Tension-Type Headache

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What Is Tension-Type Headache?

Tension-type headache (TTH) is the most prevalent primary headache disorder globally, affecting approximately 30–78% of the general population at some point. It is classified as a primary headache — meaning it is not a symptom of another underlying condition — and is further divided into episodic (infrequent and frequent subtypes) and chronic (15 or more headache days per month).

The characteristic presentation: bilateral, pressing or tightening pain described as a band around the head or cap over the scalp, typically mild to moderate in intensity, not aggravated by routine physical activity, and not accompanied by significant nausea or vomiting. Light or noise sensitivity may be present, but not both simultaneously — which distinguishes it from migraine.

Feature	Detail
Character	Pressing, tightening, band-like — not pulsating
Location	Bilateral; frontal, temporal, or occipital distribution
Intensity	Mild to moderate (does not prevent activity)
Duration	30 minutes to 7 days (episodic); chronic ≥15 days/month
Aggravation	Not worsened by routine physical activity (distinguishes from migraine)
Associated	Mild photophobia or phonophobia — not both
Prevalence	Most common headache type globally; 47% of all headache disorders
Pericranial tenderness	Present in the majority — tender muscles and fascial attachments around the skull

The pathophysiology of TTH is not fully established, but two mechanisms are well-supported: peripheral sensitisation of pericranial myofascial structures (the muscles and their fascial investments around the skull and upper cervical spine) and central sensitisation — a lowered pain threshold in the central nervous system that amplifies inputs from the head and neck. In episodic TTH, peripheral sensitisation is thought to be the dominant mechanism. In chronic TTH, central sensitisation becomes increasingly important as the condition persists.

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Who Typically Experiences This?

Desk Workers and Remote Professionals

The sustained forward head posture of extended screen work progressively loads the posterior cervical muscles and the suboccipital region — the muscles at the base of the skull that include rectus capitis posterior major and minor, and the oblique muscles. These muscles are highly proprioceptively active, and their sustained contraction under forward head posture creates both direct muscular tension and altered proprioceptive signalling to the brainstem. The result is pericranial muscular tenderness that accumulates through the working day and triggers the characteristic late-afternoon band headache. This is the most common demographic in our clinical experience of TTH.

People Under Significant Psychological Stress

Stress-associated TTH is well-documented. Psychological stress activates the central stress response and increases the sensitivity of the central pain-processing system, lowering the threshold at which pericranial muscle input generates a headache. This is why TTH often clusters around high-stress periods — deadlines, major life events, periods of poor sleep — and why addressing the physical drivers alongside lifestyle factors tends to produce more sustained improvement than either alone.

People With Established Poor Sleep Patterns

Sleep disruption is both a trigger and a consequence of chronic TTH. Poor sleep quality elevates central pain sensitisation and reduces the pain-modulating effect of the descending inhibitory control system. People with chronic TTH frequently report that the headaches are worse after poor nights — and that addressing the headaches themselves can improve sleep, creating a beneficial cycle when the musculoskeletal drivers are managed.

People Who Have Had Cervicogenic Headache Misclassified as TTH

TTH and cervicogenic headache (CGH) can be difficult to distinguish clinically, and they frequently co-exist. CGH is unilateral and arises from specific upper cervical joint levels; TTH is bilateral. However, in clinical practice, people with predominantly upper cervical joint dysfunction are sometimes labelled as TTH because their headache has features of both. The Flexion-Rotation Test (FRT) — a passive movement test of upper cervical rotation in full flexion — helps differentiate: restricted and painful FRT is characteristic of CGH. We assess this in all headache presentations.

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The Fascial Lens: Why We See This Differently

The pericranial fascial system is the clinical focus of our assessment in TTH — not because TTH is purely a fascial condition, but because the fascial investments of the pericranial muscles are where the peripheral sensitisation originates and where it can be addressed.

The epicranial fascia (galea aponeurotica) is a continuous sheet of connective tissue spanning the skull from the occipital attachments to the frontal attachments. It is continuous with the temporal fascia laterally and with the nuchal fascia and cervical paraspinal fascia posteriorly. Pericranial tenderness — the defining physical examination finding in episodic TTH — represents sensitisation of the mechanoreceptors in this fascial system and its muscular investments. When these tissues are under sustained tension from forward head posture, psychological stress, or habitual jaw clenching, the threshold for headache generation decreases.

The suboccipital region deserves particular attention. The suboccipital muscles are not primarily force generators — they are proprioceptive sensors. Their relationship to the cranial dura via the myodural bridge (direct connective tissue connections between the suboccipital muscles and the cervical dura) means that mechanical restriction or chronic tension in this region has implications beyond local muscle pain. Tension in the suboccipital fascial compartment can influence dural mechanics and intracranial pressure gradients. This is part of the anatomical basis for why manual therapy directed at the suboccipital region can produce meaningful change in headache frequency and intensity — it addresses the fascial and mechanical environment that is driving peripheral sensitisation.

From a Fascial Manipulation perspective, the posterior cervical and suboccipital centres of coordination lie within the fascial system that connects the upper cervical paraspinal compartment to the cranial base. Densification within this system alters the mechanical input to the brainstem, which processes cervical proprioceptive, trigeminal, and pain-modulating signals through the trigeminocervical nucleus.

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What Does the Research Say?

