Fundamentals of process engineering WF-OB-PIP
The subject of Process Engineering comprises 30 hours and will be taught in the form of fifteen two-hour conventional lectures with elements of a conversation lecture. The first lectures will cover the basic laws of statics and dynamics of liquids and gases and will discuss the division of liquids. Subsequent lectures will cover basic physicochemical phenomena and their mechanisms (movement of bodies in fluids, heat transfer, mass transfer) and their use in key unit processes such as mixing, distillation, drying, crystallisation or absorption. The principles of these processes, key parameters and relationships between them will be discussed. Groups of equipment used to carry out these processes will be presented, as well as the construction and operating principles of selected apparatus. The final lectures will focus on the basic structural materials used in process engineering. A division of materials will be presented, followed by a discussion of individual material groups with a discussion of their properties and the properties of selected representatives of these groups, as well as their applications. Successful completion of the course will be determined by a positive assessment of the final colloquium, verifying the knowledge acquired by the students during the lectures.
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Term 2021/22_Z:
None |
Term 2022/23_Z:
None |
Term 2023/24_Z:
The subject Fundamentals of Process Engineering comprises 30 hours and will be taught in the form of fifteen two-hour conventional lectures with elements of a conversation lecture. The first lectures will cover the basic laws of statics and dynamics of liquids and gases and will discuss the division of liquids. Subsequent lectures will cover basic physicochemical phenomena and their mechanisms (movement of bodies in fluids, heat transfer, mass transfer) and their use in key unit processes such as mixing, distillation, drying, crystallisation or absorption. The principles of these processes, key parameters and relationships between them will be discussed. Groups of equipment used to carry out these processes will be presented, as well as the construction and operating principles of selected apparatus. The final lectures will focus on the basic structural materials used in process engineering. A division of materials will be presented, followed by a discussion of individual material groups with a discussion of their properties and the properties of selected representatives of these groups, as well as their applications. Successful completion of the course will be determined by a positive assessment of the final colloquium, verifying the knowledge acquired by the students during the lectures. |
Term 2024/25_Z:
The subject Fundamentals of Process Engineering comprises 30 hours and will be taught in the form of fifteen two-hour conventional lectures with elements of a conversation lecture. The first lectures will cover the basic laws of statics and dynamics of liquids and gases and will discuss the division of liquids. Subsequent lectures will cover basic physicochemical phenomena and their mechanisms (movement of bodies in fluids, heat transfer, mass transfer) and their use in key unit processes such as mixing, distillation, drying, crystallisation or absorption. The principles of these processes, key parameters and relationships between them will be discussed. Groups of equipment used to carry out these processes will be presented, as well as the construction and operating principles of selected apparatus. The final lectures will focus on the basic structural materials used in process engineering. A division of materials will be presented, followed by a discussion of individual material groups with a discussion of their properties and the properties of selected representatives of these groups, as well as their applications. Successful completion of the course will be determined by a positive assessment of the final colloquium, verifying the knowledge acquired by the students during the lectures. |
(in Polish) E-Learning
(in Polish) Grupa przedmiotów ogólnouczenianych
Subject level
Learning outcome code/codes
Type of subject
Preliminary Requirements
Course coordinators
Learning outcomes
KNOWLEDGE:
The student knows the basic physico-chemical laws of fluids. Knows the basic unit processes used in process engineering, what they consist of and their application. Demonstrates knowledge of basic concepts and terminology in the area of unit processes Knows the main engineering materials, their basic characteristics and general principles of their selection.
SKILLS:
The student is able to make a selection of unit processes. Is able to make a selection of the basic equipment for the main processes, which are components of the plant, in order to carry out a specific unit process. He/she is able to identify the key process parameters.
COMPETENCES:.
The student is prepared to substantively discuss general principles of plant design and operation in environmental protection
Assessment methods and criteria
The course grade consists primarily of the grade from the final credit colloquium. The final assessment will also take into account the student's participation in the discussions and attendance during the class.
ECTS Description
1 ECTS =. 25-30 hours
participation in lectures: 30 hrs.
preparation for the credit colloquium: 30 hrs.
consultations: 5 hours
preparation for lectures: 15 hours
total hours: 80 [80/30(25)=3]
Assessment criteria
The course grade will consist primarily of the grade from the final assessment colloquium. The final mark will also take into account the student's participation in the talks and attendance during the class.
Bibliography
1. Molenda J.: Technologia chemiczna. WSiP, Warszawa 1997.
2. Zarzycki R., Imbierowicz M., Stelmachowski M.: Wprowadzenie do inżynierii i ochrony środowiska. 1. Ochrona środowiska naturalnego. WNT Warszawa 2007.
3. Zarzycki R., Imbierowicz M., Stelmachowski M.: Wprowadzenie do inżynierii i ochrony środowiska. 2. Fizykochemiczne podstawy inżynierii środowiska. WNT Warszawa 2007.
4. Warych J.: Aparatura chemiczna i procesowa. Oficyna Wydawnicza Politechniki Warszawskiej, Warszawa 1996.
5. Ciborowski J.: Inżynieria procesowa. WNT, Warszawa 1973.
Gradoń L., Selecki A.: Podstawowe procesy przemysłu chemicznego. WNT Warszawa 1985.
6. Troniewski L., Czernek K.: Przenoszenie pędu, ciepła i masy. Część 2. Notatki autoryzowane. Politechnika Opolska, 2006.
7. Dobrzański L.: Podstawy nauki o materiałach i metaloznawstwo.
8. Materiały inżynierskie z podstawami projektowania materiałowego. WNT, Warszawa 2002.
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Term 2021/22_Z:
None |
Term 2022/23_Z:
None |
Term 2023/24_Z:
Primary literature - items: 1, 2, 3, 4, 8. 1. Molenda J.: Technologia chemiczna. WSiP, Warszawa 1997. |
Term 2024/25_Z:
Primary literature - items: 1, 2, 3, 4, 8. 1. Molenda J.: Technologia chemiczna. WSiP, Warszawa 1997. |
Notes
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Term 2021/22_Z:
None |
Term 2022/23_Z:
None |
Term 2023/24_Z:
Knowledge of the basic laws of physics in the area of fluids. Knowledge of basic chemistry. |
Term 2024/25_Z:
Knowledge of the basic laws of physics in the area of fluids. Knowledge of basic chemistry. |
Additional information
Information on level of this course, year of study and semester when the course unit is delivered, types and amount of class hours - can be found in course structure diagrams of apropriate study programmes. This course is related to the following study programmes:
Additional information (registration calendar, class conductors, localization and schedules of classes), might be available in the USOSweb system: