Chiropractic and Laser Therapy for Pain Relief Solutions

Chiropractic and Laser Therapy for Pain Relief

Abstract

In this educational post, I present a comprehensive, first-person overview of how we apply modern, evidence-based laser therapy within an integrative care framework for low back pain, facet-mediated joint pain, stiffness, and related musculoskeletal conditions. I explain practical setup, dosing, and safety for multi-wavelength, pulsed laser systems, discuss energy density (joules/cm²) and bio-stimulation principles, and outline clinical reasoning for acute versus chronic care plans. I also detail how our multidisciplinary team at Injury Medical Clinic PA (Mission Plaza Injury Medical Clinic) in El Paso, Texas, integrates chiropractic care, functional medicine, personal injury care, rehabilitation, and medical oversight. Our Medical Director and Collaborative Physician, Dr. Maria Guadalupe Cardenas, MD (Board Certified in Internal Medicine; NPI #1164426749; Texas MD License #J2933), works closely with me, Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST, to optimize outcomes using precision dosing, orthobiologic protocols, and mitochondrial support strategies. I include clinical observations from my practice and digital resources (Sciatica Clinic and LinkedIn) and provide references to leading research on photobiomodulation, dosing, and musculoskeletal rehabilitation.

Introduction: Our Integrative Model in El Paso

I am Dr. Alexander Jimenez, DC, APRN, FNP-BC, CFMP, IFMCP, ATN, CCST. At Injury Medical Clinic PA—also known as Mission Plaza Injury Medical Clinic—in El Paso, Texas, our team delivers multidisciplinary care designed for musculoskeletal pain, personal injury, and functional restoration. Our Medical Director and Collaborative Physician is Dr. Maria Guadalupe Cardenas, MD, an internist with over 40 years of clinical experience (NPI #1164426749; Texas MD License #J2933). Together, we coordinate:

• Integrative chiropractic care and manual therapy
• Functional medicine and metabolic optimization
• Personal injury assessments and documentation
• Rehabilitation, movement therapy, and neuromuscular re-education
• Precision laser therapy (photobiomodulation) with robotic and handheld systems
• Orthobiologic coordination (e.g., PRP) with laser-enhanced protocols
• Medical oversight, risk stratification, and care continuity

Our approach emphasizes patient comfort, precise targeting, and energy-density dosing, while harmonizing manual care with medical direction and functional rehabilitation.

Patient Comfort and Precise Targeting: Why Setup Matters

In practice, patient comfort is foundational. When using a robotic laser, I prioritize stable positioning to prevent the patient from shifting during treatment. For the low back, prone positioning facilitates direct skin contact, accurate targeting, and repeatability. Stable positioning minimizes dose variability and ensures consistent exposure to a defined region.

• Key setup steps:
  • Position the patient to maintain comfort and reduce movement.
  • Use direct-to-skin contact when required for the handheld device; maintain the correct standoff distance (typically around 6 inches) for robotic delivery, as specified by the device.
  • Zero the X and Y axes on the robotic interface to center the treatment area.
  • Expand the X/Y fields modestly to include the symptomatic region and adjacent connective tissue for a multimodal field of care, not just the point of pain.

This clinical multimodal approach targets the local pain generator and surrounding fascia, aponeuroses, and myofascial chains, which often perpetuate nociception and altered biomechanics.

Understanding Energy Density: Dose Drives Outcomes

We dose by energy density (joules per square centimeter), not by total joules. Most evidence-based protocols target approximately 4–10 J/cm² for musculoskeletal indications, with condition-specific refinement. For example, a facet-mediated low back pain case might sit near 6 J/cm² for localized pain modulation and improved microcirculation.

• Why energy density matters:
  • It standardizes dose relative to tissue area, aligning with consensus recommendations from laser therapy associations and photobiomodulation literature (Anders et al., 2019; WALT guidance).
  • It reduces the risk of bioinhibition (Arndt–Schulz type paradox), where excessively high energy can blunt the desired biostimulatory effects.

When I adjust the robotic laser’s X/Y area, modern software automatically recalibrates treatment time to maintain the selected energy density, ensuring accurate delivery even as the field changes.

The Physiology: Why Photobiomodulation Works

Photobiomodulation (PBM) relies on wavelength-specific interactions with chromophores, most notably cytochrome c oxidase in mitochondria. Pulsed dual wavelengths (e.g., 808 nm continuous and 905 nm pulsed) are commonly used to balance penetration, cellular stimulation, and thermal neutrality.

• Key physiological effects:
  • Mitochondrial upregulation: Increased electron transport and ATP synthesis, better cellular energy availability for repair (Hamblin, 2018).
  • Nitric oxide modulation: Improved microcirculation, vasodilation, and oxygen delivery.
  • Reactive oxygen species (ROS) hormesis: Low-level ROS signaling that triggers adaptive antioxidant responses and pro-healing pathways when dosed appropriately.
  • Inflammatory modulation: Downregulation of pro-inflammatory cytokines (e.g., TNF-α) and upregulation of pro-resolving signals, facilitating pain reduction and tissue remodeling.
  • Neural effects: Modulation of small myelinated fibers and nociceptors, contributing to analgesia without significant surface heating when using short pulse durations and appropriate energy density.

