Hour 1

• Identify the societal cost of migraine in the US
• Describe the global burden of disease studies related to migraine
• Summarize the genetic components of migraine to help understand the various phenotypes
• Define migraine based on the ICHD-3 criteria
• Outline the 4 main phases of migraine

Hour 2

• Summarize the impact of brainstem nuclei in migraine
• Identify how autonomic dysfunction impacts migraine and vice versa
• Explain how autonomic changes leads to blood flow abnormalities in the facial blood flow of migraine patients
• Distinguish the 3 main theories of migraine from the new ‘brain-state’ theory of migraine

Hour 3

• Be able to identify common dietary stressors for migraine and how to eliminate them
• Discuss vitamin, herbal, and other supplemental remedies for migraine
• Explain how an increased allostatic load increase the probability of migraine
• Identify migraine patients that would benefit from hormonal testing

Hour 4

• Discover how to tailor neuromodulation techniques to each migraine patient
• Identify current literature evaluating the benefits of low level laser
• Discuss probable mechanisms of action for low level laser
• Summarize migraine pathophysiology and explain a comprehensive approach to reducing and eliminating migraine days

Hour 1:  The Electromagnetic Spectrum (Basic Sciences)       

• Explore the basics of both visible and invisible “light”
• Compare of the concepts of Power versus Energy
• Explain the basic flow of electrons through the ETC
• Discuss the basics of the ETC in the Mitochondria, ATP production, increase ROS and systemic disease caused by stalling. Examples  Osteoarthritis, Alzheimers, effects on BBB, Autism and other neurodegenerative diseases.

 Hour 2:  The Role of Dysfunctional Mitochondria in Disease Processes (Basic Sciences) 

• Assess factors which negatively the electron transport chain (Pharma/ OTC NSAID/genetics)
• Discuss the role of mitochondria dysfunction in common disease processes
• Propose treatment options for restoring proper mitochondria function.
• Summarize the role light in stimulating Complex 1-4 in the ETC
• Integrate low level laser wavelength, frequency, energy, depth of penetration as it relates to human Physiology.

 Hour 3:  Indications for Low Level Laser

• Evaluate the efficacy for LLL in the treatment of common musculoskeletal injures and post operative pain.
• Explore the physiologic basis for pain and its related pathway.
• Discuss the Arndt Schults Law and its role in comparing and contrasting Class 2 lasers to Class 3 & 4 lasers
• Analyze case studies using the application of low level laser by wavelength, disease, and injury type

Hour 4:  Soft Tissue Technique

• Review anatomy for optimal soft tissue and skeletal manipulation.
• Demonstrate the inverse relationship between range of motion and pain.
• Integrate laser therapy to manipulate the physiology of the Human body, Chiropractic Manipulation & Manual Therapy Techniques to increase functional mobility (ROM) and facilitate pain reduction.

Hour 1:

• Define the Basics of light: Properties of light, electromagnetic spectrum, visible light wavelengths.
• Describe Laser principles: Stimulated emission, different types of lasers, laser safety standards.
• Review the Tissue interaction with light: Absorption, scattering, penetration depth, photothermal and photochemical effects.
• Define Laser safety protocols and equipment
• Discuss Potential risks and adverse effects of laser therapy
• Describe Informed consent and patient education
• Describe Regulatory requirements for laser therapy
• Determine Ethical considerations for laser therapy

Hour 2:

• Clinically use a laser for conditions such as chronic pain and discuss the wavelength, time and other factors
• Clinically use a laser for various conditions seen by Chiropractic Doctors, with specifics to the wavelength, time and other factors
• Review clinical studies demonstrating the use of a laser for various conditions seen by Chiropractic Doctors
• Discuss protocols as discovered in the latest research for successful outcome cases of various conditions seen by Chiropractic Doctors
• Discuss clinical cases with aspects of pain management in acute pain

 Hour 3:

• Review other potential applications for conditions Chiropractic Doctors may encounter
• Give examples of successful laser therapy protocols based on various conditions seen by Chiropractic Doctors
• Discuss clinical studies for the use of laser in various conditions seen by Chiropractic Doctors
• Identify clinical studies that provide empirical support for the user of laser therapy
• Clinical use of lasers in personal injury cases, efficacy, standard of care and application

Hour 1:   

• Improve specific elements of the four PI office visits.
• Outline the documentation steps of a causation statement.

Hour 2:  

• Identify med-legal considerations associated with PI documentation.
• Develop an outline to create a PI final discharge report.

Hour 3: 

• Recognize and evaluate several commonly missed traumatic injuries.  
• Create a to plan improve the capture of acute objective findings.

Hour 4:  

• Recognize LLLT versatility and benefits with PI-related conditions.   
• Develop clinical protocols for LLLT application in PI cases.

