Simon Prades
Illustrator
From this contributor
Knowledge graphs can help make sense of the flood of cell-type data
These tools, widely used in the technology industry, could provide a foundation for the study of brain circuits.
Knowledge graphs can help make sense of the flood of cell-type data
Where do cell states end and cell types begin?
High-throughput transcriptomics offers powerful new methods for defining different types of brain cells. But we need to think more explicitly about how we use these data to distinguish a cell’s permanent identity from its transient states.
Where do cell states end and cell types begin?
Building a brain: How does it generate its exquisite diversity of cells?
High-throughput technologies have revealed new insights into how the brain develops. But a truly comprehensive map of neurodevelopment requires further advances.
Building a brain: How does it generate its exquisite diversity of cells?
Change of heart and mind: Autism’s ties to cardiac defects
Children with congenital heart disease have an increased likelihood of autism. Why?
Change of heart and mind: Autism’s ties to cardiac defects
Explore more from The Transmitter
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.