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Why Separate Causation Analyses Protect Multi-Claimant Cases When Family Members Share Similar Imaging

Why Separate Causation Analyses Protect Multi-Claimant Cases When Family Members Share Similar Imaging

Abstract

When several family members are injured in the same collision, defense teams often point to similar-looking imaging and argue that the findings are ordinary age-related change rather than crash-related harm. Separate, person-specific causation analyses take a different approach. By reconstructing each individual’s pre-accident baseline and comparing it with post-trauma findings, clinicians can isolate the traumatic acceleration that occurred for that person under the Texas Eggshell Plaintiff rule. The result is clearer proof of clinical and proximate causation, stronger Letters of Protection documentation, and protective, individualized care that respects each family member’s distinct history and recovery path.

Why Separate Causation Analyses Protect Multi-Claimant Cases When Family Members Share Similar Imaging

Imagine a rear-end collision on an El Paso freeway. A mother, her adult son, and her teenage daughter are all in the same vehicle. Emergency-room imaging later shows disc bulges or degenerative changes in each of them. The defense file quickly treats the three studies as interchangeable. The narrative becomes simple: “These are common findings. Nothing new happened here.”

Attorneys who regularly handle multi-claimant family cases know how quickly that argument can spread. Shared imaging creates the appearance of a single story. Separate causation analyses dismantle that appearance. They treat each person as an independent Eggshell Plaintiff, measuring pre-accident condition, functional capacity, and post-trauma changes on their own terms. These individualized analyses support proving causation in car accident cases at https://dralexjimenez.com.

The Shared-Imaging Problem in Multi-Claimant Files

Family members who ride together experience the same external forces, yet their bodies respond differently. A 55-year-old mother may already carry asymptomatic cervical spondylosis. Her 28-year-old son may have a history of high school sports injuries that never limited him at work. The 16-year-old daughter may have had no prior imaging. When post-collision MRIs show disc material or facet changes in all three, the defense often collapses the distinctions into one claim: the imaging is “pre-existing” or “age-appropriate.”

Texas law does not allow that collapse. The Eggshell Plaintiff doctrine requires the at-fault party to take each injured person as found. Pre-existing vulnerability does not erase the duty to compensate for the harm the collision actually produced. The clinical task is therefore to show, for each claimant, whether the crash produced a new injury, materially aggravated a previously stable condition, or left the baseline unchanged. That demonstration rests on individual baseline-to-post-trauma comparisons, not on side-by-side visual similarity of the films.

Clinicians reconstruct the baseline by gathering prior records, symptom timelines, work or school demands, and functional measurements that existed before the collision. Post-trauma examinations then document new neurological findings, restricted motion, strength loss, or functional limitations that were not present before. When these comparisons are performed separately, the shared imaging no longer supports a uniform defense. Each file carries its own chronological narrative.

*Car Accident Injuries* Treatment | El Paso, TX

Individual Baseline Reconstruction Isolates Traumatic Acceleration

Accurate causation analysis begins before impact. For every family member, the team reconstructs pre-accident health, prior injuries, chronic conditions, diagnostic findings, and everyday functional capacity. The process answers a concrete question: what could this person do, and what symptoms did this person report, before the collision forces acted on the body?

Common baseline elements include:

  • Prior imaging reports and the clinical notes that accompanied them
  • Documented work restrictions or the absence of them
  • Medication lists and physical-therapy histories
  • Self-reported activity levels (sitting tolerance, lifting, sleep, driving, sports)
  • Objective measurements already in the chart, such as range-of-motion values or neurological exams

After the collision, repeat the same measurements under the same protocols. The difference between the two data sets reflects the individual’s trauma-specific acceleration. A mother who previously sat at a desk for eight hours without arm pain but now develops numbness after twenty minutes has a measurable functional change. A son whose pre-accident lumbar imaging showed mild degeneration yet who worked construction without leg symptoms until the crash demonstrates aggravation rather than pure natural progression. A teenager with no prior complaints and new radicular findings after rapid deceleration shows a fresh injury pathway.

These comparisons remain person-specific even when the imaging looks similar. Degenerative changes are common in asymptomatic adults; their presence does not prove the collision left the person unchanged. The Eggshell rule protects the vulnerable patient precisely because the analysis focuses on the incremental harm, not on the pre-existing condition itself. Detailed guidance on reconstructing these baselines appears in the pre-accident medical baseline reconstruction resources at https://dralexjimenez.com/pre-accident-medical-baseline-reconstruction-in-detail/.

Eggshell Rule Application Across Multiple Family Members

Under the Eggshell Plaintiff principle, the defendant remains responsible for the full extent of harm caused, even when the injured person was more fragile than average. In a multi-claimant family file, the principle applies separately to each person. One relative may have had symptomatic arthritis; another may have carried silent disc degeneration; a third may have been entirely asymptomatic. Each receives an independent analysis that distinguishes:

  • New traumatic injury (condition not previously present)
  • Material aggravation of a previously stable condition
  • Temporary exacerbation that returns to baseline
  • Natural progression unrelated to the event
  • Multifactorial causation in which trauma and pre-existing disease both contribute

Because the analyses are separate, an insurer cannot use the mother’s long-standing mild degeneration to discount the son’s new neurological deficits or the daughter’s first-time loss of cervical rotation. Each file stands on its own chronology, mechanism, and objective findings. Attorneys reviewing the Texas Eggshell framework and the practical documentation needed to support aggravation claims can find further detail at https://dralexjimenez.com/car-accidents-and-pre-existing-condition-claims/ and the broader causation discussion at https://dralexjimenez.com/el-paso-injury-causation-connecting-accidents-to-injuries/.

Beneficence: Protective, Individualized Care

Beneficence requires that care be directed solely toward root-cause healing for the person in front of the clinician. In multi-claimant cases, that duty is fulfilled by refusing to treat the family as a single clinical unit. Each patient receives an examination, imaging interpretation, and treatment plan calibrated to that patient’s baseline, mechanism of injury, and current functional losses. Chiropractic adjustments restore segmental motion that was lost in the collision. Neurofunctional acupuncture and electroacupuncture reduce protective muscle guarding and support nervous-system recovery without adding systemic medication. When metabolic or inflammatory markers indicate a need, medical-director oversight ensures laboratory panels are ordered and interpreted in context. The result is care that protects each family member’s recovery trajectory rather than applying a uniform protocol that might under-treat one person or over-treat another.

Non-Maleficence: Drug-Free Options That Lower Downstream Risk

Non-maleficence is served by preferring non-invasive, drug-free interventions that reduce the likelihood of later surgery or long-term opioid exposure. Chiropractic care, acupuncture, and electroacupuncture address the soft-tissue and neurological consequences of traumatic acceleration while avoiding the gastrointestinal, cognitive, and dependency risks associated with heavy pharmacologic management. When imaging and examination show that a family member’s new or aggravated findings are consistent with the collision forces, clinicians can introduce these modalities early. Patients gain pain relief, improved mobility, better sleep, and accelerated recovery of normal movement patterns. Because each person’s baseline is known, the clinician can also avoid interventions that would be inappropriate for that individual’s comorbidities or age.

Autonomy: Clear Personal Records for Each Decision-Maker

Autonomy is strengthened when every patient receives a clear, personal record rather than a family summary. Separate causation analyses produce individual narratives, measurement tables, and functional timelines. A parent can review the exact pre- and post-collision findings that apply to her. An adult child can see the documented change in his work capacity. A minor’s guardian receives a focused explanation of the adolescent’s new limitations and the plan to restore them. Patients remain the informed decision-makers. They can coordinate the clinic’s findings with their existing medical teams, understand why certain treatments are recommended, and participate in Letters of Protection discussions with accurate, person-specific documentation. The record itself becomes a tool of self-governance rather than a shared family exhibit that obscures individual harm.

What Makes the Clinic Distinct in El Paso

Dr. Jimenez’s Injury Medical Chiropractic and Functional Medicine Clinic is structured for precisely these multi-claimant challenges. Dr. Maria Guadalupe Cardenas, MD, a board-certified internal medicine physician with more than forty years of experience, serves as medical director and provides medical direction for complex metabolic comorbidities, advanced laboratory panels, and risk stratification. Alongside her works Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, a dual-licensed chiropractor and board-certified family nurse practitioner whose clinical focus is soft-tissue injury, structural alignment, and the integration of physical medicine with functional diagnostics. The clinic is the only practice in El Paso, Texas, that combines this dual-licensure model with medical-director oversight to deliver chiropractic care, neurofunctional acupuncture, electroacupuncture, regenerative options, and functional-medicine laboratory coordination under one coordinated plan. The result is courtroom-ready, person-specific documentation that survives defense scrutiny while remaining centered on each patient’s recovery.

These individualized analyses support proving causation in car accident cases at https://dralexjimenez.com. Attorneys seeking additional resources on MRI interpretation that distinguishes acute-on-chronic findings, or on the practical steps of building a defensible causation file, will find further reading at https://dralexjimenez.com/why-attorneys-use-dr-alex-jimenez-dc-fnp-expert-witness/ and related pages on the same site.

When family members share a collision and similar-looking imaging, don’t treat them as interchangeable. Separate baseline-to-post-trauma comparisons isolate each person’s traumatic acceleration, honor the Eggshell rule, and supply the clear personal records that both patients and attorneys need. The clinic’s dual-licensed team and medical-director model exist to make those comparisons rigorous, ethical, and useful from the first examination through deposition or trial.


References

Brinjikji, W., Luetmer, P. H., Comstock, B., Bresnahan, B. W., Chen, L. E., Deyo, R. A., Halabi, S., Turner, J. A., Avins, A. L., James, K., Wald, J. T., Kallmes, D. F., & Jarvik, J. G. (2015). Systematic literature review of imaging features of spinal degeneration in asymptomatic populations. American Journal of Neuroradiology, 36(4), 811–816. https://doi.org/10.3174/ajnr.A4173

Guevara v. Ferrer, 247 S.W.3d 662 (Tex. 2007).

Jelinek v. Casas, 328 S.W.3d 526 (Tex. 2010).

Siegmund, G. P., & Blouin, J.-S. (2009). Head and neck control varies with perturbation acceleration but not jerk: Implications for whiplash injuries. The Journal of Physiology, 587(8), 1829–1842. https://doi.org/10.1113/jphysiol.2009.169151

Siegmund, G. P., Winkelstein, B. A., Ivancic, P. C., Svensson, M. Y., & Vasavada, A. (2009). The anatomy and biomechanics of acute and chronic whiplash injury. Traffic Injury Prevention, 10(2), 101–112. https://doi.org/10.1080/15389580802593269

State Bar of Texas. (2020). Texas pattern jury charges—General negligence & intentional personal torts (PJC 28.8B, PJC 28.8C). State Bar of Texas.

Transcontinental Insurance Co. v. Crump, 330 S.W.3d 211 (Tex. 2010).

When Your Symptoms Change After an Accident: Why You Should Tell Your Doctor

When Your Symptoms Change After an Accident: Why You Should Tell Your Doctor

Abstract

After a car crash, fall, or workplace injury, symptoms do not always follow a straight line. Pain may improve while movement becomes harder. A headache may appear two days later. Tingling may begin after the first visit. An old back problem may suddenly feel different. These changes matter because they help clinicians decide whether recovery is progressing as expected, whether to update the diagnosis or care plan, and whether additional testing or referral is appropriate. Clear communication also creates a more accurate medical record for patients and families navigating injury care.

When Your Symptoms Change After an Accident: Why You Should Tell Your Doctor

The Accident Is Over, but the Clinical Story Is Still Developing

Imagine a parent who is rear-ended on the way home from work. At first, the main complaint is neck soreness. Two days later, the neck pain improves slightly, but headaches, poor sleep, and difficulty turning to check traffic appear. A week later, the headaches improve, yet the right hand begins tingling after sitting at a computer.

Those changes are not small details. They are part of the clinical picture.

Whiplash-associated disorders can involve many symptoms, physical impairments, and activity limitations rather than neck pain alone. Research on people with whiplash-associated disorders has found a broad symptom profile that affects body function, as well as everyday activities and participation (Särkilahti et al., 2024). Symptoms after an injury may also evolve with time. The CDC notes that some mild traumatic brain injury and concussion symptoms appear immediately, while others may not become noticeable for hours or days and can change during recovery (Centers for Disease Control and Prevention [CDC], 2025).

Dr. Jimenez’s patient education on delayed accident symptoms similarly emphasizes the importance of watching for headaches, neck or back pain, numbness, restricted movement, dizziness, and other changes following a collision.

That is why your healthcare provider needs to know when something changes—even if it seems minor or hard to describe.

New Symptoms Can Change the Next Clinical Decision

A first injury evaluation is a snapshot. A follow-up visit shows the movie.

At the first visit, a clinician may document pain location, tenderness, range of motion, strength, sensation, reflexes, balance, headaches, sleep changes, and functional limitations. The clinician also considers how the injury happened, such as a rear-end impact, side collision, fall, twisting force, direct blow, or sudden deceleration.

At later visits, the clinician can reassess those findings. A new symptom may fit the original working diagnosis, or it may suggest that another problem needs attention.

For example:

  • New arm tingling may lead to a more detailed neurological examination.
  • Increasing dizziness may prompt screening for concussion, balance problems, medication effects, or another medical cause.
  • New weakness can change how urgently you evaluate.
  • Worsening headaches after head trauma may require immediate medical assessment.
  • New hip or knee pain may become noticeable after more severe neck or back pain begins to settle.
  • New sleep difficulties may influence concentration, mood, pain tolerance, and recovery.

Clinicians evaluate whiplash-associated disorders through history, physical examination, neurological findings, and selective diagnostic testing when medically appropriate. Imaging may be normal even when a patient has clinically meaningful symptoms, so careful clinical reassessment is especially important (Lehman & Margetis, 2026).

A changing symptom gives the clinician new information to compare with the original diagnosis, rather than assuming the first examination tells the whole story.

Improving Pain Is Good, but Function Matters Too

Patients naturally tend to judge recovery by one question: “How much do I hurt today?”

Pain matters, but it isn’t the only measure.

A patient may report less pain but still struggle to lift a child, carry groceries, turn their head while driving, stand through a work shift, sleep through the night, or concentrate at school. Another patient may still experience soreness but regain movement, sleep better, and return to normal household responsibilities.

When describing progress, compare what you can do now with what you could do before the accident and immediately afterward.

You might tell your provider, “I can sit for 45 minutes now instead of 15,” or “My neck pain is lower, but I still cannot turn far enough to check my blind spot comfortably.” A parent might explain, “My back feels better when I am sitting, but picking up my toddler still causes a sharp pull.” Another patient may report that numbness occurs less frequently even though grip strength still feels different.

These functional details give the medical team a clearer picture of recovery.

Dr. Jimenez’s published injury-care materials emphasize documenting measurable findings such as range of motion, neurological function, strength, sensation, orthopedic testing, and functional performance. Repeating appropriate measurements over time can help show whether a limitation is improving, persisting, or changing unexpectedly.

Worsening Symptoms Should Not Be Hidden

Families sometimes worry that reporting a setback means treatment is failing. Others don’t want to sound like they are complaining. Some patients worry that discussing a new symptom will complicate their injury claim.

Clinically, silence creates a larger problem.

If pain suddenly worsens, a new body area becomes symptomatic, or everyday function declines, tell your healthcare provider. The change could reflect a temporary fluctuation, increased physical activity, an injury that was less obvious during the initial examination, a neurological problem, or even a condition unrelated to the accident.

Reassessment helps sort through these possibilities. It should not begin with the assumption that every new symptom was caused by the accident.

That approach supports both beneficence—doing what is medically helpful—and non-maleficence—avoiding unnecessary risk. Depending on the findings, the treatment plan may remain unchanged, rehabilitation may be modified, additional examination may be necessary, diagnostic imaging may be considered when appropriate, or the patient may need referral to another medical professional.

For some patients, conservative options such as chiropractic care, rehabilitation, acupuncture, or electroacupuncture may support pain relief and improved physical mobility without immediately relying on more invasive procedures. Always individualize treatment to the diagnosis, safety considerations, and patient preferences.

Previously Unreported Conditions Matter Too

Sometimes the most important update isn’t a new symptom. It is an old health condition the patient forgot to mention.

A previous disc injury, migraine history, concussion, arthritis, diabetes, neuropathy, shoulder surgery, sports injury, or earlier automobile accident can affect how a clinician interprets current symptoms.

Sharing that history does not automatically mean the present problem is unrelated to the accident.

The important clinical question is often how the patient changed from the pre-accident baseline.

Consider someone who experienced occasional low back stiffness before a collision but had no leg numbness, work restrictions, or difficulty exercising. After the collision, that same person develops daily back pain, reduced motion, leg tingling, and difficulty lifting.

Those differences matter.

A careful medical record can acknowledge the earlier condition while documenting what is objectively or functionally different afterward. Dr. Jimenez’s discussion of car accidents and pre-existing conditions emphasizes documenting what symptoms existed before a crash, what changed afterward, objective examination findings, imaging when clinically appropriate, and changes in daily activities.

Being open about previous health problems therefore gives the clinician more—not less—information for making an accurate assessment.

Families and Caregivers May Notice Changes First

Parents, spouses, adult children, and caregivers can become important observers during injury recovery.

The injured person may naturally focus on pain while overlooking other changes. A family member may notice that someone is sleeping much more than usual, avoiding stairs, forgetting conversations, becoming unusually irritable, dropping objects, walking differently, or needing help with ordinary activities.

Mention those observations during a medical visit, especially after a possible head injury.

The CDC explains that concussion symptoms can involve thinking, memory, mood, sleep, balance, vision, headaches, nausea, and behavior. Importantly, patients may not always recognize how their symptoms affect everyday activities (CDC, 2025).

Family participation should still respect patient autonomy. When an injured person can make their own healthcare decisions, that patient remains the primary decision-maker. A caregiver’s observations should add useful information without replacing the patient’s own voice, concerns, goals, and choices.

Know When a Change Needs Emergency Attention

Some changes should not wait until the next scheduled chiropractic, rehabilitation, or primary care appointment.

Following a bump, blow, or jolt involving the head or body, the CDC advises seeking emergency medical attention for concussion danger signs such as a headache that worsens and does not go away, repeated vomiting, seizures, increasing confusion or unusual behavior, slurred speech, weakness or numbness, decreased coordination, extreme drowsiness or inability to wake, or other significant neurological deterioration (CDC, 2025).

Sudden neurological symptoms after spinal trauma can also change the clinical situation. Imaging decisions after acute spinal trauma depend on the mechanism, exam findings, neurological status, and established clinical criteria, not pain score alone (American College of Radiology, 2024).

When symptoms worsen rapidly or become potentially dangerous, emergency medical care takes priority over waiting for a routine office visit.

Better Communication Creates Better Documentation

Accurate documentation begins with accurate communication.

During follow-up visits, tell your healthcare provider what is new, what’s improved, what’s worsened, and what’s stayed the same. Discuss changes involving work, childcare, driving, household responsibilities, sleep, exercise, concentration, recreation, and other activities that matter in daily life.

A simple symptom journal can help. Record when a symptom appeared or changed, what seems to make it better or worse, whether it is constant or intermittent, and how it affects daily function. Also mention any new illness, medication, fall, workout, workplace event, or other incident that occurred during recovery.

The goal is not to create a perfect legal diary.

The goal is to give the healthcare team a dependable timeline. That timeline lets clinicians compare examinations, reconsider diagnoses when needed, document treatment response, and adjust care to the patient’s actual condition.

This is especially important when injuries are easy to miss at first. Soft-tissue injuries, concussions, disc problems, nerve irritation, ligament injuries, and other conditions may require a combination of history, physical and neurological examination, functional testing, and appropriately selected imaging rather than reliance on a single test.

What Makes Injury Medical Clinic PA Different in El Paso

Injury Medical Clinic PA uses a medically integrated model rather than approaching accident recovery as a single-provider problem.

Clinic materials identify Dr. Maria Guadalupe Cardenas, MD, as Medical Director, Clinical Director, and Collaborative Physician, a board-certified internal medicine physician. Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, practices as both a Doctor of Chiropractic and a board-certified Family Nurse Practitioner, bridging musculoskeletal care with broader medical evaluation. The clinic specifically focuses on spinal, soft-tissue, neurological, functional, and injury-related conditions.

This multidisciplinary structure coordinates chiropractic care, medical oversight, rehabilitation, diagnostic evaluation, functional medicine, acupuncture, and electroacupuncture when clinically appropriate. The practice website confirms that acupuncture and electroacupuncture are among its available clinical services.

According to the clinic, Injury Medical Clinic PA is the only practice in El Paso offering this exact integrated combination of treatments within one coordinated clinical system.

For injured parents, caregivers, and families, the practical advantage is continuity. Musculoskeletal concerns don’t have to be treated separately from neurological symptoms, underlying health conditions, medication questions, or changes in physical function. Dr. Cardenas provides internal medicine oversight, while Dr. Jimenez brings chiropractic and advanced practice nursing perspectives to the multidisciplinary care model.

