Next semester I'll be teaching a new advanced Genetics and
Genomics course that might interest some Physiology students (PLS 459A/559A).
Please share the attached flyer with your students.
Although nominally focused on plant genetics, the course
will cover eukaryotic genetics, genomics, and epigenetics. Here are some of the
learning outcomes students can expect:
· Use
genotypic information to predict phenotype, including for complex traits and
genetic interactions.
· Use
linkage data to identify causal alleles for a mutant phenotype or natural
variant.
· Describe
the potential impact and limitations of genome editing.
· Identify
and annotate protein-coding genes from genomic sequence.
· Provide
examples of synthetic genes and their uses.
· Describe
the major components of a genome and how gene content varies between
individuals and species.
· Predict
gene expression based on local chromatin modifications.
· Provide
an example of an epigenetic phenomenon and explain the underlying mechanism.
There is no requirement for any previous plant science
course, but a strong understanding of basic Genetics is essential (eg, MCB 304,
ECOL 320, PLS 312). Please let me know if you have any questions.
PLS 459A
Plant Genetics & Genomics!
Dr. Rebecca Mosher
Plant Genetics & Genomics!
Dr. Rebecca Mosher
Offered Spring semesters
This course provides advanced coverage of genetics, including genomics and epigenetics, for advanced undergraduates or graduate students. Although plant systems will be emphasized, the course will benefit any student interested in modern genetics or genomics. Completion of PLS 312, MCB 304, ECOL 320, or other Genetics class is a required.
Students are will learn:
• how genetic analysis has led to biological discovery, including how reverse genetics and genome editing enable medical and biotech applications today
• to view genes in the context of a whole genome and how genes and genomes change over evolutionary time.
• how epigenetic mechanisms, including histone modification, DNA methylation, and transcriptional silencing influence how genes function
• how genetic analysis has led to biological discovery, including how reverse genetics and genome editing enable medical and biotech applications today
• to view genes in the context of a whole genome and how genes and genomes change over evolutionary time.
• how epigenetic mechanisms, including histone modification, DNA methylation, and transcriptional silencing influence how genes function
Thanks,
Becky
__________________________________
Dr.
Rebecca Mosher
Associate
Director and
Associate
Professor
The
University of Arizona
The
School of Plant Sciences
303
Forbes Bldg.
1140
E. South Campus Dr.
Tucson,
AZ 85721-0036
USA
+1
520-626-4185
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