Conditions
We Treat

What Is It?

Neck and back pain encompasses a broad clinical spectrum. Acute mechanical pain — arising from a specific incident such as a lifting injury — typically resolves within six weeks. Chronic presentations (persisting beyond 12 weeks) are more complex, often involving a combination of structural dysfunction, muscle imbalance, trigger point referral, and central nervous system sensitisation.

The lumbar spine is the most commonly affected region, with the cervical spine a close second. Thoracic pain is frequently associated with prolonged postural loading and is commonly seen in desk-based workers. Many presentations involve all three regions simultaneously through compensatory movement patterns.

Common Causes

• Sustained forward head posture and prolonged sitting (desk work, driving, screen use)
• Muscle imbalances — overactive upper trapezius and levator scapulae; underactive deep cervical flexors
• Lumbar disc degeneration or herniation with associated muscle guarding
• Trigger points in paraspinal, gluteal, and hip flexor muscles generating local and referred pain
• Psychological stress — which increases resting muscle tone and pain sensitivity
• Repetitive occupational loading or sudden overload (e.g. heavy lifting in a fatigued or compromised position)
• Prior injury that was inadequately rehabilitated, leaving residual weakness and altered movement patterns

How Myotherapy Can Help

Myotherapy addresses neck and back pain through a combination of modalities selected on the basis of clinical assessment rather than a generic protocol:

• Soft tissue therapy — reduces resting muscle tone in hypertonic paraspinals, upper trapezius, and hip flexors
• Trigger point therapy — deactivates myofascial trigger points generating local and referred pain
• Dry needling — provides deeper neuromuscular inhibition of trigger points when manual therapy alone is insufficient
• Cupping — myofascial decompression to address deep fascial restrictions around the thoracic spine
• Joint mobilisation — restores segmental movement and reduces joint pain in hypomobile spinal segments
• Exercise rehabilitation — deep cervical flexor and lumbar stabilisation programmes to address the underlying weakness driving recurrence

Expected Outcomes

Likely Symptom Changes

In the first 1–3 sessions: reduced acute muscle tension and improved range of motion, though pain may fluctuate. By sessions 4–6: pain intensity and frequency should be measurably decreasing; inter-session relief periods lengthen. By sessions 8–12: functional improvement in daily activities, reduced recurrence frequency, and improved posture with exercise compliance. Full resolution of chronic pain may require ongoing management beyond the initial treatment course.

What Is It?

The shoulder complex depends on coordinated neuromuscular function across four rotator cuff muscles (supraspinatus, infraspinatus, teres minor, subscapularis), the scapular stabilisers, and the glenohumeral joint capsule. When this coordination breaks down — through overload, trauma, or progressive deconditioning — a range of presentations emerge.

Rotator cuff tendinopathy (formerly impingement syndrome) is the most common, involving degenerative changes in the tendon with associated pain on overhead activities and loading. Adhesive capsulitis (frozen shoulder) involves progressive glenohumeral joint stiffness with severe ROM restriction. Acromioclavicular joint injuries typically follow a fall or direct contact. Biceps tendinopathy presents as anterior shoulder pain with resisted elbow flexion or supination.

Common Causes

• Repetitive overhead loading (throwing sports, swimming, trade work) exceeding tendon capacity
• Weak scapular stabilisers (lower trapezius, serratus anterior) leading to altered humeral head mechanics
• Tight pectoralis minor pulling the scapula into anterior tilt and reducing subacromial space
• Reduced thoracic extension limiting overhead shoulder mobility
• Traumatic labral or rotator cuff tears (fall, dislocation, contact sport)
• Hormonal factors and systemic conditions such as diabetes and thyroid dysfunction (adhesive capsulitis)
• Sustained desk posture with internal rotation and protraction of the shoulder girdle

