Correlates of Gait and Cognition in Parkinson Disease
Understanding the motor-cognitive link through Timed Up and Go research and gait kinematics in Parkinson's disease
Uncover the motor-cognitive link in Parkinson's disease through emerging gait research and precision assessment strategies. 1 CE credit.
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Course Description
Parkinson's disease presents far beyond the basal ganglia, yet clinical assessment tools rarely capture the full scope of motor-cognitive interaction in real time. As gait analysis technology becomes more accessible and cognitive phenotyping gains traction in the literature, clinicians are positioned to detect meaningful changes earlier and with greater specificity than ever before.
In this one-hour course, Dr. Joshua Lander shares preliminary findings from his original IRB-approved research correlating Timed Up and Go phase performance with specific cognitive domains including working memory, visuospatial rotation, and response inhibition. Clinicians gain a framework for interpreting gait kinematics alongside cognitive assessment data, deepening their ability to characterize Parkinson's phenotypes and refine individualized therapeutic strategies.
What you’ll learn:
- Identify prodromal motor and non-motor signs across Parkinson's disease phases
- Apply Timed Up and Go phase analysis to assess motor-cognitive relationships
- Distinguish cognitive phenotypes in Parkinson's and their clinical implications
- Interpret gait kinematics including dorsiflexion and arm swing using markerless systems
- Correlate working memory, mental rotation, and response inhibition with gait data
More About This Course
The relationship between gait performance and cognitive function in Parkinson's disease is one of the most clinically meaningful frontiers in functional neurology today. As markerless gait analysis systems, dual-task protocols, and digital cognitive assessment platforms become increasingly available in clinical and research settings, practitioners who understand the neural substrates linking motor control to executive function, visuospatial processing, and response inhibition are better equipped to serve a population whose needs are growing rapidly.
This course presents original, IRB-approved research correlating Timed Up and Go phase metrics with specific cognitive domain scores in individuals with Parkinson's disease. Using a three-dimensional deep learning gait system and validated cognitive assessment tools including working memory tasks, mental rotation, and the Stroop incongruency paradigm, the research identifies statistically significant linear relationships between gait phase performance and cognitive function. Preliminary findings demonstrate moderate to strong correlations, particularly between turnaround time and visuospatial rotation, offering clinicians a new lens through which to interpret what gait tells us about what is happening upstream in the brain.
This course is designed for licensed healthcare clinicians with a foundation in neuroscience who work with or have an interest in Parkinson's disease, movement disorders, or neurorehabilitation. It is particularly relevant for functional neurologists, chiropractic neurologists, physical therapists, and occupational therapists seeking to integrate quantitative gait data with cognitive profiling in their clinical reasoning.
Dr. Joshua Lander brings a rigorous academic and clinical perspective to this content. His research is conducted through Sacred Heart University's Movement Lab in collaboration with the Parkinson's Body and Mind support group, whose founder recently joined the Michael J. Fox Foundation network. Dr. Lander's work represents the kind of practitioner-led inquiry that bridges frontline clinical observation with emerging evidence, giving clinicians access to data that is both scientifically grounded and immediately relevant to patient care.
Components
Educational Syllabus
- Parkinson's Disease as a Whole-Brain Disorder
- Move beyond the basal ganglia model and build a clinically sophisticated understanding of how synuclein pathology affects distributed networks spanning the olfactory bulb, locus coeruleus, enteric system, and cortex.
- Decoding the Prodromal Window Before Symptoms Emerge
- Gain the clinical insight to recognize early motor and non-motor signs including olfactory dysfunction, REM sleep disorder, gait slowness, and arm swing asymmetry that precede formal Parkinson's diagnosis by years.
- Cognitive Phenotyping and the Motor-Cognition Interface
- Explore how frontostriatal networks drive the relationship between movement and cognition, and why different Parkinson's phenotypes produce distinct cognitive profiles across working memory, visuospatial rotation, and response inhibition.
- Gait Kinematics Meet Cognitive Data in Live Research
- Examine preliminary findings from original IRB-approved research correlating Timed Up and Go phase metrics with cognitive domain scores, including the striking link between turnaround time and visuospatial rotation performance.
Venue, Hotels & Schedule
Also includes


Correlates of Gait and Cognition in Parkinson Disease
Uncover the motor-cognitive link in Parkinson's disease through emerging gait research and precision assessment strategies. 1 CE credit.
$
$
(
$
The Carrick Institute team is ready to assist with enrollment, CE approval, or program planning. Email visit our CE Portal or Contact Us directly.
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