Timothy Roberts is Oberkircher Family Chair in Pediatric Radiology and vice-chair of radiology research at the Children’s Hospital of Philadelphia. He is also professor of radiology at the University of Pennsylvania.
Timothy Roberts
Professor of radiology
Children's Hospital of Philadelphia
From this contributor
In quest for autism biomarkers, this technique has magnetic appeal
To find biological markers of autism, scientists would be wise to measure the brain's electrical activity along with the resulting magnetic fields.

In quest for autism biomarkers, this technique has magnetic appeal
When tracking brain activity, timing can be key
A brain imaging technique called magnetoencephalography characterizes not just what is happening in the brain, but also where and when, making it ideally suited for studying autism.

When tracking brain activity, timing can be key
Imaging biomarkers could signal autism spectrum disorder
There does not appear to be a single genetic or environmental cause of autism, and given the heterogeneity of symptoms, coming up with a clear yes or no test for autism is challenging. Timothy Roberts argues that imaging and electrophysiology are key in the search for autism biomarkers.

Imaging biomarkers could signal autism spectrum disorder
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Gene variants accumulate in older men’s sperm; and more
Here is a roundup of autism-related news and research spotted around the web for the week of 20 October.

Gene variants accumulate in older men’s sperm; and more
Here is a roundup of autism-related news and research spotted around the web for the week of 20 October.
This paper changed my life: Sandra Jurado marvels at the first-ever 3D model of a synaptic vesicle
In this 2006 Cell paper, Shigeo Takamori and his colleagues showcased the molecular machinery of synaptic vesicles in outstanding detail. Their work taught me that these aren’t just passive containers for neurotransmitters but dynamic, precision-built nanomachines.

This paper changed my life: Sandra Jurado marvels at the first-ever 3D model of a synaptic vesicle
In this 2006 Cell paper, Shigeo Takamori and his colleagues showcased the molecular machinery of synaptic vesicles in outstanding detail. Their work taught me that these aren’t just passive containers for neurotransmitters but dynamic, precision-built nanomachines.
Whole-brain, bottom-up neuroscience: The time for it is now
Applying new tools to entire brains, starting with C. elegans, offers the opportunity to uncover how molecules work together to generate neural physiology and how neurons work together to generate behavior.

Whole-brain, bottom-up neuroscience: The time for it is now
Applying new tools to entire brains, starting with C. elegans, offers the opportunity to uncover how molecules work together to generate neural physiology and how neurons work together to generate behavior.