Manual therapy directed at the suboccipital region produces meaningful improvements in TTH. A double-blind RCT by Espí-López and colleagues (2014) randomised 84 patients with TTH to four groups: suboccipital soft tissue inhibition, occiput-atlas-axis manipulation, combined treatment, or control. After 8 weeks with 1-month follow-up, combined treatment and OAA manipulation produced statistically significant improvements in pain intensity, headache frequency, pericranial tenderness, and craniocervical range of motion. Suboccipital soft tissue inhibition alone also produced positive effects across headache parameters, confirming the suboccipital region as a clinically relevant treatment target in TTH. [1]

Physical therapy has meaningful effects on TTH — but multimodal approaches outperform single modalities. A systematic review by Repiso-Guardeño and colleagues (2023) synthesised RCT evidence for physical therapy in TTH across multiple databases (PubMed, CINAHL, Cochrane, PEDro). The review highlighted that TTH pathophysiology involves both peripheral sensitisation of pericranial myofascial structures and central sensitisation, and that multimodal physical therapy — combining manual therapy, exercise, and education — tends to produce more sustained improvements than any single modality in isolation. [2]

Cervical musculoskeletal impairments are present in TTH, including reduced extensor strength and pericranial tenderness. An updated systematic review and meta-analysis by Pensri and colleagues (2025, University of Queensland) included 77 studies (2551 participants) examining cervical musculoskeletal impairments in TTH and migraine. For TTH specifically, reduced cervical extensor strength was the most consistently identified impairment. Active trigger points and pericranial tenderness were common findings, particularly in chronic headache — and a negative relationship between cervical musculoskeletal performance and active trigger points was documented. [3]

Spinal manipulation is recommended for TTH — but within a multimodal framework. A 2026 chiropractic clinical practice guideline (Trager et al.) developed through umbrella review (32 articles) and a 57-member Delphi consensus panel reached the recommendation that spinal manipulation should be used for TTH only within multimodal care — not as a standalone treatment. This aligns with the broader evidence pattern: manual therapy is most effective for TTH when combined with postural rehabilitation, exercise, and education. [4]

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How We Approach Tension-Type Headache

Our assessment of TTH begins with a thorough headache history — pattern, triggers, associated features, response to medication — and a screen for red flags that would indicate referral for medical evaluation. We assess the upper cervical spine (C0–C3), the suboccipital region, and the pericranial soft tissues for muscular and fascial restriction, trigger points, and tenderness.

The Flexion-Rotation Test assesses upper cervical mobility and helps distinguish TTH from cervicogenic headache or identify a cervicogenic component alongside TTH. Postural assessment identifies the forward head posture pattern and scapular position that perpetuates the pericranial loading.

Where pericranial and suboccipital fascial restriction is identified, Fascial Manipulation is directed at the relevant posterior cervical and suboccipital centres of coordination. Upper cervical mobilisation addresses segmental restriction at the C0–C3 levels. Trigger point therapy and suboccipital inhibition address the pericranial muscle sensitisation.

Exercise prescription focuses on deep cervical flexor strengthening, upper thoracic extension mobility, and postural retraining — addressing the cervical extensor weakness and forward head posture that maintain the pericranial load. This multimodal approach reflects the evidence that manual therapy, postural correction, and exercise together produce more sustained improvement in TTH than any component in isolation.

Please note: The information on this page describes our general clinical approach and is intended for educational purposes only. Headache has many causes, some of which are serious. Any new headache that is severe, sudden-onset (thunderclap), associated with neurological symptoms (weakness, numbness, vision change, speech change), fever, or stiff neck requires urgent medical evaluation before any musculoskeletal treatment is sought. Individual presentations vary, and your assessment and management will be tailored specifically to you. Nothing on this page constitutes clinical advice for your individual situation. Please consult a registered health practitioner for advice about your specific condition.

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What Can You Do Right Now?

1. Assess your pericranial tenderness.

Gentle sustained pressure on the temples, the base of the skull (suboccipital region), and the muscles of the upper trapezius and neck will often reproduce the familiar tenderness associated with TTH. Noting which regions are most tender helps guide where treatment will be directed and gives you a baseline to track improvement.

2. Address your screen posture specifically.

Forward head posture is the primary postural driver of pericranial muscle loading. For every centimetre the head moves forward from neutral, the effective load on the posterior cervical structures approximately doubles. Raising your screen height to eye level, using a headset or stand for phone use, and taking brief upright breaks every 45–60 minutes of screen time are the most impactful postural changes for desk-associated TTH.

3. Add suboccipital release to your daily routine.

Lying on your back with two tennis balls (or a purpose-designed tool) placed at the base of the skull, applying gentle traction, for 5–10 minutes can reduce suboccipital muscle tension and pericranial tenderness between appointments. This is not a replacement for treatment of the fascial and joint drivers, but it supports recovery between sessions.

4. Reduce habitual jaw clenching and bruxism.

Jaw clenching — particularly unconscious clenching during concentration or stress — directly activates the masseter, temporalis, and lateral pterygoid, all of which connect into the pericranial fascial system. Being conscious of tooth contact during the day (teeth should rest slightly apart) and addressing bruxism with a dental guard at night reduces one of the most common contributors to pericranial muscle sensitisation.

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Call Now — speak with our team

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