Myofascial Release Course

There is, of late, talk of 'turbo-cancers'.
No one has asked the question of their relation to having the Covid-19 jab.
I truly believe that there is a fundamental fear to ask this question in scientific circles, such that they won't even look that way, let alone think it, leading to a 'meta-study'

This is a great picture. It demonstrates the relationship between two periscapular muscles, the rhomboids and serratus anterior.
Here, like in all the anatomy books, it infers that the lowest fibres of both muscles converge on the inferior angle of the scapula.
I have watched dissection videos by Gil Hedley of this. He admirably demonstrates that both muscles extend an inch below the inferior angle of the scapula attaching on to each other!
Then this has to be taken into consideration along with adjacent muscles, like teres major and the superior fibres of latissimus dorsi, which also has relationships (attachments) to the same inferior angle.
Now we can appreciate how long-term relationships between these 4 muscles can manifest as chronic tension patterns around the shoulder, causing non-neurological symptoms into the arm. You argue the toss and say that teres minor and the long head of triceps would also be involved.
🔄 Rhomboid–Serratus Anterior Force Couple — Anatomical Biomechanics

The image illustrates a classic scapulothoracic force couple between the rhomboids and the serratus anterior, a relationship that defines how the scapula moves, stabilizes, and transmits force across the upper body. Anatomically, the rhomboids originate from the thoracic spine and insert onto the medial border of the scapula, pulling it medially and slightly upward, while the serratus anterior originates from the lateral ribs and inserts on the anterior surface of the scapula, pulling it laterally and forward. These opposing lines of pull create a balanced tension system, allowing the scapula to remain anchored to the thoracic wall while still being highly mobile.

Biomechanically, this interaction functions as a dynamic equilibrium, where neither muscle group works in isolation. The rhomboids generate retraction and downward rotation, resisting excessive protraction, while the serratus anterior produces protraction and upward rotation, preventing excessive retraction and winging. Together, they guide the scapula along the curvature of the rib cage, ensuring smooth scapulothoracic gliding. This movement is not a true joint motion but a coordinated sliding interface where muscle forces dictate position and stability.

During upper limb elevation, this force couple becomes critical. The serratus anterior drives upward rotation and posterior tilt of the scapula, allowing the glenoid to face upward and maintain congruency with the humeral head. At the same time, the rhomboids modulate this motion by controlling excessive lateral displacement and maintaining medial border stability. This creates a controlled rotational axis, ensuring that movement occurs efficiently without loss of joint alignment.

From a mechanical perspective, the scapula acts as a floating platform between the axial skeleton and the upper limb. The rhomboid–serratus interaction stabilizes this platform by distributing forces across a wide surface area rather than concentrating stress at a single joint. When the serratus anterior contracts, it presses the scapula firmly against the rib cage, increasing frictional stability, while the rhomboids provide a counterforce that maintains positional accuracy. This balance minimizes energy loss and allows effective force transfer from the trunk to the arm.

The curvature of the ribs plays a significant role in this biomechanics. As the scapula moves, it must conform to the convex thoracic surface. The serratus anterior adapts to this curvature by producing a wrapping effect, while the rhomboids guide the scapula along a controlled path. This ensures that scapular motion remains synchronized with thoracic movement, especially during breathing and trunk rotation, integrating respiratory and upper limb mechanics.

In functional activities such as pushing, pulling, or reaching, this force couple ensures that the scapula remains stable yet adaptable. For example, during pushing, the serratus anterior dominates to protract and stabilize the scapula, while the rhomboids eccentrically control the movement to prevent excessive displacement. During pulling, the rhomboids become more active, retracting the scapula while the serratus anterior maintains contact with the rib cage, preventing winging and preserving mechanical efficiency.

If this balance is disrupted, biomechanical consequences become evident. Weakness of the serratus anterior leads to scapular winging and loss of upward rotation, while overactivity of the rhomboids can restrict scapular mobility and alter shoulder mechanics. Conversely, weak rhomboids allow excessive protraction and instability. These imbalances change the force vector orientation, increasing stress on the glenohumeral joint and reducing overall movement efficiency.

Ultimately, this anatomical relationship highlights how movement is governed by coordinated force couples rather than isolated muscles. The rhomboids and serratus anterior form a bidirectional control system that stabilizes, guides, and powers scapular motion, ensuring that the upper limb operates on a stable yet dynamic base.

Looking at this remarkable picture, we can reflect briefly on the ligamentum nuchae.
It is called a ligament as it goes between bones (the occiput and the spinous process of T1). In truth, though, it is the rolled up, cumulative, tendon of all the fascial envelopes of the posterior cervical muscles. As such,it is a band of tissue that divides left and right in the posterior neck.

The transverse section of the neck at the level of the C6 vertebra provides an exceptional view of the intricate spatial organization of cervical structures in superior view. This anatomical level is clinically important because it marks several vital transitions within the neck, including the level of the cricoid cartilage, the beginning of the esophagus, and key relationships between neurovascular and visceral compartments. The image demonstrates the layered arrangement of the cervical fascia, including the superficial, pretracheal, and prevertebral layers that compartmentalize the neck and guide the spread of infections, hemorrhage, or tumors.

At the center of the section lie the trachea and esophagus, surrounded anteriorly by the infrahyoid muscles and laterally by the thyroid gland. The carotid sheath encloses the common carotid artery, internal jugular vein, and vagus nerve structures essential for cerebral circulation and autonomic regulation. Posteriorly, the vertebral column protects the spinal cord, while adjacent muscles such as the longus colli and scalene muscles contribute to neck stability and movement. The brachial plexus can also be identified emerging between the scalene muscles, emphasizing the close relationship between cervical anatomy and upper limb innervation.

This cross-sectional perspective is fundamental in radiology, surgery, anesthesiology, and emergency medicine because it allows accurate interpretation of CT and MRI scans, safe surgical navigation, airway procedures, and regional nerve blocks. Understanding the anatomy at the C6 level is especially important for clinicians dealing with cervical trauma, thyroid surgery, vascular access, spinal pathology, and deep neck infections.

All this is great.
I recall being on an osteopathic weekend (we were addressing TMJ and sinuses), when the woman working on me commented that I had a very tight neck (well the comment described it as a question, "Gosh your neck is tight, isn't it?).
I thought, "Is it?", as i experienced no pain or symptoms, per se, at all.
What if it is subliminal?

🛑 CHRONIC ANXIETY: THE AUTONOMIC CHOKE
Do you feel like you’re living in a constant state of "low-grade" panic? You’ve tried the breathing, the meditation, and maybe even the medication—yet that tight feeling in your chest, that "racing" heart, and the inability to ever truly relax persists.
You’ve been told it’s "Anxiety." You’ve been told it’s "Stress." But what if the problem isn’t your mind… what if it’s your neck?
🏗️ THE HIDDEN ANATOMY OF THE NERVE CRUSH
Look at the anatomy of your neck. It’s not just bones and muscles. It is the primary corridor for your entire Autonomic Nervous System.
The Vagus Nerve (Cranial Nerve X) is your body’s "master controller." It’s the highway that tells your heart to slow down, your gut to digest, and your lungs to breathe deep. It originates in your brainstem and exits your skull through a tiny, precise hole called the Jugular Foramen.
From there, it has to travel down your neck, tucked deep inside a protected tunnel known as the Carotid Sheath. And guess what sits right on top of that tunnel? The Sternocleidomastoid (SCM) muscle—the thick, rope-like muscle on the side of your neck.
⚙️ THE BIOMECHANICS: THE “NEURAL MISFIRE”
In a healthy body, that nerve glides freely. But in the modern world, we spend 8+ hours a day hunched over screens. This "Tech Neck" causes your SCM muscle to lock up, thicken, and become rigid (hypertrophied).
Now, imagine a thick, tight rubber band (your SCM) constantly pressing down on a delicate, live electrical cable (your Vagus Nerve).
This is the "Autonomic Choke."
When that nerve is compressed, it can no longer send a "clean" signal to your heart or stomach. Your body loses its ability to engage the "Rest and Digest" mode. Your nervous system is forced into a permanent, involuntary "Fight or Flight" state—not because you're scared, but because your hardware is pinched.
⚠️ THE 3 STAGES OF THE "SWITCH" STUCK
The Signal Error: The nerve sends a "false alarm" to your brain. Your heart starts beating faster, not because you’re in danger, but because the vagal brake is broken.
The Gut Response: Since the Vagus Nerve also controls stomach acid, your digestion halts. You feel bloated and fatigued. You think it's food; it's neurology.
The Cortisol Loop: Your brain, sensing the body is in "danger," pumps out Cortisol. You become addicted to your own stress hormones, keeping you wired but exhausted.
🛠️ THE 10-SECOND "VAGUS RESET" PROTOCOL
If you’ve been struggling with "Anxiety" for years, it’s time to address the physical blockage.
The Pin-and-Stretch: Locate your SCM (turn your head and feel the thick muscle). With gentle pressure, push the muscle slightly forward (away from the throat).
The Vagal Glide: While maintaining that light pressure, slowly look up toward the ceiling and exhale for 8 seconds.
The Result: You aren't "curing" anxiety—you are physically decompressing the "calm button" of your body.
💡 THE TAKEAWAY
Your nervous system isn't broken. It’s just being choked by the very muscles meant to support your head. Stop chasing the symptom. Fix the alignment, release the nerve, and let your body remember how to be calm.

