• Nasal Anti-CD3 Therapy (Foralumab): Reduces inflammation by activating regulatory T cells (Tregs) that produce IL-10, an anti-inflammatory molecule. Works best within 3 days of injury.
• Erythropoietin (EPO): Reduces inflammation and promotes brain repair. Most effective during the acute phase (6–24 hours post-injury).
• Mesenchymal Stem Cell (MSC) Therapy: Uses stem cells to shift the immune response from harmful to healing. Suitable for subacute to chronic recovery phases.
• Beta-Blocker Treatment (Propranolol): Controls inflammation by blocking stress-related hormones. Administered within 24 hours of injury for best results.
• HML Functional Care: A non-invasive, integrated approach combining functional neurology rehabilitation, neuromodulation, mild hyperbaric oxygen therapy (HBOT), cold laser therapy, and chiropractic care to address the autonomic and neural imbalances common in TBI recovery.

Each therapy has specific timing, mechanisms, and safety considerations, making personalized treatment plans essential for effective recovery.

1. Nasal Anti-CD3 Therapy (Foralumab)

Foralumab is a nasal anti-CD3 therapy that offers a targeted way to manage chronic inflammation in brain injuries. Unlike broad immunosuppressive treatments, it works by promoting regulatory T cells (Tregs) that release interleukin-10 (IL-10), a key anti-inflammatory molecule.

How It Works

When administered nasally, Foralumab stimulates IL-10–producing Tregs. These cells travel from the cervical lymph nodes to the brain, where they interact with microglial cells — the brain’s primary immune defenders. This process reduces inflammation by suppressing pro-inflammatory genes while boosting homeostatic gene expression. The therapy also limits the entry of harmful immune cells, such as neutrophils and monocytes, into the central nervous system.

Treg cells directly reduced chronic microglia inflammation and regulated their phagocytic function in an IL-10-dependent manner. — Nature Neuroscience, 2025

Evidence from Studies

Animal studies have shown promising results in TBI models. When treatment was initiated within 4–6 hours or up to 3 days after injury, researchers observed restored spatial memory (measured by Morris water maze tests), reduced lesion size on MRI, lower levels of brain injury markers (GFAP and UCH-L1), and improvements in motor skills with reduced microgliosis at 30 days post-injury.

Safety Considerations

Foralumab has a favorable safety profile due to its nasal delivery method. The mucosal immune system is naturally designed to promote tolerance, making this approach less toxic compared to systemic immunosuppressive treatments. This makes it a safer option for managing post-TBI inflammation without the risks associated with broader immunosuppression.

Timing Matters

The therapy works best when administered during the acute or early subacute phase — ideally within 4–6 hours or up to 3 days after injury. Starting treatment too late (e.g., 14 days post-injury) has not demonstrated significant behavioral benefits in study models.

2. Erythropoietin (EPO)

Erythropoietin (EPO) is a hormone best known for its role in red blood cell production. However, it also shows meaningful promise in reducing inflammation and cell damage after brain injuries, and its ability to cross the blood–brain barrier makes it particularly relevant in TBI care.

Mechanism of Action

EPO works by binding to its receptor (EPOR), which activates JAK2 and downstream signaling pathways. These pathways help reduce cell death and promote neural stem cell growth while calming the activation of microglia and astrocytes. In brain endothelial cells, EPO lowers pro-inflammatory cytokines such as TNF-α, IL-6, and IL-1β. It also boosts antioxidant enzyme activity, countering oxidative stress — a major contributor to secondary brain damage.

EPO attenuates inflammation by reducing reactive astrocytosis and microglia activation and by inhibiting immune cell recruitment into the injured area. — Experimental & Translational Stroke Medicine

Clinical Evidence

A meta-analysis of seven randomized trials (1,197 patients) found that EPO improved 6-month survival rates, though results varied by injury type and treatment timing. A 2018 study demonstrated that a high-dose EPO regimen in young rats prevented long-term cognitive and structural brain issues at 90 days post-injury. The largest clinical trial to date, the EPO-TBI study (2010–2015, 603 patients across seven countries), showed an initial survival benefit, though a 6-year follow-up of 356 survivors found that advantage did not persist over time.

Safety Profile

A meta-analysis of 1,197 TBI patients confirmed that EPO does not significantly increase the risk of thromboembolic events, including deep vein thrombosis or pulmonary embolism. Rates of pneumonia, sepsis, seizures, and gastrointestinal issues were comparable between EPO and placebo groups — contrasting with EPO’s use in cancer and chronic kidney disease, where thrombotic risks are higher.

Recovery Phase Applicability

EPO appears most effective when administered during the acute phase, typically within 6 to 24 hours of injury. It shows particular promise where brain trauma is complicated by secondary hypoxia. In animal models, a single dose reduced white matter axonal damage by 60% within 24 hours of combined traumatic axonal injury and hypoxia.

3. Mesenchymal Stem Cell (MSC) Therapy

Mesenchymal stem cells (MSCs), sourced from bone marrow, adipose tissue, or umbilical cord blood, are introduced into the body to help regulate inflammation and promote healing following TBI.

Mechanism of Action

MSCs work by releasing growth factors, exosomes, and proteins (including TSG-6) that suppress the NF-κB pro-inflammatory pathway. This shifts immune cells like microglia and macrophages from a pro-inflammatory state (M1) to a repair-focused state (M2), while lowering inflammatory cytokines such as IL-1β, TNF-α, and IL-6 and increasing anti-inflammatory signals like IL-10 and TGF-β1. MSCs can also “home in” on damaged brain tissue by responding to chemokines and growth factors released at the injury site.

Clinical Evidence

Clinical studies have produced encouraging results. A study of 97 patients found that 39.2% showed improved neurological outcomes within two weeks of receiving autologous bone marrow-derived MSCs. In a pediatric study, 70% of 10 participants showed positive clinical outcomes 6 months after intravenous treatment. A 2024 trial using umbilical cord-derived MSCs (4 infusions via lumbar puncture in 20 TBI patients) showed notable improvements in motor skills, balance, sensation, and social cognition at 6 months compared to controls.

The therapeutic benefits of MSC stem cell infusions for the treatment of TBIs generated significant beneficial results over a relatively wide window of treatment times. — International Journal of Molecular Sciences

Safety Profile

MSCs are generally considered safe, with a low risk of serious adverse events. Some concerns exist around potential cell trapping in the lungs during intravenous delivery and risks tied to repeated dosing. Between 2006 and 2025, approximately 13 clinical trials focused on MSC-based therapies for TBI, most of them early-phase.

Recovery Phase Applicability

MSCs can be effective when administered anywhere from 24 hours to one year after injury. Early treatment (within 3 days) is particularly effective in reducing M1 microglia activation, while delayed administration (up to 14 days) has also demonstrated anti-inflammatory effects and memory improvement. Pairing MSC therapy with rehabilitative treatments has been shown to enhance neural plasticity and functional recovery.

4. Beta-Blocker Treatment (Propranolol)

Propranolol addresses the surge in sympathetic nervous system activity that commonly follows TBI — a state sometimes called a “sympathetic storm” — which drives damaging neuroinflammation if left unchecked.

Mechanism of Action

Propranolol works by blocking beta-adrenergic receptors throughout the brain and body. This tempers the release of pro-inflammatory cytokines like TNF-α, IL-1β, and IL-6, which are typically elevated after TBI. It also crosses the blood–brain barrier, reducing the brain’s oxygen and glucose demands and shielding neurons from damage caused by excess catecholamines. Early use has been shown to lower serum levels of Neuron-Specific Enolase (NSE) and S100B — both markers of ongoing brain cell damage.

Clinical Evidence

The BBTBBT trial (350 patients, Hamad Level I Trauma Centre, Qatar, 2021–2023) demonstrated that early propranolol use significantly reduced IL-6, IL-1β, and epinephrine levels within 48 hours. A study at Shiraz University Hospital (154 patients with isolated severe TBI) found a mortality rate of just 4.4% in the propranolol group vs. 18.6% in the control group, with patients on propranolol also 20% more likely to achieve favorable functional outcomes at 6 months. A broader meta-analysis reported an odds ratio of 0.33 for in-hospital mortality among TBI patients treated with beta-blockers.

Propranolol decreases in-hospital mortality and improves long-term functional outcome in isolated severe TBI. This randomized trial speaks in favor of routine administration of beta-blocker therapy as part of a standardized neurointensive care protocol. — World Journal of Surgery

Safety Profile

Propranolol is generally well-tolerated under proper supervision. In clinical trials, approximately 27% of patients experienced temporary bradycardia, and 2% had manageable episodes of hypotension. The drug is contraindicated in patients with persistent shock, systolic blood pressure below 100 mmHg, heart rate under 60 bpm, or severe asthma. Glucose levels should be monitored closely in diabetic patients.

Recovery Phase Applicability

Propranolol is typically initiated within 24 hours of injury (provided the patient’s systolic BP is above 100 mmHg and vasopressor support is no longer required) and continued for 6 to 10 days or until discharge. Heart rate and blood pressure should be monitored closely during the first 24 hours, with doses adjusted to achieve a 10–20% heart rate reduction.

5. HML Functional Care: Integrated Neurological Rehabilitation for TBI

While the therapies above address the acute immune response, recovery from TBI doesn’t end when the critical phase is over. The subacute and chronic stages of recovery — where most patients live day-to-day — require a different kind of care: one that addresses the ongoing neurological imbalances, lingering autonomic dysregulation, and functional deficits that pharmaceuticals alone cannot fully resolve.

HML Functional Care in Lee’s Summit, MO, bridges that gap. Led by Drs. Alex and Lauren Nelson, the clinic combines advanced functional neurology, chiropractic care, and functional medicine to support TBI recovery from the subacute phase through long-term rehabilitation.

How HML Addresses the Neural-Immune Connection

TBI frequently triggers what is known as a “sympathetic storm” — an overactivation of the autonomic nervous system driven by elevated catecholamines. This sustained stress response perpetuates neuroinflammation and impairs the brain’s ability to heal. HML’s approach directly targets this dysregulation through neuromodulation and nervous system rehabilitation, working to restore autonomic balance and support the brain’s natural recovery processes.

This makes HML’s care a natural complement to acute-phase therapies like propranolol and EPO, where those therapies reduce the initial inflammatory surge, HML’s approach helps retrain and stabilize the nervous system in the weeks and months that follow.

Treatments Offered at HML Relevant to TBI Recovery

Functional Neurology Rehabilitation: HML’s core offering. Using targeted neurological exercises, coordination training, and repetition-based rehabilitation, the Nelsons work to restore neural pathways disrupted by injury. This includes brain hemispheric integration — using sensory input (sight, sound, smell, tactile stimulation, and proprioception) to balance activity between the left and right hemispheres of the brain.

Mild Hyperbaric Oxygen Therapy (HBOT): Patients breathe concentrated oxygen inside a pressurized chamber, which allows oxygen to dissolve more readily into the blood and reach areas of the brain that may have restricted circulation post-injury. HBOT directly addresses one of the core mechanisms of secondary brain damage — hypoxia — reducing inflammation and supporting cellular healing. It is one of the most clinically relevant non-pharmaceutical tools available for TBI recovery. Learn more about HBOT at HML →

Cold Laser Therapy / Photobiomodulation (PBM): Cold laser light penetrates tissues and energizes cells by increasing oxygenation, stimulating energy production (ATP), reducing inflammation, and accelerating waste elimination. Applied over the head and cervical spine, PBM is emerging as a promising non-invasive tool for neurological inflammation reduction and tissue repair — directly relevant to TBI recovery. Learn more about Cold Laser at HML →

Interactive Metronome: Brain function requires precise timing, rhythm, and coordination of neurons. The Interactive Metronome challenges patients to synchronize whole-body movements to a millisecond-level beat, providing auditory and visual feedback that retrains the brain’s timing and processing networks — areas commonly disrupted by TBI.

Neurosage: A form of carefully applied neural stimulus that uses Systemic Neural Adaptation to help unlock the brain’s capacity to heal, reduce pain, and improve cognitive and physical performance. Particularly useful for patients managing chronic post-TBI symptoms.

RightEye & Senaptec: Advanced eye-tracking and sensory evaluation tools that allow HML to assess functional vision, brain health, and sensory processing deficits — all of which are commonly impacted by TBI. These tools guide targeted rehabilitation and track measurable recovery progress.

Functional Medicine: HML addresses the biochemical side of TBI recovery through functional medicine, including food sensitivity testing (Array 10 and Array 10-90), nutritional support, and identifying underlying factors that may be prolonging inflammation or slowing healing.

Chiropractic Care: Spinal adjustments restore mobility and reduce mechanical stress on the nervous system, which is frequently compromised in TBI patients who have suffered whiplash or other cervical trauma alongside their brain injury. Explore HML’s full treatment menu →

Who HML Serves

HML specializes in adults and children with neurological conditions, including post-concussion syndrome, traumatic brain injury, stroke rehabilitation, movement disorders, ADHD, autism, and vertigo/dizziness. Patients who have “hit a ceiling” with conventional medicine and are looking for integrative, science-backed care find HML’s model particularly effective.

Learn more about HML’s TBI practice area:  HML Traumatic Brain Injury page →

Therapy Comparison Table

The table below provides a side-by-side overview of the five approaches covered in this article, comparing mechanism, evidence, safety, and optimal recovery timing.

Timing is a critical variable in TBI immune modulation. Acute-phase therapies — EPO, Propranolol, and Nasal Anti-CD3 — must be administered within hours to days of injury. HML Functional Care and MSC Therapy are better suited to the subacute-to-chronic phase, where ongoing neurological rehabilitation and systemic support are most impactful.

Conclusion

TBI affects an estimated 50 million people globally each year, and its long-term consequences — from chronic neuroinflammation to cognitive and functional decline — remain inadequately addressed by a single treatment approach. The therapies reviewed here represent the current landscape of immune modulation in TBI, each targeting the neural-immune balance at different stages and through different mechanisms.

Recovery outcomes depend heavily on timely, personalized intervention. Acute-phase therapies like EPO, propranolol, and nasal anti-CD3 can dramatically alter the early inflammatory trajectory. In the weeks and months that follow, integrated functional care — including HBOT, cold laser therapy, functional neurology rehabilitation, and chiropractic care — can support the brain’s continued healing and help patients rebuild functional capacity.

Many of these pharmaceutical therapies remain experimental or are not yet FDA-approved as disease-modifying TBI treatments. Functional neurology and integrative care, by contrast, are available now and carry strong safety profiles. As always, care should be guided by qualified healthcare providers familiar with both the neuroscience and the individual patient.

HML Functional Care’s integrated model is built precisely for this — meeting patients where they are in recovery and equipping them with tools that go beyond symptom management toward lasting restoration.

Frequently Asked Questions

Which immune therapy fits my TBI recovery stage?

The best approach depends on your stage of recovery and how your immune system is responding. In the first hours and days post-injury, pharmaceutical interventions like EPO, propranolol, and nasal anti-CD3 may be applicable under hospital-based care. As you transition out of the acute phase, integrative functional care — like that offered at HML — becomes central to restoring neurological function and addressing the root causes of ongoing symptoms. Work with a provider who specializes in neuroimmunology or neurorehabilitation to determine the right plan for your situation.

Can these therapies be combined safely?

Yes, in many cases these approaches are complementary rather than competing. The pharmaceutical therapies are administered in acute hospital settings, while HML’s functional care model is designed for the outpatient, subacute-to-chronic phase. Combining stem cell therapy with rehabilitative care is also being actively studied. Any combination of treatments should be managed by and coordinated between qualified healthcare providers.

Are these treatments FDA-approved for TBI?

There are currently no FDA-approved disease-modifying treatments specifically for traumatic brain injury. Some therapies reviewed here — such as nasal foralumab — have received FDA approval for other neurological conditions (e.g., multiple system atrophy) and are being studied for TBI under research protocols. HML’s functional neurology and chiropractic care, HBOT, and cold laser therapy are established clinical practices with strong safety profiles and are available to patients now. Always consult qualified healthcare providers before beginning any treatment regimen.

The post Top Therapies for Immune Modulation in Brain Injuries appeared first on HML Functional Care.

If you’ve been dealing with persistent aches in your neck, shoulders, or lower back, you’re not alone. Millions of people search for natural ways to manage discomfort without relying solely on medication — and that search often starts with understanding what’s actually going on in your body.

That’s exactly what our Chiropractic Pain Relief Calculator is designed to help with. By guiding you through a few simple questions about your pain’s location, intensity, and triggers, it gives you a meaningful starting point for the relief you’ve been looking for.

At HML Chiropractic & Functional Care in Lee’s Summit, MO, Drs. Lauren and Alex Nelson take a whole-body approach to pain. Beyond traditional spinal adjustments, our team integrates functional neurology, corrective exercises, and functional medicine to address the root cause of your discomfort — not just the symptoms. Whether your pain is acute or chronic, our goal is to help you move, feel, and function better for the long term.

Why Consider Chiropractic Care for Pain Relief?

