Cadence Equine

04/04/2026

Amazing longissimus muscle connections

10/03/2026

When treatments effect more than posture. When we look at angles and goniometry there is a normal range.
When we see clients regularly it is easier to see the bodies adaptation.

Note the flattened pelvis, tilting forwards reducing the angle between the tuber coxae (hip) and tuber ischii (sit bone).
Now imagine the connections of the soft tissues and the distortion of normal antagonist movement and balance in the quadriceps and hamstrings, adjustment in hip flexors and contracted paraspinals.
The lumbosacral junction and sacroiliac area is under stress.

So we apply treatment and see a postural change in the last two photos.

But how do we strengthen this area.
On a case by case situation taking into account the animal’s current fitness and routine.

Target

Adding flexion of the pelvis -hip and hock, engaging the pelvic stabiliser muscles. Abdominals recruited.

Just below Knee/hock height walk cavaletti in straight lines.

Repetition of x6 in reps of four daily. Receiving 4 weeks to assess strength and stability.

Looking for any adaptation or compensation.
Focus on correct form with each individual step. Watch for abduction, adduction or tripping. Thes may inform you to start lower and work up to the optimum height so training is progressive.

Photo 1 before- flat pelvis
Photos 2 and 3 (same day) after treatment

07/03/2026

Farriery’s Decline Is Not an Attack From Outside. It Is a Set of Named Failures From Within.

I recently read an article on the decline of UK farriery that strongly echoed my own experience and thinking. Not because it was dramatic, but because it accurately described the consequences of a profession that stopped adapting while the world around it changed.

What the article didn’t fully name, but what needs to be named clearly, is that farriery is not suffering from a single problem. It is suffering from a cluster of predictable, well-documented professional failure modes. These patterns are not unique to farriery. They appear in many protected professions shortly before relevance declines.

The first is terminal credential thinking.

Terminal credential thinking occurs when a qualification is unconsciously treated as the end of learning rather than the beginning of it. In the UK, the protected farriery exam has become exactly that. Once passed, many farriers psychologically “arrive”. CPD is completed reluctantly. Further education is optional. Growth becomes episodic rather than continuous.

This does not happen because farriers are lazy. It happens because the system implies that competence is final once certified. The qualification becomes an identity rather than a baseline. When learning becomes terminal, excellence plateaus.

That mindset then spills directly into the market as price competition instead of value competition.

When a profession standardises credentials but fails to encourage differentiation through deeper education, communication, and specialisation, the market has no way to distinguish one practitioner from another. Horse owners see identical letters after names and logically assume the service is standardised. When value is invisible, price becomes the only variable. Undercutting replaces outperforming. Marketing replaces explanation. The profession races itself to the bottom while wondering why margins disappear.

The next failure sits higher up the hierarchy and is more damaging long term. This is institutional echo-chambering, driven by what sociologists call an elite self-referencing system.

An elite self-referencing system is one where authority is granted primarily by internal recognition rather than external contribution or demonstrable impact. In practice, this means excellence is acknowledged only if it comes from inside the approved circle. Educators, researchers, and practitioners who advance understanding but sit outside the formal titles or historic structures are quietly excluded.

The result is an incestuous feedback loop. The institution hears only itself. The average farrier only sees what the institution validates. Innovation happens elsewhere, but the profession never integrates it. Over time, the governing body becomes increasingly disconnected from the real frontier of practice while still believing it represents it.

Training reflects this disconnection. The modern farriery textbook is a clear example. Its focus remains heavily weighted toward static anatomy, shoemaking craft, and isolated pathologies. Meanwhile, the actual demands placed on farriers today require understanding of biomechanics, surface interaction, functional anatomy, morphology, adaptation, and the bi-directional relationship between hoof and horse.

This mismatch creates technically competent tradespeople who are not equipped to explain, predict, or integrate outcomes at a systems level. Craft skills are necessary, but they are no longer sufficient. Shiny shoes do not guarantee sound horses. And repeating old models does not prepare a profession for modern scrutiny.

