Breathing and Pain: How Dysfunctional Breathing Drives Muscle Tension

by admin | Jan 13, 2025 | Recovery & Wellbeing

Introduction

Breathing is so automatic that most people never think about it. But breathing pattern dysfunction, using the wrong muscles, in the wrong sequence, at the wrong rate, is extraordinarily common, and its consequences extend far beyond just feeling breathless. Dysfunctional breathing drives neck and shoulder tension, worsens anxiety, reduces exercise capacity, disrupts sleep, and perpetuates chronic pain. The good news is that breathing can be retrained relatively quickly, and the improvements cascade across multiple systems. This guide explains normal breathing mechanics, what commonly goes wrong, and the evidence-based approaches to retraining, with significant benefits for anyone experiencing persistent neck, shoulder, or back pain.

Whether you are dealing with a recent flare-up or something that has nagged you for years, understanding why your body hurts is the most important first step. This guide draws on the latest pain science, physiotherapy research, and practical coaching wisdom meticulously validated and referenced to give you peace of mind.

Understanding the Anatomy

Normal breathing at rest involves the diaphragm, the large dome-shaped muscle that separates the thorax from the abdomen. On inhalation, the diaphragm contracts and descends, increasing thoracic volume and creating negative pressure that draws air in. The belly rises as abdominal contents are displaced downward. The accessory breathing muscles, scalenes (side of the neck), sternocleidomastoid (front of the neck), upper trapezius, and pectorals, normally contribute only during high-demand exertion. In dysfunctional breathing, the diaphragm is underused and the accessory muscles compensate, contracting with each breath thousands of times daily, creating chronic neck and shoulder overload.

Key structures involved: Diaphragm (primary breathing muscle, frequently underused), Scalenes (accessory breathing muscles, frequently overloaded), Sternocleidomastoid (accessory), Upper trapezius (accessory), Pectorals (accessory), Intercostals (assist with ribcage expansion).

Why Does It Hurt? Root Causes

Modern pain science reminds us that pain is your nervous system's threat response, not simply a damage signal. That said, there are real, identifiable drivers.

1. Chronic Stress

The stress response drives thoracic breathing, shallow, fast, upper-chest breaths that are appropriate for emergency but damaging when maintained chronically. Stress-induced hyperventilation becomes a habitual breathing pattern.

2. Anxiety and Panic Disorders

Anxiety creates thoracic breathing. Thoracic breathing creates physiological changes (reduced CO2, alkalosis) that worsen anxiety. This bidirectional cycle is one of the most powerful perpetuating mechanisms in panic disorder.

3. Sedentary Posture

Slouching compresses the diaphragm and restricts its movement. The body compensates by recruiting accessory muscles, which are already overloaded from upper crossed syndrome.

4. Overtraining and Exercise

Paradoxically, highly trained athletes can develop dysfunctional breathing patterns, particularly when training intensity creates habitual mouth breathing that does not recede at rest.

5. Nasal Obstruction

Chronic nasal congestion (allergic rhinitis, polyps, deviated septum) forces mouth breathing, bypassing the nasal filtration and humidification that regulate breathing rate and CO2 levels.

How Massage Helps

Massage for breathing dysfunction targets the overloaded accessory breathing muscles, scalenes, SCM, upper trapezius, and pectorals. These muscles, contracting with every breath, develop significant trigger points and hypertonia that are a major source of neck and shoulder pain. Scalene release is particularly transformative: the scalenes originate from the cervical transverse processes and insert into the first and second ribs, when chronically tight, they elevate the ribcage (creating a permanent 'inhale' position) and can compress the brachial plexus (causing arm pain and pins and needles). Releasing these structures combined with diaphragmatic breathing retraining produces rapid, significant improvements.

Beyond specific mechanical effects, massage floods the nervous system with safe, rich sensory input, downregulating the threat response and creating conditions in which healing becomes easier.