The purpose is not to place every patient into the same treatment program. It is to identify what has changed, investigate why, explain reasonable options, minimize avoidable risks, and preserve the patient’s ability to make informed healthcare decisions while coordinating with their existing medical team.

Your Symptoms Are Information—Share Them

Recovery after an accident rarely follows a perfectly straight line.

A symptom can improve, disappear, return, or be replaced by a different limitation. Pain can improve while physical function remains restricted. A previously unnoticed problem may become clearer once another symptom settles.

The most useful thing patients and caregivers can do is communicate those changes clearly and promptly.

Tell your doctor when pain improves. Tell your doctor when function does not. Report new symptoms, worsening symptoms, and previously unreported medical conditions. Explain what is happening at home, work, school, during sleep, and while performing everyday activities.

A changing symptom pattern does not automatically mean that something serious has happened. It means that the clinical picture has changed.

Your healthcare team needs that updated picture to reassess your condition accurately, document your progress responsibly, and help you make informed decisions about the next stage of recovery.

Enhancing Health Together: Embracing Multidisciplinary Evaluation and Treatment | El Paso, TX


References

American College of Radiology. (2024). Acute spinal trauma. ACR Appropriateness Criteria. Acute Spinal Trauma

Centers for Disease Control and Prevention. (2025, September 15). Symptoms of mild TBI and concussion. Symptoms of Mild TBI and Concussion

Injury Medical Clinic PA. (n.d.). Staff: Injury Medical Clinic PA. Injury Medical Clinic PA Staff

Jimenez, A. (n.d.). Car accidents and pre-existing condition claims. Car Accidents and Pre-Existing Condition Claims

Jimenez, A. (n.d.). Delayed symptoms after a crash: Key facts to understand. Delayed Symptoms After a Crash: Key Facts to Understand

Jimenez, A. (n.d.). Missed injuries after car accidents and recovery plans. Missed Injuries After Car Accidents and Recovery Plans

Jimenez, A. (n.d.). Why choose our clinical team? Why Choose Our Clinical Team?

Lehman, A., & Margetis, K. (2026). Cervical sprain. In StatPearls. StatPearls Publishing. Cervical Sprain

Särkilahti, N., Leino, S., Takatalo, J., Löyttyniemi, E., & Tenovuo, O. (2024). The symptom profile of people with whiplash-associated disorder: A mixed-method systematic review. Journal of Bodywork and Movement Therapies, 40, 706–725. The Symptom Profile of People With Whiplash-Associated Disorder

Metabolic Health Insights You Need With Chiropractic Restoration

Improve your health with chiropractic restoration for metabolic health and uncover its vital role in achieving balance and wellness.

Abstract

Modern restorative medicine is shifting from isolated symptom management toward addressing shared root causes of chronic disease. Cardiovascular plaque progression, heart failure remodeling, Type 2 Diabetes Mellitus, and neurodegenerative decline frequently share mitochondrial bioenergetic failure, cellular energy depletion, chronic low-grade inflammation, and exhaustion of the essential cofactor nicotinamide adenine dinucleotide (NAD+). At Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas, our multidisciplinary team integrates advanced medical diagnostic oversight with functional medicine and functional chiropractic neurology. Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine with more than 40 years of clinical experience (NPI #1164426749, Texas MD License #J2933), serves as Medical Director and Collaborative Physician. She provides internal medicine evaluation, laboratory interpretation, cardiovascular and metabolic screening, and medical safety oversight. I, Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST, deliver integrative chiropractic care focused on biomechanical alignment, neuro-structural optimization, soft-tissue rehabilitation, and functional medicine protocols. This educational post examines how NAD+ functions as both a redox coenzyme and a consumable substrate for sirtuins and DNA-repair enzymes; how restoring NAD+ pools can support vascular plaque stability, myocardial ATP production, insulin-receptor sensitivity, and neuronal resilience; and how precise chiropractic adjustments and mechanotransduction complement non-surgical recovery by restoring afferent drive, reducing sympathetic overdrive, and supplying the mechanical signals that cells require to repair tissue when cellular fuel is available. Clinical observations from our El Paso practice emphasize personalized, root-cause plans that combine diagnostic labs, bioenergetic support, spinal realignment, and progressive rehabilitation under unified medical direction.

The Coenzyme Paradigm: Why Enzymes Fail Without Substrate and Cofactor Availability

Every human cell performs billions of chemical transformations each second to maintain structure, replicate DNA, clear waste, synthesize proteins, and generate energy. These reactions depend on enzymes—specialized catalytic proteins that lower activation-energy barriers. An enzyme alone is an inactive apoenzyme. It becomes a functional holoenzyme only when it binds its required cofactor or coenzyme. NAD+ is among the most critical of these molecules. It cycles between oxidized (NAD+) and reduced (NADH) states, accepts high-energy electrons from carbohydrate, fat, and protein breakdown, and delivers them to the mitochondrial electron transport chain for oxidative phosphorylation. At the same time, regulatory enzymes actively consume NAD+, including the sirtuin family of protein deacylases (SIRT1–SIRT7), poly(ADP-ribose) polymerases (PARP1/PARP2) that repair DNA, and CD38/CD157 ectoenzymes. As tissues age or endure chronic metabolic, inflammatory, or physical stress, cellular NAD+ levels decline. By age 50, many tissues retain roughly half of their youthful concentration; in advanced age, the deficit can become severe. This depletion starves sirtuins of substrate, impairs mitochondrial ATP synthesis, weakens DNA-repair capacity, and leaves structural tissues more vulnerable to injury (Canto et al., 2015; Verdin, 2015).

Understanding this dual role underpins our protocols. Without adequate NAD+, metabolic workers stand idle. Substrates accumulate upstream, oxidative stress rises, and downstream products fail to form. Restoring the cofactor pool allows enzymes to resume catalytic activity, supports redox balance, and reactivates longevity pathways. In clinical practice, we evaluate this through advanced biomarkers ordered under Dr. Cardenas’s internal-medicine direction—high-sensitivity C-reactive protein, myeloperoxidase, oxidized LDL, fasting insulin, hemoglobin A1c, and methylation panels—then pair targeted bioenergetic support with precise biomechanical care. Clinical observations at Injury Medical Clinic PA consistently show that patients with complex musculoskeletal and systemic complaints improve more reliably when cellular fuel and structural alignment are addressed together rather than in isolation (Jimenez, 2026).

Atherosclerosis: Resolving Vascular Plaque Dynamics and Chronic Inflammatory Signaling

Atherosclerosis is not merely passive cholesterol storage. It is an active, non-resolving inflammatory process driven by endothelial bioenergetic failure, macrophage metabolic exhaustion, and impaired vascular smooth-muscle repair. Endothelial cells require continuous ATP to maintain tight junctions, produce protective nitric oxide via endothelial nitric oxide synthase (eNOS), and resist shear stress. When mitochondrial function falters, eNOS uncouples and generates superoxide instead of nitric oxide. Superoxide oxidizes trapped low-density lipoprotein within the intima, forming oxidized LDL. Injured endothelium upregulates vascular cell adhesion molecule-1 and intercellular adhesion molecule-1, recruiting monocytes that differentiate into macrophages. These cells ingest oxidized LDL via scavenger receptors but cannot efficiently export cholesterol without adequate energy and autophagy; they become foam cells trapped in the vessel wall. Cholesterol crystals activate the NLRP3 inflammasome, releasing interleukin-1β and interleukin-18, which further recruit inflammatory cells and stimulate matrix metalloproteinases that thin the fibrous cap and raise rupture risk (Pickering & O’Neill, 2019).

NAD+ restoration intervenes at multiple points. Adequate NAD+ activates SIRT1, which deacetylates the RelA/p65 subunit of nuclear factor kappa B at lysine 310, thereby suppressing transcription of tumor necrosis factor-alpha, interleukin-1β, and interleukin-6. SIRT1 also supports macrophage autophagy and upregulates ATP-binding cassette transporters ABCA1 and ABCG1, enabling reverse cholesterol transport to high-density lipoprotein and shrinking the necrotic core. Endothelial cells regain eNOS coupling, reduce adhesion-molecule expression, and preserve barrier integrity. Vascular smooth-muscle cells are less likely to adopt osteogenic, calcifying phenotypes. Preclinical work demonstrates that elevating NAD+ reduces plaque volume and dampens vascular inflammation (Canto et al., 2015; Rajman et al., 2018). At our clinic, Dr. Cardenas and I identify early vascular inflammation through comprehensive biomarker panels and integrate bioenergetic support with lifestyle measures and physical medicine. The reasoning is clear: lowering lipids alone does not resolve the bioenergetic and inflammatory drivers; restoring cofactor availability and mechanical signaling together addresses both the cellular and structural components of vascular resilience. Non-surgical chiropractic care contributes by improving segmental motion, reducing local nociceptive input that sustains sympathetic vasoconstriction, and supporting overall autonomic balance that favors endothelial health.

Cardiac Energetics: Reversing Dilated Cardiomyopathy and Heart Failure Paradigms

The heart is the body’s most metabolically demanding organ, beating roughly 100,000 times daily and relying on instant mitochondrial ATP production because it cannot store meaningful energy reserves. Systolic contraction depends on myosin ATPase hydrolyzing ATP to drive actin–myosin cross-bridge cycling. Diastolic relaxation depends on the sarco/endoplasmic reticulum calcium ATPase (SERCA2a), which uses ATP to re-sequester calcium into the sarcoplasmic reticulum. When ATP supply falls, diastolic filling fails first: calcium clearance slows, the myocardium stiffens, filling pressures rise, and remodeling toward dilation begins. In both ischemic and non-ischemic dilated cardiomyopathy, the primary defect is often an energy crisis. Impaired oxygen delivery or substrate utilization causes Complex I (NADH dehydrogenase) arrest. Electrons stall and leak to oxygen, generating superoxide. Oxidative stress and calcium overload open the mitochondrial permeability transition pore, collapse membrane potential, and release cytochrome c, triggering myocyte apoptosis and fibrotic replacement. The left ventricle dilates and ejection fraction declines (Lee et al., 2016).

Restoring the cardiac NAD+ pool re-establishes metabolic stability. SIRT3, the primary mitochondrial deacetylase, uses NAD+ to activate superoxide dismutase 2 and Krebs-cycle enzymes, clearing free radicals and restoring electron flow. With ATP supply normalized, SERCA2a kinetics improve, cytosolic calcium clears during diastole, wall stiffness decreases, and pathological remodeling is attenuated. Landmark work shows that systemic NAD+ repletion can improve contractility and structural parameters in established cardiomyopathy models (Lee et al., 2016; Gomes et al., 2013). In our El Paso protocols, Dr. Cardenas and I monitor cardiac biomarkers, heart-rate variability, and functional exercise tolerance. We view the heart not as an isolated pump but as a metabolic engine linked to spinal alignment and autonomic tone. Precise upper-cervical and thoracic adjustments reduce chronic sympathetic overdrive that elevates myocardial oxygen demand and vascular resistance; improved afferent input from restored facet and muscle-spindle mechanoreceptors helps normalize autonomic outflow. The combination supplies both the cellular fuel (via NAD+ restoration) and the mechanical and neurological environment that allow myocytes to recover contractile and relaxation capacity. This non-surgical approach is especially valuable for patients with concurrent musculoskeletal injury who cannot tolerate aggressive medical interventions.

Type 2 Diabetes Mellitus: A Mitochondrial Bioenergetic Collapse, Not Simply a Glucose Problem

Type 2 Diabetes Mellitus is frequently framed as a blood-sugar problem, yet hyperglycemia is a downstream symptom of mitochondrial bioenergetic dysfunction and cellular insulin resistance. Excess caloric intake—particularly refined carbohydrates and industrial seed oils—floods mitochondria with pyruvate and acetyl-CoA. The Krebs cycle saturates the electron transport chain with NADH and FADH2. In a sedentary person, protons accumulate in the intermembrane space, hyperpolarizing the inner membrane. Forward electron flow stalls; high-energy electrons leak onto oxygen, producing superoxide and hydrogen peroxide. These reactive oxygen species activate stress kinases (c-Jun N-terminal kinase, protein kinase C, p38 MAPK) that phosphorylate insulin receptor substrate-1 on serine residues instead of tyrosine. Serine phosphorylation blocks phosphatidylinositol 3-kinase and protein kinase B signaling, so glucose transporter-4 vesicles remain sequestered and cannot fuse with the plasma membrane. The cell locks out glucose to protect overwhelmed mitochondria, leaving glucose in the bloodstream. Pancreatic beta cells experience parallel bioenergetic failure: glucose-stimulated insulin secretion requires healthy mitochondria to generate the ATP that closes ATP-sensitive potassium channels, depolarizes the membrane, and triggers calcium-dependent insulin release. Depleted NAD+ impairs this sensing, accelerating beta-cell exhaustion (Yoshino et al., 2018).

NAD+ repletion normalizes the NADH/NAD+ ratio, relieves electron-transport-chain backpressure, and reduces reactive-oxygen-species production. SIRT1 deacetylates and activates peroxisome proliferator-activated receptor gamma coactivator-1 alpha, driving mitochondrial biogenesis. Insulin-receptor kinase activity is restored, glucose transporter-4 translocation resumes, and systemic inflammation declines. Preclinical studies confirm that elevating NAD+ improves insulin sensitivity and protects beta-cell viability (Yoshino et al., 2018; Canto et al., 2015). At Injury Medical Clinic PA, under Dr. Cardenas’s direction, we assess fasting insulin, homeostatic model assessment of insulin resistance, and hemoglobin A1c, then implement titrated subcutaneous NAD+ protocols (commonly 50–100 mg, multiple times weekly) alongside methylation support and lifestyle measures. The clinical reasoning is that lowering glucose with medications alone does not correct upstream mitochondrial overload or the structural contributors to inactivity. Chiropractic realignment reduces pain-related immobility, restores proprioceptive input that facilitates movement, and lowers sympathetic tone that opposes insulin action. Progressive Zone 2 aerobic conditioning and resistance training then stimulate endogenous mitochondrial biogenesis once the cellular environment is supported. Patients report improved energy and reduced inflammatory symptoms when the bioenergetic, medical, and biomechanical elements are coordinated.

Neurodegeneration: Alzheimer’s as Type 3 Diabetes and the Upstream Mitochondrial Hypothesis

Alzheimer’s disease has long been framed through the amyloid cascade hypothesis, yet repeated clinical trials clearing amyloid plaques have failed to restore cognition. The clinical reality is that amyloid accumulation is a downstream marker of upstream mitochondrial bioenergetic failure, brain insulin resistance, and cofactor exhaustion—hence the designation of Alzheimer’s as Type 3 Diabetes. Decades before clinical memory loss, fluorodeoxyglucose positron-emission tomography shows reduced cerebral glucose utilization in temporal and parietal regions. Neuronal insulin receptors desensitize; glucose transporter-3 and glucose transporter-4 uptake collapse. Intracellular glucose starvation depletes NAD+, causing Complexes I and IV to fail. Electrons leak, generating free radicals that damage synaptic membranes and axonal proteins. Oxidative stress upregulates beta-site amyloid precursor protein cleaving enzyme-1, shifting amyloid precursor protein processing toward neurotoxic amyloid-beta fragments. Energy failure also inactivates regulatory phosphatases, allowing GSK-3β to hyperphosphorylate tau, detach it from microtubules, and collapse axonal transport (Fang et al., 2019; Mattson & Arumugam, 2018).

NAD+ and SIRT3 interventions reverse key elements of this cascade. SIRT3 deacetylates mitochondrial superoxide dismutase 2, neutralizing reactive oxygen species and preserving synaptic plasticity. Systemic NAD+ supplementation restores cognitive performance, stimulates neurogenesis, and promotes mitophagy in experimental models (Fang et al., 2019; Wang et al., 2018). At our clinic, we evaluate brain health through neurocognitive testing, inflammatory markers, structural imaging, and physical neurological examination. Restoring metabolic support is essential because neurons consume roughly 20 percent of resting glucose and oxygen despite representing only 2 percent of body weight; they require continuous ATP for the sodium–potassium ATPase, neurotransmitter synthesis, and microtubule transport. Chiropractic care supports this by optimizing upper-cervical and cranial-base mechanics that influence cerebral blood flow and by reducing chronic nociceptive input that elevates systemic stress hormones known to worsen insulin resistance and oxidative load. Clinical observations show that patients with early cognitive concerns who receive coordinated bioenergetic and neuro-biomechanical care often report clearer thinking and better sleep once pain and autonomic imbalance are addressed alongside cellular fuel restoration.

The Core Triad of Chronic Disease: Energy Depletion, Systemic Inflammation, and Repair Failure

Whether evaluating cardiovascular disease, metabolic syndrome, peripheral joint degeneration, chronic spinal pain, or neurodegeneration, the underlying biology is consistent: the Core Triad of Chronic Disease. Mitochondrial collapse leads to reactive oxygen species leakage and mitochondrial DNA damage. Oxidative and inflammatory stress hyperactivates PARP1, which consumes hundreds of NAD+ molecules per DNA break, while CD38 overexpression further depletes the pool. Sirtuins lose substrate and can no longer deacetylate histones or activate FOXO3 and PGC-1α. Autophagy and mitophagy shut down; damaged proteins and organelles accumulate. Energy-depleted cells enter senescence and secrete the senescence-associated secretory phenotype—a toxic mix of cytokines, chemokines, and matrix-degrading enzymes—that spreads inflammation to neighboring cells (Haigis & Sinclair, 2010; Imai & Guarente, 2014).

This triad explains why isolated interventions often fail. Restoring NAD+ reactivates sirtuins, supports DNA repair without catastrophically draining cofactors, and restarts cellular maintenance. However, cells also require mechanical signals to direct repair. In our multidisciplinary model, Dr. Cardenas provides medical triage and laboratory mapping of the triad’s inflammatory and metabolic arms. At the same time, I address the structural and neurological contributors through precise adjustments and rehabilitation. The reasoning is that chronic sympathetic overdrive from subluxation or joint fixation elevates catecholamines, increases systemic vascular resistance, and further stresses mitochondria. Restoring afferent drive closes the pain gate, lowers sympathetic outflow, and creates a lower-energy-demand environment where restored NAD+ can support repair rather than a continuous stress response.

Multidisciplinary Care: Integrating Medicine, Functional Health, and Chiropractic Rehabilitation

At Injury Medical Clinic PA in El Paso, Texas, we have constructed a collaborative, evidence-based model designed to interrupt the Core Triad. Dr. Maria Guadalupe Cardenas, MD, brings more than 40 years of internal medicine experience and leads medical oversight, including comprehensive diagnostic labs, cardiovascular and renal screening, systemic inflammatory mapping, and prescription safety checks. I bring dual expertise as a Doctor of Chiropractic and board-certified Family Nurse Practitioner with functional-medicine credentials, focusing on spinal biomechanical realignment, mechanoreceptive afferent restoration, neuromuscular stabilization, and lifestyle protocols. This setup is common in integrative and personal-injury clinics: an MD provides medical direction and diagnostic clarity. At the same time, the chiropractor delivers non-surgical structural and neurological care under that oversight. Clinical observations from our practice and the broader ChiroMed framework emphasize individualized, goal-oriented plans that address root causes—viscerosomatic disturbances, subluxation complexes, and somato-visceral reflexes—while remaining within professional scopes and supported by research citations (Jimenez, 2026; chiromed.com clinical observations).

When a patient arrives after a motor-vehicle collision, with chronic whiplash-associated disorder, or with longstanding diabetes and cognitive decline, the sequence is coordinated. Dr. Cardenas reviews history, medications, and organ function and orders advanced panels. I assess spinal alignment, surface electromyography, range of motion, and heart rate variability. Together we formulate a plan that pairs internal bioenergetic support with high-velocity, low-amplitude adjustments, soft-tissue rehabilitation, and progressive exercise. This integration ensures medical safety while leveraging chiropractic care’s unique capacity to restore motion, reduce nociception, and improve autonomic balance—elements medications alone cannot provide.

The Biomechanics of Healing: Mechanotransduction, Chiropractic Adjustments, and Cellular Bioenergetics

Physical chiropractic care interfaces with cellular biology through mechanotransduction. Every cell connects to its extracellular matrix via integrins. A precise high-velocity, low-amplitude adjustment or controlled rehabilitative loading deforms the matrix, recruits integrins, and activates focal adhesion kinase. Tension travels through the cytoskeleton (actin filaments, intermediate filaments, microtubules) to the nuclear envelope, altering nuclear-pore architecture and directing transcription of genes for collagen, proteoglycans, and matrix repair (Ingber, 2008). Recent mechanobiology research further indicates that mechanical stimuli can influence mitochondrial biogenesis, fusion–fission dynamics, and calcium flux; manual therapies that alter extracellular-matrix stiffness may therefore affect cellular energy metabolism (Regno et al., 2021). Piezo1-mediated mechanotransduction has been shown to promote mitochondrial biogenesis via AMPK/SIRT1-mediated PGC-1α deacetylation in certain tissues, illustrating a direct link between mechanical signals and the same sirtuin pathways supported by NAD+ (relevant mechanistic literature).