How Myotherapy Can Help

• Soft tissue therapy — pectoralis minor, infraspinatus, teres minor, subscapularis, and upper trapezius to restore normal muscle length and tone
• Dry needling — directly into rotator cuff trigger points for pain modulation when manual therapy alone cannot reach depth
• Joint mobilisation — glenohumeral and thoracic mobilisation to restore ROM and reduce joint pain
• Exercise rehabilitation — evidence-based rotator cuff and scapular stabiliser programmes (external rotation, lower trapezius, serratus anterior loading); the primary long-term intervention for tendinopathy
• Postural correction — addressing thoracic kyphosis and scapular positioning to reduce mechanical irritation

Expected Outcomes

Likely Symptom Changes

Early sessions: reduction in resting shoulder pain and improved muscle length in pec minor and upper trap. Mid-treatment: improved pain-free ROM for overhead and reaching activities. Later sessions: strength and endurance improvements become the primary measure of progress. Pain during exercise is common early in rehabilitation — this should reduce progressively over weeks, not increase.

What Is It?

The most common presentations include patellofemoral pain syndrome (PFPS) — lateral or anterior knee pain related to altered patella tracking — gluteal tendinopathy (deep lateral hip pain worsened by sitting, stairs, and walking), hip flexor-related anterior hip and groin pain from prolonged sitting, and osteoarthritic joint pain in both regions.

Many knee pain presentations originate proximally: a runner with patellofemoral pain is frequently dealing with insufficient gluteus medius strength causing excessive hip adduction and internal rotation during the stance phase, increasing compressive load on the patellofemoral joint. Treating the knee alone without the hip produces short-lived outcomes.

Common Causes

• Gluteus medius weakness causing excessive hip adduction and internal tibial rotation
• Tight hip flexors from prolonged sitting reducing hip extension and altering gait mechanics
• VMO (vastus medialis oblique) inhibition relative to lateral quadriceps pull on the patella
• Rapid increases in training load without adequate adaptation time
• Previous ligament or meniscal injury with incomplete neuromuscular rehabilitation
• Leg length discrepancy or foot pronation affecting lower limb alignment
• Osteoarthritis — cartilage degradation with subchondral bone changes, synovial inflammation

How Myotherapy Can Help

• Soft tissue therapy — quadriceps, iliotibial band, TFL, hip flexors, and gluteals to restore normal muscle length and reduce compressive forces at the knee and hip
• Dry needling — trigger points in VMO, glute med, and TFL for pain modulation and neuromuscular inhibition
• Exercise rehabilitation — single-leg strength, gluteus medius activation, hip hinge patterning; evidence-based programmes for PFPS and gluteal tendinopathy
• Biomechanical assessment — gait and movement screening to identify the proximal and distal contributors to loading patterns
• Load management education — adjusting training to allow tissue adaptation without aggravation

Expected Outcomes

Likely Symptom Changes

Early: reduced resting hip and knee pain, improved muscle flexibility. Weeks 2–4: improved pain with stairs and walking. Weeks 4–8: progressive strength improvements allowing return to sport or exercise at increased load. Flares may occur if loading is progressed too rapidly — this is managed by adjusting volume and intensity rather than ceasing exercise entirely.

What Is It?

Acute sports injuries involve a specific traumatic mechanism: muscle strains occur when a muscle is loaded beyond its capacity, particularly during eccentric contraction; ligament sprains involve excessive joint range of motion; stress fractures arise from repetitive bone loading without adequate recovery. Classification by tissue type, grade, and mechanism guides the management approach.

Chronic overuse injuries — tendinopathies, stress reactions, bursitis — develop gradually from cumulative loading that exceeds tissue repair capacity. These are the injuries that "shouldn't still be there" after weeks of rest, and they respond poorly to passive treatment alone.

