Dr. Jeff W. Lichtman
Jeff W. Lichtman, M.D., Ph.D. is
Professor of Molecular and Cellular Biology at Harvard
University.
Jeff is interested in the mechanics that underlie synaptic competition
between neurons that innervate the same target cell. Such competitive
interactions are responsible for sharpening the patterns of neural
connections during development and may also be important in learning
and memory formation. His laboratory studies synaptic competition by
visualizing synaptic rearrangements directly in living animal using
modern optical imaging techniques.
He has concentrated
on
neuromuscular junctions in a very accessible neck muscle in mice where
new transgenic animals and other labeling strategies allow individual
nerve terminals and postsynaptic specializations to be monitored over
hours or months. In addition, his lab has developed several new methods
to improve their ability to resolve synaptic structure.
Jeff coauthored
Principles of Neural Development,
Development of the Vertebrate Neuromuscular Junction,
Imaging Neuronal Subsets in Transgenic Mice Expressing
Multiple Spectral Variants of GFP,
Can molecules explain long-term
potentiation?,
Visualization of Neuromuscular Junctions over Periods of Several
Months in Living Mice,
Transgenic Strategies for Combinatorial
Expression of Fluorescent Proteins in the
nervous system, and
In viva Observations of Pre- and Postsynaptic Changes during the
Transition from Multiple to Single Innervation at Developing
Neuromuscular Junctions.
Read the
full list of his publications!
Jeff earned his BA from Bowdoin in 1973, and earned his M.D.
and
Ph.D. from
Washington University in 1980 where he worked until 2004, most recently
as Professor of Neurobiology. In 2004 he moved to Harvard where he is a
Professor in the Department of Molecular and Cellular Biology. He is
also a member of the newly established
Center for Brain
Science.
Read
Exercise and Caloric Restriction Rejuvenate Synapses in Lab
Mice,
Multiple Fluorescent Proteins Blend In Fantastic Images Of
Neurons, and
Diverse ‘Connectomes’ Hint At Genes’ Limits In Nervous
System.