Albright Dressage

Albright Dressage Green to Grand prix. Based in Sherwood, OR and led by international dressage rider and trainer Benjamin Albright.

Offering training, coaching, sales, and syndicate opportunities.
✉️ [email protected]

12/28/2025

Fascia’s Signaling Molecules

How Massage Therapy Influences the Body’s Connective Communication Network

For much of medical history, fascia was dismissed as passive packing material — a structural wrapping that merely held muscles and organs in place. Modern research has overturned that view. Fascia is now recognized as a dynamic, sensory, and biochemical signaling system capable of influencing pain, inflammation, movement, and whole-body regulation.

At the center of this new understanding is fascia’s ability to communicate chemically, not just mechanically.

Fascia Is a Signaling Organ, Not Just a Tissue

Fascia is composed of an interconnected extracellular matrix (ECM) populated by fibroblasts, myofibroblasts, immune cells, vascular structures, and dense neural networks. These components respond continuously to mechanical input — load, stretch, compression, and shear — and translate those forces into biochemical messages.

This process, known as mechanotransduction, allows fascia to release signaling molecules that influence both local tissue behavior and systemic physiological responses.

Just as muscle contraction releases myokines, fascia releases its own family of signaling substances.

Fascia’s Key Signaling Molecules

While there is not yet a single universally accepted umbrella term like “myokines,” fascia-derived signaling molecules generally fall into several categories.

Fibrokines

Fibrokines are signaling molecules released by fibroblasts, the primary cellular architects of fascia. These substances regulate tissue remodeling, collagen turnover, inflammation, and repair. Mechanical loading, chronic tension, or injury alters fibrokine release, shaping how fascia adapts — or maladapts — over time.

Matrikines

Matrikines are bioactive fragments of extracellular matrix proteins released when fascia is stressed, compressed, or remodeled. Rather than being inert debris, these fragments act as signals that influence immune responses, cell migration, angiogenesis, and healing cascades.

Cytokines and Growth Factors

Fascia actively produces and responds to cytokines and growth factors such as:
• TGF-β (Transforming Growth Factor-beta)
• IL-6 and other interleukins
• VEGF (Vascular Endothelial Growth Factor)
• Prostaglandins

These molecules regulate inflammation, fibrosis, vascular adaptation, and pain sensitivity.

Neurochemical Mediators

Fascial tissues also interact with neurochemical signals including:
• Substance P
• CGRP (calcitonin gene-related peptide)
• Nitric oxide

These mediators link fascia directly to the nervous system and help explain why fascial dysfunction is so closely associated with pain, guarding, and altered motor patterns.

When Fascial Signaling Goes Wrong

Healthy fascia is adaptable, hydrated, and responsive. Under excessive load, repetitive strain, trauma, or emotional stress, fascial signaling can shift toward:
• Chronic inflammation
• Excessive collagen cross-linking
• Increased myofibroblast activity
• Heightened nociceptive signaling
• Reduced tissue glide and elasticity

This biochemical environment reinforces protective tension and inefficient movement strategies — often long after the original cause has resolved.

Importantly, these changes are self-reinforcing. Altered mechanical input drives altered signaling, which further changes tissue structure and neuromuscular tone.

How Massage Therapy Influences Fascial Signaling

Massage therapy does not simply “relax tissue.” Its primary influence occurs at the level of mechanical input and sensory modulation, which directly affects fascial signaling pathways.

1. Mechanical Load Normalization

Gentle, sustained pressure and shear forces help normalize mechanical strain across the fascial matrix. This alters fibroblast behavior and reduces excessive myofibroblast contraction, shifting the biochemical environment away from fibrosis and toward remodeling.

2. Improved Hydration and ECM Fluid Dynamics

Manual therapy enhances interstitial fluid exchange within fascia, improving the movement of signaling molecules and reducing stagnation. Better hydration supports healthier collagen spacing and more balanced signal transmission.

3. Modulation of Inflammatory Signals

Research shows that manual therapies can reduce pro-inflammatory cytokine expression while supporting anti-inflammatory signaling. This helps calm tissues that have become chemically sensitized through chronic load or stress.

4. Neurological Down-Regulation

By stimulating mechanoreceptors in the skin and fascia, massage therapy influences the autonomic nervous system. Reduced sympathetic tone leads to lower levels of stress-related neurochemicals that amplify pain and tissue guarding.

5. Restoration of Adaptive Feedback Loops

Massage restores clearer sensory input to the nervous system. This allows the body to recalibrate muscle tone, posture, and movement patterns based on accurate information rather than protective over-signaling.

