Capstone Method & Downstream to Wellness

10/07/2026

🦴 Could Your Bones Help Your Brain Heal?

New research is revealing an interesting connection between bone and brain health.

In a recent animal study, researchers applied controlled pressure through the shin bones after traumatic brain injury. The stimulation activated specialized bone cells called osteocytes, which respond to mechanical force.

Those cells appeared to increase several substances associated with brain health, including:

• BDNF — supports the growth and survival of nerve cells
• Dopamine — important for movement, motivation and memory
• PF4 — involved in the body’s inflammatory and healing responses

Animals receiving the bone stimulation showed improvements in movement, memory and brain tissue recovery compared with animals that did not receive it.

The fascinating idea is that our bones may do much more than simply hold us upright.

Bones are living sensory organs that respond to walking, weight bearing, compression and movement, and they may communicate chemically with the brain and other parts of the body.

This research is still very early and has been performed in animals, so it does not mean that pressing on the shin is currently a treatment for concussion or traumatic brain injury.

But it adds to a growing understanding of something we emphasize in the Capstone Method:

The body does not function as a collection of separate parts. Mechanical input in one area can create neurological, circulatory and biochemical effects somewhere else.

Movement matters.
Load matters.
The nervous system listens to the entire body.

— Capstone Method Structural Balancing

10/06/2026

https://www.facebook.com/share/v/1F36nrj3XQ/?mibextid=wwXIfr

10/04/2026

WHEN ORGANS AND THE SPINE INFLUENCE EACH OTHER

Most people think of back or neck pain as simply a muscle, joint, or disc problem. But the body is much more interconnected than that.

The organs and the spine share communication pathways through the nervous system. Because of this, irritation, tension, inflammation, or altered function involving an organ can sometimes influence the muscles and joints associated with the same spinal region. This is called a viscerosomatic response.

The opposite can also occur. Persistent irritation around the spine, ribs, or surrounding tissues can influence the nervous-system input going to internal organs. This is often described as a somatovisceral relationship.

In simple terms: what is happening inside the body can affect the structure, and what is happening in the structure can influence how the body functions.

For example, the body may respond to irritation from an internal structure by increasing muscle tension or protective guarding around certain spinal segments. Over time, this can contribute to stiffness, asymmetry, restricted rib motion, or recurring areas of discomfort.

This is one reason the Capstone Method looks beyond the exact location where someone hurts.

During a session, we assess how the pelvis, spine, ribs, diaphragm, fascia, nervous system, lymphatic system, and visceral tissues are interacting. Gentle visceral and fascial techniques may be incorporated when appropriate to improve tissue mobility and reduce unnecessary tension patterns that may be influencing spinal balance.

The goal is not to diagnose or treat organ disease. Medical conditions belong in the hands of the appropriate healthcare provider.

The goal of Capstone is to recognize that the body functions as an interconnected system—and sometimes the area that hurts is only one piece of the puzzle.

Capstone Method Structural Balancing
Looking at the relationships that influence the whole body—not just the symptom.

10/01/2026

Your Arch Is Meant to Work — Not Just Be Propped Up

During normal walking, the foot is constantly changing shape.

After heel strike, the knee bends slightly, the shin rotates inward, and the foot moves into pronation. At this point, the bones and joints of the foot move into what is called a loose-pack position.

That simply means the foot becomes a little more flexible and adaptable to a natural uneven  surface.  The peaks and dips of let’s say a hiking trail will mobilize the bones of the feet keeping them flexible and healthy.

This is important because the foot can now act like a shock absorber, helping soften the impact of each step before those forces travel upward into the knee, hip, pelvis and spine.

Then, as you move forward and prepare to push off, the shin rotates outward and the foot becomes more rigid. The arch rises and the foot turns into a firm platform so you can efficiently propel yourself forward.

So the foot is designed to do two very different jobs:

Loosen and absorb shock — then stiffen and push off.

This is one reason we need to think carefully about arch supports and orthotics.

