Holistic Horse Physiotherapy -Fizjoterapeuta Koni

Holistic Horse Physiotherapy -Fizjoterapeuta Koni Dyplomowany fizjoterapeuta koni. Nauczyciel jazdy konnej do klasy P w skokach i ujeżdżeniu. Praktyk w dziedzinie końskiego behawioru.

Wieloletni profesjonalny show / home groom w 5* sportowych i hodowlanych stajniach w Niemczech i Szwajcarii.

Kolejna dawka wiedzy. Aktualności z dziedziny końskiej parazytologii idealnie na nadchodzącą wiosnę.
27/02/2026

Kolejna dawka wiedzy. Aktualności z dziedziny końskiej parazytologii idealnie na nadchodzącą wiosnę.

Kontrola fizjoterapeutyczna jest bardzo ważna również dla koni użytkowanych zaprzęgowo.Bardzo ważne jest min dopasowanie...
26/02/2026

Kontrola fizjoterapeutyczna jest bardzo ważna również dla koni użytkowanych zaprzęgowo.
Bardzo ważne jest min dopasowanie sprzętu ( podobnie jak w przypadku jazdy wierzchem)
Inne obszary ciała zaangażowane w proces pracy zaprzęgowej, lub niewłaściwe dopasowanie uprzęży czy ogłowia zaprzęgowego, oraz trening nieadekwatny do aktualnej kondycji i wieku koni, budują napięcia i kompensacje w ciele.

Regularna praca teamu- dietetyk-powożący- weterynarz- kowal- fizjoterapeuta, pomaga utrzymać konie w doskonałej formie fizycznej i psychicznej.

Pod moją opieką znajdują się wspaniałe konie zaprzęgowe
w SO Książ.

zdj.niezawodna Monika Szostek

Po raz kolejny potwierdzone!
17/02/2026

Po raz kolejny potwierdzone!

Strap Tighter, Move Shorter: Noseband Pressure and Stride Reduction

Noseband tightness has received increasing attention within equitation science, but there is still limited research examining how it affects horse behaviour or performance. This study aimed to measure peak pressure under the noseband in live horses at three different levels of tightness and to assess how noseband tightness influences limb and back movement. 🐴📊

Eight horses were tested, with noseband tightness set using the International Society for Equitation Science (ISES) taper gauge at three standardised settings: two fingers, one finger, and zero fingers. Peak pressure under the noseband was measured using pressure sensors, and motion capture technology was used to analyse limb and back kinematics. 🎥📏

Peak pressure increased as the noseband was tightened, with pressures at the one-finger and zero-finger settings showing increases of 54% and 338%, respectively, compared to the two-finger setting. As noseband tightness increased, stride length decreased, showing a significant negative relationship. On average, stride length decreased by 6.2% at the one-finger setting and by 11.1% at the zero-finger setting when compared to the two-finger setting. 📉

In conclusion, tightening the noseband increased peak pressure and had a negative effect on horses’ movement, particularly stride length.

The study had several limitations, including analysing movement only from the side, which captured forward–backward limb motion but not side-to-side or rotational movement, as well as unavoidable measurement error from skin movement and differences between horses in training level.

You can read this paper here: https://www.sciencedirect.com/science/article/pii/S0737080625003120

13/02/2026

❤️

Fascia❤️
11/02/2026

Fascia❤️

The image shows the cervical region of a foal, after removal of the skin, exposing the superficial fascia (subcutaneous tissue).

The skin and superficial fascia are highly innervated tissues that provide continuous sensory input to the nervous system. They play a central role in how the body perceives external contact, mechanical deformation, and changes in the local tissue environment.

Cutaneous sensory receptors within the skin include Meissner’s corpuscles, Pacinian corpuscles, Merkel cells, Ruffini endings, and free nerve endings. Together, these receptors encode information related to light touch, vibration, pressure, stretch, temperature, and nociception. This sensory information contributes to both local tissue regulation and broader postural and motor responses. In addition to sensory afferents, the skin also receives sympathetic autonomic innervation.

The skin and superficial fascia are innervated by cutaneous nerves that originate from the dorsal and ventral rami of spinal nerves. These nerves pass through the deep fascia, enter, and branch within the superficial fascia before continuing towards the dermis and epidermis. Superficial blood vessels often accompany these nerve branches.

The image shows this amazing neural network - of course, it is only the macroscopic, the microscopic world must be amazing!

A bit of knowledge👍🏻
31/01/2026

A bit of knowledge👍🏻

The Pons: A Quiet Regulator of Posture, Load, and Movement in the Horse and How Gentle Massage Therapy Can Positively Affect it

When we think about movement, training, or performance in horses, attention is often placed on muscles, joints, and conditioning. Yet much of how a horse organizes posture, accepts load, and transitions between effort and ease is governed deeper in the nervous system—within the brainstem.

One key structure in this system is the pons.

