Difference between revisions of "Organization of genetics topics"
From Genetics Wiki
Line 7: | Line 7: | ||
*Genetic linkage and recombination | *Genetic linkage and recombination | ||
*metabolic pathways and epistasis | *metabolic pathways and epistasis | ||
− | *gene structure and the central dogma | + | *gene structure, gene expression regulation, protein structure, and the central dogma |
*genome structure and organization | *genome structure and organization | ||
*chromosomes, mitosis and meiosis | *chromosomes, mitosis and meiosis | ||
Line 25: | Line 25: | ||
*introductory developmental genetics | *introductory developmental genetics | ||
*the history of eugenics and laws regarding genetic data | *the history of eugenics and laws regarding genetic data | ||
− | *genetic pest management | + | *genetic pest management and selfish genes |
*medical and cancer genetics | *medical and cancer genetics | ||
− | *genetic | + | *genetic anthropology |
*inbreeding and population structure | *inbreeding and population structure | ||
*average heterozygosity and effective population size | *average heterozygosity and effective population size | ||
*---to be continued--- | *---to be continued--- |
Revision as of 03:33, 28 July 2014
I am interested in what people thin the best organization of genetics topics might be.
Genetics is a vast, rapidly changing field. There are connections to other diverse fields such as psychology, law, medicine, history, and teaching. A classic way to divide genetics topics is into classical, molecular, and population genetics; however, I suspect this leaves out important areas.
The topics I would like an introductory genetics class to cover include:
- Mendelian Inheritance and Punnet Squares
- Genetic linkage and recombination
- metabolic pathways and epistasis
- gene structure, gene expression regulation, protein structure, and the central dogma
- genome structure and organization
- chromosomes, mitosis and meiosis
- distinction between the germ-line and the soma
- mutations and their effects
- alleles and morphs
- penetrance and expressivity
- transposable elements
- pedigree analysis
- LOD scores
- the chi-square test and degrees of freedom
- quantitative genetics of complex traits and the regression
- methods of genetic engineering and germ line transformation
- genetic tools such as binary expression systems, PCR, Sanger sequencing, next generation sequencing, restriction endonucleases, and plasmid engineering
- forward genetics and reverse genetics
- personal genomics
- introductory developmental genetics
- the history of eugenics and laws regarding genetic data
- genetic pest management and selfish genes
- medical and cancer genetics
- genetic anthropology
- inbreeding and population structure
- average heterozygosity and effective population size
- ---to be continued---