Brady Huggett is features editor at The Transmitter, where he writes and edits features and long-form projects. He is also the creator and host of the “Synaptic” podcast. Before joining The Transmitter in 2022, he served as business editor at Nature Biotechnology, and prior to that was the managing editor of BioWorld.
Brady Huggett
Features editor
The Transmitter
From this contributor
When autistic kids grow up, Chapter 5: The war dial
When autistic kids grow up, Chapter 4: How did things unfold?
When autistic kids grow up, Chapter 3: Would there be data?
When autistic kids grow up, Chapter 2: “You need to go to college”
When autistic kids grow up, Chapter 1: Those people
Education
- M.A. in creative writing, The New School
- M.A. in journalism, University of North Carolina at Chapel Hill
- B.S. in biology from Wake Forest University in Winston-Salem, North Carolina
Explore more from The Transmitter
New findings begin to resolve theta sweep debate
Theta sweeps have been mired in controversy for decades, but the field is starting to converge on a consensus view of their function.
New findings begin to resolve theta sweep debate
Theta sweeps have been mired in controversy for decades, but the field is starting to converge on a consensus view of their function.
Reverse engineering neural circuits; success stories from computational neuroscience
Kevin Mitchell talks with Timothy Behrens about ring attractors, the role of innate structure, and an expanded view of cognitive maps.
Reverse engineering neural circuits; success stories from computational neuroscience
Kevin Mitchell talks with Timothy Behrens about ring attractors, the role of innate structure, and an expanded view of cognitive maps.
Alison Barth discovers how different neuron types contribute to cortical function
Barth uses learning tasks in mice as a tool to drive synaptic plasticity in the sensory cortex, hoping to unlock more general principles of how the cortex works.
Alison Barth discovers how different neuron types contribute to cortical function
Barth uses learning tasks in mice as a tool to drive synaptic plasticity in the sensory cortex, hoping to unlock more general principles of how the cortex works.