Common Causes

• "Too much, too soon" — rapid increases in training volume, intensity, or frequency
• Biomechanical inefficiency — movement patterns that distribute load unevenly across tissues
• Muscle imbalances — asymmetries in strength or flexibility increasing injury risk
• Inadequate recovery between sessions — insufficient sleep, nutrition, or de-load periods
• Prior injury with incomplete rehabilitation leaving residual weakness, altered proprioception, and compensatory movement patterns
• Environmental factors — hard surfaces, worn footwear, sudden change of playing surface

How Myotherapy Can Help

• Acute phase — reduce muscle guarding, manage pain, and maintain range of motion through gentle soft tissue techniques and education around load management
• Sub-acute and rehabilitation phase — progressive soft tissue therapy, dry needling for pain modulation and trigger point resolution, exercise rehabilitation targeting the specific deficits identified
• Sport-specific return-to-play programming — graduated loading protocols returning athletes to full training and competition safely
• Tendinopathy management — isometric and isotonic loading protocols (the most evidence-supported intervention for tendon pain)
• Load management education — training diary review, volume and intensity adjustments based on tissue tolerance

Expected Outcomes

Likely Symptom Changes

Acute injuries: pain and swelling typically peak at 24–72 hours post-injury before beginning to resolve. Functional milestones — pain-free walking, jogging, sport-specific movement — occur in a progressive sequence over weeks. Tendinopathies: morning stiffness and post-exercise soreness improve first; loading capacity increases gradually. A temporary flare after exercise is normal in tendinopathy rehabilitation and should resolve within 24 hours.

What Is It?

Tension-type headache (TTH) is the most prevalent primary headache disorder, characterised by bilateral, pressing or tightening pain of mild-to-moderate intensity. It is strongly associated with pericranial muscle tenderness — particularly in the suboccipitals, upper trapezius, SCM, and temporalis. TTH is not a neurological headache; its mechanism is primarily musculoskeletal and nociceptive.

Cervicogenic headache (CGH) originates from dysfunctional structures of the upper cervical spine (C0–C3), referring pain into the head via the trigeminocervical nucleus. It is often unilateral, tends to start in the neck before spreading forward, and is reproduced by pressure on upper cervical segments or neck movement. CGH is frequently misclassified as migraine. Migraine involves central sensitisation and trigeminal pathway involvement — myotherapy can reduce trigger factors but does not directly address the neurological mechanisms of true migraine.

Common Causes

• Active trigger points in the suboccipital muscles (rectus capitis, obliquus capitis) referring pain into the occiput, temples, and eye
• Trigger points in the upper trapezius and SCM generating temporal and retroorbital referred pain
• Cervical joint dysfunction at C0–C3 irritating the trigeminal pathway
• Forward head posture increasing compressive load on the upper cervical spine
• Jaw clenching or temporomandibular joint (TMJ) dysfunction
• Sustained screen use and poor workstation setup
• Sleep disruption and psychological stress — which amplify central pain sensitivity

How Myotherapy Can Help

• Trigger point therapy — manual deactivation of suboccipital, SCM, upper trapezius, and temporalis trigger points; often produces immediate headache reduction
• Dry needling — particularly effective for TTH and CGH; randomised trials demonstrate significant reductions in headache frequency and intensity
• Cervical joint mobilisation — addressing C0–C3 hypomobility to reduce cervicogenic referral; strong evidence base for CGH specifically
• Deep cervical flexor strengthening — progressive exercise to restore neuromuscular control of the cervical spine and reduce mechanical loading of upper cervical structures
• Postural correction — forward head posture management reduces compressive load on C0–C3

Expected Outcomes

Likely Symptom Changes

Many clients report headache onset or worsening immediately following the first 1–2 sessions, particularly after dry needling to suboccipitals — this is a recognised post-treatment response. From session 3 onwards, headache frequency should begin declining. By session 6, most TTH and CGH presentations show a clear downward trend. Exercise compliance is the primary predictor of sustained benefit beyond the treatment course.

What Is It?

The sciatic nerve (L4–S3) is the largest peripheral nerve in the body. "Sciatica" describes pain radiating from the lumbar spine through the posterior buttock and down the posterior or lateral thigh, often extending below the knee. It is frequently accompanied by neurological symptoms — numbness, tingling, burning, or weakness in a specific dermatomal pattern.