When an arch is continually supported from underneath by a rigid insert, the muscles that normally help create and control that arch may not have to work as hard. Even in someone with a somewhat flat foot, simply holding the arch up does not necessarily improve the muscular function that helps support it. one combination that can produce some dysfunctional results over time is a foot with a naturally high arch in a shoe with a high arch support.

The foot has its own muscular support system. Muscles in the foot and lower leg help form the arch, control pronation, stabilize the ankle and guide the foot through the walking cycle.

And those muscles can be strengthened.

There are specific exercises designed to improve the strength and coordination of the foot so the arch can become more functional on its own.

Orthotics can certainly be useful in some situations. But the goal should not always be to simply prop the foot up.

Whenever possible, we also want to help the foot regain its natural ability to:

Adapt. Absorb. Stabilize. And push off.

At Capstone Method, we look at the entire chain — foot, ankle, knee, hip, pelvis and spine — because what happens at the ground affects everything above it.

— Chris Crawford
Capstone Method Structural Balancing

10/01/2026

Your Arch Is Meant to Work — Not Just Be Propped Up

During normal walking, the foot is constantly changing shape.

After heel strike, the knee bends slightly, the shin rotates inward, and the foot moves into pronation. At this point, the bones and joints of the foot move into what is called a loose-pack position.

That simply means the foot becomes a little more flexible and adaptable.

This is important because the foot can now act like a shock absorber, helping soften the impact of each step before those forces travel upward into the knee, hip, pelvis and spine.

Then, as you move forward and prepare to push off, the shin rotates outward and the foot becomes more rigid. The arch rises and the foot turns into a firm platform so you can efficiently propel yourself forward.

So the foot is designed to do two very different jobs:

Loosen and absorb shock — then stiffen and push off.

This is one reason we need to think carefully about arch supports and orthotics.

When an arch is continually supported from underneath by a rigid insert, the muscles that normally help create and control that arch may not have to work as hard. Even in someone with a somewhat flat foot, simply holding the arch up does not necessarily improve the muscular function that helps support it.

The foot has its own muscular support system. Muscles in the foot and lower leg help form the arch, control pronation, stabilize the ankle and guide the foot through the walking cycle.

And those muscles can be strengthened.

There are specific exercises designed to improve the strength and coordination of the foot so the arch can become more functional on its own.

Orthotics can certainly be useful in some situations. But the goal should not always be to simply prop the foot up. Arch support with a high arch foot is not a great combination

Whenever possible, we also want to help the foot regain its natural ability to:

Adapt. Absorb. Stabilize. And push off.

At Capstone Method, we look at the entire chain — foot, ankle, knee, hip, pelvis and spine — because what happens at the ground affects everything above it.

— Chris Crawford
Capstone Method Structural Balancing

09/28/2026

THE GLYMPHATIC SYSTEM — THE BRAIN’S NIGHTTIME DRAINAGE SYSTEM

One of the most fascinating areas of developing research is the glymphatic system—a fluid-clearing system within the brain that helps move cerebrospinal fluid through and around brain tissue and assists in removing metabolic waste.

And one of the most important things you can do for it may simply be sleep.

Most adults need roughly 7–9 hours of quality sleep, depending on age and individual needs. But it isn’t just the number of hours that matters. During deep, slow-wave non-REM sleep, glymphatic exchange appears to become especially active. This is one reason uninterrupted, restorative sleep may be so important to long-term brain health.

Research suggests this system participates in clearing metabolic substances including amyloid-beta and tau—proteins associated with neurodegenerative disease when they accumulate abnormally.

But brain drainage does not stop at the brain.

Fluid leaving the central nervous system communicates with the meningeal lymphatic vessels and cervical lymph nodes, eventually reconnecting with the larger lymphatic circulation. That means I look at the head, neck, thorax and lymphatic system as interconnected parts of one fluid-dynamic system.

This is where the Capstone Method combines lymphatic work with biomechanics.