Stretches to Try

Consistency matters far more than intensity. Gentle, daily stretching with calm breathing reduces perceived tightness and signals safety to the nervous system.

Diaphragmatic Breathing Practice

Lie on your back. One hand on the chest, one on the belly. Breathe so that only the belly hand rises. 10 minutes daily. Benefit: Retrains the primary breathing pattern, activating the diaphragm and resting the accessory muscles. This single practice can resolve months of neck tension.

Scalene Stretch

Tilt the ear towards the shoulder. Turn the head slightly to look upward. Hold 30 seconds per side. Benefit: Stretches the scalene muscles, among the most chronically overloaded accessory breathing muscles in anxious individuals and desk workers.

Rib Expansion Stretch

Sit tall, hands on the lower ribcage at the sides. Breathe in through the nose, feeling the ribs expand laterally against your hands. 10 breaths. Benefit: Trains lateral diaphragmatic expansion, the movement pattern most inhibited in postural breathing dysfunction.

Strengthening Exercises

Loading tissues progressively tells your nervous system they are capable and resilient.

Box Breathing (4-4-4-4)

Inhale through the nose for 4 counts. Hold 4 counts. Exhale for 4 counts. Hold 4 counts. 5 minutes. Benefit: Reduces CO2 sensitivity, activates the parasympathetic system, and systematically retrains a slow, controlled breathing pattern.

Nasal Breathing During Exercise

Deliberately breathe through the nose during low to moderate intensity exercise. Initially reduces pace tolerance, this normalises within 2 to 4 weeks. Benefit: Nasal breathing filters, humidifies, and slows air; it releases nitric oxide (a bronchodilator); and it trains a slower, more diaphragmatic breathing pattern that carries over to rest.

Cat-Cow with Breath Synchronisation

Inhale as you drop the belly (cow). Exhale as you arch the back (cat). 10 repetitions. Benefit: Coordinates breath with spinal movement, restoring the diaphragmatic excursion that is restricted by chronic thoracic kyphosis.

Practical Self-Care

• Address nasal congestion, you cannot retrain breathing if the nose is always blocked.
• Set reminders to check your breathing pattern during the day, awareness is the first step to change.
• The 4-7-8 breath (inhale 4, hold 7, exhale 8) is particularly effective before sleep for anxiety reduction.
• Patrick McKeown's The Oxygen Advantage is the most comprehensive accessible resource on breathing retraining.
• If breathing retraining worsens anxiety or symptoms, work with a specialist breathing physiotherapist.

When to See a Professional

• Significant breathlessness at rest or with light activity, cardiac or pulmonary cause must be excluded.
• Consistent breathlessness waking you from sleep.
• Breathing dysfunction accompanying panic attacks, breathing physiotherapist and psychological support.
• Voice changes or swallowing difficulty accompanying breathing symptoms. ENT assessment.

A qualified physiotherapist, sports therapist, or massage therapist can identify the specific drivers of your pain.

References and Further Reading

1. Chaitow L et al. Breathing Pattern Disorders, Motor Control and Low Back Pain. J Osteopathic Med. 2002.
2. Clifton-Smith T, Rowley J. Breathing pattern disorders and physiotherapy. Phys Ther Rev. 2011.
3. McKeown P. The Oxygen Advantage. 2015. William Morrow.
4. Courtney R. The functions of breathing and its dysfunctions. Int J Osteopathic Med. 2009.
5. Morrison T. Breathing and performance. tommorrison.uk.

Content is for informational purposes only and does not constitute medical advice. Always consult a qualified healthcare professional before beginning any new exercise or treatment programme.

