BIO210 Molecular Biology

Credits (ECTS):10

Course responsible:Daniel Straume

Campus / Online:Taught campus Ås

Teaching language:Norsk

Limits of class size:200

Course frequency:Annually.

Nominal workload:

  • Lectures: ca 38 hours.
  • Mid Term Test: 2 x 45 minutes
  • Colloquia: 20-24 hours.
  • Individual study: 137 hours.

Teaching and exam period:This course starts in Autumn parallel. This course has teaching/evaluation in Autumn parallel.

About this course

  • DNA's structure and organisation in the cell.
  • DNA replication, recombination and repair.
  • Transcription and protein synthesis in prokaryotes and eukaryotes.
  • The genetic code.
  • Mobile genetic elements and bacteriophages.
  • Structures of operons, promoters, activators, repressors.
  • RNA-stability, processing and splicing.
  • Gene regulation in prokaryotic and eukaryotic organisms.
  • Functional, small RNA molecules.
  • A selection of molecular biology methods.

Learning outcome

Knowledge: The course will give students detailed knowledge on DNA-structure, -organization in cells and -synthesis (replication, recombination and repair), RNA synthesis, protein synthesis and gene regulation at a molecular level. Students will get a basic understanding on how interactions between DNA, proteins and RNA-molecules contribute to the biosynthesis of DNA, RNA and proteins as well as DNA packaging, DNA- and RNA modifications and gene regulation. This includes central biochemical reactions, what proteins/enzymes that are involved and the communication between these. Both bacterial and eukaryotic systems will be covered. We will focus on:

  • Structure, organization and repair of DNA.
  • Replication, transcription and translation (the central dogma within molecular biology).
  • RNA splicing
  • Fundamental differences between prokaryotes and eukaryotic cells at the molecular level.
  • How are the lactose- and tryptophan operons regulated?

Skills

Students will have detailed knowledge on basic molecular biology and biochemical processes in bacteria and eukaryotes. Students will also be able to understand different molecular mechanism of gene regulation and how cells use this to adjust gene expression in response to changes in the environments.

Acquired skills can contribute to solve important problems in the society or in the environment. For example:

  • Improve human and animal health (develop new medicals, vaccines, diagnostic tools, healthier foods etc.).
  • Surveillance and combat/prevent infections in society.
  • Produce more (and healthier) food using genetic technologies.
  • Secure life quality on land and in waters by removing toxic pollutants through enzymatic processes.

These opportunities and challenges are central in many UN sustainable development goals.

General competence

The students shall after the course

  • have increased understanding on how central biosyntheses take place at a molecular level in cells, and
  • can communicate and participate in discussions on topics related to biosynthesis, the buildup of macromolecules, gene regulation, DNA repair.
  • Lectures and colloquia.
  • The teacher has designated office hours for consultation.

    10 double-hour colloquia during the semester

    daniel.straume@nmbu.no

    Canvas.

    • Biochemistry equivalent to KJB200.
    • Genetics equivalent to BIO120.
    • Microbiology equivalent to BIO130.
  • Two 45 minutes' midterm tests (multiple choice). The first counts 10%, the second counts 15 % of the final grade.

    3 hour written final exam (multiple choice + written answers), counts 75% of the final grade.



    Subtest 2 Grading: Letter grades Written exam Grading: Letter grades Permitted aids: A2 No calculator, other aids as specified Subtest 1 Grading: Letter grades
  • Midterm tests (multiple choice) and final exam (multiple choice + written answers): An external examiner approves the examination questions, and is involved in grading the test papers.
  • Midterm test 1 and 2.

    The lectures and colloquia are not compulsory but students are highly recommended to participate.

  • 2 x 2 hours lectures and 1 x 2 hours colloquia per week.
  • Special requirements in Science.