Difference between revisions of "Organization of genetics topics"

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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.   
 
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:  
+
The topics I would like an introductory genetics class to cover (or at least touch on in an introductory sense) include:  
−
*Mendelian Inheritance and Punnet Squares
+
 
−
*Complementation tests
+
*classical genetics
−
*Genetic linkage and recombination
+
**Mendelian Inheritance and Punnet squares
−
*metabolic pathways and epistasis
+
**Complementation tests
−
*gene structure, gene expression regulation, protein structure, and the central dogma
+
**Genetic linkage and recombination
−
*genome structure and organization
+
**Punnet squares and epistasis
−
*chromosomes, mitosis and meiosis, nondisjunction, aneuploidy, polyploidy
+
**alleles and morphs
−
*sex chromosomes and sex determination systems
+
**penetrance and expressivity
−
*aneuploidy and polyploidy
+
**pedigree analysis
−
*distinction between the germ-line and the soma
+
**LOD scores
−
*mutations and their effects
+
*cytological genetics
−
*alleles and morphs
+
**chromosomes, mitosis and meiosis
−
*penetrance and expressivity
+
**sex chromosomes and sex determination systems
−
*transposable elements
+
**nondisjunction, aneuploidy and polyploidy
−
*pedigree analysis
+
**distinction between the germ-line and the soma
−
*LOD scores
+
*molecular genetics
−
*the chi-square test and degrees of freedom
+
**gene structure, gene expression regulation, protein structure, and the central dogma
−
*quantitative genetics of complex traits and the regression
+
**genome structure and organization
−
*methods of genetic engineering and germ line transformation
+
**types of mutations and their effects
−
*genetic tools such as binary expression systems, PCR, Sanger sequencing, next generation sequencing, restriction endonucleases, and plasmid engineering
+
**metabolic pathways, developmental pathways, and epistasis
−
*forward genetics and reverse genetics
+
**transposable elements and other forms of selfish genes
−
*personal genomics
+
**genotype/phenotype association tests
−
*introductory developmental genetics
+
**comparison of model organisms and viral versus bacterial versus eukaryotic genetics
−
*the history of eugenics and laws regarding genetic data
+
**methods of genetic engineering and germ line transformation
−
*genetic pest management and selfish genes
+
**genetic tools such as binary expression systems, PCR, Sanger sequencing, next generation sequencing, restriction endonucleases, and plasmid engineering, FISH, probes, chip hybridization
−
*medical and cancer genetics
+
**forward genetics and reverse genetics
−
*genetic anthropology
+
**X-inactivation, imprinting and epigenetics
−
*inbreeding and population structure
+
*population genetics
−
*average heterozygosity and effective population size, the coalescent
+
**inbreeding and population structure
−
*X-inactivation, imprinting and epigenetics
+
**average heterozygosity and effective population size, the coalescent
−
*species phylogenies
+
**selection and genetic drift
−
*selection and genetic drift
+
**tests of neutrality
−
*probability rules
+
*quantitative genetics
−
*binomial distributions
+
**parent-offspring regression
−
*normal distribution
+
**heritability and phenotype variance
−
*Poisson distribution
+
**breeder's equation
−
*---to be continued---
+
**twin studies
 +
*evolutionary genetics
 +
**species phylogeny
 +
**gene evolution and gene families
 +
**evo-devo
 +
*supporting statistical logic
 +
**probability rules
 +
**binomial distributions
 +
**normal distribution
 +
**Poisson distribution
 +
**the chi-square test and degrees of freedom
 +
**linear regression
 +
**means and variance
 +
*interdisciplinary
 +
**the history of eugenics and current laws regarding genetic data
 +
**GMO crops including examples, methods, ethics, and economics
 +
**genetic pest management
 +
**medical and cancer genetics
 +
**personal genomics
 +
**developmental genetics
 +
**conservation genetics
 +
**genetic anthropology

Latest revision as of 12:54, 22 August 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 (or at least touch on in an introductory sense) include:

  • classical genetics
    • Mendelian Inheritance and Punnet squares
    • Complementation tests
    • Genetic linkage and recombination
    • Punnet squares and epistasis
    • alleles and morphs
    • penetrance and expressivity
    • pedigree analysis
    • LOD scores
  • cytological genetics
    • chromosomes, mitosis and meiosis
    • sex chromosomes and sex determination systems
    • nondisjunction, aneuploidy and polyploidy
    • distinction between the germ-line and the soma
  • molecular genetics
    • gene structure, gene expression regulation, protein structure, and the central dogma
    • genome structure and organization
    • types of mutations and their effects
    • metabolic pathways, developmental pathways, and epistasis
    • transposable elements and other forms of selfish genes
    • genotype/phenotype association tests
    • comparison of model organisms and viral versus bacterial versus eukaryotic genetics
    • 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, FISH, probes, chip hybridization
    • forward genetics and reverse genetics
    • X-inactivation, imprinting and epigenetics
  • population genetics
    • inbreeding and population structure
    • average heterozygosity and effective population size, the coalescent
    • selection and genetic drift
    • tests of neutrality
  • quantitative genetics
    • parent-offspring regression
    • heritability and phenotype variance
    • breeder's equation
    • twin studies
  • evolutionary genetics
    • species phylogeny
    • gene evolution and gene families
    • evo-devo
  • supporting statistical logic
    • probability rules
    • binomial distributions
    • normal distribution
    • Poisson distribution
    • the chi-square test and degrees of freedom
    • linear regression
    • means and variance
  • interdisciplinary
    • the history of eugenics and current laws regarding genetic data
    • GMO crops including examples, methods, ethics, and economics
    • genetic pest management
    • medical and cancer genetics
    • personal genomics
    • developmental genetics
    • conservation genetics
    • genetic anthropology
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