BIOING1202 Molecular biology and genetics

    • Course code
      BIOING1202
    • Number of credits
      10
    • Teaching semester
      2023 Autumn
    • Language of instruction
      Norwegian/English
    • Campus
      Hamar
    • Required prerequisite knowledge

      Studenten må normalt ha fullført minst 45 studiepoeng i løpet av det første studieåret i bachelor bioingeniørfag

Course content

Course content

  • structure and function of RNA and DNA (both chromosomal and extrachromosomal), nucleoid, chromatin, chromosomes (organellar, and nuclear - both interphase, mitotic and meiotic) and extrachromosomal DNA 
  • chromosomal and extrachromosomal DNA replication, mutation, repair and recombination (site-specific, homologous, meiotic and somatic)
  • prokaryotic and eukaryotic transcription and regulation thereof, including RNA processing in eukaryotes
  • regulation of translation in prokaryotes and eukaryotes
  • regulation of replication, transcription and translation of viruses that utilise prokaryotic or eukaryotic hosts
  • genetic mutation, polymorphism, variation and inheritance, pedigree analysis, human Mendelian genetics, chromosomal aberrations and deviant states of ploidy
  • recombinant DNA technology (including cloning), genetic engineering, genetically modified organisms, DNA sequencing, polymerase chain reaction (PCR, also quantitative PCR, QPCR), gene editing and gene therapy
  • genome organisation, genomics, functional genomics, proteomics, transcriptomics
  • epigenetics -- histone modification, DNA methylation, X-inactivation, DNA imprinting; prions and Creutzfeldt-Jakob disease
  • regulations for work with biological material and GMO
  • laboratory exercises, including nucleic acid extraction, quantitation, restriction, PCR-amplification (end point, semiquantitative and quantitative), dissociation, hybridisation sequencing and cloning; report writing with an emphasis on the analysis and dissemination of results and conclusions from analyses

Learning Outcome

Upon passing this course, the graduate will have achieved the following learning outcomes:

Knowledge

The student

  • has knowledge of the content, meaning and expression of genetic information from DNA to protein
  • has knowledge of the regulatory mechanisms controlling DNA replication, transcription and translation in humans and organisms (including viruses) relevant for human health
  • has knowledge about all forms of mutation of nucleic acids, how they arise, their effects on gene expression and how they are repaired
  • has knowledge of the principles of genetic inheritance, pedigree analysis and how mutant alleles are inherited and how they can affect phenotypes including causing disease
  • has knowledge about different forms of polymorphisms in DNA and how they can be developed and exploited as diagnostic genetic markers
  • has knowledge of fundamental themes within functional genomics and proteomics
  • has broad knowledge about the principles underlying central laboratory methods employed in molecular biology, e.g. extraction of nucleic acids, PCR, cloning, melting point analysis, electrophoresis and DNA sequencing
  • has knowledge about central molecular biological laboratory methods are employed in diagnostics and in the development of treatment therapies
  • has knowledge about different types of genetic testing, gene therapy and cloning
  • is familiar with laws and regulations that govern genetic testing and genetic counselling
Skills

The student

  • can apply central methods in molecular biology such as nucleic acid extraction, quantitation, restriction, PCR-amplification (end point, semiquantitative and quantitative), dissociation, hybridisation sequencing and cloning
  • master interpretation of human pedigrees displaying the inheritance pattern of traits, syndromes and disease states 
General competence

The student

  • can plan and carry out experiments involving genetic material and chemicals while observing all laboratory safety routines and procedures in force for waste treatment  
  • has insight into the provisions of Norway’s Gene Technology Act and the security measures for handling genetically modified organisms (GMO)
  • can present self-generated results in writing according to the IMRAD model
  • has insight into laws and regulations that govern genetic testing and genetic counselling
Teaching and working methods

Organisation and methods of instruction

  • lectures
  • laboratory exercises

The course can be taught in English if international students are enrolled.

Practice

Internal practice in form of laboratory exercises.

Required coursework

Requirements necessary to take the exam

  • 100% attendance to seven - eight days of laboratory exercises
  • three to five individual written assignments from selected laboratory exercises (in English or in Norwegian)
Assessments
VurderingsordningKarakterskalaGruppe/individuellVarighetHjelpemidlerAndelKommentar
Written examination with invigilation
ECTS - A-F
Individual
4 Hour(s)
  • No support materials
  • Approved calculator
Form of assessment
  • 4-hour individual written school exam (in English or in Norwegian)
Course name in Norwegian Nynorsk: 
Molekylærbiologi og genetikk
Course name in Norwegian Bokmål: 
Molecular biology and genetics
Faculty
Faculty of Applied Ecology, Agricultural Sciences and Biotechnology
Department
Department of Biotechnology
Area of study
Matematisk-naturvitenskapelige fag/informatikk
Programme of study
Biomedical Laboratory Scientist Education
Course level
Foundation courses, level I (100-LN)