Overlaying all of this is a structural economic problem that accelerates disengagement. UK farriery is governed by outdated legislation that suppresses professional scaling. The inability to delegate even basic tasks prevents experienced farriers from building teams, transitioning into quality control or mentorship roles, or compounding their expertise economically. In other countries, excellence is rewarded with leverage. Here, excellence is often rewarded with exhaustion.

Newly qualified farriers then enter the system with a distorted understanding of readiness and value. Protected by certification but inexperienced in business risk, responsibility, and long-term accountability, they often overestimate their market position. Employers absorb the cost. Seniors disengage. Standards quietly erode.

All of these forces feed into what can only be described as a professional entropy spiral.

Standardisation creates complacency.
Complacency removes differentiation.
Loss of differentiation forces price competition.
Price competition suppresses income.
Suppressed income drives burnout and disengagement.
Disengagement lowers standards.
Lower standards confirm public doubt.

And the cycle repeats.

This is not an attack on farriery. It is a diagnosis. And diagnoses matter because unnamed problems cannot be corrected.

If farriery is to survive as a profession rather than decay into a protected trade, it must break this spiral deliberately. That means redefining qualification as a baseline, not a destination. Rewarding education, not entitlement. Valuing evidence over tradition. Opening institutions rather than closing ranks. And allowing excellence to scale rather than be trapped on the tools.

Professions do not die when they are challenged.
They die when they refuse to examine themselves.

Farriery is now at that point.

02/03/2026

Fascial Entrapment Neuropathy

Fascial entrapment neuropathy in horses occurs when peripheral nerves become irritated or compressed by restricted, thickened, or dehydrated fascia rather than by bone or obvious structural injury. Because fascia forms a continuous web around muscles, nerves, and vessels, restrictions in one area can affect nerve function locally or at a distance.

In horses, this can develops from repetitive movement patterns, poor saddle fit, trauma, compensation from lameness, prolonged tension, or age-related changes in tissue elasticity. The result is impaired nerve glide and reduced circulation to the nerve, leading to pain or altered sensation without clear findings on imaging.

Common signs may include:
• unexplained sensitivity to grooming or tacking
• intermittent or shifting lameness
• resistance to bending, collection, or transitions
• shortened stride or asymmetrical movement
• behavioral changes such as irritability or avoidance

These signs are frequently misattributed to training issues or attitude, particularly when diagnostics appear normal.

How bodywork and massage help

Skilled manual therapy can address fascial entrapment by restoring tissue glide, improving hydration, and reducing abnormal tension patterns around the nerve. Slow, precise techniques help decrease pressure within fascial layers, support circulation, and calm the nervous system. As the fascial environment becomes more supple and responsive, nerve irritation often diminishes, allowing more comfortable movement and improved coordination.

Big picture

Fascial entrapment neuropathy highlights the importance of viewing equine pain through a whole-body lens. When fascia regains elasticity and balance, nerves are no longer forced to function in a restricted environment—supporting soundness, comfort, and more willing movement.

https://koperequine.com/fascia-the-skeleton-of-the-nerves/

10/02/2026

Some natural anti inflammatory

Fresh new spirulina study out in horses and it’s an interesting one — not because it shows dramatic effects, but because where it seems to act is quite specific.

In this trial, adult horses were fed 30 g/day of spirulina for 30 days, then put through a moderate exercise test. The researchers looked at blood markers and joint fluid to see how horses handled the normal inflammatory response to exercise. For reference, I recommend 40g per day of spirulina, so this is quite a small dose!

The main change wasn’t “less inflammation”.
It was higher Resolvin D1 — which is involved in resolving inflammation once it’s underway, rather than inhibiting it in the first place.

Which is interesting, not so much from the context that the authors were looking at (exercise recovery/joint inflammation etc), but more so in the way I usually use it, for allergies.

Spirulina also shifted nitric oxide signalling and slightly increased red blood cell markers, both of which would be quite useful in horses suffering from respiratory allergies.

Allergies (being an overly sensitive immune response) aren't just about triggering inflammation, they're also associated with inflammation that hangs around longer than it should - the resolution response isn't working properly either.

