Artificial neural networks
Recent articles
This paper changed my life: Appreciating John Hopfield’s brilliant neural network
In a 1982 paper, the Nobel laureate created his namesake recurrent neural network—work that taught Maria Geffen to always ground research questions in biology.
This paper changed my life: Appreciating John Hopfield’s brilliant neural network
In a 1982 paper, the Nobel laureate created his namesake recurrent neural network—work that taught Maria Geffen to always ground research questions in biology.
Kim Stachenfeld on the dance between neuroscience and artificial intelligence
As a researcher at both Google DeepMind and Columbia University, Stachenfeld offers cross-disciplinary insight into how to understand the brain.
Kim Stachenfeld on the dance between neuroscience and artificial intelligence
As a researcher at both Google DeepMind and Columbia University, Stachenfeld offers cross-disciplinary insight into how to understand the brain.
Explore more from The Transmitter
Human brain organoids flourish in emptied mouse cortex
The chimeric mice could help untangle the biology of human brain development or conditions such as autism.
Human brain organoids flourish in emptied mouse cortex
The chimeric mice could help untangle the biology of human brain development or conditions such as autism.
What if Hegel were a neuroscientist?
Andrea Gambarotto shares what Hegel and enactivism have in common: an agency-first approach to understanding minds and brains.
What if Hegel were a neuroscientist?
Andrea Gambarotto shares what Hegel and enactivism have in common: an agency-first approach to understanding minds and brains.
This paper changed my life: Transformative work in addiction neuroscience
A 2011 Nature study found that loss of a nicotinic receptor subunit leads to increased nicotine intake in mice. The work set the standard for how to functionally validate genetic association study findings in neuroscience.
This paper changed my life: Transformative work in addiction neuroscience
A 2011 Nature study found that loss of a nicotinic receptor subunit leads to increased nicotine intake in mice. The work set the standard for how to functionally validate genetic association study findings in neuroscience.