High peak power and short pulse durations allow deeper energy deposition while preventing meaningful increases in surface tissue temperature. Properly administered PBM maintains relatively constant tissue temperature over time, indicating energy is absorbed and biologically utilized rather than generating unwanted heat.

Robotic and Handheld Synergy: Targeting Facets, Trigger Points, and Dynamic Care

I frequently combine the robotic system for broad coverage and the handheld device for focal points:

• Robotic laser:
  • Ideal for covering the facet joint region (e.g., L4–L5) and adjacent paraspinal tissues.
  • Software-guided dosing that adapts to the treatment area.
  • Demonstrable coverage; the visible triangle at ~808 nm helps visualize the active field.
• Handheld laser:
  • Direct skin contact allows precise energy deposition into trigger points, joint spaces, or focal neuropathic loci.
  • Excellent for patients who need dynamic movement during treatment, facilitating neuromotor retraining while controlling pain.
  • Useful when post-surgical areas require non-contact delivery via the robotic laser while the handheld targets adjacent zones.

I will often apply 20–30 seconds per trigger point with the handheld while the robot runs continuously over the broader treatment field. This multimodal delivery integrates localized and regional effects for superior clinical outcomes.

Acute vs Chronic Protocols: Cumulative Gains

The effects of PBM are cumulative. For acute musculoskeletal conditions, I typically recommend 6 sessions; for chronic pain or degenerative changes, 12 sessions is standard, with 24-hour spacing where possible. Practical cadence is often Monday–Wednesday–Friday, then repeated. Patients may feel improvement within 3–5 sessions, but completing the plan is vital to consolidate pain control, range-of-motion gains, and tissue remodeling.

• Practical guidance:
  • Reassess at 4–6 hours post-treatment to gauge immediate functional changes.
  • Maintain continuity even after symptomatic improvement to ensure durable outcomes.

Knee Osteoarthritis: Field Geometry, Joint Position, and Dose Reasoning

For knee OA, joint geometry matters. Direct anterior treatment over the patella can reflect energy; therefore, I often flex the knee and prioritize medial, lateral, and posterior approaches to reach the intra-articular region more effectively. Dosing remains at the target energy density for each compartment, rather than arbitrarily dividing the total energy. If compartments differ in pathology severity, we dose each compartment’s area based on clinical findings and imaging, while keeping density consistent.

Bone Healing and Fracture Considerations

While soft-tissue indications are well supported, bone-healing applications may be off-label depending on device clearance. In prior clinical observations, early application within 7–10 days of injury can support hematoma resolution, modulation of the inflammatory phase, and microcirculatory improvements—factors important in the initial cascade. For non-union fractures, PBM alone is less effective; here we coordinate with orthobiologic strategies and orthopedic consultation under Dr. Cardenas’s medical direction.

Orthobiologics: Priming, Day-of, and Post-Injection Laser Integration

When integrating PRP or other orthobiologics, I use a three-phase laser protocol:

• Priming phase: 2–3 PBM sessions in the two weeks leading up to injection to “prepare the soil” by enhancing local perfusion, tissue oxygenation, and cellular responsiveness.
• Day-of injection: Adjust parameters to avoid blunting the pro-inflammatory initiation phase of PRP while amplifying constructive signals, such as improved microcirculation and mitochondrial readiness.
• Post-injection phase: Approximately 6 sessions to enhance reparative metabolism, reduce pathologic inflammation, and support functional progression.

Early data and clinical reports suggest enhanced outcomes for pain and function when PBM is layered with PRP. Our goal is to augment, not suppress, the desired inflammatory cascade—calibrating frequency, pulse characteristics, and energy density to support the biological timeline of orthobiologic therapy.

Functional Medicine and Mitochondrial Optimization

Because PBM acts strongly on mitochondrial systems, we align care with functional medicine strategies under medical oversight:

• Medication review: Some pharmaceuticals (e.g., certain statins) can impair mitochondrial function. In collaboration with Dr. Cardenas, we review risks, coordinate with the patient’s prescribing physician, and consider CoQ10 support where appropriate.
• Nutritional and supplement support:
  • CoQ10: Supports electron transport and counteracts statin-associated myopathy in appropriate cases (Saini, 2011).
  • Creatine: Enhances phosphocreatine buffering for ATP-dependent tasks and rehabilitation tolerance (Kreider et al., 2017).
  • NAD+ precursors: Support redox balance and mitochondrial biogenesis; may be considered case-by-case (Rajman et al., 2018).
  • Dietary strategies: Anti-inflammatory nutrition, adequate protein, and micronutrients essential for mitochondrial enzymes.
• Conditioning: Gradual cardio-respiratory and resistance training increase mitochondrial biogenesis, amplifying PBM’s cellular gains.

