Celia Ford is a freelance science journalist who writes about brains, biotech and whatever makes people think about thinking. She earned her Sc.B. in cognitive neuroscience from Brown University and her Ph.D. in neuroscience from the University of California, Berkeley. She was a 2022 early-career science writing fellow at The Open Notebook and a 2023 AAAS mass media fellow at Wired. Celia is based in Berkeley, California.
Celia Ford
Contributing writer
From this contributor
Glow-in-the-dark labels accelerate AI-assisted animal motion tracking
The labeling technique trains machine-learning algorithms with larger datasets and less effort than ever before.
Glow-in-the-dark labels accelerate AI-assisted animal motion tracking
Method pinpoints cell-specific effects of autism-linked mutations
The approach, which combines CRISPR with single-cell analyses of organoids, suggests that intermediate progenitor cells are especially vulnerable to mutations associated with autism.
Method pinpoints cell-specific effects of autism-linked mutations
‘Social touch’ responses in mice gauged with unprecedented control
A new tool could help decipher the brain circuits underlying aversion to social touch, which is common in people with autism.
‘Social touch’ responses in mice gauged with unprecedented control
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Stress warps fear memories in multiple ways
Expanding the bounds of a fear memory or linking it to a neutral memory can shape a mouse’s fear response, two new studies show.
Stress warps fear memories in multiple ways
Expanding the bounds of a fear memory or linking it to a neutral memory can shape a mouse’s fear response, two new studies show.
How to be a multidisciplinary neuroscientist
Neuroscience subfields are often siloed. Embracing an integrative approach during training can help change that.
How to be a multidisciplinary neuroscientist
Neuroscience subfields are often siloed. Embracing an integrative approach during training can help change that.
Newfound gene network controls long-range connections between emotional, cognitive brain areas
The finding could help unravel gene regulatory networks and explain how genetic and environmental factors interact in neurodevelopmental conditions.
Newfound gene network controls long-range connections between emotional, cognitive brain areas
The finding could help unravel gene regulatory networks and explain how genetic and environmental factors interact in neurodevelopmental conditions.