 Hour 5:  

• Identify and avoid inherent risks within PI case management.       
• Create an algorithm for case management clinical decisions.

Hour 6:  

• Discover the importance and relevance of PI co-management.
• Assess cases for co-management decisions and opportunities.

• Integrate concepts in laser photon therapy: wavelength, frequency, speed of light, fluence, penetration, secondary and primary physiological influences
• Contrast the differences between thermal and non-thermal laser therapy
• Develop the relationship between mitochondria, free radicals, ATP, cytochrome c oxidase enzyme, and laser photon therapy
• Discuss the physiology of applying laser therapy to both the anatomical part of injury/complaint and to the nerve roots that innervate that anatomical part
• Explain the biphasic nature of laser photon therapy as related to evolutionary biology and current clinical applications

Hour 1:

• Integrate the following concepts as it pertains to laser therapy:  wavelength, frequency, speed of light, fluence, penetration, secondary and primary physiological influences
• Contrast the differences between thermal and non-thermal laser therapy

Hour 2:

• Conceptualize the relationship between mitochondria, free radicals, ATP, cytochrome coxidase enzyme, and laser photon therapy
• Explain the biphasic nature of laser therapy

Hour 3:

• Introduce evidence as to the integrative physiology between chiropractic care for musculoskeletal pain syndromes and improved systemic health.
• Develop a neuroanatomical and neurophysiological model for the influence of spinal mechanical function with visceral neurology.

Hour 4:

• Correlate upper cervical spine symmetry and the function of the nucleus tractus solitarius of the vagus nerve.
• Explore the mechanical, vascular and cerebrospinal fluid dynamics as related to spinal anatomy.

Hour 5:

• Show the history and modern-day evidence for the influence of exposure to non-ionizing electromagnetic field waveforms.
• Detail the two most plausible mechanisms of exposure non-ionizing electromagnetic field waveforms on human biology.

Hour 6:

• Explore the various relationships from a functional neurological perspective.
• Contrast the relationship between various neurochemicals

Hour 7:

• Justify why many people need between 5-8 different supplements and explain why.
• Connect the link between dietary lectins, leak gut, systemic inflammation and autoimmune conditions.

Hour 8:

• Explain some of the physiological complications to COVID-19.
• Review studies that explain the biological plausibility related to COVID-19.

Hour 1

• Discuss the etiology, pathophysiology, and symptoms of trauma and post-auto whiplash.
• Translate how low-level laser impacts inflammation and trauma.
• Explain modern neuron theory and how low-level laser can optimize cellular communication within the PNS/CNS.
• Conceptualize how to change the brain and body by using low-level laser and sensory inputs to modify central circuitry.

Hour 2

• Discuss the interplay between the sympathetic and parasympathetic systems.
• Explain how changes in autonomic function affect the brain and body following trauma.
• Share relevant research about the gut/brain connection.
• Give an overview of the neuroinflammatory cascade of trauma and how low-level laser impacts inflammatory processes.

Hour 3

• Discuss the anatomy/physiology of the cerebellum and it’s integration with the cervical spine.
• Outline how changes in cerebellar function and the cervical spine affect the brain and body following trauma
• Explain how low-level laser therapy can optimize structural, neurological, and metabolic parameters following trauma.
• Create a greater understanding for providers to know how to utilize their skillset to treat complex cases.

Hour 4

• Discuss the anatomy and physiology of the visual and vestibular systems.
• Identify how changes in the visual and vestibular system affect the brain and body following trauma.
• Share mechanisms and treatment applications for utilizing low-level laser therapy.
• Create awareness around the modern utilization of structural, neurological, and metabolic treatment paradigms for complex cases.

• Build the ultimate back: from chronic back pain to high performance
• Evaluate exercise’s effect on hormones and human performance
• Create a flowchart explaining laser therapy and its application during the correlated stages of healing
• Review the newest laser research and its clinical applicability
• Apply neurodynamic tests and advanced corrective laser protocols
• Evaluate techniques for non-invasive fat reduction
• Elucidate the science of different types of fasting
• Utilize advanced clinical breakthroughs in the treatment of musculoskeletal injuries
• Implement strategies to initiate the positive impact of gut health on the musculoskeletal system
• View hands-on reproducible, implementable protocols 
• Incorporate laser effectively into your practice
• Assess intestinal and blood-brain barrier dysfunction
• Integrate leading-edge protocols for SIBO
• Identify modern lifestyle and environmental triggers that affect the gut brain axis

Hour 1

• Breakdown the implications of inflammation on epigenetics and relate inflammation to genetic damage and musculoskeletal disease.
• Develop a plan for clinical anti-inflammatory protocols

