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National Institute for Physiological Sciences


Restoring paretic hand function via an artificial neural connection bridging spinal cord injury

A novel artificial neural connection bridges the lost pathway between brain and spinal cord, allowing for volitional control of upper limb movement after damage. This study demonstrates that artificial neural connections can compensate for interrupted descending pathways and promote voluntary control.

SourceNational Institute for Physiological Sciences·JournalFrontiers in Neural Circuits·DateApr 11, 2013

Induction of mild inflammation leads to cognitive deficits related to schizophrenia

Researchers identified a mutant mouse model of schizophrenia that exhibits mild chronic brain inflammation and cognitive deficits. The study found that Shn-2 deficiency leads to an 'immature Dentate Gyrus', which produces schizophrenia-related phenotypes. Chronic administration of anti-inflammatory drugs rescued working memory deficit ...

SourceNational Institute for Physiological Sciences·JournalNeuropsychopharmacology·DateFeb 6, 2013

Abnormal oscillation in the brain causes motor deficits in Parkinson's disease

Research at National Institute for Physiological Sciences found abnormal 'oscillatory' electrical signals in subcortical nuclei cause severe motor deficits in Parkinson's disease. Chemical inhibition of the subthalamic nucleus improved motor impairments by reducing oscillations, providing clues for new treatments.

SourceNational Institute for Physiological Sciences·JournalEuropean Journal of Neuroscience·DateNov 1, 2011

A 3-D reconstructed image of neural dendritic trees using the advanced electron microscope technology

The study reveals that neurons normalize receiving signals by adjusting their morphological characteristics, making it easier to receive farther signals. The research team's 3D image reconstruction of minute dendritic tree morphology demonstrates the size and distance of dendritic trees determine signal clarity and strength.

SourceNational Institute for Physiological Sciences·JournalScientific Reports·DateSep 13, 2011

Abnormal neural activity recorded from the deep brain of Parkinson's disease and dystonia patients

Abnormal neural activity was recorded from the deep brain of Parkinson's disease and dystonia patients, confirming previous animal study results. The findings suggest that cortically evoked neural responses in the basal ganglia can be used to determine target locations for deep brain stimulation electrodes.

SourceNational Institute for Physiological Sciences·JournalMovement Disorders·DateMar 9, 2011