This course covers current topics in genetics and and the social, ethical and legal issues surrounding genetic technology. Topics include genome structure and evolution, genetics of disease, personal genomics, human microbiomes and epidemiology. Students will have the opportunity to submit their DNA for genome-wide SNP and gut microbiome determination. Practical skills for analyzing genetic and genomic data are taught through weekly bioinformatic sessions in the R statistical programming language.

This course covers current topics in genetics and and the social, ethical and legal issues surrounding genetic technology. Topics include genome structure and evolution, genetics of disease, personal genomics, human microbiomes and epidemiology. Students will have the opportunity to submit their DNA for genome-wide SNP and gut microbiome determination. Practical skills for analyzing genetic and genomic data are taught through weekly bioinformatic sessions in the R statistical programming language.

How do complex morphologies develop from a single-cell embryo? What makes the human hand different from the horse's hoof, the bat's wing, or the flipper of a whale? These and related questions will be addressed as we explore the genetic and developmental basis of evolutionary change.

How do complex morphologies develop from a single-cell embryo? What makes the human hand different from the horse's hoof, the bat's wing, or the flipper of a whale? These and related questions will be addressed as we explore the genetic and developmental basis of evolutionary change.

How do complex morphologies develop from a single-cell embryo? What makes the human hand different from the horse's hoof, the bat's wing, or the flipper of a whale? These and related questions will be addressed as we explore the genetic and developmental basis of evolutionary change.

Analysis of organismal development, with special attention to cell-cell interactions, cells fate determination, gene regulation, signal transduction, pattern formation and terminal differentiation. The emphasis will be on molecular approaches to these problems.

Biology of nerve cells and cellular interactions in nervous systems. Lectures integrate structural, functional, molecular, and developmental approaches. Topics include neuronal anatomy and physiology, neural induction and pattern formation, development of neuronal connections, membrane potentials and neuronal signals, synapses, sensory systems, control of movement, systems neuroscience and neural plasticity. With Biology 494LI, this course satisfies the Integrative Experience requirement for BS-Biol majors.

Biology of nerve cells and cellular interactions in nervous systems. Lectures integrate structural, functional, molecular, and developmental approaches. Topics include neuronal anatomy and physiology, neural induction and pattern formation, development of neuronal connections, membrane potentials and neuronal signals, synapses, sensory systems, control of movement, systems neuroscience and neural plasticity. With Biology 494LI, this course satisfies the Integrative Experience requirement for BS-Biol majors.

Mechanisms underlying organ system function in vertebrates; nervous, endocrine, cardiovascular, respiratory, muscular, digestive, excretory, reproductive systems.

This course will explore how animals use different modes of communication (sound, smell, electricity, etc.), and how the messages encoded in signals evolved. We will also look at the physiology and anatomy of signal production and perception, and at the function and evolution of sexually selected signals (antlers, bird song, etc.) The class will include projects in which students will learn how to analyze and interpret vocal and visual communication. With Biology 494LI, this course satisfies the Integrative Experience requirement for BA-Biol and BS-Biol majors.