More on MFR & Deep Wave Therapy

Partnership 

In the equestrian world, we routinely separate the horse's body from the rider's body when  addressing pain, restriction, and performance. But every time a rider sits in the saddle, two  nervous systems, two fascial networks, and two movement patterns are in constant negotiation  with one another. 

The science of fascia- the body's continuous web of connective tissue, is changing how we  understand this relationship. Research in biotensegrity, myofascial chains, and the physiology of  the horse-human bond now gives us a framework for what experienced riders and trainers have  always felt intuitively: that a tight or compensatory rider creates a tight/compensatory horse, and a restricted horse creates a braced rider.  

A Note on Timing :Fascia does not respond to a single session the way muscle responds to a stretch. Change in  the fascial matrix requires repeated input over time. Four weeks of weekly treatment represents  the minimum meaningful protocol for measurable, lasting change - and research suggests the  effects continue to develop in the 48 hours following each session.  

What Is Fascia? 

Fascia is the continuous, three-dimensional web of connective tissue that surrounds and  permeates every muscle, organ, nerve, and bone in the body. For most of the twentieth century,  it was treated as biological packaging- something to be cut through on the way to the 'real'  structures underneath. We now understand it as a primary system in its own right, one that  plays a fundamental role in movement, proprioception, pain, and the transmission of force  throughout the body.

The fascial web is composed largely of collagen fibers, ground substance (a fluid medium), and  fibroblasts. Its key properties include: 

• Tensegrity: Fascia operates on the principle of tensional integrity: the whole-body web  distributes mechanical stress across the entire system, not just locally. A restriction in one  area is never truly local; it creates tension and compensation throughout the entire  network. 

• Piezoelectricity: Fascial collagen generates electrical signals in response to mechanical  pressure and movement. This is how the fascial matrix communicates  and why both  movement and manual therapy can have systemic, nervous-system-mediated effects. 

• Fluid dynamics: The ground substance is a gel-like fluid medium that becomes more  viscous under sustained compression and more fluid with warmth, movement, and  sustained gentle pressure. Fascial health is, in large part, a question of hydration and fluid  flow through the matrix. 

• Proprioceptive function: Fascia contains more proprioceptive nerve endings than muscle  tissue. It is a primary sensory organ, continuously informing the nervous system about  position, load, and movement. Fascial restriction does not just limit movement — it distorts  sensory information. 

Schleip R, Findley TW, Chaitow L, Huijing PA (Eds). Fascia: The Tensional Network of the Human  Body. Churchill Livingstone, 2012. 

Stecco C, Macchi V, Porzionato A, et al. The fascia: The forgotten structure. Italian Journal of Anatomy  and Embryology, 2011. 

Myofascial Chains: How Restriction Travels 

Fascia does not organize itself in isolated compartments. It forms continuous myofascial chains  which are lines of connected tissue that run the length of the body, linking anatomical regions  that would otherwise seem unrelated. Thomas Myers' Anatomy Trains model describes these  lines in detail; the posterior superficial line, the spiral line, the lateral line, and others provide a  map of how tension in one region can drive restriction, pain, or compensation far from its origin. 

In the horse, these chains have been observed and documented by equine bodywork  researchers including Dr. Vibeke Elbrond, whose landmark 2015 study used the deep wave  therapy device to make the myofascial chains visible in real time. Placing the device on just two  points, the neck and the lower back, for a matter of seconds produced measurable relaxation  responses that traveled the full length of the horse's body, from the neck down through the  thoracolumbar fascia and into the hind limbs and feet. The relaxation response continued to  develop for 48 hours after the session ended. 

Key Finding — Elbrond (2015) 

A double-blind study on seven horses demonstrated that treatment at only two body points  produced whole-body relaxation that spread through the myofascial chains. The process  continued for 48 hours post-treatment, confirming both the existence of continuous fascial  chains in the horse and the depth of systemic response achievable through fascial intervention.

What Myofascial Restriction Does to Performance 

When fascia loses its fluid, gliding quality- through injury, repetitive strain, emotional holding,  poor posture, or compensatory movement patterns- it begins to adhere and solidify. These  adhesions do not show up on X-rays or MRI. But they are palpable, they limit range of motion,  they alter proprioception, and over time they become the substrate of chronic pain and  movement dysfunction. 

In horses, the consequences of myofascial restriction include: 

• Shortened stride length and reduced engagement of the hindquarters • Resistance, bracing, and evasion that are often misread as behavioral problems • Decreased suppleness through the thoracolumbar junction- the foundation of collection • Sensitivity or pain at the poll, TMJ, and nuchal ligament- critical to acceptance of contact 

• Hypertonicity in the longissimus and epaxial muscles, inhibiting the swinging back  essential for dressage and jumping 

In riders, fascial restriction produces a parallel set of consequences: 

• Asymmetry in the seat, driving asymmetry in the horse's movement 

• Reduced ability to absorb the horse's movement through the pelvis, hip flexors, and  lumbar spine 

• Bracing through the shoulder girdle and arms, interfering with soft, following contact 

• Habituated tension patterns that the rider cannot release through conscious effort alone,  because they exist below the level of voluntary motor control

How does Deep Wave Therapy Work on fascia?

Deep Wave Therapy is a precision therapeutic device developed in Sweden- recipient of a  Swedish national innovation award- that delivers harmonic pulsations between 400 and 1,200  cycles per minute directly into the soft tissue. These are not random vibrations; they are  controlled, frequency-specific oscillations designed to interact with the physical properties of  fascia and the nervous system in measurable ways. 

Mechanism of Action: Fluid Dynamics 

The primary mechanism is the mobilization of fluid within the fascial matrix. Research on soft  tissue fluid dynamics demonstrates that gentle oscillation at specific frequencies can increase  interstitial fluid flow by three to twelve times baseline- reducing ground substance viscosity,  hydrating the collagen matrix, and restoring the gliding function between fascial layers. 

Mechanism of Action: Pain Relief via Frequency Overloading 

The device employs a continuously varying frequency pattern that the nervous system cannot  habituate to. This changing input overloads the pain receptors' ability to transmit signals providing meaningful relief from chronic myofascial pain. In horses, this translates to a reduction  in the defensive bracing and hypertonicity that overlies areas of chronic restriction. 

Mechanism of Action: Muscle Spindle Reset

Muscle spindles — the sensory receptors embedded in muscle tissue that govern resting tone can become stuck in a contracted state through injury, repetitive strain, or habituated holding  patterns. The harmonic oscillation of the device appears to reset these spindles, releasing the  chronic neurological signal that maintains inappropriate muscle tension in both horse and rider.