The two most common mechanisms are lumbar disc herniation (where displaced disc material compresses a nerve root) and piriformis syndrome (where the piriformis muscle or its anatomical relationship with the sciatic nerve generates irritation without disc involvement). These require different treatment approaches. Non-discogenic causes including sacroiliac joint dysfunction and deep gluteal syndrome (sciatic nerve entrapment in the deep gluteal space) are also seen in practice.

Common Causes

• Lumbar disc herniation — most commonly L4/L5 or L5/S1 — with nerve root compression or chemical irritation
• Piriformis tightness or hypertrophy compressing or irritating the sciatic nerve in the deep gluteal space
• Spinal stenosis — narrowing of the spinal canal reducing the available space for nerve roots
• Sacroiliac joint dysfunction generating referred pain into the posterior thigh
• Prolonged sitting — increasing intradiscal pressure and compressing the piriformis
• Heavy repetitive lifting in flexion and rotation — a common mechanism for disc herniation

How Myotherapy Can Help

• Neural mobilisation (nerve sliders and tensioners) — restores mechanical mobility of the sciatic nerve through its surrounding tissues; most effective when neural mechanosensitivity is confirmed on assessment
• Soft tissue therapy — piriformis, deep hip rotators, gluteus maximus, and lumbar paraspinals to reduce mechanical compression and improve tissue extensibility
• Dry needling — deactivation of gluteal and deep hip rotator trigger points that maintain sciatic nerve irritation
• Exercise rehabilitation — nerve mobility exercises as a home programme; core stability and lumbar decompression exercises for disc-related presentations
• Postural education — sitting position modification, lifting mechanics, and load management

Note: Myotherapy does not treat disc herniation structurally. Medical referral is appropriate where progressive neurological deficit (worsening weakness, bladder or bowel dysfunction) is present.

Expected Outcomes

Likely Symptom Changes

Early in treatment: reduction in local buttock pain and muscle guarding; neurological symptoms (tingling, numbness) may persist or temporarily increase — this is not a sign of harm if it resolves within 24 hours post-session. Progressive sessions: the distribution of pain tends to "centralise" (move from the foot/leg back toward the lumbar spine) before resolving — this centralisation is a positive prognostic sign. Complete resolution of nerve symptoms typically lags behind pain resolution by several weeks.

What Is It?

The two most clinically relevant postural syndromes are Upper Crossed Syndrome (UCS) and Lower Crossed Syndrome (LCS), described by Czech neurologist Vladimir Janda. UCS involves tight pectoralis minor, upper trapezius, levator scapulae, and suboccipitals — paired with weak deep cervical flexors and lower trapezius/serratus anterior. The result is forward head posture, rounded shoulders, and increased thoracic kyphosis.

LCS involves tight hip flexors and lumbar extensors paired with weak abdominals and gluteal muscles. The result is anterior pelvic tilt, increased lumbar lordosis, and forward-displaced trunk. Both syndromes increase compressive loading on the spine and generate predictable pain patterns — they are also commonly seen together.

Common Causes

• Prolonged desk-based work and screen use — the primary contemporary driver of UCS
• Sustained sitting shortening hip flexors and inhibiting gluteals
• Smartphone and tablet use driving cervical flexion and shoulder protraction
• Habitual movement patterns that reinforce imbalances over years
• Lack of physical activity — muscles not regularly loaded into their full range become deconditioned
• Occupational postures that lock the body into a narrow range (surgery, dentistry, manufacturing)

How Myotherapy Can Help

• Soft tissue therapy and dry needling — to shortened, overactive muscles: pectoralis minor, upper trapezius, levator scapulae, suboccipitals, hip flexors, lumbar extensors
• Joint mobilisation — thoracic extension mobility is often a critical limiting factor in both UCS and forward head posture
• Exercise rehabilitation — progressive strengthening of inhibited muscles: deep cervical flexors, lower trapezius, serratus anterior, gluteus maximus and medius
• Postural re-education — neuromuscular retraining of resting posture and movement patterns; ergonomic advice for workstation setup

Expected Outcomes

Likely Symptom Changes

Sessions 1–3: immediate reduction in muscle tension and pain; improved range of motion in the thoracic spine and shoulders. Sessions 4–8: noticeable improvement in resting posture — reduced forward head carriage, improved shoulder positioning. Months 2–4 (with exercise): progressive strength improvements allowing sustained posture without effort. Stress-related flares are expected and managed by maintaining the exercise programme.

