Stormy Chamberlain is associate professor of genetics and genome sciences and associate director of the Graduate Program in Genetics and Developmental Biology at the University of Connecticut School of Medicine.
Stormy Chamberlain
Associate professor
University of Connecticut
From this contributor
Angelman syndrome’s silent gene points way forward for autism therapies
Advances in research and help from families have brought scientists to the brink of an effective therapy for Angelman syndrome.
Angelman syndrome’s silent gene points way forward for autism therapies
For accurate results in autism, genetic databases need diversity
We must diversify databases of reference DNA to improve our ability to interpret the consequences of genetic variation.
For accurate results in autism, genetic databases need diversity
Explore more from The Transmitter
Johannes Jaeger explains why we should care that brains and AI are not the same
From single cells to whole organisms, living beings must continuously regenerate themselves and judge what's important to continue living. Artificial intelligence does not and cannot.
Johannes Jaeger explains why we should care that brains and AI are not the same
From single cells to whole organisms, living beings must continuously regenerate themselves and judge what's important to continue living. Artificial intelligence does not and cannot.
What mosquitos lay bare about proprioception
By comparing the proprioceptive systems of mosquitos and fruit flies, Sweta Agrawal aims to uncover fundamental features of the ability to sense self-movement.
What mosquitos lay bare about proprioception
By comparing the proprioceptive systems of mosquitos and fruit flies, Sweta Agrawal aims to uncover fundamental features of the ability to sense self-movement.
Recording warning: Common brain signal may be misunderstood
High gamma activity in electrophysiologic recordings reflects widespread neural activity, not merely local firing, as previously thought.
Recording warning: Common brain signal may be misunderstood
High gamma activity in electrophysiologic recordings reflects widespread neural activity, not merely local firing, as previously thought.