Chiropractic care works by restoring proper alignment of the spine and joints, which directly reduces stress on the surrounding nerves, muscles, and connective tissue. When your spine is out of alignment, it can create a cascade of problems: nerve irritation, reduced mobility, tension headaches, and chronic pain patterns that medication alone can’t resolve.

Whether you’re dealing with a stiff neck after hours at a desk, nagging lower back tension from lifting, or shoulder pain from an old injury, chiropractic care offers a natural, hands-on path forward. At HML, our approach goes beyond a standard adjustment. Depending on your assessment, Dr. Lauren or Dr. Alex may recommend a combination of:

• Spinal adjustments to restore mobility and reduce nerve pressure
• Corrective exercises tailored to your specific pain pattern
• Cold Laser Therapy (Photobiomodulation) to reduce inflammation and support tissue healing
• Soft tissue therapy to release muscle tension
• Nutritional counseling and lifestyle coaching to support long-term recovery

Our pain assessment tool offers personalized insights based on your input, pointing you toward the types of techniques that may be most relevant for your situation. These are starting points, not diagnoses — and pairing them with a real consultation always leads to better outcomes.

Take the First Step Toward Lasting Relief

Curious about what might be contributing to your pain? A quick assessment can reveal patterns and options you hadn’t considered. But lasting relief rarely comes from a single tool or a single visit — it comes from understanding your body’s signals and working with a team that knows how to respond to them.

At HML Functional Care in Lee’s Summit, we don’t want you to simply manage your pain. We want you to overcome it. Drs. Lauren and Alex Nelson have advanced training in functional neurology and chiropractic care, and they’ve helped patients in the Kansas City area find real relief from conditions ranging from lower back pain and neck tension to post-concussion symptoms and vertigo.

When you’re ready to go beyond the calculator, we’re here.

Schedule a Consultation with Dr. Lauren or Dr. Alex Nelson at HML Functional Care in Lee’s Summit, MO  →  Book Your Visit at hmlfunctionalcare.com

Frequently Asked Questions

Can this tool diagnose my pain condition?

No — and it’s not designed to. Our Chiropractic Pain Relief Calculator is a starting point, not a diagnostic tool. It suggests chiropractic techniques or exercises based on your responses, but pain is complex and highly individual. For a proper diagnosis and a treatment plan built around your unique history and needs, we strongly recommend scheduling a consultation with a licensed chiropractor. That’s where the real answers are.

What kind of suggestions will I get from this tool?

Based on where your pain is located and how severe it feels, the tool will point you toward 2–3 chiropractic approaches or exercises that are commonly associated with your type of discomfort. For example, lower back pain might lead to suggestions around spinal adjustments or specific core stabilization exercises. At HML, our actual treatment plans go much further — incorporating functional neurology assessments, corrective movement work, and therapies like Cold Laser (PBM) or Interactive Metronome when appropriate.

Is chiropractic care safe for everyone?

Chiropractic care is safe and effective for most people, but individual health history always matters. At HML, we begin every patient relationship with a thorough health history review and comprehensive assessment — including neurological evaluation when relevant — before recommending any course of treatment. Certain conditions, such as severe osteoporosis, recent spinal surgery, or active fractures, may call for a modified approach or referral. Our team will always walk you through what’s appropriate for your specific situation. If you have questions before your first visit, we’re happy to answer them — just reach out.

The post Chiropractic Pain Relief Calculator appeared first on HML Functional Care.

• Neuroplasticity: Helps the brain form new connections for emotional recovery.
• Autonomic Nervous System (ANS) Regulation: Balances stress responses to improve emotional stability.
• Vestibular and Vision Therapies: Addresses balance and sensory processing to stabilize mood.
• Neurofeedback and Photobiomodulation: Guide brain activity into healthier patterns and reduce inflammation.
• Personalized Mind-Body Plans: Combines tailored therapies like cognitive exercises, nutrition, and stress management.

These non-invasive methods aim to repair faulty pathways, reduce emotional symptoms, and support long-term healing.

1. Rewiring Emotional Pathways Through Neuroplasticity

How Neuroplasticity Connects the Brain and Body

When the brain experiences an injury, it has an incredible ability to adapt and reorganize itself. This process, known as neuroplasticity, allows the nervous system to rebuild its structure and create new connections. Essentially, the brain can activate secondary networks to maintain function even after trauma disrupts its usual pathways. For emotional recovery, this means the brain can form new “detours” to restore balance, bypassing damaged areas.

The process unfolds over time. Within the first 48 hours, backup networks kick in. Over the following weeks, synaptic plasticity – where neurons form new connections – takes over. Months later, axonal sprouting solidifies these changes, creating long-term pathways. This gradual timeline explains why emotional recovery is a journey, not an instant fix. Physical interventions, such as eye movement exercises, balance training, and controlled breathing, can speed up this process by shifting the body out of a stress response and into a state of repair.

Emotional trauma doesn’t just affect the brain – it impacts the entire nervous system. The limbic system, which acts as the brain’s alarm center, often stays hyperactive after trauma, keeping the body in a prolonged state of stress. Functional neurology uses physical stimuli to influence the neural circuits tied to emotional regulation, helping the body transition from “fight or flight” to “rest and repair”.

Supporting Emotional Recovery After Brain Injuries

Research shows that emotional and motivational stimuli play a key role in shaping how the brain adapts. Studies reveal that these factors enhance brain remodeling by strengthening connections between different brain regions and hubs. The principle is simple: neurons that fire together, wire together. The more intense and frequent the experiences, the faster the brain can reorganize itself.

Functional neurology takes advantage of this natural process. Techniques like vestibular rehabilitation, neurofeedback, and photobiomodulation are designed to stimulate specific neural networks. These therapies also help reduce inflammation, improve blood flow to critical areas, and encourage the brain to “prune” harmful pathways while building healthier ones.

At HML Functional Care, these neuroplasticity-driven methods are incorporated into tailored treatment plans. The goal is to support emotional recovery and promote long-term well-being.

2. Balancing the Autonomic Nervous System for Emotional Stability

Focus on Neuroplasticity and Brain-Body Connection

The autonomic nervous system (ANS) oversees crucial functions like heart rate, breathing, digestion, and temperature regulation. When the system becomes dysregulated – a condition known as dysautonomia – it can lead to symptoms such as light-headedness, migraines, anxiety, and depression. Brain injuries often exacerbate this imbalance, trapping the body in a constant “fight or flight” mode, even when no actual danger exists.

A key player in this process is interoception, the brain’s ability to interpret internal signals from the body. These signals guide the brain in predicting the body’s needs and issuing commands via the ANS to maintain balance. However, a brain injury can disrupt this communication, making it harder to identify and regulate emotions. Research highlights that individuals with acquired brain injuries often experience alexithymia – difficulty recognizing their own emotions – especially when the anterior insula is affected. This breakdown in communication underscores the need for targeted interventions aimed at restoring balance.

Effectiveness in Emotional Recovery After Brain Injuries

Traditional neurology often focuses on structural damage, but this approach can overlook the emotional challenges faced by many patients. For instance, 30% of concussion patients develop post-concussion syndrome, with persistent emotional symptoms that don’t show up on standard scans. This is where functional neurology steps in, addressing what Dr. Mark Allen refers to as “functional aberrations” – misfiring neural pathways identified through advanced imaging techniques like individualized fMRI assessments.

“If you are in a chronic sympathetic state, your vagus nerve and downstream healing processes cannot be activated; as a result, your healing process may remain at a standstill.” – Dr. Sunjya Schweig, California Center for Functional Medicine

Studies suggest that specialized functional neurocognitive treatments can significantly reduce symptoms for 77% of participants. The goal is to shift the body out of sympathetic dominance (the “fight or flight” mode) and into a parasympathetic state, where processes like rest, digestion, and repair can take place effectively.

Incorporation of Functional Neurology Techniques

Functional neurology offers targeted interventions to recalibrate the ANS and support emotional recovery. Techniques like vagus nerve resets help reduce brain inflammation and break the cycle of chronic stress responses. Another tool, heart rate variability (HRV) biofeedback, measures the balance between sympathetic and parasympathetic activity. In one study involving 13 individuals with severe chronic acquired brain injuries, higher low-frequency heart rate activity was linked to improved emotional control. Practices such as controlled breathing exercises, yoga, and Tai Chi also play a role in toning the vagus nerve and promoting healing.

At HML Functional Care, these methods are integrated into personalized treatment plans. By addressing the underlying causes of emotional instability rather than merely managing symptoms, patients can achieve meaningful progress in their recovery.

3. Stabilizing Mood Through Vestibular and Vision Therapies

Focus on Neuroplasticity and Brain-Body Connection

The vestibular system plays a crucial role in maintaining balance and anchoring your sense of self. After a brain injury, disruptions in this system can force the brain to compensate by relying heavily on sight and sound. This added strain can sap the energy needed for emotional regulation.

Interestingly, the brain regions that process vestibular information overlap with those involved in pain perception and emotional processing, like the insula and anterior cingulate cortex. Research from 2017 highlights a two-way relationship: a properly functioning vestibular system supports emotional stability, while emotional states can, in turn, influence physical balance. Advanced imaging techniques, such as ultra-high-field 7T fMRI, have uncovered a “vestibulo-autonomic-nociceptive circuit.” This circuit directly links the balance organs to brain areas responsible for pain and autonomic functions, offering a deeper understanding of how vestibular therapies can impact mood regulation.

Effectiveness in Emotional Recovery After Brain Injuries

Vestibular dysfunction has a profound effect on mood. Studies have linked vestibular issues to conditions like anxiety, depression, and even depersonalization – a sensation of being disconnected from one’s own body. Many individuals recovering from brain injuries describe feelings of being “strange” or “not in control of self”.

“A stable body creates a stable mind: Vestibular Balance linked to Emotional Balance.” – Neuro Frontiers

Vision therapy and oculomotor rehabilitation can work alongside vestibular treatments to enhance recovery. These therapies promote neuroplasticity, reduce inflammation, and help restore the vestibulo-ocular reflex. When this reflex is compromised, the resulting disorientation can often lead to emotional distress.

Incorporation of Functional Neurology Techniques

Functional neurology builds on these insights by using targeted vestibular stimulation to promote balance and emotional well-being. Techniques like spinning chair exercises have been used since the 19th century to treat symptoms such as mania or heightened arousal. Modern advancements include controlled rotation exercises and Galvanic Vestibular Stimulation (GVS), which are precisely tailored to each patient’s neurological needs and must be conducted under professional supervision.

“Vestibular stimulation can modulate mood and hence influence emotions depending on the region of vestibular stimulation.” – Neuro Frontiers

A simple yet effective tool for assessing vestibular health is the Static Balance Test, which involves standing on one leg with eyes closed for 30 seconds. Clinics like HML Functional Care use such assessments to create personalized treatment plans. These plans often combine vestibular rehabilitation with vision therapy to address the unique challenges faced by brain injury patients, reinforcing the broader strategy of using neuroplasticity to support emotional recovery.

4. Regulating Mood with Neurofeedback and Photobiomodulation

Focus on Neuroplasticity and Brain-Body Connection

Neurofeedback works through operant conditioning, helping guide brain activity into healthier patterns by providing real-time feedback. This approach not only normalizes cortical activity but also promotes an increase in both gray and white matter volume. Complementing this, photobiomodulation (PBM) uses specific wavelengths of light to stimulate neural networks, aiding in cellular repair, improving blood flow, and reducing inflammation – key factors often involved in post-concussion syndrome.

“Training with neurofeedback aims to enable the individual to modify patterns of cortical activity and normalize brain activity.” – Canadian Agency for Drugs and Technologies in Health

Together, these therapies help restore the balance of the autonomic nervous system, which is essential for emotional stability. Neurofeedback specifically targets key emotional regulation centers, like the insula and amygdala, which are often disrupted after brain injuries. These combined methods pave the way for measurable improvements in emotional health, as supported by recent research.

Effectiveness in Emotional Recovery After Brain Injuries

Recovering emotionally after a brain injury can be a complex process. Statistics show that 10–20% of individuals with a single mild traumatic brain injury develop persistent post-concussion symptoms, while up to 40% may experience these symptoms for more than three months. A systematic review of neuromodulation techniques for mild TBI found that 13 out of 14 studies reported positive results, including reductions in depression, anxiety, and emotional instability.

In one randomized controlled trial involving 60 adults with moderate TBI, Neurofeedback-Assisted Exercise (NAE) demonstrated a significant impact. Using real-time EEG monitoring, participants received personalized visual and auditory feedback, leading to a 33.3% reduction in mood disturbances (POMS scores dropped from 37.2 to 24.8), compared to just 17.3% for traditional exercise. Another study focused on combat veterans found that 80% of those receiving real-time fMRI amygdala neurofeedback achieved clinically meaningful improvements in PTSD symptoms, compared to 38% in the control group.

Incorporation of Functional Neurology Techniques

Building on these findings, functional neurology incorporates neurofeedback and photobiomodulation into personalized treatment plans. For instance, practitioners may use amygdala neurofeedback with real-time fMRI or EEG during positive emotion tasks to enhance left amygdala activity, strengthening prefrontal connectivity and improving emotional regulation.

“Therapies like photobiomodulation target specific networks in the brain to stimulate healing, improve circulation, and reduce swelling and inflammation.” – Neurohealth Services

These non-invasive therapies address symptoms like irritability, anxiety, and depression. Since depression and headaches during the sub-acute phase are linked to longer recovery times, early use of neuromodulation can make a meaningful difference. Functional neurologists often combine neurofeedback and photobiomodulation with other therapies, such as vestibular rehabilitation and vision therapy, to support comprehensive emotional recovery.

At HML Chiropractic & Functional Care, a patient-first approach ensures that these neuromodulation techniques are tailored to meet individual needs, promoting emotional healing and recovery after brain injuries.

5. Personalized Treatment Plans with Mind-Body Integration

Focus on Neuroplasticity and Brain-Body Connection

Brain injuries are as unique as the individuals experiencing them, creating distinct patterns of dysfunction. Treatment plans are tailored to the specific neural pathways and responses of each patient, with neuroplasticity – the brain’s ability to reorganize itself – at the core of these strategies. When the limbic system becomes chronically activated due to injury or illness, it can lock the body into a constant “fight or flight” mode, making emotional regulation incredibly challenging.

“The brain has a tremendous capacity for repair and renewal, if it is given the right tools to do so.” – Sunjya Schweig, MD, California Center for Functional Medicine

Functional neurologists pinpoint which neurons are underperforming and use targeted therapies like vestibular rehabilitation, vision therapy, and sensory-motor exercises to rewire these pathways. This process also involves addressing the autonomic nervous system through techniques like vagus nerve resets, which help shift the body from a stress-driven state to a “rest, digest, and repair” mode, crucial for emotional recovery.

Effectiveness in Emotional Recovery After Brain Injuries

Research supports the success of personalized treatments. A systematic review of 16 studies revealed that 14 reported emotional improvements following tailored interventions, with 10 showing medium-to-large effects on emotional regulation.

These individualized plans focus on addressing the root causes of emotional challenges, leading to noticeable improvements. Functional neurology takes a comprehensive view, examining factors like medical history, genetics, nutrition, and environmental stressors to develop a strategy unique to each patient. This thorough assessment often uncovers hidden contributors to emotional symptoms, such as inflammation, hormonal imbalances, or nutritional deficiencies. By combining neuroplasticity principles with personalized care, patients receive a recovery plan designed specifically for their needs.

Patient-Centered Approach

Standard brain scans often miss the functional issues causing emotional symptoms. Functional neurology goes beyond these limitations, evaluating cognitive responses on an individual level. At HML Chiropractic & Functional Care, the focus is on creating customized treatment plans tailored to each patient rather than relying on one-size-fits-all protocols.

This approach empowers patients by involving them in their recovery process. Education about their condition and active participation in treatment not only boosts motivation but also enhances the effectiveness of neuroplastic remodeling. When patients engage in their recovery, clinicians can fine-tune therapies to better stimulate the brain’s healing processes.

Incorporation of Functional Neurology Techniques

Once assessments are complete, practitioners combine various therapies to maximize neural repair. Techniques like vestibular rehabilitation, neurofeedback, photobiomodulation, nutritional support, and sensory-motor exercises work together to promote neuroplasticity and emotional balance. Brain retraining programs target maladaptive neural pathways formed during chronic stress, while nutritional interventions address deficiencies that can negatively impact mood and cognition. Tools like Alpha-Stim provide additional support by stimulating nerve cells to help manage anxiety and depression.

Functional neurology emphasizes integration, treating vestibular function, vision, nutrition, and stress responses as interconnected elements of emotional health. This holistic approach equips the brain with the resources it needs to heal and regain stability.

Conclusion

Healing emotionally after a brain injury isn’t just about waiting for the brain to fix itself. The process relies on neuroplasticity – the brain’s ability to reorganize and form new connections when given the right stimulation and care. The therapeutic methods discussed earlier aim to tackle the root causes of emotional challenges rather than simply covering up the symptoms.