What Is It?

RSI encompasses several distinct clinical presentations. Carpal tunnel syndrome involves compression of the median nerve at the wrist, producing numbness, tingling, and weakness in the thumb, index, and middle fingers. De Quervain's tenosynovitis affects the tendons of the thumb at the wrist, causing pain with gripping and pinching. Thoracic outlet syndrome involves compression of the brachial plexus, subclavian artery, or subclavian vein between the clavicle and first rib, producing upper limb neural and/or vascular symptoms.

All RSI presentations share a psychosocial component: workplace stress consistently amplifies symptom severity and slows recovery, making the biopsychosocial management approach essential.

Common Causes

• Repetitive keyboard and mouse use maintaining the wrist in sustained extension or ulnar deviation
• Assembly-line tasks and manual trades requiring repetitive gripping, pinching, or tool use
• Poor ergonomic setup — keyboard height, mouse position, and monitor placement all influence upper limb loading
• Inadequate rest breaks — tissue repair requires periods of unloading
• Tight scalenes and pectoralis minor reducing the space available for the brachial plexus (thoracic outlet syndrome)
• High psychosocial workplace stress — directly amplifying pain sensitivity and symptom reporting

How Myotherapy Can Help

• Neural mobilisation — median, ulnar, and radial nerve sliders and tensioners to restore nerve mobility and reduce mechanosensitivity
• Soft tissue therapy — forearm flexors and extensors, scalenes, pectoralis minor, and subclavian region to reduce compression on neural and vascular structures
• Dry needling — trigger point deactivation in forearm and shoulder girdle musculature
• Ergonomic assessment and advice — workstation review and recommendations to modify sustained loading patterns
• Load management — graduated return to activity with appropriate rest intervals

Expected Outcomes

Likely Symptom Changes

Early sessions: reduction in local forearm and wrist pain; neural mobilisation may temporarily increase tingling before reducing it — this settles within 24 hours. Progressive sessions: gradual reduction in neurological symptoms (tingling, numbness) with improved hand strength and endurance. Symptom flares at work remain likely until ergonomic changes are implemented. Pain typically resolves before neurological symptoms, which can lag by several weeks.

What Is It?

The plantar fascia is a thick band of connective tissue running from the calcaneus (heel bone) to the metatarsal heads, supporting the medial longitudinal arch of the foot. Plantar fasciopathy involves degenerative change at the proximal insertion on the calcaneus. The hallmark presentation is sharp, stabbing pain with the first steps in the morning (post-static dyskinesia), which typically eases after several minutes of walking, then worsens again with prolonged weight-bearing activity.

Common Causes

• Sudden increase in weight-bearing activity — the most common trigger ("too much, too soon")
• Tight gastrocnemius and soleus restricting ankle dorsiflexion, increasing plantar fascia load
• Reduced intrinsic foot muscle strength — these muscles share load with the plantar fascia
• Excessive foot pronation increasing tensile loading of the medial plantar fascia
• Prolonged standing on hard surfaces without adequate footwear
• High BMI — increases ground reaction force through the plantar fascia with each step
• Prior calf injury or Achilles tendinopathy altering ankle mechanics and load distribution

How Myotherapy Can Help

• Soft tissue therapy — gastrocnemius, soleus, tibialis posterior, and the intrinsic plantar muscles to restore flexibility and reduce the tensile load through the plantar fascia
• Dry needling — into the plantar fascia and calf trigger points; reduces local pain and improves tissue extensibility
• Cupping — myofascial decompression of the posterior calf compartment
• Exercise rehabilitation — progressive intrinsic foot strengthening, high-load calf (soleus) eccentric and isometric loading, ankle dorsiflexion mobility work
• Load management education — activity modification to allow tissue adaptation without complete rest (which delays recovery)