These steps require individualized medical guidance; our clinic coordinates these decisions safely within the patient’s broader medical plan.

Integrative Chiropractic Care: Restoring Mechanics and Neurodynamics

PBM improves pain and readiness for movement; integrative chiropractic care restores mechanics:

• Spinal and extremity adjustments: Normalize segmental motion, reduce nociceptive input from dysfunctional joints (e.g., facet irritation), and improve proprioceptive signaling.
• Myofascial release and instrument-assisted soft tissue therapy: Address densification and trigger points revealed during palpation.
• Neuromuscular re-education: Re-train lumbo-pelvic control, hip hinge, and thoracic mobility patterns to reduce facet load and asymmetric strain.
• Graded activity: Calibrated progression of movement reduces fear-avoidance and strengthens anti-nociceptive mechanisms.

Dr. Cardenas provides medical oversight for complex cases, ensuring safety and coherence when patients present with comorbid conditions, polypharmacy, or require diagnostic clarity.

Personal Injury Care and Documentation

In personal injury contexts, we emphasize:

• Objective measures: Range of motion, pain scales, functional tests, and imaging correlations.
• Dose logs: Energy density settings, areas treated, session counts.
• Functional outcomes: Return-to-work measures, ADLs, and tolerance to graded exercise.

This documentation supports both clinical progression and medico-legal clarity.

My Clinical Observations and Digital Resources

From my work with sciatica, facet-mediated pain, and trigger points, I consistently observe the following trajectory:

• Early phase (first 3–5 sessions): Improved tolerance to movement and decreased pain intensity, enabling more robust manual therapy and therapeutic exercise.
• Mid-phase (6–10 sessions): Enhanced range of motion, reduction in paraspinal guarding, and measurable gains in core control and gait symmetry.
• Late phase (10–12+ sessions): Stabilization of improvements with functional milestones, reduced flare frequency, and higher activity thresholds.

Safety, Contraindications, and Patient Communication

Proper safety includes:

• Eye protection and beam discipline.
• Avoiding direct irradiation over active malignancy areas, the gravid uterus, or photosensitive conditions without medical clearance.
• Post-surgical considerations: Use non-contact modes when indicated to respect incisions and sterile fields.

Patient communication keys:

• Explain energy density and why we calibrate to area.
• Clarify timelines: PBM is not instantaneous; cumulative effects build over sessions.
• Coach on post-session monitoring at specific times (e.g., check function approximately 4–6 hours after treatment).
• Encourage completion of the full protocol rather than stopping early after initial relief.

Putting It All Together: A Clinical Flow

• Intake and medical review with Dr. Cardenas: Risk stratification, medication reconciliation, diagnostics.
• Chiropractic and functional evaluation with me: Regional interdependence, pain generators, movement deficits.
• PBM plan: Energy density selection (typically 4–10 J/cm²), robotic field setup, handheld trigger point targeting.
• Rehabilitation: Graded exercise, neuromuscular re-education, home care strategies.
• Functional medicine overlay: Nutritional support and mitochondrial optimization when appropriate.
• Orthobiologic integration: Priming, day-of, and post-injection PBM protocols coordinated with medical oversight.
• Reassessment: Functional outcomes and dose adjustments; long-term maintenance plans for degenerative cases.

Conclusion

Modern laser therapy, when delivered with precision energy-density dosing and integrated with chiropractic care, rehabilitation, and functional medicine, offers a robust approach to reducing pain, improving function, and accelerating recovery. In our El Paso clinic, the partnership between chiropractic and internal medicine ensures a safe, comprehensive plan that aligns cellular photobiomodulation with biomechanical correction and metabolic resilience. This is the future of musculoskeletal care—evidence-based, integrative, and patient-centered.

References

• Anders, J. J., Lanzafame, R. J., & Arany, P. R. (2019). Low-level light/laser therapy versus photobiomodulation therapy. https://doi.org/10.1016/j.pbac.2018.10.001
• Hamblin, M. R. (2018). Mechanisms and applications of the anti-inflammatory effects of photobiomodulation. https://doi.org/10.1002/lsm.22783
• Hamblin, M. R. (2017). Mechanisms of photobiomodulation in cells and tissues. https://doi.org/10.1111/php.12962
• Posten, W., et al. (2005). Low-level laser therapy for wound healing: Mechanism and efficacy. https://doi.org/10.1016/j.surg.2004.08.021
• Rajman, L., Chwalek, K., & Sinclair, D. A. (2018). Therapeutic potential of NAD-boosting molecules. https://doi.org/10.1038/s41573-018-0003-1
• Saini, R. (2011). Coenzyme Q10: The essential nutrient. https://doi.org/10.4103/0975-7406.86336
• WALT (World Association for Laser Therapy). Dosage recommendations for musculoskeletal conditions. https://waltpbm.org