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MED 202الوراثة

السنة 2 · 22 محاضرة · 3 ساعة معتمدة

العناوين والأهداف منقولة من خطة كلية الطب الرسمية.

  1. 1. Purine metabolism

    Molecular Genetics

    • Recognise and contrast the structures of the purines.
    • Contrast the salvage and de novo pathways of purine synthesis.
    • Understand the steps of purine synthesis, including the enzymes and their regulation.
    • Understand the steps of purine degradation.
    • Recognise how dysregulation of purine metabolism contributes to disease.
  2. 2. Pyrimidine metabolism

    Molecular Genetics

    • Recognise and contrast the structures of the pyrimidines.
    • Understand the steps of pyrimidine synthesis, including the enzymes and their regulation.
    • Understand the steps of pyrimidine degradation.
  3. 3. Structure of nucleic acids I

    Molecular Genetics

    • Understand the structure of nucleotides and how they are organised into nucleic acids.
    • Understand the experiments that led to the discovery of the structure of DNA.
    • Understand the structure of the DNA double helix.
  4. 4. Structure of nucleic acids II

    Molecular Genetics

    • Understand the differences in chromatin structure between prokaryotes and eukaryotes, including the role of nucleosomes.
    • Differentiate DNA from RNA structure.
    • Differentiate the structures of rRNA, mRNA, tRNA and miRNA.
  5. 5. DNA replication I

    Molecular Genetics

    • Understand the central dogma and the differences between replication, transcription and translation.
    • Understand the importance of DNA replication in cell division.
    • Differentiate the conservative, semiconservative and dispersive models of replication.
    • Understand the experiments that established semiconservative replication.
  6. 6. DNA replication II

    Molecular Genetics

    • Understand the mechanism of DNA replication and the roles of its key proteins and enzymes.
    • Differentiate replication in prokaryotes and eukaryotes.
    • Understand the function of telomerase.
  7. 7. Mutations, DNA repair and recombination I

    Molecular Genetics

    • Understand the definition of mutation.
    • Compare the different types of mutations.
  8. 8. Mutations, DNA repair and recombination II

    Molecular Genetics

    • Compare the DNA repair pathways: mismatch repair, base excision repair and nucleotide excision repair.
    • Describe recombination and how it happens.
  9. 9. Transcription in prokaryotes

    Molecular Genetics

    • Understand transcription in prokaryotes and the roles of its key proteins and enzymes.
    • Write the sequence of an RNA molecule from a DNA template.
  10. 10. Transcription in eukaryotes

    Molecular Genetics

    • Understand transcription in eukaryotes and the roles of its key proteins and enzymes.
    • Compare transcription in prokaryotes and eukaryotes.
  11. 11. RNA processing

    Molecular Genetics

    • Understand the importance of RNA processing in establishing genetic diversity in eukaryotes.
    • Understand the mechanism and function of 5' capping, RNA editing, polyadenylation and splicing.
  12. 12. Regulation of gene expression in prokaryotes

    Molecular Genetics

    • Understand the structure and regulation of the lac operon.
    • Understand the structure and regulation of the tryptophan operon and its attenuation model.
  13. 13. Regulation of transcription in eukaryotes

    Molecular Genetics

    • Understand the role of histone acetylation in regulating transcription.
    • Understand the structure of eukaryotic promoters and enhancers.
    • Study nuclear receptors as an example of eukaryotic transcriptional regulation.
  14. 14. Translation in prokaryotes

    Molecular Genetics

    • Understand protein synthesis in prokaryotes and the roles of its key proteins and enzymes.
    • Appreciate the effects of antibiotics on prokaryotic protein synthesis.
  15. 15. Translation in eukaryotes

    Molecular Genetics

    • Understand protein synthesis in eukaryotes and the roles of its key proteins and enzymes.
    • Compare protein synthesis in prokaryotes and eukaryotes.
  16. 16. Protein processing and targeting

    Molecular Genetics

    • List the types of post-translational modification.
    • Understand the endomembrane system and the sorting of cellular proteins.
    • Understand the role of ubiquitination in protein degradation.
  17. 17. Recombinant DNA techniques

    Molecular Genetics

    • Understand molecular cloning, gel electrophoresis, Southern, northern and western blotting.
    • Understand PCR, cDNA synthesis and Sanger sequencing.
  18. 18. Cell signalling and signal transduction

    Molecular Genetics

    • Compare endocrine, paracrine and autocrine signalling.
    • Differentiate cell-surface and nuclear receptors and compare the types of cell-surface receptors.
    • Understand the GPCR, RAF–MEK–ERK, JAK–STAT, TGF-beta–SMAD and PI3K–AKT pathways.
  19. 19. The molecular biology of cancer

    Molecular Genetics

    • Understand the normal cell division cycle.
    • Understand apoptosis and differentiate its intrinsic and extrinsic pathways.
    • Differentiate oncogenes from tumour suppressor genes.
    • Study the properties of cancer cells.
  20. 20. Inheritance

    Molecular Genetics

    • Understand the Mendelian rules of inheritance.
    • Understand autosomal dominant and recessive, sex-linked dominant and recessive, codominant and incompletely dominant inheritance, and X-inactivation.
  21. 21. Epigenetics and chromosomal karyotyping

    Molecular Genetics

    • Understand how gene expression is silenced or activated by DNA methylation, histone modification and histone variants.
    • Understand how karyotyping is performed and its applications in diagnosis.
  22. 22. Chromosomal anomalies

    Molecular Genetics

    • Understand the cause and features of Down, Edwards, Patau, Klinefelter, triple X and Turner syndromes.
    • Understand the cause and features of Angelman and Prader–Willi syndromes.