Universität Wien
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301325 VO Genetic Methods in Neuroscience (2025W)

2.00 ECTS (1.00 SWS), SPL 30 - Biologie

Registration/Deregistration

Note: The time of your registration within the registration period has no effect on the allocation of places (no first come, first served).

Details

Language: English

Examination dates

Lecturers

Classes (iCal) - next class is marked with N

dates see german version
Overview:
Lecture 1: Introduction - Basic genetic concepts - Historical overview - Terminological refreshment
Lecture 2: Biological framework for neuroscience - Neuroscience and human diseases - Model organisms and their application
Lecture 3: Introduction to the logic of genetic screens - Types of genetic screens
Lecture 4: Genetic Screens-1: simple model organisms
Lecture 5: Genetic Screens-2: complex model organisms
Lecture 6: Human Genetic Approaches
Lecture 7: Medical Applications: understanding and fighting human diseases
Lecture 8: Evolutionary approaches - Summary Outlook

  • Thursday 09.10. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 16.10. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 23.10. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 06.11. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 13.11. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 20.11. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 27.11. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4
  • Thursday 04.12. 17:00 - 18:30 Seminarraum ZfH Unicampus Hof 10 Hirnforschungzentrum Spitalgasse 4

Information

Aims, contents and method of the course

Neuroscience utilizes a broad variety of methods to investigate the complex foundation of brain physiology, brain development and behavior. Among these methods genetic approaches excel by their long and successful tradition within biological sciences and their applicability to very diverse research questions. Taking advantage of the tight relation between the genetic heritage/inheritance of an organism and its phenotypic appearance (under well-defined environmental conditions), genetic approaches allow the identification of factors, which affect brain processes in health and disease.
At the beginning, genetic fundamentals and the proper terminology will be introduced and put into the context of neurobiology. This will include the development of a conceptual framework for brain development and function, which integrates the influences of heritage, environment and developmental processes and is useful to understand human neuroscience in health and disease. Furthermore, the art of genetic screens utilized in neuroscience will be introduced, emphasizing their power but also tackling their limitations. Subsequently, traditional genetic screens performed in diverse model organisms will be discussed and compared to alternative approaches applicable to human-specific questions, which will include the study of human diseases. Altogether, I hope this lecture provides a toolbox for a specific class of approaches exquisitely suitable for the study of many neurobiological questions.

In this course students shall deepen their understanding of basic genetics and of the correct use of genetic terminology. Furthermore, they should develop a larger conceptual framework, within which neuroscientific questions can be formulated and experimental results can be interpreted. Moreover, students will learn to conceptualize genetic approaches for a neurobiological question and to identify a suitable model organism. Similarly, alternative methods applicable for human-specific problems will be brought to the students´ attention and should become intuitive. Finally, they should be aware of the power and limitations of different genetic methods and thus to read, evaluate and criticize published work.

Assessment and permitted materials

The exam consists of 6 questions with different complexity and a maximum of 20 points can be reached.
The assessment scheme is as follows: 20 Punkte; very good/A = 20-17,5; good/B = 17-15; satisfactory/C = 14,5-12,5; enough/D = 12-10; not sufficient/F = 9,5-0 offered on four dates.

Minimum requirements and assessment criteria

Please consider that this lecture is an advanced course and presumes basic knowledge about genetics, neuroscience and evolutionary biology.

Examination topics

The entire content of the lecture.
The teaching aims are as follows: students should (i) understand the presented concepts and can apply them to examples that have been used in the lecture, (ii) understand the experiments and examples introduced in the lecture to be able to explain the underlying assumptions and the arguments of their interpretation; (iii) can explain the use of model organisms in neuroscientific practice and (iv) can explain the genetic foundation of human diseases affecting brain and mind and their interaction with other factors.

Reading list

Additional papers to facilitate understanding will be provide in the Moodle of this course.

Association in the course directory

MNEU IV.,MNEU V., MMB IV.,

Last modified: Fr 29.08.2025 14:27