Mark Wallace is dean of the graduate school at Vanderbilt University in Nashville, Tennessee.
Mark Wallace
Director of the Vanderbilt Brain Institute
From this contributor
We need precise measurements of sensory traits related to autism
Separating sensitivity to sensory stimuli from the response to the stimuli may help scientists understand the root cause of sensory traits in autistic people.
We need precise measurements of sensory traits related to autism
Timing is key to understanding sensory, social issues in autism
Individuals with autism have trouble reading social cues because their brains connect sights and sounds over unusually long periods of time.
Timing is key to understanding sensory, social issues in autism
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Funding for animal research alternatives reaches ‘inflection point’
The United States and Europe are dedicating hundreds of millions of dollars in funding to advance novel alternative methods, but not all neuroscientists see this as a positive step.
Funding for animal research alternatives reaches ‘inflection point’
The United States and Europe are dedicating hundreds of millions of dollars in funding to advance novel alternative methods, but not all neuroscientists see this as a positive step.
‘Friction-maxxing’ in school: Students should read primary literature, not AI summaries
Trainees need to learn how to identify a neuroscience paper’s major takeaways and integrate them into their understanding. This skill doesn’t come from outsourcing the work to large language models.
‘Friction-maxxing’ in school: Students should read primary literature, not AI summaries
Trainees need to learn how to identify a neuroscience paper’s major takeaways and integrate them into their understanding. This skill doesn’t come from outsourcing the work to large language models.
Head direction cells stably orient mice to outside world
The cells’ representations show little drift over time—unlike those of other navigation system neurons—and may provide a “rigid backbone” for more flexible sensory and cognitive responses.
Head direction cells stably orient mice to outside world
The cells’ representations show little drift over time—unlike those of other navigation system neurons—and may provide a “rigid backbone” for more flexible sensory and cognitive responses.