Spirulina already has evidence for antihistamine and anti-allergic effects in other species. Seeing it also influence resolution pathways helps explain why it can be useful in horses with allergies, not as a cure, but as part of helping inflammatory flares settle more easily.

That’s the logic behind its use in Spiru-Soothe.

And yes — reading the joint fluid results did briefly make me think
“Should this go in Golden Joint?”
(Probably not. But the overlap is interesting.)

22/01/2026

Due to increased costs and border issues our shipping destinations and charges have changed, please see Delivery for latest information

20/01/2026

When I treat horses we look at patterns of tension and release. Obviously this is far more complex from a palpation level.
But this is why you see me using different techniques and not force.

18/12/2025

There is something we do routinely with horses that we would struggle to accept for ourselves: we relocate them. Frequently. Sometimes with careful thought, sometimes casually, sometimes because the timing suits us. New yard. New field. New companions. New routine. New handlers. New expectations. And we rarely pause to consider what this actually demands of them, not emotionally but biologically.

A horse experiences the world through their nervous system, not through concepts like practical or necessary. That system is continuously assessing: Am I safe. Is this predictable. Where is threat. Can I recover. When we move a horse, we are not just changing their address. We are erasing the entire sensory map their nervous system relies on to answer those questions.

For a prey animal, every detail of their environment provides information. The terrain underfoot. The pattern of sounds. The quality of shelter. The rhythm of the day. How light moves through the space. Where other horses are. Whether they can move away when they need to. When a horse arrives somewhere new, the body immediately starts reassessment. Muscle tone shifts. Sleep patterns change. Digestion can alter. Startle responses may rise. Some horses become hypervigilant. Others go quiet and still, a state that often looks like settling in but may actually be conservation mode. This is not dysfunction. This is biology doing its job. But disruption without adequate recovery time carries a cumulative cost.

Horses do not simply live beside other horses. They regulate with them. Established herd relationships offer shared vigilance that allows rest, predictable social structure, buffering through proximity, and safety through numbers. Every time a horse is moved, these regulatory relationships are severed. Even when a horse appears to make friends quickly, the nervous system still has to renegotiate hierarchy, boundaries, proximity, and trust. Some horses do this obviously. Others do it quietly. Both require energy. A horse who has been moved many times may eventually stop investing deeply in connection, not because they do not want it, but because repeatedly rebuilding it is metabolically expensive.

After relocation, people often notice changes that get labelled as behavioural problems. Sudden spookiness. Separation anxiety. Irritability or shutdown. Resistance under saddle. Digestive changes. Altered movement quality. Loss of curiosity. Reactivity to touch. These are not random. They are often the nervous system saying: I am still orienting. I am still assessing threat. I am not yet resourced. When we ignore these signals, push through them, or try to suppress them, we do not build resilience. We build defensiveness.

To understand this without anthropomorphising, consider a human parallel. Imagine being repeatedly moved into unfamiliar homes in unfamiliar neighbourhoods with unfamiliar people, no choice, no preparation, and no stable base to return to. You would not need to feel emotional about it for your nervous system to register instability. Your sleep would shift. Your baseline tension would rise. Your tolerance for novelty would narrow. Your capacity to relax deeply would shrink. That is not a flaw in character. That is physiology. Horses operate under the same biological principles.

Some horses cope better than others depending on temperament, early experience, genetics, and support. But coping is not the same as thriving. And the absence of visible distress does not mean regulation. A horse can appear functional while carrying elevated baseline stress, and research in stress physiology shows that the body keeps score even when behaviour looks fine.

Before relocating a horse, it is worth slowing down to ask different questions. Is this move necessary or simply convenient. What does this horse stand to lose in terms of predictability, relationships, and environmental familiarity. What support will they need neurologically, not just behaviourally. Am I allowing enough recovery time, or expecting performance before safety is re-established. Am I watching for subtle strain in sleep, digestion, curiosity, recovery after work, or social engagement. How many times has this horse already faced this disruption. History matters.