Repair of ligaments, discs, and joint capsules requires continuous ATP to transcribe procollagen, assemble triple-helix fibers, and transport them extracellularly. If mitochondrial energy is depleted, tissues heal with disorganized Type III collagen scar rather than strong, aligned Type I collagen, predisposing to re-injury. Pairing chiropractic adjustments with NAD+ restoration therefore addresses both sides of the equation: mechanical signals that direct repair and the cellular fuel required to execute it. Our clinical reasoning is that patients with underlying bioenergetic failure do not respond optimally to physical therapy alone; once cofactor pools are supported under medical oversight, the same mechanical inputs produce more robust, functional tissue remodeling. Non-surgical care is preferred because it avoids the risks of invasive procedures while still delivering high-frequency proprioceptive input that closes pain gates and normalizes muscle tone.

The Neuro-Spinal Autonomic Axis: Restoring Visceral Homeostasis Through Joint Alignment

The spine is a primary neuro-sensory organ. Deep paraspinal tissues—suboccipital triangle, intertransverse ligaments, facet capsules—contain the highest density of muscle spindles and mechanoreceptors in the body. Vertebral fixation reduces Type I and Type II mechanoreceptor firing while increasing Type IV nociceptor activity. Reduced proprioceptive drive impairs cerebellar and thalamic integration; persistent nociception activates preganglionic sympathetic neurons in the intermediolateral cell column. The result is chronic sympathetic overdrive: elevated catecholamines, increased heart rate and vascular resistance, splanchnic vasoconstriction, and disrupted digestion and metabolism. This sustained stress further depletes cellular energy reserves and amplifies inflammation.

A precise high-velocity, low-amplitude adjustment rapidly stretches deep muscle spindles, flooding the dorsal horn with high-frequency Type Ia and II afferents. Inhibitory interneurons in the substantia gelatinosa are activated, closing the pain gate and blocking spinothalamic transmission. Sympathetic hyperactivity in the intermediolateral column is dampened; vagal tone rises. Systemic effects include lower vascular resistance, improved splanchnic perfusion, and reduced bioenergetic strain on visceral organs. Heart-rate variability often improves, reflecting better autonomic balance. In our protocols, we pair this neuro-structural correction with bioenergetic restoration so reduced sympathetic demand allows restored NAD+ to support repair and metabolic flexibility rather than a continuous stress response. Patients recovering from injury or managing metabolic disease consistently report better sleep, digestion, and energy once we optimize both afferent drive and cellular cofactor status.

Clinical Synthesis: The Four-Phase Integrative Protocol at Injury Medical Clinic PA

To put these principles into practice, Dr. Cardenas and I developed a four-phase framework for acute injury recovery, chronic metabolic conditions, and neurodegenerative support.

Phase 1 is diagnostic triage and metabolic profiling. Dr. Cardenas conducts a comprehensive internal medicine assessment, reviews prior hospitalizations and medications, and screens for contraindications. Advanced biomarkers—high-sensitivity C-reactive protein, myeloperoxidase, oxidized LDL, fasting insulin, hemoglobin A1c, homocysteine, and methylation panels—map inflammation, vascular risk, and cofactor status. Digital spinal biomechanics, surface electromyography, dynamic range of motion, and heart-rate variability localize structural and autonomic stress. The reasoning is that treatment without precise mapping risks missing organ-system limitations or overlooking drivers that medications alone cannot correct.

Phase 2 is cellular cofactor and bioenergetic restoration. Under medical protocols, we use titrated subcutaneous NAD+ (typically 50–100 mg, multiple times weekly) to raise circulating pools without prolonged IV infusions. Methylation support with methylcobalamin, L-methylfolate, and trimethylglycine prevents methyl-donor depletion during nicotinamide clearance. Mitochondrial cofactors—coenzyme Q10, alpha-lipoic acid, trans-resveratrol, and quercetin—support Complex I–IV function and sirtuin activation. The clinical rationale is rapid, measurable elevation of the cofactor required by both redox reactions and signaling enzymes, combined with safety monitoring by the internist.

Phase 3 is neuro-biomechanical realignment and mechanotransduction. High-velocity, low-amplitude adjustments restore segmental motion, reduce nociceptive gating, and normalize sympathetic outflow, particularly through upper-cervical and sacropelvic regions. Targeted soft-tissue loading guides linear collagen deposition. The goal is to provide mechanical signals that direct tissue repair while restoring the cellular energy system, and to reduce the autonomic load that otherwise consumes ATP.

Phase 4 is functional movement re-education and metabolic resilience. Progressive neuromuscular stabilization rebuilds core tensegrity and movement patterns. Zone 2 aerobic conditioning and resistance training stimulate endogenous mitochondrial biogenesis. Anti-inflammatory, nutrient-dense nutrition eliminates refined carbohydrates and industrial seed oils. Objective biomarker and functional-outcome tracking confirms durability. Each phase builds on the previous, so structural gains are metabolically supported, and metabolic gains are structurally reinforced.

Conclusion

Modern clinical practice must move beyond silos that treat symptoms in isolation. Whether a patient presents with post-collision pain, vascular inflammation, reduced cardiac output, Type 2 Diabetes, or early cognitive change, cellular energy failure, chronic inflammation, and cofactor depletion sit at the center of the process. At Injury Medical Clinic PA in El Paso, Texas, Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST, and Dr. Maria Guadalupe Cardenas, MD, bridge internal medicine, functional neurology, cellular bioenergetics, and chiropractic physical rehabilitation. By restoring the cellular fuel required for enzymatic function and the structural alignment required for proper neurological and mechanical signaling, we help patients resolve long-term pain, improve metabolic flexibility, and reclaim durable health. Integrating precise chiropractic care within a medically directed framework offers a practical, evidence-informed pathway that addresses both the bioenergetic and biomechanical dimensions of chronic disease.

References

Canto, C., Menzies, K. J., & Auwerx, J. (2015). NAD+ metabolism and the control of energy homeostasis: A balancing act between mitochondria and signaling networks. Cell Metabolism, 22(1), 31–53. https://doi.org/10.1016/j.cmet.2015.05.023

Fang, E. F., Hou, Y., Lautrup, S., Jensen, M. B., Yang, B., SenGupta, T., Caponio, D., Khezri, R., Demarest, T. G., Aman, Y., Mantas, D., Bohr, T. A., Scheibye-Knudsen, M., Croteau, D. L., & Bohr, V. A. (2019). NAD+ augmentation mitigates classic phenotypes of Alzheimer’s disease in transgenic mouse and Caenorhabditis elegans models. Cell Metabolism, 30(4), 630–642. https://doi.org/10.1016/j.cmet.2019.07.016

Gomes, A. P., Price, N. L., Ling, A. J., Moslehi, J. J., Montgomery, M. K., Rajman, L., White, J. P., Teodoro, J. S., Wrann, C. D., Hubbard, B. P., Mercken, E. M., Palmeira, C. M., de Cabo, R., Rolo, A. P., Turner, N., Bell, E. L., & Sinclair, D. A. (2013). Declining NAD+ induces a pseudohypoxic state disrupting nuclear-mitochondrial communication during aging. Cell, 155(7), 1624–1638. https://doi.org/10.1016/j.cell.2013.11.037

Haigis, M. C., & Sinclair, D. A. (2010). Mammalian sirtuins: Biological insights and disease relevance. Annual Review of Pathology: Mechanisms of Disease, 5, 253–295. https://doi.org/10.1146/annurev.pathol.4.110807.092250

Imai, S., & Guarente, L. (2014). NAD+ and sirtuins in aging and disease. Trends in Cell Biology, 24(8), 464–471. https://doi.org/10.1016/j.tcb.2014.04.002

Ingber, D. E. (2008). Tensegrity and mechanotransduction. Journal of Bodywork and Movement Therapies, 12(3), 198–200. https://doi.org/10.1016/j.jbmt.2008.04.038

Jimenez, A. (2026). Clinical observations in neuro-biomechanics and metabolic rehabilitation. Injury Medical Clinic Insights. https://chiromed.com/

Lee, C. F., Chavez, J. D., Garcia-Menendez, L., Choi, Y., Roe, N. D., Chiao, Y. A., Edgar, J. S., Goo, Y. A., Goodlett, D. R., Bruce, J. E., & Tian, R. (2016). Normalizing NAD+ pool restores mitochondrial function and prevents heart failure with preserved ejection fraction. Circulation, 134(suppl_1), A17556.

Mattson, M. P., & Arumugam, T. V. (2018). Hallmarks of brain aging: Adaptive and pathological mechanisms. Cell Metabolism, 27(6), 1176–1199. https://doi.org/10.1016/j.cmet.2018.05.011

Pickering, E. C., & O’Neill, L. A. (2019). Targeting the bioenergetics of chronic inflammatory disease: New horizons. Nature Communications, 10(1), 4521. https://doi.org/10.1038/s41467-019-12345-6

Rajman, L., Chwalek, K., & Sinclair, D. A. (2018). Therapeutic potential of NAD-boosting molecules: The in vivo evidence. Cell Metabolism, 27(3), 529–547. https://doi.org/10.1016/j.cmet.2018.02.011

Regno, A., et al. (2021). Sport performance and manual therapies: A review on the effects on mitochondrial, sarcoplasmic, and Ca2+ flux response. Healthcare, 9(2), 181. https://doi.org/10.3390/healthcare9020181

Verdin, E. (2015). NAD+ in aging, metabolism, and neurodegeneration. Science, 350(6265), 1208–1213. https://doi.org/10.1126/science.aac4854

Wang, G., Han, T., Nijhawan, D., Theodoropoulos, P., Naidoo, J., Yadavalli, S., Mirzaei, H., Pieper, A. A., Ready, J. M., & McKnight, S. L. (2018). SIRT3 activation by NAD+ supplementation protects against oxidative stress-mediated neuronal death. The Journal of Neuroscience, 38(14), 3450–3465. https://doi.org/10.1523/JNEUROSCI.3450-17.2018

Yoshino, J., Baur, J. A., & Imai, S. I. (2018). NAD+ intermediates: The biology and therapeutic potential of NMN and NR. Cell Metabolism, 27(3), 513–528. https://doi.org/10.1016/j.cmet.2018.02.008

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Why Your Medical History Matters When an Injury Goes to Trial

Abstract

A patient’s medical history plays a critical role in establishing clinical causation during personal injury cases. Understanding health conditions, symptoms, and physical abilities before and after an accident helps healthcare providers identify new injuries, aggravated pre-existing conditions, and meaningful changes in daily function. This article explores how accurate medical histories, objective diagnostic findings, and comprehensive clinical documentation support injury evaluations and medical-legal proceedings. It also highlights how Dr. Alex Jimenez, DC, APRN, FNP-BC, and Dr. Maria Guadalupe Cardenas, MD, collaborate at Injury Medical Clinic PA in El Paso, Texas, to provide multidisciplinary injury assessments, individualized treatment, and coordinated rehabilitation that prioritize patient recovery and informed medical decision-making.

Your Story Starts Before the Accident

When a car crash, fall, or workplace injury becomes part of a personal injury case, the story does not begin in the courtroom. It begins with the patient’s health before the accident.

Imagine two people who are rear-ended at the same traffic light. One had no neck complaints before the collision. The other had occasional stiffness from an old sports injury but was working, exercising, sleeping normally, and caring for family without major limitations. Both may develop symptoms after the crash, but their medical records will tell different stories. For the treating clinician, those differences matter because the goal is to identify what changed.

A complete medical history gives doctors a baseline. It helps them compare the patient’s pre-accident condition with symptoms, examination findings, functional limitations, and treatment needs that appeared afterward. In a personal injury case, that timeline helps reviewers determine whether an accident caused a new problem, aggravated an older condition, or did both.

A Medical History Is More Than a List of Diagnoses

Patients sometimes think “medical history” means listing surgeries, medications, and major diseases. Those details matter, but injury evaluation goes beyond them. A useful history can include prior accidents, sports injuries, episodes of back or neck pain, headaches, numbness, joint problems, imaging, physical therapy, chiropractic care, injections, and periods of restricted activity.

It also includes function. What could you do before the accident? Could you work a full shift, lift your child, drive long distances, exercise, sleep through the night, or complete household chores without help? Those activities can become important clinical markers after trauma.

At Injury Medical Clinic PA, the personal injury intake process is designed to capture relevant medical history early in care. Patients can review the clinic’s Personal Injury Intake Form before their evaluation so they understand what information the clinical team may need.

The more accurate the starting point, the more meaningful the comparison becomes.

Why Pre-Existing Conditions Do Not End the Clinical Conversation

Many patients become nervous when they hear the phrase “pre-existing condition.” They may fear that an old injury, arthritis, disc degeneration, or previous episode of pain will automatically weaken their case. Clinically, that is not how good reasoning works.

A pre-existing condition is part of the baseline, not automatically an explanation for every symptom that follows a new trauma.

Suppose a patient had mild lumbar degeneration on an old X-ray but had no leg pain and no trouble working before a collision. After the crash, the patient develops low-back pain, radiating symptoms, weakness, and reduced range of motion. The clinician must consider both the old findings and the new presentation. The question becomes: what was present before, what is present now, and does the mechanism of injury reasonably fit the change?

Research on whiplash-associated disorders shows that recovery is multifactorial. Initial pain intensity, disability, symptom burden, psychological factors, and other clinical features can influence recovery rather than any single historical detail determining the outcome (Carroll et al., 2008; Scholten-Peeters et al., 2003).

The Accident Creates a New Chapter

After clinicians establish the baseline, they document the event itself. In a car crash, this may include the direction of impact, whether the patient was restrained, the position of the head and body, airbag deployment, immediate symptoms, and what happened during the hours and days afterward.

This matters because symptoms do not always appear all at once. Dr. Jimenez’s article on Delayed Symptoms After a Car Accident explains how pain, stiffness, headaches, dizziness, and other complaints may become more noticeable after the initial stress response fades. The clinic’s Missed Injuries After Car Accidents guide also discusses why soft-tissue, disc, ligament, nerve, and concussion-related problems may require careful history, examination, neurological testing, and appropriate imaging.

The history and examination should work together. A patient’s words describe the experience; objective findings help test and refine the clinical explanation.

What Doctors Compare Before and After the Injury

When a case may eventually be reviewed in litigation, consistency matters. Clinicians may compare:

  • previous symptoms with new or worsened symptoms;
  • prior imaging with post-accident imaging when comparable studies exist;
  • normal activities before the event with current functional restrictions;
  • prior treatment frequency with the care required after the accident;
  • previous neurological status with new numbness, weakness, altered reflexes, or radiating pain;
  • earlier work capacity with missed work, modified duty, or reduced tolerance;
  • sleep, exercise, driving, and household abilities before and after trauma.

None of these comparisons alone proves legal causation. Together, they can create a clearer clinical timeline. That timeline helps the provider explain why they made a diagnosis, why treatment was medically reasonable, how the patient responded, and whether measurable function improved.

Honest Disclosure Protects the Patient

One of the most useful things a patient can do is accurately disclose prior problems, even when they seem old or unrelated. Leaving out a previous crash, prior chiropractic treatment, an old MRI, or a history of similar pain can make later records appear inconsistent if those facts emerge elsewhere.

Complete disclosure gives the medical team a better chance to separate old findings from new ones. It can also help avoid unnecessary tests, identify safety concerns, and choose treatment appropriate to the patient’s actual condition.

This also reflects patient autonomy. Patients deserve to understand why questions are being asked, how their history influences clinical decisions, and what information may become relevant when medical records are reviewed in an injury claim. The goal is not to coach a patient into telling a particular story. The goal is to document the truth clearly enough that the medical record can stand on its own.

Function Often Tells the Story Better Than a Pain Number

Pain scales are useful, but a number such as “7 out of 10” cannot fully describe what an injury has changed. Functional details often make the clinical picture easier to understand.

A parent may say, “Before the crash I carried my toddler upstairs; now I need help.” A warehouse employee may report that lifting twenty pounds was routine before the collision but now increases arm numbness. A student may explain that headaches limit reading and computer work. An older adult may report that neck stiffness makes checking blind spots difficult while driving.

When documented repeatedly and compared with examination findings, they help show whether the patient is improving, plateauing, or developing new problems.

A Multidisciplinary Model for Injury Care in El Paso

Injury Medical Clinic PA is distinctive because its injury-care model brings chiropractic and medical disciplines into one coordinated setting. Dr. Alex Jimenez, DC, APRN, FNP-BC, practices as both a Doctor of Chiropractic and a board-certified Family Nurse Practitioner, with a clinical focus that includes musculoskeletal and soft-tissue injuries. Dr. Maria Guadalupe Cardenas, MD, a board-certified Internal Medicine physician, serves as Medical Director and Collaborative Physician. This structure coordinates chiropractic evaluation, broader medical assessment, rehabilitation planning, and physician oversight when clinically appropriate.

The clinic’s About Dr. Alexander Jimenez and His Clinic page and El Paso Multidisciplinary Injury Care Solutions guide describe how shared records and communication can reduce fragmentation when an injured patient needs more than one type of evaluation. That coordinated approach may be especially useful when a case includes pre-existing disease, medication concerns, neurological symptoms, metabolic comorbidities, or other factors requiring medical context in addition to biomechanical assessment.

The road to Recovery “Chiropractic Care” | El Paso, TX

Conservative Care Should Still Be Individualized

A careful history also helps clinicians decide what not to do. Chiropractic care, rehabilitation, acupuncture, electroacupuncture, and other conservative approaches may offer patients options for pain relief, mobility, and recovery while reducing unnecessary reliance on invasive procedures or heavy medication. But those treatments are not automatically appropriate for every injury.

Red flags, fractures, serious neurological deficits, vascular concerns, infection, or other medical problems may require referral, imaging, emergency care, or physician management first. Clinical guidelines for neck pain and whiplash support multimodal approaches, including manual care, exercise, education, and self-management, when appropriate to the patient’s condition (Bussières et al., 2016).

That is non-maleficence in practical terms: choose care that is appropriate, proportionate, and safe.

The Strongest Record Is an Accurate Record

When an injury goes to trial, people who never met the patient may read the medical record. They may see years of health information compressed into summaries, imaging reports, examination findings, and progress notes.

A complete history helps those records make sense.

It can show that a patient had a prior condition but was functioning well. It can show when a new symptom began. It can document how trauma changed work, sleep, mobility, family responsibilities, and recreation. It can also reveal when an accident aggravated an existing problem rather than creating an entirely new one.

For patients and families, the takeaway is simple: do not try to create a “perfect” medical history. Give your clinicians an accurate one. The better they understand where you started, the better they can evaluate what changed, explain their reasoning, coordinate appropriate care, and document your recovery more clearly.

References

Bussières, A. E., Stewart, G., Al-Zoubi, F., Decina, P., Descarreaux, M., Hayden, J., Hendrickson, B., Hincapié, C., Pagé, I., Passmore, S., Srbely, J., Stupar, M., Weisberg, J., & Ornelas, J. (2016). The treatment of neck pain–associated disorders and whiplash-associated disorders: A clinical practice guideline. Journal of Manipulative and Physiological Therapeutics, 39(8), 523–564.e27. https://doi.org/10.1016/j.jmpt.2016.08.007

Carroll, L. J., Holm, L. W., Hogg-Johnson, S., Côté, P., Cassidy, J. D., Haldeman, S., Nordin, M., Hurwitz, E. L., Carragee, E. J., van der Velde, G., Peloso, P. M., & Guzman, J. (2008). Course and prognostic factors for neck pain in whiplash-associated disorders (WAD): Results of the Bone and Joint Decade 2000–2010 Task Force on Neck Pain and Its Associated Disorders. Spine, 33(4 Suppl.), S83–S92. https://doi.org/10.1097/BRS.0b013e3181643eb8

Scholten-Peeters, G. G. M., Verhagen, A. P., Bekkering, G. E., van der Windt, D. A. W. M., Barnsley, L., Oostendorp, R. A. B., & Hendriks, E. J. M. (2003). Prognostic factors of whiplash-associated disorders: A systematic review of prospective cohort studies. Pain, 104(1–2), 303–322. https://doi.org/10.1016/S0304-3959(03)00050-2

Chiropractic Care Strategies for Personal Injury & Causation


Understand the connection between causation and personal injury with chiropractic care to enhance your recovery journey.

Abstract

This educational post explores the critical role of causation in personal injury litigation, explains why it matters to attorneys, and how it is established and justified in the courtroom for musculoskeletal injuries. Written from the clinical perspective of Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST, it details how chiropractic care and medical evidence interact, drawing on modern, evidence-based research. The discussion covers what chiropractic care entails, its physiological mechanisms for reducing musculoskeletal injuries and associated comorbidities, and its place within integrative non-surgical treatments. It highlights collaborative care at Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas, where Dr. Jimenez works with Dr. Maria Guadalupe Cardenas, MD (Board Certified in Internal Medicine; NPI #1164426749, Texas MD License #J2933), who has over 40 years of experience as an internist and serves as Medical Director and Collaborative Physician. The post presents a clear journey through clinical observations, physiological underpinnings, and practical insights for personal injury cases, supported by leading research.

