Group | Type | Day | Time | Classroom | Weeks | Comment |
---|---|---|---|---|---|---|
Common | I | Monday | 12-14 | U30 | 06-08,10 | |
Common | I | Monday | 08-10 | U131 | 11-13,17,23 | |
Common | I | Tuesday | 14-16 | U24 | 18 | |
Common | I | Tuesday | 12-14 | U24 | 19-20 | |
Common | I | Wednesday | 08-10 | U131 | 08,10,18-19,22 | |
Common | I | Thursday | 12-14 | U133 | 07,11-13,15-17 | |
Common | I | Thursday | 10-12 | U151 | 21 | |
Common | I | Thursday | 10-12 | U157 | 22 | |
Common | I | Friday | 10-12 | U24 | 06,22 | |
H1 | TL | Monday | 10-14 | Green Lab | 18-19 | |
H1 | TE | Tuesday | 12-14 | U157 | 07 | |
H1 | TL | Tuesday | 12-16 | Green Lab | 08,10-11 | |
H1 | TE | Thursday | 12-14 | U157 | 10 | |
H1 | TE | Thursday | 08-10 | U157 | 12,15,17,19 | |
H1 | TE | Friday | 12-14 | U157 | 22 | |
H2 | TE | Tuesday | 12-14 | U157 | 07 | |
H2 | TL | Tuesday | 14-18 | Green Lab | 19 | |
H2 | TL | Wednesday | 12-16 | Green Lab | 08,10-11 | |
H2 | TE | Thursday | 12-14 | U157 | 10 | |
H2 | TE | Thursday | 08-10 | U157 | 12,15,17,19 | |
H2 | TL | Thursday | 14-18 | Green Lab | 17 | |
H2 | TE | Friday | 12-14 | U157 | 22 | |
H3 | TE | Tuesday | 12-14 | U157 | 07 | |
H3 | TL | Wednesday | 12-16 | Green Lab | 18-19 | |
H3 | TL | Thursday | 08-12 | Green Lab | 08,10-11 | |
H3 | TE | Thursday | 12-14 | U157 | 10 | |
H3 | TE | Thursday | 08-10 | U157 | 12,15,17,19 | |
H3 | TE | Friday | 12-14 | U157 | 22 | |
H4 | TE | Tuesday | 12-14 | U157 | 07 | |
H4 | TE | Thursday | 12-14 | U157 | 10 | |
H4 | TE | Thursday | 08-10 | U157 | 12,15,17,19 | |
H4 | TL | Thursday | 10-14 | Green Lab | 18-19 | |
H4 | TL | Friday | 12-16 | Green Lab | 08,10-11 | |
H4 | TE | Friday | 12-14 | U157 | 22 |
• Describe and explain basic zoophysiological mechanisms in vertebrates.
• Describe the structure and explain the function in transport across cell membranes.
• Identify the most important ions and membrane structures involved in creating electro-chemical equilibrium across a cell membrane and explain the generation of a stable electic potential difference across nerve- and muscle membranes.
• Identify the most important ions and membrane structures and explain the generation and conduction of action potentials across and along nerve- and muscle membranes.
• Describe the structure and explain the function of synapses.
• Describe the most important sensory modalities and explain how sensory input is coded in the nervous system.
• Describe structure and function of muscles.
• Describe the most important glands and hormones and explain their function in maintaining animal's homeostasis.
• Explain how the endocrine system communicates and interacts with the nervous system to maintain homeostasis.
• Describe the functional anatomy of the cardiovascular system in different vertebrate phyla. Explain the relationship between physical activity and regulation of the cardiovascular system.
• Describe the functional anatomy of respiratory systems in different vertebrate phyla. Explain regulation of breathing at rest and during exercise; explain the significance for acid-base regulation and the interrelationship between respiration and circulation
• Explain the osmoregulatory and acid-base regulatory principles, strategies and mechanisms in aquatic and terrestrial vertebrate phyla. Describe the detailed functional anatomy of the mammalian kidney.
• Describe how body temperature is regulated and which strategies and mechanisms are used in different animal phyla. Explain the principle of thermostatic control in animals.
• Describe and explain how integration of physiological mechanisms function to enable animals to adapt to the constraints of their habitat and behavior.
• Perform and explain quantitative and qualitative zoophysiological experiments.
Subject overview
The course covers the following subjects
Reexamination in the same exam period or immediately thereafter