The big idea (in plain language)
Chiropractic neurology—also called functional neurology—is a post-doctoral, neuroscience-based subspecialty within chiropractic that focuses on how the nervous system is working (its function), not just whether there is a structural lesion on imaging. Doctors train to localize subtle functional asymmetries in brain, brainstem, cerebellar, vestibular, spinal, and peripheral systems through detailed bedside examination, then apply targeted, non-pharmaceutical, non-surgical interventions to drive neuroplastic change. These interventions are chosen and progressed based on ongoing exam findings and patient-reported outcomes.
Where did it come from?
The roots of chiropractic neurology trace to the late 1970s and early 1980s, when Canadian-trained chiropractor and educator Frederick R. Carrick began formalizing a clinical approach that emphasized bedside neuro-localization and activity-based rehabilitation to modulate neural networks. The therapeutic framework of functional neurology was founded in 1979, and its early development was driven by post-graduate teaching and clinical experimentation.
As the field matured, professional governance followed. The American Chiropractic Academy of Neurology (ACAN) was an early certifying body; in 1994 it was replaced by the American Chiropractic Neurology Board (ACNB), which today oversees diplomate standards and examinations.
Educational infrastructure also expanded. The Carrick Institute has offered structured neuroscience coursework for decades, and ACNB remains the specialty board for credentialing (Diplomate of the ACNB, or DACNB).
What makes it different from “regular chiropractic”?
Two distinctions stand out:
- Scope and tools. While general chiropractic focuses largely on musculoskeletal complaints, chiropractic neurologists complete additional, multi-year training in clinical neuroscience, oculomotor and vestibular testing, sensorimotor integration, autonomic regulation, and cognitive-affective factors that influence function. The day-to-day toolkit centers on precise sensory, motor, oculomotor, vestibular, proprioceptive, cognitive, and autonomic exercises tailored to a patient’s exam.
- Neuroplasticity as the operating system. The aim is to exploit the nervous system’s capacity to change with specific, repeated, meaningful input—principles outlined in the neurorehabilitation literature such as specificity, intensity, repetition, salience, and timing.
How a chiropractic neurology assessment typically works
A visit often feels like a hybrid of a neurologic exam, a vestibular/oculomotor lab, and a high-touch functional evaluation. Expect elements like:
- History and symptom profiling: onset, triggers, diurnal patterns, autonomic complaints, sleep, and cognitive load.
- Cranial nerve and long-tract testing: to localize brainstem and cortical involvement.
- Oculomotor and vestibular testing: pursuits, saccades, antisaccades, optokinetic responses, vestibulo-ocular reflex (VOR), head impulse testing, gaze stability.
- Cerebellar and sensorimotor screens: finger-nose-finger, dysdiadochokinesia, Romberg variants, stance/gait analysis, dual-tasking, reaction time.
- Autonomic regulation checks: orthostatic vitals; sometimes clinics may integrate psychophysiological tools to assess balance between sympathetic and parasympathetic activity.
Findings are integrated to map which networks are under- or over-performing. That map guides targeted inputs.
What do treatments look like?
Because programs are individualized, no two plans look the same. Common categories include:
- Oculomotor and visuovestibular rehabilitation. Precisely dosed gaze stabilization, saccadic and pursuit training, optokinetic stimulation, VOR adaptation/substitution, and head-eye coordination drills. Evidence supports vestibular rehabilitation for unilateral peripheral vestibular disorders, and similar frameworks are adapted for central conditions.
- Sensorimotor and cerebellar training. Balance and postural control progressions, joint-position sense work, split-stance and dynamic surfaces, rhythmic stabilization, metronome-timed limb and truncal tasks—often designed to bias specific cerebellar or cortical networks.
- Autonomic regulation strategies. Breathing-based training and other techniques may be layered to improve vagal tone and stress reactivity. These are especially relevant when dysautonomia, anxiety amplification, or post-concussive symptoms are present.
- Cognitive-motor dual-tasking. Once baseline tolerance is achieved, clinicians add attention, working memory, or visual search demands to motor tasks to reflect real-world constraints such as school, work, or sport.
- Lifestyle and pacing frameworks. Sleep, graded exposure to stimulus (light, sound, motion), nutrition basics, hydration, and return-to-learn/work/sport planning help protect plasticity gains between visits.
The common thread is specificity: drills are selected and advanced only if they meaningfully improve target metrics without provoking maladaptive responses.
Who might benefit?
Chiropractic neurologists often co-manage complex, lingering, or multi-system cases where function, not only structure, needs attention—for example:
- Vestibular disorders such as unilateral hypofunction or vestibular migraine where gaze stabilization and balance retraining are key.
- Post-concussion trajectories with visual motion sensitivity, cognitive fatigue, cervicogenic contributions, and autonomic dysregulation that respond to progressive, multimodal dosing.
- Cerebellar-pattern findings such as ataxic features, dysmetria, and timing problems where targeted coordination work and visual-motor drills can be titrated to tolerance.
- Chronic neck or back pain with sensorimotor deficits, where reposition sense, reflexive stabilization, and graded exposure improve control and confidence.
- Functional neurologic patterns, which involve symptom-network dysregulation without structural lesion, approached through education, graded sensory-motor retraining, and autonomic calming strategies.
How it fits with conventional care
Chiropractic neurology is not a replacement for emergency medicine, neurology, neurosurgery, psychiatry, or physiotherapy. It overlaps with—and often borrows from—neuro-otology, vestibular therapy, sports neuro-rehab, and behavioral medicine. The value proposition is the deep bedside neuro-localization paired with fine-grained dosing of non-pharmacologic inputs to nudge specific networks toward better performance.
This makes it a useful partner for:
- Patients who have “normal imaging” yet remain symptomatic.
- Cases where medication provides partial relief but function remains limited.
- Return-to-learn/work/sport plans that need stepwise progression with objective guardrails.
What training looks like
After the chiropractic doctorate, candidates typically complete hundreds of hours of post-graduate neuroscience education and mentorship, then sit for the ACNB diplomate examinations. The Carrick Institute is one of the most established providers of this training, and programs are designed to reflect advances in neuroscience, vestibular rehabilitation, and neuroplasticity-based therapy.
If you or someone you love is suffering from symptoms that you cannot find answers for and you would like to learn how chiropractic neurology might be able to help, contact the team at Georgia Chiropractic Neurology Center today. We look forward to hearing from you.
Written by Sophie Hose, DC, MS, DACNB, CCSP
Peer-Reviewed References
- Kleim JA, Jones TA. Principles of experience-dependent neural plasticity: implications for rehabilitation after brain damage. J Speech Lang Hear Res. 2008;51(1):S225–S239.
- Carrick FR. Neurophysiological implications in learning: a basis for the practice of functional neurology. Funct Neurol Rehabil Ergon. 2011;1(3):233–254.
- Herdman SJ, Clendaniel RA, editors. Vestibular Rehabilitation. 4th ed. Philadelphia: F.A. Davis; 2014.
- Schmahmann JD. The role of the cerebellum in cognition and emotion: personal reflections since 1982 on the dysmetria of thought hypothesis, and its historical evolution from theory to therapy. Neuropsychol Rev. 2010;20(3):236–260.