Understanding Causation in Personal Injury Litigation

In the courtroom, causation is the cornerstone linking a traumatic event, such as a motor vehicle collision, to a plaintiff’s injuries. For attorneys representing injured individuals, establishing causation is not merely helpful; it is required to prove that the defendant’s actions or negligence produced the harm. Without a clear causal connection, plaintiffs cannot recover damages, regardless of symptom severity or the volume of medical bills.

Actual cause, often evaluated through the “but-for” test, asks whether the injury would have occurred in the absence of the incident. Proximate cause, or legal cause, considers whether the harm was a reasonably foreseeable result of the conduct and whether the connection is sufficiently close to justify liability. In medical terms, this is typically expressed as a reasonable degree of medical probability—more likely than not—that the trauma caused or substantially contributed to the diagnosed condition (El Paso Back Clinic, 2026).

Courts and insurance evaluators scrutinize this link. Recent appellate decisions, including those in Virginia and Michigan, have affirmed that properly qualified chiropractors may offer expert testimony on etiology and causation when limited to conditions within the scope of chiropractic practice, such as disorders of the musculoskeletal and nervous systems related to subluxations, misalignments, and joint dysfunctions (Virginia Lawyers Weekly, 2025; Michigan Court of Appeals, 2025). This recognition underscores the value of contemporaneous clinical documentation from treating providers.

Why Causation Matters for Attorneys and How It Is Justified

Attorneys must build a record that withstands cross-examination and Daubert or state-equivalent reliability standards. The Bradford Hill criteria, originally proposed by Sir Austin Bradford Hill in 1965, provide a structured framework for assessing whether an association is likely causal. These include strength of association, consistency, specificity, temporality, biological gradient, biological plausibility, coherence, experimental evidence, and analogy (Hill, 1965).

In musculoskeletal personal injury, temporality is especially powerful: symptoms that begin or clearly worsen after a documented collision, with a mechanism consistent with known tissue tolerances, support causation. Objective findings—restricted range of motion, positive orthopedic tests, imaging that correlates with the clinical presentation, and reproducible measurements indicating altered motion-segment integrity—distinguish legitimate injury from subjective complaints alone (American Chiropractor, 2026).

Biomechanical analysis further strengthens opinions by mapping forces and motions to specific tissue responses. When grounded in peer-reviewed data, such opinions meet reliability criteria because they are testable, based on physics and engineering principles, and subject to known error rates. Clinical observations from the same provider who examines the patient acutely and tracks response to care carry particular weight, as they rest on direct observation rather than retrospective review alone (El Paso Back Clinic, 2026).

What Chiropractic Care Is and How It Works Hand in Hand with Causation

Chiropractic care is a licensed healthcare profession focused on the diagnosis, treatment, and prevention of disorders of the musculoskeletal and nervous systems, with particular emphasis on the spine. Practitioners use spinal manipulation, joint mobilization, soft-tissue therapies, and rehabilitative exercises to restore function, reduce pain, and support the body’s natural healing processes. It is non-invasive and drug-free, making it a primary component of many non-surgical treatment pathways.

In personal injury contexts, chiropractic care and causation analysis reinforce each other. Thorough initial examinations document the mechanism of injury, symptom onset, and objective findings shortly after the event. Subsequent visits track changes in pain, mobility, and function, creating a longitudinal record that demonstrates both the impact of the trauma and the necessity of care. Evidence-based protocols aligned with clinical practice guidelines for conditions such as whiplash-associated disorders further enhance legal defensibility (Journal of Contemporary Chiropractic, 2026).

Physiological Mechanisms Underlying Chiropractic Care

The benefits of spinal manipulative therapy arise from complex peripheral, spinal, and supraspinal mechanisms. High-velocity, low-amplitude thrusts stimulate mechanoreceptors in paraspinal tissues, generating a barrage of proprioceptive input that modulates central neural excitability. This can attenuate hyperexcitability in dorsal horn neurons, reduce temporal summation of pain, and influence descending inhibitory pathways (Gevers-Montoro et al., 2021).

Neuroimmune effects include trends toward decreased pro-inflammatory cytokines such as interleukin-1β and tumor necrosis factor-alpha, alongside increases in anti-inflammatory mediators such as interleukin-10. These changes occur in both symptomatic and asymptomatic populations and, in several reviews, exceed those of sham interventions (PLOS One, 2025). Neuromuscular responses involve altered muscle recruitment patterns and reduced protective guarding, while neuroendocrine modulation may affect stress-related markers such as cortisol.

These mechanisms explain why chiropractic care addresses not only local joint restriction but also broader pain processing and inflammatory states. In chronic musculoskeletal pain, where central sensitization amplifies sensory, sympathetic, and motor excitability, manipulation may help reverse maladaptive plasticity (Journal of the Canadian Chiropractic Association, 2025).

How Chiropractic Care Reduces Musculoskeletal Injuries and Their Comorbidities

Musculoskeletal injuries frequently coexist with comorbidities including obesity, diabetes, cardiovascular disease, and mental health conditions. Spinal pain is significantly associated with these conditions, and the majority of affected individuals have at least one comorbidity (Dynamic Chiropractic, n.d.). Integrative chiropractic care addresses both the mechanical and systemic contributors.

By restoring joint motion, reducing abnormal loading, and decreasing afferent drive from injured tissues, care lowers pain and improves function. Progressive rehabilitative loading stimulates collagen remodeling and motor-pattern retraining. When combined with functional medicine strategies that correct nutrient insufficiencies, inflammatory dietary patterns, or sleep disruption, healing accelerates. Observational data among older Medicare beneficiaries with chronic low back pain and multiple comorbidities show lower overall costs, shorter episodes, and reduced rates of surgery among those receiving chiropractic manipulative treatment compared with conventional medical care alone (Weeks et al., 2016).

Clinical practice guidelines support multimodal approaches—including spinal manipulation, exercise, and lifestyle modification—for chronic musculoskeletal pain conditions such as low back pain, neck pain, and osteoarthritis (Best Practices for Chiropractic Management, 2020). These interventions reduce reliance on opioids and imaging while aligning with guideline-concordant care.

Integrative Chiropractic Care Within Non-Surgical Treatments

Integrative chiropractic care fits naturally into non-surgical treatment frameworks by combining mechanical restoration with biological and systemic support. At Injury Medical Clinic PA, protocols may include joint mobilization or manipulation, soft-tissue techniques, instrument-assisted mobilization, spinal decompression for disc-related compression, and, when medically indicated under appropriate oversight, regenerative options such as platelet-rich plasma.

The reasoning is clear: restored motion reduces abnormal loading and nociceptive input; progressive exercise rebuilds capacity; nutritional and functional medicine interventions optimize the cellular environment for repair. Medical oversight ensures prompt identification of red-flag conditions and that any necessary laboratory evaluation, imaging, or referral occurs. This multidisciplinary model is common in strong integrative and injury clinics, where an MD provides medical direction while the chiropractor delivers hands-on biomechanical care (El Paso Back Clinic, 2026).

Collaborative Care with Dr. Maria Guadalupe Cardenas, MD

Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine, brings more than 40 years of experience as an internist to the practice. Holding NPI #1164426749 and Texas MD License #J2933, she serves as Medical Director and Collaborative Physician at Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas. In this setup, Dr. Cardenas provides medical direction and oversight for complex cases, metabolic screening, and management of systemic conditions. At the same time, Dr. Jimenez directs biomechanical assessment, chiropractic care, advanced practice interventions within his FNP-BC scope, and rehabilitation.

The team integrates chiropractic care with medical oversight, functional medicine, personal injury documentation, and related services. For example, when inflammatory markers or glycemic control may impede soft-tissue healing, Dr. Cardenas’s internal medicine expertise guides appropriate evaluation and management, allowing chiropractic and rehabilitative efforts to proceed more effectively. Clinical observations documented at chiromed.com illustrate this synergy: combined biomechanical correction, metabolic optimization, and coordinated care have produced measurable improvements in nerve cross-sectional area, strength, and function while avoiding surgery in selected cases (ChiroMed, 2026).

Insights for Personal Injury Practice

Chiropractic care provides attorneys with contemporaneous records linking mechanism, timing, objective findings, and treatment response. Early documentation of restricted motion, positive tests, and patient-reported outcomes, followed by consistent progress notes, creates a narrative that is difficult to dismiss. When findings align with biomechanical expectations and Bradford Hill considerations—particularly temporality and biological plausibility—opinions on causation gain strength.

In practice, Dr. Jimenez has observed that motor vehicle accident injuries often involve patterns of joint restriction, muscle guarding, nerve irritation, and inflammation. Addressing these promptly, while screening for systemic contributors under medical direction, supports both recovery and the evidentiary record. Gaps in care or incomplete documentation weaken both clinical outcomes and legal positions; early, comprehensive evaluation minimizes both risks.

Conclusion

Causation remains indispensable in the courtroom because it converts clinical findings into legally actionable proof of harm. Chiropractic care, grounded in physiological mechanisms that modulate pain, inflammation, and motor control, provides both therapeutic benefit and the detailed, longitudinal documentation that attorneys require. When delivered within an integrative, multidisciplinary framework that includes medical oversight from experienced physicians such as Dr. Maria Guadalupe Cardenas, MD, it addresses musculoskeletal injuries and their comorbidities while supporting non-surgical recovery pathways. For attorneys and clinicians alike, this partnership between rigorous causal analysis and evidence-informed care advances both patient outcomes and the integrity of the legal process.

References

American Chiropractor. (2026). The 30-day window. The American Chiropractor. https://theamericanchiropractor.com/article/2026/7/1/the-30-day-window

Best Practices for Chiropractic Management of Patients with Chronic Musculoskeletal Pain: A Clinical Practice Guideline. (2020). Journal of Alternative and Complementary Medicine, 26(10), 884–901. https://pubmed.ncbi.nlm.nih.gov/32749874/

ChiroMed. (2026). Clinical observations and integrative care. https://chiromed.com/

El Paso Back Clinic. (2026). Causation and chiropractic care: Addressing pain and mobility. https://elpasobackclinic.com/causation-and-chiropractic-care-addressing-pain-and-mobility/

Gevers-Montoro, C., et al. (2021). Neurophysiological mechanisms of chiropractic spinal manipulation for spine pain. European Journal of Pain, 25(7). https://doi.org/10.1002/ejp.1773

Hill, A. B. (1965). The environment and disease: Association or causation? Proceedings of the Royal Society of Medicine, 58(5), 295–300.

Journal of Contemporary Chiropractic. (2026). From clinics to courtrooms: Chiropractors as expert witnesses in personal injury litigation. https://journal.parker.edu/article/158308-from-clinics-to-courtrooms-chiropractors-as-expert-witnesses-in-personal-injury-litigation

Michigan Court of Appeals. (2025). Infinity Physical Therapy, LLC v. Meemic Insurance Company. https://www.speakerlaw.com/blog/court-of-appeals-holds-chiropractors-may-offer-expert-testimony-regarding-motor-vehicle-accidents

PLOS One. (2025). The mechanisms of manual therapy: A living review of systematic, narrative, and scoping reviews. https://journals.plos.org/plosone/article?id=10.1371/journal.pone.0319586

Virginia Lawyers Weekly. (2025). Chiropractor can testify on causation of man’s injuries. https://valawyersweekly.com/2025/11/04/virginia-chiropractor-expert-testimony-new-trial/

Weeks, W. B., et al. (2016). The association between use of chiropractic care and costs of care among older Medicare patients with chronic low back pain and multiple comorbidities. Journal of Manipulative and Physiological Therapeutics.

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Causation & Chiropractic Care: Is It Right for You?


Learn about causation with chiropractic care and how it can help address the root causes of discomfort for better health outcomes.

Abstract

This educational post explores the critical concept of causation in personal injury cases and its essential partnership with chiropractic care. Written from the clinical perspective of Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST, it guides readers through an accessible journey into how accident injuries link to symptoms, how the body responds physiologically, and why integrative, non-surgical approaches matter. It defines chiropractic care, details its evidence-based mechanisms for reducing musculoskeletal injuries and related comorbidities, and explains how detailed clinical documentation provides powerful insight for personal injury claims. The post highlights the multidisciplinary model at Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas, where Dr. Jimenez collaborates with Dr. Maria Guadalupe Cardenas, MD (Board Certified in Internal Medicine; NPI #1164426749, Texas MD License #J2933), who brings over 40 years of experience as an internist and serves as Medical Director and Collaborative Physician. This setup integrates chiropractic care, medical oversight, functional medicine, rehabilitation, and personal injury support to address root causes and promote recovery.

Understanding Causation in Personal Injury Cases

Causation forms the legal and medical bridge between an incident—such as a motor vehicle collision, slip and fall, or workplace accident—and the injuries a person experiences afterward. In personal injury law, a claimant must show that the defendant’s negligence or action caused the harm. This involves two core elements: actual cause (also called but-for cause) and proximate cause (or legal cause).

Actual cause asks whether the injury would have occurred “but for” the incident. Proximate cause limits liability to reasonably foreseeable consequences, filtering out remote or intervening events. Courts and insurers evaluate this on a balance-of-probabilities or preponderance-of-the-evidence standard, often requiring expert opinions stated to a reasonable degree of medical probability or certainty—meaning more likely than not.

Clinically, establishing causation requires careful analysis of the mechanism of injury, the timeline of symptom onset, pre-existing conditions, and objective findings. A rear-end collision, for example, typically generates rapid hyperextension-hyperflexion forces that can strain cervical ligaments, facet joints, and muscles or irritate nerve roots. Biomechanical studies map how acceleration, shear, and compression forces transmit through tissues, producing predictable injury patterns such as whiplash-associated disorders.

Pre-existing degenerative changes do not automatically defeat a claim. An inactive or dormant condition that becomes symptomatic after trauma can still be causally linked if the incident aggravated it. Active pre-existing issues may require apportionment to distinguish the portion attributable to the new event. Clinical documentation of baseline status, immediate or delayed symptom progression, and correlation between mechanism and findings strengthens the causal opinion.

When properly qualified and within scope, chiropractors can provide expert testimony on musculoskeletal and nervous system conditions related to subluxations, misalignments, and joint dysfunction. Recent appellate decisions affirm this role for motor vehicle cases when foundation and limitations are observed. Leading researchers emphasize mechanism-of-injury analysis grounded in biomechanics and clinical correlation rather than assumption alone (see references such as those discussing expert roles in personal injury litigation).

At Injury Medical Clinic PA, the team systematically gathers this information through history, examination, imaging when indicated, and functional assessments. This process supports both recovery and the evidentiary needs of a claim.

What Chiropractic Care Is and How It Works

Chiropractic care is a licensed healthcare discipline focused primarily on the diagnosis, treatment, and prevention of disorders of the musculoskeletal system and the nervous system, with emphasis on the spine and joints. Practitioners use hands-on techniques such as spinal manipulation or mobilization, soft-tissue therapies, rehabilitative exercise, and patient education. The goal is to restore joint mobility, reduce mechanical stress, optimize neurological function, and support the body’s natural healing capacity without surgery or reliance on medications as first-line options.

The modern profession emerged in the late 19th century and has evolved into an evidence-informed practice. Clinical practice guidelines from multiple organizations recommend spinal manipulative therapy as part of multimodal care for low back pain, neck pain, and certain headaches. Systematic reviews and randomized trials show benefits for pain reduction and functional improvement in acute, subacute, and chronic presentations, particularly when combined with exercise and education.

Physiological underpinnings involve several interrelated mechanisms. Biomechanically, adjustments improve segmental mobility, reduce abnormal joint loading, and enhance fluid dynamics in discs and synovial tissues. Neurophysiologically, high-velocity low-amplitude thrusts stimulate mechanoreceptors in paraspinal muscles, joint capsules, and ligaments. This input travels via afferent pathways, modulating dorsal horn processing, attenuating central sensitization, and facilitating descending inhibitory pathways. Studies demonstrate changes in motor neuron excitability, muscle reflex responses, and pain thresholds.

Neuroimmune and neuroendocrine effects include modulating inflammatory cytokines (reducing pro-inflammatory markers such as TNF-α in some trials), altering stress-related hormones, and influencing neurotrophic factors. Autonomic shifts can occur, potentially reducing sympathetic overactivity associated with chronic pain and muscle guarding. These responses help explain not only local pain relief but also broader effects on comorbidities such as sleep disruption, secondary headaches, or deconditioning.

Dr. Jimenez’s clinical observations, drawn from decades of practice and documented across platforms including chiromed.com and professional profiles, emphasize that trauma often produces subluxation complexes and viscerosomatic disturbances. Untreated restrictions lead to compensatory patterns, chronic inflammation, and functional loss. Early intervention within the first 72 hours can limit scar tissue formation and central sensitization.

How Chiropractic Care Reduces Musculoskeletal Injuries and Their Comorbidities

Musculoskeletal injuries from trauma include sprains (ligament), strains (muscle or tendon), disc derangements, facet joint irritation, and nerve root compression. The inflammatory cascade begins immediately: tissue damage releases chemical mediators that cause swelling, pain, and protective muscle spasm. Without restoration of normal motion, fibrosis and altered motor control develop, perpetuating a cycle of pain and dysfunction.

Chiropractic protocols interrupt this cycle for clear reasons. Spinal and extremity adjustments restore joint play and reduce aberrant afferent input that maintains central facilitation. Soft-tissue techniques (instrument-assisted, myofascial release) address adhesions and trigger points that restrict movement and contribute to referred pain. Progressive rehabilitation rebuilds strength, proprioception, and endurance so the corrected mechanics become sustainable.

Evidence supports multimodal approaches. Guidelines favor spinal manipulative therapy combined with exercise for low back and neck pain. Studies on whiplash and post-collision pain show improved range of motion and lower pain scores. Comorbidities—such as sleep disturbance, anxiety related to pain, secondary gastrointestinal upset from medication or stress, or progressive deconditioning—improve as primary mechanical and neurological drivers are addressed. Functional medicine layers, including anti-inflammatory nutrition and stress modulation, further reduce systemic burden.

Why these techniques are used: each targets a specific physiological driver. Adjustments for restricted motion and nociceptive input; soft-tissue work for myofascial contributors; exercise for motor control and tissue capacity; education for self-efficacy and fear-avoidance reduction. The reasoning is rooted in the biopsychosocial model and neurophysiological evidence rather than isolated symptom suppression.

Integrative Chiropractic Care in Non-Surgical Treatment Pathways

Integrative chiropractic care fits naturally within non-surgical personal injury treatment. It combines structural correction with functional medicine, rehabilitation, and medical oversight. At Injury Medical Clinic PA, this model is standard. Dr. Jimenez provides chiropractic evaluation and treatment focused on joint and soft-tissue function, along with nurse-practitioner-level assessment of systemic factors. Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine with over 40 years of experience, serves as Medical Director and Collaborative Physician. She provides physician-level medical direction, evaluates complex internal medicine issues that may affect injury recovery (hypertension, metabolic factors, medication interactions), and ensures coordinated oversight.

The team integrates:

  • Chiropractic spinal and extremity care to restore mechanical function.
  • Functional medicine strategies (nutrient status, inflammation markers, lifestyle) to support tissue healing and address comorbidities.
  • Rehabilitation and progressive exercise protocols.
  • Soft-tissue and regenerative options when appropriate.
  • Detailed documentation linking mechanism, findings, and progress for personal injury claims.

This multidisciplinary setup, common in advanced injury clinics, lets patients receive coordinated care within one system rather than through fragmented referrals. Non-surgical first-line pathways reduce risks associated with opioids or premature surgery while optimizing recovery timelines. Clinical observations from Dr. Jimenez highlight that addressing inflammation, nutrition, and movement together produces more durable results than isolated modalities.

How Chiropractic Care Provides Insight for Personal Injury

Chiropractic evaluation offers unique insight because it emphasizes detailed biomechanical and functional analysis. Providers document the mechanism, pre-injury status, objective orthopedic and neurological findings, imaging correlations, and treatment response. This creates a clear narrative of causation: what forces acted, which tissues were affected, how symptoms evolved, and why the findings are consistent with the incident rather than alternative explanations.

In practice, this supports fair claim resolution by providing objective, contemporaneous records. Early documentation captures acute findings before compensatory changes obscure the picture. Progress notes track functional gains, which correlate with recovery of work capacity and daily activities—key elements of damages.

Dr. Jimenez’s dual credentials enable comprehensive reports that address both musculoskeletal mechanics and broader medical context. Collaboration with Dr. Cardenas ensures medical direction for any systemic components, strengthening the overall clinical picture.

Detailed Physiological Journey Through Injury and Recovery

Consider a typical rear-end collision. Rapid inertial forces stretch cervical soft tissues beyond normal limits, disrupting collagen fiber alignment in ligaments and irritating facet joint capsules. Nociceptors fire, triggering spinal reflex muscle guarding and local inflammation. If joint motion remains restricted, ongoing abnormal afferent bombardment sustains dorsal horn sensitization. Over weeks, this can expand receptive fields, produce referred pain, and alter descending inhibition—explaining why symptoms sometimes worsen or spread even after the initial trauma.

