Jill U. Adams is a freelance science journalist based in Albany, New York. She covers health, mental health and biomedical research for such publications as The Transmitter, The Washington Post, Scientific American, Undark and The Scientist. She has a Ph.D. in pharmacology from Emory University in Atlanta, Georgia.
Jill Adams
Contributing writer
From this contributor
Autism-linked genes expressed in thalamus make an impact, and more
Here is a roundup of autism-related news and research spotted around the web for the week of 1 June.
Autism-linked genes expressed in thalamus make an impact, and more
SHANK3-variant effects in primates, and more
Here is a roundup of autism-related news and research spotted around the web for the week of 25 May.
Outside influences on CHD8 variant phenotypes, and more
Here is a roundup of autism-related news and research spotted around the web for the week of 18 May.
Outside influences on CHD8 variant phenotypes, and more
Untangling genetic effects, and more
Here is a roundup of autism-related news and research spotted around the web for the week of 11 May.
Processing facial emotions, and more
Here is a roundup of autism-related news and research spotted around the web for the week of 4 May.
Explore more from The Transmitter
Learning why spiny mice play well with others
Aubrey Kelly studies the gregarious mammal to explore how the brain controls complex social behaviors “akin to friendship.”
Learning why spiny mice play well with others
Aubrey Kelly studies the gregarious mammal to explore how the brain controls complex social behaviors “akin to friendship.”
Eighteen teams analyzed the same neurophysiology dataset—and got wildly different answers
The “Brainhack” hackathon revealed that disagreement in neuroscience runs deeper than most researchers suspect—even in electrophysiology, a field that prides itself on hard data.
Eighteen teams analyzed the same neurophysiology dataset—and got wildly different answers
The “Brainhack” hackathon revealed that disagreement in neuroscience runs deeper than most researchers suspect—even in electrophysiology, a field that prides itself on hard data.
‘Unbelievably beautiful’ evidence extends Nobel Prize-winning model of vision
Orientation tuning—the ability to distinguish a horizontal line from a vertical one or something in between—originates in the visual cortex, according to new mouse synapse imaging experiments.
‘Unbelievably beautiful’ evidence extends Nobel Prize-winning model of vision
Orientation tuning—the ability to distinguish a horizontal line from a vertical one or something in between—originates in the visual cortex, according to new mouse synapse imaging experiments.