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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 We will explore the pathophysiology of tendinopathy, moving beyond the outdated concept of “tendinitis” to embrace the modern understanding of tendinosis—a degenerative process characterized by cellular and matrix disorganization.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

SEO Tags: gluteus medius tendinopathy, lateral hip pain, trochanteric bursitis, Dr. Alex Jimenez, integrative chiropractic care, Dr. Maria Guadalupe Cardenas, functional medicine, hip pain treatment El Paso, tendinosis, heavy slow resistance training, isometric exercise for tendon pain, chiropractic adjustment for hip pain, pelvic stability, gait analysis, biomechanics, personal injury care, rehabilitation, non-surgical hip pain relief, tendon health, collagen synthesis

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

SEO tags: testosterone, men’s health, hypogonadism, central hypogonadism, peripheral hypogonadism, LH, FSH, free testosterone, estradiol, aromatase, TRT, transdermal testosterone, injections, kisspeptin, clomiphene, hCG, CJC without DAC, ipamorelin, functional medicine, integrative chiropractic, internal medicine, Injury Medical Clinic PA, Mission Plaza Injury Medical Clinic, Dr. Alex Jimenez, Dr. Maria Guadalupe Cardenas, El Paso, sleep apnea, inflammation, nutrition, resistance training, fertility preservation, SHBG, personal injury care

Integrative Chiropractic in Practice to Reduce Insulin Resistance


Learn how integrative chiropractic can help manage insulin resistance and promote better metabolic health to the body.

Insulin Resistance, Musculoskeletal Pain, and Lipomas: An Integrative Chiropractic Perspective

Lipomas are common, benign tumors made of mature fat cells. Clinically evaluate them, especially when a lump is rapidly enlarging, firm, deep, fixed, painful, neurologically symptomatic, or otherwise atypical. While emerging research suggests that lipomas may coexist with metabolic dysfunction in some people, it does not establish that insulin resistance, impaired autophagy, gut permeability, or chiropractic care directly cause, shrink, prevent, or eliminate lipomas. Lipoma – StatPearls[ncbi.nlm.nih]

A more evidence-aligned clinical message is this: a lipoma can be an opportunity to look beyond the lump and assess the person. For patients with multiple lipomas, central adiposity, hypertension, dyslipidemia, prediabetes, diabetes, sleep disruption, chronic pain, or reduced activity, a cardiometabolic and musculoskeletal assessment may uncover modifiable contributors to pain, impaired movement, and long-term health. Recent observational research has reported a higher prevalence of metabolic syndrome among people with lipomas, but association is not proof that metabolic dysfunction created an individual lipoma.[frontiersin]

Lipomas Need Appropriate Evaluation

Most lipomas are soft, mobile, slow-growing, painless subcutaneous masses. Management is usually observation when they are asymptomatic, or procedural removal when they are painful, enlarge, interfere with movement, create diagnostic uncertainty, or are cosmetically bothersome. A clinician may recommend imaging, biopsy, surgical referral, or further workup when the physical examination is not reassuring.[ncbi.nlm.nih]

Do not promise that fasting, supplements, manual therapy, adjustment, nutritional protocols, or “detoxification” will dissolve a lipoma. These approaches may support general cardiometabolic health in appropriately selected patients, but they are not established treatments for removing benign fatty tumors.

At Injury Medical Clinic PA and ChiroMed in El Paso, a multidisciplinary model can instead use the lipoma encounter as a broader health conversation: Are there signs of insulin resistance? Is chronic pain reducing the patient’s ability to exercise? Are sleep, nutrition, mobility, stress, medication effects, neuropathy, or orthopedic limitations complicating metabolic health? That clinical framing is more useful and better supported than treating a lipoma as proof of a particular metabolic pathway.

What Insulin Resistance Means

Insulin is a hormone that helps move glucose from the bloodstream into cells, especially skeletal muscle, for energy use and storage. Insulin resistance occurs when tissues respond less effectively to insulin. The pancreas may initially compensate by producing more insulin, so fasting glucose can remain normal for years even as insulin resistance develops.

Insulin resistance is commonly associated with:

  • Prediabetes and type 2 diabetes.
  • Abdominal or visceral adiposity.
  • Elevated triglycerides and low HDL cholesterol.
  • Hypertension.
  • Fatty liver disease.
  • Sleep apnea.
  • Chronic low-grade inflammation.
  • Reduced physical activity and prolonged sedentary time.
  • Certain medications, endocrine disorders, genetic predisposition, and aging.

Skeletal muscle is particularly important because it is a major site of glucose disposal. When muscle quality, strength, mitochondrial capacity, or activity level declines, whole-body insulin sensitivity can worsen. Intramuscular fat accumulation and chronic low-grade inflammation are among the mechanisms connecting metabolic dysfunction with impaired muscle and joint health.[pmc.ncbi.nlm.nih]

This does not mean that all musculoskeletal pain is caused by insulin resistance. Pain is multifactorial. Injury, workload, biomechanics, psychosocial stress, sleep, degenerative change, neuropathy, central sensitization, inflammatory disease, and occupational demands may all play a role. However, insulin resistance can clinically amplify pain, tissue vulnerability, fatigue, and slower recovery.

Why Insulin Resistance Affects Movement

Musculoskeletal tissues are metabolically active. Muscle, tendon, fascia, cartilage, bone, peripheral nerves, and synovium all depend on adequate circulation, collagen turnover, cellular energy production, and appropriate inflammatory signaling. Persistent dysglycemia and insulin resistance may affect these systems through several overlapping pathways.

Low-Grade Inflammation

Visceral adipose tissue and insulin-resistant states can increase inflammatory signaling. This may contribute to systemic inflammation and affect connective-tissue remodeling, pain sensitivity, and joint homeostasis. Metabolic syndrome has been associated with conditions including osteoarthritis, tendinopathy, osteoporosis, sarcopenic obesity, and disability.[pmc.ncbi.nlm.nih]

Glycation and Connective Tissue Stiffness

With sustained high glucose exposure, advanced glycation end products can accumulate in collagen-rich structures. Glycation can alter collagen cross-linking and reduce tissue elasticity, contributing to stiffness and impaired tendon or capsular adaptability. These mechanisms help explain why shoulder dysfunction, tendon disorders, and limited joint mobility are more frequent in diabetes.[repository.uantwerpen]

Muscle Insulin Resistance and Deconditioning

Pain can reduce activity; less activity reduces muscular glucose uptake and conditioning; reduced conditioning can worsen insulin sensitivity. This creates a self-reinforcing cycle:

  1. Pain limits walking, lifting, exercise, and restorative sleep.
  2. Lower activity reduces muscle-mediated glucose disposal.
  3. Insulin resistance and inflammation worsen.
  4. Tissue capacity, recovery, and pain tolerance may decline.
  5. The person becomes even less able to move confidently.

Breaking this cycle requires a plan that addresses both pain and metabolic capacity rather than treating either in isolation.

Peripheral Nerve Effects

Long-standing diabetes can damage peripheral nerves and contribute to burning pain, numbness, tingling, weakness, altered balance, and loss of protective sensation. Neuropathy changes gait and loading patterns, increasing fall risk and sometimes adding stress to the feet, knees, hips, and spine. Patients with neuropathic symptoms require medical assessment, vascular screening when indicated, footwear and foot-care education, and carefully adapted rehabilitation.

Pain Conditions that May Co-Occur

Insulin resistance, metabolic syndrome, prediabetes, and diabetes can correlate with several musculoskeletal complaints and comorbidities. Correlation does not establish that metabolic dysfunction is the only cause, but it should prompt a broader clinical evaluation.

Clinical concernPotential metabolic connectionPractical clinical implication
OsteoarthritisInsulin resistance, obesity, inflammation, altered cartilage and synovial biology may contribute beyond mechanical loading aloneCombine graded strength and mobility work with weight, glucose, sleep, and pain management
TendinopathyMetabolic dysfunction may impair tendon homeostasis, collagen turnover, and tolerance to loadUse progressive loading rather than rest alone; address glucose control and recovery factors
Frozen shoulderDiabetes is associated with a substantially higher prevalence of adhesive capsulitis than in non-diabetic populationsScreen for diabetes or poor glycemic control in unexplained shoulder stiffness; use coordinated rehabilitation and medical care
Trigger fingerDiabetes is associated with greater prevalence, often with bilateral or multiple-digit involvementEvaluate glucose status and manage hand symptoms with appropriate medical and rehabilitation pathways
Carpal tunnel syndromeDiabetes, edema, connective-tissue changes, and neuropathy may contributeDistinguish median neuropathy from cervical radiculopathy and generalized peripheral neuropathy
Chronic low back, neck, and widespread painInflammation, reduced conditioning, poor sleep, obesity, depression, and altered pain processing may coexistUse function-centered, multimodal pain care and cardiometabolic risk reduction
Peripheral neuropathyChronic hyperglycemia can damage peripheral nervesPrioritize medical management, foot checks, balance work, fall-risk reduction, and symptom-informed activity

For example, adhesive capsulitis has been reported in approximately 11% to 30% of people with diabetes versus approximately 2% to 10% in people without diabetes. Trigger finger has likewise been reported more commonly in diabetic populations. These findings do not mean every patient with shoulder stiffness or finger locking has diabetes, but they support targeted screening when the clinical presentation and risk profile warrant it.[pmc.ncbi.nlm.nih]

Chiropractic Care’s Appropriate Role

Chiropractic care should not be marketed as a direct treatment for insulin resistance, diabetes, or lipomas. Current evidence does not show that spinal manipulation independently reverses insulin resistance or replaces medical diabetes care, nutrition therapy, prescribed medication, or exercise.

Its most defensible role is supportive: helping appropriately screened patients reduce musculoskeletal pain, improve mobility, restore confidence with movement, and participate more effectively in the lifestyle and rehabilitation interventions that do improve insulin sensitivity.

Dr. Alexander Jimenez, DC, APRN, FNP-BC, describes a clinical model centered on evaluating movement limitations, restoring dynamic function, integrating rehabilitation, and coordinating patient-specific care across chiropractic, functional rehabilitation, nutrition, and medical services. The ChiroMed clinical information also describes an integrated practice offering chiropractic care, nurse practitioner services, rehabilitation, nutrition counseling, naturopathy, and acupuncture. These observations support a coordinated, function-first model, not a claim that a spinal adjustment corrects metabolic disease.[chiromed][linkedin]

For example, in a patient with insulin resistance and low back pain, chiropractic management may include an evidence-informed examination, appropriate manual therapy or spinal manipulation when indicated, joint mobilization, soft-tissue approaches, education, pacing, and movement progression. By reducing pain-related barriers to walking, resistance training, and daily activity, care may indirectly support the patient’s ability to pursue the interventions most strongly linked to improved insulin action.

Spinal manipulation is generally used for musculoskeletal conditions rather than metabolic disease. Research indicates that combining manual approaches with exercise may be more useful for some neck and back pain presentations than using manual treatment as a stand-alone intervention. Treatment should always be individualized, consent-based, and modified for red flags, osteoporosis, fracture risk, neurologic deficit, anticoagulant use, inflammatory disease, severe neuropathy, recent trauma, or other contraindications.[pmc.ncbi.nlm.nih]

Discovering the Benefits of Chiropractic Care- Video

A Nonsurgical Care Pathway

The strongest nonsurgical approach is not a single therapy. It is an integrated plan that improves pain, physical capacity, metabolic health, and self-management while maintaining appropriate medical oversight.

Medical and Metabolic Assessment

A primary-care clinician, family nurse practitioner, or physician can evaluate cardiometabolic risk and determine whether laboratory testing is appropriate. Depending on clinical context, this may include:

  • Blood pressure, waist circumference, weight trajectory, and medication review.
  • HbA1c and/or fasting plasma glucose.
  • Lipid profile.
  • Liver enzymes when fatty liver disease is a concern.
  • Renal function and urine albumin screening for patients with diabetes.
  • Evaluation for sleep apnea, thyroid disease, polycystic ovary syndrome, hypogonadism, depression, or medication-related contributors when appropriate.
  • Perform neurologic, vascular, and foot exams when diabetes or neuropathy is present.

Fasting insulin and HOMA-IR may be used in some wellness or specialty settings, but they are not required to diagnose diabetes and should be interpreted in clinical context. A normal fasting glucose does not necessarily exclude early insulin resistance, yet a diagnosis should never be made from a single functional marker alone.

Chiropractic and Manual Care

Chiropractic care can help address mechanical restrictions, pain-related guarding, and movement avoidance in selected patients. The clinical goal is to improve function, not simply to pursue repeated passive treatment. A high-quality plan includes reassessment and a transition toward active self-management.

Potential components include:

  • Spinal or peripheral joint mobilization or manipulation when appropriate.
  • Soft-tissue treatment for pain-limited movement.
  • Ergonomic and posture education.
  • Graded exposure to feared or painful movement.
  • Home mobility work.
  • Coordination with physical therapy and medical care.

Physical Therapy and Rehabilitation

Physical therapy is especially important because skeletal muscle is central to glucose disposal. A physical therapist can adapt activity for osteoarthritis, tendinopathy, spine pain, neuropathy, balance impairment, obesity, prior injury, or post-surgical limitations.

Regular aerobic and resistance training improve glycemic management and insulin sensitivity. Combined aerobic and resistance programs are generally more beneficial than either modality alone, and breaking up prolonged sitting can modestly reduce post-meal glucose and insulin elevations.[pmc.ncbi.nlm.nih]

A practical progression may include:

  • Brief walks after meals, if medically safe.
  • Low-impact aerobic activity such as cycling, pool exercise, or walking.
  • Progressive resistance training for major muscle groups.
  • Balance and gait work for neuropathy or fall risk.
  • Mobility and load-management work for shoulders, hips, knees, spine, and ankles.
  • A gradual return to work, sport, or household activity.

The right dose depends on medical status, medications, glucose-lowering therapy, cardiovascular risk, neuropathy, retinopathy, orthopedic limitations, and baseline conditioning. Patients who use insulin or sulfonylureas need individualized education on hypoglycemia prevention around exercise.

Massage Therapy

Massage therapy can be a useful adjunct for short-term relaxation, perceived stiffness, muscle soreness, and pain modulation. Present it honestly: massage does not cure insulin resistance or remove lipomas. Its value lies in helping some patients tolerate movement, sleep better, reduce stress-related muscle tension, and engage more consistently in exercise and rehabilitation.

Modify or avoid massage over an unexplained mass, infected tissue, acute thrombosis, unstable fracture, open wounds, severe vascular compromise, or areas with markedly reduced sensation. Patients with diabetic neuropathy require special attention to pressure, skin integrity, and thermal safety.

Functional Wellness and Nutrition

Functional wellness is most useful when it translates metabolic science into sustainable behaviors, not unvalidated promises. A patient-centered plan can include:

  • Minimally processed, fiber-rich meals emphasizing vegetables, legumes, adequate protein, and unsaturated fats.
  • Reduced intake of sugar-sweetened beverages and highly refined carbohydrates.
  • Meal timing and individualized caloric strategy when appropriate.
  • Sleep assessment and treatment of suspected sleep apnea.
  • Stress-management practices that are realistic and acceptable to the patient.
  • Tobacco cessation and alcohol-risk counseling.
  • Medication adherence and review with the prescribing clinician.
  • Regular follow-up using measurable outcomes such as HbA1c, blood pressure, strength, walking tolerance, waist circumference, sleep, pain interference, and quality of life.

Time-restricted eating or intermittent fasting may be appropriate for some adults, but it is not universally safe. It requires individualized medical review for people using insulin or hypoglycemia-causing medications, people who are pregnant or breastfeeding, those with a history of eating disorders, frail older adults, and patients with certain medical conditions.

Clinical Observations from El Paso

In the clinical approach described by Dr. Jimenez, patients often present with overlapping concerns: chronic low back or neck pain, work or motor-vehicle injury, sciatica, sports-related limitations, deconditioning, poor sleep, excess weight, and difficulty returning to activity. His practice materials emphasize individualized functional assessment, dynamic rehabilitation, manual and chiropractic care, nutritional support, and interdisciplinary collaboration.[chiromed][linkedin]

From a practical clinical standpoint, this supports several observations:

  • Pain can be a metabolic barrier because it limits walking, resistance exercise, sleep quality, and participation in healthy routines.
  • Metabolic dysfunction can be a rehabilitation barrier because inflammation, fatigue, neuropathy, connective-tissue stiffness, and reduced tissue tolerance can slow recovery.
  • A patient with persistent pain should not be told to exercise harder. They need a graded, tolerable program that respects tissue capacity, pain mechanisms, mobility restrictions, and cardiometabolic risk.
  • A patient with prediabetes or diabetes should not be treated as though every complaint is “just metabolic.” New weakness, progressive numbness, vascular symptoms, bowel or bladder change, unexplained weight loss, fever, trauma, a suspicious mass, or severe night pain requires appropriate medical evaluation.
  • The best outcomes are more likely when clinicians align care around function: less pain interference, more daily movement, better strength, improved sleep, safer exercise, and evidence-based metabolic monitoring.

A Realistic Patient Example

Consider a patient with central weight gain, prediabetes, chronic knee pain, intermittent low back pain, reduced walking tolerance, and several stable lipomas. A responsible care plan does not promise to “flush toxins” or make the lipomas disappear.

Instead, the plan may include:

  1. Medical evaluation of the masses and cardiometabolic risk factors.
  2. Measurement of HbA1c, blood pressure, lipids, medication effects, sleep risk, and neuropathy symptoms as clinically indicated.
  3. Chiropractic and manual care for pain-limited lumbar, hip, or knee mobility when appropriate.
  4. Physical therapy-led progressive strengthening for quadriceps, hips, trunk, and balance.
  5. Short post-meal walks and gradual aerobic conditioning.
  6. Nutrition counseling focused on durable improvements in food quality and glucose management.
  7. Massage therapy as an adjunct for comfort and recovery when appropriate.
  8. Follow-up based on function, pain interference, glucose measures, strength, and activity rather than dependence on passive treatment.