Managing Chronic Pain: A Modern Evidence-Based Approach

by admin | Dec 20, 2024 | Recovery & Wellbeing

Introduction

Chronic pain, pain persisting beyond 3 months, affects approximately 28 million people in the UK and is the leading cause of disability globally. Despite its prevalence, chronic pain is frequently managed poorly: with an overemphasis on passive treatments (medications, rest), an underemphasis on active rehabilitation (exercise, psychology, education), and a persistent but outdated belief that pain accurately reflects tissue damage. The neuroscience of chronic pain has transformed in the last two decades, we now understand that chronic pain involves genuine changes in the nervous system (not just in the site of injury), that it is influenced significantly by psychological and social factors, and that the treatments that work are often quite different from those that work for acute pain. This guide explains the modern science of chronic pain and what the evidence shows about effective management.

Whether you are dealing with a recent flare-up or something that has nagged you for years, understanding why your body hurts is the most important first step. This guide draws on the latest pain science, physiotherapy research, and practical coaching wisdom meticulously validated and referenced to give you peace of mind.

Understanding the Anatomy

Acute pain is a warning signal, it alerts the brain to potential or actual tissue damage, enabling protective behaviour. Chronic pain, by contrast, is often maintained by changes in the nervous system rather than ongoing tissue damage. The key changes include: peripheral sensitisation (nociceptors at the injury site become more responsive, firing more easily and at lower thresholds); central sensitisation (the dorsal horn neurons of the spinal cord become hyperexcitable, amplifying pain signals from the periphery); and descending pain modulation dysfunction (the brain's ability to dampen pain signals through the descending inhibitory pathways becomes impaired). Together, these changes mean that the nervous system that was originally responding to tissue damage develops a persistent, self-sustaining pain state, even after the original injury has healed.

Key structures involved: Nociceptors (peripheral sensitisation, threshold lowered in chronic pain), Dorsal horn neurons (central sensitisation, hyperexcitable in chronic pain), Descending inhibitory pathways (often impaired in chronic pain), Motor cortex (motor representations are disrupted in chronic pain, driving movement dysfunction), HPA axis (chronic stress and cortisol perpetuate the neurological changes of chronic pain).

Why Does It Hurt? Root Causes

Modern pain science reminds us that pain is your nervous system's threat response, not simply a damage signal. That said, there are real, identifiable drivers.

1. Central Sensitisation. The Core Mechanism

Central sensitisation is now recognised as the primary mechanism maintaining most chronic pain conditions, from fibromyalgia to chronic back pain, chronic headache, and irritable bowel syndrome. It is not 'all in the head', it is a measurable neurological change involving NMDA receptor upregulation, glial cell activation, and reduced GABAergic inhibition in the dorsal horn. Understanding this helps patients and clinicians stop searching for a tissue cause that no longer explains the pain.

2. The Biopsychosocial Model

Chronic pain is not purely biological, psychological and social factors are not just emotional consequences of pain but active drivers of pain persistence. Fear of movement (kinesiophobia), catastrophising, low self-efficacy, depression, poor sleep, and social isolation are all independently predictive of poor chronic pain outcomes and can be measured with validated tools. The biopsychosocial model does not mean pain is not real, it means pain is complex and requires a multi-dimensional approach.

3. Nocebo Effects in Chronic Pain

Negative information about pain, a frightening diagnosis, dramatic imaging reports, statements like 'your spine is crumbling', increases pain and disability through nocebo mechanisms. The opposite (accurate, reassuring information that explains the neuroscience of pain) reduces pain and disability. Pain education, particularly the Explain Pain approach of Moseley and Butler, has demonstrated significant pain reduction in randomised controlled trials.

4. Pain Education and the Threat Response

Lorimer Moseley's model proposes that pain is a protective response to perceived threat, not a sensation that simply reflects tissue damage. Reducing the perceived threat (through education about pain neuroscience, graduated exposure to feared movements, and building trust in the body's capacity) reduces pain. This is not 'mind over matter', it is neurobiological: reduced threat perception directly modulates descending inhibition and central sensitisation.