🛑 IT’S NOT ACID REFLUX: YOUR POSTURE IS CHOKING YOUR "SWALLOW NERVE."
🏗️ THE ANATOMY OF THE NERVE CRUSH
Do you constantly feel like there is a "lump" stuck in your throat (Globus sensation), or do you clear your throat 100 times a day? In the US, this is instantly labeled as Acid Reflux or anxiety, but look at the anatomy: The front of your throat contains a floating bone called the Hyoid. It is suspended by a complex web of muscles and sits right next to the Vagus nerve branches that control swallowing.
[Visual: A delicate white floating bone being yanked down by tight red muscles, crushing a neon yellow nerve against the windpipe]
⚙️ THE BIOMECHANICS: THE "NEURAL MISFIRE"
The Pressure: When you sit with a slouched, forward-head posture, the skin, fascia, and "strap muscles" of the front of your neck become incredibly tight and glued together. This literally drags the Hyoid bone backward and downward.
The Signal: This physical restriction compresses the underlying nerves, sending a "False Alarm" to the brain that something is stuck in your airway. You don't have a lump; your throat muscles are strangling your trachea.
The Result: A tight, hoarse voice, difficulty swallowing pills, and a maddening sensation of something stuck in the throat.
⚠️ 3 SIGNS YOUR "SWITCH" IS STUCK:
The Phantom Lump: The feeling is worst when you swallow your own saliva, but actually disappears when you eat food.
The Vocal Fatigue: Your voice gets tired, raspy, or drops in pitch after talking for 30 minutes.
The "Tight Collar": You hate wearing turtlenecks or tight collars because it instantly triggers anxiety or gagging.
🛠️ THE 10-SECOND "HYOID GLIDE"
The Fix: Gently pinch the very front of your throat (the Adam's apple area) between your thumb and index finger. Gently wiggle the structure side-to-side (left to right) while swallowing slowly. Then, lookup at the ceiling and gently massage the muscles downward toward your collarbones.
The Magic: This breaks the fascial "glue" holding the neck hostage. The floating bone is freed, the nerve decompression happens instantly, and the phantom lump vanishes.
💡 THE TAKEAWAY
There is nothing stuck in your throat; your posture is just suffocating your airway. Free the bone, clear the throat.

Orthodox medicine only sees structures. There are the large structures of lumps, bumps and tubes. Then there are the very small structures of cells and chemicals; hence even human emotions it sees in terms of chemicals in the brain. But you cannot see the whole by cutting it into smaller and smaller pieces. Medicine also only sees you in terms of normality or disease, here with an unspoken emphasis on the latter.
We all have belief systems and what we believe, knowingly or unknowingly, defines how we look at and understand things; they define all our relationships. We also have relationships with our happiness and suffering as well. These are our human emotions. They are our expression of the moment.
I have found in myself and in my patients, by experiencing them in the moment we can change the nature of the suffering. Medicine has an opinion, but it is not the only one. This is a second opinion.