That is the central principle: improve the person’s capacity to move and participate in the interventions that protect long-term metabolic and musculoskeletal health.

When to Seek Prompt Evaluation

Seek timely medical assessment for a lump that is growing rapidly, is painful without explanation, is firm or fixed, lies deep beneath the fascia, exceeds roughly 5 cm, returns after removal, causes neurologic symptoms, or is associated with systemic symptoms. A clinician should determine whether imaging, biopsy, or referral is necessary.[ncbi.nlm.nih]

Patients with diabetes or possible insulin resistance should seek medical care for new foot wounds, color or temperature change in a limb, loss of protective sensation, progressive weakness, severe swelling, chest pain, shortness of breath, unexplained weight loss, or symptoms of severe hyperglycemia or hypoglycemia.

Conclusion

Insulin resistance is not simply a blood-sugar issue. It can intersect with muscle quality, inflammation, connective-tissue health, joint function, nerve health, pain, and physical capacity. It may contribute to a pattern in which discomfort limits activity and low activity further worsens metabolic health.

Chiropractic care can be a valuable part of a comprehensive, nonsurgical musculoskeletal plan when it is used appropriately: to reduce pain-related barriers, restore mobility, and help patients engage in active rehabilitation. It is not a stand-alone cure for insulin resistance, diabetes, or lipomas. The strongest strategy combines medical assessment, nutrition and lifestyle support, physical therapy, progressive aerobic and resistance exercise, pain-informed manual care, and coordinated follow-up.

References

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Carpal Tunnel Syndrome Options With Chiropractic Treatment


Uncover the advantages of chiropractic treatment for carpal tunnel syndrome and regain your hand’s strength and flexibility.

Abstract: Unlocking Relief for Carpal Tunnel Syndrome

Carpal tunnel syndrome (CTS) is a pervasive and often debilitating condition that I encounter frequently in my practice. It can cause pain, numbness, tingling, and weakness in the hand and wrist, stemming from compression of the median nerve as it passes through the narrow carpal tunnel. If left unaddressed, this condition can severely impair your ability to perform daily tasks, affecting both your professional and personal life. In this comprehensive educational post, I will guide you through the wrist’s intricate anatomy, the pathophysiology of CTS, and the diagnostic process we use. We will delve deeply into a highly effective, minimally invasive treatment: the cortisone injection. I will detail the precise anatomical landmarks, injection technique, and rationale behind our chosen approach, drawing on the latest evidence-based research and our extensive clinical experience. This article will also highlight the power of an integrative care model. I will explain how my role as a Doctor of Chiropractic (DC) and Advanced Practice Registered Nurse (APRN) combines with the medical oversight of our esteemed Medical Director, Dr. Maria Guadalupe Cardenas, a Board-Certified Internist with over four decades of experience. Together, at Injury Medical Clinic, we create a synergistic treatment paradigm that merges chiropractic adjustments, functional medicine, rehabilitation, and conventional medical interventions to provide holistic, patient-centered care for conditions like carpal tunnel syndrome.

Our Collaborative Care Philosophy: The Power of Integrative Medicine

At Injury Medical Clinic, our approach is rooted in the belief that the most effective patient care comes from a multidisciplinary, collaborative effort. My dual qualifications as a Doctor of Chiropractic (DC) and a board-certified Family Nurse Practitioner (FNP-BC), along with advanced certifications in functional and lifestyle medicine, give me a unique, broad perspective on health and wellness. However, our practice’s success rests on our partnership with Dr. Maria Guadalupe Cardenas, MD.
Dr. Cardenas is a highly respected, Board-Certified Internist with more than 40 years of invaluable clinical experience. She serves as our Medical Director and Collaborative Physician, providing essential medical oversight and guidance. This structure is common and highly effective in modern integrative and injury care settings. It allows us to blend the best of different medical worlds under one roof.

How Our Integrated Team Works for You

This collaboration allows us to offer a truly comprehensive suite of services tailored to each patient’s unique needs. Here’s how our team integrates to manage a condition like carpal tunnel syndrome:
Medical Oversight (Dr. Cardenas, MD): Dr. Cardenas provides the overarching medical governance for our practice. Her extensive experience in internal medicine is crucial for diagnosing complex conditions, managing comorbidities, and ensuring that all treatments, including procedures like injections, are medically appropriate and safe for the patient. She reviews patient cases, consults on treatment plans, and provides the medical authority for procedures within the scope of conventional medicine.
Advanced Practice & Chiropractic Care (Dr. Jimenez, DC, APRN): My role is multifaceted. As a Chiropractor, I focus on the biomechanical and structural aspects of health. For a carpal tunnel patient, this involves assessing and treating potential contributing factors in the entire kinetic chain—from the neck (cervical spine) and shoulder down to the elbow and wrist. Misalignments or nerve impingement in the neck, for instance, can mimic or exacerbate carpal tunnel symptoms, a condition often referred to as a “double crush” syndrome. Chiropractic adjustments can alleviate this proximal nerve irritation. As a Family Nurse Practitioner, I am trained and licensed to perform comprehensive physical exams, order and interpret diagnostic tests (such as nerve conduction studies), and administer medical treatments like therapeutic injections. This dual expertise allows for a seamless transition from structural diagnosis to medical intervention.
Functional Medicine: We look beyond the symptoms to understand the “why.” Chronic inflammation is a key driver of conditions like CTS. Using functional medicine principles, we investigate and address root causes of systemic inflammation, such as dietary triggers, gut health imbalances, or nutritional deficiencies. This may involve specialized testing and personalized lifestyle and nutrition plans to reduce the body’s overall inflammatory load and support healing of the median nerve.
Rehabilitation and Personal Injury Care: Our clinic is equipped to manage injuries, including those sustained in auto accidents or at work, which commonly cause CTS. Our rehabilitation programs include targeted exercises to stretch and strengthen the wrist and hand, ergonomic assessments to modify aggravating activities, and modalities like ultrasound or cold laser therapy to reduce inflammation and promote tissue healing.
This integrated model ensures that a patient presenting with hand pain receives a 360-degree evaluation. We don’t just inject the wrist; we assess the spine, evaluate systemic inflammation, provide rehabilitative support, and ensure an experienced medical doctor oversees the entire process. This is the future of patient care—comprehensive, collaborative, and profoundly effective.

A Clinical Scenario: Managing Carpal Tunnel Syndrome with a Targeted Injection

Today, I have a 65-year-old patient in my examination room who presents with the classic signs of carpal tunnel syndrome in her right hand. She describes a persistent “pins and needles” sensation, numbness that often wakes her at night, and a noticeable weakness in her grip. After a thorough physical examination and review of her history, we’ve decided that a carpal tunnel injection is an appropriate and effective next step to provide her with significant and rapid relief.
This procedure is straightforward but requires precision and a deep understanding of the wrist’s intricate anatomy. My goal is to deliver a combination of local anesthetic and anti-inflammatory steroid directly to the site of nerve compression, calming inflammation and creating more space for the median nerve. Let’s walk through this process step by step, just as I would perform it here in the clinic.

Step 1: Mapping the Anatomy – Identifying the Landmarks

Before administering a single drop of medication, the most critical phase is anatomical landmarking. Accurate identification of key structures ensures the injection is delivered safely to the target tissue while avoiding injury to the nerve itself or surrounding blood vessels. The wrist is a complex intersection of tendons, nerves, and bones, and precision is paramount.
Here are the landmarks I identify on the patient’s right hand:
The Distal Palmar Crease: This is the most prominent crease at the base of the palm, where the hand meets the wrist. It serves as our primary horizontal reference point. I take a moment to mark a line across this crease gently. This line roughly corresponds to the superior border of the transverse carpal ligament, the thick band of connective tissue that forms the “roof” of the carpal tunnel. The injection will be aimed just proximal to this ligament, into the tunnel entrance.
The Palmaris Longus Tendon: This is a fascinating and variable structure. The palmaris longus is a slender, superficial tendon that, when present, serves as a crucial guide to the median nerve, which lies directly beneath it. To identify it, I ask the patient to perform a specific maneuver: “Please touch your thumb to your pinky finger and flex your wrist forward, as if you’re trying to make the palm of your hand touch your forearm.”
In many individuals, this action causes the tendon to “pop” out visibly in the center of the wrist. However, the palmaris longus is congenitally absent in approximately 15-20% of the population (Yildiz et al., 2021). In my patient today, her tendon is present but diminutive, meaning it’s small and not easily visible on camera, but I can clearly palpate it with my fingertips. I feel its subtle, cord-like structure running down the midline of her wrist. Knowing its location is like having a direct arrow pointing toward the median nerve. Although it’s not visually prominent, my tactile sense confirms its path, which I mentally trace to the distal palmar crease.
The Flexor Carpi Radialis (FCR) Tendon: This is another essential landmark, located on the thumb side (radial side) of the palmaris longus. The FCR is a much more robust and consistently present tendon. To identify it, I ask the patient to make a fist and flex her wrist again. As she does this, I place my fingers on the radial aspect of her wrist and feel the strong, thick FCR tendon contract and become prominent. I ask her to relax, and the tendon softens, but I can still trace its course. The FCR tendon serves as a lateral boundary marker. The median nerve lies in the space between the palmaris longus tendon (or its expected path) and the FCR tendon.

The Rationale Behind the “Lexor Carpi Radialis Approach”

With these landmarks identified, I can now select my injection portal. Several evidence-based approaches exist for carpal tunnel injection. Still, my preferred method, and one widely supported in the literature, is the flexor carpi radialis (FCR) approach, also known as the ulnar-sided FCR approach (Smith et al., 2020).
Here’s the reasoning behind this choice:
Safety: The primary goal is to avoid direct injection into the median nerve, an event known as intraneural injection. This can cause severe pain and potential nerve damage. By positioning the needle just ulnar to the FCR tendon (the pinky-finger side), we place it in the safe zone. The median nerve reliably lies ulnar to the FCR, and this approach provides a clear path into the carpal tunnel space that surrounds the nerve without directly targeting it.
Efficacy: The objective is to bathe the inflamed tendons and the median nerve in the anti-inflammatory medication, a technique known as a perineural injection. We don’t need to hit the nerve itself. The medication is delivered into the carpal tunnel sheath, where it diffuses to surround the nerve and flexor tendons, reducing swelling and pressure.
Patient Comfort: This approach avoids passing the needle through the thicker, more sensitive palmaris longus tendon itself, potentially making the procedure more comfortable for the patient.
Based on this, I determine the precise entry point. I choose a spot about 1 cm proximal to the distal palmar crease I marked earlier. This location ensures that the needle enters the carpal tunnel just before it becomes most constricted under the transverse carpal ligament, allowing the medication to flow distally into the tightest part of the space. I then mark this specific injection site, along with my target point (where the palmaris longus path crosses the distal palmar crease), using the retracted tip of a ballpoint pen. This creates a small, temporary, sterile, precise indentation in the skin that serves as my bullseye.

Step 2: Preparing the Field – Aseptic Technique

With the anatomical map clearly defined on the patient’s skin, the next step is to ensure a sterile environment to prevent infection. Aseptic technique is non-negotiable in any invasive procedure, no matter how minor. An infection in the carpal tunnel space, known as suppurative tenosynovitis, is a surgical emergency. Therefore, we take meticulous care in our preparation.
First Cleanse (Alcohol): I begin by wiping the entire area with an alcohol prep pad. This initial pass serves two purposes: it starts the disinfection process by killing surface bacteria, and it conveniently erases the ink lines I drew earlier, leaving only the subtle indentations from the pen tip as my guide.
Second Cleanse (Povidone-Iodine): Next, I apply a generous amount of povidone-iodine, a powerful and broad-spectrum antiseptic. I use a sterile swab stick to apply it in an expanding circular motion, starting from the injection site and moving outward. This ensures I do not drag contaminants back toward the entry point. I leave the brownish-orange solution on the skin to dry, giving it the contact time needed to kill a wider range of pathogens.
Third Cleanse (Povidone-Iodine): For added security, I apply povidone-iodine a second time. This two-step antiseptic protocol is a best practice recommended to minimize the risk of introducing cutaneous flora into deeper tissues (McDonnell & Burke, 2013). We allow this final layer to air-dry completely before proceeding.

Step 3: Preparing the Medication and Anesthesia

While the antiseptic dries, I prepare the injection solution. The choice of medication is crucial for achieving both immediate and lasting relief.
My formulation for this procedure consists of:
1 mL of 1% Lidocaine without epinephrine: Lidocaine is a local anesthetic. Its purpose is twofold. First, it provides immediate pain relief by blocking sodium channels in the nerve fibers, preventing them from transmitting pain signals. This makes the post-injection period much more tolerable for the patient. Second, if I were to touch the median nerve during needle advancement inadvertently, the lidocaine would cause an immediate, but temporary, numbing sensation, confirming the nerve’s location without causing lasting damage. I specifically choose lidocaine without epinephrine. Epinephrine is a vasoconstrictor, and its use in areas with limited collateral circulation, like the digits or the carpal tunnel, is controversial and generally avoided to prevent ischemic injury to the nerve (Prabhakar et al., 2LidocaineL of a Corticosteroid Solution: The workhorse of this injection is the steroid. I use a standard preparation such as triamcinolone acetonide (Kenalog) or methylprednisolone acetate (Depo-Medrol). Corticosteroids are potent anti-inflammatory agents. Their cellular mechanism of action is complex: they inhibit the synthesis of multiple inflammatory mediators, including prostaglandins and leukotrienes, by blocking the enzyme phospholipase A2. They also stabilize lysosomal membranes in inflammatory cells and reduce capillary permeability. In the context of the carpal tunnel, the steroid works to:
Reduce Synovial Inflammation: The flexor tendons passing through the carpal tunnel are wrapped in synovial sheaths. In CTS, these sheaths become inflamed and swollen (tenosynovitis), which contributes significantly to compression of the median nerve. The steroid directly targets this inflammation, causing the sheaths to shrink.
Decrease Edema: The medication helps to reduce the fluid buildup (edema) within the confined space of the tunnel.
Create Space: By reducing the volume of the tunnel’s contents (the swollen tendons), the pressure on the median nerve is alleviated, allowing it to function normally again. This is why patients often experience a dramatic reduction in numbness and tingling within a few days of the injection.
I draw these two medications into a single syringe. I am using a 25-gauge, 1-inch needle. The 25-gauge size is a good balance: thin enough to be minimally traumatic and comfortable for the patient, yet rigid enough to allow precise control and navigation through the tissues without significant deflection. The 1-inch length is ideal for reaching the target depth within the carpal tunnel from our chosen entry point.

The Role of Vapocoolant Spray

To make the initial needle entry as comfortable as possible, I use a vapocoolant spray (like PainEase Mist). This skin refrigerant provides transient topical anesthesia. When sprayed on the skin, it evaporates rapidly, causing a significant and immediate drop in skin temperature. This intense cold sensation temporarily blocks the superficial pain receptors (nociceptors).
I spray it directly onto the indented injection site. The patient will feel a very cold sensation. I watch the skin closely, waiting for it to “flash white“—a brief blanching of the skin that indicates it has reached the optimal temperature for maximal anesthetic effect. This happens within seconds. This simple step can dramatically improve the patient’s experience, reducing anxiety and the sharp sensation of the needle piercing the skin. My patient confirms, “Yes, that’s cold,” and almost immediately, I see the white flash. Now, we are ready.

Step 4: The Injection Procedure – Precision in Motion

The injection requires focus, a steady hand, and clear communication with the patient. The procedure’s success hinges on these final movements.

Patient Briefing and Safety Instructions

Before I begin, I provide the patient with a crucial instruction. This is a vital part of the safety protocol.
“I am about to begin the injection,” I explain calmly. “The needle will be advanced slowly toward the carpal tunnel. The tip of the needle may come very close to, or even gently touch, the median nerve. If this happens, you will likely feel a tingling or a mild, electric-like sensation that might shoot into your thumb, index, or middle finger. This is called a paresthesia. If you feel this, it’s actually good information for me, as it confirms the exact nerve location. The most important thing is not to jerk your hand away. Say the word ‘stop,’ and I will immediately halt my advance. We will then slightly retract and reposition the needle. Do you understand?”
The patient nods in understanding. This pre-procedure briefing empowers the patient, makes them a partner in their own safety, and prevents a sudden, reflexive movement that could cause injury.

The Injection Trajectory

With the patient prepared, I proceed:
Bevel Orientation: I orient the needle so the bevel (the slanted opening at the tip) points distally, down toward the fingers. This orientation encourages the fluid to flow away from the needle tip and down into the carpal tunnel, following the path of least resistance.
Angle of Entry: I position the needle at the prepared site, just ulnar to the FCR tendon and 1 cm proximal to the distal palmar crease. I insert the needle through the skin at a 30- to 45-degree angle, aiming it toward my target point where the palmaris longus path crosses the distal palmar crease. This angle lets me traverse the subcutaneous tissue and aim directly for the carpal tunnel entrance.
Advancement: I advance the needle slowly and deliberately. As I move deeper, I can feel the different tissue planes. I will feel a subtle “pop” or a change in resistance as the needle tip pierces the flexor retinaculum (the deep fascia of the forearm) and enters the carpal tunnel space. Throughout this advance, I am asking the patient, “Are you doing okay? Any tingling?”
In this particular case, my patient reports no paresthesia. This is perfectly acceptable and, in fact, quite common. It simply means my needle trajectory has successfully entered the carpal tunnel space without making direct contact with the nerve. The primary goal is a perineural, not intraneural, injection. Research, including ultrasound-guided studies, shows that clinical success does not depend on eliciting paresthesia (Lee et al., 2019). The key is being in the correct tissue plane.
Aspiration and Injection: Once I feel I am at the correct depth, just inside the carpal tunnel, I perform a critical safety check: aspiration. I gently pull back the syringe plunger. If blood returns to the syringe, it indicates the needle tip is inside a blood vessel (like the nearby ulnar artery). If this happens, I must reposition the needle. In this case, no blood returns, confirming I am in a safe location.
I then begin to inject the 2 mL solution slowly and with minimal pressure. Rapid or forceful injection can cause a painful spike in pressure within the confined tunnel and increase the risk of the solution dissecting into the nerve itself. As I inject, the fluid containing the lidocaine and steroid flows into the carpal tunnel, bathing the median nerve and the inflamed flexor tendons. The patient may feel fullness or pressure in the wrist, which is normal.
Withdrawal: Once the entire volume is delivered, I withdraw the needle smoothly along its entry path. The procedure is complete.
I immediately ask the patient about her pain level during the procedure. “Zero pain,” she reports with a smile. This is the outcome we strive for—a procedure that is not only therapeutically effective but also well-tolerated.

Post-Procedure Care and The Role of Integrative Rehabilitation

The injection is a powerful tool to break the cycle of inflammation and pain, but it is often just one piece of a larger, more comprehensive treatment puzzle. True long-term success comes from addressing the underlying factors that contributed to the CTS in the first place. This is where our integrative model truly shines.

Immediate Post-Injection Care

Immediately after the injection, I apply gentle pressure to the site with a sterile gauze pad, then cover it with a simple adhesive bandage. I instruct the patient on post-procedure care:
Initial Rest: “For the next 24-48 hours, please try to take it easy with this hand. Avoid any heavy lifting, forceful gripping, or repetitive motions. The lidocaine will provide pain relief for a few hours, but after it wears off, you may experience some soreness at the injection site. This is normal.”
The “Steroid Flare“: “It’s also possible to experience a temporary increase in pain a day or two after the injection. This is called a ‘steroid flare’ and happens as the steroid medication crystallizes in the tissue before it starts to dissolve and take effect. It’s not a sign that something is wrong. You can manage this with ice packs and over-the-counter pain relievers like acetaminophen or ibuprofen, as long as they are medically appropriate for you.”
Monitoring for Signs of Infection: “Although very rare, it’s important to watch for any signs of infection, such as increasing redness, swelling, warmth, or any pus-like drainage from the site. If you experience this or a fever, please get in touch with our office immediately.”
The Onset of Relief: “The full anti-inflammatory effect of the steroid typically begins within 3 to 7 days. This is when you should start to notice a significant reduction in your symptoms of numbness, tingling, and pain.”

Long-Term Strategy: Chiropractic, Rehabilitation, and Functional Medicine

The injection creates a crucial window of opportunity. With pain and inflammation significantly reduced, the patient can now engage in the rehabilitative therapies essential for long-term recovery and preventing recurrence.
Chiropractic Care for the “Double Crush“ Phenomenon: As a chiropractor, I will perform a thorough assessment of the patient’s entire upper kinetic chain. The nerves that supply the hand originate in the neck (cervical spine). If a subluxation (misalignment) or disc issue in the neck compresses a nerve root (e.g., C6 or C7), it can make the median nerve more vulnerable to compression further down at the wrist. This is the “double crush syndrome” (Upton & McComas, 1973). Gentle, specific chiropractic adjustments to the cervical and thoracic spine can restore proper motion, alleviate nerve root irritation, and improve overall nerve function, providing relief that a wrist-only treatment would miss.
Targeted Rehabilitation: We will initiate a customized physical therapy program. This is not just a generic sheet of exercises; it’s a progressive plan that includes:
Tendon Gliding Exercises: A specific series of hand movements designed to gently slide the flexor tendons and the median nerve back and forth through the carpal tunnel. This helps to break up minor adhesions and improve the nerve’s mobility within the sheath.
Nerve Flossing/Gliding: Similar to tendon gliding, these exercises are specific movements of the neck, arm, and wrist designed to gently mobilize the entire length of the median nerve from the neck to the hand, ensuring it can slide freely at all potential compression points.
Stretching: We focus on stretching the wrist flexor muscles, which can tighten and contribute to pressure in the tunnel.
Strengthening: Once the inflammation subsides, we introduce gentle strengthening exercises for the hand and forearm to improve support and stability.
Ergonomic and Lifestyle Modification: A crucial component of our functional medicine approach is identifying and modifying the aggravating activities. We conduct a detailed review of the patient’s daily life: What is her occupation? What are her hobbies? We provide specific advice on:
Workstation Ergonomics: Adjusting chair height, keyboard position, and mouse usage to maintain a neutral wrist posture.
Tool Modification: Using tools with larger, padded handles to reduce grip force.
Activity Pacing: Taking frequent breaks during repetitive tasks to stretch and rest the hands.
Splinting: We often recommend wearing a neutral wrist splint, especially at night. Many people flex their wrists while sleeping, which compresses the carpal tunnel. A splint keeps the wrist straight and neutral, allowing the nerve to rest and recover overnight.
Functional Medicine and Nutrition: Systemic inflammation is a major contributor to CTS. We may explore anti-inflammatory dietary strategies, such as increasing the intake of omega-3 fatty acids (found in fish oil) and antioxidant-rich fruits and vegetables. We might also recommend supplements like Vitamin B6, which some studies show supports nerve health and may benefit mild CTS (Ryan-Harshman & Aldoori, 2007). Addressing underlying metabolic issues like pre-diabetes or thyroid dysfunction, which are known risk factors for CTS, is also a key part of our holistic approach, managed in collaboration with Dr. Cardenas.

Conclusion: A Synthesis of Precision and Holism

The carpal tunnel injection I performed today is a perfect example of modern, evidence-based medicine. It is a precise, anatomically guided procedure designed to deliver targeted pharmacological relief. However, its true power is unlocked when it is embedded within a comprehensive, integrative framework.
At Injury Medical Clinic, under the medical direction of Dr. Maria Cardenas, we have cultivated an environment where the precision of a medical procedure coexists with the holistic principles of chiropractic care, the root-cause investigation of functional medicine, and the restorative power of physical rehabilitation. We don’t just treat the wrist; we treat the patient. We address the spine’s biomechanics, the biochemistry of inflammation, and the bio-reality of a person’s daily life.
By calming the fire of inflammation with a targeted injection, we open the door to true healing. We provide the structural realignment, the rehabilitative strength, and the lifestyle education necessary to not only resolve the current episode of carpal tunnel syndrome but to empower our patients with the tools to prevent its return. This synthesis of care is what allows us to guide our patients, like the 65-year-old woman I treated today, on a journey from debilitating pain to lasting, functional wellness.

References

  • Lee, J. H., Kim, D. H., & Kim, D. H. (2019). Clinical efficacy of carpal tunnel injection with or without eliciting paresthesia. Journal of Orthopedic Surgery, 27(1), 2309499018820358. https://doi.org/10.1177/2309499018820358
  • McDonnell, G., & Burke, P. (2013). Povidone-iodine: A review of its role as a surgical skin preparation agent. Journal of Hospital Infection, 85(2), 116–123. https://doi.org/10.1016/j.jhin.2013.07.001
  • Prabhakar, A., Lambert, T., Kaye, R. J., Gordin, V., & Kaye, A. D. (2019). Adjuvants in clinical regional anesthesia practice: A comprehensive review. Best Practice & Research Clinical Anaesthesiology, 33(4), 415–423. https://doi.org/10.1016/j.bpa.2019.09.002
  • Ryan-Harshman, M., & Aldoori, W. (2007). Carpal tunnel syndrome and vitamin B6. Canadian Family Physician, 53(7), 1161–1162. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC1949212/
  • Smith, J., Wisniewski, S. J., & Finnoff, J. T. (2020). Musculoskeletal Injections: A Review of the Evidence. In Musculoskeletal Sports and Spine Disorders: A Comprehensive Guide (pp. 1-21). Springer, Cham.
  • Upton, A. R., & McComas, A. J. (1973). The double crush in nerve-entrapment syndromes. The Lancet, 302(7825), 359–362. https://doi.org/10.1016/S0140-6736(73)93196-9
  • Yildiz, E., Hosseini, P., Sehra, R., Amin, F., & Amin, R. (2021). Anatomic variations of palmaris longus muscle and its clinical implications: a review of the literature. Cureus, 13(8), e17316. https://doi.org/10.7759/cureus.17316

SEO Tags: Carpal Tunnel Syndrome, Carpal Tunnel Injection, Dr. Alex Jimenez, Dr. Maria Cardenas, Integrative Medicine El Paso, Chiropractic Care, Median Nerve Compression, Cortisone Shot Wrist, Functional Medicine, Double Crush Syndrome, Hand Pain Treatment, Wrist Pain Relief, Injury Medical Clinic, Non-Surgical CTS Treatment, Paresthesia, Tenosynovitis, Flexor Carpi Radialis Approach, Vapocoolant Spray, Lidocaine Injection, Tendon Gliding Exercises.

Chiropractic Rehabilitation Benefits for You and Your Heart Health


Find out how chiropractic rehabilitation can play a crucial role in enhancing your heart health and wellness journey.

Abstract

Heart health affects far more than the heart itself. The cardiovascular system delivers oxygen, nutrients, hormones, and other essential substances to muscles, joints, nerves, connective tissues, and organs throughout the body. When cardiovascular health declines, people may experience fatigue, reduced exercise tolerance, weakness, swelling, shortness of breath, and difficulty remaining physically active.

These changes can have important consequences for the musculoskeletal system. Reduced activity can contribute to deconditioning, muscle weakness, stiffness, poor mobility, and greater difficulty managing chronic neck, back, and joint pain. Research also shows an important association between cardiovascular disease and chronic musculoskeletal pain, although this relationship is complex and does not prove that one condition directly causes the other (Oliveira et al., 2020; Rönnegård et al., 2026).

Chiropractic care should not be presented as a treatment for coronary artery disease, cardiomyopathy, heart failure, or other cardiovascular diseases. Instead, its potential role is supportive: helping appropriately selected patients address musculoskeletal pain, mobility limitations, biomechanics, and physical function so they can participate more comfortably in medically appropriate activity and rehabilitation.

From Dr. Alexander Jimenez, DC, APRN, FNP-BC’s clinical perspective, this distinction is especially important. Musculoskeletal complaints should be evaluated within the context of the whole patient because pain, weakness, fatigue, exercise intolerance, swelling, neuropathy, or other symptoms can sometimes overlap with systemic disease.

Why Heart Health Matters to the Whole Body

The heart and vascular system form the body’s transportation network. With every heartbeat, blood carries oxygen and nutrients to tissues while helping remove carbon dioxide and metabolic waste.

Healthy circulation supports:

  • Muscle contraction and recovery
  • Nerve function
  • Physical endurance
  • Tissue metabolism
  • Exercise capacity
  • Joint and connective-tissue health
  • Brain function
  • Kidney and organ function
  • Healing and rehabilitation

Cardiovascular disease remains one of the world’s largest health burdens. Important modifiable risk factors include physical inactivity, unhealthy dietary patterns, tobacco exposure, elevated blood pressure, abnormal blood glucose, abnormal blood lipids, and excess body weight (World Health Organization [WHO], n.d.).

Heart health and movement therefore have a two-way relationship. A healthier cardiovascular system makes physical activity easier, while regular physical activity can help improve blood pressure, glucose regulation, weight management, cardiovascular fitness, and overall physical function (American Heart Association [AHA], 2024).

The Heart-Musculoskeletal Connection

The musculoskeletal system includes muscles, bones, joints, tendons, ligaments, and connective tissues. These structures require adequate circulation and regular mechanical loading to function well.

When cardiovascular disease reduces a person’s ability to exercise, a cycle can develop:

Cardiovascular limitations -> fatigue or exercise intolerance -> less movement -> muscle weakness and deconditioning -> reduced mobility -> greater difficulty exercising

This relationship becomes especially important for patients already living with back pain, neck pain, arthritis, obesity, diabetes, or other chronic conditions.

The WHO notes that musculoskeletal conditions can significantly restrict mobility and participation in everyday activities and commonly coexist with other noncommunicable diseases, including cardiovascular disease (WHO, 2022).

That overlap deserves clinical attention.

Chronic Musculoskeletal Pain and Cardiovascular Disease

Researchers have found significant associations between chronic musculoskeletal pain and cardiovascular disease.

In a systematic review and meta-analysis, Oliveira et al. (2020) found that adults with chronic musculoskeletal pain were more likely to report cardiovascular disease than people without chronic musculoskeletal pain.

More recent evidence strengthens the case for clinicians to pay attention to this connection. A 2026 systematic review and meta-analysis found that chronic widespread pain was associated with increased risk of incident atherosclerotic cardiovascular disease. The authors emphasized that the available studies were heterogeneous and that the relationship should not automatically be interpreted as direct causation (Rönnegård et al., 2026).

Several factors may help explain this overlap.

Physical Inactivity

Pain can make people reluctant to move. A patient with chronic low back, hip, or knee pain may gradually walk less, exercise less, and spend more time sitting.

Physical inactivity is itself an important cardiovascular risk factor. Regular physical activity, by contrast, supports cardiovascular fitness while helping maintain muscle strength, bone health, mobility, body composition, and metabolic health (AHA, 2024).

Obesity and Metabolic Disease

Obesity can increase mechanical stress on weight-bearing joints while also increasing cardiovascular and metabolic risk.

A patient may therefore have several overlapping problems:

  • Low back or knee pain
  • Reduced mobility
  • Weight gain
  • Hypertension
  • Insulin resistance or diabetes
  • Abnormal cholesterol
  • Poor sleep
  • Physical deconditioning

Treating only one piece of this picture may leave important contributors unaddressed.

Chronic Inflammation

Inflammatory processes are involved in several musculoskeletal disorders and also play an important role in atherosclerosis and cardiovascular disease.

However, inflammation should not be used as a catch-all explanation. Cardiovascular disease is multifactorial, and individual risk depends on genetics, age, blood pressure, metabolic health, smoking, activity, diet, kidney function, medications, and many other factors.

Stress, Sleep, and Pain

Chronic pain may disrupt sleep and increase psychological stress. Poor sleep and chronic stress can then make pain harder to manage and may interfere with healthy activity, nutrition, weight control, and cardiovascular risk management.

The result can become another cycle:

Pain -> poor sleep and stress -> reduced activity -> metabolic strain -> greater physical deconditioning -> more difficulty managing pain

Heart Failure and the Musculoskeletal System

Heart failure provides a clear example of why cardiovascular and musculoskeletal health cannot always be separated.

Heart failure is a clinical syndrome in which abnormalities in cardiac structure or function can lead to symptoms such as shortness of breath, fatigue, exercise intolerance, and fluid retention (Heidenreich et al., 2022).

These symptoms can substantially reduce activity.

When patients move less, they may lose strength and endurance. The original clinical material from Dr. Jimenez similarly emphasizes that patients with chronic heart failure can experience deconditioning, muscle loss, postural changes, and secondary musculoskeletal complaints, making mobility and rehabilitation important supportive considerations.

For medically stable patients, appropriately prescribed exercise and cardiac rehabilitation can be valuable components of care. Cardiac rehabilitation is medically supervised and designed to improve physical, psychological, and social function in people with qualifying cardiovascular conditions (AHA, n.d.).

Chiropractic Care & Metabolism *The Hidden Link*- Video

Where Chiropractic Care Fits

An important distinction must be made:

Chiropractic care does not replace cardiology or evidence-based medical treatment for cardiovascular disease.

A chiropractic adjustment does not open a blocked coronary artery, reverse cardiomyopathy, replace heart-failure medications, or substitute for cardiac rehabilitation.

The more appropriate question is:

Can musculoskeletal care help a patient move and function better as part of a larger cardiovascular wellness or rehabilitation strategy?

For selected patients, the answer may be yes.

1. Addressing Musculoskeletal Pain

Back, neck, hip, and other musculoskeletal pain can block physical activity.

Chiropractic and rehabilitative care may address mechanical musculoskeletal complaints so patients can improve their tolerance for movement when exercise has been medically cleared.

The objective is not to “treat the heart” through the spine. It is to address musculoskeletal obstacles that may interfere with healthy movement.

2. Improving Mobility

Restricted spinal or joint movement can make walking, exercising, bending, lifting, and performing daily activities uncomfortable.

Depending on the patient’s diagnosis and cardiovascular status, a musculoskeletal program may include:

  • Appropriate chiropractic manipulation or mobilization
  • Gentle joint mobilization
  • Soft-tissue techniques
  • Corrective exercises
  • Flexibility work
  • Postural training
  • Strengthening
  • Balance exercises
  • Ergonomic modifications
  • Progressive rehabilitation

Improved mobility may make it easier for some patients to follow medically appropriate exercise recommendations.

3. Supporting Exercise Participation

Physical activity benefits cardiovascular and musculoskeletal health simultaneously.

The AHA recommends that most adults aim for at least 150 minutes of moderate-intensity aerobic activity or 75 minutes of vigorous activity per week, along with muscle-strengthening activity; people with chronic medical conditions should discuss appropriate activity with their healthcare professionals (AHA, 2024).

For patients with established cardiovascular disease, the treating medical or cardiac rehabilitation team may need to individualize the exercise prescription.

Chiropractic rehabilitation can complement this process by addressing musculoskeletal limitations that interfere with walking, strengthening, stretching, or other prescribed activities.

What About Chiropractic Care and the Autonomic Nervous System?

The relationship between spinal manipulation and autonomic nervous system activity has received considerable research attention.

Earlier research reported short-term changes in measures such as heart-rate variability following certain manual interventions (Borges et al., 2018). However, newer systematic-review evidence is more cautious.

A 2023 systematic review and meta-analysis found low-quality evidence that spinal manipulation generally did not produce significant changes across autonomic measures. However, it reported limited findings involving cervical manipulation and some heart-rate variability measures (Picchiottino et al., 2023).

Therefore, claims that chiropractic adjustments directly “balance the autonomic nervous system,” lower cardiovascular risk, or treat heart disease go beyond what current evidence can confidently support.

A better evidence-based interpretation is that chiropractic care can be considered primarily for its musculoskeletal role, while autonomic effects remain an area of continuing investigation.

Dr. Jimenez’s Clinical Perspective: Look Beyond the Pain

A key principle in Dr. Alexander Jimenez’s clinical approach is that musculoskeletal symptoms should not be viewed in isolation.

His professional materials emphasize integrative, evidence-informed care combining musculoskeletal evaluation, rehabilitation, functional health considerations, and collaboration across healthcare disciplines. His original heart-health material similarly describes a multidisciplinary approach in which cardiovascular conditions receive appropriate medical oversight while chiropractic and rehabilitative care address biomechanics, mobility, and musculoskeletal function.

This matters because a person who enters a chiropractic clinic complaining of back pain may also report:

  • Unusual shortness of breath
  • New exercise intolerance
  • Chest pressure
  • Dizziness
  • Unexplained fatigue
  • Palpitations
  • New swelling in both legs
  • Fainting
  • Unusual weakness

These findings should not simply be attributed to spinal dysfunction.

They may require medical or cardiovascular evaluation.

This “whole-patient” mindset is particularly important when musculoskeletal complaints coexist with hypertension, diabetes, obesity, dyslipidemia, kidney disease, previous heart attack, known coronary artery disease, or heart failure.

Dr. Jimenez’s professional profile likewise describes an integrative approach focused on mobility, musculoskeletal rehabilitation, functional health, and collaboration among healthcare professionals. (Jimenez, n.d.)

Musculoskeletal Clues Can Sometimes Point Beyond the Spine

Some systemic diseases can present with musculoskeletal or neurological symptoms.

The source clinical material highlights cardiac amyloidosis as an important example. Certain patients may develop bilateral carpal tunnel syndrome, peripheral neuropathy, autonomic symptoms, or lumbar spinal stenosis before cardiac disease becomes obvious.

This does not mean that ordinary carpal tunnel syndrome or spinal stenosis indicates heart disease.

Most cases do not.

Instead, it demonstrates why clinicians should consider the complete clinical picture rather than assuming every painful musculoskeletal symptom originates exclusively from mechanical dysfunction.

When Musculoskeletal Pain Could Be a Cardiovascular Warning Sign

Chest, shoulder, upper-back, arm, neck, or jaw discomfort is not always musculoskeletal.

Cardiac ischemia may sometimes produce discomfort outside the chest. The original clinical material emphasizes that symptoms may occur relatively late in the ischemic cascade and may include shortness of breath or pain involving the arm or jaw.

New or unexplained chest pressure or pain accompanied by symptoms such as shortness of breath, sweating, nausea, faintness, or radiating arm or jaw discomfort requires urgent medical evaluation.

This is another reason musculoskeletal clinicians should screen carefully rather than treating every upper-body pain complaint as a mechanical problem.

Building a Heart-Musculoskeletal Health Strategy

A comprehensive approach should address cardiovascular and musculoskeletal health together rather than viewing them as unrelated systems.

For an appropriate patient, the plan may involve medical evaluation and cardiovascular risk management, along with gradual physical activity, resistance exercise, mobility work, weight management, nutritious eating, adequate sleep, stress management, and treatment of limiting musculoskeletal pain.

The cardiovascular team manages cardiovascular disease.

The musculoskeletal team helps remove physical barriers to movement.

Nutrition and metabolic care address relevant risk factors.

Rehabilitation helps rebuild function.

The patient becomes the center connecting these disciplines.

Movement Is the Common Ground

One of the strongest connections between cardiovascular and musculoskeletal health is movement.

Physical activity helps condition the cardiovascular system while supporting muscle strength, bone health, balance, mobility, glucose regulation, and body-weight management (AHA, 2024).

But telling someone to “exercise more” is not always enough.

Someone with severe low back pain, knee osteoarthritis, neck pain, weakness, or poor balance may struggle to follow that advice.

This is where appropriate musculoskeletal treatment can have an important supportive role. If pain and movement limitations decrease, the patient may be better positioned to participate in walking, strengthening, cardiac rehabilitation, or another medically approved activity program.

The Bottom Line

Heart health and musculoskeletal health are deeply connected through movement, physical conditioning, metabolism, inflammation, and overall functional capacity.

Chronic cardiovascular disease can contribute to fatigue, reduced activity, exercise intolerance, and physical deconditioning. At the same time, chronic musculoskeletal pain may reduce movement and, in population research, is associated with a greater burden of cardiovascular disease (Oliveira et al., 2020; Rönnegård et al., 2026).

Chiropractic care should not be promoted as a treatment for heart disease. Its strongest role in this setting is supportive: addressing appropriate musculoskeletal pain and mobility limitations, improving physical function, and helping patients participate in medically appropriate exercise and rehabilitation.

From the integrative clinical perspective used by Dr. Alexander Jimenez, DC, APRN, FNP-BC, the larger lesson is to look beyond a single painful joint or spinal region. A patient’s cardiovascular, metabolic, neurological, and musculoskeletal systems interact. Good care recognizes those connections, identifies red flags, respects professional boundaries, and coordinates treatment when multiple systems are involved.

Supporting the patient’s ability to move safely may ultimately support much more than the spine. It can become part of a broader strategy for maintaining cardiovascular fitness, strength, independence, and long-term quality of life.

References

American Heart Association. (2024). American Heart Association recommendations for physical activity in adults and kids.

American Heart Association. (n.d.). Cardiac rehabilitation for heart failure.

Borges, B. L. A., Bortolazzo, G. L., & Pasin Neto, H. (2018). Effects of spinal manipulation and myofascial techniques on heart rate variability: A systematic review. Journal of Bodywork and Movement Therapies, 22(1), 203-208. https://doi.org/10.1016/j.jbmt.2017.09.025

Heidenreich, P. A., Bozkurt, B., Aguilar, D., et al. (2022). 2022 AHA/ACC/HFSA guideline for the management of heart failure. Circulation, 145(18), e895-e1032. https://doi.org/10.1161/CIR.0000000000001063

Jimenez, A. (n.d.). Dr. Alexander Jimenez, DC, APRN, FNP-BC – Professional profile. LinkedIn.

Oliveira, C. B., Maher, C. G., Franco, M. R., Kamper, S. J., Williams, C. M., Silva, F. G., & Pinto, R. Z. (2020). Co-occurrence of chronic musculoskeletal pain and cardiovascular diseases: A systematic review with meta-analysis. Pain Medicine, 21(6), 1106-1121. https://doi.org/10.1093/pm/pnz217

Picchiottino, M., et al. (2023). Effectiveness of spinal manipulation in influencing the autonomic nervous system: A systematic review and meta-analysis.

Rönnegård, A.-S., Schillemans, T., Äng, B., Boersma, K., Ärnlöv, J., & Tseli, E. (2026). Chronic widespread pain and the risk of cardiovascular disease: A systematic review and meta-analysis. Pain, 167(6), 1295-1307. https://doi.org/10.1097/j.pain.0000000000003965

World Health Organization. (2022). Musculoskeletal health.

World Health Organization. (n.d.). Cardiovascular diseases.

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The Weekend Recovery Trap: Why Tech and Shift-Work Parents Spend Their Days Off Exhausted

The Weekend Recovery Trap: Why Tech and Shift-Work Parents Spend Their Days Off Exhausted

Abstract: Tech parents and shift workers may spend weekends recovering instead of enjoying time with family. Sleep debt, rotating schedules, pain, inconsistent meals, limited movement, caffeine, and medical conditions can all contribute. This article explains the weekend “crash,” practical recovery strategies, and when integrated chiropractic and medical evaluation may uncover treatable causes.

The Weekend Recovery Trap: Why Tech and Shift-Work Parents Spend Their Days Off Exhausted

Friday night arrives. The laptop closes, the warehouse shift ends, or the data-center handoff is complete. A parent imagines breakfast with the kids, errands, a game at the park, and dinner together.

They sleep late, wake stiff, need coffee, and spend much of the day recovering. By Sunday evening, they may feel better—just in time for another demanding week. For tech workers, Amazon associates, data-center employees, and rotating-shift parents, days off can become repair days instead of family days.

Why the Crash Shows Up on Days Off

During the workweek, alarms, caffeine, deadlines, responsibility, and momentum can keep a person moving even when recovery is incomplete. When those demands stop, accumulated tiredness becomes harder to ignore.

Nonstandard schedules and extended hours can shorten or disrupt sleep and contribute to work-related fatigue. Fatigue can affect attention, reaction time, memory, and judgment (National Institute for Occupational Safety and Health [NIOSH], 2026). It can also reduce the energy available for family responsibilities.

A parent may “make it through” the week while borrowing energy from the weekend.

Sleep Debt Is Real, but Weekends Are Not a Reset Button

Adults generally need about seven to eight hours of sleep nightly, although needs vary. Repeated short sleep creates sleep debt. Sleeping longer on days off may help temporarily, but it does not completely replace consistent nighttime sleep (National Heart, Lung, and Blood Institute [NHLBI], 2022).

If weekday wake-up time is 5:30 a.m. but weekend wake-up time drifts toward 10:00 a.m., the body clock receives a different signal. NHLBI recommends keeping weekday and weekend schedules close because large shifts can disturb the sleep-wake rhythm.

For rotating-shift workers, perfect consistency may be impossible. The goal is reducing avoidable swings.

A Practical Sleep Strategy

  • Protect a realistic sleep window on work nights.
  • Keep wake times as consistent as the schedule allows.
  • Use caffeine strategically, not continuously.
  • Avoid caffeine close to planned sleep.
  • Make daytime sleep after night shifts dark, quiet, and cool.
  • Ask family members to protect essential sleep after long or overnight shifts.

Sleep is not wasted family time. It helps make engaged family time possible. Even small improvements can create more usable family energy.

Meal Timing and Caffeine Can Keep the Cycle Going

Busy parents often eat when they can. Breakfast disappears, lunch happens at a workstation, and dinner gets pushed late by overtime, commuting, or children’s activities.

Irregular meals don’t automatically cause fatigue, but energy management gets harder when they combine with poor sleep, dehydration, or long stretches without food.

Caffeine can become a bridge. An afternoon energy drink may help finish a ticket queue, warehouse assignment, server repair, or commute. But caffeine used too late can interfere with the next sleep period and help create tomorrow’s need for more caffeine.

Ask: “What job is caffeine doing for me, and what happens to my sleep afterward?”

Pain Can Drain Energy Even When You Keep Working

A parent with neck tension, low-back pain, headaches, shoulder discomfort, or aching feet may spend the day guarding movement. They shift positions, brace, avoid lifting, sleep awkwardly, and use extra mental effort to stay productive.

Chiropractic care can be appropriate when examination identifies a musculoskeletal problem. For low-back pain, spinal manipulation is one of several nondrug approaches that may produce small improvements in pain and function for some patients (National Center for Complementary and Integrative Health [NCCIH], 2022). Care should fit the diagnosis, risks, preferences, and other appropriate treatments.

The goal at ChiroMed is not to “adjust away” fatigue. It is to reduce mechanical strain that may be consuming energy while medical contributors are evaluated when needed.

Movement Helps Recovery Without Becoming Another Job

Long sitting during programming, monitoring, dispatch, security work, or commuting can stiffen the spine, shoulders, hips, and calves. Warehouse work creates another pattern: hours of physical loading followed by near-complete inactivity on days off.

Recovery can include gentle movement without becoming another performance demand. Try a short family walk, easy mobility after waking, light outdoor activity, or several five-minute movement breaks.

If activity causes pain, dizziness, unusual breathlessness, or profound worsening afterward, adjust the activity and have the pattern evaluated instead of pushing through.

Persistent Fatigue Deserves a Medical Differential

If weekends repeatedly disappear into exhaustion despite adequate opportunity for sleep, fatigue deserves clinical attention.

Evaluation starts with history, examination, sleep patterns, medication review, nutrition, mental health, work schedule, and associated symptoms. Testing should follow the individual findings rather than a one-size-fits-all panel. Depending on the history, clinicians may consider anemia or iron problems, thyroid disease, glucose regulation, kidney or liver issues, vitamin deficiencies, sleep apnea, medication effects, infection, cardiopulmonary conditions, or other causes (Latimer et al., 2023).

Clues worth discussing include:

  • Loud snoring, gasping, or witnessed breathing pauses.
  • Enough sleep hours without feeling refreshed.
  • New exercise intolerance or unusual shortness of breath.
  • Heavy menstrual bleeding or another possible source of iron loss.
  • Unexplained weight change, temperature intolerance, or palpitations.
  • Fatigue after starting a new medication or changing your dose.
  • Persistent low mood, anxiety, weakness, numbness, fainting, or chest pain.

These clues do not diagnose the cause. They help guide the next step.

What About Hormones or BHRT?

Hormones can matter, but fatigue alone does not prove a hormone deficiency.

When clinical history and appropriate findings point to a defined endocrine problem or menopausal indication, hormone therapy may be discussed through shared decision-making. Bioidentical hormone replacement therapy should not be treated as an energy treatment. Professional guidance emphasizes accurate diagnosis, individualized risk assessment, and monitoring. Compounded bioidentical products should not be assumed safer or more effective than FDA-approved options (American College of Obstetricians and Gynecologists [ACOG], 2023).

Patients should understand the reason for treatment, alternatives, expected benefits, uncertainties, and risks before deciding.

Integrated Care Should Give the Weekend Back

ChiroMed’s integrated model allows us to examine fatigue from more than one direction.

Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, bridges chiropractic structural care, mechanical rehabilitation, functional medicine nutrition, and advanced medical diagnostics. Alongside Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine with over 40 years of experience, care can coordinate musculoskeletal findings with medical evaluation, laboratory testing, medication review, metabolic risk assessment, and sleep concerns when clinically appropriate.

This supports beneficence by addressing identified contributors. It supports non-maleficence by favoring appropriate conservative, non-invasive options when suitable and avoiding unnecessary procedures or medication dependence. It supports autonomy by giving patients understandable choices while coordinating with their existing healthcare team.

A Family-Centered Recovery Plan

For one week, track sleep timing, caffeine timing, pain, and end-of-day energy. Then make one small change rather than rebuilding your entire routine.

That change might be an earlier caffeine cutoff, a protected bedtime, a ten-minute walk with the kids, a more consistent meal, or an evaluation for pain that interrupts sleep.

If the pattern continues, bring the record to a clinician. Specific information is more useful than simply saying, “I am tired all the time.”

The goal isn’t to squeeze more productivity from an exhausted body. It is having enough energy after work to cook dinner, attend a game, help with homework, take a walk, laugh with your family, and still feel like yourself.


References

American College of Obstetricians and Gynecologists. (2023). Compounded bioidentical menopausal hormone therapy. Clinical Consensus No. 6.

Latimer, K. M., Gunther, A., & Kopec, M. (2023). Fatigue in adults: Evaluation and management. American Family Physician, 108(1), 58–69.

National Center for Complementary and Integrative Health. (2022). Spinal manipulation: What you need to know. U.S. Department of Health and Human Services.

National Heart, Lung, and Blood Institute. (2022). Sleep deprivation and deficiency: How much sleep is enough?. National Institutes of Health.

National Institute for Occupational Safety and Health. (2026). Fatigue and work. Centers for Disease Control and Prevention.

Chiropractic Rehabilitation Strategies That Work for Shoulder Pain

Find the best practices for chiropractic rehabilitation to relieve pain and restore function from shoulder pain.

Abstract

Shoulder pain is a common yet complex issue that can significantly impact one’s quality of life. In this educational post, I will guide you through a fascinating and often underdiagnosed cause of shoulder pain and weakness: suprascapular neuropathy. We will explore this condition from its subtle beginnings to its profound effects on muscle function, particularly in active individuals like weightlifters. This journey will draw on the latest evidence-based research from leading experts in neurology, orthopedics, and anatomy. I will detail the suprascapular nerve’s intricate anatomy, explain the physiological mechanisms of nerve compression, and walk you through a clinical case study, including the diagnostic thought process and an injection procedure aimed at providing relief.
This post will also highlight the power of an integrative healthcare model. I will explain how my practice, Injury Medical Clinic PA, functions as a multidisciplinary team. This includes my role as a Doctor of Chiropractic and Board-Certified Family Nurse Practitioner, working closely with our esteemed Medical Director, Dr. Maria Guadalupe Cardenas, MD. Dr. Cardenas, a Board-Certified Internist with over four decades of experience, provides crucial medical oversight, allowing us to seamlessly blend chiropractic care, functional medicine, rehabilitation, and conventional medical treatments. We will discuss how this synergistic approach—combining spinal adjustments, soft tissue therapies, targeted rehabilitation, and medical interventions—offers a comprehensive and patient-centered solution for conditions like suprascapular neuropathy, aiming not just for pain relief but for long-term functional restoration.

The Collaborative Care Model at Injury Medical Clinic

Before we delve into the specifics of shoulder pathology, I believe it’s essential to set the stage by explaining the unique and powerful clinical environment we’ve cultivated here at Injury Medical Clinic PA in El Paso, Texas. Our philosophy is rooted in the understanding that the human body is an interconnected system, and effective treatment often requires a multifaceted approach that transcends the boundaries of any single discipline.
This is where our collaborative model truly shines. I am Dr. Alex Jimenez, and my background is extensive, holding credentials as a Doctor of Chiropractic (DC), an Advanced Practice Registered Nurse (APRN), a Board-Certified Family Nurse Practitioner (FNP-BC), and certifications in Functional Medicine (CFMP, IFMCP), Anti-Aging Medicine (ATN), and Cranial-Cervical Spinal Therapy (CCST). This diverse training allows me to view patient health through multiple lenses—from the biomechanical and neurological perspective of chiropractic to the systemic and diagnostic framework of a nurse practitioner and the root-cause analysis of functional medicine.
However, the cornerstone of our integrative practice is our collaboration with Dr. Maria Guadalupe Cardenas, MD. Dr. Cardenas is a highly respected physician, Board-Certified in Internal Medicine, and has dedicated over 40 years to patient care. As our Medical Director and Collaborative Physician, she provides invaluable medical oversight and expertise. Her NPI is #1164426749, and she is licensed in Texas under #J2933. This MD-DC collaboration is a modern, evidence-based structure common in high-level injury and integrative care clinics. It ensures that our patients receive a comprehensive spectrum of care that is both safe and effective.

How Our Team Works Together

Our model is designed for synergy. Here’s how the different components integrate:

  • Medical Oversight (Dr. Cardenas): Dr. Cardenas provides the essential medical framework for our practice. She reviews complex cases, offers diagnostic insights from an internal medicine perspective, and oversees medical procedures, including prescriptive authority for medications and advanced interventions. Her role ensures that all treatments meet the highest standards of medical care and that any underlying medical conditions (comorbidities) are appropriately managed.
  • Chiropractic and Neuromusculoskeletal Care (Dr. Jimenez): As a chiropractor, my primary focus is the body’s structure and its relationship to nervous system function. Through precise spinal adjustments, I address vertebral subluxations that can interfere with nerve signaling and contribute to pain patterns, including referred shoulder pain. We use techniques like spinal decompression to alleviate pressure on nerve roots and improve overall spinal health, which is foundational to peripheral nerve function.
  • Advanced Practice Nursing & Functional Medicine (Dr. Jimenez): As a Family Nurse Practitioner, I can bridge the gap between chiropractic and conventional medicine. This includes performing detailed physical examinations, ordering and interpreting diagnostic imaging and labs, and, under the collaborative agreement with Dr. Cardenas, administering treatments like the therapeutic injections we will discuss today. My functional medicine training drives me to look deeper—investigating nutritional deficiencies, hormonal imbalances, and inflammatory triggers that can impede healing and contribute to chronic conditions.
  • Rehabilitation and Personal Injury: Our clinic specializes in helping patients recover from injuries, whether from an auto accident, a workplace incident, or, as in our case study, a sports-related activity. Our rehabilitation programs are customized to restore strength, mobility, and proper biomechanics, preventing re-injury.

This integrated system allows us to create a truly personalized treatment plan. For a patient with shoulder pain, the journey might involve chiropractic adjustments to the cervical and thoracic spine to ensure proper nerve flow, medical evaluation by Dr. Cardenas to rule out systemic causes, a diagnostic ultrasound or injection performed by me as an FNP, and a targeted rehabilitation program to strengthen the rotator cuff and scapular stabilizers. It’s a holistic ecosystem of care under one roof.

A Clinical Encounter: Understanding Vague Shoulder Pain in a Young Athlete

Let’s turn to a case that illustrates the complexities of shoulder diagnostics and the importance of a detailed clinical investigation. On September 2, 2026, an 18-year-old gentleman came to our clinic with a complaint that is all too common yet notoriously difficult to pinpoint: vague pain and weakness in his left shoulder.

The Patient’s Story: Insidious Onset and Progressive Weakness

His history is crucial. The symptoms didn’t start with a sudden, traumatic event. Instead, he described an insidious onset over the past five months. The pain was initially a minor nuisance but has progressively worsened. A key piece of information he provided was that the pain intensifies at night, often disrupting his sleep—a classic sign of inflammatory or compressive pathology in the shoulder.
Another vital clue came from his lifestyle. He is a dedicated weightlifter and has been seriously training for the last seven to eight years. Recently, he noticed a significant decline in his performance. Specifically, he’s been struggling with two fundamental movements in the gym:

  • Abduction: Lifting his arm out to the side.
  • External Rotation: Rotating his forearm outward with his elbow bent at his side.

These movements aren’t random exercises; specific rotator cuff muscles control them. His difficulty with them points us toward a more specific diagnosis than just “shoulder strain.”

The Physical Examination: Uncovering the Telltale Signs

A thorough physical examination is where the puzzle pieces start to fit together. When I compared his left shoulder to his right, the difference was striking. I observed significant atrophy, or muscle wasting, in two key areas on the left side:

  1. The Infraspinatus Muscle: This muscle sits on the lower part of the shoulder blade.
  2. The Supraspinatus Muscle: This muscle is located in the fossa, or depression, above the spine of the scapula.

This atrophy pattern—involving both the supraspinatus and infraspinatus—is a strong diagnostic indicator. The suprascapular nerve innervates both muscles. Weakness in abduction (a primary function of the supraspinatus) and external rotation (the primary function of the infraspinatus), combined with visible atrophy in both muscles, led me to a strong clinical suspicion: suprascapular neuropathy.
This is not a simple muscle strain. This is a compression neuropathy, a condition in which a nerve is squeezed or entrapped along its path, disrupting its ability to send signals to the muscles it controls. The result is pain, weakness, and, over time, muscle wasting.

Anatomy Deep Dive: The Journey of the Suprascapular Nerve

To understand suprascapular neuropathy, we must first trace the nerve’s path. It’s a fascinating anatomical journey, but also a perilous one, with several potential entrapment sites.
The suprascapular nerve is a peripheral nerve that originates from the brachial plexus, the complex network of nerves that extends from the neck into the arm. Specifically, it arises from the upper trunk of the brachial plexus, with contributions from the C5 and C6 spinal nerve roots. This matters for us as chiropractors because dysfunction in the cervical spine (the C5/C6 region) can affect the health and function of the entire nerve downstream.
From its origin, the nerve travels deep through the posterior triangle of the neck, heading toward the shoulder blade (scapula). Its journey becomes critical at two specific locations.

The First Point of Entrapment: The Suprascapular Notch

The first and most common site of compression is the suprascapular notch. This is a small, U-shaped or V-shaped indentation on the scapula’s superior border. The superior transverse scapular ligament stretches across the top of this notch, converting it into a foramen, or tunnel.

  • The Nerve’s Path: The suprascapular nerve passes through this tunnel, underneath the ligament.
  • The Artery’s Path: The suprascapular artery and vein typically pass over the ligament, not through the tunnel with the nerve.

This anatomical arrangement sets up potential trouble. Any condition that narrows this already tight space can compress the nerve. According to Rengachary et al. (1979), the notch shape itself can predispose to compression. A narrow, V-shaped notch provides less room for the nerve than a wide, U-shaped notch.
What causes compression at the notch?

  • Ligament Thickening: The superior transverse scapular ligament can become hypertrophied (thickened) or calcified, reducing the space for the nerve.
  • Ganglion Cysts: These are fluid-filled sacs that can arise from the nearby glenohumeral (shoulder) joint, often due to a labral tear. These cysts can extend into the notch and press directly on the nerve. This is a very common cause, highlighted in numerous orthopedic studies.
  • Repetitive Overhead Motion: Activities common in sports like weightlifting, volleyball, and baseball involve repetitive scapular protraction and retraction. This motion can cause a “sling effect,” where the nerve is repeatedly stretched and angulated against the ligament’s hard edge, leading to microtrauma, inflammation, and eventual neuropathy (Antoniou et al., 2001).
  • Trauma: A fracture of the scapula or clavicle can directly injure the nerve or alter notch anatomy.

When the nerve is compressed at the suprascapular notch, it affects signals to both the supraspinatus and infraspinatus muscles. This matches our patient’s presentation perfectly.

The Second Point of Entrapment: The Spinoglenoid Notch

After passing through the suprascapular notch and giving off motor branches to the supraspinatus muscle, the nerve continues its journey. It wraps around the lateral edge of the scapular spine to reach the infraspinatus fossa. Here, it passes through a second potential compression site: the spinoglenoid notch.
The spine of the scapula and the neck of the glenoid form this notch. The inferior transverse scapular ligament (also called the spinoglenoid ligament) is sometimes present and can contribute to entrapment here.
Compression at the spinoglenoid notch is different from compression at the suprascapular notch. Because the motor branches to the supraspinatus have already been given off, isolated compression at this location will affect only the infraspinatus muscle.
A patient with spinoglenoid notch syndrome would present with:

  • Weakness and atrophy only in the infraspinatus muscle.
  • Difficulty with external rotation.
  • No weakness in abduction and no supraspinatus atrophy.
  • Often, the pain is less prominent and described as a deep, dull ache in the back of the shoulder.

This is a key differential diagnosis. In our patient’s case, the involvement of both muscles strongly points to the more proximal compression site: the suprascapular notch.

The Clinical Decision: A Diagnostic and Therapeutic Injection

Based on the history, the classic pattern of muscle atrophy, and the specific weakness observed during the physical exam, my working diagnosis is suprascapular neuropathy secondary to compression at the suprascapular notch. While advanced imaging like an MRI or a nerve conduction study (NCS) would be the definitive way to confirm the diagnosis and identify a structural cause like a ganglion cyst, a diagnostic and therapeutic injection is an excellent first step.

Why an Injection? The Rationale

The procedure we are about to perform serves two primary purposes:
Diagnostic: By injecting a local anesthetic (lidocaine) near the suprascapular nerve, we can temporarily block the pain signals. If the patient experiences significant pain relief after the injection, it helps confirm that the suprascapular nerve is indeed the source of their pain.
Therapeutic: We are also including a corticosteroid in the injection. Corticosteroids are powerful anti-inflammatory agents. If nerve compression is caused by inflammation of the surrounding tissues or the nerve itself (neuritis), the steroid can reduce swelling, decompressing the nerve and providing longer-lasting relief. This can break the pain-inflammation cycle and create a window for effective rehabilitation.
This approach is well supported in the literature as both a diagnostic tool and a conservative treatment option for suprascapular neuropathy, particularly when a large, surgically resectable cause like a massive ganglion cyst is not immediately suspected (Boykin et al., 2010).

Landmark-Based Injection Technique: A Step-by-Step Guide

Performing this injection accurately without ultrasound guidance requires a thorough knowledge of surface anatomy. Here is the precise, step-by-step method I used to locate the injection site, ensuring we are as close as possible to the suprascapular notch.

Step 1: Identifying the Bony Landmarks

The entire procedure is anchored by three key bony landmarks on the scapula:

  • The Coracoid Process: A hook-like projection on the front of the scapula. I palpate deep in the soft tissue just medial to the head of the humerus. I can feel it right there. I asked the patient, “Does that hurt a little bit? Right there?” He initially said no, but then confirmed with a “Yeah, you got it. Felt that,” as I applied precise pressure. I placed a small mark on this spot.
  • The Spine of the Scapula: This is the prominent ridge that runs horizontally across the back of the shoulder blade. I trace it from the medial border of the scapula to its lateral tip.
  • The Acromion: This is the bony tip of the shoulder, which is the lateral extension of the scapular spine. I palpate the very end of it and make a mark.

Step 2: Mapping the Injection Site

Now, we use these landmarks to map the injection site on the patient’s skin.

  • First, I mark the point on the medial border of the scapula where the spine begins.
  • Next, I identify the midpoint between this medial starting point and the tip of the acromion along the scapular spine. I make a mark here.
  • Now, I draw an imaginary line connecting this midpoint of the scapular spine to the coracoid process mark I made on the front of his shoulder.
  • The injection point is the midpoint of this line.

Let’s visualize this. We have created a line that runs from the front of the shoulder (coracoid) to the top of the shoulder blade (mid-spine). The center of this line is our target. This location places us directly over the supraspinatus fossa, the depression where the supraspinatus muscle lies. More importantly, it is anatomically very close to the suprascapular notch, which lies deep to this muscle.
I make a final, definitive mark at this injection site by pressing firmly with the retracted tip of a ballpoint pen. This creates a small indentation in the skin that will remain even after I clean the area.

Step 3: Preparing for a Sterile Procedure

Patient safety is paramount. Before any needle touches the skin, we must ensure the area is sterile to prevent infection.

  • First, I use an alcohol pad to clean the entire area and remove the ink marks I made. The small indentation from the pen tip remains as my guide.
  • Next, I apply Betadine (povidone-iodine), an antiseptic solution. I apply it generously over the injection site. This is a critical step to “kill germs” and minimize the risk of introducing bacteria into the deep tissues or joint space.

Step 4: The Injection Cocktail and Anesthesia

The medication we are using is a specific combination designed for both immediate and sustained effect.

  • The Medication: 1 mL of 1% Lidocaine with Epinephrine, combined with 1 mL of a corticosteroid solution (e.g., Triamcinolone or Methylprednisolone).
    • Lidocaine: A local anesthetic that provides rapid pain relief and serves the diagnostic purpose of the block.
    • Epinephrine: A vasoconstrictor that is mixed with the lidocaine. It narrows local blood vessels, which has two benefits: it reduces bleeding and keeps the lidocaine in the target area longer, prolonging its anesthetic effect.
    • Corticosteroid: An anti-inflammatory agent that provides the long-term therapeutic effect by reducing nerve inflammation and swelling.
  • The Needle: A 1-inch, 25-gauge needle. The 1-inch length is sufficient to reach the floor of the supraspinatus fossa in a lean individual, and the 25-gauge is a fine needle that minimizes patient discomfort.

To make the initial needle poke as comfortable as possible, I use a topical anesthetic spray.

  • Pain Ease Vapocoolant Spray: I tell the patient, “So here’s the free spray I was telling you about.” I spray it directly onto the injection site until the skin turns white. This chemical reaction rapidly cools and numbs the superficial skin layer, making the needle entry virtually painless. I confirm, “Does that hurt at all?” He responds, “No.”

Step 5: Performing the Injection

With the site prepped and numbed, the procedure itself is quick and precise.

  • The Entry: I hold the syringe like a dart and insert the needle perpendicular to the skin, directly into the marked spot.
  • The Depth: I advance the needle straight down until I feel it gently touch the bone. This is the floor of the supraspinatus fossa. This tactile feedback is a crucial safety measure; it confirms my depth and assures me I am in the correct plane, just above the scapula.
  • The Withdrawal and Aspiration: I then pull the needle back just a millimeter or two. This is critical. We want the medication to disperse in the soft tissue space around the nerve, not be injected directly into the bone or into a blood vessel. Before injecting, I aspirate—pulling back slightly on the plunger. This ensures I haven’t inadvertently entered the suprascapular artery, which runs near the nerve. If blood were to appear in the syringe hub, I would need to reposition the needle. In this case, no blood returns. “Make sure you’re not in the suprascapular artery,” I note aloud.
  • The Injection: With the needle in the correct position, I slowly and steadily inject the 2 mL of solution. The patient feels no pain. “There we go. That’s injected there.”
  • Finishing Up: I withdraw the needle and immediately apply a bandage. I ask the patient, “Did that hurt?” He confirms, “No.” “Good,” I reply.

Post-Injection Protocol: Activating the Muscle and Dispersing the Medication

The procedure isn’t over once the bandage is on. The next few moments are crucial to maximizing the injection’s effectiveness.

Massaging the Area

First, I instruct the patient to help disperse the medication. “Now, go ahead and take your other hand and rub this. Rub this in, right. Right in there, just give firm fingertips right there, and kind of firmly rub in.”
This firm massage helps to manually spread the anesthetic and corticosteroid solution throughout the supraspinatus fossa. We want the medication to bathe the suprascapular nerve and the surrounding inflamed tissues, not just sit in a single pocket. This increases the contact surface area and enhances the therapeutic effect.

Active Range of Motion Exercises

After a moment of massage, I have the patient perform active movements. This is a form of “neurodynamic flossing” and muscle activation.
“Okay, now while you’re sitting right here, you can stop rubbing. Let’s go ahead and bring your arm up like that, and down.”

  • Abduction: I have him repeatedly perform abduction, lifting his arm to the side. “Okay, up again, and down. Okay, do that a couple times, and do it a little faster.”
    • The Rationale: This movement specifically contracts the supraspinatus muscle, the primary muscle for initiating abduction. Contracting the muscle acts like a pump, further dispersing the medication deep within the muscle belly and around the nerve. It also encourages the nerve to glide within its fascial planes. I explain, “We’re basically running the arm through abduction there to spread it out here in the area. That’s the supraspinatus muscle that’s responsible for that, for the most part.” I also make a clinical observation: “Although you can see he’s got quite a bit of deltoid that kicks in here,” noting that his body may be using compensatory strategies (over-relying on the deltoid) to make up for the weakened supraspinatus.
  • External Rotation: Next, we target the second affected muscle. “And now let’s do external rotation, rotate it out like that, back and forth a few times, doing that.”
    • The Rationale: This movement specifically contracts the infraspinatus muscle. By activating this muscle, we help spread the medication along the nerve’s path as it travels toward the spinoglenoid notch. This ensures that the entire distal portion of the nerve benefits from the anti-inflammatory effect.

These immediate post-injection exercises are a critical part of the protocol. They use the body’s own muscular contractions to ensure the therapeutic agents reach their intended targets effectively. “Very good,” I conclude, as he completes the movements smoothly.

The Integrative Chiropractic and Rehabilitation Plan: The Path to Full Recovery

The injection is a powerful tool, but it is not a cure-all. It is an intervention designed to break the cycle of pain and inflammation. The real long-term solution lies in addressing the root causes through a comprehensive, integrative approach. This is where the synergy of our clinic, under the medical direction of Dr. Cardenas and with my multifaceted expertise, truly comes into its own.
Our plan for this young athlete will be multi-pronged, focusing on biomechanics, nerve health, muscle function, and systemic factors.

1. Chiropractic Care: Restoring Neurological Integrity from the Source

The health of a peripheral nerve like the suprascapular nerve is intrinsically linked to the health of the spinal column from which it originates. The nerve roots for the suprascapular nerve are C5 and C6.

  • Cervical and Thoracic Adjustments: I will perform a thorough chiropractic evaluation of the patient’s cervical and upper thoracic spine. Misalignments, or vertebral subluxations, in this region can create nerve interference at the root level. This can lead to a “double crush” phenomenon, where a nerve that is mildly compressed at the spine is more susceptible to a second, more significant compression peripherally (at the suprascapular notch). As proposed by Upton and McComas (1973), this double crush syndrome can explain why some individuals develop neuropathies while others with similar anatomical variations do not. By delivering precise chiropractic adjustments, we can restore proper motion to the spinal joints, reduce pressure on the nerve roots, and support optimal nerve signaling from the spinal cord to the shoulder muscles.
  • Spinal Decompression: If imaging or examination suggests disc-related issues in the cervical spine, non-surgical spinal decompression may be utilized. This therapy applies a gentle, calculated traction force to the neck, which can help to reduce pressure on the nerve roots and improve the flow of nutrients and oxygen to the discs and surrounding tissues.

2. Targeted Soft Tissue and Myofascial Release

The muscles and fascia around the shoulder blade can become tight, fibrotic, and full of trigger points, especially with chronic dysfunction.

  • Active Release Technique (ART) and Graston Technique: I will use advanced soft tissue techniques to address adhesions in the supraspinatus, infraspinatus, subscapularis, trapezius, and pectoral muscles. Chronic rotator cuff weakness often leads to compensatory overuse and tightness in other muscles. Releasing these adhesions can improve blood flow, restore normal muscle-tendon gliding, and reduce mechanical stress on the entire shoulder girdle.
  • Scapular Mobilization: We will manually mobilize the scapula to ensure it glides freely over the rib cage. Poor scapular mechanics, or scapular dyskinesis, is a major contributor to shoulder impingement syndromes and can exacerbate the “sling effect” on the suprascapular nerve.

3. A Phased Rehabilitation Program

With the injection managing pain and inflammation, we have a critical window to begin strengthening weakened muscles and correcting faulty movement patterns. The program will be progressive:

  • Phase 1: Activation and Proprioception (Immediate Post-Injection): Focus on re-establishing the mind-muscle connection. We will use isometric contractions for external rotation and abduction. For example, gently press the back of your hand against a wall for external rotation without moving. We will also work on proprioceptive exercises, like balancing on one leg while making small, controlled arm movements, to retrain the nervous system’s sense of joint position.
  • Phase 2: Scapular Stability: This is the foundation of shoulder health. We will introduce exercises like scapular wall slides, rows focused on scapular retraction, and push-up plus exercises. The goal is to strengthen the serratus anterior, rhomboids, and lower trapezius—the key muscles that control scapular position and movement. A stable scapula provides a solid base for the rotator cuff to function from, reducing strain on the glenohumeral joint and the suprascapular nerve.
  • Phase 3: Rotator Cuff Strengthening: As the nerve begins to recover and muscle activation improves, we will begin concentric and eccentric strengthening of the supraspinatus and infraspinatus. This will involve using light resistance bands or dumbbells for abduction in the scapular plane (“scaption”) and external rotation exercises. The focus will be on perfect form and endurance, not heavy weight.
  • Phase 4: Return to Sport: This final phase is about re-integrating complex, sport-specific movements. For our weightlifter, this means meticulously analyzing his lifting form (e.g., bench press, overhead press) and correcting any biomechanical faults that may have contributed to the neuropathy. We may need to modify his grip width, adjust his range of motion, and ensure proper scapular engagement during all lifts.

4. Functional Medicine and Nutritional Support

As a functional medicine practitioner, I also look at the systemic factors that influence tissue healing and inflammation.

  • Anti-Inflammatory Diet: We will counsel the patient on adopting a diet rich in anti-inflammatory foods—such as omega-3 fatty acids (found in fish oil), turmeric, ginger, and leafy green vegetables—while reducing pro-inflammatory foods like processed sugar, refined carbohydrates, and unhealthy fats.
  • Targeted Supplementation: Based on a thorough history and potentially lab work, we might recommend supplements to support nerve health and repair. These could include:
    • B-Vitamins (especially B6 and B12): Essential for nerve function and myelin sheath health.
    • Alpha-Lipoic Acid (ALA): A powerful antioxidant shown in studies to improve symptoms of peripheral neuropathy (Ziegler et al., 2006).
    • Magnesium: Important for muscle relaxation and nerve transmission.

5. Continued Medical Oversight

Throughout this process, Dr. Cardenas will remain involved and provide medical oversight. If the patient’s progress stalls, or if the initial injection does not provide adequate relief, we will reconvene. Under her guidance, we would then consider next steps, such as ordering an MRI to look for a structural lesion like a ganglion cyst or a nerve conduction study to quantify the degree of nerve damage. If a large, space-occupying lesion is found, referral to an orthopedic surgeon for consideration of surgical decompression may be appropriate.

Conclusion: A Synthesis of Disciplines for Optimal Outcomes

The case of the young weightlifter with suprascapular neuropathy is a powerful example of how a seemingly straightforward complaint of “shoulder pain” can hide a complex neurological issue. It highlights the need for a meticulous diagnostic process, a deep understanding of functional anatomy, and a willingness to look beyond the obvious.
More importantly, it demonstrates the profound value of an integrative care model. By combining the diagnostic acumen and medical oversight of an experienced internist like Dr. Cardenas with the neuromusculoskeletal, functional, and rehabilitative expertise of a dually credentialed DC/APRN, we can offer patients care that is both comprehensive and deeply personalized.
We didn’t just give this patient an injection; we embarked on a collaborative journey with him. The injection was the catalyst, opening the door to chiropractic care to restore foundational neurological function, rehabilitation to rebuild strength and proper movement, and functional medicine to support healing from the inside out. This synthesis of disciplines is the future of effective healthcare, transforming the treatment of complex conditions from a series of isolated interventions into a seamless, patient-centered path toward lasting health and restored function.

References


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When Screen Work Tightens the Jaw and Steals Sleep

When Screen Work Tightens the Jaw and Steals Sleep

Abstract: Focused screen work can tighten the jaw, stiffen the neck, and fragment sleep. This article explains how concentration, stress, forward-head posture, and unconscious clenching overlap for hybrid employees, software engineers, analysts, and tech parents. It maps the jaw, neck, shoulders, and rest without treating every headache as a mechanical problem. A chiropractic assessment can address related neck mechanics, while an MD or NP evaluation considers sleep, medications, and other medical causes. The aim is calmer mornings, easier eating, and more family comfort.

When Screen Work Tightens the Jaw and Steals Sleep

The laptop is still open on the kitchen table. Dinner is half-finished. A child is asking a question, and you realize your teeth have been pressed together for twenty minutes. Your temples feel tight. You call it “just stress,” then wake at 2 a.m. with a sore jaw from grinding at night.

That scene is familiar in El Paso homes where adults work hybrid schedules, write code, analyze data, or parent between meetings. The jaw is not separate from the neck or the night. It is part of a family story about concentration, recovery, and who you want to be when the screen closes.

Why Focused Screen Work Recruits the Jaw

The temporomandibular joints sit just in front of the ears and let you chew, talk, yawn, and rest the lower jaw. Temporomandibular disorders, often called TMDs, can involve those joints, the chewing muscles, or both. They are common and rarely caused by one factor (Yao et al., 2023).

Awake clenching is different from sleep grinding. Many people brace the jaw when they concentrate. That habit is awake bruxism. At night, jaw-muscle activity can occur during brief sleep arousals. That is sleep bruxism. Bruxism is not a pain diagnosis by itself. It becomes a problem when it overloads muscles, irritates joints, wears teeth, or fragments rest (Voß et al., 2024; Mayo Clinic, 2024).

Hybrid workers and software engineers often sit in one posture for hours: eyes on a monitor, shoulders rounded, head drifting forward, teeth touching. Laptop and phone use have been linked with higher TMD severity, forward-head posture, and clenching (Abdul, 2025). Work tension and neck pain also cluster with jaw symptoms in computer jobs (Pihut et al., 2022).

None of that means every facial ache is “tech neck.” Sinus disease, dental infection, migraine, medication effects, and sleep-disordered breathing can look similar. Careful evaluation protects you from treating the wrong problem.

The Hidden Loop: Jaw, Neck, Shoulders, and Sleep

The jaw and the cervical spine share muscles, fascia, and nerve pathways. When the head sits forward of the shoulders, chewing muscles and deep neck muscles often work harder to hold the face up. Adults with neck pain show higher rates of TMD and reduced jaw mobility, though that evidence remains limited (Bizzarri et al., 2026).

Jaw bracing can also recruit neck muscles. That is why a tight masseter can feel like an earache, a temple headache, or a stiff upper back. Research does not prove that posture alone causes TMD in every person. It does show a two-way relationship worth examining when eating or sleeping becomes harder (Bizzarri et al., 2026; Voß et al., 2024).

Sleep sits in the middle of the loop.

  • Insomnia and difficulty getting up have been linked with higher TMD risk in genetic studies (Xu & Zhou, 2024).
  • Short sleep may raise the chance of TMD-related pain (Xu et al., 2024).
  • Sleep bruxism often travels with snoring, sleep apnea, anxiety, reflux, caffeine, and some antidepressant or stimulant medicines (Mayo Clinic, 2024).
  • Poor sleep makes pain feel louder the next day, which makes clenching more likely the next night.

For tech parents, the loop is social as well as physical. Evening emails, homework help, and late scrolling keep the nervous system on alert. Breakfast becomes a negotiation with a sore face.

What You May Notice at Home

Symptoms vary. Many people clench quietly for years. Others notice a change after a project sprint, a new medicine, or a stretch of poor sleep.

Common clues include:

  • Morning jaw stiffness, tooth sensitivity, or a partner who hears grinding
  • Clicking, catching, or limited opening when you yawn or take a large bite
  • Temple, cheek, or ear-area aching that rises with long meetings
  • Neck tightness, shoulder hiking, and a heavy-headed feeling
  • Headaches that cluster with screen time, but not every headache

Red flags need a different door. Sudden inability to open or close the jaw, fever, facial swelling, neurologic change, or a severe new headache needs prompt medical attention. Autonomy starts with knowing when home care is not enough.

How Integrative Assessment Separates Overlap From Coincidence

At Injury Medical Clinic PA in El Paso, families do not have to choose between “it is all in the neck” and “it is all in the mind.” Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, is a Doctor of Chiropractic and board-certified Family Practice Nurse Practitioner. He holds Texas Advanced Practice Nursing License #1191402 with full Prescriptive Authority #59628 (NPI 1205907805). Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine, serves as Medical Director and Collaborative Physician (Texas Medical License #J2933; NPI 1164426748). Together, they look at structure and systems.

Chiropractic evaluation of associated neck mechanics

A chiropractic visit for jaw-related tension is not a promise to “fix TMJ” with one adjustment. It examines how the head sits on the neck, how the upper back and shoulders move, and how those patterns affect chewing and sleep position.

Assessment may include posture and workstation habits, cervical and thoracic motion, jaw range and joint sounds, chewing-muscle sensitivity, and nighttime pillow setup.

Cervical manual therapy and neck exercise have shown short-term benefit for pain and muscle sensitivity in muscle-related TMD (Bednarczyk et al., 2024). A large analysis of chronic TMD pain found that coping-focused therapies, jaw mobilization, trigger-point work, postural exercise, and supervised stretching were among the better-supported options compared with placebo (Yao et al., 2023). That supports gentle, reversible care first. Non-maleficence here means slowing the rush toward surgery or heavy medication when safer options may help.

When indicated under medical collaboration, drug-free tools such as MLS laser therapy can calm local irritation without adding another prescription to a crowded nightstand.

MD and NP evaluation of sleep, medicines, and medical causes

Not every clenched jaw is a spinal problem. Dr. Cardenas provides internal-medicine oversight for metabolic panels, sleep-related risk, and medication review. Dr. Jimenez, as an APRN with prescriptive authority, can coordinate the same medical lens.

A medical pass may ask whether you snore or wake unrefreshed, whether clenching started after an SSRI, SNRI, stimulant, or other new medicine, and whether reflux, anxiety, or dental wear is part of the picture.

Beneficence means the structural plan and the medical plan serve the same person. If sleep apnea is likely, the next step may be a sleep evaluation, not another stretch. If a medicine is a plausible trigger, you discuss it with your existing prescriber. Integrative care coordinates with your dentist and medical team so you don’t have to assemble the story alone.

What Families Usually Want: Sleep, Meals, and Presence

The destination is not a perfect joint. It is a quieter face at dinner and a body that can rest.

Helpful household changes often include:

  • Keep the teeth slightly apart and the tongue resting on the palate during deep work
  • Raise screens so the gaze is level and unround the shoulders
  • Unclench and roll the shoulders every 20 to 30 minutes
  • Cut late caffeine and give the last hour to dim light
  • Choose a sleep position that does not crank the neck
  • Soften tough foods during a flare, so meals stay social

These are tools, not tests you fail. Autonomy means you decide which changes fit your household.

A Coordinated Next Step in El Paso

If jaw tightness is stealing sleep or making family meals tense, you do not have to wait for a crisis. A visit can start with listening, a mechanical exam, and a medical screen.

Dr. Jimenez and Dr. Cardenas work so that chiropractic alignment, rehabilitation, and medical review travel together. The aim is root-cause clarity, fewer avoidable procedures, and a plan you can steer. Better sleep, easier eating, and more comfortable time after the laptop closes: that is the measure of success.

Meta Description: Screen work can clench the jaw, stiffen the neck, and steal sleep. Integrative care helps El Paso families rest and eat easier.


References

Abdul, N. S. (2025). A systematic review on the impact of smartphone usage on temporomandibular disorders. Cureus, 17(10), e95683.

Bednarczyk, A., et al. (2024). The effectiveness of cervical rehabilitation interventions for pain in adults with myogenic temporomandibular disorders: A systematic review and meta-analysis. Journal of Oral Rehabilitation.

Bizzarri, P., Giusti, A., Pernici, M., Bulzacca, P., Asquini, G., Maselli, F., Mourad, F., Balli, E., Pisacane, G., Bagnoli, C., Manzari, A., Pompi, M., & Scafoglieri, A. (2026). Temporomandibular disorders and orofacial outcomes in subjects with neck pain and/or cervicogenic headache: A systematic review with meta-analysis. Journal of Clinical Medicine, 15(1), 266.

Mayo Clinic. (2024). Teeth grinding (bruxism).

Pihut, M., Orczykowska, M., & Gala, A. (2022). Risk factors for the development of temporomandibular disorders related to the work environment. Folia Medica Cracoviensia, 62(3), 43–49.

Voß, L. C., Basedau, H., Svensson, P., & May, A. (2024). Bruxism, temporomandibular disorders, and headache: A narrative review of correlations and causalities. Pain, 165(11), 2409–2418.

Xu, C., Ren, X., Lin, P., et al. (2024). Exploring the causal effects of sleep characteristics on TMD-related pain: A two-sample Mendelian randomization study. Clinical Oral Investigations, 28, 384.

Xu, L., & Zhou, H. (2024). Causal associations between sleep traits and temporomandibular disorders: A bidirectional Mendelian randomization analysis. Frontiers in Genetics, 15, 1429190.

Yao, L., Sadeghirad, B., Li, M., et al. (2023). Management of chronic pain secondary to temporomandibular disorders: A systematic review and network meta-analysis of randomised trials. BMJ, 383, e076226.

Chiropractic Integrative Treatment Effectiveness for Migraines


Find out about integrative treatment methods that can enhance wellness and reduce migraine frequency with chiropractic care.

Abstract

Migraine is a complex neurological disorder that affects more than a billion people worldwide and profoundly impacts function, family life, and work. In this educational post, I share a comprehensive, first-person journey through the modern, evidence-based understanding of migraine—from accurate diagnosis and red-flag screening to the physiological underpinnings in the brain, brainstem, and trigeminovascular system. I explain why migraine is fundamentally a sensory processing disorder with central origins (hypothalamus, limbic connections, trigeminal nucleus caudalis), how neuropeptides like the calcitonin gene-related peptide (CGRP) drive neurogenic inflammation and pain, and how serotonin (5-HT) modulates this process. I present the latest therapeutic advances, including CGRP antagonists (monoclonal antibodies and gepants), 5-HT1F agonists (ditans), triptans, dihydroergotamine, and onabotulinumtoxinA for chronic migraine—explaining mechanisms, indications, contraindications, and practical use.
I also outline our multidisciplinary, patient-centered model at Injury Medical Clinic PA (Mission Plaza Injury Medical Clinic) in El Paso, Texas, where I collaborate with our Medical Director and Collaborative Physician, Dr. Maria Guadalupe Cardenas, MD (Board Certified in Internal Medicine; NPI #1164426749; Texas MD License #J2933), who brings over 40 years of experience. Together, we integrate chiropractic care, functional medicine, medical oversight, rehabilitation, and personal injury care to address biomechanical triggers, autonomic dysregulation, neuroinflammation, and central sensitization. I show how integrative chiropractic care fits into this modern treatment approach, detailing cervical-trigeminal convergence, segmental biomechanics, soft-tissue normalization, neuromotor retraining, vestibulo-oculomotor rehabilitation, and autonomic balancing—linked directly to migraine physiology.
You will leave with a clear framework for building an individualized plan: a stratified acute toolkit matched to attack phenotype; preventive strategies tailored to comorbidities and patient goals; integrative chiropractic and functional medicine supports; and safety monitoring for drug interactions and emerging postmarketing signals. This is a practical, well-developed, and hopeful roadmap for patients and clinicians who want to reduce migraine frequency, intensity, and duration; restore function; and reclaim life.

Meet Our Multidisciplinary Team and Clinical Philosophy

As a clinician who holds credentials as a Doctor of Chiropractic (DC) and Advanced Practice Registered Nurse (APRN), board-certified as a Family Nurse Practitioner (FNP-BC), with advanced training in functional and integrative medicine (CFMP, IFMCP) and sports and regenerative medicine (ATN, CCST), I approach migraine through multiple lenses—structural, neurological, biochemical, and behavioral. Our practice, Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas, is structured as a multidisciplinary, integrative care center—a common and effective setup for complex conditions.

Our Collaborative Model: Internal Medicine + Chiropractic + Functional Medicine

  • Medical Director and Collaborative Physician:
    • Dr. Maria Guadalupe Cardenas, MD, Board Certified in Internal Medicine
    • NPI #1164426749; Texas MD License #J2933
    • Over 40 years of experience as an internist
    • Provides medical direction, diagnostic oversight, risk stratification, and pharmacologic management
  • Integrative Chiropractic and Functional Medicine:
    • Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST
    • Leads chiropractic structural care, neuromotor rehabilitation, and functional medicine
    • Focuses on cervical-trigeminal convergence, biomechanics, soft-tissue normalization, autonomic balancing, and upstream root causes
  • Practice Services:
    • Internal medicine diagnostic evaluation and pharmacotherapy
    • Chiropractic adjustments, spinal decompression, cranial mobilization
    • Functional medicine protocols: nutrition, sleep, hormones, nutrient repletion
    • Rehabilitation: neuromuscular re-education, graded activity, vestibulo-oculomotor therapy
    • Personal injury care: whiplash, post-traumatic headache, concussion-related dysfunction

Why This Team-Based Model Works for Migraine

Migraine is not just head pain. It is an episodic neurological storm that scales across systems. In practice, pharmacotherapy addresses acute and preventive needs, but ignoring the cervical and autonomic drivers leaves patients vulnerable to recurrence and chronification. Our model unifies:

  • Medical oversight to rule out secondary causes, manage comorbidities, and select safe/effective therapies.
  • Chiropractic care to reduce cervical afferent bombardment into the trigeminal nucleus caudalis, improving sensorimotor function and reducing brainstem sensitization.
  • Functional medicine to stabilize sleep, hormones, and metabolic terrain; quell systemic inflammation; and support mitochondrial energy.

Together, these threads create a cohesive, patient-centered plan that treats both the migraine generator and the terrain it thrives in.
For my ongoing clinical observations and professional insights:

Understanding Migraine: Prevalence, Impact, and Why Primary Care Matters

The Widespread Impact of Migraine

  • More than a billion people worldwide live with migraine.
  • In the U.S., approximately one in five women and one in sixteen men are affected.
  • One in eleven children experiences migraine; before puberty, prevalence is similar in boys and girls.
  • In the U.S., one in four households has at least one member with migraine.

These numbers have practical meaning. In any busy clinic, multiple patients are struggling with migraine or migraine-like headaches daily. The disability is substantial—attacks can occupy three to four days when you account for prodrome, headache, and postdrome.

Who Manages Migraines? The Reality of Primary Care

Approximately 70% of people with migraine are managed in primary care. That reality places the responsibility on clinicians like me—chiropractors embedded in integrative practices, nurse practitioners, and family physicians—to diagnose accurately, screen vigilantly, and use modern therapies proficiently. The old model of suggesting rest and over-the-counter analgesics is not enough. Our toolkit has expanded, and our understanding has matured.

Accurate Diagnosis: Differentiating Migraine from Other Headaches

Accurate diagnosis is foundational. Migraine is variable and can be misread as sinus or tension-type headache. The priority is ruling out dangerous secondary headaches. Then we match clinical features to established criteria.

Red Flags: The SNOOP Mnemonic

Before diagnosing a primary headache, I systematically screen for secondary causes using SNOOP:

  • S — Systemic symptoms: Fever, myalgias, weight loss may signal infection, inflammatory disease, or malignancy. I consider meningitis and other meningeal processes when systemic illness accompanies severe headache.
  • N — Neurologic signs or symptoms: Focal deficits, confusion, seizures, or papilledema on fundoscopic exam point to raised intracranial pressure or structural lesions. These warrant urgent neuroimaging and possible emergency referral.
  • O — Onset: A thunderclap headache (sudden maximal intensity in minutes) is a neurologic emergency—classically subarachnoid hemorrhage—and demands immediate action.
  • O — Older age of onset: New headaches after age 50 broaden differential diagnoses. I consider giant cell arteritis, especially with jaw claudication, scalp tenderness, and weight loss—vision is at risk without prompt steroids.
  • P — Pattern change or precipitants:
    • Pattern change: A shift from predictable menstrual migraine to daily headache triggers imaging.
    • Precipitants: Headache only with exertion, coughing, sneezing, or Valsalva raises concern for space-occupying lesions or Chiari malformation.
    • Positional changes: Severe orthostatic headache relieved by lying down suggests spontaneous intracranial hypotension.
    • Sexual activity-induced headaches: Often benign but can mirror Valsalva physiology and need careful evaluation initially.

Using SNOOP rigorously helps us do no harm by identifying patients who need urgent workup before we proceed.

Diagnostic Criteria: Migraine Without Aura (ICHD-3)

Once secondary causes are excluded, I apply ICHD-3 criteria for migraine without aura:

  • At least five attacks lasting 4–72 hours (untreated or unsuccessfully treated).
  • At least two of:
    • Unilateral location
    • Pulsating quality
    • Moderate to severe intensity
    • Aggravation by routine physical activity
  • At least one of:
    • Nausea and/or vomiting
    • Photophobia and phonophobia

These criteria are flexible. A bilateral, pressure-like, moderate-intensity headache that worsens with movement plus nausea can still be migraine. Listen carefully for associated symptoms and activity aggravation—migraine can masquerade.

Quick Screening: The ID Migraine Tool

The ID Migraine™ screener simplifies detection in busy settings. Using PIN:

  • P — Photophobia: Is light unusually bothersome during headaches?
  • I — Impairment: In the last three months, have headaches limited your ability to work or function for at least one day?
  • N — Nausea: Do you feel nauseated during headaches?

Two “yes” answers yield about 93% positive predictive value for migraine once red flags are excluded (Headache Classification Committee of the International Headache Society, 2018).

Migraine vs. Tension-Type Headache: The Practical Differentiator

Ask one key question: “Does routine physical activity make your headache worse?“

  • Yes strongly favors migraine.
  • No suggests tension-type headache.

Patients with tension-type headache often feel better after moving or stretching. Migraine patients typically avoid activity to prevent worsening pain.

The Migraine Timeline: Understanding the Five Phases

Migraine unfolds in distinct phases. Recognizing them improves diagnosis and treatment timing.

  • Interictal phase: The pain-free baseline between attacks. Preventive strategies aim to extend this phase.
  • Prodrome (hours to days pre-headache): About 70% experience:
    • Light and sound sensitivity
    • Fatigue and yawning
    • Difficulty concentrating, brain fog, word-finding problems
    • Mood changes (irritability, euphoria)
    • Food cravings
    • Dizziness
    • Neck stiffness (often mistaken as the cause; it is frequently the first expression of the migraine brain)
  • Aura (≈30%): Transient, reversible neurological symptoms lasting <60 minutes:
    • Visual aura (positive phenomena: shimmering lights, zig-zags) from cortical spreading depression across the visual cortex
    • Sensory aura (marching tingling)
    • Language aura (transient aphasia)
  • Headache: 4–72 hours of moderate to severe, often pulsating pain plus nausea, photophobia, phonophobia.
  • Postdrome (“migraine hangover“, 24–48 hours): Exhaustion, cognitive “slowness,” scalp tenderness (allodynia), and diffuse muscle aches.

Patients may lose three to four days per attack—timely, mechanism-matched interventions are critical.

Pathophysiology: Migraine as a Disorder of Sensory Processing

Modern research reframes migraine: not just vascular, but primarily neurological, with secondary vascular changes. Its genetics, central circuitry, and neurochemical environment create a brain primed to overreact (Goadsby et al., 2017).

Central Generators: Hypothalamus, Limbic System, and Brainstem

  • Hypothalamus: The master regulator of circadian rhythms, appetite, stress, and endocrine outputs. It activates before pain begins; its dysregulation drives prodrome (yawning, cravings, mood shifts). Hypothalamic hypersensitivity explains why changes in sleep, meals, stress, or barometric pressure trigger attacks.
  • Limbic system: Dense connectivity with hypothalamus links emotional tone to migraine—mood shifts and anxiety are integral, not incidental.
  • Trigeminal nucleus caudalis (TNC): Brainstem hub receiving inputs from trigeminal afferents (face/scalp/meninges) and upper cervical roots. In migraine, TNC becomes sensitized, lowering the threshold for pain transmission.

Peripheral Drivers: Trigeminovascular System and CGRP

The trigeminal nerve (especially the ophthalmic division, V1) innervates the dura mater and meningeal vessels. Activation releases neuropeptides, notably CGRP—a potent vasodilator and pain transmitter.
Key findings:

  • CGRP levels rise in the jugular vein during attacks; they normalize interictally (Goadsby, Edvinsson, & Ekman, 1990).
  • Injecting CGRP into migraineurs can trigger attacks.
  • Blocking CGRP or its receptor can effectively treat and prevent migraine.

CGRP drives:

  • Vasodilation of meningeal vessels (contributing to throbbing)
  • Neurogenic inflammation via mast cell degranulation (histamine, prostaglandins, cytokines)
  • Pain signal propagation and sensitization in trigeminal circuits

Central Sensitization and Allodynia: Turning Up the Gain

Sustained nociceptive input “rewires” central circuits, creating central sensitization:

  • Patients experience allodynia (scalp tenderness, pain with glasses or collars)
  • The system becomes hyperexcitable—non-painful stimuli hurt; mild pain becomes severe.

This phenomenon explains why early treatment is crucial—once sensitization is established during an attack, suppression is harder, and the risk of transformation to chronic migraine rises.

Why Integrative Chiropractic Care Fits in Migraine Treatment

Chiropractic care is not a cure-all for a central neurological disorder, but it plays a strategic, physiologically grounded role. It reduces cervical nociceptive traffic feeding into the brainstem and improves sensorimotor control—effectively decreasing a key afferent amplifier.

The Trigeminocervical Complex: Convergence in the Brainstem

The TNC receives input from:

  • Trigeminal afferents (CN V, especially V1)
  • Upper cervical roots (C1–C3)

This convergence means cervical dysfunction (joint restriction, muscle hypertonicity, dural tension) can prime or amplify brainstem sensitization. Conversely, restoring cervical segmental motion and soft-tissue balance reduces peripheral drive into TNC, lowering the probability and intensity of attacks.

My Clinical Approach: Structural, Neurological, and Autonomic Targets

  • Thorough cervical exam: Palpation for joint restrictions, range-of-motion testing, evaluation of suboccipital and SCM tension, assessment of dural mechanosensitivity.
  • Specific chiropractic adjustments:
    • Gentle, targeted mobilizations or high-velocity low-amplitude (HVLA) adjustments focused on C0–C3
    • Goals:
      • Restore biomechanics in restricted segments
      • Reduce nociceptive input from dysfunctional joints and fascia
      • Improve proprioception and sensorimotor feedback to the central nervous system
      • Decrease muscle hypertonicity via reflex pathways
  • Soft-tissue therapies:
    • Myofascial release and trigger point therapy for suboccipital triangle, SCM, upper trapezius, levator scapulae
    • Duraplasty-inspired gentle cranial and fascial mobilizations to reduce pericranial mechanosensitivity
  • Neuromuscular re-education:
    • Deep cervical flexor activation, scapular stabilization, proprioceptive drills
    • Vestibulo-oculomotor rehabilitation when motion sensitivity or post-concussive patterns exist
    • Goal: recalibrate sensorimotor control to decrease autonomic arousal and re-injury cycles
  • Autonomic balancing:
    • Breathwork, heart rate variability (HRV)-guided pacing, vagal-tone practices
    • Shift from sympathetic dominance to parasympathetic recovery, raising pain thresholds

Why This Works: Direct Links to Migraine Physiology

  • Cervical afferents are not”noise”—they converge in the same brainstem hub that processes trigeminal pain. When cervical dysfunction is active, the TNC is more likely to amplify. Correcting cervical inputs reduces “afferent load,” helping pharmacotherapy work better and lowering the risk of chronic sensitization.
  • Improved posture and segmental control reduce repetitive strain on meningeal and pericranial tissues, lowering mechanotransduction that can perpetuate migraine pathways.

Functional Medicine: Stabilizing the Terrain That Lowers the Migraine Threshold

Migraine biology is exquisitely sensitive to metabolic and hormonal fluctuations. Functional medicine interventions “raise the threshold” and reduce triggers.

Key Areas of Investigation and Support

  • Sleep architecture restoration:
    • Treat sleep apnea, standardize circadian timing, optimize light exposure and temperature
    • Stabilized sleep reduces hypothalamic dysregulation—a central migraine generator
  • Glycemic stability and nutrition:
    • Regular protein-anchored meals to steady glucose and insulin
    • Anti-inflammatory dietary patterns rich in polyphenols and omega-3s; reduce processed foods and alcohol
    • Targeted nutraceuticals:
      • Magnesium (glycinate or threonate) for neuronal excitability
      • Riboflavin (B2) for mitochondrial support
      • Coenzyme Q10 for energy metabolism
  • These have supportive evidence in migraine prevention (Ashina et al., 2021)
  • Hormonal rhythm support:
    • For menstrual migraine, longer half-life triptans (naratriptan, frovatriptan) peri-menses; magnesium uptitration; NSAID bridging (naproxen)
    • Saliva or urine (DUTCH) testing for nuanced patterns when clinically indicated
  • Iron and thyroid screening:
    • Correct iron deficiency and thyroid dysfunction; both can contribute to fatigue, sleep disruption, and neurological instability
  • Hydration and electrolytes:
    • Adequate hydration; balanced electrolytes to support neuronal function

Why This Matters: Mechanistic Rationale

Stabilizing sleep, glucose, and hormones reduces hypothalamic triggers and limbic amplification.
Micronutrients support mitochondria—critical for cortical neurons prone to cortical spreading depression (aura physiology).
Anti-inflammatory strategies reduce systemic cytokine tone, lowering central excitability and pain facilitation.

Pharmacological Treatment: Acute and Preventive Strategies

Our pharmacologic approach is divided into acute (stopping attacks early) and preventive (reducing frequency, severity, and duration). Timing and mechanism matching are crucial.

Acute Treatment: Treat Early to Prevent Central Sensitization

  • Goals of acute therapy:
    • Rapid pain freedom within two hours
    • Relief of nausea, photophobia, phonophobia
    • Functional recovery
    • Minimal side effects
    • Sustained relief without recurrence
  • Toolkit stratification:
    • Mild pain: NSAIDs (naproxen, ibuprofen) or acetaminophen; screen for GI, renal, hypertension, and anticoagulation risks; emphasize early dosing
    • Moderate attacks: Migraine-specific agents:
      • Triptans (sumatriptan, rizatriptan, eletriptan, naratriptan, frovatriptan)
      • Ergot derivatives (DHE formulations)
      • Ditans (lasmiditan) for vascular contraindications to triptans
      • Gepants (ubrogepant, rimegepant, zavegepant), especially when triptans are intolerable or contraindicated
    • Severe attacks/high-risk phenotype: Combine a migraine-specific agent with a dopamine antagonist antiemetic (metoclopramide, chlorpromazine, promethazine); use non-oral routes (subcutaneous or nasal) when gastric stasis limits absorption; consider DHE autoinjector for rapid action

Mechanisms You Can Leverage

  • Triptans (5-HT1B/1D agonists):
    • Presynaptic inhibition of CGRP release
    • Vasoconstriction of meningeal vessels via 5-HT1B
    • Contraindications: ischemic heart disease, cerebrovascular disease, peripheral vascular disease, uncontrolled hypertension
    • Clinical pearl: If one triptan fails, another may succeed; longer half-life agents help with menstrual migraines
  • Ditans (5-HT1F agonist, lasmiditan):
    • Central stabilization of migraine generators without vasoconstriction
    • Benefits for patients with vascular risk
    • Limitations: dizziness, somnolence; do not drive for eight hours
  • Gepants (CGRP receptor antagonists: ubrogepant, rimegepant, zavegepant):
    • Postsynaptic blockade of CGRP receptor; no vasoconstriction
    • Advantages: reduced risk of medication overuse headache; not controlled substances
    • CYP3A4 metabolism: caution with inducers (e.g., topiramate) and inhibitors (e.g., verapamil)
  • Postmarketing signals: rare hypertension and Raynaud’s phenomenon; monitor blood pressure and counsel on Raynaud’s symptoms (Ashina et al., 2021)

Practical Pearls

  • Non-oral routes bypass delayed gastric emptying and vomiting during attacks.
  • Pair antiemetics with migraine-specific agents to improve analgesia and nausea control.
  • For recurrences after initial relief:
    • Add an NSAID or a dopamine antagonist
    • Switch to longer half-life triptans (naratriptan, frovatriptan)
  • Medication overuse education:
    • Triptans/ergots/opioids/butalbital combos: limit to ≤10 days/month
    • Simple analgesics: limit to ≤15 days/month
    • Overuse sensitizes central circuits and promotes chronification (Buse et al., 2019)

Preventive Treatment: Choosing the Right Strategy

  • Consider prevention when:
    • Migraines occur 2–4 times/month with significant impact
    • 4–6 times/month regardless of intensity
    • Acute meds are overused, ineffective, or poorly tolerated
    • Attacks interfere substantially with function
    • Patient prefers preventive therapy
    • Phenotype suggests risk of chronification

Legacy Preventive Options

  • Antihypertensives: Beta-blockers (propranolol, metoprolol), calcium channel blockers (verapamil), angiotensin receptor blocker candesartan (supported by Grade A evidence)
  • Antidepressants: Tricyclics (amitriptyline, nortriptyline), SNRIs (venlafaxine)
  • Anticonvulsants: Topiramate, valproic acid (avoid in women of childbearing potential due to teratogenicity)

Tailor choice to comorbidities:

  • Migraine + hypertension: beta-blocker or ARB
  • Migraine + depression/anxiety: TCA or SNRI
  • Migraine + insomnia: bedtime TCA
  • Migraine + weight concerns: topiramate may assist weight loss, but monitor cognition

CGRP-Targeted Preventives: Monoclonal Antibodies and Gepants

  • Monoclonal antibodies:
    • Ligand-targeting: Eptinezumab (Vyepti, IV quarterly), Fremanezumab (Ajovy, SQ monthly or quarterly), Galcanezumab (Emgality, SQ monthly)
    • Receptor-targeting: Erenumab (Aimovig, SQ monthly)
    • Mechanism: neutralize CGRP ligand or block receptor; reduce meningeal vasodilation and neurogenic inflammation; dampen trigeminovascular signaling
    • Advantages: migraine-specific, favorable tolerability, minimal CNS side effects; metabolized via proteolysis, limiting drug-drug interactions
    • Considerations: injection site reactions; constipation and hypertension signals notably with erenumab; counsel and monitor
  • Preventive gepants:
    • Rimegepant (Nurtec ODT): every other day for prevention; also effective acutely
    • Atogepant (Qulipta): once daily (10, 30, 60 mg; 60 mg for chronic migraine)
    • CYP3A4 interactions: adjust dosing with inducers/inhibitors
    • Side effects: nausea, constipation, somnolence; mild appetite changes

