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Explore a new paradigm for neurorehabilitation that focuses on task-specific, intense, resistance, and cardio training to optimize outcomes. Learn how early, speed-focused gait training can significantly improve overall function and quality of life. Uncover the importance of locomotor adaptation and central pattern generators in enhancing walking abilities for patients. Discover cutting-edge tools like body-weight support and treadmill training, neuromuscular electrical stimulation, and applied resistance techniques for optimal outcomes. Become the coach your neurorehab patients need to achieve remarkable progress in their rehabilitation journey.
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Like Athletes NeuroRehab Patients… • Benefit from task specific training • Benefit from intense practice • Benefit from both resistance and cardio training • Benefit from speed training • Need a great coach…YOU!!!
Rehabilitation of Walking…the New Paradigm • Earlier the better • Task specific • Outcomes are dosage dependent • Speed is important • Gait training improves overall function • Locomotor adaptation
Rehabilitation of Walking • Earlier the Better… • Earlier PT is started the better the functional outcome (Horn et al, 2005) • Gait training within 1st 3 hours best outcomes (Horn et al, 2005) • ICU Early Mobility
Rehabilitation of Walking • Task specific… • If walking is a primary goal PT should focus on walking • Better functional outcomes when functional tasks are practiced directly(Van Peppen et al, 2010) • Pre-gait activities do not translate into better walking outcomes • Time devoted to gait training correlated to ↑ gait speed(Richards et al, 1993)
Rehabilitation of Walking • Outcomes are dosage dependent… • Stroke survivors d/c’d as they reached “plateau” could demonstrate significant improvements in speed, muscle activation & gait efficiency with intense gait training (Moore et al, 2010) • It’s the # of steps that count
Rehabilitation of Walking • Speed is important… • Gait training at ↑ speed → higher self selected speed (Sullivan et al, 2002) • Walking speed correlated to functional ability, quality of life, risk for falls & potential for rehab (Fritz et al, 2009) • ↑ walking speed → improved symmetry, muscle activation & efficiency (Lamontagne et al, 2010)
Rehabilitation of Walking • Gait training improves overall function… • Stroke survivors who receive gait training within first 3 hours achieve higher FIM scores (ADL activities & toilet transfers) (Horn et al, 2005)
Rehabilitation of Walking • Locomotor adaptation… • Process of adjusting motor patterns to new walking challenges through trial and error practice
Rehabilitation of Walking • Locomotor adaptation… • CNS capable of changing walking pattern based on feedback & feedforward adjustments • Adaptations driven by preservation of symmetry, stability, safety & enhanced efficiency
Rehabilitation of Walking • Locomotor Adaptation • Tapping into Central Pattern Generators (CPG’s): • ↓ tension on gastroc-soleus • Elongation of hip flexors • Weightbearing in midstance • Applied resistance & split-belt treadmill training
Walking Rehabilitation…Tools for Optimal Outcomes • Body weight support and treadmill training (BWSTT) • NMES • Applied resistance and split-belt treadmill training
Tools for Optimal Outcomes:BWSTT ↑walking independence post SCI v. conventional therapy (Wernig et al, 1995) Improved walking speed, balance, motor recovery & balance post CVA (Barbeau et al, 2003) Improved short-step gait in Parkinson’s Disease (Miyai et al, 2002)
Tools for Optimal Outcomes:BWSTT Wernig et al, 1995
Tools for Optimal Outcomes:BWSTT ↑walking independence post SCI v. conventional therapy (Wernig et al, 1995) Improved walking speed, balance, motor recovery & balance post CVA (Barbeau et al, 2003) Improved short-step gait in Parkinson’s Disease (Miyai et al, 2002)
Tools for Optimal Outcomes:BWSTT Visintin et al, 1998
Tools for Optimal Outcomes:BWSTT Hesse et al, 1995
Tools for Optimal Outcomes:BWSTT ↑walking independence post SCI v. conventional therapy (Wernig et al, 1995) Improved walking speed, balance, motor recovery & balance post CVA (Barbeau et al, 2003) Improved short-step gait in Parkinson’s Disease (Miyai et al, 2002)
Why BWSTT? • Allows for early training • Safe for patients • Task specific • Ideal environment for: • Propogation of CPG’s • High dose training • Speed training
Tools for Optimal Outcomes:NMES • ↑ speed, ↓ falls & improved symmetry & function with Ness L300 post CVA or TBI(Hausdorff et al, 2006) • Improved walking symmetry & balance Ness L300 v. AFO post CVA or TBI(Weingarden et al, 2007)
Tools for Optimal Outcomes:NMES • Improved gait velocity & symmetry; continued up to a year; carry-over effect, post CVA with Ness L300(Laufer et al, 2009) • FES for patients post stroke ↓ spasticity, ↑ ankle DF torque; all patients in FES group walked and 85% returned home v. 53% & 46% (Yan et al 2004)
Why NMES? • Promotes muscle activation for task specific function • Allows for high dose training • Can help to ↓ spasticity • Activates neurons in the penumbra
Tools for Optimal Outcomes:Applied Resistance • Gait training in normal subjects with resisted dorsiflexion resulted in ↑ TA activation after resistance removed (Blanchette et al, 2011) • Gait training with resistance to swing resulted in changes in swing phase muscle activation
Tools for Optimal Outcomes:Split-Belt Treadmill • Split-belt treadmill training improved walking symmetry for patients post CVA (Reisman et al, 2007) • Gait adaptations following split-belt treadmill training transferred to over ground walking in both normal subjects and stroke survivors (Reisman et al, 2009)