Build the neurological foundation that connects brain function, sensory input, and neuromuscular control into a unified clinical framework.
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Course Description
Complex neurological cases rarely fail because of missing techniques. They stall when the foundational science connecting sensory input, cortical development, and neuromuscular output is incomplete. When those links are unclear, clinical reasoning becomes reactive rather than precise.
This course builds the neurological architecture that advanced functional neurology demands. Clinicians gain a rigorous understanding of how the brain develops through sensory dependency, how neurons generate and maintain electrical activity, and how descending systems shape muscle tone, movement, and pain. From the ionic mechanisms of the action potential to the clinical implications of soft pyramidal weakness, each concept is connected directly to examination and treatment strategy, giving clinicians a framework that elevates both the precision and the confidence of every patient encounter.
What you’ll learn:
- Trace the neuroscience history that shaped today's functional neurology models
- Explain how thalamocortical development drives lifelong cortical function
- Apply ionic membrane physiology to clinical examination and metabolic findings
- Identify neurotransmitter pathways and their links to clinical disorders
- Execute neuromuscular assessments and targeted extremity adjustments
More About This Course
The clinical neurosciences have always advanced in cycles. What practitioners accepted as settled science in one decade has been reframed by new imaging technology, refined cellular biology, and a deeper understanding of how the brain organizes itself through experience. For clinicians practicing functional neurology, chiropractic neurology, or advanced neurorehabilitation, the ability to track and apply that evolving science is not optional. It is the foundation of credible, effective care.
This course provides the scientific architecture behind modern functional neurology practice. Beginning with the history of neuroscience, from Galen's fluid mechanics and Descartes' dualism through Cajal's neuron doctrine, Sherrington's reflex integration, and the discovery of synaptic neurotransmission, the course establishes how current models emerged and why they will continue to evolve. That historical perspective is not academic. It is clinically liberating. Understanding that our frameworks are always provisional frees the advanced clinician to pursue better answers rather than defend outdated ones.
From that foundation, the course moves into the biology that drives clinical decisions. Neuronal development, cortical column formation, thalamocortical dependency, and the embryological origins of sensory-motor integration are examined with direct reference to their clinical significance. Ionic membrane physiology, resting membrane potential, action potential propagation, and the neurochemistry of major neurotransmitters are covered with precision, and each mechanism is connected to the examination findings and metabolic vulnerabilities clinicians encounter in complex cases. Glucose metabolism, oxygen sufficiency, electrolyte homeostasis, vitamin cofactor deficiencies, and anemia are addressed as active variables in neurological function, not background biochemistry.
The course then moves into applied neuromuscular science. Muscle spindle physiology, Golgi tendon organ integration, descending reticulospinal control, soft pyramidal weakness patterns, and the mechanics of specific extremity adjustments are presented as an integrated system. Clinicians leave with both the conceptual framework and the hands-on clinical tools to assess and address neuromuscular dysfunction with greater specificity.
This course is designed for licensed clinicians with existing neuroscience training who are ready to integrate that knowledge into a more precise and unified clinical model. It is particularly well-suited for chiropractors, chiropractic neurologists, physical therapists, and other rehabilitation specialists pursuing advanced competency in functional neurology.
Components
Educational Syllabus
- The Science That Built Modern Neurology
- From Galen's fluid theories to Cajal's neuron doctrine, trace the discoveries that shaped functional neurology and understand why evolving science demands an open, adaptive clinical mindset.
- How the Brain Develops: Sensory Input as the Architect
- Explore how vestibular and spinal afferents are the first inputs to emerge in development, and how thalamocortical connections formed before birth continue to govern cortical organization throughout life.
- Embryological Origins of the Nervous System
- Follow neural tube formation through neurulation, understand how alar and basal plate differentiation links sensory input to motor and autonomic output, and recognize key clinical implications of developmental failures.
- Neural Tube Defects and Tethered Cord Syndrome
- Identify the most clinically relevant neural tube defects, their risk factors, and the diagnostic features of tethered cord syndrome, including the multisystem presentation patterns most likely encountered in practice.
- Cortical Columns and Thalamic Dependency
- Understand how cortical columns form in an inside-out sequence, how thalamic neurons precede and drive cortical neurogenesis, and why disruptions in sensory input reorganize cortical maps throughout the lifespan.
- Why the Brain Exists: Movement as the Central Output
- Examine the evolutionary case for the brain as a movement-generating organ, understand the Dentato-Thalamo-Cortical-Olivo-Cerebellar loop, and see why motor output is the most reliable window into central integration.
- Neuronal Structure, Genetics, and Cellular Vulnerabilities
- Connect neuronal cytoarchitecture and immediate early gene responses to clinical conditions including tauopathy, alpha-synucleinopathy, and the environmental factors that accelerate neurodegeneration.
- Membrane Potentials, Ion Channels, and the Action Potential
- Master the ionic mechanisms that establish resting membrane potential, generate and propagate action potentials, and understand how electrolyte imbalances, deafferentation, and metabolic stress shift neuronal excitability.
- Synaptic Transmission and Neuromodulation
- Explore chemical and electrical synaptic transmission, inhibitory and disinhibitory circuits, long-term potentiation, and the neurotransmitter systems most relevant to clinical disorders of tone, pain, mood, and cognition.
- Metabolic Foundations of Brain Function
- Examine how glucose metabolism, oxygen sufficiency, and mitochondrial integrity sustain neuronal firing, and connect disruptions in these systems to cortical spreading depression, neurodegeneration, and clinical metabolic syndromes.
- Electrolytes, Vitamins, and Neurological Disease
- Connect hyper and hypokalemia, calcium dysregulation, sodium imbalances, and B-vitamin deficiencies to specific neurological presentations, laboratory findings, and the examination signs clinicians need to recognize.
- Muscle Spindles, Golgi Tendon Organs, and Proprioceptive Control
- Develop a precise understanding of spindle structure, gamma motor neuron regulation, spindle gain and sensitivity, and how Golgi tendon organ integration shapes muscle tone and movement precision in your patients.
- Descending Systems, Hemisphericity, and Soft Pyramidal Weakness
- Understand how reticulospinal, vestibulospinal, and corticospinal pathways establish regional muscle tone patterns, how cortical hemisphericity generates soft pyramidal weakness, and how to identify and examine it clinically.
- Clinical Assessment Using the Physiologic Blind Spot
- Learn the neurological basis of perceptual filling-in, understand how thalamocortical and parieto-temporal integration determines blind spot size and shape, and master this noninvasive assessment as a clinical hemisphericity indicator.
- Neuromuscular Applications: Extremity Adjusting for Pyramidal Weakness
- Integrate spindle physiology, tendinous load mechanics, and descending system anatomy into a structured protocol of upper and lower extremity adjustments that directly address cortical hemisphericity and neuromuscular imbalance.
Venue, Hotels & Schedule
Adelaide, Australia
Venue
Australian Chiropractic College (ACC) Adelaide Campus
Adelaide Campus, Level 2/101 Grenfell St,
Adelaide SA 5000, Australia
Phone:
Airport:
Schedule:
Friday: 1:00 PM to 7:00 PM
Saturday: 9:00 AM to 7:00 PM
Sunday: 9:00 AM to 3:00 PM
Time Zone:
Dress Code:
Also includes


History, Development & Neuromuscular Applications
Build the neurological foundation that connects brain function, sensory input, and neuromuscular control into a unified clinical framework.
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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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