• 9. Phase vs. folder. Phase transitions, phase diagram. Claus and Claus-Clapeyron’s equation. The mixture of gas and filling of steam; -thermodynamic properties of moist air, Mollie’s diagram, h-s diagram processes with damp air
• 10. Heat conduction (conductor): Fourier's law; heat conduction compound wall; leadership with internal heat source
• 11. The flow of heat (convection) forced and natural (free), principles of dynamic similarity
• 12. Radiation (radiation): black body radiation law, the application in practice
• 13. Heat exchangers. Introduction to the modelling of thermal phenomena industrial practice
• 14. Fuel and combustion, combustion statics

Literature

• NOŽIČKA, J., ADAMEC, J., VARADIOVÁ, B. Termomechanika – sbírka příkladů. 1. vyd. Praha : ČVUT, Strojní fakulta, 1999. 140 s. ISBN 80-01-02050-9.
• OBDRŽÁLEK J.: Fyzikální veličiny a jednotky SI, 2. díl. Úvaly : Albra, 2006
• OBDRŽÁLEK J. VANĚK A.: Řešené příklady z termodynamiky a molekulové fyziky. Praha : ÚJEP, 1998.
• SAZIMA, M. a kol. Teplo. 1.vyd. Praha : SNTL, 1989. 588 s. ISBN 80-03-00043-2
• NOŽIČKA J. Mechanika a termodynamika pro ekonomiku. Praha : ČVUT, 1990. ISBN 80-01-00417-1
• 1. Moran, M.J.; Shapiro, H.N. Fundamental of Engineering Thermodynamics. 2.vyd. New York : John Wiey & Sons, Inc., 1992. ISBN 0471076813.
• OBDRŽÁLEK J. VANĚK A. Termodynamika a molekulová fyzika. 2. vyd. Praha : ÚJEP, 2000. 240 s
• KALČÍK, J., SÝKORA, K. Technická termomechanika. 1.vyd. Praha : Academia, 1973. 536 s.

Forms of Teaching

Lecture
Seminar
Tutorial

Teaching Methods

Frontal Teaching
Group Teaching - Competition
Group Teaching - Cooperation
Group Teaching - Collaboration
Project Teaching
Brainstorming
Critical Thinking
Individual Work– Individual or Individualized Activity
Teaching Supported by Multimedia Technologies

Student Workload

Activities	Number of Hours of Study Workload
	Daily Study	Combined Study
Preparation for Lectures	13
Preparation for Seminars, Exercises, Tutorial	10	30
Preparation for the Final Test	19	38
Test 3 times in the course of the semester calculation of short example.	10	10
Attendance on Lectures	26
Attendance on Seminars/Exercises/Tutorial/Excursion	26	26
Total:	104	104

Assessment Methods and Assesment Rate

Exam – written 70 %
3 průběžné testy na cvičení + aktivita (in Czech) 30 %

Exam conditions

Celková klasifikace předmětu, tj. body za test (70 - 0) + body z~průběžného hodnocení (30 - 0): A 100 – 90, B 89,99 – 84, C 83,99 – 77, D 76,99 – 73, E 72,99 – 70, FX 69,99 – 30, F 29,99 - 0.

Language of instruction

Czech

Teacher's information

Attendance in lessons is defined in a separate internal standard of ITB (Evidence of attendance of students at ITB). It is compulsory, except of the lectures, for full-time students to attend 70 % lesson of the subjet in a semester.

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