Simon J. Makin is an auditory perception researcher turned science journalist. Originally from Liverpool, he has a Ph.D. in computational auditory modeling from the University of Sheffield. His writing has appeared in Nature, Scientific American and New Scientist, among other places.
Simon Makin
Science writer
From this contributor
Holographic mesoscope reads, writes from different cortical regions simultaneously
The tool could help reveal how information transmission between areas relates to perception, cognition and behavior.
Holographic mesoscope reads, writes from different cortical regions simultaneously
Optimized two-photon microscopy enables voltage imaging at multiple depths
The tool could reveal how information flows within and between cortical layers during neural processing.
Optimized two-photon microscopy enables voltage imaging at multiple depths
Designer synapses edit brain circuits in living animals
The approach could help elucidate relationships between circuit structure and function, as well as the role of natural electrical synapses.
Designer synapses edit brain circuits in living animals
From 0 to 60 in 10 years
After a decade of fast-paced discovery, researchers are racing toward bigger datasets, more genes and a deeper understanding of the biology of autism.
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Is it time for neuroscience to shift its focus from a computational mind to a navigating mind?
Andrea Hiott explains her navigational approach to the mind, and why now is the time to embrace seemingly paradoxical findings in neuroscience.
Is it time for neuroscience to shift its focus from a computational mind to a navigating mind?
Andrea Hiott explains her navigational approach to the mind, and why now is the time to embrace seemingly paradoxical findings in neuroscience.
Human brain organoids come of age—but still have room to grow
The U.S. government has touted organoids as an alternative to animals for studying the brain. The model has improved since its debut in 2013, but scientists are still working to overcome key limitations: immaturity, consistency and the lack of vascularization.
Human brain organoids come of age—but still have room to grow
The U.S. government has touted organoids as an alternative to animals for studying the brain. The model has improved since its debut in 2013, but scientists are still working to overcome key limitations: immaturity, consistency and the lack of vascularization.
Finding neuroheterogeneity’s sweet spot
Once thought to be detrimental to memory processing, neuronal diversity—at the right ‘Goldilocks’ dose—is a new boon to theoretical neuroscience.
Finding neuroheterogeneity’s sweet spot
Once thought to be detrimental to memory processing, neuronal diversity—at the right ‘Goldilocks’ dose—is a new boon to theoretical neuroscience.