(in Polish) Procesy technologiczne w produkcji i pozyskiwaniu energii 0600-S1-OZE-PT

Lecture: Physicochemical fundamentals of technological processes. Chemical reaction kinetics, catalysis, and catalysts. Technological principles. Characteristics of products, intermediates, and raw materials. Methods of raw material extraction and processing. Material and energy balances. Process and energy flow schemes. Production processes. Analytical process control. Preparation of process water for the energy sector.

Laboratory: Analysis of the chemical composition of surface water and groundwater. Ion-exchange water treatment process. Precipitation-based water softening process. Heat balance of unit processes. Material balance of unit processes. Analysis of process efficiency, material balance, and product quality in a technological process. Technological characterization of a catalytic process. Material and energy balance of an electrochemical process. Production and analysis of biofuels.

Total student workload

1. 15 hours – Lectures, 60 hours – Laboratory classes, 25 hours – Consultations (total: 100 hours) 2. 50 hours – Individual student work 3. 50 hours – Time required for preparation within the assessment process Total student workload: 200 hours 200 hours ÷ 25 hours/ECTS = 8 ECTS credits

Learning outcomes - knowledge

W1. Possesses knowledge of legal frameworks, technological terminology, and research methods applied in modern technologies, and understands the importance of experiments and computer simulations in technological processes. – K_W01, K_W15 W2. Understands the relationships between a product and the technological process leading to its production, including aspects of product quality control and waste management. Possesses the knowledge necessary to establish and develop business activities related to energy production and the processing of by-products. – K_W03, K_W04, K_W09 W3. Has knowledge of organizational forms of production and technological principles enabling the optimal design of technological systems. – K_W15

Learning outcomes - skills

U1. Is able to work with national and international standards for determining the physical and chemical properties of substances and to solve basic problems related to technological processes. – K_U01 U2. Applies knowledge to assess the feasibility of implementing a technological process, including the selection of raw materials, production control, waste management, and the calculation of material and energy balances. – K_U05, K_U06 U3. Is able to use a selected group of analytical methods; can critically evaluate analytical results and discuss measurement errors. – K_U07 U4. Has the ability to create and interpret process flow diagrams, material and energy balances, and Sankey diagrams. – K_U08

Learning outcomes - social competencies

K1. Is able to cooperate and work in a team while carrying out tasks, assuming various roles within the group, and to plan both individual and team work. – K_K01 K2. Strives to acquire new knowledge and recognizes the need for continuous professional development. – K_K04 K3. Is familiar with the legal and environmental aspects related to the acquisition of raw materials and semi-finished products as well as energy production; is aware of the role of industry and the energy sector in meeting the needs of modern society. – K_K07, K_K08

Course coordinators

Sebastian Drużyński

Teaching methods

Conventional lecture supported by multimedia presentations. Laboratory classes – independent performance of experiments and analyses during sessions simulating selected technological processes and unit operations.

Expository teaching methods

- informative (conventional) lecture

Exploratory teaching methods

- practical
- experimental
- laboratory

Type of course

compulsory course

Assessment criteria

Assessment criteria:
Lecture: Examination – W1, W2, W3, K2, K3
Laboratory: Graded course completion based on continuous assessment during classes (attendance, engagement, diligence, preparation for classes) and evaluation of individually prepared reports – U1, U2, U3, U4, K1, K2, K3
Grading thresholds in accordance with the Nicolaus Copernicus University regulations:
Satisfactory: 50–60%
Satisfactory plus: 61–65%
Good: 66–75%
Good plus: 76–81%
Very good: 82–100%

Practical placement

Not applicable

Bibliography

Core literature:
1. E. Bortel, H. Koneczny, Zarys technologii chemicznej, PWN, Warszawa 1992.
2. T. Karpiński, Inżynieria produkcji, WNT, Warszawa 2013.
3. J. Szarawara, J. Piotrowski, Podstawy teoretyczne technologii chemicznej, WNT, Warszawa 2010.
4. J. Molenda, Technologia chemiczna, WSiP, Warszawa 2006.
5. J. Gawlik, i inni, Procesy produkcyjne, PWE, Warszawa 2013.
6. S. Ropuszański, Chemia i technologia podstawowej syntezy organicznej, PWN, Warszawa,1983.
7. R. Kellner i in., Analytical Chemistry, J. Wiley-VCH, Weinheim, 1998.
8. W. Hermanowicz, Fizyczno-chemiczne badanie wody i ścieków, Arkady, Warszawa, 1999.
9. A. Kowal i inni, Oczyszczanie wody. Podstawy teoretyczne i technologiczne, procesy, urządzenia, PWN, Warszawa 2013.
Supplementary literature:
1. R. E. Kirk-Othmer, Encyclopedia of Chemical Technology, John Wiley&Sons, New York 2007.
2. K. Szmidt-Szałowski i inni, Technologia chemiczna przemysł nieorganiczny, WN PWN, Warszawa 2013.
3. A. Diepen, J.A. Moulijn, M. Michiel, Chemical Process Technology, John Wiley & Sons, 2001.
4. L. Synoradzki, i inni, Projektowanie procesów technologicznych, OWPW, 2010.

Additional information

Additional information (registration calendar, class conductors, localization and schedules of classes), might be available in the USOSweb system:

Description of 0600-S1-OZE-PT in USOSweb