When moves are necessary, we can support the transition responsibly. Give the horse several weeks for genuine settling rather than surface adjustment. Maintain as much routine consistency as possible. Reduce performance expectations at first. Provide choice where possible. Integrate into the herd gradually and thoughtfully. Watch for signs that the nervous system is still working hard. Recognise that turnout with compatible companions supports co-regulation. Understand that some horses need weeks or months, not days.

Stability is not a luxury. Horses do not reset simply because they arrive somewhere new. They carry their nervous system history forward. Every relocation adds to that history. Every disruption registers. Every period of stability is protective. This does not mean never moving horses. Life happens and circumstances change. Sometimes relocation genuinely improves welfare. It simply means acknowledging that movement is not neutral. Environment matters. Herd continuity matters. Predictability matters. Recovery time matters. And a regulated nervous system is not optional. It is the foundation for everything else we ask.

At WHJ, we are not asking for guilt. We are asking for awareness. When we truly understand the biological cost of repeated instability, we begin making different choices. We move horses less casually. We plan transitions more carefully. We watch more closely. We allow more time. We question whether convenience for us is worth destabilisation for them. These choices shape behaviour, health, and wellbeing across a lifetime. That is what it means to think well of our horses, not just in moments but in the long term.

Further reading:
The term “New Home Syndrome” has been used by Dr. Shelley Appleton to describe behavioural changes observed in horses following relocation. Readers interested in a behavioural transition perspective may wish to explore her work alongside nervous-system-based approaches. https://www.calmwillingconfidenthorses.com.au/blogs/new-home-syndrome

12/12/2025

Sometimes a little bit of cheeky is a great way to end the working week.

Treatment even in a strong healthy foal is a great way to check post delivery all is well.

Mum got some tlc too.

20/11/2025

My hands are my tools! Always sensitive to touch and tissue changes

Touch Over Tools: Fascia Knows the Difference

In bodywork, tools can assist — but they cannot replace the intelligence, sensitivity, or neurological impact of human touch.
Hands-on work communicates with the body in ways no device or instrument can.

1. Hands Provide Real-Time Feedback Tools Cannot Match

Your hands sense:
• tissue temperature
• hydration and viscosity
• fascial glide
• subtle resistance
• breath changes
• micro-guarding
• nervous-system shifts

This information shapes your pressure, angle, and pace.
Tools apply pressure — hands interpret and respond.

2. The Nervous System Responds Uniquely to Human Touch

Skin and fascia contain mechanoreceptors that respond strongly to:
• sustained contact
• warmth
• contour
• slow, intentional pressure

Human touch activates pathways that:
• quiet the sympathetic system
• reduce pain signaling
• soften protective muscle tone
• improve movement organization

Tools stimulate tissue.
Hands regulate the nervous system.

3. The Effect of Physical Contact Itself

Physical contact changes physiology — even before technique begins.

Touch triggers:
• lowered cortisol
• increased oxytocin
• improved emotional regulation
• better proprioception
• reduced defensive tension

Horses and dogs — whose social systems rely on grooming, leaning, and affiliative touch — respond especially deeply.
Tools can compress tissue, but they cannot create that neurochemical shift.

4. Hands Follow Structure; Tools Push Through It

Fascia does not run in straight lines — it spirals, blends, suspends, and wraps.

Hands can:
• contour around curves
• follow the subtle direction of ease
• melt into tissue instead of forcing through it

Tools often pull or scrape in a linear path, bypassing the subtleties that create real, lasting change.

5. Tools Can Override the Body’s Natural Limits

Hands feel when:
• tissue meets its natural barrier
• the nervous system hesitates
• a micro-release initiates
• the body shifts direction or depth

Tools can overpower these boundaries, creating irritation, rebound tension, or compensation patterns.
Hands work with the body’s pacing — not against it.

6. Hands Support Whole-Body Integration

Bodywork isn’t about “fixing a spot.”
It’s about improving communication across the entire system.

Hands-on work:
• connects multiple lines at once
• enhances global proprioception
• improves coordination and balance
• supports the body’s natural movement strategies

Tools tend to treat locally.
Hands treat the whole conversation.