In a Capstone session I routinely evaluate and work with:

• the cervical and cranial tissues
• the occipital and deep cervical drainage regions
• thoracic and lymphatic mobility
• the left lymphatic terminus, where the thoracic duct returns lymph from most of the body into the venous circulation
• structural restrictions that may interfere with normal tissue mobility and fluid movement

I also frequently see a biomechanical pattern in which the left occiput sits relatively low or compressed. Because important soft tissues and lymphatic structures lie beneath the occipital region, restoring mobility there is something I consider when working to optimize the overall drainage environment.

Fluid dynamics may also be relevant to areas researchers are continuing to investigate—including migraine, visual function, balance and vestibular function, brain fog and other neurological symptoms. These relationships are still being studied, and manual therapy has not been established as a treatment for impaired glymphatic function.

The Capstone philosophy is simple:

Structure affects circulation.
Circulation affects drainage.
Drainage affects the environment in which the nervous system functions.

That is why my sessions rarely look at a painful joint, tight muscle or lymphatic restriction in isolation. I combine biomechanical balancing, fascial work and lymphatic techniques to help create the best possible environment for normal movement and fluid exchange throughout the body.

Better movement. Better circulation. Better drainage.

09/05/2026

08/28/2026

One of the most important classes to date, Lymphatic drainage of the Brain & Spine

The Counterstrain training last weekend focused on something I think is extremely important: helping improve drainage of congested fluid, lymphatic and venous pathways around the brain and spinal cord.

The brain and spinal cord are constantly producing metabolic waste and inflammatory byproducts. These materials have to be cleared through the brain’s glymphatic system, venous circulation, and lymphatic drainage pathways. When those drainage pathways become restricted or congested, it may contribute to neuroinflammation and irritation of the nervous system.

Improving drainage around the brain may potentially help reduce symptoms associated with this congestion, such as brain fog, headaches and migraines, tinnitus, feelings of pressure in the head, poor concentration, and other neurologic symptoms.

The same concept applies to the spinal cord. The spinal venous and lymphatic systems drain the tissues surrounding the cord and nerve roots. When drainage is impaired, inflammation and congestion around these tissues may contribute to chronic neck and back problems and can potentially influence the nerves traveling into the arms and legs—showing up as pain, tightness, weakness, altered sensation, or other peripheral symptoms.

What fascinated me most today was seeing how interconnected the system is:

Brain → spinal cord → nerve roots → arms and legs.

Sometimes the problem we feel in an arm, leg, neck, or back may involve more than just the muscles and joints. The drainage and inflammatory environment surrounding the nervous system may be another piece of the puzzle.

This was one of the most important sections of training for me because it adds another way of looking at persistent problems that haven’t responded completely to traditional muscular or structural treatment.

07/31/2026

Can Your Lymphatic System Influence Fat Loss?

Many people focus on calories, hormones, and exercise when trying to lose weight—but few consider the role of the lymphatic system.

Your lymphatic system is your body’s drainage network. It helps remove excess fluid, cellular waste, proteins, and supports healthy immune function. When lymphatic flow is restricted, tissues can become congested, circulation may be less efficient, and many people report feeling swollen, heavy, or sluggish.

There is also an interesting theory that the body may temporarily store certain fat-soluble compounds in fat tissue as a protective strategy. While this doesn’t mean a “blocked lymphatic system” is the cause of weight gain, optimizing lymphatic function may help your body work more efficiently and support overall health.

Healthy lymphatic flow is supported by:
• Regular movement and walking
• Deep diaphragmatic breathing
• Good hydration
• Quality sleep
• A healthy anti-inflammatory diet
• Gentle manual lymphatic techniques when appropriate

At Capstone Method Structural Balancing, we use gentle, evidence-informed manual therapy to help improve tissue mobility, reduce restrictions, and encourage healthy lymphatic movement. While lymphatic therapy isn’t a weight-loss treatment, many clients notice they feel lighter, less swollen, and move with greater ease after treatment.

Sometimes the first step toward feeling better isn’t forcing the body to work harder—it’s removing the restrictions that prevent it from working the way it was designed.