Recovery takes dedication. Building new neural pathways requires consistent, focused practice. As Dr. Stefanie N. Howell, Director of Research Integration at the Centre for Neuro Skills, puts it:

“Healing is not about waiting for neurons to regrow – it is about actively guiding the brain to build new roads, one meaningful task and one coordinated effort at a time”.

This intentional reshaping of the brain’s circuits allows for tailored treatments that address each person’s specific needs.

At HML Chiropractic & Functional Care, recovery from brain injuries is approached with precision and care. Through detailed assessments and personalized therapies – including nutritional support – their team develops recovery plans designed around your unique neurological needs. Instead of following generic protocols, they focus on specific neural pathways using a combination of techniques like vestibular rehabilitation, cognitive exercises, and targeted nutritional strategies.

Proper sleep and nutrition – especially omega-3 fatty acids and B vitamins – play a crucial role in creating the biochemical environment needed for brain repair and synaptic growth. By combining these foundational elements with targeted therapies, neuroplasticity becomes the driving force behind recovery. With expert guidance and consistent effort, achieving emotional stability and rebuilding neural health is within reach.

Even if years have passed since the injury, recovery is possible. With the right support and a commitment to the process, your brain can regain its optimal function. Take the first step — schedule a consultation with HML Functional Care and begin your personalized path to emotional and neurological healing.

FAQs

How long does emotional healing usually take?

Recovery on an emotional level after a brain injury is a deeply personal journey and looks different for everyone. While much of the healing typically occurs within the first two years, progress doesn’t stop there. The brain has an incredible ability to adjust and repair itself over time, a process known as neuroplasticity. How quickly or fully someone recovers often depends on the injury’s severity and the type of care and support they receive along the way.

How do you test for ANS dysregulation?

Testing for autonomic nervous system (ANS) issues involves checking how well it functions using various methods. Common approaches include heart rate variability (HRV) biofeedback, autonomic reflex testing, and advanced tools like INSiGHT scanning technologies. These techniques evaluate how the nervous system performs and adjusts, offering helpful information about its overall health.

Are neurofeedback and PBM safe?

Both neurofeedback and photobiomodulation (PBM) are regarded as safe when used properly. Neurofeedback is a noninvasive technique backed by clinical studies, while PBM relies on light wavelengths that are considered safe and show no major adverse effects. It’s always a good idea to consult a qualified professional to determine if these therapies are right for your individual situation.

The post 5 Ways Functional Neurology Supports Emotional Healing appeared first on HML Functional Care.

Here are a few key facts that frame everything you’ll read below:

• 90% of serotonin and more than 50% of dopamine are produced in the gut.
• The gut microbiome — made up of trillions of bacteria — plays a pivotal role in producing neurotransmitters like serotonin, dopamine, and GABA.
• Stress, poor diet, and conditions like leaky gut can disrupt this balance, contributing to anxiety, depression, brain fog, and behavioral challenges.
• A healthy gut supports mental clarity, mood stability, and neurological resilience by maintaining proper neurotransmitter levels.

Key Takeaways:

• The gut communicates with the brain via the vagus nerve, hormones, and immune signals.
• Gut bacteria produce chemicals that directly influence brain function and mood.
• Diets rich in fiber, polyphenols, and omega-3s, along with stress reduction, help maintain a healthy gut-brain connection.

Supporting your gut health is one of the most powerful things you can do for your brain, your mood, and your overall neurological function.

Understanding the Gut-Brain Axis

The gut-brain axis is a sophisticated two-way communication network connecting your central nervous system (CNS) — your brain and spinal cord — with the enteric nervous system (ENS) of your gastrointestinal tract. Think of it as a busy highway where signals about stress, immunity, and digestion are constantly exchanged.

This dialogue happens through four main pathways:

• Neural — via nerves like the vagus nerve
• Endocrine — using hormones and the stress-response system (HPA axis)
• Immune — through inflammatory signals and immune cells
• Metabolic — using chemical compounds (metabolites) produced by gut bacteria

Together, these pathways influence stress levels, emotions, and cognitive function, while also managing digestion, nutrient absorption, intestinal barrier health, and immune responses. When this system works well, it promotes balanced moods, clear thinking, and smooth digestion. When it’s off track, it has been associated with irritable bowel syndrome, obesity, anxiety, depression, and even neurodegenerative conditions like Parkinson’s disease.

Key Components of the Gut-Brain Axis

Three major players drive the ongoing conversation between your gut and your brain.

The vagus nerve serves as the main communication highway, transmitting sensory information from the gut to the brain. Approximately 80% of its fibers carry signals upward — from gut to brain — making it primarily a reporting system, not a command line.

The enteric nervous system (ENS) — a vast network of 100 to 500 million neurons embedded in your gut walls — regulates peristalsis, the wave-like muscle movements that push food through your digestive system. It operates independently while staying in constant contact with the CNS. Specialized structures called neuropods on gut cells create connections with the vagus nerve, enabling rapid sensory communication.

“The enteric nervous system (ENS), referred to as the ‘brain within the gut’ or ‘second brain,’ is structurally similar to the brain and operates on a similar ‘chemical platform.’”  — Leon M. T. Dicks, Stellenbosch University

Your gut microbiota — a community of roughly 50 trillion bacteria spanning about 1,000 species — produces neuroactive chemicals that influence brain activity and behavior while helping maintain immune balance.

The Role of the Gut Microbiome

Gut bacteria contribute chemical signals that refine the gut-brain dialogue. These microbes ferment dietary fibers to produce short-chain fatty acids (SCFAs) like butyrate. Butyrate can cross the blood-brain barrier, helping to regulate microglial cells and strengthen both the intestinal and blood-brain barriers. Interestingly, the makeup of your gut microbiota is largely established in the first three years of life — a period that coincides with critical stages of brain development.

“The gut microbiota plays a key role by modulating brain function through microbial metabolites (e.g., short-chain fatty acids), neurotransmitter precursors, and inflammatory signals.”  — Ahmed Hasan et al.

A balanced gut microbiome supports healthy neurotransmitter production and guards against neuroinflammation. However, stress can disrupt this balance rapidly — studies show that even two hours of social stress can significantly alter the composition of gut bacteria. Such imbalances may weaken the barriers protecting the brain, allowing inflammatory markers or bacterial toxins like lipopolysaccharides to reach the central nervous system, which can contribute to mood and behavioral disorders.

How the Gut Produces Neurotransmitters

The majority of the body’s serotonin — approximately 90% — is produced right in the gastrointestinal tract, along with more than 50% of the body’s dopamine. This production happens thanks to specialized cells in the intestinal lining and the trillions of bacteria living in the gut.

The gut creates neurotransmitters through two main mechanisms:

• Some gut bacteria directly transform dietary amino acids into active neurotransmitters.
• Bacterial byproducts stimulate enterochromaffin (EC) cells in the gut lining to produce more neurotransmitters.

These chemicals then communicate with the brain, often via the vagus nerve. While many neurotransmitters cannot cross the blood-brain barrier directly, their precursors can. For example, tryptophan (for serotonin) and tyrosine (for dopamine) cross into the brain, where they are converted into functional neurotransmitters. Notably, only about 1% of dietary tryptophan is used to make serotonin under optimal conditions — with the rest diverted to other pathways, especially during times of stress.

Primary Neurotransmitters Made in the Gut

• Serotonin (5-HT): Regulates intestinal movement, mood stability, and sleep patterns.
• Dopamine: Involved in reward processing, appetite control, and gastric blood flow.
• GABA: Acts as a calming agent, reducing stress and soothing neural circuits.
• Glutamate: Used by specialized neuropod cells to send fast sensory signals to the brain.
• Acetylcholine: Helps manage muscle contractions, heart rate, and cognitive function.
• Norepinephrine: Influences alertness and the body’s fight-or-flight response.

How Gut Bacteria Create Neurotransmitters

Certain gut bacteria act as tiny neurotransmitter factories. For serotonin, spore-forming bacteria like Clostridia stimulate EC cells to increase production of tryptophan hydroxylase 1 (TPH1), the key enzyme in serotonin synthesis. Bacteria such as Lactobacillus plantarum and Streptococcus thermophilus can convert 5-HTP directly into serotonin.

“Bacteria have been found to have the capability to produce a range of major neurotransmitters — so many, in fact, it was proposed as its own field of study decades ago: microbial endocrinology.”  — Philip Strandwitz, Northeastern University

For dopamine, bacteria like Staphylococcus and Bacillus subtilis use an enzyme called staphylococcal aromatic amino acid decarboxylase (SadA) to convert L-DOPA into dopamine. Similarly, Bifidobacterium and Lactobacillus species produce GABA by converting glutamate — a process that also helps them survive acidic conditions in the gut.

Leaky Gut and Neurotransmitter Disruption

What Is Leaky Gut Syndrome?

Leaky gut syndrome, also known as increased intestinal permeability, occurs when tight junction proteins — including claudin and occludin — fail to keep harmful substances out of the bloodstream. This allows toxins such as lipopolysaccharides (LPS) to pass through the intestinal barrier and enter circulation.

Once these toxins breach the gut barrier, the immune system reacts by releasing proinflammatory cytokines — such as IL-1β, IL-6, and TNF-α — throughout the body. This inflammation can travel via the vagus nerve and compromise the blood-brain barrier, a phenomenon sometimes called “leaky brain”. The result is not just widespread inflammation, but also significant disruptions in neurotransmitter balance.

“The concept that a ‘leaky gut’ may facilitate communication between the microbiota and key signaling pathways has gained significant traction.”  — John R. Kelly, Laboratory of Neurogastroenterology, APC Microbiome Institute

How Leaky Gut Affects Neurotransmitter Levels

When the gut barrier is compromised, neurotransmitter production is directly affected. Inflammation activates an enzyme called indoleamine-2,3-dioxygenase (IDO), which redirects tryptophan away from serotonin production. Instead, tryptophan is converted into neurotoxic kynurenine metabolites. This shift results in reduced serotonin — essential for mood regulation — and an increase in harmful metabolites like quinolinic acid.

Research has shown that 30–50% of alcohol-dependent individuals with increased intestinal permeability experience heightened depression, anxiety, and cravings — symptoms that persisted even after three weeks of abstinence. Johns Hopkins researchers also found that elevated levels of the bacterial translocation marker soluble CD14 tripled the risk of schizophrenia, linking gut-derived bacterial components to brain inflammation through monocyte activation.

Damage to the gut barrier also reduces beneficial bacteria like Lactobacillus and Bifidobacterium, which are vital for producing neurotransmitters such as GABA and dopamine. Additionally, leaky gut can impair the production of Brain-Derived Neurotrophic Factor (BDNF) — a protein crucial for memory, mood stability, and neuronal protection. These disruptions are associated with conditions including anxiety, depression, ADHD, and autism spectrum disorders.

“Intestinal permeability defects are thought to underlie the chronic low-grade inflammation observed in stress-related psychiatric disorders.”  — Jeremy Appleton, ND

Supporting Healthy Neurotransmitter Balance

Restoring gut health after leaky gut or dysbiosis involves a combination of dietary changes, lifestyle interventions, and targeted functional medicine strategies. The goal is to repair the gut lining, restore a healthy microbiome, and support the body’s natural neurotransmitter production.

Dietary Changes for Gut Health

Following a Mediterranean-style diet — rich in fruits, vegetables, whole grains, legumes, nuts, and olive oil — promotes the growth of beneficial bacteria like Bifidobacteria and Lactobacillus. In the NU-AGE trial, older adults who followed this dietary pattern for one year showed increased butyrate-producing bacteria, lower inflammatory markers (like C-reactive protein), and improved cognitive function.

Dietary fiber acts as a prebiotic, feeding bacteria that produce short-chain fatty acids (SCFAs) like butyrate. These SCFAs strengthen the gut barrier and reduce neuroinflammation. Foods high in oligofructose and inulin — like onions, garlic, and asparagus — also influence hormones like ghrelin and GLP-1.

Tryptophan-rich foods — such as turkey, eggs, and seeds — support serotonin production. Polyphenols (found in berries, tea, and olive oil) encourage beneficial gut bacteria while suppressing harmful strains. Omega-3 fatty acids (EPA and DHA) reduce inflammation and support neurotransmitter function; daily supplementation of 1–3 grams is often effective.

Conversely, Western diets high in refined sugars and animal fats worsen gut permeability, reduce microbial diversity, and encourage growth of inflammatory bacteria. Ensuring adequate micronutrients — zinc, folate, and B vitamins (B3, B6, B12) — is also essential, as they are necessary cofactors for neurotransmitter synthesis.

Lifestyle and Stress Reduction

Chronic stress is one of the most damaging forces on gut barrier integrity. It activates the hypothalamic-pituitary-adrenal (HPA) axis, elevating cortisol and increasing intestinal permeability, which allows LPS to enter the bloodstream and trigger neuroinflammation. Acute stress further compounds the problem by redirecting tryptophan toward neurotoxic pathways and away from serotonin production.

Practices like mindfulness, meditation, and breathwork counteract these effects by promoting vagal tone. With ~80% of vagus nerve fibers carrying signals from gut to brain, activities that stimulate this nerve — including deep breathing and meditation — enhance gut barrier function, reduce pro-inflammatory cytokine release, and improve mood.

“A troubled intestine can send signals to the brain, just as a troubled brain can send signals to the gut. A person’s stomach or intestinal distress can be the cause or the product of anxiety, stress, or depression.”  — Harvard Health Publishing

Regular physical activity improves gut motility, reduces inflammation, and increases microbial diversity. Quality sleep allows the gut-brain axis to recover and supports proper neurotransmitter recycling. And limiting unnecessary antibiotic use protects the microbiome’s ability to produce neuroactive compounds.

Functional Medicine Treatment Options at HML

At HML Chiropractic & Functional Care, we take a personalized, root-cause approach to restoring gut and neurotransmitter balance. Our integrated model combines functional medicine, functional neurology, and chiropractic care to address the whole person — not just the symptom.

Our treatment approach may include:

• Gut lining repair: Supplementing with SCFAs — including butyrate, acetate, and propionate — to restore intestinal barrier integrity and reverse neuronal damage in the gut.
• Microbiome restoration: Addressing dysbiosis and overgrowth of harmful bacteria. Targeted probiotics, such as Lactobacillus rhamnosus, have been shown to influence GABA receptors and reduce anxiety-like behaviors. Strains earning the nickname “psychobiotics” — including Bifidobacterium and Lactobacillus — produce neurotransmitters that directly support mood and cognition.
• Tryptophan pathway support: Redirecting tryptophan metabolism away from neurotoxic kynurenine pathways and toward serotonin production through targeted nutritional strategies.
• Food sensitivity testing: We use the Array 10 and Array 10-90 tests — the most comprehensive available — assessing cooked, uncooked, and modified food antigens to identify gut-disrupting triggers.
• Functional neurology therapies: Brain-based rehabilitative exercises and therapies to strengthen neural pathways and restore brain-body communication.

We treat a broad range of conditions connected to gut-brain dysfunction, including ADHD, Autism Spectrum Disorder, childhood neurodevelopmental disorders, learning disabilities, and chronic health challenges. Each patient receives a comprehensive evaluation and a personalized care plan.

Conclusion

The gut-brain axis is one of the most consequential systems in the human body. With approximately 90% of serotonin produced in the gut, and the enteric nervous system containing 100–500 million neurons — rightly called the “second brain” — this network does far more than support digestion. It shapes mood, sleep, cognition, and neurological resilience.

A healthy gut barrier prevents harmful substances from triggering neuroinflammation. A balanced microbiota produces short-chain fatty acids that strengthen both the intestinal lining and the blood-brain barrier, ensuring that tryptophan is channeled into serotonin rather than neurotoxic pathways. And a well-supported vagus nerve keeps brain-body communication flowing in both directions.

“The gut-brain axis enables the central nervous system to modulate gastrointestinal activity in response to psychological and physiological stress, while also enabling the enteric microbiota to regulate the CNS via immune, neuroendocrine, and vagal pathways.”  — Doenyas, C., Clarke, G. & Cserjési, R.

Functional medicine highlights the importance of proactive gut health for long-term neuroprotection. Research suggests that gut dysfunction may appear decades before neurodegenerative symptoms develop — making early intervention not just beneficial, but essential.

At HML Chiropractic & Functional Care, we combine functional medicine, functional neurology, and chiropractic care to help patients address the root causes of their health challenges. Fostering a healthy gut-brain connection supports better mood, sharper cognition, and improved neurological resilience. By taking steps to care for your gut today, you’re investing in your mental clarity, emotional balance, and nervous system health for years to come.

Frequently Asked Questions

Can gut-made serotonin affect my mood?

Yes. Approximately 90% of the body’s serotonin is produced in the gut. While gut-derived serotonin does not cross the blood-brain barrier directly, it signals the brain via the vagus nerve and influences mood, sleep, and well-being through neural, endocrine, and immune pathways. When gut health is disrupted, serotonin production can decline, contributing to anxiety, depression, and mood instability.

How do I know if I have leaky gut?