Hour 2

• Interpret blood chemistry markers related to inflammation and translate into laymen’s terms for patient understanding.
• Devise office strategies for obtaining blood chemistry markers, delivering the report of findings to the patient
• Discuss the physiological mechanisms of the gut-brain axis, distinguish the molecular players in gut-brain axis syndromes, and identify behavioral modifications and nutritional therapies
• Demonstrate knowledge of calcium ions as an egregious free radical

Hour 3

• Identify blood chemistry markers
• Differentiate between different classes of lasers, Class I, II, IIIA, IIIB, and IV lasers, and outline the therapeutic effects of each

Hour 4

• Explain the difference between nIR and fIR saunas, and identify key physiological mechanisms
• Discuss Low Level Laser Therapy wavelengths as they pertain to various upregulation of metabolic functions and integrate into the health of the body.
• Differentiate between Class 1, Class 2, Class 3R, Class 3B, and Class 4 lasers, and determine proper clinical application of each laser
• Develop plans to calculate Joules of output for various lasers using physics and demonstrate fundamental understanding of laser frequency output to address various clinical cases.

Hour 5

• Discuss Clinical Cases and outcomes citing specific patient histories and medical studies from the National Institute of Health and PubMed.com; integrate these ideas and extrapolate health plans into current clinical situations.
• Discuss how low-level laser therapy affects the body
• Discuss supplementation and integrate effective neuroprotective supplementation protocols in a clinical setting based on the work of the world’s best universities’ studies

Hour 6

• Outline the basic types of intermittent fasting, relate to patient goals as determined in nutritional consultations, and design intermittent fasting protocols for clinical settings.
• Summarize the concepts of ketosis, brain energy utilization, and neuroprotection; relate to medium-chain triglyceride consumption.

• Recognize areas of risk and liability within Personal Injury cases
• Identify common med-legal concerns
• Recognize various important components associated with the Personal Injury history
• Improve the accuracy and thoroughness of the initial Personal Injury history
• Examine and document common Personal Injury traumatic injuries 
• Create a plan to minimize patient risk and improve provider outcomes
• Recognize the versatility and benefits of low level laser therapy for musculoskeletal injuries  
• Develop clinical protocols for low lever laser application and documentation for musculoskeletal injuries  
• Recognize conditions, injuries and symptoms requiring advanced imaging 
• Apply diagnostics and humanize trauma cases
• Discover the importance and relevance of Personal Injury case management 
• Identify opportunities for improved clinical decision making and case management

• Summarize the volume of research that led to the USSR implementing laser by 1974 as standard care
• Summarize the differences between LEDs and different classes of lasers
• Discover which wavelength was preferred by the Soviets, and has 18 of the 21 FDA clearances
• Utilize case studies to support that this is not a placebo
• Summarize the results of the level 1, double blind study that showed a 635 nm class 2 laser was more effective than opioids for chronic low back pain of a minimum duration of 8 years
• Discover how to easily integrate laser therapy into an existing practice for better patient outcomes
• contrast the difference in clearances and uses for a class 4 laser vs a class 2 laser for chronic condition for better implementation into treatment protocols
• illustrate treatment applications and contraindications with videos and pictures
• identify the injuries that respond to laser therapy and the research that supports them
• generate a treatment plan with lasers for each condition described
• Contrast the effectiveness of different types of lasers and NSAIDS and Opioids vs laser
• Illustrate techniques via video/pictures
• Identify the specific pathways that research has shown that laser can be beneficial for support of these conditions when applied transcranially
• Classify which conditions are contraindications and which types of lasers are contraindicated transcranially
• Summarize the findings on the autism study and its submission to the FDA for review
• Summarize what occurs on a cellular level after a concussion, and what occurs when laser is applied, and nutrients are utilized
• Classify which injuries and conditions respond well to low level laser
• Illustrate set up methods and treatment protocols for several conditions
• Utilize case studies with video/picture demonstrations
• Summarize the studies that showed improvement from laser therapy in performance metrics like muscle strength, endurance, and recovery
• Discuss the studies that show a 25 to 35% faster recovery for several sports injuries and auto accident injuries when laser therapy is applied
• Determine how to use laser therapy with athletes in the office both for injuries and for performance enhancement