How Massage Helps

Massage occupies an important and underappreciated role in chronic pain management. Beyond the direct analgesic effects (Gate Control Theory, endorphin release), massage addresses several of the maintaining factors of chronic pain. Regular therapeutic touch reduces the threat-detecting hypervigilance of the nervous system, establishing safe, predictable contact with painful areas gradually reduces the protective sensitivity that maintains central sensitisation. Massage also reduces cortisol and improves sleep, both of which independently amplify central sensitisation when impaired. For patients with significant pain-related movement fear (kinesiophobia), massage can serve as a graduated exposure tool, experiencing non-threatening contact with painful areas reduces fear and facilitates the exercise rehabilitation that provides long-term pain reduction.

Beyond specific mechanical effects, massage floods the nervous system with safe, rich sensory input, downregulating the threat response and creating conditions in which healing becomes easier.

Stretches to Try

Consistency matters far more than intensity. Gentle, daily stretching with calm breathing reduces perceived tightness and signals safety to the nervous system.

Graded Motor Imagery

For chronic pain with movement fear: begin by imagining moving the painful area (not actually moving). Progress to watching others move. Then to mirror therapy (watching the unaffected limb in a mirror). Then to real movement. This graduated approach reduces the central sensitisation that makes movement painful. Benefit: Graded motor imagery reduces central sensitisation by progressively updating the brain's threatened representation of the painful body part.

Paced Activity

Identify a baseline activity level that does not flare symptoms. Perform that baseline consistently (not more on good days, not less on bad days). Increase by 10% each week, guided by time not symptoms. Benefit: Pacing is the evidence-based approach to chronic pain activity management, it breaks the boom-and-bust cycle that perpetuates disability.

Strengthening Exercises

Loading tissues progressively tells your nervous system they are capable and resilient.

Exercise as the Most Evidence-Based Chronic Pain Treatment

Any exercise, walking, swimming, yoga, strength training, reduces chronic pain through multiple mechanisms: endorphin release, reduced catastrophising, improved sleep, anti-inflammatory systemic effects, and graduated exposure to feared movements. Guided, graduated exercise is the single most evidence-based treatment for most chronic pain conditions. Benefit: Exercise is medicine, and for chronic pain, the evidence is stronger than for opioid analgesics in the medium to long term.

Mindfulness-Based Stress Reduction (MBSR)

8-week programme of mindfulness meditation. Reduces the central sensitisation and emotional amplification of chronic pain. Evidence from multiple RCTs shows significant pain reduction and improved function. Benefit: Mindfulness reduces activity in the brain regions that amplify pain signals (anterior cingulate cortex) and improves activity in the descending inhibitory pathways.

Practical Self-Care

• Understanding pain neuroscience, that chronic pain is a nervous system state, not necessarily tissue damage, is itself therapeutic. Seek out Explain Pain (Moseley and Butler).
• Exercise is the most important thing you can do for chronic pain, start small, be consistent, and focus on what you can do rather than what you can't.
• Sleep improvement is an immediate pain relief intervention, poor sleep amplifies central sensitisation directly.
• Catastrophising ('this pain will never get better') is the strongest psychological predictor of poor chronic pain outcomes, psychologically-informed physiotherapy or CBT can address this effectively.
• Social connection reduces chronic pain, isolation amplifies it. The biopsychosocial model is not just theoretical.

When to See a Professional

• Red flags for serious pathology in chronic pain: unexplained weight loss, night sweats, fever, saddle anaesthesia, bilateral leg weakness, urgent medical assessment.
• Chronic pain associated with significant depression or suicidal ideation, mental health intervention is a priority.
• Chronic pain causing severe functional limitation not responding to multimodal conservative management, tertiary pain clinic referral.
• Opioid use for chronic non-cancer pain beyond 3 months, specialist pain review; long-term opioids have weak evidence for chronic non-cancer pain and significant harms.

A qualified physiotherapist, sports therapist, or massage therapist can identify the specific drivers of your pain.

