Learning to see in 3D with two eyes: the role of experience, plasticity and neurochemistry
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An article on learning and binocular vision for anyone interested in biology and the brain.
Royal Society Dorothy Hodgkin Research Fellow
The goal of my research is to understand how the brain transforms sensory information into something we can see and feel. The current focus of my research is how images from our two eyes are combined to create a 3-dimensional world. Our ability to see in depth arises in the cerebral cortex, where the similarity and differences in retinal images are compared and fused to create a single image. While early research suggested that stereopsis arises in the primary visual cortex, we now know that many regions in the visual hierarchy respond to binocular disparity. One critical objective is to understand to which extent different regions participate in stereopsis and binocular visuo-motor tasks.
My main methods are a combination of human brain imaging and precise measures of perception. Current neuro-imaging methods allow an insight into how neuronal populations respond to visual stimuli, and can also provide a profile of cortical neurochemicals. Recently, I've started working with volunteers with abnormal binocular vision to help us understand how changes in the balance between the two eyes can affect brain responses and brain chemistry.
MRI stereoscope: a miniature stereoscope for human neuroimaging
Ip IB. et al, (2022), eneuro, ENEURO.0382 - 21.2021
Mapping the visual world to the human brain.
Ip B. and Bridge H., (2021), Elife, 10
Memory recall involves a transient break in excitatory-inhibitory balance
Koolschijn RS. et al, (2021), eLife, 10
GABAergic inhibition in the human visual cortex relates to eye dominance.
Ip IB. et al, (2021), Sci Rep, 11
Investigating the neurochemistry of the human visual system using magnetic resonance spectroscopy
IP IB. and BRIDGE H., (2021), Brain Structure and Function