Finner retningen …
Finner retningen …
MF9225
Laster botkontroll.
Gjennomsnittlig svar: ingen svar
Gjennomsnittlig svar: ingen svar
Gjennomsnittlig svar: ingen svar
Gjennomsnittlig svar: ingen svar
KARAKTERFORDELING · H 2025
8 kandidater
Kilde: Felles studentsystem (FS) via Universitetet i Oslo, slik den var publisert for høsten 2026. Universitetet i Oslo er ikke ansvarlig for innholdet på denne siden.
UiO sin egen emnebeskrivelse — læringsutbytte, innhold og vurderingsform.
In depth understanding of molecular methods used for addressing epigenetic phenomena in basic research and in the clinic.
The understanding of the bases for genetic and epigenetic inheritance has been improved tremendously over the last decades. While Gregor Mendels results completely revolutionized the basic understanding of genetic inheritance with his discoveries in garden pees more than 150 years ago, the understanding of inheritance has recently been challenged by the many dynamic chemical modifications on histones, DNA and RNA that regulate gene expression. Such modifications are able to switch on and off genes without changing the coding sequence of DNA. Switch in gene expression programmes following fertilization and during development can now be studied in different model organisms. What is more, these rapid switches in gene regulation that is required for cellular homeostasis and normal development can also be incorrectly regulated and lead to dysregulation of the cell cycle and in cancer.
This course provides an introduction to the various epigenetic mechanisms, an updated presentation of novel aspect of epigenetic regulation and examples of epigenetic analysis, including diagnostics and chemotherapeutic agents that have entered the clinic.
Studying genetic and epigenetic regulation in the laboratory is challenging and requires state-of-the-art methodological insight. There will be a particular focus on novel molecular methods used to address these phenomena that includes; analysis of modified bases in DNA and RNA and histone modifications, high-throughput sequencing methods, CRISPR technology, mutant organisms and clinical samples.
Overview of epigenetic mechanisms "coded" byproteins, DNA and RNA
Insight in molecular methods used to address the two above mentioned regulatory mechanisms.
Novel insight in recent publications on:
The maximum number of participants is 30.
Applicants admitted to a PhD programme at UiO sign up for classes and exam to this course in StudentWeb.
Applicants who are not admitted to a PhD programme at UiO must apply for a right to study before they can sign up for classes and exam to this course. See information here: How to apply for a right to study and admission to elective PhD courses in medicine and health sciences
Applicants will upon registration receive an immediate reply in StudentWeb as to whether a seat at this course is granted or not.
The teaching will start with overview lectures of epigenetics and continue with more specific introduction to novel principles of epigenetics.
During the course, the students will work in groups and present recent findings of epigenetics with a focus on molecular methods.
You have to participate in at least 80 % of the teaching to be allowed to take the exam. Attendance will be registered.
Kilde: Felles studentsystem (FS) via Universitetet i Oslo, slik den var publisert for høsten 2026. Universitetet i Oslo er ikke ansvarlig for innholdet på denne siden.
Hva burde andre vite før de tar dette? Anonymt, ingen innlogging.
Basert på hvor kandidatene til eksamen var registrert (DBH).
Emner som tas i de samme studieprogrammene som MF9225.
| Semester | Kandidater | Stryk |
|---|---|---|
| Høst 2025 | 8 | 0 % |
| Høst 2024 | 5 | 0 % |
| Høst 2023 | 7 | 0 % |
| Høst 2022 | 13 | 0 % |
| Høst 2021 | 11 | 0 % |
| Høst 2020 | 15 | 0 % |
| Høst 2019 | 10 | 0 % |
| Høst 2018 | 18 | 0 % |
| Høst 2017 | 19 | 0 % |
| Høst 2016 | 18 | 0 % |