Professor Adam Guastella is the Michael Crouch Chair in Child and Youth Mental Health. His position is based at both Sydney Children’s Hospital at Westmead and the Brain and Mind Centre, University of Sydney. His work aims to build collaborative partnerships between researchers, clinicians, and services to ensure that children and families receive the best available assessments and treatments to support well-being. As part of this role, he is the co-lead of the Child-Neurodevelopment and Mental Health Team for the University of Sydney. This team aims to solve complex problems for children with neurodevelopmental disorders and their families with a team of multi-disciplinary professors across the university. He is also the co-lead for the child bio-informatics hub for the University of Sydney, applying technology application to support well-being and research with families.
Adam Guastella
Professor
Brain and Mind Centre; Children’s Hospital Westmead Clinical School
From this contributor
To accelerate the study of neurodevelopment, we need a transdiagnostic framework
Our tendency to focus on one condition at a time likely silos expertise and services—and obscures critical connections across diagnostic categories.
To accelerate the study of neurodevelopment, we need a transdiagnostic framework
Explore more from The Transmitter
‘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.
Juan Gallego discusses how manifolds are transforming our understanding of the coordination of neuronal population activity
A wealth of evidence supports the view that neural manifolds are real and useful, Gallego says, even if they may not completely solve the age-old mind-body problem.
Juan Gallego discusses how manifolds are transforming our understanding of the coordination of neuronal population activity
A wealth of evidence supports the view that neural manifolds are real and useful, Gallego says, even if they may not completely solve the age-old mind-body problem.