
Basic information
- Study programme
- Industrial Process Engineering
- Speciality/path
- -
- Organizational unit
- Faculty of Process and Environmental Engineering
- Study level
- first-cycle programme (inżynier)
- Study mode
- full-time studies
- Education profile
- general academic
- Didactic cycle
- 2026/27
- Course code
- Language of instruction
- English
- Obligatory
- Optional
- Block
- Directional subjects
- Course related to scientific research
- Yes
|
Period
Semester 7
|
Form of verification
Graded assignment
Classes and hours
|
Total ECTS points
3
|
Prerequisites
.
Learning outcomes
| Code | Programme outcomes | Detailed outcomes indicators |
| 1IPP2 | Has knowledge of key chemical and process engineering processes, including: (1) momentum, heat and mass exchange mechanisms and their application in unit operations and process apparatus; (2) principles of mass, energy and momentum balancing in process engineering processes; (3) product separation, separation and purification processes; (4) fundamentals of chemical and biochemical reaction engineering. |
1IPP2.1 Explain the mechanisms of momentum, heat and mass exchange and describe their role in basic unit operations and process apparatus. |
| 1IPP4 | Applies analytical and critical thinking to identify, formulate, and solve complex and atypical engineering problems related to industrial processes and process installations, selecting appropriate computational, technological, and organisational methods. |
1IPP4.3 Analyses and compares alternative process options, identifying their benefits, limitations and impact on plant operation. |
| 1IPP7 | Presents various technical concepts, design proposals, and results of analyses and studies in a clear and structured manner, preparing technical reports and presentations adapted to diverse audiences — including engineering teams, stakeholders, and non-technical recipients, participating in a debate — and communicates in a foreign language at the B2 level, using basic engineering terminology. |
1IPP7.5 Independently develops a coherent and structured presentation or project or research report - also in a foreign language at B2 level - integrating data, analytical results and conclusions in a way that is understandable to technical and non-technical audiences. |
Course contents
Fundamentals of instrumental quality control methods applied to the analysis of raw materials, intermediates, and finished products. The course introduces the selection and interpretation of analytical techniques used for monitoring and improving industrial processes.
Complementary information
| No. | Contents - detailed selection | Class type |
|---|---|---|
| 1. |
Role of instrumental methods in quality control (QC); Quality control vs quality assurance – objectives and scope; Quality attributes and quality indicators in industrial products; Physical basis of instrumental measurements in QC; Transport phenomena (momentum, mass transfer) as the basis of selected instrumental methods; Principles and applicability of instrumental methods used in QC: spectrophotometric methods, chromatographic methods, optical methods, and rheological methods; Instrumental assessment of structure‑related quality attributes; Physical stability of products and dispersed systems – mechanisms and indicators; Accelerated aging tests and shelf‑life assessment; In‑line, at‑line and off‑line measurements in quality monitoring; Interpretation of instrumental data for quality control purposes: variability and repeatability, trends and degradation patterns, and acceptance criteria and quality limits; Limitations of instrumental methods and sources of uncertainty in QC measurements |
Lecture |
| 2. |
Laboratory classes focus on the practical application of instrumental methods used in quality control of industrial products. Students perform selected measurements using instrumental techniques commonly applied to assess quality‑related attributes such as flow behaviour, structure, texture and physical stability. During laboratory exercises, students identify key quality attributes of the analysed systems, select appropriate measurement methods, and evaluate the relevance of the obtained data for quality control purposes. Emphasis is placed on the interpretation of experimental results, comparison of samples or variants, and assessment of method suitability and limitations in the context of quality monitoring. Laboratory work develops students’ ability to analyse instrumental data, recognise sources of variability and uncertainty, and formulate conclusions supporting quality‑related decisions. |
Laboratory classes |
| 3. |
The seminar complements the lecture and laboratory classes by focusing on the critical analysis of instrumental methods applied in quality control. Students prepare and deliver presentations based on selected scientific publications or case studies related to quality assessment in the food, pharmaceutical or cosmetic industries. Seminar activities emphasise the interpretation of instrumental results, comparison of alternative analytical approaches, and discussion of the advantages and limitations of different methods from a quality control perspective. Particular attention is paid to the clear and structured presentation of data, results and conclusions, including communication in English at the B2 level. The seminar fosters critical thinking, technical discussion and the ability to communicate quality‑related findings to both technical and non‑technical audiences. |
Seminar |
| Class type | Teaching methods and techniques | Passing conditions |
|---|---|---|
| Lecture | Flipped classroom |
To pass the lecture component, the student is required to:
|
| Seminar | Tutoring, Inquiry based learning |
To pass the seminar component, the student is required to:
Peer assessment consists of evaluating the quality of presented material with respect to:
The seminar grade is based on the multimedia presentation, peer assessment (quality of feedback and engagement) and teacher continuous assessment. |
| Laboratory classes | Tutoring, Laboratory/computer-based exercises |
To pass the laboratory component, the student is required to:
The laboratory component is passed based on laboratory reports and teacher continuous assessment, including evaluation of student engagement, data interpretation skills and quality of conclusions. |
| Class type | Examination methods and weighed grades |
|---|---|
| Lecture |
Short test/Quiz:
20% Teacher continuous assessment: 5% |
| Seminar |
Multimedia presentation:
15% Peer-assessment: 10% Teacher continuous assessment: 10% |
| Laboratory classes |
Teacher continuous assessment:
20% Lab report(s): 20% |
| Detailed outcome indicators | Verification criteria | Assesment tool (class type) |
|---|---|---|
| 1IPP2.1 |
The learning outcome is considered achieved if the student:
|
Teacher continuous assessment (Lecture, Seminar, Laboratory classes), Short test/Quiz (Lecture) |
| 1IPP4.3 |
The learning outcome is considered achieved if the student:
|
Multimedia presentation (Seminar), Teacher continuous assessment (Lecture, Seminar, Laboratory classes), Lab report(s) (Laboratory classes), Peer-assessment (Seminar) |
| 1IPP7.5 |
The learning outcome is considered achieved if the student:
|
Multimedia presentation (Seminar), Teacher continuous assessment (Lecture, Seminar, Laboratory classes), Lab report(s) (Laboratory classes), Peer-assessment (Seminar) |
Literature
Compulsory reading- Petrozzi, S. (2012). Practical Instrumental Analysis: Methods, Quality Assurance, and Labora-tory Management. John Wiley & Sons.
- Kilcast, D. (Ed.). (2013). Instrumental assessment of food sensory quality: A practical guide. Elsevier
- Carrillo-Cedillo, E. G., Arredondo-Soto, K. C., Palomino-Vizcaino, K., & Magana-Badilla, H. A. (Eds.). (2022). Quality Control Applications in the Pharmaceutical and Medical Device Manufacturing Industry. IGI Global.
- Selvamuthu, D., & Das, D. (2018). Introduction to statistical methods, design of experiments and statistical quality control (Vol. 445). Singapore: Springer Singapore.
Research and publications
.
Student workload
| Activity type | Average number of hours* needed to complete an activity | |
| Lecture | 15 | |
| Seminar | 10 | |
| Laboratory classes | 20 | |
| Preparation for the laboratory | 10 | |
| Preparation of a multimedia presentation | 10 | |
| Literature analysis | 15 | |
| Total student workload |
No. of hours
80
|
|
| Workload involving teacher |
No. of hours
45
|
|
| Total ECTS points |
ECTS
3
|
|
* activity hour equals to 45 minutes