Course Outcomes (COs):
Course Outcomes |
Learning and teaching strategies |
Assessment Strategies |
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Upon completion of the course the learner will: CO 25: Understand the fundamental molecular principles of genetics in prokaryotes and eukaryotes CO 26: Differentiate, compare and contrast different types of gene interactions and predict the outcomes of these interactions. CO 27: Apply the knowledge of genetic crosses to construct genetic maps. CO 28: Evaluate the processes that cause changes in the kind and amount of genetic variation in populations. CO 29: Understand extrachromosomal inheritance and Hardy Weinberg equilibrium. CO 30: Analyse the relationship between phenotype and genotype in human genetic traits |
Interactive Lectures, Discussion, Tutorials, Demonstrations, Assignments Reading Journals |
Class test, Semester end examinations, Quiz, Solving problems in tutorials, Assignments, Presentation, Individual and group projects |
Concept of a gene in pre-DNA era; mapping of genes in bacterial and phage chromosomes by classical genetic crosses; fine structure analysis of a gene; genetic complementation and other genetic crosses using phenotypic markers; phenotype to genotype connectivity prior to DNA-based understanding of gene.
Meiotic crosses, tetrad analyses, non-Mendelian and Mendelian ratios, gene conversion, models of genetic recombination, yeast mating type switch; dominant and recessive genes/mutations, suppressor or modifier screens, complementation groups, transposon mutagenesis, synthetic lethality, genetic epistasis.
Monohybrid & dihybrid crosses, back-crosses, test-crosses, analyses of autosomal and sex linkages, screening of mutations based on phenotypes and mapping the same, hypomorphy, genetic mosaics, genetic epistasis in context of developmental mechanism
Introduction to the elements of population genetics: genetic variation, genetic drift, neutral evolution; mutation selection, balancing selection, Fishers theorem, Hardy- Weinberg equilibrium, linkage disequilibrium; in-breeding depression & mating systems; population bottlenecks, migrations, Bayesian statistics; adaptive landscape, spatial variation & genetic fitness.
Complex traits, mapping QTLs, yeast genomics to understand biology of QTLs.
Laws of segregation in plant crosses, inbreeding, selfing, heterosis, maintenance of genetic purity, gene pyramiding.
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