Expected Outcomes

Likely Symptom Changes

Early sessions: reduced calf tightness and immediate post-treatment heel pain reduction. Weeks 2–4: reduction in pain during activities of daily living; morning pain begins to decrease in intensity. Weeks 4–8: progressive improvement in walking and exercise tolerance; morning stiffness duration shortens. Complete resolution of morning pain typically occurs last, often at weeks 8–12. Return to running is typically appropriate when weight-bearing activity is pain-free and single-leg calf raise capacity is symmetrical.

What Is It?

The iliotibial band (ITB) is a thick fascial tract running from the iliac crest to the lateral tibia (Gerdy's tubercle), incorporating the tensor fascia latae (TFL) and portions of the gluteus maximus. The current evidence suggests that ITB syndrome involves compression of a well-innervated fat pad beneath the distal ITB at approximately 30 degrees of knee flexion (the "impingement zone"), not friction against the lateral femoral condyle.

This distinction matters clinically: compression-based pathology requires load management and strength work, not aggressive stretching of an already taut structure.

Common Causes

• Rapid training load increase — the most consistent risk factor across studies
• Weak gluteus medius allowing excessive hip adduction during the stance phase, increasing ITB tension
• Weak gluteus maximus reducing hip extension control and increasing hip internal rotation
• Excessive knee internal rotation due to hip weakness or foot pronation
• Cambered road surfaces — training consistently on cambered roads loads the downhill ITB more
• Worn footwear losing lateral stability
• Sudden increase in hill running or cycling cadence

How Myotherapy Can Help

• Soft tissue therapy — TFL, gluteus medius, lateral quadriceps, and the proximal ITB origin; addressing trigger points in TFL that refer directly to the lateral knee
• Dry needling — TFL and glute med trigger point deactivation; often dramatically reduces lateral knee pain within 2–3 sessions
• Hip strengthening (exercise rehabilitation) — progressive gluteus medius and maximus loading is the primary long-term intervention; single-leg exercises in the sagittal and frontal plane
• Running gait assessment — identification of hip drop, crossover gait pattern, or cadence issues contributing to ITB load
• Load management — temporary training reduction with structured return-to-run programming

Expected Outcomes

Likely Symptom Changes

Early: reduction in sharp lateral knee pain with treatment to TFL; improved hip mobility. Weeks 2–3: pain-free walking and easy cycling restored. Weeks 4–6: progressive return to running with load management; lateral knee pain may recur transiently when training load is increased — this is managed by slowing progression, not stopping. Weeks 6–10: return to full training capacity with maintained hip strength programme. Runners who discontinue the hip strengthening programme after symptom resolution have high recurrence rates.

What Is It?

Lateral epicondylalgia (tennis elbow) involves degenerative change in the common extensor tendon origin at the lateral epicondyle of the humerus. Despite the name, only a minority of sufferers play tennis — it is predominantly seen in desk workers, tradespeople, and anyone requiring repetitive wrist extension or gripping. Medial epicondylalgia (golfer's elbow) involves the same pathology at the common flexor tendon origin on the medial epicondyle, associated with repetitive wrist flexion and forehand gripping.

Both conditions show histological features of failed tendon healing — angiofibroblastic hyperplasia, collagen disarray, and neovascularisation — with no evidence of inflammatory cells in chronic presentations. This is why anti-inflammatory approaches (NSAIDs, corticosteroid injection) provide only temporary relief and may impair long-term tendon recovery.