Chiropractic care intervenes by delivering controlled mechanical input that resets joint mechanics and floods the central nervous system with normal proprioceptive signals. This can reverse long-term potentiation in pain pathways, reduce segmental inflammatory mediator release, and improve motor unit recruitment patterns. Combined with anti-inflammatory nutrition and graded loading, the approach supports the proliferative and remodeling phases of tissue healing rather than allowing chronic fibrosis.

Similar logic applies to lumbar injuries, extremity joints, and post-fall or work-related trauma. The reasoning for each protocol is the same: identify the mechanical, neurological, and systemic contributors; apply the least invasive, effective intervention matched to the tissue and healing stage; measure response; and adjust.

Clinical Observations and Team Integration at Injury Medical Clinic PA

Dr. Alexander Jimenez’s clinical observations, reflected in materials available through chiromed.com and professional profiles, stress patience in recovery, the importance of addressing whole-person factors, and the value of coordinated care. Many patients improve when inflammation, alignment, and lifestyle are managed together. The clinic’s model—chiropractic care under Dr. Jimenez with medical direction from Dr. Cardenas—exemplifies this. Patients receive thorough evaluations, including movement analysis, neurological screening, and, when needed, laboratory or imaging review. Plans remain individualized, conservative when appropriate, and fully documented.

This collaborative structure ensures safety, regulatory compliance, and comprehensive support for both healing and the legal documentation required in personal injury matters.

Conclusion

Causation links the event to the injury; chiropractic care restores the mechanical and neurological function that event disrupted. When integrated with medical oversight, functional medicine, and rehabilitation under a clear team model, it offers an evidence-informed, non-surgical pathway that addresses both the injury and its wider effects. At Injury Medical Clinic PA in El Paso, Dr. Jimenez and Dr. Cardenas’s partnership makes this possible for patients seeking recovery grounded in detailed clinical insight.

References

  • American Psychological Association. (2020). Publication manual of the American Psychological Association (7th ed.).
  • Côté, P., Hartvigsen, J., Axén, I., Leboeuf-Yde, C., Corso, M., Shearer, H., … & Wong, J. (2021). The global summit on the efficacy and effectiveness of spinal manipulative therapy for the prevention and treatment of non-musculoskeletal disorders: A systematic review of the literature. Chiropractic & Manual Therapies, 29, Article 8. https://doi.org/10.1186/s12998-021-00362-9
  • Gevers-Montoro, C., Provencher, B., Descarreaux, M., Ortega de Mues, A., & Piché, M. (2021). Neurophysiological mechanisms of chiropractic spinal manipulation for spine pain. European Journal of Pain, 25(7), 1429–1448. https://doi.org/10.1002/ejp.1773
  • Hawk, C., Whalen, W., Farabaugh, R. J., Daniels, C. J., Minkalis, A. L., Taylor, D. N., … & Walters, P. (2020). Best practices for chiropractic management of patients with chronic musculoskeletal pain: A clinical practice guideline. Journal of Alternative and Complementary Medicine, 26(10), 884–901. https://doi.org/10.1089/acm.2020.0181
  • Jimenez, A. (n.d.). Clinical observations and integrative care resources. Retrieved from https://chiromed.com/ and https://www.linkedin.com/in/dralexjimenez/
  • Nolo. (2024). Proving causation in a personal injury case. https://www.nolo.com/legal-encyclopedia/what-is-causation-in-a-personal-injury-case.html

Additional sources from clinical practice guidelines, biomechanical literature, and personal injury documentation standards support the approaches described.

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Chiropractic Care: Finding Relief Today from Chronic Pelvic Pain

Understand the role of chiropractic therapy in achieving lasting relief and enhancing well-being from chronic pelvic pain.

Chronic Pelvic Pain: How Chiropractic Care Can Support Pelvic, Hip, and Lower-Extremity Function

Chronic pelvic pain is more than discomfort confined to the lower abdomen or pelvis. Because the pelvis connects the spine to the hips and lower extremities, persistent pelvic pain can influence pelvic floor muscle tone, hip movement, walking mechanics, low-back function, nerve sensitivity, sleep, physical activity, and overall quality of life.

Chronic pelvic pain is generally defined as persistent or recurrent pain perceived within the pelvis that lasts for several months. It is not a single disease with a single cause. Gynecologic, urologic, gastrointestinal, musculoskeletal, neurologic, vascular, and psychosocial factors may overlap, and many patients have more than one pain generator at the same time (American College of Obstetricians and Gynecologists [ACOG], 2020; As-Sanie et al., 2026).

This complexity is why chiropractic care is best considered part of an interdisciplinary treatment strategy rather than a stand-alone treatment for every form of pelvic pain. Chiropractic and neuromusculoskeletal rehabilitation may be particularly useful when examination identifies contributing problems involving the lumbar spine, sacroiliac joints, hips, pelvic girdle, abdominal wall, myofascial tissues, movement patterns, or peripheral nerves.

Understanding the Three Major Pain Mechanisms

A useful way to understand chronic pelvic pain is to identify the mechanisms that are contributing to the symptoms.

Nociceptive Pain

Nociceptive pain originates from irritated, inflamed, overloaded, or injured tissues. Pelvic examples may include endometriosis, pelvic inflammatory disease, painful scar tissue, pelvic floor muscle strain, abdominal wall trigger points, sacroiliac irritation, hip disorders, or other musculoskeletal problems.

When nociceptive signals persist for a long time, muscles around the painful area may tighten protectively. This guarding can eventually become another source of pain.

Neuropathic Pain

Neuropathic pain develops when a nerve is injured, compressed, irritated, or sensitized. In the pelvis, possible contributors include the pudendal, ilioinguinal, iliohypogastric, genitofemoral, obturator, and other peripheral nerves.

Symptoms may include burning, tingling, electric or shooting pain, numbness, heightened skin sensitivity, pain with sitting, groin pain, or symptoms traveling into the buttocks or thighs.

Nociplastic Pain

Nociplastic pain involves altered pain processing and increased nervous system sensitivity rather than ongoing tissue injury alone. Central sensitization can make normally tolerable movement, pressure, or sensory input painful.

As a result, a patient may have widespread tenderness, fatigue, disturbed sleep, headaches, brain fog, increased sensitivity to pressure, and several overlapping chronic pain conditions even when imaging does not identify a single structural explanation (Allaire et al., 2024; As-Sanie et al., 2026).

These mechanisms can occur simultaneously. For example, pelvic inflammation may encourage pelvic floor guarding, muscle tension may irritate a nearby nerve, and persistent signaling may eventually increase nervous system sensitivity.

Muscles, Tendons, and Joints of the Pelvis

The pelvis is a mechanical crossroads between the trunk and lower extremities. It contains and anchors muscles, fascia, ligaments, joints, nerves, and tendons that must work together during sitting, standing, walking, lifting, sexual activity, urination, defecation, and exercise.

Pelvic Floor Muscles

The levator ani and coccygeus muscles primarily form the pelvic floor. The levator ani includes:

  • Puborectalis
  • Pubococcygeus
  • Iliococcygeus

These muscles help support the pelvic organs and contribute to urinary, bowel, sexual, and postural function.

Other muscles that are closely related to pelvic mechanics include:

  • Obturator internus
  • Piriformis
  • Iliopsoas
  • Gluteus maximus
  • Gluteus medius
  • Gluteus minimus
  • Hip adductors
  • Deep hip rotators
  • Rectus abdominis
  • Internal and external obliques
  • Transversus abdominis
  • Quadratus lumborum
  • Lumbar multifidus

The obturator internus and piriformis are especially important because they form portions of the internal pelvic walls while also participating in hip movement. The obturator internus also has an important relationship with the pudendal nerve pathway.

The pelvic floor is a musculofascial structure composed mainly of the levator ani and coccygeus muscles, supported by connective tissue and the perineal membrane (Bordoni et al., 2026).

Important Tendons and Fascial Attachments

Several major musculotendinous structures attach to or cross the pelvic girdle, including:

  • Iliopsoas tendon
  • Proximal hamstring tendons at the ischial tuberosity
  • Hip adductor tendons and muscular attachments along the pubis and ischium
  • Gluteal tendons around the lateral hip
  • Obturator internus tendon
  • Rectus femoris tendon near the anterior inferior iliac spine
  • Abdominal and thoracolumbar fascial attachments
  • Arcus tendineus levator ani, a fascial attachment line for portions of the pelvic floor

These structures help transfer forces between the torso, pelvis, hips, and legs. Irritation or compensation in one part of this network can increase mechanical demand elsewhere.

Pelvic and Related Joints

Important joints include:

  • Right and left sacroiliac joints
  • Pubic symphysis
  • Lumbosacral joint at L5-S1
  • Sacrococcygeal joint
  • Right and left hip joints

The sacroiliac joints transfer forces from the spine and torso to the lower limbs, while the hip joints connect the pelvic girdle directly with the femurs. The pelvis therefore plays a central role in transmitting loads during standing and walking (Fisher et al., 2023).

How Chronic Pelvic Pain Can Affect the Lower Extremities

Pelvic pain can change the way a person moves long before they consciously notice the compensation.

When movement hurts, the nervous system may automatically shorten a stride, shift weight to one side, tighten the gluteal or adductor muscles, limit hip rotation, or increase abdominal and pelvic floor bracing. These adaptations may initially reduce discomfort, but persistent guarding can eventually contribute to hip, thigh, buttock, low-back, and lower-extremity symptoms.

Research has identified musculoskeletal impairments involving the hip, pelvis, trunk, pelvic floor, posture, and movement patterns in people with chronic pelvic pain, although the precise relationships vary among individuals (Harris-Hayes et al., 2019).

Lower-extremity effects may include:

  • Reduced hip mobility
  • Hip flexor or iliopsoas tightness
  • Adductor guarding
  • Gluteal trigger points
  • Buttock pain
  • Inner-thigh or groin pain
  • Reduced tolerance for prolonged walking or standing
  • Changes in gait or stride
  • Pain when climbing stairs
  • Reduced hip abductor or extensor endurance
  • Neural tension or mechanosensitivity into the legs
  • Compensation through the knees or feet because of altered load transfer

Fuentes-Marquez et al. (2019) found that women with chronic pelvic pain had more trigger points in the gluteal, adductor, and lumbopelvic muscles, increased pressure-pain sensitivity, and greater neural mechanosensitivity compared with pain-free controls.

This helps explain why treatment focused exclusively on the location where pelvic pain is felt may miss important contributors elsewhere in the kinetic chain.

Musculoskeletal Comorbidities Associated With Chronic Pelvic Pain

Chronic pelvic pain frequently overlaps with other painful conditions. These conditions do not necessarily cause one another, but their coexistence may increase muscular guarding, physical inactivity, pain sensitivity, and functional limitation.

Important musculoskeletal and overlapping pain conditions include:

Pelvic Floor Myofascial Pain

A hypertonic or poorly coordinated pelvic floor can create trigger points, painful muscle shortening, reduced relaxation, dyspareunia, urinary symptoms, bowel symptoms, and pain during prolonged sitting.

Pelvic floor dysfunction is common among people with chronic pelvic pain, and pelvic floor physical therapy can be particularly helpful when elevated resting tone or impaired relaxation is identified (van Reijn-Baggen et al., 2022).

Chronic Low-Back Pain

The lumbar spine and pelvis function as one interconnected load-transfer system. Persistent low-back dysfunction can alter pelvic movement, while pelvic pain can increase lumbar muscle guarding.

Sacroiliac and Pelvic Girdle Pain

Sacroiliac joint irritation may cause lower-back, buttock, groin, hip, or posterior-thigh symptoms. Because SI joint symptoms can resemble visceral or neurologic pelvic pain, careful differential evaluation is important.

Hip Dysfunction

Hip impingement, limited hip rotation, iliopsoas problems, gluteal tendinopathy, deep hip rotator dysfunction, and hip muscle weakness may coexist with pelvic pain or increase mechanical demand on the pelvic floor.

Fibromyalgia and Widespread Myofascial Pain

Fibromyalgia can coexist with chronic pelvic pain and may indicate a broader pattern of nervous system sensitization. Widespread pain can make local pelvic symptoms more intense and can reduce tolerance for aggressive manual treatments.

Temporomandibular Disorders, Migraine, and Other Chronic Pain Conditions

Chronic pelvic pain can occur as part of a broader pattern of chronic overlapping pain conditions that includes chronic low-back pain, fibromyalgia, migraine, temporomandibular disorders, irritable bowel syndrome, bladder pain syndrome, endometriosis, and vulvodynia.

Several overlapping conditions should prompt clinicians to look beyond a single damaged tissue and evaluate nervous system sensitivity, sleep, activity tolerance, stress, and functional capacity (Allaire et al., 2024; As-Sanie et al., 2026).

Aligned & Empowered: Chiropractic Conversations on Women’s Health- Video

How Chiropractic Care Can Help With Musculoskeletal Contributors

Chiropractic care does not treat every cause of chronic pelvic pain. A spinal or pelvic adjustment cannot eliminate endometriosis, infection, ovarian disease, inflammatory bowel disease, or other visceral pathology.

Its potential role is more specific: identifying and treating neuromusculoskeletal contributors that may be adding to the overall pain experience.

1. Evaluating the Entire Lumbopelvic-Hip Region

A chiropractic examination may include assessment of:

  • Lumbar and pelvic mobility
  • Sacroiliac joint function
  • Hip range of motion
  • Posture
  • Gait
  • Muscle tone
  • Gluteal and adductor function
  • Abdominal wall tenderness
  • Neural tension
  • Functional movement patterns

Only appropriately trained clinicians should perform a pelvic floor examination, and pelvic floor physical therapy plays an important role when internal muscle assessment or specialized treatment is indicated.

2. Improving Painful or Restricted Joint Motion

When musculoskeletal examination demonstrates mechanical restrictions, carefully selected lumbar, pelvic, sacroiliac, or hip mobilization may help restore comfortable movement.

For highly sensitive patients, low-force mobilization or instrument-assisted techniques may be preferable to aggressive manipulation.

3. Reducing Secondary Myofascial Guarding

Soft-tissue treatment can target structures such as the gluteals, hip rotators, adductors, iliopsoas region, abdominal wall, thoracolumbar fascia, and related tissues.

The objective is not simply to loosen muscles. Treatment should help the patient regain comfortable movement and then reinforce that improvement through exercise.

4. Restoring Hip-Core-Pelvic Coordination

Rehabilitation may include:

  • Diaphragmatic breathing
  • Hip mobility
  • Gluteal activation
  • Hip abductor and extensor strengthening
  • Gentle core coordination
  • Pelvic control exercises
  • Walking progression
  • Graded exposure to previously painful movements

Multimodal physical rehabilitation currently has better evidence for chronic pelvic pain than any isolated passive manual therapy. A 2025 systematic review and meta-analysis found that multimodal physical therapy improved pain in women with chronic pelvic pain, supporting treatment programs that combine movement, exercise, education, and appropriate hands-on care rather than relying on one technique alone (Starzec-Proserpio et al., 2025).

5. Addressing Neural Mechanosensitivity

When examination suggests nerve involvement, incorporate carefully dosed neurodynamic or nerve-gliding exercises.

These exercises should not aggressively stretch an irritated nerve. The goal is to encourage comfortable neural movement while gradually reducing sensitivity.

6. Reducing Fear of Movement

Persistent pain can cause patients to avoid walking, exercising, bending, sitting, sexual activity, or other movements because they expect a flare.

A gradual rehabilitation program gives the nervous system repeated experiences of safe movement. Over time, this may improve activity tolerance and reduce protective muscle guarding.

Dr. Alexander Jimenez’s Integrative Clinical Perspective

Dr. Alexander Jimenez, DC, APRN, FNP-BC, emphasizes an integrated model that combines musculoskeletal examination with rehabilitation and collaboration across healthcare disciplines.

His clinical approach considers the regional relationship among the lumbar spine, sacroiliac joints, pelvic girdle, hips, abdominal wall, and lower extremities, rather than treating the pelvis in isolation.

Consistent with the clinical framework shared through ChiroMed and his professional platform, Dr. Jimenez’s approach may include gentle joint mobilization, myofascial treatment, neuromuscular retraining, neurodynamic exercises, progressive strengthening, movement education, and coordination with other medical professionals when pelvic pain has visceral, neurologic, metabolic, or systemic contributors (ChiroMed, 2026; Jimenez, n.d.).

This approach matters because ChiroMed describes its model as multidisciplinary, integrating chiropractic care with rehabilitation, nurse practitioner services, nutrition, and collaboration with other healthcare practitioners.

Clinically, an important principle is matching treatment intensity to the patient’s pain mechanism. Someone with predominantly mechanical restriction may tolerate manual care differently than a person experiencing severe central sensitization. For the latter, gentler movement, education, pacing, sleep support, and autonomic regulation may need to precede more intensive rehabilitation.

Chiropractic Care Works Best as Part of a Team

Current evidence favors interdisciplinary care because chronic pelvic pain commonly involves multiple overlapping systems.

Depending on the individual, the healthcare team may include:

  • Primary care
  • Gynecology
  • Urology or urogynecology
  • Gastroenterology
  • Pelvic floor physical therapy
  • Chiropractic and musculoskeletal rehabilitation
  • Physical medicine and rehabilitation
  • Pain medicine
  • Behavioral health
  • Nutrition or lifestyle support

Pelvic floor physical therapy is especially important for patients with hypertonic pelvic floor muscles, impaired relaxation, painful trigger points, dyspareunia, or coordination problems. Systematic review evidence suggests pelvic floor physical therapy can improve symptoms in selected patients with pelvic floor hypertonicity (van Reijn-Baggen et al., 2022).

Chiropractic care can complement this process by addressing external lumbopelvic, spinal, hip, and lower-extremity contributors.

Direct clinical evidence for chiropractic manipulation specifically as a treatment for chronic pelvic pain remains limited. An early small prospective study reported short-term improvement after chiropractic care, but its design was insufficient to establish efficacy (Hawk et al., 1997). For this reason, the strongest clinical rationale is to use chiropractic care selectively for identifiable musculoskeletal contributors within a broader evidence-informed rehabilitation program.

When Pelvic Pain Needs Medical Evaluation

Persistent pelvic pain should not automatically be assumed to be musculoskeletal.

Medical evaluation is especially important when pain is accompanied by:

  • Unexplained vaginal, rectal, or urinary bleeding
  • Fever or chills
  • Unexplained weight loss
  • A palpable abdominal or pelvic mass
  • Sudden severe pelvic or abdominal pain
  • Progressive weakness or significant neurologic changes
  • Changes in bowel or bladder control
  • Suspected pregnancy complications
  • New pelvic pain after menopause
  • Symptoms suggesting infection or significant systemic illness

Appropriate investigation can help identify endometriosis, infection, inflammatory disease, urinary disorders, gastrointestinal disease, vascular conditions, tumors, neurologic disorders, or other causes requiring medical treatment.

A Better Goal: Restore Function, Not Just Chase Pain

Successful management of chronic pelvic pain is not always measured by whether every symptom disappears immediately.

Meaningful progress can include:

  • Longer sitting tolerance
  • Easier walking
  • Improved hip movement
  • Fewer muscle spasms
  • Better sleep
  • Reduced pain flares
  • Greater exercise tolerance
  • Improved bowel or bladder comfort
  • More comfortable sexual activity
  • Increased confidence with movement
  • Returning to work, family activities, and recreation

The most effective plan identifies which tissues, nerves, movement patterns, and pain-processing mechanisms contribute to the individual’s symptoms and addresses them in the right sequence.

For patients with musculoskeletal involvement, chiropractic care may help improve spinal, pelvic, hip, and lower-extremity function. In contrast, pelvic floor therapy, medical care, exercise, pain education, and other interventions address the remaining contributors.

Chronic pelvic pain rarely exists in isolation. The pelvis connects the spine, hips, lower extremities, abdominal wall, pelvic floor, nervous system, and internal organs. Treatment should reflect that same interconnectedness.

References

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Carpal Tunnel Intervention Guide for Neuromusculoskeletal Care


Understand the benefits of neuromusculoskeletal care combined with carpal tunnel intervention in your journey towards improved hand health.

How Chiropractic Care Helps Resolve Carpal Tunnel Syndrome: A Multidisciplinary Perspective

Carpal tunnel syndrome (CTS) is the most common compressive neuropathy seen in outpatient practice. It arises when the median nerve is compressed as it passes through the rigid fibro-osseous carpal tunnel at the wrist. Written from the clinical perspective of Dr. Alexander Jimenez, DC, APRN, FNP-BC, in collaboration with Dr. Maria Guadalupe Cardenas, MD (Board Certified in Internal Medicine, NPI #1164426749, Texas MD License #J2933, Medical Director at Injury Medical Clinic PA / Mission Plaza Injury Medical Clinic in El Paso, Texas), this article emphasizes how targeted chiropractic care addresses both local wrist compression and proximal kinetic-chain contributors. Clinical observations shared through Dr. Jimenez’s professional network at ChiroMed and LinkedIn underscore that lasting relief often requires correcting cervical and upper-extremity dysfunction alongside wrist-level interventions (Jimenez, n.d.-a; Jimenez, n.d.-b).