Why Massage Effects Can Be Systemic

Because fascial signaling molecules influence immune function, vascular tone, and neural regulation, the effects of massage are often whole-body, not local. A change in one region’s fascial signaling can propagate through myofascial continuities, neurovascular pathways, and biochemical feedback loops.

This explains why skilled manual therapy can:
• Improve movement coordination
• Reduce pain in distant regions
• Enhance recovery and tissue resilience
• Support emotional regulation and perceived safety

A New Model of Manual Therapy

In this framework, massage therapy is best understood as a biochemical and neurological intervention mediated through fascia, not merely a mechanical technique.

It does not force tissues to change.
It changes the signals tissues receive, allowing the body to reorganize itself.

Key Takeaway

Fascia is an active signaling network that responds to mechanical input by releasing bioactive molecules that influence pain, inflammation, movement, and healing. Massage therapy works by modulating this signaling environment, helping restore healthy communication between tissues, the nervous system, and the body as a whole.

When we touch fascia skillfully, we are not just moving tissue —
we are reshaping the messages that tissue sends.

https://koperequine.com/force-without-boundaries-how-fascia-and-myofascial-therapy-shape-epimuscular-flow/

12/27/2025

The Thoracic Sling: The Horse’s Primary System for Balance, Posture, and Force Organization

For generations, equestrian tradition taught that the hindquarters were the horse’s primary source of power. Riders were encouraged to “ride from behind,” develop engagement, and focus training almost exclusively on the rear of the horse. While the hind end is indeed responsible for propulsion, this view does not fully explain balance, posture, straightness, elevation, or whole-body coordination.

Modern biomechanics presents a more complete picture. The hindquarters generate thrust, but the thoracic sling organizes, stabilizes, and directs the horse’s movement. The forehand—specifically the thoracic sling and its integration with the core—the primary system for organizing balance and posture in motion.

The Traditional View Was Hind-End Dominant

Classical training emphasized the hindquarters as the horse’s engine. This is accurate in terms of generating forward thrust, contributing to carrying power, adding part of the horse’s ability to collect, and sharing load with the forehand.

However, the hind end does not independently determine where the body mass travels, the height of the trunk, the organization of the spine and ribcage, straightness or lateral balance, or the ability to elevate the forehand.

The hindquarters push, but they do not control the system they are pushing into.

The Thoracic Sling Is the Horse’s Primary Balancing and Postural Engine

The thoracic sling is a muscular-fascial suspension system that holds the trunk between the forelimbs. Functioning in place of a clavicle, it does far more than support the front end.

The thoracic sling suspends the ribcage between the forelimbs, regulates trunk height, absorbs landing forces, stabilizes the shoulders during movement, initiates upward shifts of the center of mass, determines how weight is distributed front to back, controls straightness and lateral balance, and integrates with the deep core to manage whole-body posture.

In biomechanical terms, the thoracic sling is the horse’s primary balancing and postural system. Without a functional sling, the hindquarters cannot translate their power through the body in a stable or organized way.

The Hind End Pushes — The Thoracic Sling Catches

This concept aligns with findings from force-plate studies, kinematic analysis, and myofascial research.

Current research shows that the forehand is responsible for most vertical control of the trunk, the thoracic sling plays a substantial role in stabilizing the ribcage, the trunk cannot elevate unless the sling and core activate first, self-carriage depends on thoracic suspension rather than hind-end drive alone, and power from behind becomes ineffective if the front cannot control incoming forces.

In motion, the forelimbs do not simply carry weight. They manage balance, braking, and impact absorption. The thoracic sling processes these forces and determines how effectively they are redistributed through the body.

The Modern Shift Across Disciplines

This updated understanding influences every area of equine performance and care.

In rehabilitation and return-to-work planning, thoracic sling function is now prioritized before intensive hind-end strengthening.

In dressage and classical schooling, true self-carriage requires elevation of the withers through the sling rather than force from behind.

In jumping, a functional sling is essential for correct bascule, shoulder freedom, and safe landing mechanics.

In bodywork and movement support, thoracic sling tension and fascial organization influence cervical mobility, forelimb swing, and trunk lift.

In hoof care, the way the foot lands and loads directly affects how both the hindquarters and thoracic sling must compensate during stance and motion.

Across disciplines, the thoracic sling is increasingly recognized as central to posture, balance, and performance.