Increased intestinal permeability (leaky gut) is associated with symptoms like bloating, gas, diarrhea, constipation, food sensitivities, fatigue, and brain fog. Because these symptoms overlap with many conditions, a proper evaluation is essential. Functional medicine practitioners may use tests like the lactulose-mannitol test to assess gut barrier function. At HML, we conduct comprehensive evaluations to identify the root cause of your symptoms and build an individualized care plan.

Which probiotics help neurotransmitter balance?

Lactobacillus and Bifidobacterium strains — often called “psychobiotics” — are among the best studied for their role in neurotransmitter balance. Specific Lactobacillus strains produce GABA, which can help ease anxiety. Bifidobacterium strains support serotonin and dopamine production through microbial and immune pathways. Adding probiotic-rich foods (yogurt, kefir, fermented vegetables) or targeted supplementation can be a helpful starting point. For personalized probiotic recommendations based on your specific microbiome and health history, consult with our team.

What conditions does HML Functional Care treat related to gut-brain health?

Our team treats a range of neurological and developmental conditions with a gut-brain connection, including ADHD, Autism Spectrum Disorder, childhood neurodevelopmental disorders, dyslexia and learning disabilities, functional neurological disorder (FND), and chronic health challenges. We take a root-cause approach using functional medicine, functional neurology, and chiropractic care.

The post Gut-Brain Axis: How Your Gut Controls Neurotransmitter Balance appeared first on HML Functional Care.

Two broad treatment categories exist — pharmaceutical interventions and non-drug therapies. Understanding their respective strengths, limitations, and how they interact is essential for building an effective recovery plan.

Key takeaways

• Non-drug therapies are the first-line, evidence-backed approach for post-concussion cognitive recovery.
• Medications may play a supporting role for specific symptoms, but have limited and inconsistent evidence for chronic cognitive impairment after TBI.
• Combining functional neurology, vestibular rehabilitation, and cognitive retraining often produces the most durable outcomes.
• Pre-existing conditions like anxiety, depression, and ADHD significantly influence recovery timelines and treatment selection.
• Recovery is not one-size-fits-all — individualized evaluation is the foundation of effective care.

Medications for post-concussion memory recovery

No medications are currently FDA-approved specifically for cognitive symptoms caused by mild traumatic brain injury. However, physicians sometimes prescribe off-label drugs to help manage attention, processing speed, or mood-related barriers to recovery. These are used as adjuncts — not replacements — to rehabilitation.

Commonly prescribed medications

• Methylphenidate: A neurostimulant that blocks reuptake of norepinephrine and dopamine, improving focus and processing speed. Studied most extensively in TBI populations, including for mental fatigue. One trial of 29 patients showed a dose-dependent reduction in cognitive fatigue at doses of 5–20 mg taken two to three times daily.
• Amantadine: Boosts dopamine activity and blocks NMDA receptors. Typically used in early recovery phases. A study of 25 adolescents recovering from sports concussions found that 100 mg twice daily improved both verbal memory and reaction time.
• Acetylcholinesterase inhibitors (Donepezil, Galantamine): Maintain acetylcholine levels to support memory and attention. Evidence is considered limited, and these are less commonly used outside of more severe TBI presentations.

Side effects and safety considerations

Patients recovering from brain injuries tend to be more sensitive to medication side effects than the general population:

• Methylphenidate: Increased heart rate, elevated blood pressure, anxiety, dizziness, nausea, and appetite suppression. There is also concern about lowering the seizure threshold in TBI patients prone to seizures.
• Amantadine: Generally well-tolerated, but may cause nausea, headaches, dry mouth, blurred vision, and nervousness.
• Acetylcholinesterase inhibitors: Gastrointestinal side effects (nausea, vomiting, diarrhea), dizziness, drowsiness, and appetite suppression are the most commonly reported.

Some medications can actually impede recovery. Antipsychotics may prolong post-traumatic amnesia. Certain mood stabilizers (carbamazepine) and tricyclic antidepressants can impair attention and executive function. One randomized trial of valproate showed a trend toward increased mortality compared to placebo.

Without clear guidance from the literature, a cautious approach of starting low and titrating slowly is recommended.— Amanda R. Rabinowitz, Ph.D., Moss Rehabilitation Research Institute

How well do medications actually work?

The evidence base for pharmacological treatment of chronic post-concussion cognitive impairment is weak. A Cochrane review found that methylphenidate does not show significant benefits over placebo for chronic cognitive impairment after TBI. Sertraline has shown an 87% response rate for mood-related symptoms in mild TBI, but its effects on memory are less clear.

Recommendations for or against drug treatment of chronic cognitive impairment in TBI cannot be made based on current evidence.— Cochrane Database of Systematic Reviews

A review of 55 post-concussion treatment studies found that 22 had a high risk of methodological bias — underscoring how much the field still relies on limited data. Medications work best when they address a specific, identifiable barrier (such as severe depression preventing therapy engagement) rather than being used as standalone cognitive treatments.

Non-drug therapies for post-concussion memory recovery

Non-drug therapies are the established first-line approach for post-concussion cognitive impairment. Importantly, research suggests that 80–90% of people with concussions return to normal cognitive baseline within two weeks without targeted intervention. For those who don’t, rehabilitation is where the strongest evidence lies.

First-line treatments for posttraumatic cognitive impairments are non-pharmacologic, including education, realistic expectation setting, environmental and lifestyle modifications, and cognitive rehabilitation. — Hal S. Wortzel, MD, Director of Neuropsychiatry

Cognitive rehabilitation strategies

Compensatory training uses external tools — memory notebooks, smartphone reminders, structured task lists — to work around memory gaps rather than through them. This approach is particularly effective for patients with moderate to severe deficits.

Errorless learning structures practice environments so patients avoid reinforcing incorrect patterns. By eliminating trial-and-error from the learning process, the brain encodes correct information more reliably.

Metacognitive strategy training helps patients understand their own cognitive limits and develop active monitoring skills — recognizing when they need support and applying the right strategies in real time.

Internal memory strategies such as visual imagery, mnemonics, and semantic associations improve how information is encoded. These tend to work best for patients with milder impairments and high motivation.

A University of British Columbia pilot trial studied 24 patients with post-concussion memory difficulties across 11 sessions of either cognitive-behavioral therapy or cognitive rehabilitation. An impressive 91.7% achieved normal-range memory satisfaction scores — with many no longer perceiving memory impairment as a meaningful limitation.

A 10-week compensatory cognitive training program with 119 veterans demonstrated significant improvements in attention and learning, combining internal strategies with external digital aids, including voice memos and structured calendars.

Physical and vestibular interventions

Graded aerobic exercise, performed just below the threshold of symptom onset, improves cerebral blood flow and reduces post-concussion fatigue — both of which directly support cognitive recovery. A six-week, heart-rate-monitored exercise program in athletes with symptoms lasting 19 weeks produced significant symptom reductions.

Vestibular dysfunction affects nearly 60% of concussed patients and is one of the most underappreciated contributors to prolonged cognitive symptoms. Dizziness, imbalance, and motion sensitivity consume significant cognitive resources — addressing them directly frees up bandwidth for memory and attention.

Oculomotor rehabilitation targets visual issues, including accommodation and vergence problems that cause headaches and cognitive fatigue after a concussion. Restoring precise visual function reduces the neurological load that sustains post-concussion symptoms.

Combining physical and cognitive challenges simultaneously — for example, balance tasks paired with working memory exercises — engages the vestibular, motor, and cognitive systems together, closely mimicking the demands of real-world function and accelerating neuroplastic adaptation.

Light therapy

Daily 30-minute sessions of blue-light therapy (460–480 nm) over six weeks have shown significant improvements in executive function and reduced post-concussion symptoms. The mechanism involves regulating circadian rhythms and improving white matter integrity in areas including the corpus callosum and thalamus. For patients with light sensitivity — common in up to 90% of concussion cases — green light therapy (~530 nm) provides a gentler alternative without exacerbating symptoms.

How HML Functional Care treats post-concussion cognitive symptoms

At HML Functional Care in Lee’s Summit, MO, Dr. Alex Nelson, DC, and Dr. Lauren Nelson, DC, take a whole-nervous-system approach to post-concussion recovery. Rather than targeting isolated symptoms, the evaluation maps exactly which neurological systems are underperforming — and builds a rehabilitation plan designed to address them with precision.

Comprehensive neurological evaluation

Care begins with a detailed assessment that goes well beyond what a standard office visit captures. HML uses RightEye — a clinical eye-tracking system that identifies oculomotor dysfunction, gaze instability, and visual-vestibular processing errors that standard exams miss. Combined with balance, coordination, vestibular, and autonomic assessments, this evaluation produces a precise neurological profile that guides every treatment decision.

Targeted rehabilitation tools

From the evaluation, a personalized plan is built using HML’s integrated suite of neurological rehabilitation tools:

• Interactive Metronome therapy — trains the brain’s millisecond-level neural timing circuits, producing measurable improvements in processing speed, attention, working memory, and cognitive coordination
• Eye movement therapy via RightEye — targeted gaze stabilization and oculomotor sequences that rehabilitate the visual pathways most commonly disrupted by concussion
• Vestibular rehabilitation — progressive exercises that recalibrate the balance system, reduce dizziness and motion sensitivity, and restore cognitive resources previously consumed by vestibular dysfunction (see Vertigo & Dizziness)
• Senaptec sensory training — develops sensory integration capacity through progressively complex multi-system challenges
• Cold Laser Therapy (PBM) — photobiomodulation to reduce neuroinflammation and support cellular recovery in injured neural tissue
• Mild Hyperbaric Oxygen Therapy — increases oxygen availability to support neurological healing and reduce the metabolic deficits common after TBI

Functional medicine for underlying contributors

One of the most overlooked dimensions of post-concussion recovery is what’s happening at the metabolic and systemic level. Neuroinflammation, hormonal disruption, nutritional deficiencies, and sleep dysregulation all amplify and prolong cognitive symptoms after TBI. HML’s functional medicine approach uses advanced lab analysis to identify these contributors directly — and addresses them through targeted supplementation, dietary adjustments, and lifestyle support alongside neurological rehabilitation. This is particularly relevant for patients with co-occurring anxiety, depression, or ADHD, where treating the underlying metabolic picture often produces meaningful cognitive improvements independent of any other intervention.

Medications vs. therapy: a direct comparison

Non-drug therapies are the cornerstone of post-concussion cognitive recovery. Medications, when used, function as adjuncts — addressing specific barriers that might otherwise limit a patient’s ability to engage in rehabilitation.

Pharmacotherapy of cognitive impairment secondary to TBI is best regarded as adjunctive to nonpharmacologic interventions. — Hal S. Wortzel, MD, University of Colorado School of Medicine

Using medications and therapy together

The most effective recovery plans integrate both approaches strategically. Medications can help manage specific barriers — severe headaches preventing exercise, depression reducing therapy engagement, or sleep disruption impairing memory consolidation — while rehabilitation does the work of rebuilding neural function.

A 2003 study by Tiersky and colleagues followed 20 patients with persistent post-concussion symptoms lasting over one year. Those who received combined cognitive remediation and psychotherapy showed significant reductions in anxiety and depression alongside improved divided attention at both 1-month and 3-month follow-ups. Studies combining methylphenidate with Memory and Attention Adaptation Training (MAAT) show similar synergistic gains in working memory and word-list learning compared to either treatment alone.

The practical framework: medications target processing speed or arousal acutely; therapy builds durable compensatory skills. Together, they address both the immediate and the lasting dimensions of post-concussion cognitive recovery.

Choosing the right treatment for each patient

No two concussions produce identical impairment profiles, which means no two recovery plans should look identical. Effective treatment selection begins with a thorough neuropsychiatric evaluation that distinguishes between cognitive challenges caused directly by the concussion, those driven by co-occurring anxiety or depression, and those attributable to medication side effects.

Age and demographic factors

Adolescents (ages 13 through high school completion) typically recover more slowly than younger children or college-age adults. Older adults face elevated risks for lingering symptoms and poorer long-term outcomes. Student patients often require academic accommodations during recovery — rest breaks, extended test time, reduced homework loads — that should be scaled back progressively as symptoms improve.

Symptom severity at onset

Patients presenting with four or more immediate post-concussion symptoms are twice as likely to experience prolonged recovery. A jump of 20 or more points on the Graded Symptom Checklist within the first 24 hours frequently signals a recovery period of seven days or longer. For these high-risk cases, early and intensive intervention — rather than a “wait and see” approach — is significantly more effective.

Pre-existing conditions

Patients with ADHD, learning disabilities, anxiety, depression, or bipolar disorder face a higher risk for post-concussion syndrome and require individualized care that accounts for those conditions from the outset.

Identifying and treating comorbid neuropsychiatric conditions is essential… treatment of those disturbances takes precedence over, and may reduce the need for, treatment of cognitive impairments. — Hal S. Wortzel, MD, University of Colorado School of Medicine

Addressing a primary mood disorder like depression often produces direct, measurable cognitive improvements — separate from any concussion-specific intervention. HML’s functional medicine evaluation is designed to surface these underlying contributors early.

Patient goals and preferences

Some patients — particularly athletes and students — have strong preferences for non-pharmacological approaches. Others may benefit from short-term medication to bridge a gap during early recovery. For younger children or patients who struggle to self-report symptoms, caregiver observations play an essential role in tracking progress and adjusting the plan.

What the research shows about combined approaches

The body of evidence consistently favors multidisciplinary, non-pharmacological approaches over single-modality interventions — and the more comprehensive the program, the more durable the outcomes.

A UCLA BrainSPORT case series explored a six-session program combining cognitive-behavioral therapy with structured aerobic exercise for seven patients with persistent post-concussion symptoms. The intervention produced significant improvements on the Post-Concussion Symptom Inventory (p = 0.026; d = −1.115) alongside improved depression scores and quality of life measures.

An 8-week interdisciplinary program combining gradual return-to-activities with CBT produced significant symptom reductions that were sustained at a 3-month follow-up among 112 participants — suggesting that interdisciplinary rehabilitation produces more durable gains than single-discipline treatment.

Even brief, targeted interventions can be effective. A 16-year-old patient at Nationwide Children’s Hospital received three weekly sessions of neuropsychology-informed brief CBT after two months of unsuccessful standard care. The focused treatment — incorporating sleep intervention, psychoeducation, and cognitive restructuring — resolved her severe symptom burden and functional gait disturbance.

Across these studies, the common thread is integration: combining cognitive strategies, physical rehabilitation, and psychological support consistently outperforms any one approach used in isolation.

Moving forward after post-concussion memory loss

Non-drug therapies remain the most evidence-supported path for post-concussion cognitive recovery — and the research increasingly points to comprehensive, multi-system rehabilitation as the most effective form. Medications can play a valuable supporting role for specific, identifiable barriers, but they are not a substitute for the neurological rebuilding that rehabilitation provides.

The key variables — age, symptom severity, pre-existing conditions, metabolic health, and patient goals — make individualized evaluation essential. Generic protocols rarely produce optimal outcomes for a condition as heterogeneous as post-concussion syndrome.

HML Functional Care specializes in precisely this kind of individualized neurological assessment and rehabilitation. Dr. Alex Nelson, DC, and Dr. Lauren Nelson, DC, integrate functional neurology, chiropractic care, and functional medicine into care plans designed around the specific systems each patient needs to rebuild. If you’re dealing with persistent cognitive symptoms after a concussion and standard care hasn’t delivered meaningful results, a comprehensive neurological evaluation may reveal what’s been missed. Visit HML Functional Care to schedule a consultation.

Frequently asked questions

When should I consider medication for post-concussion memory loss?

Medication is rarely the first step. Non-drug therapies — including cognitive rehabilitation, vestibular rehabilitation, and aerobic exercise — are the evidence-backed first line of treatment. Medication may be appropriate if a specific barrier (such as severe depression, chronic sleep disruption, or significant attentional impairment) is preventing meaningful engagement in rehabilitation. Any medication decision should be made with a physician who has experience treating traumatic brain injuries, not in isolation from a comprehensive rehabilitation plan.

How long does cognitive rehabilitation take to show results?

Most patients begin to notice meaningful improvement within 4 to 7 months of consistent rehabilitation, though timelines vary based on injury severity, pre-existing conditions, and how consistently the home exercise program is followed. Patients who commit to their between-session exercises and attend sessions regularly tend to see faster and more durable improvements than those who rely solely on in-clinic work.

What tests help identify the cause of my memory problems after a concussion?

A thorough post-concussion evaluation should include neurological assessment of eye movements, balance, vestibular function, and coordination alongside standardized cognitive testing. At HML, RightEye eye-tracking adds a layer of precision that standard exams cannot provide — identifying specific oculomotor patterns associated with different concussion subtypes. Functional medicine lab analysis can also surface metabolic contributors (inflammation, hormonal imbalance, nutritional deficiency) that standard imaging and neurological exams will not detect.

The post Post-Concussion Memory Loss: Therapy vs. Medication — What the Evidence Says appeared first on HML Functional Care.

