Julie Forman-Kay is program head in molecular medicine at the Hospital for Sick Children in Toronto, Canada. She received her B.Sc. in chemistry from the Massachusetts Institute of Technology and her Ph.D. in molecular biophysics andd biochemistry from Yale University. The major focus of her lab is to provide biological insights into how dynamic properties of proteins are related to function and methodological tools to enable better understanding of dynamic and disordered states. Most recently, her lab has probed the biophysics of protein phase separation and how it regulates cellular condensates and biological function.
Julie Forman-Kay
Program head
Hospital for Sick Children
From this contributor
How microscopic ‘condensates’ in cells might contribute to autism
A controversial idea about how cells compartmentalize their contents into droplets — like beads of oil in water — could be key to understanding autism, says Julie Forman-Kay.
How microscopic ‘condensates’ in cells might contribute to autism
Explore more from The Transmitter
Grant review needs reform. How about we add an element of chance?
A process that uses a lottery system saves time, reduces strategic resubmission and accepts that, above a quality threshold, luck has always played a part in science funding.
Grant review needs reform. How about we add an element of chance?
A process that uses a lottery system saves time, reduces strategic resubmission and accepts that, above a quality threshold, luck has always played a part in science funding.
Fly neurons carry molecular signatures of their origins
The pattern of transcription factors a Drosophila neuron expresses offers clues to its lineage and birth order—and ultimately how neural circuits emerge.
Fly neurons carry molecular signatures of their origins
The pattern of transcription factors a Drosophila neuron expresses offers clues to its lineage and birth order—and ultimately how neural circuits emerge.
Polarized cortical organoids mimic the brain’s regional organization
The organoids show region-specific gene-expression changes that match those observed during fetal development.
Polarized cortical organoids mimic the brain’s regional organization
The organoids show region-specific gene-expression changes that match those observed during fetal development.