• Integrate infection, evolution, immunity, inflammation, fibrosis, blood flow, mitochondria, ATP, oxidative stress, and DNA.
• Integrate mechanical integrity in gravity, weight, load, levers, posture, mechanoreception, mechanotransduction, mechanobiology, tensegrity, neurology, blood flow, and DNA.
• Justify high vegetable, low lectin, low glycemic dietary habits, and their influence on physiology.
• Summarize problems with refined carbohydrates, monosodium glutamate, aspartame, and chemical toxins.
• Support high intensity interval training, weight lifting, brain derived neurotrophic factor, human growth hormone, and interleukin-10.
• Explain the biphasic nature of laser photon therapy, wavelength, frequency, speed of light, fluence, penetration, secondary and primary physiological influences.
• Develop the relationship between mitochondria, free radicals, ATP, cytochrome c oxidase enzyme, and laser photon therapy
• Justify why all people need between 5-8 different supplements and explain why.
• Diagram a protocol for influencing immunology and the brain through the intestinal tract; integrating the vagus nerve and the nucleus tractus solitarius.
• Integrate a protocol for brain function that discusses trauma, degenerative, and vascular compromise.
• Demonstrate a protocol for chronic low back pain that integrates the intervertebral disc, posture, mechanics, exercise, and laser therapy.
• Support a protocol for acute whiplash that includes applying controlled motion and anti-inflammation strategies.
• Apply a protocol for remodeling scar tissue and the fibrosis of repair.

• Utilize reproducible, implementable protocols in your practice
• Apply neurodynamic tests and corrective laser protocols
• Assess and understand traumatic brain injuries (concussion, neurodegenerative diseases)
• Summarize strategies to initiate the positive impact of gut health on the musculoskeletal system
• Elucidate the science of the different types of fasting
• Discuss the breakthrough technique for non-invasive fat reduction
• Apply clinical breakthroughs in the treatment of musculoskeletal injuries
• Appreciate new laser research and its clinical applicability
• Assess intestinal and blood-brain dysfunctions
• Perform laser applications

Hour 1: The Electromagnetic Spectrum 

• Discuss the basics of both visible and invisible “light”
• Integrate these concepts in laser photon therapy: wavelength, frequency, speed of light, fluence, penetration, secondary and primary physiological influences

Hour 2: Laser Physiology I

• Contrast the differences between thermal and non-thermal laser therapy
• Integrate the relevance of the voltage-gated calcium ion channels, and perioxynitrate molecule in human health and disease

Hour 3: Laser Physiology II

•  Develop the relationship between mitochondria, free radicals, ATP, cytochrome c oxidase enzyme, and laser photon therapy
• Explain the biphasic nature of laser photon therapy

Hour 4: Cell Biology

•  Distinguish between Glycolysis, Krebs Cycle, and Electron Transport Chain metabolism 
• Identify the details of the mitochondrial electron transport chain and complexes I, II, III, IV, and V

Hour 5: Low Back Pain Protocol

• Develop a poly-therapeutic integrative approach for chronic low back pain
• Integrate adjustments, posture, motion, nutrition and laser therapy

Hour 6: Brain Protocol

• Develop a protocol for brain function; integrating trauma, degenerative, and vascular compromise
• Develop a protocol for cognitive enhancement

• Discuss the theories of why aging is now seen as a disease, characterized by chronic inflammation, which could potentially be stopped or even reversed. 
• Share how persistent, low-level inflammation (inflammaging) contributes to the deterioration of cellular and systemic functions, driving the aging process and the development of age-related chronic diseases.
• Examine the role of mitochondrial dysfunction in aging, exploring how improving mitochondrial health can promote longevity and reduce age-related decline.
• Identify clinical strategies to integrate mitochondrial health and anti-inflammatory practices into patient care to enhance healthy aging and mitigate the impact of chronic diseases.
• Introduction to low-level laser therapy, its core principles, and its mechanism of action for healing and optimizing cellular function.
• Explain the role of the mitochondria in cellular energy production and overall health.
• Review evidence-based applications of low-level laser therapy in promoting mitochondrial health via evidence-based research findings and data.
• Discuss practical approaches for integrating low-level laser therapy into clinical practice to enhance patient outcomes in managing mitochondrial dysfunction and promoting cellular rejuvenation.
• Share the global impact of metabolic dysfunction and discuss the effects of obesity driving chronic inflammation and its link to chronic health conditions.
• Discuss the mechanisms through which excess body fat and underlying metabolic dysfunction contributes to inflammatory processes and hormonal/endocrine dysfunction.
• Elaborate on clinical insights into effective interventions for combating obesity, improving metabolic health, and reducing inflammation, including dietary changes, physical activity, and sleep.
• Explore emerging therapies and technologies aimed at improving metabolic function and reducing inflammation, focusing on their potential applications in clinical practice.
• Discuss mechanisms of aging and how the aging process is being challenged by both conventional and alternative medical communities. 
• Provide a comprehensive analysis of nutritional, dietary, and lifestyle-based interventions that have shown promising outcomes for improving longevity and quality of life outcomes. 
• Overview of major concepts, themes, and discussions about the importance of diet, nutrition, and controlling blood sugar to optimize metabolic capacity to maximize aging. 
• Examine emerging research on cellular regeneration and mitochondrial function as critical components in slowing the aging process and enhancing longevity.