References and Further Reading

1. Moseley GL, Butler DS. Fifteen years of explaining pain, the past, present and future. Journal of Pain. 2015.
2. Woolf CJ. Central sensitisation: implications for the diagnosis and treatment of pain. Pain. 2011.
3. Gatchel RJ et al. The biopsychosocial approach to chronic pain. Psychological Bulletin. 2007.
4. Nijs J et al. Explaining pain neurophysiology to patients with chronic musculoskeletal pain. Manual Therapy. 2011.
5. Lehman G. Pain science and therapy. greglehman.ca.

Content is for informational purposes only and does not constitute medical advice. Always consult a qualified healthcare professional before beginning any new exercise or treatment programme.

Achilles Tendinopathy: The Complete Recovery Guide

by admin | Dec 6, 2024 | Recovery & Wellbeing

Introduction

The Achilles tendon is the largest and strongest tendon in the body, capable of withstanding forces of up to twelve times bodyweight during running. When it develops tendinopathy, a painful degenerative condition, the impact on daily life can be significant. Morning stiffness, pain with the first steps after rest, and the inability to run or jump are hallmarks of this condition. Achilles tendinopathy is extremely common in runners and active individuals, but it also affects sedentary people whose tendons have simply lost their load tolerance. The key insight from contemporary research: this is a loading problem, and the solution is more loading, but the right kind.

Whether you are dealing with a recent flare-up or something that has nagged you for years, understanding why your body hurts is the most important first step. This guide draws on the latest pain science, physiotherapy research, and practical coaching wisdom meticulously validated and referenced to give you peace of mind.

Understanding the Anatomy

The Achilles tendon connects the gastrocnemius and soleus muscles (the calf complex) to the calcaneus (heel bone). It has limited blood supply relative to muscle tissue, which partly explains its slower healing capacity. In tendinopathy, the tendon undergoes a failed healing response, collagen fibres become disorganised, new blood vessels invade the tendon (a process called neovascularisation), and the pain-producing nerve fibres that accompany these vessels contribute to the symptom picture. Insertional Achilles tendinopathy (at the heel bone) and mid-portion tendinopathy (2–6 cm above the heel) have somewhat different drivers and treatment considerations.

Key structures involved: Gastrocnemius, Soleus, Plantaris, Flexor hallucis longus (adjacent stabiliser), Tibialis posterior (compensatory overload common).

Why Does It Hurt? Root Causes

Modern pain science reminds us that pain is your nervous system's threat response, not simply a damage signal. That said, there are real, identifiable drivers.

1. Sudden Increase in Training Load

The most common trigger is a rapid increase in running volume, frequency, or intensity. The tendon cannot adapt quickly enough to the increased demand.

2. Inadequate Recovery

Tendons adapt more slowly than muscles and cardiovascular fitness. Athletes often increase training based on how they feel, but the tendon lags behind and accumulates micro-damage faster than it can repair it.

3. Calf Weakness and Stiffness

A weak or stiff calf complex increases strain on the Achilles during gait. The tendon compensates for reduced muscular contribution, increasing cumulative load.

4. Compression at the Insertion

Insertional tendinopathy is aggravated by compression of the tendon against the heel bone, this occurs when the ankle is in a dorsiflexed (toes-up) position, such as stretching the calf with a straight leg. Counter-intuitively, calf stretching can worsen insertional symptoms.

5. Hormonal and Metabolic Factors

Quinolone antibiotics (particularly fluoroquinolones), statins, and metabolic conditions such as diabetes and hyperuricaemia (high uric acid) increase tendinopathy risk by altering collagen metabolism.

How Massage Helps

Massage of the calf complex, gastrocnemius, soleus, and surrounding soft tissue, is a valuable adjunct to Achilles tendinopathy rehabilitation. It reduces muscular tension that increases tendon loading, improves local circulation, and may provide neurological pain relief via the gate control mechanism. Deep tissue work to the posterior lower leg can also address associated restriction in the tibialis posterior and flexor hallucis longus. Avoid aggressive direct massage over the acutely tender tendon in the early reactive phase, focus work on the muscle belly instead.

