Analytical Chemistry
1755-F2-CHFIZ-J
The main purpose of the subject "Physical chemistry" is to familiarize students with the basics of physical chemistry enabling understanding of the laws governing physicochemical processes occurring in nature and to master the terminology and mathematical apparatus describing these phenomena. During the theoretical and practical classes, students acquire the skills to apply acquired knowledge in solving various problems and interpreting observed physicochemical phenomena. Due to the fact that the subject "Physical chemistry" deals with the study of phenomena occurring in macroscopic and intermolecular systems, the theoretical foundations allow students to understand many of the biochemical transformations and processes occurring in living organisms, and thus the selection criteria when designing pharmacological and diagnostic molecules principles of their operation in living organisms. Laboratory exercises support the consolidation of messages transmitted during lectures and develop skills in the practical use of experimental and theoretical methods when solving problems in the field of physical chemistry. Students mastering the rules and laws in the field of physical chemistry and their links with the quantitative and qualitative approach acquire the basis for understanding the basics of chemical instrumental analysis and many laboratory-diagnostic methods.
As part of the content of education in the subject "Physical chemistry" the student gains knowledge of the objectives and tasks of physical chemistry. Acquires the ability to make physicochemical measurements and to develop statistical results obtained through direct and indirect measurements. In addition, he learns and uses auxiliary calculation methods. During the course, the student gains professional knowledge of the thermodynamics department, i.e. the first law of thermodynamics, thermochemistry, heat dependence on temperature (Kirchoff's law), the second law of thermodynamics, entropy changes in physico-chemical processes and the calculation of these changes, criteria for spontaneity of processes chemical, calculation of free enthalpy changes, relationships between thermodynamic functions, chemical affinity, chemical equilibria and the law of mass action; Le Chatelier-Brown perversity rules, calculation of standard affinity and equilibrium constant. In the solutions and phase equilibria department, the student learns: one-component systems (perfect gases, real gas, liquid solutions, solids), colloidal systems, surface phenomena, equilibria in multiphase systems, thermodynamics of phase equilibria, Gibbs phase rule, Clausius-Clapeyron equation. Presented contents from the chemical kinetics department allow the student to become familiar with: homogeneous reaction rate, simple reaction kinetics (zero, first, second order reactions), complex reaction kinetics (reversible, parallel, follow-up, chain reactions), kinetic theories, catalysis and enzymatic reactions. The last department implemented allows the student to acquire knowledge in the field of electrochemistry elements, namely: conductivity of aqueous electrolyte solutions, galvanic cells, oxidation-reduction potential, characteristics of half-cells, electrolysis, Faraday's law and corrosion phenomenon.
Total student workload
Student workload balance:
1. Obligatory hours carried out with the teacher's participation:
- participation in lectures: 30 hours
- participation in laboratories: 45 hours
- participation in seminars: 15 hours
- additional opportunity to consult with tutors: 2 hours
The workload related to activities requiring the direct participation of academic teachers is 107 hours, which corresponds to 4.28 ECTS points.
2. Student work balance:
- participation in lectures: 30 hours
- participation in laboratories: 45 hours
- participation in seminars: 15 hours
- consultation: 2 hours
- collection and selection of appropriate materials for classes: 10 hours
- preparation and completion of notes: 6 hours
- repetition of material required: 10 hours
- preparation of reports on exercises performed: 5 hours
- reading the indicated literature: 15 hours
- preparation to pass: 22 hours
The total student workload is 175 hours, which corresponds to 7 ECTS credits.
3. The workload related to conducting scientific research:
- participation in activities (including research methodology, research results, studies): 50 hours
- research and scientific consultations: 2 hours
- participation in lectures (including research methodology, research results, studies): 15 hours
- collection and selection of appropriate scientific materials: 6 hours
- reading of the indicated scientific literature: 10 hours
- preparation for classes covered by scientific activities: 8 hours
- preparation to pass in the field of research and development for the subject: 9 hours
The total student workload related to the conducted research is 100 hours, which corresponds to 4.00 ECTS points.
4. Time required to prepare and participate in the assessment process:
- preparation for classes: 10 hours (0.40 ECTS point)
- preparation for tests: 12 hours (0.48 ECTS point)
- preparation for the exam: 18 hours (0.72 ECTS point)
5. Time required to complete the compulsory practice: not applicable.
Learning outcomes - knowledge
W1: Knows of the thermodynamics basics - K_B.W15
W2: Knows of the chemical kinetics - K_B.W15
W3: Knows of the quantum basics of matter structure -
K_B.W15
W4: Knows the physicochemistry of heterogeneous systems - K_B.W16
W5: Knows of the surface phenomena - K_B.W16
W6: Knows the mechanisms of catalysis - K_B.W16
Learning outcomes - skills
U1: Can analyze physicochemical properties - K_B.U.9
U2: Can analyze processes forming the basis of drugs biological functioning - K_B.U.9
U3: Can analyze the pharmacokinetics of drugs - K_B.U.9
Learning outcomes - social competencies
K1: Can establish relationships with the patient and colleagues based on mutual trust and respect - K_B.K1
K2: Can notice and recognize their own limitations, make a self-assessment of deficits and educational needs - K_B.K1
K3: Can implement the principles of colleagueship and co-operation in a team of professionals, including representatives of other medical professions, also in a multicultural and multinational environment - K_B.K1
Course coordinators
Teaching methods
Lecture:
1. Feeding methods
- traditional lecture supported by multimedia techniques
- interactive lecture
- informative lecture
2. Activating methods
- case method
- discussion
- informal discussion
- "for" and "against" debate
3. Problem methods
- stock exchange (brainstorming)
- classical problem method
4. Exposing methods
- demonstration of selected phenomena
Laboratory:
1. Practical and practical methods
- practical exercises
- measurement and observation
- experiences
2. Giving methods:
- description
- talk
3. Activating methods
- case method
- discussion
- informal discussion
- "for" and "against" debate
4. Problem methods
- stock exchange (brainstorming)
- classical problem method
Seminar:
1. Giving methods:
- description
- talk
2. Activating methods
- case method
- discussion
- informal discussion
- "for" and "against" debate
3. Problem methods
- stock exchange (brainstorming)
- classical problem method
Observation/demonstration teaching methods
- display
Expository teaching methods
- informative (conventional) lecture
- description
- problem-based lecture
- discussion
Exploratory teaching methods
- experimental
- practical
- observation
- brainstorming
- laboratory
- seminar
- classic problem-solving
Type of course
compulsory course
Prerequisites
To implement the described subject, it is necessary to have basic knowledge of physical chemistry, as well as general, inorganic and organic chemistry, and also mathematics and physics at high school level.
Assessment criteria
Written exam: W1 - W6, U2, U3
Colloquium: W1 - W6, U2, U3
Practical performance of the exercise: U1 - U3, K1 - K3
Practical placement
Additional information
Additional information (registration calendar, class conductors,
localization and schedules of classes), might be available in the USOSweb system: