Learn about insulin resistance and how integrative chiropractic methods can support your journey to better health.

Insulin Resistance, Musculoskeletal Pain, and Integrative Chiropractic Care

Lipomas should be medically evaluated rather than assumed to be a direct consequence of insulin resistance, impaired autophagy, inflammation, or body weight. While metabolic dysfunction can influence adipose-tissue biology and overall health, current evidence does not show that insulin resistance causes lipomas or that chiropractic care, fasting, supplements, or exercise will dissolve them.

The more clinically supportable and useful connection is this: insulin resistance can affect muscles, tendons, joints, peripheral nerves, circulation, healing capacity, and pain sensitivity. Chiropractic care can play a meaningful role within an integrated, nonsurgical plan by helping restore movement, reduce mechanical pain barriers, and support participation in medically appropriate exercise and lifestyle treatment. It is not a stand-alone cure for insulin resistance or diabetes.

Understanding Insulin Resistance

Insulin is a hormone that helps move glucose from the bloodstream into tissues, especially skeletal muscle, where it can be used for energy or stored as glycogen. Insulin resistance occurs when muscle, liver, and fat tissue respond less effectively to insulin. The pancreas initially compensates by releasing more insulin; over time, this can progress to prediabetes or type 2 diabetes in some people.

Importantly, insulin resistance is not defined by appearance. A person can have a normal body weight and still have impaired insulin signaling, elevated fasting insulin, increased triglycerides, hypertension, fatty liver disease, sleep disruption, or reduced physical capacity. Conversely, body size alone does not diagnose metabolic dysfunction.

From a clinical perspective, insulin resistance matters because skeletal muscle is one of the body’s largest glucose-disposal organs. When pain, injury, fear of movement, weakness, or poor mobility limit physical activity, muscle glucose uptake can decline. That creates a difficult cycle:

1. Pain reduces movement and exercise tolerance.
2. Reduced movement can lower muscle conditioning and insulin sensitivity.
3. Insulin resistance is associated with low-grade inflammation, altered tissue metabolism, and impaired recovery.
4. Those changes can contribute to more pain, weakness, stiffness, and reduced activity.

Breaking that cycle requires both metabolic care and musculoskeletal rehabilitation.

Why Insulin Resistance Affects The Musculoskeletal System

Insulin resistance and chronic dysglycemia can influence musculoskeletal tissues through overlapping mechanisms: systemic inflammation, oxidative stress, altered microcirculation, accumulation of advanced glycation end products, changes in collagen remodeling, altered muscle metabolism, and nerve injury. These processes are biologically plausible contributors to pain and tissue dysfunction, but they do not prove that insulin resistance causes every painful condition.

Muscle Function and Strength

Skeletal muscle is central to glucose regulation. Resistance exercise and regular movement improve insulin sensitivity because contracting muscle can increase glucose uptake through pathways that are partly independent of insulin.

When insulin resistance, diabetes, inactivity, or chronic pain coexist, patients may experience:

• Reduced muscle strength and endurance
• Increased fatigue with ordinary activity
• Slower recovery after exertion or injury
• Reduced confidence with lifting, walking, stairs, squatting, or recreational exercise
• Greater risk of deconditioning

Research has reported associations between insulin resistance, lower muscle strength, and osteoarthritis-related symptoms, including in people with type 2 diabetes and in metabolically healthy comparison groups (Fry et al., 2021). This does not mean insulin resistance alone causes weakness; age, pain severity, sleep, nutrition, neuropathy, medications, injury history, and training status all matter.

Tendons, Fascia, and Connective Tissue

Tendons depend on organized collagen, controlled loading, vascular supply, and cellular repair. Prolonged hyperglycemia and insulin-resistant metabolic states may adversely affect tendon-cell function, collagen turnover, and tissue resilience. This helps explain why tendinopathy and connective-tissue disorders are frequently discussed in the context of diabetes and metabolic disease.

Clinical examples include:

• Achilles tendinopathy
• Plantar heel pain or plantar fasciopathy
• Rotator-cuff tendinopathy
• Lateral elbow tendinopathy
• Trigger finger
• Carpal tunnel syndrome
• Dupuytren disease
• Adhesive capsulitis, also called frozen shoulder

Diabetes-related musculoskeletal reviews describe inflammation, glycation, oxidative stress, and impaired tendon homeostasis as relevant pathways in these conditions (Exploring the Intersection of Diabetes and Musculoskeletal Health, 2025). These associations support a broader clinical assessment of metabolic health when a person presents with recurrent tendon pain, unusual stiffness, slow recovery, or multiple connective-tissue complaints.

Joints and Osteoarthritis

Osteoarthritis is not simply “wear and tear.” Mechanical loading, prior joint injury, muscle weakness, age, genetics, inflammatory signaling, body composition, and metabolic health can all contribute.

Insulin resistance and osteoarthritis share several associated features, including low-grade inflammation and altered cellular energy metabolism. Metabolic signaling molecules from adipose tissue, known as adipokines, may affect cartilage and synovial tissues. High glucose exposure is also linked to pathways that can increase cartilage-matrix breakdown and impair tendon-cell biology (Insulin Resistance in Osteoarthritis: Similar Mechanisms to Type 2 Diabetes and Obesity, 2020).

This does not mean a painful knee or hip is “caused by insulin.” It means that a patient with osteoarthritis may benefit when clinicians assess the whole picture: joint mechanics, muscle capacity, activity tolerance, cardiometabolic risk, sleep, nutrition, body composition, and inflammatory comorbidities.

Peripheral Nerves and Pain Sensitivity

Persistent hyperglycemia can injure peripheral nerves and small blood vessels, contributing to diabetic peripheral neuropathy. Symptoms may include burning, tingling, numbness, hypersensitivity, altered balance, weakness, or painful symptoms in a stocking-and-glove distribution. Neuropathy can also change gait mechanics and increase fall risk, which may secondarily stress the spine, hips, knees, and feet.

Not all leg pain, foot burning, or numbness is neuropathy. Lumbar radiculopathy, spinal stenosis, entrapment neuropathy, vascular disease, medication effects, vitamin deficiencies, and other diagnoses must be considered. A focused neurologic and musculoskeletal examination is essential, especially when symptoms are progressive, asymmetric, accompanied by weakness, or associated with bowel or bladder changes.

Common Comorbidities

Insulin resistance often travels with conditions that can amplify pain and impair rehabilitation:

Comorbidity	Musculoskeletal relevance
Obesity or central adiposity	Increases mechanical loading and may amplify inflammatory signaling
Dyslipidemia	Often clusters with cardiometabolic risk and impaired vascular health
Hypertension and vascular dysfunction	May reduce tissue perfusion and exercise tolerance
Obstructive sleep apnea	Worsens fatigue, pain sensitivity, recovery, and metabolic regulation
Depression, anxiety, and chronic stress	Can increase pain sensitivity, reduce activity, and complicate adherence
Osteoarthritis	Associated with weakness, reduced mobility, and metabolic inflammatory factors
Peripheral neuropathy	Can affect balance, gait, foot integrity, and exercise safety
Fatty liver disease	Often signals broader insulin-resistant metabolic dysfunction

The clinical implication is straightforward: don’t treat recurrent pain only as a local tissue problem, and don’t treat insulin resistance only as a laboratory-value problem. Both require a patient-specific, whole-person plan.

Where Chiropractic Care Fits

Chiropractic care can help address mechanical pain, restricted movement, joint stiffness, altered movement patterns, and functional limitations that interfere with physical activity. However, it should be presented accurately: spinal manipulation does not directly reverse insulin resistance, normalize insulin levels, cure diabetes, or replace evidence-based medical management.

Its potential value is practical. When pain or mobility limitations prevent a person from walking, strength training, working, sleeping, or participating in rehabilitation, appropriate conservative care may reduce barriers to movement.

The American College of Physicians recommends nonpharmacologic options including spinal manipulation and massage for acute or subacute low back pain. For chronic low back pain, the guideline recommends exercise and multidisciplinary rehabilitation as first-line approaches; it also includes spinal manipulation as an option, although the certainty of evidence for some outcomes is low (Qaseem et al., 2017).

At Injury Medical Clinic PA and the Mission Spine Treatment Clinic in El Paso, Dr. Alexander Jimenez, DC, APRN, FNP-BC, describes a clinical model centered on mobility, flexibility, agility, functional rehabilitation, nutritional support, and patient-specific noninvasive care. His clinical observations emphasize that pain care should move beyond short-term symptom suppression toward restoring functional capacity: the ability to walk, bend, lift, work, exercise, and return to meaningful activities. The clinic reports an integrated team of chiropractors, nutritionists, physicians, nurse practitioners, and rehabilitation staff, with services focused on injury care, sports wellness, nutritional protocols, and functional recovery.

Dr. Jimenez’s professional profile similarly describes evaluating movement and performance limitations, then integrating chiropractic management with functional rehabilitation, targeted nutrition, lifestyle management, and individualized conditioning programs.

A Clinically Responsible Chiropractic Role

For a patient with insulin resistance and musculoskeletal pain, chiropractic management may include:

• Screening for red flags, neurologic deficits, vascular concerns, fracture risk, infection, inflammatory disease, and other conditions needing medical referral.
• Evaluating posture, gait, joint range of motion, movement tolerance, muscle imbalance, lifting mechanics, and regional interdependence.
• Using manual therapy or spinal manipulation, when indicated and appropriate, to address mechanical pain and mobility restrictions.
• Prescribing progressive mobility, stabilization, and strengthening exercises.
• Coaching graded exposure to walking, resistance training, work tasks, or recreational activity.
• Coordinating with primary care, endocrinology, podiatry, physical therapy, nutrition professionals, and other clinicians when metabolic disease, neuropathy, or complex comorbidities are present.

The desired outcome is not merely a temporary reduction in pain. It is greater physical capacity, safer movement, and a better ability to participate in the interventions with the strongest evidence for improving insulin sensitivity: sustained physical activity, resistance exercise, nutritional change, adequate sleep, weight management when appropriate, and medical treatment when indicated.

Discovering the Benefits of Chiropractic Care- Video

An Integrated Nonsurgical Plan

The most useful clinical model combines conservative pain care with medically supervised metabolic care. The specific mix should be individualized according to symptoms, laboratory findings, medical history, medications, exercise tolerance, and patient goals.

Chiropractic Care and Physical Therapy

Chiropractic care and physical therapy complement each other when roles are clear. Manual treatment may help reduce pain and improve short-term mobility for some patients. At the same time, physical therapy provides progressive loading, motor-control retraining, balance work, gait retraining, and a structured return-to-activity program.

For insulin resistance, strength training is especially valuable because muscle is a major site of glucose disposal. A well-designed rehabilitation plan can begin below the patient’s pain threshold and advance gradually. Examples include:

• Sit-to-stand training
• Supported squats
• Hip-hinge and lifting retraining
• Step-ups or low-impact stair work
• Resistance bands or light weights
• Core stabilization and trunk endurance training
• Walking intervals
• Balance training for people with neuropathy or fall risk

The goal is sustainable capacity, not punishing exercise. Severe pain flares, neuropathy, cardiopulmonary disease, uncontrolled hypertension, foot ulcers, or unstable glucose levels warrant additional screening and individualized medical guidance.

Massage Therapy and Soft-Tissue Care

Massage therapy may help with short-term pain relief, relaxation, perceived muscle tension, and treatment adherence, particularly when pain and stress have reduced a patient’s willingness to move. For acute and subacute low back pain, massage is one of the non-drug options recognized in the ACP guideline (Qaseem et al., 2017).

Massage should not be described as “detoxifying” insulin resistance or breaking up metabolic disease. Its appropriate role is supportive: improving comfort, helping patients tolerate movement, and complementing active rehabilitation. It is generally most valuable when paired with an exercise and self-management plan rather than used as the only treatment.

Functional Wellness and Nutrition

Functional wellness should be evidence-informed, individualized, and integrated with primary medical care. A practical metabolic assessment may include:

• Blood pressure and waist circumference
• Fasting glucose and hemoglobin A1c
• Lipid profile
• Consideration of fasting insulin and HOMA-IR when clinically appropriate, recognizing these are not universal diagnostic standards.
• Liver enzymes and assessment for fatty liver risk
• Sleep quality and screening for sleep apnea
• Medication review
• Dietary pattern, alcohol intake, stress, and activity history
• Foot examination and neurologic screening when diabetes or neuropathy is suspected

Nutrition should focus on an eating pattern the patient can sustain, not on a single “perfect” diet. The American Diabetes Association identifies evidence for several dietary approaches, including Mediterranean-style and lower-carbohydrate eating patterns, and emphasizes physical activity as part of cardiometabolic care.

For many patients, useful first steps include:

• Replacing sugary beverages with water or unsweetened alternatives
• Increasing minimally processed foods and dietary fiber
• Building meals around vegetables, protein, legumes, whole grains as tolerated, and unsaturated fats
• Reducing refined carbohydrates and highly processed snacks
• Ensuring sufficient protein and overall nutrient intake, particularly during weight-loss efforts
• Coordinating with the prescribing clinician before using glucose-lowering supplements or beginning fasting, especially when taking insulin, sulfonylureas, or other diabetes medications

Supplements such as berberine, magnesium, alpha-lipoic acid, chromium, curcumin, and others should not be portrayed as universally effective or harmless. They can interact with medications, alter glucose levels, and are not substitutes for medical diagnosis or treatment.

Medical Co-Management

A collaborative clinician should evaluate whether prescription therapy is appropriate. Depending on the diagnosis and individual risk profile, medical treatment may include medications for diabetes, hypertension, dyslipidemia, obesity, neuropathic pain, or other comorbidities.

Nonsurgical care does not mean avoiding medical care. It means using a coordinated, conservative approach first when clinically appropriate while promptly escalating evaluation for concerning symptoms or conditions that require specialist treatment.

A Practical Care Pathway

A patient with chronic low back pain, knee pain, shoulder stiffness, recurrent tendinopathy, fatigue, or suspected insulin resistance could follow this sequence:

1. Establish the diagnosis. Confirm whether insulin resistance, prediabetes, diabetes, neuropathy, osteoarthritis, radiculopathy, inflammatory disease, or another condition is present.
2. Identify pain barriers. Determine what prevents activity: spinal pain, hip weakness, balance impairment, fear of movement, foot symptoms, sleep loss, work demands, or poor recovery.
3. Restore tolerable movement. Use a combination of education, chiropractic or manual care when appropriate, mobility work, soft-tissue treatment, and symptom-guided activity modification.
4. Build muscle capacity. Progress toward supervised resistance training and aerobic activity in a way that respects pain, neurologic status, cardiovascular risk, and glucose-management needs.
5. Address metabolic drivers. Coordinate nutrition, sleep, stress management, smoking cessation if applicable, medication optimization, and monitoring with the medical team.
6. Measure outcomes. Track pain, walking tolerance, strength, sleep, waist circumference, A1c or glucose markers, blood pressure, work function, and quality of life rather than relying on symptoms alone.

Safety and Realistic Expectations

Seek urgent medical assessment for new or worsening weakness, saddle numbness, bowel or bladder dysfunction, fever, unexplained weight loss, severe night pain, a hot swollen joint, foot wounds, sudden loss of circulation, chest pain, or symptoms of markedly high or low blood glucose.

For lipomas specifically, a growing, painful, firm, fixed, deep, recurrent, or diagnostically uncertain mass should be evaluated by a qualified medical clinician. Imaging, biopsy, or surgical referral may be necessary to exclude other soft-tissue tumors. Surgical excision remains the standard definitive treatment for a symptomatic or concerning lipoma; metabolic optimization supports overall health but should not be promised to eliminate an established lipoma.

The central message is not that insulin resistance explains every pain condition, nor that chiropractic care replaces medical treatment. Pain, mobility, muscle health, metabolic regulation, and long-term function are closely connected. A coordinated plan that combines evidence-informed chiropractic care, physical therapy, massage when appropriate, progressive exercise, nutritional and lifestyle care, and medical oversight can help patients move better, participate more fully in metabolic treatment, and improve their quality of life.

References

• American Diabetes Association. (2025). The American Diabetes Association releases “Standards of Care in Diabetes – 2026”.
• Fry, C. S., Drummond, M. J., Glynn, E. L., Dickinson, J. M., Gundermann, D. M., Timmerman, K. L., Walker, D. K., Dhanani, S., Volpi, E., & Rasmussen, B. B. (2021). Reduced muscle strength is associated with insulin resistance in adults with and without type 2 diabetes. Journal of Clinical Endocrinology & Metabolism, 106(4), e1062-e1075.
• Injury Medical Clinic PA. (n.d.). El Paso, TX | Sciatica Pain and Treatment Clinic.
• Jimenez, A. (n.d.). Alexander Jimenez | LinkedIn.
• Mabilleau, G., & Chappard, D. (2020). Insulin resistance in osteoarthritis: Similar mechanisms to type 2 diabetes and obesity. International Journal of Molecular Sciences, 21(4), 1382.
• Qaseem, A., Wilt, T. J., McLean, R. M., & Forciea, M. A. (2017). Noninvasive treatments for acute, subacute, and chronic low back pain: A clinical practice guideline from the American College of Physicians. Annals of Internal Medicine, 166(7), 514-530.

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