Common Causes

• Repetitive mouse and keyboard use maintaining the wrist in extension (lateral) or flexion (medial)
• Manual trade work — carpentry, plumbing, painting — requiring sustained gripping and tool use
• Racquet sports with poor technique or inappropriate equipment (grip size, string tension)
• Sudden load spike after a period of reduced activity
• Weakness in the deep neck flexors and scapular stabilisers altering neuromuscular control of the elbow

How Myotherapy Can Help

• Soft tissue therapy — forearm extensor/flexor muscle belly release to reduce the load placed on the tendon origin
• Dry needling — into the common extensor/flexor tendons and associated trigger points; provides immediate pain reduction through neurological pain modulation
• Isometric exercise — strong evidence for immediate analgesia; particularly useful in acute pain phases and as a daily self-management strategy
• Progressive tendon loading (isotonic exercise) — the primary long-term intervention; gradual eccentric and concentric loading of the tendon according to the reactive–degenerative continuum
• Load modification education — workstation setup, grip strength management, and activity pacing

Expected Outcomes

Likely Symptom Changes

Early: post-session reduction in resting elbow pain; isometric exercises produce immediate analgesia lasting several hours. Weeks 2–4: reduced pain with gripping and typing activities. Weeks 4–8: progressive increase in pain-free grip strength and endurance. A 24-hour pain rule applies to tendon loading — some discomfort during exercise is acceptable, but if pain persists beyond 24 hours post-exercise, the load was excessive and should be reduced. Full capacity restoration typically takes 3–6 months in established tendinopathy.

What Is It?

Chronic muscle tension refers to persistently elevated resting muscle tone — most commonly affecting the upper trapezius, levator scapulae, suboccipitals, jaw (masseter, temporalis), and thoracic paraspinals. Unlike acute muscle guarding (a protective response to injury), chronic tension is maintained by a combination of postural loading, habitual muscle bracing, sympathetic nervous system upregulation, and sleep disruption.

The relationship between psychological stress and musculoskeletal tension is bidirectional and well-established: stress increases resting muscle tone; elevated muscle tone generates pain signals that increase stress and disrupt sleep; disrupted sleep impairs muscle recovery and amplifies central pain sensitivity. Breaking this cycle requires both musculoskeletal treatment and attention to the drivers.

Common Causes

• Chronic psychological stress — the most consistent driver; activates sustained sympathetic tone and inhibits parasympathetic recovery
• Poor sleep quality — impairs tissue recovery and lowers pain thresholds, perpetuating the cycle
• Sustained postural loading — prolonged desk work, driving, device use maintaining upper trapezius and levator scapulae in continuous low-level contraction
• Habitual bracing patterns — jaw clenching, shoulder elevation, breath-holding under stress
• Anxiety disorders — which significantly correlate with elevated upper trapezius EMG activity at rest
• Sedentary lifestyle — lack of aerobic activity leaves the nervous system without a physiological stress outlet

How Myotherapy Can Help

• Deep soft tissue therapy — global and segmental work across the upper trapezius, cervical and thoracic paraspinals, and suboccipitals to mechanically reduce resting muscle tone
• Trigger point therapy — deactivation of chronic trigger points in upper trap, levator scapulae, and suboccipitals that perpetuate tension and headaches
• Dry needling — particularly effective for the upper trapezius and suboccipitals where manual pressure alone may be insufficient
• Cupping and remedial massage — promote parasympathetic nervous system activation (reducing cortisol, lowering heart rate), providing both local tissue benefit and systemic relaxation
• Breathing pattern re-education — many chronic tension sufferers are upper chest breathers, maintaining a low-level stress response in the accessory respiratory muscles
• Aerobic exercise prescription — consistent evidence that aerobic exercise reduces pain sensitivity and musculoskeletal tension through central nervous system modulation

Expected Outcomes

Likely Symptom Changes

Session 1: significant post-session tension reduction lasting 1–3 days. Sessions 2–4: inter-session relief period lengthens; headache frequency typically decreases if tension headaches were present. Sessions 4–8: some clients find they need treatment less frequently as the underlying drivers are addressed; others maintain a regular (fortnightly or monthly) maintenance schedule. Stress-related flares are expected and managed by returning to the established treatment protocol — they do not indicate regression to baseline.