OnabotulinumtoxinA (Botox) for Chronic Migraine

  • Indication: chronic migraine (≥15 headache days/month)
  • Mechanism: cleaves SNAP-25, blocking SNARE-mediated exocytosis of CGRP and other transmitters at peripheral trigeminal afferents; reduces peripheral sensitization and indirectly central sensitization
  • PREEMPT protocol: 31 injections across pericranial and cervical regions (corrugator, procerus, frontalis, temporalis, occipitalis, cervical paraspinals, trapezius)
    • Synergy with chiropractic and rehab:
    • Correct cervical myofascial dysfunction to reduce brainstem sensitization and enhance response durability (Dodick, 2018; Diener et al., 2010)

Integrative Clinical Pathway: Step-by-Step in Our Clinic

  • Comprehensive evaluation:
    • Detailed timeline, phenotype, triggers, family history, and SNOOP screen
    • Cervical and cranial biomechanics; myofascial mapping; oculomotor and vestibular screening
    • Cardiometabolic, endocrine, and sleep assessment
    • Medication inventory and CYP3A4 interaction screen
  • Shared decision-making on goals:
    • Pain freedom targets, functional restoration, monthly med use limits
  • Acute plan by severity tier:
    • Mild: NSAID/acetaminophen with risk checks
    • Moderate: migraine-specific agent; non-oral routes when needed
    • Severe: add dopamine antagonist; consider DHE autoinjector; ensure antiemetic route bypasses gastric stasis
  • Prevention plan when indicated:
    • Legacy preventives matched to comorbidities
    • CGRP-targeted agents (mAbs or gepants)
    • OnabotulinumtoxinA for chronic migraine and central sensitization phenotypes
  • Integrative chiropractic and rehab:
    • Segmental correction, cranial and dural mobilization, soft-tissue normalization
    • Neuromotor retraining, graded exercise, vestibulo-oculomotor work
  • Functional medicine supports:
    • Sleep optimization, nutrition, micronutrients, hormone-aware strategies
    • Hydration and electrolyte balance
  • Monitoring and iteration:
    • Headache diaries; monthly check-ins; side-effect tracking; HRV measures
    • Validated scales: MIDAS, HIT-6, PGIC
    • Adjust protocols every 4–12 weeks based on response

Clinical Scenarios: Decision Reasoning in Practice

  • Vascular risks with triptan history and new refractory hypertension:
    • Switch to lasmiditan or a gepant; counsel on driving restrictions for lasmiditan and monitor BP for gepants
  • Menstrual migraine lasting up to 72 hours:
    • Use longer half-life triptans (naratriptan, frovatriptan); consider peri-menses naproxen bridging; reinforce sleep and magnesium uptitration
  • Frequent nausea/vomiting during attacks:
    • Prefer non-oral triptan or DHE; add metoclopramide/promethazine; coach on early dosing at aura or prodrome
  • Nearing medication overuse thresholds:
    • Initiate prevention (e.g., atogepant or rimegepant); integrate chiropractic and functional measures to reduce acute reliance
  • Chronic migraine with neck dysfunction:
    • Combine onabotulinumtoxinA with cervical biomechanics correction and neuromuscular rehab to reduce brainstem sensitization

Safety, Drug Interactions, and Postmarketing Signals

Under Dr. Cardenas’ internal medicine oversight, we screen and monitor:

  • Vascular disease, hypertension, stroke history:
    • Avoid vasoconstrictive triptans; consider lasmiditan or gepants
    • Monitor blood pressure, especially with gepants and erenumab
  • Renal and hepatic function:
    • Adjust NSAID, triptan, and gepant selection/dosing
  • CYP3A4 interactions:
    • Topiramate (inducer) may lower gepant levels; verapamil (inhibitor) may elevate them
  • Raynaud’s phenomenon:
    • Educate patients on symptoms (digits turning white/blue with cold) and report promptly
  • Sleep disorders, anxiety/depression:
    • Choose preventives aligning with comorbid needs while minimizing cognitive/metabolic side effects

This vigilance ensures efficacy with systemic safety, and our integrative supports help reduce medication burden over time.

Personal Injury and Post-Traumatic Migraine: Addressing Cervical and Autonomic Sequelae

After whiplash or concussion:

  • Facet injury, ligament strain, and vestibular dysfunction increase trigeminal convergence and sensory hypersensitivity.
  • Early gentle mobilization, soft-tissue care, and vestibulo-oculomotor rehab reduce central sensitization.
  • Graded return to activity, autonomic regulation, and sleep restoration prevent chronification.

Rationale:

  • Post-traumatic dysautonomia and cervical nociception can entrench central sensitization unless addressed early with multimodal care.

The Physiology Behind Our Integrative Strategy

Every intervention maps to migraine biology:

  • Trigeminovascular system: nociceptor activation, CGRP release, meningeal vasodilation, and neurogenic inflammation
  • Central sensitization: amplified brainstem excitability and thalamocortical dysrhythmia
  • Cervical-trigeminal convergence: upper cervical afferents feed TNC alongside trigeminal inputs
  • Autonomic imbalance: sympathetic dominance lowers pain thresholds and worsens photophobia/phonophobia
  • Metabolic stress: mitochondrial inefficiency and glucose variability heighten susceptibility to cortical spreading depression

Acute meds target nociceptive signaling; preventives modulate neurochemical cascades; chiropractic corrects peripheral drivers; functional medicine stabilizes terrain; rehabilitation recalibrates sensorimotor control and autonomic balance.

Our Collaborative Model in Action

  • Dr. Maria Guadalupe Cardenas, MD
    • Medical Director and Collaborative Physician
    • NPI #1164426749; Texas MD License #J2933
    • Oversees medical diagnostics, comorbidity management, and pharmacotherapy safety
  • Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST
    • Leads integrative chiropractic, rehabilitation, and functional medicine
    • Coordinates personalized protocols and monitors outcomes across disciplines

This multidisciplinary model—an MD providing medical direction alongside a chiropractor—is standard in integrative and injury care clinics, and it is highly effective for migraine.
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Evidence-Based Highlights: What the Research Shows

  • Pathophysiology: Migraine as a sensory processing disorder with hypothalamic and brainstem generators; trigeminovascular activation; CGRP’s central role (Goadsby et al., 2017).
  • CGRP findings: Elevated CGRP during attacks; CGRP infusion triggers migraine; CGRP blockade treats and prevents attacks (Goadsby, Edvinsson, & Ekman, 1990; Dodick, 2018).
  • CGRP-targeted therapies: Monoclonal antibodies (ligand or receptor) and gepants offer migraine-specific options with favorable tolerability (Urits et al., 2020; Ashina et al., 2021).
  • Acute neuromodulation: Single-pulse transcranial magnetic stimulation for migraine with aura shows evidence of benefit (Lipton et al., 2010).
  • OnabotulinumtoxinA: PREEMPT trials established efficacy for chronic migraine by presynaptic blockade of neuropeptide release (Diener et al., 2010; Dodick, 2018).
  • Medication overuse: Overuse drives central sensitization and chronic transformation; prevention is key (Buse et al., 2019).

Key Takeaways for Patients and Clinicians

  • Think migraine first when activity worsens head pain and associated symptoms are present.
  • Treat early with a stratified acute toolkit matched to attack phenotype and severity.
  • Prevent when appropriate, especially at ≥4 migraine days/month, high disability, or acute overuse.
  • Leverage CGRP-targeted therapies and onabotulinumtoxinA thoughtfully; they are migraine-specific and often well tolerated.
  • Correct cervical and cranial biomechanical drivers; convergence at the brainstem means cervical inputs matter.
  • Stabilize sleep, metabolic, and hormonal rhythms to raise the migraine threshold.
  • Collaborate across disciplines—internal medicine, chiropractic, rehabilitation, and functional medicine—for faster, more durable recovery.

References

SEO tags: migraine, migraine treatment, migraine pathophysiology, CGRP, CGRP antagonists, monoclonal antibodies, gepants, triptans, ditans, onabotulinumtoxinA, Botox for migraine, dihydroergotamine, ID Migraine, SNOOP mnemonic, central sensitization, trigeminovascular system, trigeminal nucleus caudalis, hypothalamus, limbic system, chiropractic care, integrative chiropractic, cervical-trigeminal convergence, functional medicine, sleep optimization, nutrition, magnesium, riboflavin, CoQ10, vestibulo-oculomotor rehab, autonomic balancing, medication overuse headache, American Headache Society, El Paso TX, Dr. Alex Jimenez, Dr. Maria Guadalupe Cardenas, Injury Medical Clinic PA, Mission Plaza Injury Medical Clinic

Tech Parents: Neck Tension, Headaches, and Fatigue

Tech Parents: Neck Tension, Headaches, and Fatigue

Abstract

For tech parents, the workday can end while the body stays “online.” Hours of coding, tickets, dashboards, video calls, and family multitasking may leave the neck tight, the jaw clenched, the head aching, and sleep less restorative. This article explains how mechanical strain, movement habits, sleep quality, nutrition, and metabolic health can overlap. It also shows how ChiroMed’s integrated chiropractic and medical approach can help parents protect something more meaningful than a pain score: the energy to be present with their families.

Tech Parents: Neck Tension, Headaches, and Fatigue

The laptop closes at 5:30, but your shoulders are still near your ears at dinner. You answer one more message while helping with homework. Later, you notice a dull headache, rub the base of your skull, and promise yourself you will stretch after the kids are asleep. Then bedtime arrives, your mind is still running, and tomorrow begins before you feel restored.

For hybrid and remote software engineers, help-desk employees, and data analysts, this pattern can feel normal. Don’t automatically blame it on “bad posture,” and don’t treat it as one problem with one cause. Neck tension, headaches, fatigue, jaw clenching, and poor sleep can reinforce one another. A family-centered plan asks a better question: what is draining your physical reserve, and how can care help you get more of your evening back?

Why Screen Work Can Feel Heavier Than It Looks

Computer work is physically quiet but not physically neutral. A parent may sit for hours with the eyes fixed forward, elbows anchored near a keyboard, and the head held in a narrow range. Research in office workers has linked neck pain with muscular tension and low task variation, while exercise programs can improve pain and disability in workers with chronic neck pain (Jun et al., 2017; Jones et al., 2024).

No single “perfect” posture works all day. The bigger issue is staying in one position too long. When the workday has little movement variety, the neck and shoulder muscles repeatedly perform low-level holding work. Add deadline pressure or a makeshift workstation, and the body may stay braced after the meeting ends.

Jaw clenching can join the same loop. Temporomandibular disorders and neck symptoms often overlap, although the relationship is complex and does not prove that one always causes the other (Bizzarri et al., 2026).

Headaches Need the Right Label Before the Right Plan

Not every end-of-day headache is a cervicogenic headache. Migraine, tension-type headache, dehydration, medication effects, vision strain, sleep loss, blood pressure concerns, and other causes may produce head pain. Repeated or changing headaches therefore deserve an appropriate history and examination.

When a headache is truly cervicogenic, neck structures contribute to the symptoms. Evidence suggests that manual therapy and exercise can reduce headache intensity or frequency for some patients, but the certainty of evidence ranges from low to moderate and results vary by technique and time frame (Núñez-Cabaleiro & Leirós-Rodríguez, 2022; Martins et al., 2026).

At ChiroMed, structural chiropractic care is appropriate when examination findings support a mechanical component. The goal is not to assume every headache is spinal. It is to improve motion, reduce mechanical irritation, and pair hands-on care with active rehabilitation when appropriate.

The Fatigue Question: Is the Neck the Whole Story?

A parent can have genuine neck strain and still have another reason for feeling exhausted. Fatigue is a broad symptom. Primary-care evaluation may consider sleep quantity and quality, nutrition, medication effects, mood, anemia, thyroid disease, diabetes, sleep apnea, kidney or liver concerns, vitamin deficiencies, and other possibilities based on history and examination (Latimer et al., 2023).

Structural care and medical evaluation answer different questions. A chiropractic assessment asks how joints, muscles, movement patterns, and daily loading may contribute. Medical evaluation asks whether poor recovery reflects a sleep, nutritional, metabolic, medication-related, or systemic issue. Neither replaces the other.

Adults generally need at least seven hours of sleep, and U.S. data show that short sleep remains common. In 2024, 30.5% of U.S. adults reported sleeping less than seven hours in a 24-hour period (Ng et al., 2026). For tech parents, the challenge is protecting sleep when work, childcare, chores, and late-night screens compete for the same hours.

A Family-Energy Reset Starts With Small Decisions

The most useful plan is one a parent can repeat during a real workweek. Focus on changes that create movement variety and protect recovery:

  • Change position regularly. Stand for a call, walk during a voice meeting, or perform a brief movement break between focused work blocks.
  • Bring the screen closer to eye level and keep frequently used devices within easy reach so the neck and shoulders do less sustained holding.
  • Notice jaw tension. Let the teeth separate at rest, soften the tongue and face, and seek dental or medical evaluation if jaw pain, locking, or significant grinding persists.
  • Protect a work shutdown ritual. Close work applications, leave the workstation, and take a short walk or transition activity before family time.
  • Build a consistent sleep window. Reduce late caffeine, dim evening light, and keep the bedroom cool, dark, and quiet when possible.
  • Eat and hydrate consistently enough to support the day. Skipping meals, living on caffeine, or relying on highly restrictive diets can worsen the sense of running on empty.

These steps support autonomy because the parent remains the decision-maker. The clinician’s role is to explain findings and help the patient choose a plan that fits work, family responsibilities, preferences, and existing medical care.

How ChiroMed Coordinates Structural and Medical Care

Dr. Alex Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, is both a Doctor of Chiropractic and a board-certified Family Practice Nurse Practitioner/Advanced Practice Registered Nurse. He holds Texas Advanced Practice Nursing License #1191402, Prescriptive Authority #59628, and NPI #1205907805. His clinical work bridges structural chiropractic care, mechanical rehabilitation, functional medicine nutrition, diagnostics, and medically appropriate interventions. Current ChiroMed materials also identify his Texas APRN license and NPI.

Dr. Maria Guadalupe Cardenas, MD, is board-certified in Internal Medicine with more than 40 years of experience. She holds Texas Medical License #J2933 and NPI #1164426748. As Medical Director, Clinical Director, and collaborative physician at Injury Medical Clinic PA in El Paso, she oversees metabolic comorbidities, laboratory interpretation, risk stratification, and internal medicine coordination.

For a tech parent, that collaboration may pair a mechanical examination and rehabilitation plan with appropriate review of sleep, nutrition, metabolic health, medications, or laboratory needs. Beneficence means choosing care for the patient’s good, not adding services simply because they are available. Non-maleficence means starting with conservative, non-invasive strategies when appropriate and escalating only when clinical findings justify it.

Advanced options such as IV infusion, peptide, orthobiologic, injection, or hormone therapies are not routine answers for ordinary screen-related neck tension. They belong only in selected cases with clear indications, informed consent, appropriate medical oversight, and a rationale tied to the patient’s diagnosis.

Know When a Headache or Neck Problem Needs Prompt Evaluation

Seek urgent medical care for a sudden severe headache, new weakness or numbness, trouble speaking, fainting, fever with marked neck stiffness, new confusion, major trauma, chest pain, or other rapidly worsening neurologic symptoms. New headaches that are persistent, progressively changing, or accompanied by concerning systemic symptoms also warrant medical evaluation.

This is another part of patient autonomy: knowing when self-care is reasonable and when escalation is the safest choice.

The Real Goal Is More Life After Work

Pain relief matters. Better neck motion matters. Sleeping more soundly matters. But for a parent, the most valuable outcome may be having enough energy to cook dinner without feeling depleted, play with a child without counting the minutes until bedtime, or sit with a partner without carrying the entire workday in the shoulders.

ChiroMed’s integrated approach aims to protect that family reserve. Structural chiropractic care can address mechanical strain when appropriate, while MD/NP evaluation helps identify broader contributors that hands-on care cannot diagnose or correct on its own. The plan can also coordinate with existing physicians, specialists, dentists, or therapists when needed.

If work keeps following you home through neck tension, headaches, fatigue, or poor sleep, consider a multidisciplinary evaluation. Bring your symptom timeline, medication list, sleep concerns, workstation habits, and questions. The goal is not to hand control of your health to a clinic. It is to give you clearer information, safer choices, and a coordinated path toward feeling more available for the people waiting on the other side of your laptop.


References

Bizzarri, P., Giusti, A., Pernici, M., Bulzacca, P., Asquini, G., Maselli, F., Mourad, F., Balli, E., Pisacane, G., Bagnoli, C., Manzari, A., Pompi, M., & Scafoglieri, A. (2026). Temporomandibular disorders and orofacial outcomes in subjects with neck pain and/or cervicogenic headache: A systematic review with meta-analysis. Journal of Clinical Medicine, 15(1), 266.

Jones, L. B., Jadhakhan, F., & Falla, D. (2024). The influence of exercise on pain, disability and quality of life in office workers with chronic neck pain: A systematic review and meta-analysis. Applied Ergonomics, 117, 104216.

Jun, D., Michaleff, Z., Johnston, V., & O’Leary, S. (2017). Physical risk factors for developing non-specific neck pain in office workers: A systematic review and meta-analysis. International Archives of Occupational and Environmental Health, 90(5), 373–410.

Latimer, K. M., Gunther, A., & Kopec, M. (2023). Fatigue in adults: Evaluation and management. American Family Physician, 108(1), 58–69.

Martins, L., Collet, P., Lafrance, S., & Demont, A. (2026). Efficacy of nonsurgical interventions for the management of adults with cervicogenic headache: A systematic review and meta-analyses. Annals of Physical and Rehabilitation Medicine, 69(4), 102070.

Ng, A. E., Black, L. I., & Adjaye-Gbewonyo, D. (2026). Short sleep duration and sleep difficulties among adults: United States, 2024. NCHS Data Brief, No. 559. National Center for Health Statistics.

Núñez-Cabaleiro, P., & Leirós-Rodríguez, R. (2022). Effectiveness of manual therapy in the treatment of cervicogenic headache: A systematic review. Headache, 62(3), 271–283.