Why the “60 Percent Forehand Weight” Rule Is Misleading

The commonly cited idea that the forehand carries 60 percent of the horse’s weight applies only to a standing horse on level ground without a rider. In dynamic movement, particularly under saddle, this percentage increases.

Forehand load rises due to the horse’s naturally forward center of mass, the added weight of the rider, variations in hoof balance and trim, posture and core strength, gait mechanics, landing forces, and weakness or collapse within the thoracic sling.

During trot and canter, forelimb loading often exceeds 60 percent and may reach 65 to 75 percent or more. This increased demand makes the thoracic sling the primary structure responsible for stabilizing and supporting the trunk in motion.

Steering Comes From the Shoulders

In horses, steering does not originate in the head or the hindquarters. Direction, line, and balance are determined by the orientation and control of the shoulders, which are suspended by the thoracic sling.

The thoracic cage sits between the forelimbs as a suspended structure. Wherever that structure is directed, the rest of the body must follow. The head follows the shoulders because it is attached to the cervical spine, which is anchored to the thorax. The pelvis and hind limbs follow because they are connected to the thoracic cage through the spine and continuous fascial chains.

A horse cannot truly go straight if the thoracic cage is crooked between the forelimbs. The hindquarters may push powerfully, but they will simply propel the body along the path the shoulders have already chosen. This is why pulling the head does not create straightness, pushing the hindquarters does not correct drift, and controlling the shoulders changes the entire trajectory of the horse.

When the thoracic sling is balanced and functional, the shoulders set the line and the rest of the body organizes naturally behind it.

Thoracic Cage Balance Determines Hind-End Function

The balance and alignment of the thoracic cage directly determine how effectively the hindquarters can work.

If the thoracic cage is dropped on one side, rotated between the forelimbs, collapsed through the sling, or unstable in vertical suspension, the hindquarters are forced into compensatory strategies rather than true engagement.

This often presents as asymmetrical stepping, uneven push mistaken for strength differences, difficulty bending evenly left versus right, loss of straightness despite strong hind-end effort, and increased strain through the lumbar spine and sacroiliac region.

The hindquarters do not choose these patterns. They respond to the balance problem they are pushing into.

When the thoracic sling lifts, centers, and stabilizes the ribcage, both hind limbs can step under evenly, propulsion becomes directed rather than wasted, carrying power improves without force, and collection becomes easier rather than more demanding.

Hind-end quality, therefore, reflects thoracic organization rather than the other way around.

A More Accurate Model of Equine Power

A modern, biomechanically accurate model is emerging.

The hindquarters generate propulsion.
The thoracic sling organizes the body, stabilizes the trunk, and distributes forces.
The core integrates the two into a coordinated whole.

This framework explains why straightness cannot be achieved through hind-end work alone, why self-carriage depends on wither elevation, why forehand heaviness is rarely a hind-end problem, and why movement quality arises from postural control rather than raw power.

Power without organization creates imbalance which crrates tension. Balance allows power to express itself. The future of equine performance lies in organizing the power the horse already has.

https://koperequine.com/the-thoracic-sling-axial-skeleton-interplay/

It’s that time of year again; We’re beginning to organize Ben’s clinic schedule for the coming year. Current students an...
12/15/2025

It’s that time of year again; We’re beginning to organize Ben’s clinic schedule for the coming year. Current students and barns interested in hosting are encouraged to reach out early.

Ben specializes in a positive, thoughtful approach to the development of young horses, as well as helping difficult horses find clarity, confidence, and a path to sustainable progress.

He is a USDF Bronze, Silver, and Gold Medalist with distinction and a successful CDI-level competitor. As a coach, he has assisted more than 25 students in earning USDF medals, winning regional championships, competing at CDI competitions, and participating in the Festival of Champions across both young horse and high-performance divisions.

His clinics are known for being educational, supportive, and enjoyable. Ben’s teaching style is relaxed and conversational, helping both horse and rider feel at ease while focusing on a classical yet practical training system. Emphasis is placed on correctness of the gaits, lightness of the aids, and sound body mechanics, always prioritizing the long-term health and longevity of the horse.

To help make clinics more accessible, a travel discount is available for hosts within driving distance of Sherwood, OR.

For more information or to inquire about hosting, please send us a message.

Address

Sherwood, OR
97140

Opening Hours

Monday 7am - 5pm
Tuesday 7am - 5pm
Wednesday 7am - 5pm
Thursday 7am - 5pm
Friday 7am - 5pm
Saturday 7am - 5pm
Sunday 7am - 5pm

Telephone

+14436057970

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