Healthy drainage supports healthy function. Healthy function supports better healing.

07/31/2026

Lymphatic drainage of the legs: here is the hidden muscle that opens or closes the passage (and why the chair is its number one enemy)

All the lymph that rises from the legs has only one way back to the rest of the body: it must pass through the pelvis, and there is no alternative way.

There is no second way, no shortcut: the psoas is the mandatory point from which all the drainage of the lower half of the body passes.

It is like a lever: everything that comes from below is compressed there and must rise again.

If that passage is free, the lymph flows, the tissues empty out, and the legs remain light, while if that passage is blocked, the lymph does not pump anything anymore: it just compresses, continuously, without ever releasing.
The veins and lymph nodes in the pelvis are under constant pressure, the passage narrows, and the lymph that comes from the legs no longer has the push to return as it should, so the vein tightens.

But sedentary lifestyle ruins drainage for a second, even more direct than the first.

When you're sitting, the bend of the groin, that is, the point where the thigh meets the pelvis, forms a tight angle that compresses the lymph nodes, and that's when the vein tightens.

But the day goes by, and hour after hour, gravity pulls the fluids downwards, the psoas is stretched out, the bend of the groin compresses nothing, and the tissues have had hours to empty themselves: the legs are light and the ankle rotates without problems.

Then the day progresses, and hour after hour gravity pulls the fluids downwards, the psoas tightens while sitting, the bend of the groin compresses the veins, and that bottle neck in the pelvis tightens more and more.

The evening becomes the worst time, with the maximum amount of fluid accumulated and the minimum capacity to drain it: the shoes tighten, the legs are heavy and stiff, and when you take off your socks you find the mark of the elastic printed on the skin.

It's not just the usual "dehydration" that's being talked about vaguely: it's the lymph nodes that can't return because the passage in the pelvis is blocked.
Many people try to respond with drainage, herbal teas, compression stockings, and creams, and some relief comes, but the problem always comes back, because none of these things touch the muscle that is strangling the passage.

🩹 MY LUNG (AND WHAT I UNDERSTOOD YEARS LATER)

The thing that makes this whole situation so stubborn is that the mechanism is spinning in circles and reinforcing itself.

The rigid psoas compresses the lymphatic vessels, the lymph stops flowing from that side, and the passage becomes blocked: that feeling of a "wrapped" leg simply disappears.

🔁 THE VISIBLE CYCLE (AND WHY IT CAN BE INVERTED)

What makes this situation so stubborn is that the mechanism is spinning in circles and reinforcing itself.

The rigid psoas compresses the lymphatic vessels, the lymph stops flowing into the legs, the stagnation sparks some inflammation in the tissues, the inflammation stiffens the muscles in the area even more, and the psoas becomes increasingly contracted.

The good news is that the same cycle can be reversed and become virtuous, and the point to focus on is very clear.

Putting the psoas back into function means two very specific things:

➡ removing the chronic compression on the vessels and lymph nodes in the pelvis, reopening the blocked passage
➡ restore its role as a pump, because a muscle that moves again throughout its entire excursion compresses and releases the vessels with every movement of the hip, and pushes the lymph upwards.

And here comes the part that often escapes, but is the heart of everything: the lymphatic system doesn't have a whole heart to pump it, there's no central pump like the one that moves the blood.

Lymph moves only thanks to movement, muscle contraction, and especially to breathing, and this is not a curious detail but basic physiology: without muscles contracting and without a diaphragm working, the lymph simply has no one to push it.

The psoas is one of these pumps, and if you attach the diaphragm, the picture is complete: with every deep breath, the diaphragm descends, compresses the thigh cistern, which is the large reservoir of lymph, and sucks the fluids upwards, just like when you pump the fluid with a straw.

In practice, the psoas pushes from below and the diaphragm draws from above, and together they do the same job that the heart does for the blood, with a huge difference: unlike the heart, these two muscles depend completely on you and on how much you train them 💪