Conventional treatments like triptans frequently fail to address why vestibular migraines happen, leaving many patients cycling through medications without lasting relief. Functional neurology offers a different approach — one that identifies and corrects the underlying neurological dysfunctions driving symptoms, rather than masking them.

Key takeaways

• Vestibular migraines cause vertigo, imbalance, and dizziness — often without head pain.
• Functional neurology retrains the brain through targeted, non-invasive exercises.
• Specialized tools like RightEye eye-tracking and Interactive Metronome therapy support more precise rehabilitation.
• Functional medicine can address inflammatory and hormonal factors that contribute to migraine frequency.
• Combining these approaches often produces meaningful, lasting symptom relief.

What Are Vestibular Migraines?

Vestibular migraines (VM) are a neurological condition causing recurring episodes of vertigo, dizziness, or balance disruption — often without the typical migraine headache. Unlike conventional migraines, which are characterized by head pain, VM primarily disrupts balance and spatial awareness due to the overlap of pain and vestibular pathways in the brain. Notably, only about half of those with VM experience headaches alongside their vestibular symptoms, meaning many people endure severe dizziness and vertigo with no explanation they recognize as “migraine.”

VM is the leading cause of spontaneous episodic vertigo in adults, accounting for approximately 7% of cases in dizziness clinics and up to 9% in headache clinics. On a broader scale, migraines — including VM — cost the U.S. healthcare system and economy up to $36 billion annually in medical expenses and lost productivity.

Common symptoms and triggers

Vestibular migraines present with a distinctive set of symptoms that go beyond head pain:

• Sudden or triggered vertigo (a spinning sensation)
• Unsteadiness and lightheadedness
• Heightened sensitivity to motion
• Nausea, vomiting, and sensitivity to light, sound, or smell
• Brain fog, tinnitus, and ear fullness
• “Alice in Wonderland syndrome” — a distortion of perceived object size
• Difficulty finding words or concentrating during episodes

Episodes can last from 5 minutes to 72 hours, and lingering unsteadiness may persist for several days afterward.

Common triggers include emotional stress, sleep disruption, dehydration, barometric pressure changes, and hormonal shifts linked to menstruation or menopause. Keeping a symptom journal — tracking stress, diet, sleep, and environmental factors — can be a valuable tool in identifying individual patterns.

How vestibular migraines affect daily life

The impact of VM extends well beyond physical symptoms. The unpredictability of episodes creates persistent anxiety, as patients never know when the next attack will strike. Routine activities — driving, shopping in crowded spaces, attending events — can feel overwhelming, leading many to withdraw from everyday life.

Migraine is the second largest cause of disability in the world, second only to lower back pain.— Shin C. Beh, MD, FAAN, FAHS

The financial toll is also significant. Families with a migraine sufferer face healthcare costs roughly 70% higher than those without. Beyond medical bills, VM frequently leads to missed work, reduced productivity, and strained relationships. Chronic symptoms are closely tied to elevated rates of anxiety and depression — many patients describe feelings of hopelessness after months or years without effective treatment.

Functional Neurology for Vestibular Migraines

Functional neurology takes a fundamentally different approach to vestibular migraines by targeting the brainstem’s misfiring signals rather than simply suppressing symptoms. The goal is to recalibrate the vestibular, proprioceptive, autonomic, and visual systems so they communicate effectively again.

A properly functioning cervical spine is central to this process — the cervical spine directly influences the vestibular nuclei located in the brainstem. Targeted spinal adjustments, combined with specific neurological exercises, work to restore optimal signal flow between the spine, brainstem, and brain.

Neurological rehabilitation techniques

Vestibular rehabilitation retrains the nervous system to process sensory information more accurately. Several evidence-supported techniques are used in this process:

• Gaze stabilization exercises: Strengthen the vestibulo-ocular reflex (VOR) by training the eyes to remain fixed on a stationary target while the head moves, directly reducing motion-induced dizziness.
• Balance retraining: Progressive movement tasks on stable and unstable surfaces improve coordination among the eyes, inner ears, and body.
• Habituation training: Gradual, controlled exposure to triggering motions or environments desensitizes the nervous system to sensory overload over time.
• Proprioceptive training: Targeted exercises enhance the brain’s ability to sense the body’s position in space, refining the sensory input that the brainstem relies on for balance.

Research supports these methods: a 4-week home-based vestibular program significantly reduced participants’ Dizziness Handicap Inventory (DHI) and Hamilton Anxiety Rating Scale (HAMA) scores. Functional MRI scans in the same study revealed increased activity in the left posterior cerebellum — confirming that targeted physical retraining produces measurable changes in brain function.

How neuroplasticity supports recovery

Neuroplasticity — the brain’s capacity to reorganize and form new neural connections — is the mechanism that makes functional neurology work. Through consistent, targeted practice, exercises strengthen healthy neural pathways and reduce the brain’s reliance on dysfunctional ones.

Most patients see measurable improvements after weeks to months of regular practice. Research and clinical data from functional neurology practices indicate that over 75% of migraine patients experience substantial long-term improvement, with some achieving complete relief.

Functional MRI studies also show that vestibular rehabilitation boosts spontaneous brain activity in the left posterior cerebellum — enabling more effective processing of balance signals even when the inner ear or vestibular organs remain impaired.

How HML Functional Care Treats Vestibular Migraines

At HML Functional Care in Lee’s Summit, MO, these principles are applied through a personalized, multi-system treatment approach led by Dr. Alex Nelson, DC, and Dr. Lauren Nelson, DC. Their methodology combines cervical spinal care, targeted vestibular rehabilitation, functional neurology exercises, and lifestyle support to address the neurological root causes of vestibular migraines — not just the symptoms.

Comprehensive evaluation

Care begins with a thorough neurological evaluation that goes well beyond a standard office visit. This includes assessment of eye movements, postural control, and autonomic nervous system function. HML uses 

RightEye — a precision eye-tracking system that measures visual and neurological function with clinical accuracy — to identify patterns of dysfunction that standard exams cannot detect. Combined with balance, coordination, and sensory processing assessments, this evaluation produces a complete, individualized neurological picture.

Personalized rehabilitation plan

From the evaluation, Dr. Alex and Dr. Lauren design a tailored rehabilitation plan that may include:

• Eye movement therapy — specific gaze stabilization sequences that stimulate the vestibular-cerebellar pathways disrupted by vestibular migraines
• Interactive Metronome therapy — trains the brain’s millisecond-level neural timing circuits, supporting improvements in processing speed, attention, and coordination
• Senaptec sensory evaluation and training — challenges and develops the brain’s sensory integration capacity
• Cold Laser Therapy (PBM) — photobiomodulation to support tissue recovery and reduce neuroinflammation
• Mild Hyperbaric Oxygen Therapy — improves brain oxygen availability to support neurological recovery
• Vestibular and proprioceptive exercises for home practice — reinforcing neuroplastic changes between in-clinic sessions

Functional medicine support

One dimension often overlooked in vestibular migraine treatment is the role of inflammation, hormonal balance, and nutritional factors. HML’s functional medicine approach uses advanced lab analysis to identify inflammatory markers, hormonal imbalances, and nutritional deficiencies that may be amplifying migraine frequency or severity. Addressing these root-level contributors — through targeted supplementation, dietary adjustments, and lifestyle support — is an integral part of the care plan for many vestibular migraine patients.

What Patients Can Expect

The functional neurology approach to vestibular migraines does not promise overnight results — neuroplastic change takes consistent work. Most patients begin to notice meaningful improvement within weeks to months of regular practice, both in the clinic and at home.

Clinical outcomes from functional neurology practices show that over 75% of migraine patients experience substantial long-term improvement. Many eventually transition to managing their symptoms primarily through lifestyle and dietary practices, reducing reliance on ongoing clinical treatment — a shift from treating episodes to addressing causes.

Related symptoms like anxiety, depression, and cognitive fog — common companions to vestibular migraines — often improve alongside the core vestibular symptoms as the nervous system becomes better regulated.

Frequently Asked Questions

How do I know if my dizziness is a vestibular migraine?

Vestibular migraines produce episodes of dizziness, vertigo, or imbalance that may occur with or without a headache. Triggers often involve specific movements, visual environments, hormonal shifts, or stress. Because VM shares symptoms with several other vestibular conditions, a proper evaluation by a qualified clinician is essential for accurate diagnosis. If you’re experiencing recurring dizziness or vertigo, reach out to a healthcare professional rather than self-diagnosing.

How long does it take to see results with functional neurology?

The timeline varies depending on the severity of neurological dysfunction, how consistently exercises are performed, and individual factors like overall health and sleep quality. Many patients notice gradual progress as the brain adapts — some within a few weeks, others over several months. Patients who commit to their home exercise program between sessions typically see faster and more durable results.

Is functional neurology safe?

Yes. The neurological rehabilitation techniques used at HML — including vestibular exercises, eye movement therapy, Interactive Metronome, and spinal care — are non-invasive and designed to work with the brain’s natural capacity for adaptation. All care plans are developed following a thorough evaluation, ensuring exercises are appropriate for each patient’s specific neurological profile.

A Path Forward for Vestibular Migraine Sufferers

Vestibular migraines are significantly underdiagnosed — partly because their primary symptoms (dizziness, vertigo, imbalance) don’t fit the conventional image of a migraine, and partly because standard neurological evaluations often miss the functional deficits driving them.

A functional neurology approach looks at the whole nervous system: how the brainstem is processing sensory input, how the vestibular and visual systems are communicating, how the cervical spine is influencing brainstem function, and what metabolic or inflammatory factors may be amplifying symptoms. Addressing all of these layers — rather than targeting symptoms alone — is what creates lasting improvement.

If traditional treatments haven’t provided the relief you’re looking for, a personalized neurological evaluation may reveal what’s been missed. 

HML Functional Care specializes in blending functional neurology, chiropractic care, and functional medicine into individualized treatment plans that address the root causes of vestibular migraines. Visit HML Functional Care to learn more or schedule a consultation.

The post Vestibular Migraine Treatment: How Functional Neurology Addresses the Root Cause appeared first on HML Functional Care.

Here’s a quick guide to getting started:

• Find a Pediatric Chiropractor: Look for one with advanced training (80–100+ hours) in pediatric neurology and tools like INSiGHT scans for assessing nervous system function.
• Prepare Medical History: Gather birth records, developmental milestones, sensory triggers, and therapy reports to help create a tailored care plan.
• Set Goals: Focus on improving sleep, reducing meltdowns, and easing sensory sensitivities.
• Understand the Process: Expect gentle, low-force adjustments using tools like the Activator to avoid discomfort.
• Track Progress: Use tools like INSiGHT scans and a sensory journal to monitor changes in behavior, sleep, and sensory responses.

Chiropractic care works best when paired with home strategies, like creating a sensory-friendly environment and combining it with therapies like occupational or speech therapy. While it’s not a cure for autism, it can help children feel calmer and more in control of their sensory experiences.

Getting Ready for Chiropractic Care

Finding a Pediatric Chiropractor

When searching for a pediatric chiropractor, look for someone with 80–100+ hours of advanced pediatric and neurological training and certifications like PX Docs. It’s also important to choose a practitioner who focuses on pediatric cases rather than adult musculoskeletal care. Ask if the office uses INSiGHT scanning technology – this includes tools like Thermal, EMG, and Heart Rate Variability scans. These scans provide an objective way to evaluate your child’s nervous system and create a “weather map” to monitor progress over time.

Additionally, ensure the chiropractor uses gentle, low-force techniques such as the Torque Release Technique (TRT). This method avoids twisting, popping, or cracking, making it more suitable for children.

“It’s not that chiropractic doesn’t work for children – it’s that not all chiropractors are equally prepared to work with children, especially those with complex neurological challenges.” – Optimal Family Chiropractic

For example, HML Functional Care specializes in family-focused care, including functional neurology and medicine. They provide tailored treatments for conditions like autism, ADHD, and learning disabilities, emphasizing overall health and nervous system function. Visit hmlfunctionalcare.com to explore their services and book a consultation.

Once you’ve chosen a qualified chiropractor, prepare your child’s health history to make the initial assessment smoother.

Collecting Medical Records and History

Your child’s health history can reveal patterns of nervous system strain. Here’s what to gather:

• Birth and delivery records: Include details like C-sections, use of forceps or vacuum, prolonged or rapid labor, and NICU stays.
• Developmental milestones: Note any delays, retained primitive reflexes, or injuries like head bumps or falls.
• Sensory triggers and behaviors: Document responses across the eight sensory systems.
• Chronic health concerns: List frequent ear infections, digestive issues, or nutritional challenges.
• Therapy reports: Include notes from Occupational Therapists and Speech Therapists to align treatment goals.
• Current struggles: Record sleep quality, digestive problems, emotional regulation (like meltdowns), and attention difficulties.

“This deep dive into your child’s history is the single most important part of our entire process.” – First Steps Chiropractic

Having this information ready will help the chiropractor create a personalized care plan.

Defining Your Child’s Goals

Set specific goals that improve your child’s quality of life. These might include better sleep, improved eye contact, reduced sensitivity to textures, or fewer meltdowns. Goals should also align with your child’s sensory profile – whether they are sensory seekers, sensory avoiders, or show low sensory registration. A key aim is to help your child’s nervous system transition from a stressed state to a calmer one, making them more responsive to therapies like occupational or speech therapy.

“The goal isn’t to ‘cure’ autism, but to reduce this underlying neurological stress so the body can function better.” – Dr. Henry, First Steps Chiropractic

To track progress, keep a sensory journal. Note daily observations such as sleep patterns, meltdown frequency, and reactions to sensory triggers. This will help establish a baseline and measure changes over time.

First Visit Assessment Checklist

The first visit is all about getting a clear picture of how your child’s nervous system is functioning. This sets the stage for creating a personalized sensory integration plan. During the appointment, the chiropractor uses specialized scanning tools to map out stress patterns and energy use in your child’s body. These scans are quick, painless, and take just about two minutes each. To help your child feel at ease, they can bring a favorite comfort item, move around, or stim as needed during the evaluation. Here’s a breakdown of the key assessment tools and their role in understanding your child’s neurological function.

Surface Electromyography (sEMG) Scan

The sEMG scan involves placing small sensors along your child’s spine to measure electrical activity in the paraspinal muscles. This provides insight into how much energy the body uses to maintain posture and balance against gravity. Think of it as a snapshot of the nervous system’s workload, highlighting areas that may be overactive or underactive. During a typical scan, activity is measured at 15 different points along the spine.

“A surface EMG scan is the tool that helps us ‘hear’ the nervous system’s story, loud and clear. No more guesswork – just honest, objective insight.” – Dr. David Fletcher, CEO of CLA Inc.

For example, the scan might reveal patterns like a “Raging Bull”, where a child has a Total Energy score of 413.8 compared to the balanced range of around 100. This information helps the chiropractor pinpoint why your child might experience sensory overload, fatigue, or difficulty sitting still.

Medical History and Sensory Symptom Discussion

This part of the visit focuses on uncovering the neurological reasons behind your child’s challenges. The chiropractor will ask about key aspects of your child’s history, including birth details (e.g., C-section, forceps, or vacuum delivery), developmental milestones, and stress-inducing daily routines like transitions, mealtimes, or getting dressed. Specific sensory triggers – such as reactions to clothing tags, loud sounds, or certain textures – are also discussed to determine whether behaviors stem from sensory meltdowns rather than being purely behavioral.

This conversation also allows the chiropractor to align their care plan with any other therapies your child might be receiving, such as occupational therapy, speech therapy, or other therapeutic approaches your child may be receiving.

INSiGHT Neurological Scans

The INSiGHT system includes multiple scans that work together to give a full view of your child’s nervous system.

• The NeuroThermal scan measures temperature differences along the spine, providing a look at autonomic nervous system stress patterns.
• The Heart Rate Variability (HRV) scan tracks the intervals between heartbeats to assess how well your child adapts to and recovers from stress. It acts like a “battery meter”, showing whether your child is stuck in a stressed state or can shift into a calmer, regulated mode.

These scans produce easy-to-read, color-coded “stress maps” that make invisible neurological stress visible. Some providers combine the results into a single “CORESCORE” number, which simplifies the data for parents and helps track progress over time. The initial scans serve as a baseline to measure changes and improvements in future visits, which will be covered in the tracking progress section.

What to Watch During Treatment Sessions

Once the assessment phase wraps up, treatment begins. This is the time for parents to pay close attention to how their child responds during sessions. Observing specific behaviors can help you understand whether the treatment is working and if your child feels safe and supported. These insights are essential for fine-tuning the approach in future sessions.

Ensuring Comfort

Comfort is a top priority. Signs like wiggling, chatting, or even napping can indicate that your child is feeling at ease. These behaviors suggest their nervous system is shifting from a stressed state to a calmer, more regulated one. A good chiropractor will adopt a child-led approach, respecting things like movement, stimming, or the need for a comfort item. If your child appears calm with only minor sensitivity, it’s a positive sign of progress. On the flip side, if they seem upset or resistant, the practitioner should adjust their technique or pacing right away. Interestingly, a 2022 study found that 94% of children with autism spectrum disorder felt at ease during chiropractic visits when their sensory preferences were respected.

