Jacqueline Crawley is professor emeritus of psychiatry and behavioral sciences at the University of California, Davis.
Jacqueline Crawley
Professor
University of California, Davis
From this contributor
Optimizing behavioral assays for mouse models of autism
As the number of autism rodent models climbs, it is a good time for the field to step back and consider the best practices for assessing autism-like symptoms in rodents, says Jacqueline Crawley.
Optimizing behavioral assays for mouse models of autism
Transparent reports
New standards for animal studies, including an emphasis on replicating results and the publication of negative findings, are vital for research progress, says Jacqueline Crawley.
Promises and limitations of mouse models of autism
Good mouse models of autism, and accurate tests to assay their phenotypes, are key to both narrowing down a cause and developing effective treatments, argues expert Jacqueline Crawley.
Promises and limitations of mouse models of autism
Explore more from The Transmitter
Single gene sways caregiving circuits, behavior in male mice
Brain levels of the agouti gene determine whether African striped mice are doting fathers—or infanticidal ones.
Single gene sways caregiving circuits, behavior in male mice
Brain levels of the agouti gene determine whether African striped mice are doting fathers—or infanticidal ones.
Inner retina of birds powers sight sans oxygen
The energy-intensive neural tissue relies instead on anaerobic glucose metabolism provided by the pecten oculi, a structure unique to the avian eye.
Inner retina of birds powers sight sans oxygen
The energy-intensive neural tissue relies instead on anaerobic glucose metabolism provided by the pecten oculi, a structure unique to the avian eye.
Neuroscience needs single-synapse studies
Studying individual synapses has the potential to help neuroscientists develop new theories, better understand brain disorders and reevaluate 70 years of work on synaptic transmission plasticity.
Neuroscience needs single-synapse studies
Studying individual synapses has the potential to help neuroscientists develop new theories, better understand brain disorders and reevaluate 70 years of work on synaptic transmission plasticity.