How Carpal Tunnel Syndrome Affects the Wrist

The carpal tunnel is an inelastic conduit formed by the carpal bones (floor and walls) and the thick transverse carpal ligament, or flexor retinaculum (roof). This space contains nine flexor tendons and the median nerve. Repetitive wrist flexion/extension, sustained postures, trauma, or systemic inflammation elevate intracarpal pressure. When pressure exceeds normal intraneural capillary pressures (approximately 20–30 mmHg), microvascular stasis and ischemia develop. This disrupts the blood-nerve barrier, causes endoneurial edema, promotes fibrotic adhesions between the nerve and flexor synovium, and ultimately leads to focal demyelination and axonal impairment (Bickel, 2014; Schmid et al., 2020).

Clinically, patients report nocturnal paresthesias, numbness in the thumb, index, middle, and radial half of the ring finger, thenar weakness, and reduced grip strength. Dynamic ultrasound frequently shows proximal hypoechoic swelling of the median nerve, loss of fascicular architecture, flattening under the retinaculum (“notch sign”), and a cross-sectional area exceeding 10–12 mm² at the carpal tunnel inlet (Alhasan et al., 2022).

Muscles, Tendons, and Joints of the Hand and Wrist

The carpal tunnel contains the tendons of flexor digitorum superficialis (four), flexor digitorum profundus (four), and flexor pollicis longus (one), all enveloped by synovial sheaths that facilitate gliding. The median nerve supplies the thenar muscles (abductor pollicis brevis, opponens pollicis, and the superficial head of flexor pollicis brevis) and the lateral two lumbricals, plus sensory branches to the palm and digits 1–3½.

Extrinsic forearm muscles contributing to wrist and hand motion include the flexor carpi radialis, palmaris longus, flexor carpi ulnaris, and the deeper flexor digitorum group, along with extensors (extensor carpi radialis longus/brevis, extensor carpi ulnaris, extensor digitorum) that stabilize the wrist during grip. Intrinsic hand muscles (thenar, hypothenar, interossei, and lumbricals) fine-tune digital movement.

Key joints include the radiocarpal joint (distal radius and proximal carpal row: scaphoid, lunate, triquetrum), midcarpal joint, intercarpal joints, and carpometacarpal joints. The proximal carpal row forms the tunnel floor; subtle restrictions here can alter canal volume and increase tendon friction against the median nerve.

Comorbidities That Affect the Wrists, Hands, and Forearms

Systemic conditions frequently exacerbate or precipitate CTS by increasing tunnel contents or altering connective-tissue compliance:

  • Diabetes mellitus promotes microvascular ischemia and sorbitol accumulation in Schwann cells, elevating CTS risk nearly twofold (odds ratio approximately 1.75–1.90 after BMI adjustment) (Pourmemari & Shiri, 2016; recent meta-analyses).
  • Hypothyroidism induces myxedematous deposition of mucopolysaccharides within the perineurium and tendons, raising intracarpal pressure.
  • Rheumatoid arthritis and other inflammatory arthropathies cause flexor tenosynovitis and joint swelling; population studies show CTS prevalence more than double before and after RA onset (odds ratio 2.23 pre-diagnosis) (Myasoedova et al., 2025).
  • Obesity, pregnancy, and fluid-retention states increase soft-tissue volume.
  • Additional associations include acromegaly, amyloidosis, and cervical radiculopathy (double-crush phenomenon).

These comorbidities affect not only the wrist but also forearm soft tissues and proximal nerve segments, underscoring the need for whole-limb and systemic evaluation.

Carpal Tunnel Pain Treatment El Paso, TX Chiropractor- Video

How Chiropractic Care Helps

Chiropractic management of CTS extends far beyond the wrist. Under the double-crush concept, proximal compression at the cervical roots (C6–T1), thoracic outlet, or pronator teres renders the median nerve more vulnerable to distal entrapment (Upton & McComas, 1973). Clinical observations from Dr. Jimenez’s practice indicate that patients with combined cervical dysfunction and repetitive wrist loading respond best when both proximal and distal contributors are addressed (Jimenez, n.d.-a).

Evidence-informed chiropractic protocols include:

  • Gentle high-velocity, low-amplitude or instrument-assisted adjustments of the cervical and upper thoracic spine to restore segmental motion, reduce nerve-root irritability, and improve axoplasmic flow.
  • Mobilization of the carpal bones (scaphoid, lunate, capitate) and radiocarpal joint to increase transverse canal compliance and reduce retinacular tension.
  • Soft-tissue techniques (myofascial release, Active Release Technique, or instrument-assisted soft-tissue mobilization) targeting the flexor-pronator mass, pronator teres, pectoralis minor, and scalenes.
  • Median-nerve neurodynamic gliding and sliding exercises to restore longitudinal excursion once adhesions are reduced.
  • Scapulothoracic and postural re-education to unload the brachial plexus.

Randomized data show chiropractic care (spinal and extremity adjustments plus soft-tissue work) comparable to ibuprofen plus wrist supports for comfort and sensory recovery (Davis et al., 1998). Manual therapy trials further demonstrate improvements in pain, grip strength, and function (Fernández-de-las-Peñas et al., 2009; Talebi et al., 2020).

When indicated, ultrasound-guided hydrodissection (in-plane ulnar-to-radial approach) can mechanically separate the median nerve from adhesions while delivering anesthetic, low-dose corticosteroid, or regenerative agents. Dr. Jimenez notes that early post-injection relief creates a critical window for neuromuscular re-education; failing to capitalize on this window often leads to recurrence. Night-splint adherence strongly predicts sustained success when paired with habit coaching (Jimenez, n.d.-a).

Integrative Collaboration and Clinical Observations

At Injury Medical Clinic PA, Dr. Cardenas provides medical oversight for metabolic screening (HbA1c, thyroid function, inflammatory markers), while Dr. Jimenez directs biomechanical assessment, musculoskeletal ultrasound, chiropractic care, and rehabilitation. Functional-medicine strategies address advanced glycation end-products, micronutrient cofactors (pyridoxal-5-phosphate, alpha-lipoic acid, acetyl-L-carnitine), and specialized pro-resolving mediators.

A representative case observed in practice: a 48-year-old assembly-line worker with 14 months of bilateral nocturnal burning, median-nerve CSA of 14.8 mm², and subclinical C6 irritability. Combined ultrasound-guided hydrodissection, cervical and carpal adjustments, metabolic optimization, and neurodynamic training reduced CSA to 9.2 mm², eliminated nocturnal symptoms, and improved grip strength by 40% at eight weeks, avoiding surgery.

Practical Takeaways

Always evaluate the entire kinetic chain. Isolated wrist treatment frequently fails when cervical or thoracic-outlet contributors remain. Continuous real-time ultrasound needle-tip visualization prevents intraneural injection. Integrating chiropractic biomechanics with internal-medicine comorbidity management yields the most durable outcomes for occupational and personal-injury populations.

References

SEO tags: Carpal Tunnel Syndrome, Chiropractic Care for CTS, Median Nerve Compression, Double Crush Syndrome, Carpal Tunnel Wrist Anatomy, Hand and Wrist Muscles Tendons Joints, Comorbidities Diabetes Hypothyroidism Rheumatoid Arthritis, Kinetic Chain Rehabilitation, Ultrasound Guided Hydrodissection, Dr Alexander Jimenez, Injury Medical Clinic El Paso, Non-Surgical CTS Treatment, Neurodynamic Gliding, Cervical Spine Adjustments, Occupational Hand Pain

Chiropractic Care Solutions for Gluteus Medius Tendinopathy

Find solutions for gluteus medius tendinopathy with chiropractic care that enhances your comfort and mobility.

Abstract

Welcome to our educational series. I am Dr. Alex Jimenez, and I am honored to guide you through a comprehensive exploration of a very common yet often misunderstood condition: gluteus medius tendinopathy. This condition is a frequent cause of lateral hip pain, often misdiagnosed as trochanteric bursitis. In this post, we’ll take a detailed look at a real-world clinical scenario involving a 57-year-old gentleman who presented to our clinic with persistent left hip pain. We will use his case to deconstruct the diagnostic process, from precise anatomical palpation to confirming the pain source. Following this, we will delve deep into the anatomy and biomechanics of the gluteus medius muscle and its tendon, understanding its pivotal role in pelvic stability and gait. We will explore the pathophysiology of tendinopathy, moving beyond the outdated concept of “tendinitis” to embrace the modern understanding of tendinosis—a degenerative process characterized by cellular and matrix disorganization.
This discussion will be grounded in the latest scientific evidence, drawing on findings from leading researchers using modern, evidence-based methods to understand and treat musculoskeletal conditions. We will dissect the intricate cascade of cellular events that lead to tendon breakdown and explain why traditional anti-inflammatory treatments often fall short. A significant portion of this post outlines a sophisticated, multifaceted treatment strategy. We will detail the rationale and application of diagnostic and therapeutic injections, such as the one performed in our case study, explaining how they serve to both confirm a diagnosis and provide immediate, albeit temporary, relief. More importantly, we will transition to the core of our integrative treatment philosophy. I will explain how our unique practice model at Injury Medical Clinic PA in El Paso, Texas, combines expertise from multiple disciplines to foster true healing.
I am privileged to work alongside Dr. Maria Guadalupe Cardenas, MD, a board-certified internist with over four decades of experience, who serves as our Medical Director and Collaborative Physician. Our multidisciplinary setup allows seamless integration of the chiropractic care I provide under Dr. Cardenas’s medical oversight. We will explore how integrative chiropractic care plays a crucial role in addressing the biomechanical dysfunctions that underpin conditions like gluteus medius tendinopathy. We will cover specific chiropractic adjustments, soft tissue mobilization techniques, and functional rehabilitation protocols designed to restore proper joint mechanics, alleviate muscular imbalances, and retrain movement patterns. We will also explore functional medicine principles, nutritional interventions that support tendon health, and advanced rehabilitation strategies that progressively load the tendon to stimulate regeneration and restore its load-bearing capacity. Our goal is to provide a definitive, easy-to-understand resource that explains the “what” and “why” of gluteus medius pain and illuminates a clear path to lasting recovery through an integrated, patient-centered approach.

A Clinical Encounter: Identifying the True Source of Hip Pain

On the morning of September 15, 2026, a 57-year-old gentleman walked into our clinic, discomfort etched on his face. He had been grappling with a persistent pain in his left hip for two months, a nagging ache that was beginning to impact his quality of life significantly. As a clinician, my first and most critical task is to listen—to understand the story the patient’s body is telling. His pain description was specific. He pointed not to the front of his hip, nor the groin, but to an area just behind and slightly above the prominent bone on the side of his hip. This bony landmark is the greater trochanter of the femur, a large, bony knob that serves as a crucial attachment site for several powerful hip muscles.
His location immediately steered my diagnostic thoughts away from common intra-articular hip problems like osteoarthritis and toward the soft tissues surrounding the joint—the muscles, tendons, and bursae. This region is often referred to collectively as the “lateral hip,” and pain here is frequently given the blanket diagnosis of “trochanteric bursitis.” However, decades of clinical experience and a wealth of modern research have taught us that this label is often inaccurate. In many cases, the true culprit isn’t an inflamed bursa but a distressed tendon.

The Power of Precise Palpation

To confirm my suspicions, I began the physical examination. The goal was to replicate his exact pain with precise, targeted pressure. This is a fundamental diagnostic technique. If I can reproduce the patient’s specific “concordant sign”—the very pain that brought them to the clinic—with a specific maneuver or palpation, I can be much more confident in my diagnosis.
I had him lie on his side and began palpating the area around the greater trochanter. I started by gently pressing on the trochanter itself. He reported no significant pain there. Then I moved my fingers slightly posterior and superior, as he described.
“Any pain right there?” I asked, applying firm, focused pressure.
“Some,” he replied hesitantly; it wasn’t quite it.
I adjusted my position slightly, moving a little further down, probing the tissue. “How about here?”
“Right there,” he said, his body tensing. “Right in there.”
The critical question followed: “Does that exactly replicate the pain that you’re having today?”
“Slowly, yes,” he confirmed. “Yes.”
This was our eureka moment. We had found it—the epicenter of his discomfort. The area I was pressing corresponded perfectly with the gluteus medius tendon’s insertion point. This is not the large, fleshy part of the buttock muscle (that’s primarily the gluteus maximus), but a smaller, fan-shaped muscle located on the outer surface of the pelvis, whose tendon wraps around to attach to the greater trochanter. This muscle is a powerhouse of hip stability, and when its tendon becomes pathological, it can be a significant source of pain.
Having located the precise spot, I took out a surgical marker and drew a small “X” on his skin. This mark would serve as our target. We had a strong clinical diagnosis: gluteus medius tendinopathy. The next step was to confirm this diagnosis while also providing immediate relief. The plan was to perform a diagnostic and therapeutic injection into the gluteus medius tendon insertion.
The logic behind this procedure is twofold:
Diagnostic Confirmation: By injecting a local anesthetic (a numbing agent) directly into the suspected source of pain, we can test our hypothesis. If the pain is significantly reduced or eliminated after the injection, it strongly confirms that the injected structure was indeed the primary pain generator.
Therapeutic Benefit: The injection often includes a corticosteroid, a potent anti-inflammatory medication. While we now understand that tendinopathy is more degenerative than inflammatory, a targeted steroid can calm localized chemical irritation and reduce inflammatory cell activity that contributes to the pain cycle, providing a window of relief. This pain-free window is not the cure itself, but it is incredibly valuable. It breaks the pain cycle, lets the patient do rehabilitative exercises without severe discomfort, and provides the psychological boost of feeling better.
We would inject a combination of a local anesthetic and a small amount of corticosteroid. My goal was not to bathe the entire area in fluid, but to be precise. I explained to the patient, “I’ll fan that out a little bit when I get in there. Because the gluteus medius is a fairly broad tendon that comes down and inserts on the trochanter.” The idea is to deliver the medication across the breadth of the tendon insertion where the pathology lies. The needle would be aimed directly at the “X” I had marked.

The Injection Procedure: A Step-by-Step Explanation

With the location identified and the plan in place, we proceeded with the injection. Patient safety and comfort are paramount. The first step is meticulous skin preparation to minimize infection risk.
Aseptic Technique: I began by cleansing the area thoroughly with alcohol swabs. Next, I used several passes of povidone-iodine, a powerful antiseptic that effectively kills bacteria, viruses, and fungi on the skin. We allowed it to air-dry to ensure maximum efficacy.
Topical Anesthesia: To make the initial needle entry as comfortable as possible, I used a vapocoolant spray. I told the patient, “I’m going to give you a free spray of this area.” This spray, often ethyl chloride, evaporates rapidly on the skin, creating an intense cold sensation that temporarily numbs superficial nerve endings. “Right, is that cold?” I asked. “Yeah, I bet,” I said. This simple step can significantly reduce the anxiety and discomfort associated with the needle prick.
The Injection: With the area prepped and numbed, the procedure began. I took the syringe with a fine-gauge needle and aimed for our target. The key to a successful tendon injection is feeling the different tissue layers as the needle advances. It passes through the skin and subcutaneous fat, then enters the muscle or tendon. A skilled practitioner can feel the change in resistance.
“Okay. Now I feel it enter the muscle, the tendon, right there,” I noted as the needle advanced. I explained a technique I often teach: “If you just slide down with your fingers along the sides of the syringe, right when it starts to slip, that’s where you know you’ve got increased resistance.” The dense, fibrous tissue of a tendon offers more resistance than the softer muscle or fat around it. This tactile feedback is crucial for accurate placement.
“So I believe I’m there,” I stated, confident in my position. Next, I confirmed with the patient. I administered a very small amount of the anesthetic. “Let me give you a little injection there. Okay. Does that actually feel like the pain that you have?”
“Yes,” he confirmed.
This is another critical diagnostic clue. Injecting a small amount of fluid into a pathological, sensitive structure often momentarily reproduces the patient’s familiar pain before the anesthetic takes effect. It’s a sign that the needle is in the right neighborhood.
With our position confirmed, I administered the medication using a fanning technique to distribute it across the tendon insertion. “Okay. I’m going to fan it just a little bit. Okay. Give you a little bit right here.” I repositioned the needle slightly without withdrawing it from the skin, allowing me to treat a wider area of the tendon. “Let me do it one more time, and advance right there. Injection is in.”
The entire process took only a few seconds. “Right, I’m out. The needle is out,” I announced, promptly and safely disposing of the needle.

Immediate Post-Procedure Assessment

The procedure itself was complete, but the assessment was not. I immediately began gently massaging the area. “Now, let me massage the area here. So, want to massage that in?” This helps disperse the medication within the tissues and can also alleviate some of the immediate post-injection soreness.
I acknowledged his experience during the procedure. “You had quite a bit of discomfort during that procedure,” I said, validating his experience. It’s important to be honest; even with careful technique, injecting into an already painful area can be uncomfortable.
Now came the most important part of the assessment—the re-test. I returned to the same spot I had palpated before the injection. “Okay. Does this hurt? What I’m doing right now.”
“Just a little,” he replied.
This was promising. I then pressed over the bony part of the hip, the greater trochanter itself, which hadn’t been painful before. “Let me press over the outside part of the hip bone.” “That’s okay,” he confirmed. “Yep.”
I returned to the primary spot, the gluteus medius insertion. “How about here?”
“Just a little tender,” he said.
This was the key question: “Is it less than it was earlier?”
“Yes, it was,” he confirmed without hesitation.
“Okay. All right. So that’s a good sign,” I explained. “That means that the numbing medicine is in the right spot for that, so I’m encouraged by that.” The significant reduction in his palpation tenderness within minutes of the injection strongly confirmed our diagnosis. We had correctly identified the gluteus medius tendon as the source of his two-month-long ordeal.
I finished by cleaning the area one last time and applying a simple adhesive bandage. “Let me just go ahead and put a Band-Aid on it, and then we’re done.”
This clinical encounter is a perfect entry point for a deeper discussion. We have identified the “what” and the “where.” Now, we must explore the “why.” Why did his gluteus medius tendon become painful? What is happening at a cellular level within that tendon?

And most importantly, what does the journey to long-term recovery look like? The injection was just the first step. The real work, healing and rehabilitation, was about to begin.

The Architect of Stability: Understanding the Gluteus Medius

To truly grasp why a patient like our 57-year-old gentleman develops debilitating hip pain, we must first appreciate the elegant design and crucial function of the muscle in question: the gluteus medius. This muscle is one of the body’s unsung heroes. While its larger and more famous sibling, the gluteus maximus, gets all the attention for its role in powerful hip extension (think climbing stairs or sprinting), the gluteus medius works tirelessly in the background, providing the stability that makes fluid, efficient movement possible.

Anatomy of the Gluteal Region

The gluteal region is comprised of three primary muscles:
Gluteus Maximus: The largest and most superficial of the three, forming the bulk of the buttocks. Its primary role is powerful hip extension and external rotation.
Gluteus Medius: A fan-shaped muscle that lies underneath the gluteus maximus on the outer surface of the hip.
Gluteus Minimus: The smallest of the three, lying deep to the gluteus medius.
Our focus is on the gluteus medius. It originates from the outer surface of the ilium (the large, wing-like bone of the pelvis) between bony landmarks called the posterior and anterior gluteal lines. From this broad origin, its fibers converge downward to form a thick, powerful tendon. This tendon travels to the side of the hip and inserts on the posterosuperior aspect of the greater trochanter of the femur—precisely where our patient experienced maximal tenderness.
The gluteus minimus has a similar function but is situated deeper. It also originates on the ilium and inserts on the anterior aspect of the greater trochanter. Because of their close anatomical and functional relationship, the gluteus medius and minimus are often referred to as the “rotator cuff of the hip,” drawing a parallel to the group of muscles that stabilize the shoulder joint.

The Biomechanical Powerhouse: Function of the Gluteus Medius

The primary function of the gluteus medius is hip abduction, lifting the leg out to the side. If you are standing and lift your right leg straight out to your right side, your right gluteus medius is the prime mover. However, this isn’t the muscle’s most important role in daily life.
Its most critical function is stabilizing the pelvis during single-leg stance, which happens with every step we take. Let’s break this down:
The Gait Cycle: When you walk, at some point your entire body weight is supported by one leg. This is known as the stance phase of gait.
Pelvic Stability: Imagine you are standing on your left leg. Gravity and your body weight pull the right side of your pelvis downward. If this happens, your pelvis drops on the unsupported side, leading to a lurching, inefficient gait known as a Trendelenburg gait.
The Role of the Gluteus Medius: To prevent this pelvic drop, the gluteus medius on the stance leg (the left leg in this example) must contract powerfully. This isometric contraction acts like a strong cable, pulling the stance-side pelvis downward and holding the opposite side level.
This action is crucial for smooth, efficient, pain-free walking and running. The gluteus medius works in concert with other core and hip muscles, like the quadratus lumborum on the opposite side, to maintain a stable “core cylinder” during movement.

