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Eye Movements and Brain Function
How oculomotor science reveals cerebellar motor learning, brainstem circuitry, and the neural basis of movement disorders
Elevate your neurological assessment by mastering how eye movements expose cerebellar, olivary, and brainstem dysfunction in complex cases.
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Course Description
Complex neurological cases often reveal their answers in the eyes. For clinicians trained in standard examination, eye movement analysis remains one of the most underutilized windows into cerebellar function, motor learning integrity, and brainstem circuitry. When movement disorders, ataxia, or oscillatory phenomena resist easy explanation, the oculomotor system often holds the map.
In this one-hour course, researcher Aasef Shaikh translates laboratory-level neuroscience into clinically actionable insight. You will gain a mechanistic understanding of how the cerebellum and inferior olive coordinate motor learning, why their disruption produces predictable oculomotor signatures, and how paraneoplastic and autoimmune processes generate saccadic oscillations through membrane hyperexcitability and reciprocal innervation. This is precision neuroscience applied to the examination room.
What you’ll learn:
- Identify how distinct eye movement classes localize structural brain lesions
- Explain the cerebellar and inferior olive roles in adaptive motor learning
- Recognize oculomotor signatures of cerebellar and olivary dysfunction
- Analyze saccadic adaptation across fast and slow learning timescales
- Apply membrane excitability principles to paraneoplastic saccadic oscillations
More About This Course
Eye movement analysis has long served as one of neurology's most precise diagnostic instruments, yet its deeper potential as a window into motor learning, cerebellar adaptation, and brainstem circuit integrity remains underutilized in everyday clinical practice. This course bridges that gap, translating cutting-edge oculomotor neuroscience into a framework clinicians can apply when examining patients with ataxia, oscillatory movement disorders, gait instability, or suspected autoimmune and paraneoplastic conditions. Core topics include cerebellar motor learning physiology, saccadic adaptation, inferior olive function, oculopalatal tremor, opsoclonus, and NMDA receptor encephalitis as a model of membrane hyperexcitability and saccadic instability.
This one-hour course equips clinicians with a mechanistic understanding of how distinct eye movement classes map to discrete neural substrates. You will learn how the cerebellum and inferior olive collaborate to encode, implement, and retain motor corrections across fast and slow learning timescales, and what the loss of each system reveals about the broader architecture of adaptive brain function. The oculomotor system becomes not simply a diagnostic target, but a research-grade tool for understanding how the brain learns and what breaks down when it cannot.
This course is designed for licensed clinicians in functional neurology, chiropractic neurology, neurology, and allied neurorehabilitation disciplines who are ready to advance beyond basic oculomotor examination into a deeper mechanistic framework. It is especially relevant for clinicians managing patients with cerebellar degeneration, autoimmune encephalitis, movement disorders, and complex brainstem presentations.
Components
Educational Syllabus
- The Oculomotor System as a Window Into Brain Function
- Eye movements offer unmatched access to brain circuitry. Learn why different movement classes map to discrete neural substrates, enabling topographic diagnosis that few examination tools can match.
- Motor Learning, the Cerebellum, and the Inferior Olive
- Gain a mechanistic grasp of how the cerebellum and inferior olive drive adaptive motor correction. Understand why Purkinje cell activity is the fulcrum of learning and what disrupts it.
- Saccadic Adaptation Across Fast and Slow Timescales
- Discover how the brain learns and retains motor corrections across multiple timescales. Understand how cerebellar versus olivary lesions differentially impair each phase of saccadic adaptation.
- Oscillation, Autoimmunity, and Saccadic Instability
- Decode the circuitry behind opsoclonus and paraneoplastic saccadic oscillations. Link NMDA receptor hyperexcitability and reciprocal innervation to unstable gaze, and identify therapeutic implications.
Venue, Hotels & Schedule
Also includes
Eye Movements and Brain Function
Elevate your neurological assessment by mastering how eye movements expose cerebellar, olivary, and brainstem dysfunction in complex cases.
$
$
(
$
The Carrick Institute team is ready to assist with enrollment, CE approval, or program planning. Email visit our CE Portal or Contact Us directly.