A Second Opinion: An Insight Into Good Health, Disease and Our Relationships With Them How do we feel about having good health and disease? Do we even understand good health or disease? A relationship we usually perceive as something between us and something outside of us; but do we have a relationship with our good health or disease? It has a review of medicine, and its history is...

Pelvic Force Couples: The Foundation of Efficient Movement

The pelvis is not just a structural bridge between the spine and lower limbs—it is a dynamic hub of force transmission where multiple muscles work together in coordinated patterns known as force couples. This image highlights how different muscle groups generate directional forces that stabilize and move the pelvis during functional activities.

At the center of this system is the lumbopelvic region, where forces from the spine, hips, and lower limbs converge. Muscles such as the gluteus maximus, iliopsoas, adductors, quadratus lumborum, and abdominal wall create vectors of pull in different directions, balancing each other to maintain alignment and control.

When these forces are well-coordinated, the pelvis remains stable while still allowing efficient movement. For example, during walking, one side of the pelvis is stabilized by the gluteus medius and minimus, while the opposite side experiences controlled drop and rotation. At the same time, the core musculature and spinal stabilizers regulate movement from above, ensuring smooth force transfer.

The arrows in the image represent how each muscle group contributes to multidirectional control. Vertical forces help maintain upright posture, diagonal forces assist in rotational control, and horizontal forces stabilize the pelvis during weight-bearing activities. This creates a three-dimensional stability system, rather than a simple up-and-down support mechanism.

A key biomechanical concept here is that movement efficiency depends on balance, not dominance. If one force becomes excessive or another becomes weak, the system loses symmetry. This can lead to compensations such as pelvic tilt, rotation, or asymmetrical loading, often contributing to low back pain, hip dysfunction, or gait abnormalities.

This interplay also explains why isolated strengthening is often insufficient. True functional stability comes from coordinated activation across multiple muscle groups, allowing the pelvis to act as a stable yet adaptable base for movement.

In essence, the pelvis operates like a tensioned ring, where opposing forces maintain integrity while enabling motion.

👉 Strong, coordinated force couples = stable spine + efficient movement + reduced injury risk

What will the jab do to subsequent generations? We have yet to see!

BREAKING STUDY: COVID-19 “Vaccine” mRNA and Spike Protein Invade the Human Placenta and Fetal Cells—Even in Mothers Vaccinated Before Pregnancy Spike protein was detected in 37% of placentas from vaccinated mothers with no infection, with 77% of spike-positive placentas showing spike inside fetal immune cells.

🟢 The Gall Bladder Sinew Channel (TCM Myofascial Concept)

This illustration demonstrates the pathway of the Gall Bladder sinew channel (Jing Jin) as described in Traditional Chinese Medicine.

Unlike the primary meridian, the sinew channel represents the superficial myofascial and tendon network, influencing posture, lateral stability, and rotational control.

📍 Pathway Overview

🔹 Begins at the lateral aspect of the foot
🔹 Travels along the outer leg (peroneal region)
🔹 Passes the lateral knee and thigh
🔹 Connects at the sacral region
🔹 Ascends along the lateral trunk
🔹 Links near the breast and ribcage
🔹 Continues to the neck and jaw
🔹 Terminates near the outer canthus and vertex of the head

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🔎 Functional Interpretation (Modern Perspective)

The pathway closely mirrors:

• Peroneal muscle chain
• IT band & lateral thigh fascia
• Gluteus medius & lateral hip stabilizers
• Oblique sling system
• Lateral cervical fascial line

This explains why dysfunction in this chain may present as:

⚠️ Lateral knee pain
⚠️ Hip instability
⚠️ Sacral tension
⚠️ TMJ or temporal headaches
⚠️ Ribcage restriction

⸻

🧠 Clinical Insight

The Gall Bladder sinew channel represents a lateral stabilizing system of the body.

When this chain becomes tight or inhibited, compensations can occur across the pelvis, spine, and cervical region.

Treating the body as an integrated fascial network often produces better results than isolated joint treatment.

⸻

📌 The body works in chains, not pieces.
Restore balance along the line — restore movement globally.

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