What Happens When the Gluteus Medius is Weak or Injured?

When the gluteus medius is weak, inhibited by pain, or has a compromised tendon (as in tendinopathy), this critical stabilizing function breaks down. This can lead to a cascade of biomechanical problems, not just at the hip but throughout the kinetic chain.
Trendelenburg Sign: Clinically, we can test for gluteus medius weakness with the Trendelenburg test. The patient stands on one leg. A positive sign occurs if the pelvis on the non-stance side drops, indicating weakness in the stance-leg gluteus medius. Often, to compensate, the person will lurch their upper body over the stance leg to maintain balance. This is the compensated Trendelenburg gait.
Increased Joint Stress: This altered gait pattern is not just inefficient; it’s damaging. The failure to control pelvic motion leads to increased stress on multiple joints:
The Hip Joint: The femoral head may not sit optimally within the acetabulum (the hip socket), leading to abnormal wear and tear. More relevant to our case, the altered mechanics can place excessive compressive and tensile loads on the gluteus medius and minimus tendons as they wrap around the greater trochanter.
The Lumbar Spine: Compensatory side-bending or “hip-hiking” can compress the facet joints in the lower back, contributing to or exacerbating low back pain. It’s incredibly common for patients with gluteus medius tendinopathy to also complain of concurrent low back pain.
The Knee: Poor pelvic control often results in the femur adducting and internally rotating excessively (the knee collapsing inward). This condition, known as dynamic knee valgus, places significant stress on the ligaments of the knee (like the ACL) and can lead to patellofemoral pain syndrome (runner’s knee) and iliotibial (IT) band syndrome.
The Foot and Ankle: The collapse of the kinetic chain can continue down to the foot, leading to overpronation and conditions like plantar fasciitis or Achilles tendinopathy.
Understanding these biomechanical connections is central to our integrative approach. Our patient’s hip pain wasn’t just a localized tendon problem. It was a symptom of a broader pattern of movement dysfunction. A simple tendon injection provides temporary relief, but it doesn’t address the underlying cause. True, lasting recovery requires identifying and correcting the biomechanical faults that overloaded the tendon in the first place. This is where comprehensive rehabilitation, including chiropractic care to restore joint mechanics, becomes essential.

Beyond Inflammation: The Modern Understanding of Tendinopathy

For many years, people almost universally labeled painful tendon conditions with the suffix “-itis.” We had “tendinitis,” “bursitis,” and “fasciitis.” The “-itis” suffix implies that inflammation is the primary pathological process. Consequently, the primary treatment approach focused on anti-inflammatory strategies: ice, rest, and anti-inflammatory medications like NSAIDs (ibuprofen, naproxen) or corticosteroid injections.
However, over the past two to three decades, our understanding of chronic tendon pain has shifted. This shift was driven by researchers who began examining pathological tendon tissue under a microscope. What they found was surprising and has revolutionized how we approach these conditions.

The Seminal Work of Khan and Cook

Pioneering researchers like Karim Khan, Jill Cook, and their colleagues drove this change. Through numerous studies involving biopsies of painful tendons (Achilles, patellar, rotator cuff, and lateral elbow), they consistently found a distinct lack of inflammatory cells (macrophages, lymphocytes, neutrophils), the hallmark of an “-itis” condition (Khan et al., 1999).
Instead of inflammation, they found failed healing and degeneration. They proposed the term tendinosis to describe the underlying pathology more accurately. This distinction is not merely academic; it has profound implications for treatment. The term tendinopathy is now widely used as a broader clinical descriptor for painful, dysfunctional tendons, encompassing the underlying degenerative process of tendinosis.

What Does Tendinosis Look Like? The Histopathological Findings

When a pathologist examines a healthy tendon under a microscope, they see a beautiful, highly organized structure. It consists of:
Type I Collagen Fibers: These are strong, thick protein fibers that are densely packed and aligned parallel to the direction of force. This parallel arrangement gives the tendon its incredible tensile strength.
Tenocytes: These are the specialized fibroblast cells of the tendon. They are elongated and lie between the collagen fibers, responsible for maintaining and repairing the tendon matrix.
Minimal Ground Substance: There is very little “filler” material between the collagen fibers.
Limited Vascularity: Healthy tendons have a relatively poor blood supply, which is why they heal slowly.
In contrast, a biopsy of a tendon with tendinosis reveals a picture of chaos and disorganization:
Collagen Disarray: The neat, parallel alignment of Type I collagen is lost. The fibers are thinner, fragmented, and disorganized. There is also an increase in the weaker Type III collagen, which is more characteristic of early wound healing and scar tissue, not strong, mature tendon tissue.
Cellular Changes: Tenocyte number increases (hypercellularity), but their shape changes. They become rounded and more “active,” but this activity is dysfunctional. Instead of producing healthy Type I collagen, they produce inferior matrix components.
Neovascularization and Neoinnervation: A hallmark of tendinosis is the ingrowth of new, disorganized blood vessels (neovascularization) and accompanying nerve fibers (neoinnervation) (Alfredson et al., 1999). This is a crucial finding. While more blood supply might seem good, these new vessels are leaky and poorly formed. Critically, the new nerve fibers that travel with them are often nociceptive (pain-sensing). Many researchers now believe this neurovascular ingrowth is a primary driver of tendinopathy pain. These nerves secrete chemicals like substance P and calcitonin gene-related peptide (CGRP) that can further contribute to a disorganized healing response.
Increased Ground Substance: The space between the collagen fibers fills with more water-loving molecules called glycosaminoglycans. This leads to tendon thickening, but it is dysfunctional, not a sign of strength.
In summary, tendinopathy is not an inflammatory condition; it is a degenerative, non-inflammatory tendinosis characterized by a failed healing response. The tendon is stuck in a cycle of producing poor-quality, disorganized tissue instead of regenerating its strong, organized structure.

The Load-Continuum Model of Tendinopathy

To explain how a tendon moves into this pathological state, Professor Jill Cook and her colleague Craig Purdam developed the influential Tendon Continuum Model (Cook & Purdam, 2009). This model proposes that tendinopathy exists on a spectrum and that the tendon’s response depends on the type and magnitude of the load it experiences.
The model describes three main stages:
Reactive Tendinopathy: This is the acute response to a rapid increase in load or a period of unaccustomed activity. For example, a runner who suddenly doubles their mileage or a person who spends a weekend doing heavy gardening. In this stage, cells proliferate briefly and the ground substance increases, causing the tendon to swell. This protective response increases the tendon’s cross-sectional area to diffuse the load. At this stage, the tendon structure is largely intact, and the condition is highly reversible if the load is appropriately managed (i.e., reduced). This may be the only stage in which a small, transient inflammatory component is present.
Tendon Dysrepair (Failed Healing): If the tendon is not unloaded and remains exposed to excessive load, it progresses to this stage. This corresponds to the early histopathological changes of tendinosis. The tendon’s matrix begins to break down. We see greater collagen disorganization, an increase in Type III collagen, and the beginnings of neovascularization. The tendon attempts to heal, but the process becomes disorganized and ineffective. The potential for reversibility begins to decrease, but with careful load management and targeted interventions, you can still stimulate a healthier healing response.
Degenerative Tendinopathy: This is the final stage, often seen in older individuals or those with a long history of chronic tendon pain (like our 57-year-old patient). Here, widespread cell death (apoptosis), extensive matrix disorganization, and significant neovascularization occur. The collagen structure is severely compromised. At this stage, the changes are largely irreversible. The tendon has lost much of its structural integrity and is at an increased risk of partial or full-thickness tearing. Even in a degenerative tendon, some areas may remain healthier and can be targeted with rehabilitation to improve overall function.
This continuum model is clinically useful. It helps us understand that the treatment for a young athlete with acute reactive tendinopathy should be very different from the treatment for an older individual with chronic, degenerative tendinopathy. The former may need relative rest and activity modification. At the same time, the latter requires a long-term, structured rehabilitation program designed to improve the load-bearing capacity of the remaining healthy tendon tissue.
This modern understanding of tendinopathy as a load-induced, degenerative condition, rather than an inflammatory one, underpins our entire integrative treatment approach. It explains why simply resting or taking anti-inflammatory pills often fails in the long run. The solution isn’t to eliminate inflammation that isn’t there, but to address two key factors: dysfunctional tendon tissue and the excessive load that caused the problem in the first place.

The Role of Compressive Load in Gluteus Medius Tendinopathy

While we’ve established that excessive load causes tendinopathy, not all loads are created equal. Leading researchers, particularly Dr. Jill Cook’s group, have highlighted the particularly damaging role of compressive load on tendons, especially at their insertion points on bone (Cook & Purdam, 2012).
A tendon is brilliantly designed to handle tensile (pulling) forces. That’s its primary job. However, when a tendon also experiences compression, especially where it wraps around a bony prominence, it can trigger pathological changes.
Think of the gluteus medius and minimus tendons. They wrap over the bony prominence of the greater trochanter. In certain positions, these tendons can get squashed between the greater trochanter and the thick, fibrous iliotibial (IT) band that runs over them.

Positions and Activities that Increase Compression

Certain postures and movements dramatically increase this compressive load on the gluteus medius and minimus tendons:
Hip Adduction: Any position where the thigh moves across the midline of the body (adduction) will increase the tension in the IT band and press it firmly down onto the gluteal tendons and the greater trochanter.
Sleeping on your side: Lying on the unaffected side with the painful hip on top often causes the top leg to fall into an adducted position, compressing the tendons for hours. Lying directly on the painful hip also creates direct compression. This is why night pain is a classic symptom of gluteus medius tendinopathy.
Crossing your legs: Sitting with legs crossed pulls the hip into adduction and flexion, a prime position for compression.
“Hanging“ on one hip: Shifting all your weight to one side and letting the other side of the pelvis drop forces the stance hip into adduction and compresses the tendons.
Deep Hip Flexion: Positions like deep squats or sitting in low chairs can also increase the compressive forces around the hip.
Running on a cambered surface: Running on the side of a road that slopes down forces the uphill leg’s hip into greater adduction to keep the foot level, increasing compressive load.
Stretching the IT Band: Ironically, a common prescription for lateral hip pain has been to stretch the IT band by pulling the leg across the body. We now understand that this stretch is one of the most provocative things you can do for gluteus medius tendinopathy, as it directly compresses the painful tendons over the bone. We now actively tell patients to avoid this stretch.

The Cellular Response to Compression

Research has shown that tenocytes (tendon cells) respond differently to compressive load than to tensile load. When subjected to compression, they can undergo a process called chondroid metaplasia. They begin to behave more like cartilage cells (chondrocytes), producing molecules like aggrecan that resist compression in cartilage but harm tendon health. This changes the tendon matrix, making it less able to handle tensile loads and more prone to the degenerative changes of tendinosis (Verdonk et al., 2005).
The combination of excessive tensile load (from weak or fatigued muscles) and provocative compressive load (from poor movement patterns or postures) creates a perfect storm for the development of gluteus medius tendinopathy.
This understanding has direct and practical implications for treatment:
Patient Education is Key: The first step in management is to teach the patient to avoid these compressive positions. We provide specific advice on modifying sleeping posture (e.g., placing a pillow between the knees to keep the hips in neutral alignment), sitting posture (e.g., sitting with feet flat on the floor and knees slightly apart), and standing posture.
Rehabilitation Must Focus on Avoiding Compression: Early-stage rehabilitation exercises must be performed in positions that minimize hip adduction. For example, instead of side-lying leg lifts (which can involve some adduction at the bottom of the movement), we might start with isometric abduction exercises in a standing or bridging position.
Re-evaluate Common “Stretches“: We must eliminate any stretching protocols that create compression. The focus shifts from “stretching” the painful area to progressively loading it in a way that stimulates healthy adaptation.
By identifying and mitigating compressive loads, we remove one of the primary drivers of the pathology. This “unloads” the tendon, giving it a chance to move out of the reactive or dysrepair stage and creating an environment where targeted strengthening can be effective. This nuanced understanding of load is a cornerstone of modern, evidence-based tendon rehabilitation.

The Integrated Treatment Blueprint at Injury Medical Clinic

Our encounter with the 57-year-old gentleman with hip pain perfectly illustrates the philosophy that guides our practice at Injury Medical Clinic. The injection he received was a crucial first step, but it was far from the entire treatment. It was an entry point into a comprehensive, multifaceted program designed to produce lasting results. Our approach is built on integrative care, a collaborative model that brings together the strengths of different disciplines to address every aspect of a patient’s condition.
At the heart of our practice is the dynamic collaboration between me, Dr. Alex Jimenez, a Doctor of Chiropractic with advanced credentials in nursing and functional medicine, and our esteemed Medical Director, Dr. Maria Guadalupe Cardenas, MD. Dr. Cardenas is a Board-Certified Internist with over 40 years of clinical experience. Her extensive medical knowledge and diagnostic acumen provide the essential medical oversight for our practice. This multidisciplinary setup, where an MD provides medical direction alongside a chiropractor and other allied health professionals, is common in cutting-edge integrative and injury care clinics. It lets us offer a spectrum of care that a single-discipline clinic can’t match.
Our treatment blueprint for a condition like gluteus medius tendinopathy is not a one-size-fits-all protocol. It’s a personalized journey that unfolds in phases, addressing the “why” behind the pain, not just the “what.”

Phase 1: Pain and Load Management – “Calm Things Down”

The immediate goal after diagnosis is to reduce the patient’s pain and, critically, modify the loads perpetuating the problem. This is where the injection comes in.
The Diagnostic/Therapeutic Injection (Medical Oversight by Dr. Cardenas): As performed in our case, an injection of local anesthetic and corticosteroid helps confirm the diagnosis and provides a powerful, albeit temporary, pain reduction. We make the decision to use a corticosteroid carefully. While we know tendinopathy is not primarily inflammatory, a targeted steroid can quiet the chemical irritation and nociceptive activity within the tendon, breaking the pain cycle. This creates a valuable “window of opportunity” for us to begin the next phase of treatment. This procedure falls under the medical scope of practice and is performed with the oversight of Dr. Cardenas.
Pain Education: This is perhaps the most critical part of Phase 1. We spend time educating the patient about their condition. We explain the concept of tendinosis, the difference between helpful and harmful loads, and the specific role of compression.
Activity Modification: We provide a “do” and “don’t” list based on the principles of avoiding compressive load.
Don’t: Cross legs, stand “hanging” on one hip, sleep without a pillow between the knees, perform aggressive IT band stretches.
Do: Sit with knees apart, get up from a chair by pushing up evenly with both legs, consciously engage gluteal muscles during stair climbing, sleep with a pillow between the knees.
Isometric Loading: Even in this early phase, we introduce gentle, pain-free exercises. The best evidence now supports using heavy, long-duration isometric contractions for pain relief in tendinopathy (Rio et al., 2015). An isometric contraction is where the muscle produces force without changing length. For the gluteus medius, this could be:
Standing isometric hip abduction: The patient stands next to a wall with the affected hip away from it. They place a small ball or rolled-up towel between their hip and the wall and gently push their hip into the wall, holding the contraction for 30-45 seconds. This activates the gluteus medius without moving the hip joint through a range of motion.
Why it works: This type of loading is thought to provide a powerful analgesic effect (pain relief) by altering the way the brain processes pain signals from the tendon. It does this without placing compressive or excessive tensile stress on the tendon itself. We typically prescribe multiple repetitions of these long-hold isometrics throughout the day.

Phase 2: Restoring Movement and Building a Foundation (Integrative Chiropractic and Rehabilitation)

Once the initial pain is under control, we transition to the core of our rehabilitative strategy. This is where my role as a chiropractor becomes central. Tendon pain is a symptom of a broader biomechanical dysfunction. My job is to identify and correct the underlying movement faults.
Chiropractic Assessment and Adjustment: The body is a kinetic chain. A dysfunctional gluteus medius is often associated with restrictions and imbalances elsewhere. I perform a thorough biomechanical assessment of the entire chain:
Lumbar Spine and Sacroiliac (SI) Joints: Restriction in the SI joints or lumbar facet joints can alter pelvic mechanics and inhibit proper gluteal muscle firing through a process called arthrogenic muscle inhibition. A joint that isn’t moving properly sends inhibitory signals to the muscles that cross it. Using specific, gentle chiropractic adjustments, I work to restore normal motion to these joints. This is not just “cracking the back”; it’s a precise neurological input designed to improve joint mobility and “re-awaken” the surrounding musculature.
Hip Joint: I assess the hip joint’s mobility. For example, a lack of internal rotation can force compensatory movements that overload the gluteal tendons. Gentle hip mobilization techniques can help restore this lost motion.
Thoracic Spine: A stiff, flexed upper back can shift a person’s center of gravity, forcing the pelvis and hips to compensate and overload. Thoracic spine adjustments and mobility drills are often a key part of the program.
Soft Tissue Mobilization: Muscles around the hip often develop trigger points and fascial restrictions in response to injury. I use techniques like myofascial release or instrument-assisted soft tissue mobilization (IASTM) on surrounding tight muscles like the tensor fasciae latae (TFL), quadratus lumborum, and hip flexors. Crucially, we avoid aggressive, direct work on the painful tendon insertion itself in this phase, as this can be provocative. The goal is to release the tension in the “neighborhood” to improve overall movement quality.
Early Strengthening and Motor Control: This phase focuses on re-educating the gluteus medius to fire correctly and building a foundation of strength. The exercises are still carefully chosen to avoid compression.
Clamshells (with proper form): The classic “clam” exercise can be useful, but only if done correctly. The patient must be cued to roll their torso slightly forward to ensure the gluteus medius is targeted, not the TFL, and the movement should be small and controlled.
Bridging Variations: Glute bridges are excellent for activating the entire posterior chain. We can progress from a simple two-leg bridge to a bridge with a band around the knees (to cue abduction) and eventually to single-leg bridges.
Quadruped Hip Extension: On all fours, extend one leg back, focusing on squeezing the gluteal muscles without arching the lower back.

Phase 3: Progressive Loading for Tendon Adaptation – “Build It Back Up”

This is the most critical phase for long-term recovery. Based on the principle of mechanotransduction—the process by which cells convert mechanical stimuli into a chemical response—we know that to strengthen a tendon, we must load it. The key is to load it progressively and appropriately. The goal is to stimulate tenocytes to produce healthy, strong Type I collagen and remodel the disorganized matrix.
Isotonic Strengthening: We now move from isometrics (static holds) to isotonics (movement through a range of motion). The exercises become more challenging and functional.
Standing Banded Hip Abduction: Place a resistance band around the ankles, and have the patient perform slow, controlled leg lifts to the side.
Side-Stepping with Bands: “Monster walks” or “crab walks” with a band around the knees or ankles are fantastic for training the gluteus medius in its role as a stabilizer during dynamic movement.
Single-Leg Stance and Balance Drills: Simply practicing standing on one leg challenges the gluteus medius in its primary stabilizing role. We can progress this by standing on an unstable surface or closing the eyes.
Heavy Slow Resistance (HSR) Training: A growing body of evidence supports using HSR for tendinopathy (Beyer et al., 2015). This involves using heavy weights and performing exercises very slowly (e.g., a 3-second concentric/lifting phase and a 3-second eccentric/lowering phase). Exercises might include:
Weighted Hip Abduction Machine
Leg Press (with emphasis on single-leg work)
Weighted Squats and Lunges (once form is perfected)
Why HSR works: The combination of heavy load and slow speed appears to strongly stimulate collagen synthesis and matrix remodeling, while the slow speed minimizes injury risk by keeping the tendon under constant, controlled tension.
Eccentric Loading: Eccentric exercise (the lengthening phase of a contraction) has also been a mainstay of tendon rehab. For the gluteus medius, you can incorporate this into exercises like the single-leg squat, focusing on a very slow, controlled descent.

Phase 4: Return to Function and Sport – “Test It”

The final phase gradually reintroduces the specific activities the patient wants to return to, whether that’s running, playing tennis, or simply walking without pain.
Plyometrics and Energy Storage Loading: For athletes, we need to retrain the tendon’s ability to store and release energy, which it uses during activities like running and jumping. This involves introducing exercises like hopping, skipping, and jumping, starting with low intensity and gradually increasing. For example, a runner might start with a walk/run program while carefully monitoring the tendon’s response.
Sport-Specific Drills: We work with the patient to break down the movements of their sport or desired activity and create drills that mimic those demands in a controlled way.
Throughout this entire process, we monitor the patient’s pain. A key rule in tendon rehab is the “24-hour pain rule.” Pain during the exercise is acceptable if it’s mild (e.g., < 3/10) and does not increase after the session or the next morning. If pain is worse the next day, the load was too much, and we need to scale back.