Low-Force Adjustment Methods

For children sensitive to sensory input, the adjustment technique is critical. Pediatric chiropractors use extremely gentle pressure to ensure the experience isn’t overwhelming. There should be no loud “cracking, “popping, or “twisting” sounds during the session.

“Adjustments for little ones are incredibly light, using no more pressure than you’d use to check the ripeness of an avocado.” – Total Health Chiropractic

Many chiropractors rely on handheld tools like the Integrator or Activator, which deliver precise, gentle impulses. These tools help create predictable input, reducing the chance of startling children with auditory sensitivities. The goal isn’t just pain relief but helping the nervous system transition from a “fight-or-flight” mode to a “rest-and-digest” state. This approach supports sensory integration by minimizing stress triggers.

Monitoring Your Child’s Responses

Keep an eye on both immediate and long-term changes during and after sessions. In the moment, watch for signs of calmness or increased engagement. In the days following, look for improvements like fewer meltdowns, better sleep, or greater adaptability to routine changes.

“He’s still the same kid… but now he can handle life better. And so can I.” – Patient Parent, Davis Family Chiropractic

Also, note if your child becomes less bothered by things like clothing tags, loud noises, or bright lights. You might even see a reduction in sensory-seeking behaviors, like crashing into furniture or constant spinning. A 2019 study found that 74% of parents reported noticeable improvements in their child’s quality of life – better sensory tolerance, improved mood, and more – after chiropractic care. These observations are key to refining the treatment plan as you move forward.

Supporting Care at Home

To build on the positive progress made during sessions, it’s essential to support care at home. Pairing chiropractic adjustments with daily strategies can help maintain nervous system balance and encourage continued growth.

Recording Sensory and Behavior Changes

Keeping a detailed log of sensory and behavioral changes can help fine-tune treatment plans. Document specific behaviors, triggers, and contexts. For instance, note when your child covers their ears at the sound of the vacuum in the living room at 3:00 PM. Focus on four key areas:

• Sleep patterns: How easily does your child fall asleep and stay asleep?
• Emotional regulation: How often and how intensely do meltdowns occur?
• Social engagement: Are there improvements in eye contact or communication attempts?
• Sensory sensitivities: How does your child react to things like tags, loud noises, or bright lights?

Additionally, look for adaptive responses – moments when your child overcomes sensory challenges. For example, trying a new food texture without gagging or walking through a crowded hallway without becoming distressed. These small victories show that the nervous system is learning to self-regulate more effectively.

Combining Chiropractic Care with Other Therapies

Chiropractic care can stabilize the nervous system, making other therapies more effective. A calmer nervous system allows your child to better absorb and practice skills during sessions like occupational or speech therapy.

“Neurologically-focused chiropractic care is like tilling the soil of your child’s nervous system. By helping to calm and regulate their system, we create more fertile ground for new skills and learning to blossom.” – First Steps Chiropractic

To maximize benefits, share progress notes among all providers to align on goals and strategies. If possible, schedule chiropractic adjustments before challenging therapy sessions to prepare the nervous system for learning. Allowing your chiropractor to communicate directly with other therapists can also help avoid conflicting approaches and reinforce developmental progress.

Setting Up a Sensory-Friendly Home

Creating a sensory-friendly environment at home can further support the transition from stress to calm. Consider setting up a “Calm-Down Corner” as a comforting retreat rather than a punishment space. Stock it with soft textures like bean bags or pillows, dim lighting such as string lights or a lava lamp, weighted blankets or lap pads, and quiet fidget tools like putty or stress balls.

Introduce a sensory diet to provide regular neural input. For example, start the day with activities like jumping on a mini-trampoline to stimulate the vestibular system. Incorporate “heavy work” tasks like pushing a toy lawnmower, carrying groceries, or doing wall push-ups throughout the day. These activities deliver deep, calming pressure that helps regulate the nervous system.

Simple adjustments can also make a big difference. Remove tags from clothing, keep noise-canceling headphones handy for loud environments, and offer crunchy snacks for oral-motor input. When changes to the routine are coming, give your child advance notice to ease anxiety.

“Think of a sensory diet as ‘sensory nutrition.’ It’s about feeding the nervous system what it needs to stay balanced, just like you feed the body nutrients to stay healthy.” – Dr. Henry, First Steps Chiropractic

Tracking Progress and Follow-Up

Neurological healing often begins beneath the surface, with internal changes paving the way for visible behavioral improvements. For instance, shifts in the nervous system may occur before noticeable changes like fewer meltdowns or improved communication become apparent. This section explores how tools like objective scans, observable signs, and periodic updates to care plans come together to monitor progress and complete the treatment journey.

Follow-Up Scans and Evaluations

Regular INSiGHT scans play a key role in tracking internal progress. These scans measure critical aspects such as Heart Rate Variability (HRV) to evaluate how well the nervous system adapts, Surface EMG (sEMG) to assess muscle tension and energy efficiency, and NeuroThermal Scans to monitor autonomic balance and organ function. At HML Functional Care, these advanced tools are integrated into a personalized care strategy, allowing for timely adjustments to your child’s treatment plan. Follow-up scans are scheduled at key milestones or during progress checks, offering side-by-side comparisons that visually highlight neurological improvements.

Indicators of Nervous System Improvement

Scan results often align with observable signs of recovery in the nervous system. One of the earliest indicators is improved sleep – falling asleep more easily and waking up feeling rested. Other changes might include fewer meltdowns, reduced anxiety during transitions, more consistent bowel movements, better posture, and enhanced coordination. Sensory sensitivities may also diminish, making everyday activities like haircuts or tolerating loud noises more manageable. Cognitive improvements, such as sharper focus and increased social engagement, including better eye contact and more frequent communication, typically follow these foundational changes.

“Symptoms are often the last thing to appear when something’s wrong – and because of that, they’re usually the last thing to go away when real healing starts to happen.”– Dr. Tony Ebel, DC, CPPFC, CCWP

Updating the Care Plan

As your child’s nervous system begins to heal, their care plan is adjusted based on scan results. For example, improvements like waking up with more energy or better brain-body communication may prompt changes to treatment frequency or the addition of complementary therapies. Before introducing more intensive treatments, such as primitive reflex integration or detoxification protocols, it’s essential to establish a stable foundation of nervous system regulation. These adjustments ensure the care plan remains aligned with your child’s evolving needs. During particularly stressful periods, your chiropractor may suggest “boost adjustments” to help the nervous system recalibrate.

“Healing isn’t a straight line – it’s a spiral. Periods of rapid progress are often followed by plateaus – or even small regressions – while the brain and body consolidate and integrate those gains.”– New Hope Chiropractic

Conclusion

This checklist has provided actionable steps, from choosing a skilled pediatric chiropractor to monitoring your child’s progress over time. These steps aim to create a pathway toward meaningful improvements in sensory regulation and overall well-being.

Chiropractic care focuses on aligning the spine to support optimal nervous system function. Addressing vertebral misalignments, it can help reduce neurological stress, which in turn supports better sensory processing and emotional balance. This adjustment can also enhance your child’s ability to benefit from therapies like occupational or speech therapy.

“Chiropractic care isn’t a ‘cure’ for autism. It’s about helping your child’s nervous system function at its best, so they can experience more calm, more connection, and more joy.”– Pinnacle Chiropractic

With regular adjustments, the nervous system can gradually adapt and regulate itself more effectively. Be on the lookout for small but encouraging changes – like improved sleep, better eye contact, or fewer meltdowns during transitions. These subtle shifts often point to deeper neurological progress happening beneath the surface.

FAQs

Is chiropractic care safe for kids with autism?

Chiropractic care can be a safe option for children with autism when conducted by professionals trained in pediatric care. Studies indicate that neurologically focused chiropractic treatments might help with sensory processing, emotional regulation, and overall well-being by addressing the nervous system’s function.

For the best results, treatments should be customized to fit the child’s specific needs and carried out by experienced practitioners. Always consult with healthcare providers who are familiar with your child’s medical history to decide if chiropractic care is a suitable choice.

How many visits until we notice changes?

Many children start experiencing shifts after 4 to 12 weeks of chiropractic care. Some families observe improvements within just a few weeks, while for others, it may take longer. Often, the earliest signs of progress become evident within the first month of regular visits. However, more pronounced changes might take up to 12 weeks. Every child responds differently, depending on their individual needs and situation.

What should I track at home to measure progress?

To monitor your child’s progress with sensory integration, pay close attention to how their responses to sensory input evolve. Look for shifts in how they react to different stimuli, their ability to handle various textures, sounds, and movements, and any growth in managing sensory regulation. Keeping a log or checklist can help you track changes in behavior, emotional control, and engagement in everyday activities. These notes can offer meaningful insights into their developmental journey.

The post Checklist for Sensory Integration with Chiropractic Care appeared first on HML Functional Care.

Key Takeaways:

• Popular Diets: GFCF, additive-free, low FODMAP, and ketogenic diets are common.
• Potential Benefits: May reduce GI symptoms and indirectly improve behavior.
• Risks: Nutritional gaps (e.g., calcium, vitamin D, B vitamins) and increased food anxiety.
• Challenges: Cost, time, and social isolation from restrictive eating.
• Safe Implementation: Requires professional guidance, careful tracking, and gradual food reintroduction.

Elimination diets should be viewed as diagnostic tools, not permanent solutions. Consulting a healthcare professional ensures the diet is safe and nutritionally balanced for your child.

How Elimination Diets Work in Autism

Elimination diets for autism are rooted in two main ideas. The first is the opioid excess theory, which suggests that incomplete digestion of gluten and casein produces peptides (gliadomorphin and casomorphin). These peptides may cross a “leaky gut” and bind to opioid receptors in the brain, potentially contributing to behaviors like social withdrawal and apathy. Jaak Panksepp proposed that disruptions in brain opiate systems might explain some autism symptoms.

Early research found elevated levels of C-terminal beta-endorphin in children with autism. Additionally, 77% of children treated with the opioid antagonist naltrexone showed improvements in irritability and hyperactivity, although core autism symptoms remained unchanged. These findings have fueled interest in how dietary changes might address both neurological and gastrointestinal symptoms.

However, these theories remain unproven. Several studies have failed to find abnormal levels of these peptides in the blood or urine of individuals with autism.

Common Types of Elimination Diets

Based on these theories, families and practitioners often turn to specific elimination diets to address potential triggers. The GFCF diet – which removes gluten (wheat, barley, rye) and casein (dairy) – is the most widely used approach. Another option is the additive-free diet (or Feingold diet), which excludes artificial colors, flavors, preservatives, fragrances, and sweeteners that could provoke adverse reactions.

For gastrointestinal issues like bloating and gas, some families try the low FODMAP diet, which removes certain fermentable carbohydrates found in specific fruits, legumes, and dairy products. Others explore the ketogenic diet, a high-fat, low-carbohydrate plan that may improve mitochondrial function and reduce neuroinflammation.

The Gut-Brain Connection

Beyond peptide-related theories, the health of the gut itself plays a significant role in behavior regulation. The gut-brain axis connects intestinal health with brain function through pathways involving the vagus nerve, immune responses, and microbial metabolites. In autism, imbalances in gut bacteria (dysbiosis) may lead to the production of compounds like propionic acid, which can influence the central nervous system and alter neurotransmitters such as serotonin and dopamine.

Gastrointestinal symptoms are common in autism, with research showing that 23% to 70% of children with autism experience these issues. One study found that 79.3% of individuals with ASD reported GI symptoms, with abdominal discomfort (51.7%) and diarrhea (49.4%) being particularly frequent.

Najlaa Hamed Almohmadi of Umm Al-Qura University highlights the importance of this connection:

“The gut-brain axis may influence both the gastrointestinal and the brain’s operation through bilateral interaction. This… transmission is mostly controlled by the gut microbiota, which is regulated by dietary interventions”.

Food sensitivities may also trigger the release of proinflammatory cytokines, such as TNF-α, IL-6, and IL-8. These molecules can cross the blood-brain barrier, potentially affecting brain development and function. While these mechanisms provide a framework for dietary interventions, researchers caution that clinical evidence remains limited, and trials have yet to yield consistent results.

What the Research Shows About Benefits

Behavioral and Emotional Changes

Parents often report seeing reduced hyperactivity, irritability, and repetitive behaviors in children following the GFCF (gluten-free, casein-free) diet. These effects seem more noticeable in kids who also deal with gastrointestinal (GI) issues, suggesting that easing physical discomfort might indirectly improve behavior.

That said, the scientific findings are mixed. A 2021 meta-analysis of six randomized controlled trials with 143 participants found no statistically significant changes when clinicians assessed outcomes. Kristina Zafirovski from Torrens University Australia highlights this complexity:

“A majority of the studies showed a positive effect of the GFCF diet on a variety of autistic symptoms, including positive changes in cognitive skills, behaviour, and gastrointestinal symptoms, while some showed conflicting evidence”.

While many parents observe behavioral improvements, the role of GI symptom relief in enhancing overall well-being cannot be ignored.

Effects on Gastrointestinal Symptoms

Dietary adjustments often aim to address GI issues linked to autism. Research suggests a connection between the severity of GI symptoms and the intensity of autism symptoms. When digestive discomfort is reduced, it may lead to secondary improvements in both behavior and overall health.

For example, some studies have found that fecal microbial transplantation led to an approximately 80% reduction in GI symptoms. However, not all outcomes are positive – meta-analyses indicate a relative risk of 2.33 for adverse GI effects when comparing elimination diets to regular ones. Another promising approach, the Low FODMAP diet, focuses on removing fermentable carbohydrates and has shown potential for alleviating GI symptoms in pilot studies. Still, it appears to have little or no influence on behavioral symptoms.

Research Limitations

Despite some encouraging findings, the research faces significant challenges. Many studies involve small sample sizes – often between 7 and 50 participants – making it hard to apply results to larger populations. Additionally, most trials last only 6 to 12 weeks, which may not be long enough to detect meaningful changes or long-term nutritional risks.

Observer bias is another issue. Studies relying on unblinded parent reports show effect sizes as large as 1.48, but these drop to 0.51 or become statistically insignificant when blinded raters evaluate the same children. Amélie Keller from the University of Copenhagen reflects this uncertainty:

“The evidence for the efficacy of eliminating gluten and casein from the diet, purely based on autism as an indication, is uncertain”.

High dropout rates – sometimes reaching 25% – add further complications. Families who see little benefit are more likely to abandon the diet, which can skew results. These limitations emphasize the need for careful, evidence-based decision-making when weighing the potential benefits and risks of elimination diets for autism.

Risks and Challenges of Elimination Diets

Nutritional Deficiencies

Cutting out entire food groups can leave noticeable nutritional gaps, especially for children. For instance, removing dairy eliminates key sources of calcium, vitamin D, and protein – nutrients that are critical for growth and bone development in children with ASD. Similarly, gluten-free diets often result in lower intake of iron, fiber, and essential B vitamins like B1, B2, B3, B6, B12, and folate.

One study revealed that 78% of children with ASD and severe food selectivity were at risk for five or more nutritional deficiencies. Adding to this challenge, gluten-free products are roughly 2.4 times more expensive than conventional options, which can make it harder for families to afford fortified substitutes.

To avoid deficiencies, consulting a registered dietitian is crucial. They can monitor biomarkers like serum folate, vitamin B12, and homocysteine levels to guide supplementation for nutrients such as calcium, vitamin D, and iron. However, supplements should always be taken under medical supervision to prevent toxicity. Regularly tracking height and weight is also important, as restrictive diets like the ketogenic diet have been linked to slower growth in children.

But nutritional risks are just one part of the equation – families also face practical challenges in sticking to these diets.

Adherence Challenges

Following an elimination diet can be a logistical headache, especially when children are already picky eaters. Feeding issues affect 46% to 89% of children with autism, and sensory sensitivities to textures, smells, or colors can make removing favorite foods even more difficult.

For families, the effort required to manage these diets can feel overwhelming. Meal planning, reading labels for hidden ingredients, and avoiding gluten or casein in processed foods can take a toll on both time and finances. Hidden sources of gluten and casein, such as “modified food starch” or “hydrolyzed protein”, demand constant vigilance. Social situations, like dining out or holiday gatherings, can also become isolating – 75% of families on a GFCF (gluten- and casein-free) diet reported feeling left out during such events.

A gradual approach can help. Start by removing one protein at a time instead of making drastic changes all at once. Building meals around naturally gluten- and casein-free options like fresh produce, eggs, poultry, and rice can help balance costs. Keeping a food and behavior journal for 1–2 weeks before starting the diet can also provide a baseline for tracking progress.

Even with careful planning, restrictive diets can have unintended emotional and psychological effects.

Preventing Overly Restrictive Eating Habits

If not handled carefully, elimination diets can lead to food anxiety or disordered eating habits. Studies show that 40% of adolescents with IBS and 53% of those with Celiac disease develop maladaptive behaviors like skipping meals or overly restricting food to avoid symptoms.

