Research in an area relevant to neuroscience, under the direction of a faculty member, and preparation of a thesis based upon the research. Full course.

Fall and spring semesters. The Committee.

Plastic changes to synapses are thought to underlie many higher order functions of the brain in both the developing and adult nervous system. Knowledge of the underlying molecular mechanisms of synaptic plasticity is critical to understanding the complex functions of the brain to which these changes contribute. This seminar course will primarily focus on the most well-studied example of synaptic plasticity, synaptic modifications in a region of the brain called the hippocampus. These changes are thought to underlie our ability to learn and remember.

(Offered as PSYC 367 and NEUR 367) This course will be an in-depth exploration of contemporary issues in the field of human neuroscience. Topics include a rigorous examination of the methods neuroscientists use to study the human brain, how the brain changes throughout the lifespan, the ways in which researchers have developed brain/machine interfaces, and the neural processes that support decision-making.

(Offered as PSYC 361 and NEUR 361) Although curiosity about the nature of consciousness has animated the work of philosophers, artists and others, this course will approach the topic from a scientific perspective. How do electrochemical signals in our brain produce our experience of colors, sounds, tastes and our awareness of ourselves? We will read and discuss primary source scientific journal articles drawn from both psychology and neuroscience with a focus on questions including: What kinds of brain activity distinguish conscious from unconscious states?

(Offered as BIOL 301 and NEUR 301) An analysis of the molecules and molecular mechanisms underlying nervous system function, development, and disease. We will explore the proteins that contribute to the unique structure and function of neurons, including an in-depth analysis of synaptic communication and the molecular processes that modify synapses. We will also study the molecular mechanisms that control brain development, from neurogenesis, neurite growth, and synaptogenesis to cell death and degeneration.