The Functional Medicine and Nutrition Component

As a Functional Medicine (IFMCP)- certified practitioner, I also look beyond biomechanics. Systemic factors influence tendon health.
Nutritional Support: We provide guidance on an anti-inflammatory diet rich in whole foods, antioxidants, and quality protein. Specific nutrients are crucial for collagen synthesis:
Vitamin C: An essential cofactor in the cross-linking of collagen fibers.
Collagen/Gelatin Peptides: Supplementing with hydrolyzed collagen may provide the body with the specific amino acid building blocks (glycine, proline, hydroxyproline) needed for tendon repair (Shaw et al., 2017). Taking this 30-60 minutes before a rehab session may improve delivery to the targeted tissue.
Other Minerals: Zinc and copper also support enzymes involved in matrix production.
Addressing Systemic Inflammation: We screen for and address other sources of systemic inflammation that could be impairing the body’s sling capacity, such as poor gut health, metabolic dysfunction (e.g., insulin resistance), or nutrient deficiencies. For example, high blood sugar can lead to the formation of advanced glycation end-products (AGEs), which can stiffen collagen and impair tendon health.
This truly integrative model—combining medical diagnostics and interventions under Dr. CardCardenas’section, with targeted chiropractic care, advanced rehabilitation, and a functional medicine approach—is what allows us to move beyond temporary fixes. We are not just treating a painful hip; we are restoring a person’s movement, function, and quality of life from the ground up.

The Unique Contribution of Chiropractic Care in Tendinopathy Management

It’sIt’sortant to specifically highlight why chiropractic care is not just an adjunct but a central component of this integrated model for treating conditions like gluteus medius tendinopathy. The traditional view of chiropractic may be limited to spinal adjustments for back pain, but a modern, evidence-based chiropractor specializes in neuromusculoskeletal function. Our expertise lies in the intricate relationship between joints, muscles, and the nervous system.
For a condition rooted in biomechanical overload, this expertise is invaluable:
Restoring the Foundation of Movement: As mentioned, I assess and treat joint restrictions in the lumbar spine, sacroiliac joints, and hips. Think of these joints as a house’s foundation. If the foundation is crooked, the walls (muscles) will be under abnormal stress, and the windows (tendons) will start to crack. A physical therapist might focus on strengthening the muscles (the walls), but if the underlying joint dysfunction (the foundation) isn’isn’trected, the problem will likely recur. Chiropractic adjustments provide a specific, powerful input to restore motion to these foundational joints, creating the mechanical environment muscles and tendons need to function properly.
Neurological Reset: A chiropractic adjustment is more than just a mechanical “pus”” on”apushnt. It is a potent neurological stimulus. By stimulating mechanoreceptors (nerve endings that sense movement and pressure) in the joint capsule and surrounding tissues, an adjustment sends a barrage of information to the central nervous system. This can help to:
Down-regulate pain: The input from mechanoreceptors can inhibit the transmission of pain signals from nociceptors, a concept known as the “gate control theory of pain.”
Rest and Muscle Tone: It can break the cycle of arthrogenic muscle inhibition, essentially “rebooting” the connection between the joint and the muscles that control it, allowing for better activation of inhibited muscles like the gluteus medius.
Improve Proprioception: By restoring normal joint motion, we improve the body’s awareness of its position in space (proprioception), leading to better coordination and motor control.
Holistic Biomechanical Analysis: Chiropractors are trained to look at the body as an integrated whole. We don’t look at the painful hip. We analyze the patient’s posture, their gait, and the function of the entire kinetic chain, from the feet to the head. We might find that a patient’s foot pronation triggers a chain reaction of internal tibial and femoral rotation, leading to hip adduction that compresses the gluteal tendons. In such cases, the treatment plan might include not only hip-focused work but also foot adjustments and orthotic recommendations. This whole-body perspective is essential to identify and address the root cause of the overload.
Hands-On Soft Tissue Expertise: Beyond adjustments, chiropractors are proficient in a range of manual therapies. Techniques like myofascial release, trigger point therapy, and instrument-assisted soft tissue mobilization address the muscular imbalances and fascial restrictions that accompany tendinopathy. By releasing a tight tensor fasciae lata (TFL) or quadratus lumborum (QL), we can reduce the antagonistic forces pulling on the pelvis and allow the gluteus medius to work more effectively.
In our collaborative practice, we seamlessly weave this chiropractic expertise into the patient’s plan. Dr. Cardenas provides medical clearance and oversight, ensuring no underlying medical contraindications. I then apply my neuromusculoskeletal expertise to correct the biomechanical faults. I then implement a targeted rehabilitation program, often co-managed with physical therapists or athletic trainers on our team. The result is a synergistic approach in which each discipline contributes its unique strengths, leading to a more comprehensive and effective outcome than any single approach could achieve alone.

Conclusion: A New Paradigm for Hip Pain Recovery

Our journey began with a simple yet profound clinical moment: pinpointing the exact source of a 57-year-old gentleman’s sonic hip pain. That precise palpation and diagnostic injection opened the door to a deeper exploration of his condition. We moved from the “what”—a painful gluteus medius tendon—to the “why.” We unraveled the hip’s complex biomechanics, understanding the gluteus medius as a cornerstone of pelvic stability. We delved into the tendon’s cellular world, replacing the outdated notion of “- it’s” with the modern, evidence-based understanding of tendinosis as a degenerative condition of failed healing, often driven by a combination of tensile and, critically, compressive loads.
This new paradigm demands a new approach to treatment. It moves us away from passive, short-term fixes like prolonged rest and repeated anti-inflammatory interventions and toward an active, engaged, and integrated strategy. At Injury Medical Clinic, this strategy is our blueprint for success. It is a collaborative effort, spearheaded by the combined expertise of our Medical Director, Dr. Maria Guadalupe Cardenas, and our entire team of chiropractic, rehabilitation, and functional medicine practitioners.
Our approach is a phased journey tailored to the individual:
We begin by calming the system, using targeted interventions like a diagnostic injection to reduce pain and comprehensive education to empower the patient to remove the offending loads from their daily life.
We then rebuild the foundation. Through integrative chiropractic care, we address the underlying joint restrictions and biomechanical faults in the spine, pelvis, and hips that created the overload in the first place. We use manual therapies to restore muscle balance and introduce specific exercises to re-awaken and retrain the inhibited musculature.
Next, we stimulate adaptation. We apply the principles of mechanotransduction, using a carefully progressed program of heavy, slow resistance and functional strengthening to send a powerful healing signal to the tendon, encouraging it to remodel and rebuild stronger, more organized tissue.
Finally, we return to life. We guide the patient back to the activities they love safely and gradually, ensuring their body is resilient and prepared for the demands of sport and life.
A functional medicine perspective supports all of this by considering the whole person—their nutrition, systemic health, and unique physiology—to create an internal environment primed for healing.
The pain that brought our patient to the clinic was a signal. It signaled that a critical component of his movement system was failing under load. Our job wasn’t just to silence that signal, but to listen, understand its message, and respond with a comprehensive plan to restore the strength, integrity, and function of the entire system. This is the promise of modern, integrative care. It’s a journey from pain to performance, and we are honored to guide our patients every day.

References

Alfredson, H., Bjur, D., Thorsen, K., Lorentzon, R., & Sandstrom, P. (1999). High-power color Doppler sonography in the management of tendinosis. British Journal of Sports Medicine, 33(1), 41. https://bjsm.bmj.com/content/33/1/41.1
Beyer, R., Kongsgaard, M., Hougs Kjær, B., Øhlenschlæger, T., Kjær, M., & Magnusson, S. P. (2015). Heavy slow resistance versus eccentric training for patellar tendinopathy: a randomized controlled trial. The American Journal of Sports Medicine, 43(7), 1704–1711. https://doi.org/10.1177/0363546515584111
Cook, J. L., & Purdam, C. R. (2009). Is tendon pathology a continuum? A pathology model to explain the clinical presentation of load-induced tendinopathy. British Journal of Sports Medicine, 43(6), 409–416. https://doi.org/10.1136/bjsm.2008.051193
Cook, J. L., & Purdam, C. (2012). Is compressive load a factor in the development of tendinopathy? British Journal of Sports Medicine, 46(3), 163–168. https://doi.org/10.1136/bjsm.2010.081419
Khan, K. M., Cook, J. L., Bonar, F., Harcourt, P., & Astrom, M. (1999). Histopathology of common tendinopathies. Update and implications for clinical management. Sports Medicine, 27(6), 393–408. https://doi.org/10.2165/00007256-199927060-00004
Rio, E., Kidgell, D., Purdam, C., Gaida, J., Moseley, G. L., Pearce, A. J., & Cook, J. (2015). Isometric exercise induces analgesia and reduces inhibition in patellar tendinopathy. British Journal of Sports Medicine, 49(19), 1277–1283. https://doi.org/10.1136/bjsports-2014-094386
Shaw, G., Lee-Barthel, A., Ross, M. L., Wang, B., & Baar, K. (2017). Vitamin C–enriched gelatin supplementation before intermittent activity augments collagen synthesis. The American Journal of Clinical Nutrition, 105(1), 136–143. https://doi.org/10.3945/ajcn.116.138594
Verdonk, P. C. M., Demol, J., Almqvist, K. F., Veys, E. M., Verbruggen, G., & Verdonk, R. (2005). Implantation of viable meniscal allograft. Survivorship analysis and clinical outcome of 59 cases. The Journal of Bone and Joint Surgery. American Volume, 87(4), 715–724. https://doi.org/10.2106/JBJS.D.02508

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Chiropractic Rehabilitation Guide for Testosterone Health


Explore the connection between testosterone health combined with chiropractic rehabilitation and overall wellness for a healthier lifestyle.

What testosterone actually does

Testosterone is made mainly in the Leydig cells of the testes after luteinizing hormone (LH) arrives from the pituitary. Cholesterol moves into the mitochondria and is converted, step by step, into testosterone. Most of it travels bound to sex hormone-binding globulin (SHBG) or loosely to albumin. Only the free fraction readily enters cells and binds the androgen receptor.

In target tissues, 5-alpha-reductase converts testosterone to dihydrotestosterone (DHT), a stronger androgen in the skin, hair follicles, and prostate. Aromatase, especially in fat and liver, converts some testosterone to estradiol. Estradiol is not a waste product. Balanced estradiol supports bone, libido, and vascular function. Too much can feed back on the brain and lower LH.

When the signal is adequate, testosterone supports:

  • Muscle protein synthesis, satellite-cell activity, and recovery after loading.
  • Bone mineral density through effects on osteoblasts.
  • Red blood cell production, which is why you must monitor hematocrit during replacement.
  • Insulin sensitivity and a lower tendency to store visceral fat.
  • Nitric oxide signaling involved in erectile function.
  • Motivation, mood, and libido through brain androgen receptors.
  • Sperm production indirectly, because the entire hypothalamic-pituitary-gonadal (HPG) axis must stay intact. Exogenous testosterone can shut that axis down.

The Endocrine Society defines hypogonadism as symptoms or signs plus consistently low morning testosterone, confirmed on at least two separate mornings, not a single draw (Bhasin et al., 2018). Fatigue and low mood alone are not specific enough.

What comorbidities do to that system

Comorbidities rarely knock out one lab. They change the signal, the factory, or how the free hormone is delivered.

Obesity and insulin resistance raise aromatase activity in visceral fat. More testosterone is converted to estradiol, LH can fall, and free testosterone often drops even when total testosterone still looks mid-range. Inflammation does similar work. Interleukin-6 and tumor necrosis factor-alpha can upregulate aromatase and impair Leydig-cell steroidogenesis.

Sleep loss directly hits the nightly pulse. In healthy young men, one week of five-hour nights lowered daytime testosterone by about 10 to 15 percent (Leproult & Van Cauter, 2011). Untreated obstructive sleep apnea is a recognized cause of secondary hypogonadism.

Chronic pain is its own comorbidity. In a tertiary pain-clinic sample of men with long-standing noncancer pain, biochemical hypogonadism was common in both opioid users and nonusers, and it tracked with age and duration of pain (Daniel et al., 2012). Cortisol and testosterone inhibit each other along the stress and gonadal axes. High cortisol can suppress testicular production and increase aromatase activity. Pain also removes the behavior that protects testosterone: heavy resistance training becomes impossible, muscle is lost, fat rises, and the loop tightens.

Opioids suppress gonadotropin-releasing hormone and can cause opioid-induced androgen deficiency. Alcohol increases aromatase and disrupts sleep. Some antidepressants worsen sexual function. Endocrine-disrupting chemicals are a smaller, harder-to-measure contributor.

In the injury clinic, this pattern is familiar. A man after a crash or a lifting injury is deconditioned, sleeping poorly, sometimes on opioids, and carrying more visceral fat than he did a year earlier. The 370 ng/dL result is often the laboratory face of that whole picture.

Why 370 ng/dL at 45 is a clue, not a diagnosis

Many reference ranges still call 300 to 1,000 ng/dL “normal.” Guidelines generally set the lower limit at roughly 264 to 300 ng/dL and require symptoms plus a repeat morning test (Bhasin et al., 2018). A single 370 can be a healthy man’s normal day, a lab drawn too late, or functional deficiency if free testosterone is low because SHBG is high.

In older men in the Health in Men Study, midrange testosterone and DHT were associated with lower all-cause mortality than the lowest quartile. The highest quartile was not clearly better, and estradiol did not predict death (Yeap et al., 2014). That argues against both “ignore anything above 300” and “push everyone above 1,000.”

Free testosterone matters because it is the fraction that reaches the receptor. High SHBG from hyperthyroidism, aging, liver disease, or aggressive calorie cuts can leave free testosterone low while total testosterone looks acceptable. Low SHBG from obesity and insulin resistance can do the opposite. Read both numbers with LH, follicle-stimulating hormone (FSH), estradiol, and the symptom list.

Central versus peripheral hypogonadism

Central, or secondary, hypogonadism means the pituitary is not sending a strong enough signal. LH and FSH are low or inappropriately normal while testosterone is low. Common drivers are obesity, sleep apnea, opioids, high prolactin, illness, and severe stress.

Peripheral, or primary, hypogonadism means the testes are not responding. LH and FSH are high, and testosterone stays low. Causes include aging, Leydig-cell decline, trauma, varicocele, Klinefelter syndrome, chemotherapy, and heavy alcohol use.

That split decides the tool. Central cases often improve when sleep, weight, and the offending medication are fixed, and fertility-preserving options such as clomiphene can raise LH. Peripheral cases may need human chorionic gonadotropin (hCG), which mimics LH at the testis, or testosterone replacement if fertility is not a goal. Exogenous testosterone suppresses intratesticular testosterone and sperm production, so it is a poor first choice for a man who wants children (Bhasin et al., 2018).

How chiropractic care fits testosterone health

Chiropractic care does not replace testosterone, and testosterone does not fix a stuck joint. Dr. Jimenez’s ChiroMed observations make this distinction clear: hormone health and musculoskeletal health influence each other, but they are not the same problem (Jimenez, 2026a).

The pathway is indirect and practical.

Chronic spinal and joint pain is a steady nociceptive load. It raises sympathetic tone, fragments sleep, and keeps cortisol elevated. Adjustments and mobilization restore segmental motion and reduce that input so the patient can sleep and train. Research on spinal manipulation and hormones is early and mixed. A systematic review found low-quality evidence that manipulation can change cortisol and some inflammatory markers shortly after treatment, and it did not establish a reliable direct rise in testosterone (Kovanur Sampath et al., 2024). A thoracic-manipulation trial in men with Achilles tendinopathy reported a later rise in the testosterone-to-cortisol ratio, driven more by cortisol shifts than by a proven testosterone treatment effect (Kovanur Sampath et al., 2021). The honest clinical use is pain and movement, not a hormone prescription.

Restored motion is what lets resistance training happen. Compound lifting is one of the few lifestyle inputs that plausibly affect androgen-receptor density, insulin sensitivity, and lean mass. If lumbar or hip pain blocks squats and hinges, the hormone plan has no mechanical partner.

Pelvic and lumbar mechanics also matter for the men who present with both low libido and back or hip pain. Dr. Jimenez has described coordinating spinal care and neuromuscular rehabilitation to support autonomic balance and the biomechanics that affect exercise capacity and sexual function (Jimenez, 2026b). Better mechanics do not create erections on their own. They remove a pain and deconditioning barrier.

The same logic applies in injury care, opioids, immobility, and fear of loading all push testosterone down. Graded chiropractic and rehab care are used to shorten opioid exposure and get loading restarted. Dr. Jimenez notes that a lab value should be read alongside movement, strength, body composition, sleep, nutrition, metabolic health, and injury recovery, not alone (Jimenez, 2026a).

Combining chiropractic care with other nonsurgical care

At Injury Medical Clinic PA in El Paso, the model is one plan with separate roles. Dr. Maria Guadalupe Cardenas, MD, board-certified in internal medicine (NPI 1164426749, Texas license J2933), provides medical direction for diagnosis, prescribing, and safety monitoring. Under that medical oversight, Dr. Jimenez leads neuromusculoskeletal care, functional-medicine nutrition, and rehabilitation planning.

Chiropractic care is the spinal and joint entry point: assessment, adjustment or mobilization, and postural coaching. It is paired with the following, not substituted for them.

Massage therapy and instrument-assisted soft-tissue work reduce muscle guarding that keeps a segment from moving after an adjustment. Less guarding means less sympathetic drive and a better window for exercise the same week.

Physical therapy and supervised rehabilitation supply the loading the hormone axis needs. A typical sequence is pain control and isometrics, then compound strength, then conditioning scaled to the injury. Progressive overload is the point. Random stretching is not.

Functional wellness covers the inputs labs already point to: protein in the range of about 1.6 to 2.2 grams per kilogram when kidneys allow, vitamin D, zinc, and magnesium repletion if deficient, alcohol reduction, and a repeat morning panel in six to eight weeks. These cofactors support steroidogenesis. They are not a substitute for indicated medication.

Sleep care sits in the same plan. Screening for apnea, then continuous positive airway pressure when indicated, often changes the hormone picture more than another supplement.

Medical options stay on the physician side of the table. Clomiphene or enclomiphene for central hypogonadism when fertility matters. hCG when testicular stimulation is the goal. Kisspeptin, CJC-1295 without DAC, and ipamorelin only when a licensed prescriber judges them appropriate and monitoring is in place. Start testosterone replacement after reversible drivers are addressed, with hematocrit, prostate-specific antigen (when indicated), estradiol, and symptoms tracked.

Delivery route is individualized. Gels and creams vary by skin, temperature, and site; they can transfer to partners and children and sometimes raise estradiol more than expected. Injections, including subcutaneous testosterone cypionate, often give steadier levels and easier titration. Still, large observational data have also linked injection initiators with higher cardiovascular-event rates than gel users, without proving the route itself was the cause (Layton et al., 2015). Pellets are less adjustable. No route is automatically safer.

Signs of Hormonal Imbalances In Men *THIS IS WHY*- Video.

A workable decision path

For the 45-year-old man with a total testosterone of 370 ng/dL, fatigue, low libido, and a larger waist, the sequence used in this model is:

  1. Repeat a morning total testosterone, and add free testosterone, SHBG, LH, FSH, estradiol, prolactin, thyroid, A1c or fasting insulin, CBC, and vitamin D. Add PSA when replacement is being considered.
  2. Sort the reversible comorbidity normal LH with low testosterone points central. High LH with low testosterone points peripheral. Midrange total with low free and high SHBG points to binding and metabolic drivers.
  3. Treat the comorbidity that is reversible: apnea, opioids, alcohol, visceral fat, and pain that blocks training.
  4. Layer nonsurgical care together. Chiropractic care for motion and pain, massage for guarding, physical therapy for progressive strength, and functional nutrition for protein, micronutrients, and inflammation.
  5. Add axis-restoring medication only under medical direction, and only after fertility is discussed.
  6. Recheck labs and symptoms in six to eight weeks. Safety labs include hematocrit, liver enzymes as indicated, and PSA when appropriate.

Clinical observations that shape the plan

Across ChiroMed’s hormone and injury material, a repeated observation is that correcting a number without restoring movement leaves the patient tired and inactive, and restoring movement without checking the axis stalls recovery (Jimenez, 2026a, 2026c). Men with central suppression from weight and apnea have improved when sleep, training, and a fertility-sparing medication were used together, and when spinal care made the training possible. Men with high SHBG and midrange total testosterone have sometimes normalized free testosterone after thyroid, liver, sleep, and nutrition were addressed, without replacement. Men after testicular injury have needed testicular stimulation or replacement plus rehab, because the mechanical deficit and the glandular deficit were separate.

Those are clinical patterns, not trial results. They match the physiology: comorbidities suppress or waste the signal, and nonsurgical care removes the suppressors chiropractic and rehabilitation can actually reach.

Bottom Line

Testosterone builds and maintains muscle, bone, blood, metabolic flexibility, and sexual function, and it depends on a brain signal that comorbidities can mute. A result of 370 ng/dL at 45 deserves a free-testosterone measurement, gonadotropins, and a look at sleep, pain, medicines, and fat distribution. Chiropractic care helps by lowering pain, restoring motion, and making strength training and sleep possible. Massage, physical therapy, and functional wellness do the adjacent work. Medication reduction is indicated, with medication oversight by Drs. The number is a starting point. The plan is the whole person.

Further clinical observations: ChiroMed and Dr. Alexander Jimenez on LinkedIn.

This article is educational and does not replace care from a licensed clinician.

References

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