Disuse-driven plasticity in the human thalamus and putamen

Subcortical plasticity has mainly been studied using invasive electrophysiology in animals. Here, we leverage precision functional mapping (PFM) to study motor plasticity in the human subcortex during 2 weeks of upper-extremity immobilization with daily resting-state and motor task fMRI. We found previously that, in the cortex, limb disuse drastically impacts disused primary motor cortex functional connectivity (FC) and is associated with spontaneous fMRI pulses. It remains unknown whether disuse-driven plasticity pulses and FC changes are cortex specific or whether they could also affect movement-critical nodes in the thalamus and striatum. Tailored analysis methods now show spontaneous disuse pulses and FC changes in the dorsal posterior putamen and central thalamus (centromedian [CM], ventral-intermediate [VIM], and ventroposterior-lateral nuclei), representing a motor circuit-wide plasticity phenomenon. The posterior putamen effects suggest plasticity in stimulus-driven habit circuitry. Importantly, thalamic plasticity effects are focal to nuclei used as deep brain stimulation targets for essential tremor/Parkinson's disease (VIM) and epilepsy/coma (CM).

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Publication Details

Journal
Cell Reports
Published
2025-04-01
DOI
https://doi.org/10.1016/j.celrep.2025.115570
Citations
4
Primary Topic
Neurological disorders and treatments
Type
article
Field-Weighted Citation Impact
5.56
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article

Disuse-driven plasticity in the human thalamus and putamen

Andrew N. Van, Kristen M. Scheidter, Dillan J. Newbold, Benjamin P. Kay et al.
4 citations
Cell Reports
Neurological disorders and treatments
5.56
article

Disuse-driven plasticity in the human thalamus and putamen

Andrew N. Van, Kristen M. Scheidter, Dillan J. Newbold, Benjamin P. Kay, Nico U.F. Dosenbach, Abraham Z. Snyder, David F. Montez, Roselyne J. Chauvin, Marcus E. Raichle, Scott Marek, Julia Monk, Evan M. Gordon, Jarod L. Roland, Ashley N. Nielsen, Samuel R. Krimmel, Anxu Wang, Ryland L. Miller, Timothy O. Laumann, Athanasia Metoki, Vahdeta Suljic, Noah J. Baden, Nadeshka Ramirez-Perez, Forrest I. Whiting, Babatunde Adeyemo
article en
4 citations

Abstract

Subcortical plasticity has mainly been studied using invasive electrophysiology in animals. Here, we leverage precision functional mapping (PFM) to study motor plasticity in the human subcortex during 2 weeks of upper-extremity immobilization with daily resting-state and motor task fMRI. We found previously that, in the cortex, limb disuse drastically impacts disused primary motor cortex functional connectivity (FC) and is associated with spontaneous fMRI pulses. It remains unknown whether disuse-driven plasticity pulses and FC changes are cortex specific or whether they could also affect movement-critical nodes in the thalamus and striatum. Tailored analysis methods now show spontaneous disuse pulses and FC changes in the dorsal posterior putamen and central thalamus (centromedian [CM], ventral-intermediate [VIM], and ventroposterior-lateral nuclei), representing a motor circuit-wide plasticity phenomenon. The posterior putamen effects suggest plasticity in stimulus-driven habit circuitry. Importantly, thalamic plasticity effects are focal to nuclei used as deep brain stimulation targets for essential tremor/Parkinson's disease (VIM) and epilepsy/coma (CM).

Cell ReportsVol. 44(4)
Washington University in St. Louis (US), Mallinckrodt (United States) (US), Basque Center on Cognition, Brain and Language (ES), New York University (US)
Openalex Percentile: Top 5%
Neurological disorders and treatments
5.56
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