7. Physical Touch Builds Trust, Comfort, and Confidence

Comfort creates confidence.
Confidence nurtures optimism and willingness.

Hands-on work:
• reduces defensiveness
• supports emotional safety
• encourages softness
• creates a more receptive body
• builds trust and relationship

Tools cannot build rapport or communicate safety.
Hands do — instantly.

Additional Elements (Optional Enhancements)

A. Co-regulation: Nervous System to Nervous System

Humans, horses, and dogs all co-regulate through touch and proximity.
Your calm hands shift their physiology — and theirs shifts yours.
This shared state enables deeper, safer release.

B. Touch Enhances Sensory Clarity

Touch refines the brain’s map of the body (somatosensory resolution), improving:
• coordination
• balance
• movement efficiency
• reduced bracing

Tools cannot refine the sensory map with the same precision.

C. Hands Integrate Technique and Intuition

The brain blends tactile information with pattern recognition and subtle intuition.
Tools separate you from that information.
Hands plug you into it.

In Short

Hands-on wins because touch is biologically intelligent, neurologically profound, and relationship-building.
Tools press — but hands listen, interpret, regulate, and connect.

When the body feels safe and understood, it reorganizes more deeply, moves more freely, and heals more efficiently.

The Energy Connection Between Horse and Human: Science and Sensation - https://koperequine.com/the-energy-connection-between-horse-and-human-science-and-sensation/

19/11/2025

More highly innervated than muscle!

Fascia, Fascia, Fascia: The Updated Map of the Body’s Connective Network

There is a newer, more formal classification of the fascial system that is becoming increasingly recognized in equine anatomy.

Here’s the clear summary of the most current view:

The New Classification of the Fascial System

The Fascia Research Society (FRS) and the Federative International Programme for Anatomical Terminology (FIPAT) have outlined a modern, unified classification that moves far beyond the older “superficial vs. deep fascia” model.

The contemporary definition sees fascia as a body-wide, three-dimensional, continuous connective-tissue network, and the system is divided into four major categories:

1. Superficial Fascia
• Located just under the skin
• Highly hydrated, rich in nerves
• Houses adipose tissue
• Major role in sensory input, thermoregulation, glide, and fluid dynamics

2. Deep/Muscular Fascia
• Dense connective tissue around muscles, bones, tendons, ligaments
• Includes epimysium, perimysium, endomysium
• Responsible for force transmission (including epimuscular force transmission)
• Major role in proprioception and muscle coordination

3. Visceral Fascia (Splanchnic Fascia)
• Connective tissue surrounding and suspending organs
• Includes mesentery, pleura, pericardium, mediastinum
• Involved in visceral mobility, stability, motility, and visceral–somatic pain patterns

4. Neural Fascia (Meningeal Fascia)
• Envelops and supports the nervous system
• Includes dura mater, epineurium, perineurium, and endoneurium
• Critical for neural glide, tension regulation, and mechanosensory input

The Most Important Shift

The new classification is based on the concept of the “fascial continuum” — meaning:

Fascia is not a collection of separate sheets but a continuous organ system with regional specializations.

This reclassification also aligns with the concept of fascia as an organ of communication, integrating:
• mechanical sensing
• proprioception
• nociception
• autonomic regulation
• fluid dynamics
• force transmission
• inflammatory responses

Relevance to Equine Science, Massage & Bodywork

For horses, this classification is extremely helpful because:
• The visceral fascia explains referred pain patterns (as in ulcer-induced movement changes).
• The deep fascial system explains global force transmission and compensatory patterns.
• The neural fascia helps explain vagal tone, autonomic responses, and tension patterns.
• The superficial fascia relates heavily to sensation, bracing, coat changes, edema, and swelling.

This is why equine movement, posture, and pain can reflect problems far from the apparent site.

https://koperequine.com/there-are-4-categories-of-fascia/

11/11/2025

https://www.instagram.com/p/DQhaoIyjSog/?igsh=NncxMHloYTltM3Qw