Beyond specific mechanical effects, massage floods the nervous system with safe, rich sensory input, downregulating the threat response and creating conditions in which healing becomes easier.

Stretches to Try

Consistency matters far more than intensity. Gentle, daily stretching with calm breathing reduces perceived tightness and signals safety to the nervous system.

Bent-Knee Calf Stretch (Soleus Focus)

Stand facing a wall. Step one foot back, bend the back knee, and press gently forward. Feel the stretch deep in the lower calf. Hold 45 seconds per side. NOTE: For insertional tendinopathy, stop if this aggravates heel pain. Benefit: Targets the soleus, which has a direct mechanical attachment to the Achilles tendon and is often the limiting factor in recovery.

Towel Plantar Fascia and Calf Mobilisation

Sitting in a chair, loop a towel around the ball of your foot. Gently pull the foot towards you. Hold 30 seconds per side. Benefit: Reduces morning stiffness and maintains ankle mobility without compression loading the tendon.

Hip Flexor Stretch (Address the Whole Chain)

Kneeling lunge position. Gently push hips forward. Hold 30 seconds per side. Benefit: Tightness in hip flexors alters gait mechanics and can increase Achilles loading indirectly.

Strengthening Exercises

Loading tissues progressively tells your nervous system they are capable and resilient.

Eccentric Heel Drops (Alfredson Protocol)

Stand on a step, both feet. Rise onto tiptoes using both feet. Transfer weight to one foot. Slowly lower the heel below the step level over 3 seconds. Use both feet to return. 3 sets of 15, twice daily. Mid-portion tendinopathy only, avoid heel-drop below neutral for insertional. Benefit: This is the most evidence-backed exercise for Achilles tendinopathy. Pioneered by Hakan Alfredson, eccentric loading drives collagen remodelling and restores tendon integrity.

Double-Leg Calf Raise (Introductory Phase)

Stand flat on the floor. Slowly rise onto tiptoes and lower. 3 sets of 15. Introduce before heel drops if symptoms are severe. Benefit: Builds calf strength with controlled compression loading before progressing to eccentric-only work.

Single-Leg Balance

Stand on one foot on a slightly unstable surface (folded towel). 3 rounds of 30–45 seconds. Benefit: Improves neuromuscular control around the ankle and reduces compensatory loading patterns that stress the Achilles.

Practical Self-Care

• Load management is the most important variable: reduce mileage or impact activity during the reactive phase, but do not stop completely.
• Avoid stretching the Achilles aggressively into dorsiflexion, particularly for insertional tendinopathy.
• Heel raises (heel lifts inside the shoe) can reduce insertional compression during the early stages.
• Monitor symptoms using a pain monitoring model: acceptable pain during exercise is up to 4/10, returning to baseline within 24 hours.
• Running can often continue at a reduced level, complete rest weakens the tendon further.

When to See a Professional

• Sudden severe pain during activity, possible Achilles rupture, requires urgent assessment.
• No improvement after 6–8 weeks of structured progressive loading.
• Significant bruising, swelling, or inability to weight-bear.
• Recurring tendinopathy, consider biomechanical assessment and training load review.

A qualified physiotherapist, sports therapist, or massage therapist can identify the specific drivers of your pain.

References and Further Reading

1. Alfredson H et al. Heavy-load eccentric calf muscle training for chronic Achilles tendinosis. Am J Sports Med. 1998.
2. Cook JL, Purdam CR. Is tendon pathology a continuum? Br J Sports Med. 2009.
3. Silbernagel KG et al. Eccentric overload training for patients with chronic Achilles tendon pain. BJSM. 2001.
4. Ingraham P. Achilles Tendinopathy. painscience.com.
5. Morrison T. Ankle and Foot Mobility. tommorrison.uk.

Content is for informational purposes only and does not constitute medical advice. Always consult a qualified healthcare professional before beginning any new exercise or treatment programme.