

HUNTER SCHONE PhD
Neuroscientist
I study how the brain controls the body—and to what degree sensorimotor circuits can reorganize after injury or motor learning—to develop (neuro)technologies that can plug into preserved motor circuits to restore movement for people with severe motor disabilities. ​​​​
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I'm currently a postdoctoral research fellow supervised by Jennifer Collinger within Rehab Neural Engineering Labs at the University of Pittsburgh. I'll be applying for faculty positions during the fall of 2026.
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Previous labs:
Chris Baker, National Institutes of Health
Tamar Makin, University of Cambridge
Recent News:
September 2025
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Our preprint on the Stentrode endovascular brain-computer interface was released in medRxiv
August 2025
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Our paper scanning amputees before and after amputation was published in Nature Neuroscience
July 2025
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Awarded a 2-year NIH LRP Award, funded by NINDS
September 2024
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Awarded a 3-year NIH F32 Postdoctoral Fellowship, funded by the NIMH and the BRAIN Initiative​
May 2024​
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Honored to receive the Glushko Dissertation Prize from the Cognitive Science Society for my PhD work.
April 2024​
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Received the best poster award at the Neural Control of Movement Satellite Meeting
March 2024​
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Our paper on robotic hand control strategies was published in Nature Human Behaviour

PROJECTS
WHAT HAPPENS TO THE BRAIN'S BODY MAP WHEN A BODY-PART IS AMPUTATED?

This study is the first to ever investigate how the cortical body map changes before and after amputation. Using functional MRI, we scanned patients before and up to 5 years after undergoing an arm amputation. We discovered the brain's body map is strikingly preserved despite amputation.
[data + code] [doi] [pdf]


NATURAL AND UNNATURAL BIONIC LIMB CONTROL STRATEGIES
Should bionic limb control mimic the human body? In this study, we trained 60 users to operate a muscle-controlled supernumerary robotic arm over a week with multiple pre-post motor and neural (fMRI) measures. Control strategies either mimicked natural limb control or were entirely arbitrary. We show the unique advantages of non-biomimetic (arbitrary) control strategies for prosthetic limbs.
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DEVELOPING INTRACORTICAL BRAIN-COMPUTER INTERFACES
As a postdoc on the Cortical Bionics research team, I'm working to develop next-generation brain-computer interface technologies to restore lost sensorimotor function. Towards this long-term vision, I've made steady efforts on multiple fronts:

NEURAL HAND AND TOOL REPRESENTATIONS IN EXPERT TOOL USERS
In this fMRI study, we scanned a group of expert tool users (London Litterpickers) and a group of novices to see whether longterm experience using a tool like a hand might lead to the brain adapting to represent it more like a biological hand, a concept known as technological embodiment.
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[data + stimuli] [doi] [pdf] [interview]

PHANTOM LIMB PAIN
The majority of amputees experience phantom limb pain (PLP) yet we still know very little about the condition. The goal of this review is to help generate consensus in the field on how best to research PLP, from phenomenology to treatment. Written with some of the leading researchers in the field.
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[doi] [pdf] [twitter-thread​]

COGNITION OF LIMBLESS INDIVIDUALS
Are individuals born without hands impaired in their ability to judge whether a hand image is a left or right hand? In this study, we test the role of motor hand experience when making visual bodily judgements.
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[data + stimuli] [doi] [pdf] [twitter-thread]
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PROSTHETIC LIMB MOTOR CONTROL
Brain plasticity research teaches us that the earlier we train to acquire new skills (or use a new technology) the better we benefit from this practice as adults. We studied individuals born without a hand and individuals who lost a hand in life to better understand the role early hand experience plays in shaping prosthetic limb motor control in adulthood.
[data] [doi] [pdf] [twitter-thread]













