Tychele Turner is assistant professor of genetics at the Washington University School of Medicine in St. Louis, Missouri, where her lab focuses on the study of noncoding variation in autism, precision genomics in 9p deletion syndrome, optimization of genomic workflows and the application of long-read sequencing to human genetics.
Tychele Turner
Assistant professor of genetics
Washington University School of Medicine
From this contributor
How long-read sequencing will transform neuroscience
New technology that delivers much more than a simple DNA sequence could have a major impact on brain research, enabling researchers to study transcript diversity, imprinting and more.
How long-read sequencing will transform neuroscience
Focus on function may help unravel autism’s complex genetics
To find the pathogenic mutations in complex disorders such as autism, researchers may need to conduct sophisticated analyses of the genetic functions that are disrupted, says geneticist Aravinda Chakravarti.
Focus on function may help unravel autism’s complex genetics
Explore more from The Transmitter
What Trump’s psychedelics executive order means for basic neuroscience
The order provides a potential path to remove some psychedelic drugs from the strictest regulatory category, yet it “may not be the breakthrough the basic research community has been looking for,” says neuroscientist Shawn Lockery.
What Trump’s psychedelics executive order means for basic neuroscience
The order provides a potential path to remove some psychedelic drugs from the strictest regulatory category, yet it “may not be the breakthrough the basic research community has been looking for,” says neuroscientist Shawn Lockery.
Switching neural code may solve ongoing face-recognition debate
Face patch cells in macaque monkeys initially respond to images of any object but rapidly transition to attend to faces exclusively, a new study finds.
Switching neural code may solve ongoing face-recognition debate
Face patch cells in macaque monkeys initially respond to images of any object but rapidly transition to attend to faces exclusively, a new study finds.
Liset de la Prida explains how neuron subtypes may control the activity of large neural populations, from manifolds to ripples
De la Prida's work analyzing the varieties of sharp wave ripples in the hippocampus led to her discovery that specific types of neurons control the properties of neural manifolds.
Liset de la Prida explains how neuron subtypes may control the activity of large neural populations, from manifolds to ripples
De la Prida's work analyzing the varieties of sharp wave ripples in the hippocampus led to her discovery that specific types of neurons control the properties of neural manifolds.