Video Summary (AI-Assisted):
Migraine is not simply a headache. It is a complex neurological disorder rooted in sensory processing failure and metabolic vulnerability. In a clinical webinar hosted by Erchonia EMEA, Dr. John Wayne Elphinstone, functional neurologist and creator of the Beyond Migraine framework, presented a detailed exploration of the migraine pain pathway and demonstrated how targeted laser application can support neurological regulation and mitochondrial function.
This session integrated neuroanatomy, mitochondrial science, and clinical laser protocols into a structured and practical framework for clinicians.
Migraine Is a Neurological Disease — Not Just Head Pain
Migraine affects more than one billion people globally and remains one of the leading causes of years lived with disability. Chronic migraine alone affects 1–2% of the UK population.
Migraine is a disorder of sensory processing and neurological regulation — not merely vascular dilation or muscular tension.
Primary vs Secondary Migraine
Before intervention, clinicians must distinguish between migraine types.
Secondary Migraine
Occurs as a consequence of another condition such as infection, alcohol exposure, fever, or systemic illness. Treatment must address the underlying cause.
Primary Migraine
Occurs without a clear external diagnosis. These migraines stem from neurological vulnerability and sensory dysregulation.
Primary migraine is further classified as:
Episodic Migraine
More than five migraines per year.
Chronic Migraine
At least 15 headache days per month, with eight meeting migraine criteria.
The Five Phases of Migraine
Migraine unfolds across distinct neurological stages.
Interictal Phase
The period between attacks. Sensory hypersensitivity and inflammatory priming persist despite apparent normalcy.
Premonitory Phase
Begins up to 48 hours before pain onset. Driven by hypothalamic dysregulation.
Aura Phase
Experienced in roughly one-third of patients. Caused by cortical spreading depression.
Headache Phase
Severe throbbing pain with photophobia, phonophobia, nausea, and functional impairment.
Postdrome Phase
Neurological recovery phase marked by fatigue and cognitive sluggishness.
The Seven Neurological Pillars of Migraine
Dr. Elphinstone outlined seven key structures involved in migraine pathophysiology:
1. Trigeminal Cervical Nucleus
2. Medulla (Vagal Nuclei and Rostral Ventromedial Medulla)
3. Cerebellum and Vestibular Nuclei
4. Pons
5. Midbrain
6. Hypothalamus
7. Cerebral Cortex
Failure within any of these pillars can initiate or perpetuate migraine.
Mitochondrial Dysfunction in Migraine
Migraine brains are energy-deficient brains.
The electron transport chain contains four primary complexes responsible for ATP production. When mitochondrial efficiency declines, neuronal regulation fails.
Strategic wavelength selection allows targeted support of these complexes.
Wavelength-Specific Mitochondrial Effects
405 nm (Violet)
Supports Complex I and II.
532 nm (Green)
Stabilizes Complex III and regulates reactive oxygen species.
635 nm (Red)
Stimulates Complex IV via cytochrome c oxidase and enhances ATP production.
Each wavelength interacts with specific mitochondrial targets based on electron volt energy.
Clinical Application Across the Neurological Pillars
Dr. Elphinstone demonstrated targeted anatomical application strategies corresponding to each neurological pillar, integrating frequency protocols and combining laser application with cognitive or motor activation to enhance mitochondrial responsiveness.
Integrating the Metabolic Pillars
Neurological intervention must be supported metabolically through:
Insulin Regulation
Riboflavin (B2)
Coenzyme Q10
Magnesium
NAD Support
Gut and HPA Axis Health
Migraine management requires addressing both neurological and metabolic resilience.