The International Association of Functional Health and Healing highlights this concern:

“Functional health practitioners have a duty to understand and communicate to their clients the psychological side effects of restrictive elimination diets”.

To reduce food anxiety, avoid labeling foods as “good”, “bad, “safe”, or “unsafe.” These terms can create stress and make children view eliminated foods as inherently harmful, complicating the reintroduction process. Instead, describe foods in terms of how they nourish or support the body.

Elimination phases should always be temporary and carefully planned. Reintroducing foods once symptoms stabilize can prevent long-term aversions. Caregivers should also consider the diet’s impact on a child’s body image and overall relationship with food. Asking reflective questions like, “How might this diet affect how the child feels about their body?” or “Will breaking the diet cause feelings of guilt?” can provide valuable insight. Professional guidance from a registered dietitian is key to ensuring the child maintains a balanced diet and a positive relationship with food.

These challenges highlight the importance of weighing the potential benefits of elimination diets against their risks. Evidence-based practices, such as those offered by HML Functional Care, emphasize the importance of personalized, well-rounded support for children with autism and related conditions.

How to Safely Implement an Elimination Diet

Working with Healthcare Professionals

Before starting an elimination diet, consult with a pediatrician or a registered dietitian. Sharon Jaeger, a Registered Dietitian at the Cleveland Clinic, highlights the importance of professional guidance:

“If you don’t have the appropriate person helping you, you could end up with a whole host of other medical problems because your diet is deficient.”

Healthcare professionals can rule out medical conditions like celiac disease or inflammatory bowel disease, which require medical intervention rather than dietary changes. They also assess whether your child is a suitable candidate for dietary restrictions. Children who are underweight or have limited eating habits may face risks like further weight loss or stunted growth [28,29].

Kelly Klaczkiewicz, a Registered Dietitian at Children’s Hospital Colorado, stresses the need for expert involvement:

“They [elimination diets] are not safe for kids without guidance. Cutting out a major food group can significantly impact a child’s total nutrient intake and can impact growth.”

A registered dietitian can create a custom meal plan to ensure your child gets the nutrients they need while avoiding specific food groups. They also teach you how to spot hidden sources of gluten or casein on food labels.

Involving your child in meal planning and grocery shopping can make them feel included rather than restricted. It’s equally important to coordinate with your child’s school to prevent accidental exposure to trigger foods during lunches or snacks. Once your healthcare team has outlined a safe approach, you can move on to reintroducing foods in a controlled manner.

Systematic Food Reintroduction

After the elimination phase, reintroduce foods one at a time using a systematic protocol. Razan Hallak, a Registered Dietitian at Ohio State Wexner Medical Center, advises against rushing this step:

“The reintroduction phase… is a step that many people tend to rush through. If symptoms return quickly thereafter, it will be impossible to know which food or foods were linked to the symptoms.”

Typically, the elimination phase lasts 2–6 weeks. When reintroducing foods, start with a small portion – about 1/4 teaspoon or 1/4 cup – and gradually increase the amount over 2–3 days if no reaction occurs. Then, stop that food for 3–4 days to monitor for delayed reactions like mood changes, skin issues, or digestive discomfort.

If your child has a suspected food allergy, reintroductions should happen under medical supervision to manage the risk of severe allergic reactions like anaphylaxis. Remember, allergies trigger immune responses, while intolerances primarily affect digestion.

As you reintroduce foods, tracking symptoms and reactions becomes crucial.

Tracking Progress and Outcomes

Throughout the process, maintain a detailed food and symptom diary. Record everything – foods eaten, portion sizes, preparation methods, and timing. Don’t forget to note external factors like sleep, stress, illness, or teething, as these can mimic or worsen food-related symptoms.

Pay attention to changes across multiple systems – skin, mood, respiratory health, and cognitive function. For instance, a study involving 146 patients with eosinophilic esophagitis showed that over 75% experienced fewer symptoms with a supervised elimination diet.

To avoid accidental exposure, label and store “safe” foods separately. If your child reacts negatively to a food during reintroduction, stop that food immediately and consult your healthcare provider before continuing.

Careful tracking and professional support are essential for balancing the potential benefits of an elimination diet with the risks of nutritional deficiencies. At HML Functional Care, families receive personalized guidance on nutritional strategies to support children with autism, ensuring dietary changes are both safe and effective.

Weighing Benefits Against Risks

Elimination diets can bring noticeable improvements for some children with autism, especially those dealing with gastrointestinal issues like constipation, diarrhea, or bloating. For instance, one study reported a 57.56% reduction in GI symptom scores, along with better social communication skills. However, these potential benefits come with the risk of nutritional imbalances.

To manage these risks, individualized planning and professional oversight are essential. As highlighted by Springer Nature:

“Individualized dietary plans under professional supervision remain crucial to ensuring nutritional adequacy and therapeutic effectiveness”.

Without expert guidance, children may face additional health challenges, particularly those who are underweight or have restrictive eating habits. These children are more prone to further weight loss and increased food aversions.

For families considering this approach, a structured and cautious plan is key. Start by assessing your child’s current diet and growth patterns. Short-term elimination trials – lasting around 2–6 weeks – can help identify specific food triggers without drastically altering the entire diet. During the trial, track changes in digestion, mood, sleep, and behavior to determine whether certain foods are causing issues.

It’s important to remember that elimination diets are diagnostic tools, not permanent solutions. If no clear improvements emerge during the trial, reintroduce the eliminated foods to avoid unnecessary restrictions. Even when benefits are observed, regular monitoring is crucial to prevent nutritional deficiencies.

At HML Functional Care, families receive tailored nutritional guidance designed to meet each child’s unique needs. Their functional medicine approach ensures that dietary changes promote overall health while minimizing risks. If you’re exploring an elimination diet for your child with autism, professional support can help you make informed and safe decisions.

FAQs

How do I know if my child is a good candidate for an elimination diet?

If your child is experiencing symptoms like behavioral shifts or gastrointestinal discomfort that could be tied to food sensitivities, an elimination diet might be worth considering. Before starting, it’s essential to consult a healthcare provider or dietitian. They can assess your child’s symptoms, medical history, and nutritional requirements to ensure the approach is safe and effective.

Elimination diets are generally short-term, lasting about 1–3 months. The process involves cutting out specific foods to observe any improvements in symptoms. Afterward, foods are reintroduced slowly to pinpoint any triggers.

What nutrients are most likely to be missed on a gluten-free/casein-free diet?

Key nutrients that can often be lacking on a gluten-free/casein-free diet are folate, calcium, and vitamin D. These nutrients play a crucial role in overall health and development, but they’re typically found in foods that contain gluten or dairy. To prevent deficiencies, it’s important to plan meals thoughtfully and include alternative sources of these nutrients.

How long should we trial an elimination diet before reintroducing foods?

An elimination diet usually lasts between 1 and 3 months before starting the reintroduction phase. Reintroducing foods is a slow and deliberate process that can take several weeks. This pace is essential to observe any reactions or shifts in health or behavior. By taking it step by step, you can pinpoint potential food sensitivities while keeping overall health stable.

The post Elimination Diets for Autism: Risks and Benefits appeared first on HML Functional Care.

• Functional neurology addresses issues in how neurons communicate, often using exercises like eye movement training and balance activities to optimize neural pathways. It’s particularly helpful for conditions like ADHD, migraines, and concussions.
• Sensory reorganization helps the brain adapt after sensory loss or injury. For example, blind individuals may develop heightened touch sensitivity as their brain repurposes visual areas to process tactile input.

Both approaches aim to improve neural communication and sensory processing, offering solutions for complex neurological challenges and localized sensory deficits.

1. Functional Neurology

Mechanisms of Action

Functional neurology works by tapping into the brain’s ability to adapt and change – what’s often referred to as neuroplasticity. Through carefully designed sensory, motor, or cognitive exercises, it aims to reshape how neurons communicate. The idea is simple but powerful: neurons fire based on a balance of activating and inhibiting signals. By managing these signals with targeted exercises, practitioners can encourage the brain to form new pathways or reinforce existing ones, improving communication between different neural regions.

One of the key players in this process is proprioception – your body’s natural awareness of its position and movement in space. Chiropractors trained in functional neurology use precise spinal and extremity manipulations to send specific sensory signals to targeted brain areas. Considering that about 90% of the brain’s workload is tied to essential functions like regulating heart rate and digestion through brainstem activity, even small changes in neural communication can ripple out to affect overall health.

Clinical Applications

Functional neurology shines when addressing conditions that traditional imaging techniques might miss. These are often referred to as functional lesions – cases where symptoms persist despite normal test results. This approach has shown promise in managing a wide variety of conditions, including vertigo, ADHD, autism spectrum disorders, concussions, Parkinson’s disease, and chronic pain syndromes like fibromyalgia. It’s particularly helpful for the estimated 15% to 30% of patients with neurological issues who don’t respond well to conventional treatments.

At HML Chiropractic & Functional Care, these principles are applied to support patients dealing with developmental disorders, brain injuries, and chronic health challenges. Treatments might include exercises to improve eye movement, monitored through Video Nystagmography (VNG), or therapies that integrate sensory inputs like sight, sound, touch, and body awareness. These methods aim to reorganize brain function, leading to measurable improvements in neural activity.

Evidence and Research Support

Currently, more than 700 board-certified functional neurology practitioners worldwide use these techniques to address neurological disorders, which affect over 1 billion people globally. Tools like VNG testing provide objective data, showing improvements in eye movement speed, accuracy, and response times.

“The ability to show changes on VNG [Video Nystagmography] is quite unique and remarkable… the unique exercises that produced the VNG changes also proved to be the key in the patient’s fast recovery.” – Russell W. Margach, DC

Research backs the idea that the brain can rewire itself in milliseconds. This rapid adaptability is what allows targeted exercises to repair damaged pathways or create new ones. For patients who haven’t found relief through medication or other traditional treatments, this approach offers a fresh perspective. Unlike sensory reorganization methods, functional neurology focuses on delivering tailored inputs that directly impact brain function, opening up new possibilities for recovery.

2. Sensory Reorganization

Mechanisms of Action

Sensory reorganization taps into the brain’s ability to adapt, known as neuroplasticity, to compensate for sensory loss. When one sense is lost, the brain redirects signals and repurposes areas that previously handled the missing sense. This process involves synaptic adjustments: strengthening some connections through Long-Term Potentiation (LTP) and weakening others via Long-Term Depression (LTD). Dormant pathways can also become active. For example, after vision loss, the auditory or tactile systems may take over the visual cortex.

This adaptation follows Hebbian learning, famously summarized as “cells that fire together, wire together”. The brain also grows new nerve fibers through axonal sprouting and enhances signal efficiency through remyelination. Neurotransmitters like acetylcholine are crucial in this process – blocking acetylcholine during therapy can negate recovery benefits. When a specific brain region is damaged, nearby healthy areas can step in to take over its functions. These cellular changes are the foundation for the clinical applications discussed below.

Clinical Applications

Sensory reorganization has practical uses in addressing sensory loss and conditions like amputation. For individuals who are blind or deaf, sensory substitution devices reroute information through alternative pathways. For instance, the visual cortex may process tactile inputs like Braille or auditory cues for sound localization. A striking 2010 case highlighted how a deaf and blind woman’s visual cortex and Wernicke’s area adapted to process haptic American Sign Language, showcasing how the brain integrates language processing through crossmodal adaptation.

In amputation cases, Targeted Reinnervation (TR) reconnects nerves to muscles. A 2015 study followed a patient with a trans-humoral amputation over two years after TR surgery. Initially, brain responses to stimulation were diffuse and bilateral. Over time, EEG recordings revealed that the sensory map reorganized, concentrating activity in the contralateral S1 hand area, effectively restoring the representation of the missing fingers.

Evidence and Research Support

Research on Vagus Nerve Stimulation (VNS) paired with rehabilitation highlights the potential of sensory reorganization. Studies show that moderate VNS intensity (0.8 mA) works best, with 93% of patients achieving full recovery compared to just 7% without VNS. Additionally, blind individuals demonstrate about a 10% improvement in two-point tactile thresholds compared to sighted individuals, reflecting enhanced sensitivity through reorganization.

“When we direct our attention to any one sense, its acuteness is increased; and the continued habit of close attention… appears to improve the sense in question permanently.” – Charles Darwin

Impact on Brain Health

Sensory reorganization does more than restore function – it protects the brain. Without structured input, cortical areas can develop seizures, experience cell death (neuronal apoptosis), or suffer cortical atrophy. By repurposing these regions, the brain avoids these issues, maintaining stability and overall neural health. Instead of letting unused areas go dormant, the brain assigns them new roles, ensuring they remain active and functional.

Clinicians at HML Chiropractic & Functional Care incorporate these principles into their care, leveraging the brain’s adaptability to enhance sensory processing and support neurological health.

Pros and Cons

Let’s dive into the strengths and challenges of functional neurology and sensory reorganization, two approaches that serve different neurological needs.

Functional neurology shines when dealing with complex, multi-system conditions like ADHD, autism, and chronic migraines. This approach takes a holistic view, addressing not just neurological symptoms but also metabolic, immune, and digestive factors. It can deliver quick results – like the case of a 30-year-old elite weightlifter who moved from severe pain to peak performance after just one 45-minute session. Both subjective pain reports and imaging confirmed the rapid improvement. On the other hand, sensory reorganization is ideal for localized issues such as vertigo, balance problems, and gaze instability. By focusing on targeted inputs like vestibular and proprioceptive stimuli, it addresses these deficits effectively.

But no method is without its hurdles. Functional neurology requires highly skilled practitioners and active patient involvement, particularly through home exercises. Sensory reorganization, while effective, can sometimes lead to unintended outcomes like neuropathic pain if the brain’s adaptation process misfires. Additionally, its effectiveness can be limited by the body’s structural constraints.

“Anatomical changes are likely to be more resistant to treatments aimed at reversal.” – Luke A. Henderson, Associate Professor, University of Sydney

Although neither approach reverses neurodegeneration, both aim to maximize the function of healthy neural pathways. For example, a study on sensory integration showed a 34% reduction in fall risk after a 12-week program. Similarly, 62% of patients with Functional Neurological Disorder experienced measurable improvement through sensory-based occupational therapy.

At HML Chiropractic & Functional Care, these methods are tailored to each patient’s needs, combining strategies to enhance overall neurological function and address specific sensory challenges.

Conclusion

Functional neurology and sensory reorganization work hand in hand to support brain health, both relying on neuroplasticity to improve neural function. Functional neurology provides the diagnostic tools for identifying specific neural issues through assessments like eye movement tracking, balance tests, and sensory processing evaluations. Sensory reorganization, on the other hand, is the biological process that enables the brain to create new connections and reroute signals around damaged areas.

“Functional neurology is built off the idea of neuroplasticity.” – iBrain and Body

This partnership is key to effective neural recovery. For instance, after functional neurology identifies weak pathways – like inefficient communication between the vestibular and visual systems – targeted sensory inputs can strengthen those circuits through the brain’s natural ability to reorganize. This precise approach helps avoid maladaptive patterns that could lead to chronic pain or sensory issues.

The process follows an “assess-reassess” framework, where practitioners use immediate feedback to evaluate whether a neurological exercise reduces neural stress. Therapies begin at a low intensity to match the patient’s current capacity and are gradually increased, allowing for steady progress without overwhelming the system. Advanced tools, such as virtual reality or rhythmic auditory cues, can enhance these therapies when paired with traditional manual methods.

At HML Chiropractic & Functional Care, this integrated strategy customizes treatment to each patient’s unique neurological needs. It addresses both the miscommunications identified through functional neurology and the rewiring facilitated by sensory reorganization. With the chiropractic neurology equipment market expected to grow from $548 million in 2023 to nearly $989 million by 2033, these evidence-based, tailored approaches are becoming more accessible for those seeking solutions that target the root causes of their conditions.

FAQs

How do I know if I need functional neurology or sensory reorganization?

Determining whether functional neurology or sensory reorganization is the right path for you depends largely on your specific symptoms and challenges.

Functional neurology typically aims to address issues such as balance difficulties, impaired vision, or other neurological imbalances. The approach focuses on improving brain function by leveraging neuroplasticity – the brain’s ability to adapt and rewire itself.

On the other hand, sensory reorganization is more about retraining the brain to interpret and respond to sensory input. This method is often used for sensory processing difficulties or to aid recovery from neurological injuries.

The best way to figure out which option suits you is through a professional evaluation. A specialist can assess your situation and guide you toward the most effective approach.

What tests are used to identify weak brain pathways?

Tests designed to pinpoint weak brain pathways often focus on assessing sensory functions. These evaluations typically include checking vibration sensitivity, joint position awareness, and response to pinprick sensations. Common tools for these tests include a 128 Hz tuning fork and tubes filled with hot and cold water.

Can these therapies cause symptoms to get worse at first?

During the initial stages of treatment or sensory reorganization, it’s common for symptoms to temporarily feel more intense. This happens because the brain is actively adjusting and rewiring itself. While these changes might feel unsettling, they’re usually short-lived and often signal that the therapy is effectively supporting long-term progress.

