Step 4 
Anatomy

Suboccipital Muscles

• Rectus capitis posterior major
• Rectus capitis posterior minor
• Obliquus capitis superior
• Obliquus capitis inferior

Semispinalis

• Semispinalis capitis
• Semispinalis cervicis

Key Structures

• Occiput
• Atlas (C1)
• Axis (C2)
• Foramen magnum
• Inner ear canal (proximal relationship)

​

Functional Role

These muscles:

• control micro-movements of the head
• stabilize the occiput on the atlas
• influence cranial positioning

​

Because of their location, they directly affect:

• nerve passage at the cranial base
• head alignment
• vestibular function

• balance

• hearing

• ringing in the ear

​

Step 5
Palpation Assessment

Before performing release, the practitioner must learn to accurately assess the resting state of the tissue.

Releasology uses cross-fiber palpation to evaluate muscular density, identify contracted fibers, and precisely locate release points.

Healthy, relaxed, tissue should feel soft, fluid, and responsive beneath the fingers — similar to a bag of water.

Chronically contracted tissue feels dense, resistant, and cord-like — often resembling tight guitar strings beneath the skin.

The purpose of palpation is not simply to locate the muscle.

It is to identify:

• whether the tissue is relaxed or contracted

• which fibers are holding the greatest tension

• the exact point of greatest resistance within those fibers

These points represent the primary targets for release.

Cross-Fiber Palpation

Begin by placing the pads of your fingers where the muscle is first naturally encountered.

From this point:

Move gently across the direction of the fibers while gradually tracing along the length of the muscle.

This motion is similar to lightly moving across guitar strings while progressing along the neck of the instrument.

As your fingers travel:

• Notice changes in density

• Compare adjacent fibers

• Identify bands of increased resistance

• Search for the tightest fiber group

Within each tight band, continue refining until the tightest point is located.

This is the release point.

Following the Fibers

Once a tight fiber is located, follow it longitudinally.

Trace its path from origin toward insertion while repeatedly crossing back and forth across the fiber.

This allows the practitioner to:

• confirm the continuity of the contraction

• locate densest nodal points

• distinguish primary restriction from secondary compensation

Using Tension to Improve Detection

When necessary, gentle lengthening of the muscle at its insertion can improve palpatory clarity.

A slight stretch may increase fiber definition and make contracted bands easier to distinguish.

This should be subtle.

The purpose is only to enhance sensory feedback, not to force tissue deformation.

The Diagnostic Standard

Every assessment should answer one question:

Does this tissue feel liquid, or does it feel solid?

Solid tissue indicates unresolved contraction.

Liquid tissue indicates release.

Only after the tightest point has been clearly identified should the practitioner proceed to the Yang phase of release.

Step 6
Neurological Consequences

The consequences of muscle spasm extend far beyond the local tissue. A muscle held in involuntary contraction does not simply resist movement—it alters the flow of force, fluid, and information throughout the system.

​

In the upper cervical region, deep muscles such as the semispinalis complex, when locked in sustained contraction, can influence the position and orientation of the atlas (C1). This influence is subtle, but meaningful. The atlas serves as a critical interface between the spine and the skull, and even slight changes in its resting position can alter the mechanical relationship at the base of the cranium.

These changes do not result in gross displacement or direct compression of nerves. Rather, they affect the tension environment surrounding the nervous system—particularly within the dura mater, the continuous connective tissue sheath that envelops the brain and spinal cord.

Through known anatomical connections—often described as the myodural bridge—muscular tension can be transmitted into the dura. When this occurs at the level of the foramen magnum, the system becomes less adaptable. The natural capacity for subtle motion, pressure equilibration, and fluid exchange is reduced.

From a Releasology perspective, this represents a disruption in conduction.

Under healthy conditions, the body behaves as a conductive medium. Mechanical forces, neurological signals, and what has been described across traditions as Prana or vital flow, move efficiently through tissues that are supple, hydrated, and responsive. A muscle in spasm interrupts this continuity. It creates a localized region of resistance that alters how force is transmitted and how information is perceived.

​​

As dural tension increases and the surrounding tissues lose their capacity to yield, the nervous system may enter a state of heightened sensitivity. This is not due to a nerve being compressed in a crude mechanical sense, but rather because the environment in which the nerve exists has become less permissive.

​

Clients may report:

• dizziness or disturbances in equilibrium

• ringing in the ears (tinnitus)

• a sense of pressure within the head

• visual or auditory changes

• difficulty focusing or a feeling of neurological “static”

​​

In some cases, symptoms associated with the vestibulocochlear system emerge—not because the nerve itself is being directly impinged, but because the balance of tension, fluid dynamics, and signaling at the cranial base has been altered.

​

It is also important to recognize that the dura is not an inert structure. It is richly innervated and responsive. Changes in its tension can influence both mechanical and neurological states, including the perception of pain, pressure, and spatial orientation.

​

Clinical Observation

In practice, these patterns are not rare—and the response to release is often immediate.

Across many sessions, clients presenting with:

• vertigo

• tinnitus

• balance disturbances

• diminished hearing​

​​

Clients frequently experience rapid and measurable change following the release of the involved musculature.

Vertigo often resolves within minutes. Balance returns.

Ringing in the ears—tinnitus—consistently diminishes and, in my experience, very often resolves completely.

In some cases, hearing is restored fully; in many others, it improves noticeably.

​

These outcomes are consistent enough, across many individuals and presentations, to suggest a repeatable underlying mechanism rather than isolated coincidence.

Step 7
Technique Demonstration

The suboccipital region is one of the most neurologically sensitive areas in the body.

When these muscles are in spasm, they may compress:

• greater occipital nerve → headaches
• suboccipital nerve → deep neck pain

Vestibulocochlear Nerve Compression (Key Concept)

​

The vestibulocochlear nerve (CN VIII) has a short and vulnerable pathway:

• from the inner ear
• toward the cranial base
• near the occiput–atlas junction

When the suboccipital and semispinalis muscles are in spasm:

• the atlas can be tilted into the occiput
• this compresses the nerve along its path by distorting the meninges and/or the occipito-temporal suture

This produces:

• vertigo
• tinnitus
• hearing changes

These symptoms are often mistaken for:

• ear infections
• inner ear disorders

However, in many cases, the cause is mechanical compression from muscle spasm.

​

Clinical Insight

Releasing these muscles often results in:

• immediate reduction in vertigo
• decreased ringing in the ears
• improved auditory clarity

This is one of the most distinct and reproducible outcomes of this modality.

Step 8
Worksheet Exercise

Students should:

• identify suboccipital muscles
• locate atlas (C1) and occiput
• trace the pathway of the vestibulocochlear nerve

​

Drawing Exercise (Required)

Using a red pencil tool, draw:

• each suboccipital muscle
• semispinalis capitis

​

Instructions:

• connect origin → insertion precisely
• draw lines to indicate fiber direction
• fill in muscle body to approximately match shape of muscle/s in illustrations

​

Origin, insertion, movement and nerve supply

Fill in these blanks for each muscle and use a unique worksheet for each of these muscles (6 worksheets in total)

​

Key Understanding

This exercise reinforces:

👉 how muscle tension → bone displacement → nerve compression → symptoms

​

Complete the worksheet, save on your phone and upload, below