Current opinion in neurology · 2026
What can we learn from eye movements in movement disorders and Parkinson's disease?
СтатьяОбзорНазвание и аннотация: Перевод в очереди
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Ravat Parthvi, Ghasia Fatema F, Shaikh Aasef G
Аннотация
PURPOSE: Studies of eye movements have evolved from clinical phenomenology to a probe of neural circuitry, cognition, and behavior offering a powerful, noninvasive window into nervous system function. In Parkinson's disease (PD), ocular motor control has emerged as a uniquely informative model system, reflecting dysfunction across motor, cognitive, and executive domains.
RECENT FINDINGS: Recent advances span four interconnected areas: executive behavior and cognition, gait and freezing of gait (FOG), neuromodulation, and machine learning. Antisaccades and related paradigms reveal early and progressive executive dysfunction in PD, linked to dopaminergic disruption of fronto-striatal and basal ganglia circuits. Naturalistic eye-tracking metrics further act as proxy markers of cognition, planning, and emotion processing. Oculomotor abnormalities also have direct functional consequences for visual search, walking, turning, and FOG, with shared neural substrates in frontal cortex, basal ganglia, and mesencephalic locomotor networks. Deep brain stimulation provides causal insight into these circuits, demonstrating target-, parameter-, and task-specific trade-offs between motor facilitation and inhibitory control. Finally, machine learning and emerging virtual reality (VR)- and mobile-based eye-tracking technologies enable high-dimensional analysis, early diagnosis, cognitive staging, and prognostic prediction, including identification of prodromal FOG.
SUMMARY: Collectively the research has offered scalable biomarkers and mechanistic insight that bridge cognition, movement, and neuromodulation.
RECENT FINDINGS: Recent advances span four interconnected areas: executive behavior and cognition, gait and freezing of gait (FOG), neuromodulation, and machine learning. Antisaccades and related paradigms reveal early and progressive executive dysfunction in PD, linked to dopaminergic disruption of fronto-striatal and basal ganglia circuits. Naturalistic eye-tracking metrics further act as proxy markers of cognition, planning, and emotion processing. Oculomotor abnormalities also have direct functional consequences for visual search, walking, turning, and FOG, with shared neural substrates in frontal cortex, basal ganglia, and mesencephalic locomotor networks. Deep brain stimulation provides causal insight into these circuits, demonstrating target-, parameter-, and task-specific trade-offs between motor facilitation and inhibitory control. Finally, machine learning and emerging virtual reality (VR)- and mobile-based eye-tracking technologies enable high-dimensional analysis, early diagnosis, cognitive staging, and prognostic prediction, including identification of prodromal FOG.
SUMMARY: Collectively the research has offered scalable biomarkers and mechanistic insight that bridge cognition, movement, and neuromodulation.