The post Functional Neurology and Sensory Reorganization Explained appeared first on HML Functional Care.

• Diaphragmatic Breathing: Strengthens your core by engaging your diaphragm, reducing chest compression, and stabilizing your spine.
• 4-7-8 Breathing: Calms your nervous system, lowers cortisol, and eases tension during acute pain.
• Box Breathing: Balances breathing patterns, sharpens focus, and promotes spinal alignment.

Studies show diaphragmatic breathing can cut back pain by 58% in 8 weeks. Practicing these techniques for 5–10 minutes daily can transform posture, reduce discomfort, and improve overall well-being. Simple steps like syncing your breath with daily movements can make a big difference. Consistency is key – start today for lasting relief.

Diaphragmatic Breathing: The Core Technique

Diaphragmatic, or belly breathing, engages your diaphragm – a dome-shaped muscle essential for deep, efficient breathing. Unlike shallow chest breathing, which relies on your neck and shoulder muscles, this method promotes full oxygen exchange and helps stabilize your core. As the Cleveland Clinic puts it:

“The diaphragm is the most efficient muscle for breathing… Your abdominal muscles help move the diaphragm and give you more power to empty your lungs.”

Picture your core as a cylinder: the diaphragm forms the top, the pelvic floor acts as the base, and the abdominal muscles make up the walls. Proper breathing causes the diaphragm to contract and move downward, generating intra-abdominal pressure that supports your spine, much like a natural weight belt. This not only enhances breathing efficiency but also strengthens spinal stability, which is crucial for alleviating back pain.

On the other hand, chest breathing raises the shoulders, triggers stress responses, and increases tension in the neck and upper back. Diaphragmatic breathing, however, shifts the focus to expanding the abdomen. This activates the body’s relaxation response and minimizes the strain on overworked accessory muscles. Over time, many adults develop shallow breathing habits, often due to tightening their abdominal muscles for aesthetic reasons, which can weaken the diaphragm.

Now that you understand its importance, let’s break down how to practice this technique step by step.

How to Practice Diaphragmatic Breathing

Start by lying on your back with your knees bent and feet flat on the floor. Place one hand on your chest and the other on your belly, just below your rib cage.

1. Inhale slowly through your nose for a count of four. Focus on raising the hand on your belly while keeping the hand on your chest still. Imagine your entire midsection expanding – front, sides, and back – like a balloon inflating.
2. Exhale gently through pursed lips (as if blowing through a straw) for about six seconds. Feel your abdomen contract as you release the air.

Practice this for 5–10 minutes, three to four times daily. Once you’re comfortable with this lying-down position, try it seated, then standing. Eventually, incorporate it into everyday activities like walking or lifting. With consistent practice, this technique can transform your breathing patterns and improve your body mechanics.

Benefits of Diaphragmatic Breathing

This approach tackles the underlying issues of posture-related back pain. Since the diaphragm connects to the lumbar vertebrae, its rhythmic movement helps stabilize and massage the lower back, providing internal spinal support.

It also relieves chronic tension. By shifting the workload from the neck and shoulder muscles to the diaphragm, those overused muscles can finally relax, easing the tightness that often contributes to back pain. Additionally, deep breathing stimulates the vagus nerve, lowering cortisol levels and activating the parasympathetic nervous system – your body’s natural relaxation mode.

For tailored advice on incorporating diaphragmatic breathing into your back pain relief plan, visit HML Chiropractic & Functional Care (https://hmlfunctionalcare.com).

4-7-8 Breathing for Relaxation and Pain Relief

The 4-7-8 breathing technique is a rhythmic method inspired by Pranayama practices, brought into the spotlight by Dr. Andrew Weil, who describes it as a “natural tranquilizer” for the nervous system. Unlike diaphragmatic breathing, which enhances core stability, this approach is specifically designed to ease stress and relax muscles during moments of acute pain. While diaphragmatic breathing focuses on physical support, 4-7-8 breathing directly targets the stress response, helping to release tension.

When back pain strikes, the body often shifts into “fight or flight” mode. This triggers the release of stress hormones like cortisol, which can tighten muscles and create a cycle of pain and tension. The 4-7-8 breathing technique works to interrupt this cycle by stimulating the vagus nerve. This nerve plays a key role in activating the body’s relaxation response, reducing cortisol levels, and easing muscle tension. Dr. Chiti Parikh, Executive Director of the Integrative Health and Wellbeing Program at Weill Cornell Medicine, highlights this:

“It activates the vagus nerve, which is responsible for the relaxation response. When the vagus nerve is activated through breathing, it can help reduce cortisol and anxiety.”

Scientific studies back these claims. Research from 2022 shows that this method improves heart rate variability and helps regulate blood pressure, which can reduce strain on the heart. Even just five minutes of controlled, slow breathing can have a noticeable impact on stress and anxiety levels.

How to Practice 4-7-8 Breathing

To get started, find a comfortable position – either sitting upright or lying down. Place the tip of your tongue against the ridge of tissue just behind your upper front teeth. Keep it there throughout the exercise to maintain a steady rhythm.

• Step 1: Exhale completely through your mouth, making a “whoosh” sound.
• Step 2: Close your mouth and inhale quietly through your nose for a count of 4.
• Step 3: Hold your breath for a count of 7.
• Step 4: Exhale forcefully through your mouth, producing a “whoosh” sound for a count of 8.

This completes one cycle. Begin with four cycles twice a day – this takes only about 90 seconds. As you grow more comfortable, you can gradually increase to eight cycles per session. If the 7-count breath hold feels difficult, you can adjust the pace while keeping the 4:7:8 ratio intact. Some lightheadedness is common initially but usually fades with practice.

Why It Works for Back Pain

The calming effect of the 4-7-8 technique is largely due to the extended exhale. While inhaling naturally raises the heart rate, exhaling slows it down, which helps reduce stress hormones that contribute to muscle tension and back pain.

Additionally, this controlled breathing creates intra-abdominal pressure, which stabilizes the spine and reduces strain on spinal discs. Unlike medications for anxiety or pain, which may lose effectiveness over time, the benefits of 4-7-8 breathing build with consistent practice.

Incorporating this technique into your daily routine can be a simple yet powerful way to manage back pain. At HML Chiropractic & Functional Care, we focus on a whole-body approach to spinal health. Techniques like 4-7-8 breathing can complement other therapies, offering a well-rounded path to relief.

Box Breathing for Stability and Focus

Box breathing, sometimes referred to as square breathing (and also known as sama vritti pranayama), stands out among breathwork techniques for its balanced and rhythmic approach. Unlike methods like 4-7-8 breathing, which primarily aim to calm the nervous system, box breathing focuses on fostering both mental clarity and physical stability. The technique is built on four equal phases: inhale, hold, exhale, and hold.

This practice actively engages the diaphragm, forming what’s often called a “core cylinder.” This process enlists the abdominals, obliques, and back muscles to provide spinal support. Dr. Kevin Spahr from PRO Therapy explains:

“Think of your diaphragm as a large, dome-shaped muscle… its secondary job is just as critical: core stabilization.”

During each inhale, the diaphragm increases intra-abdominal pressure, delivering internal support to the spine. At the same time, the structured counting in box breathing acts as a meditative tool, redirecting attention away from discomfort and sharpening focus. It’s no surprise that U.S. Navy SEALs rely on this technique to stay calm and precise in high-stakes scenarios.

Scientific studies back up these claims. A 2024 study revealed that box breathing was 99.2% effective in regulating respiratory rates. Additionally, a 2023 study found that practicing breathwork, including box breathing, for just five minutes daily significantly reduced anxiety and improved mood.

How to Practice Box Breathing

To get started, find a comfortable position. Sit with your back supported and feet flat on the floor, or lie down if that feels more natural. Place one hand on your chest and the other on your stomach to ensure you’re engaging in deep belly breathing rather than shallow chest breathing.

Here’s how to practice box breathing:

• Inhale: Through your nose, breathe in for 4 seconds, letting your abdomen expand.
• Hold: Pause your breath for 4 seconds, activating your parasympathetic nervous system.
• Exhale: Slowly release your breath through your mouth for 4 seconds, fully emptying your lungs and relaxing your shoulders.
• Hold: Pause again with empty lungs for 4 seconds before starting the next cycle.

Start with 1–5 minutes of practice and gradually increase to 10–20 minutes daily. If a 4-second count feels challenging at first, shorten it to 2 or 3 seconds, keeping all four phases equal. Dr. Melissa Young, an Integrative Medicine Specialist at Cleveland Clinic, highlights the simplicity of this method:

“Box breathing’s simplicity is its greatest strength. When you start out with other forms of breathwork, you can almost get more anxious by overthinking it.”

With consistent practice, this technique not only sharpens focus but also improves postural alignment.

Benefits for Posture and Core Strength

Beyond its mental benefits, box breathing also supports physical health by improving posture and core stability.

This technique retrains the body to use proper breathing mechanics. Shallow chest breathing, which often overworks accessory muscles, is replaced by full diaphragmatic engagement. Since the diaphragm attaches directly to the lumbar vertebrae, using it correctly provides essential spinal support. Kevin Kang, a physiotherapist at The Brisbane Spine Clinic, explains:

“A proper diaphragmatic breath can create gentle pressure (intra-abdominal pressure) which is understood to help stabilize the spine, similar in principle to a weightlifter’s belt.”

Practicing box breathing regularly enhances postural awareness by encouraging better lung expansion and maintaining healthy spinal alignment throughout the day. In just five minutes, it can balance the nervous system, ease muscle tension, and alleviate chronic pain. Dr. Melissa Young adds:

“The nervous system is not fixed; it’s plastic. We can change it by learning how to be less responsive to stress and how to calm that response.”

At HML Chiropractic & Functional Care, we emphasize the value of integrating breathing techniques like box breathing into your routine. This practice complements hands-on treatments, helping you achieve a balanced state – alert and grounded, yet not overly tense or too relaxed – perfect for tackling daily challenges.

Using Breathing Techniques During Movement and Daily Activities

Mastering static breathing techniques is just the beginning. The real game-changer is applying these methods to your everyday life – whether you’re lifting groceries, tying your shoes, or even sitting at your desk. With the average person taking 20,000 to 24,000 breaths a day, each breath has the potential to either support or strain your spine. By integrating these techniques into your daily routine, you can turn ordinary movements into habits that promote spinal health.

Breathing with Proper Posture

Your diaphragm plays a key role in stabilizing your back, as it connects directly to your lumbar spine and rib cage. Breathing correctly helps create a “core canister”, generating intra-abdominal pressure that supports and protects your spine.

When sitting at your desk, practice a “Seated Breath“: inhale to lengthen your spine and lift your head, then exhale to relax your shoulders and neck. This simple adjustment can counteract the forward-head posture often caused by prolonged sitting. Breathing through your nose not only helps maintain good posture but also enhances oxygen delivery.

For standing, try the “back-opening technique.” As you inhale, imagine directing your breath toward your tailbone and along your ribcage – this mental focus helps lift your ribs away from your hips, creating more space in your spine. Keep your shoulders relaxed; if they rise during inhalation, it might signal shallow chest breathing, which can be a sign of stress.

Pairing Breathing with Gentle Movements

Once you’ve developed proper seated and standing posture, take it a step further by combining controlled breathing with your daily movements. A helpful rule of thumb: inhale to extend and lengthen your spine, and exhale to flex and engage your core. This approach not only protects your back but also turns everyday tasks into opportunities for spinal support.

• Lifting: Inhale to engage your core, then exhale to stabilize your spine as you lift.
• Bending and hinging: Inhale to lengthen your spine, then exhale as you hinge at your hips to avoid compressing your spine.
• Walking: Make walking therapeutic by syncing your breath with your steps – try inhaling for 3–4 steps and exhaling for the same number to maintain a steady rhythm and spinal alignment.
• Stretching: For stretches like Cat-Cow, inhale to open your chest during the “Cow” phase and exhale to round your back during the “Cat” phase, engaging your deep core.
• Twisting: Use your inhale to create space between vertebrae and exhale to rotate safely.

Research shows that proper breathing techniques can reduce spinal compression forces by up to 40%. Dr. Stuart McGill, a leading expert in spine biomechanics, emphasizes:

“Intra-abdominal pressure generation through breathing is fundamental to spine protection”.

At HML Chiropractic & Functional Care, we help patients incorporate these breathing patterns into their daily lives, complementing hands-on treatments with practical self-care strategies for long-term relief.

Building a Daily Practice for Long-Term Relief

Once you’ve learned diaphragmatic, 4-7-8, and box breathing techniques, the key to long-term relief lies in consistency. Making these exercises part of your daily routine is essential. Give your body several weeks to adapt to these new habits.

How Often and How Long to Practice

Begin with 5–10 minutes of diaphragmatic breathing each day. If that feels like too much at once, break it into smaller chunks – try 2–4 minute “micro-drills” spread throughout your day. These brief sessions can reinforce proper breathing patterns and help improve spinal alignment. For 4-7-8 breathing, aim for 4 cycles, and for box breathing, practice 5–10 rounds.

You might notice some improvement in 2–3 weeks, but more lasting results often take 8–12 weeks of consistent practice. Research suggests that programs lasting over 4 weeks with at least 12 sessions yield greater reductions in pain and disability.

To build a habit, try “habit stacking.” For instance, start with a morning breathing session for 2–3 weeks. Then, add an evening session to wind down. Hourly reminders can also help – take 3–5 deep breaths to reset your posture. If you’re desk-bound, every 20–30 minutes, take a deep inhale to lengthen your spine and exhale slowly to release tension in your shoulders.

Once you’ve established a routine, track your progress to refine your practice.

Monitoring Progress and Adjusting Your Practice

Pay attention to how your body responds. Are your neck muscles relaxing more during inhalation? Do your ribs expand outward and backward rather than just forward? Does your posture feel naturally aligned without constant effort?

A simple way to check your progress is the “hand test.” Place one hand on your belly and the other on your chest – your belly hand should move more than your chest hand. As you improve, transition from lying down to sitting, then standing, and eventually incorporate proper breathing into functional movements like lifting or bending.

If you feel dizzy, slow your breathing or shorten the session – never force deep breaths. At HML Chiropractic & Functional Care, we guide patients in tracking their progress and fine-tuning their breathing techniques. This ensures these habits become second nature, supporting long-term spinal health and overall well-being.

Conclusion

Back pain doesn’t have to be a lifelong struggle. Techniques like diaphragmatic breathing, 4-7-8 breathing, and box breathing can make a real difference. Diaphragmatic breathing, for instance, strengthens core stability, while 4-7-8 breathing activates the relaxation response to ease muscle tension. Box breathing not only sharpens focus but also supports better posture.

The research is compelling. A study in the Journal of Physical Therapy Science found that diaphragmatic breathing reduced chronic low back pain by 58% after just 8 weeks. Additionally, proper breathing techniques can lower spinal compression forces by as much as 40%. Considering you take roughly 20,000 breaths a day, shallow breathing can place unnecessary stress on your spine. This highlights how essential proper breathing is for maintaining spinal health.

“Mastering your breath is the first, most fundamental step in building a resilient, pain-free back. It calms your nervous system, reduces tension in your neck and shoulders, and provides crucial stability to your spine.”– Dr. Kevin Spahr, Founder, PRO Therapy

Consistency is key to seeing results. With just 5–10 minutes of daily practice, these techniques can help build core stability, relieve tension, and encourage better posture. Most people notice meaningful changes after 8–12 weeks of regular practice. Simple steps, like setting hourly reminders to take 3–5 deep breaths, can help reset your posture throughout the day. Whether you’re commuting, working at your desk, or winding down at night, integrating these techniques into your routine can lead to noticeable improvements.

At HML Chiropractic & Functional Care, we specialize in creating personalized breathing practices tailored to each individual. These small, consistent efforts can lead to long-term spinal health and overall well-being. Your breath is a powerful tool – use it wisely, stay consistent, and experience lasting relief.

FAQs

Which breathing technique is best for my back pain?

Diaphragmatic breathing stands out as a highly effective way to manage back pain. This technique involves taking deep, slow breaths that activate your diaphragm. By doing so, you naturally improve your posture and give your spine better support. Making this a regular practice can ease discomfort and contribute to healthier back function overall.

Can breathing make my core stronger without exercise?

Yes, certain breathing techniques can effectively engage and strengthen your core without the need for traditional workouts. For instance, diaphragmatic breathing activates essential core muscles like the diaphragm, pelvic floor, and transverse abdominis. This not only enhances stability and posture but also helps create intra-abdominal pressure, which supports the spine and may alleviate back pain. While these methods aren’t a substitute for regular exercise, they can be incredibly beneficial for individuals with limited mobility or those recovering from injuries.

When should I stop and see a professional for back pain?

If your back pain persists for more than a week, becomes more intense, feels severe, or is accompanied by symptoms such as numbness, weakness, or tingling in your arms or legs, it’s time to consult a professional. You should also seek medical attention if the pain doesn’t improve after trying home remedies like over-the-counter pain medications or heat and cold therapy.

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