The pons is a part of the brainstem located between the midbrain and the medulla. Present in all mammals, including horses, it functions as a major integration and relay center between the brain, cerebellum, and spinal cord. Its role is not conscious control, but regulation—of tone, coordination, breathing rhythms, arousal, and readiness for movement.

Because horses rely heavily on subcortical control to manage posture and gravity across four limbs, the pons plays a particularly important role in how their bodies feel and function.

What the pons does

The pons contributes to several essential processes that shape movement quality:

Postural tone and extension

Through its influence on brainstem motor pathways—especially the reticulospinal system—the pons helps regulate baseline extensor (anti-gravity) tone. This tone allows the horse to stand, bear weight, and stabilize the body under load without conscious effort.

When this system is well regulated, extensors provide support without rigidity. When overactivated, posture may become braced or heavy. When under-supported, posture may feel collapsed or unstable.

Coordination and timing

The pons serves as a communication hub between higher brain centers and the cerebellum, contributing to rhythm, timing, and smooth coordination rather than raw force production.

Breathing and state regulation

The pons plays a role in shaping breathing patterns and in transitions between states such as alertness, rest, and readiness. Breathing, posture, and muscle tone are closely linked at the brainstem level.

Sensory integration

The pons receives and integrates large amounts of sensory information—particularly from the face, head, neck, and upper cervical region. This sensory input helps determine how much tone and support the body believes it needs at any given moment.

The pons and forelimb load

The influence of the pons is especially evident in the forelimbs.

In horses, approximately 60–65% of body weight is carried through the forelimbs. These limbs function primarily in support and braking, making them highly dependent on brainstem-regulated extensor tone rather than voluntary motor control.

When pons-mediated tone is elevated, the forelimbs may appear rigid, heavy, or braced, even in the absence of pain or structural limitation. Load is often resisted rather than absorbed, and movement through the shoulder and thoracic sling can become restricted.

When regulation improves, forelimb extension becomes more elastic and responsive. Load is accepted and redirected rather than held, allowing smoother landings, improved coordination through the shoulder, and more efficient weight transfer through the body.

This helps explain why changes in posture and movement are often seen first in the front end following work that does not directly target the limbs.

Why horses can look sound but move poorly

Much of what is described as stiffness, resistance, or heaviness is not a failure of strength or training, but a state of nervous system protection.

A horse may be:
• sound yet effortful
• strong yet rigid
• willing yet guarded

In these cases, the nervous system—via brainstem structures like the pons—is increasing tone to ensure safety under load. This process occurs below conscious control. The horse is not choosing to brace; the system is organizing itself around perceived demand and uncertainty.

Fascial touch and brainstem regulation

The pons is particularly responsive to sensory input, not instruction or force. This is where gentle fascial touch becomes relevant.

Fascia is richly innervated with mechanoreceptors that provide continuous feedback to the nervous system. When touch is slow, non-threatening, and well regulated, it can influence how sensory information is processed at the brainstem level.

Why the face and neck matter

The face, jaw, poll, and upper cervical region are densely connected to cranial nerves and brainstem nuclei associated with the pons.

Gentle fascial work in these regions can:
• Clarify sensory input entering the brainstem
• Reduce excessive protective signaling
• Support a shift from high-alert tone to organized support
• Influence breathing patterns and overall state

This does not “stimulate” the pons in a forceful sense. Instead, it modulates the sensory environment the pons uses to determine how much tone and readiness are required.

Because the forelimbs are the primary load-bearing limbs, they are often the first place changes appear when brainstem tone regulation improves.

From regulation to movement

When brainstem-mediated tone becomes more appropriate:
• Extensor support becomes elastic rather than rigid
• Load is accepted instead of resisted
• Movement feels lighter and more coordinated
• Transitions between gaits and tasks improve

These changes are frequently global rather than local. A horse may move differently through the entire body even though touch was applied only to the face or neck. This reflects the integrative nature of the nervous and fascial systems, not a localized mechanical effect.

An important distinction

Fascial release and gentle touch do not create posture or movement. They do not impose change on the horse.

Instead, they help create conditions in which the nervous system no longer needs to rely on excessive tone to feel safe. When unnecessary guarding decreases, organization, elasticity, and efficiency emerge naturally.

This is why changes in posture, forelimb use, or stride quality often appear before any change in strength or conditioning. Regulation precedes performance.

Caring for the horse as a regulated system

Understanding the role of the pons reframes how we think about care. The horse’s body is not simply a mechanical structure to be adjusted, but a regulated system constantly balancing support, safety, and adaptability.

Gentle fascial touch—particularly when applied with attention to the face, neck, and overall state—can support this balance by improving sensory clarity and reducing unnecessary protective tone.

In doing so, it supports not just relaxation, but organized readiness: the kind of posture and movement that is stable, elastic, and sustainable over time.

https://koperequine.com/articles/

I love this view.
28/01/2026

I love this view.

This image offers a slightly different view of the latissimus dorsi muscle.
Especially in the first image, where the trapezius thoracis is mostly removed.
Observe the silhouette of the withers and shoulderblade - does it look like...withers with atrophy of the trapezius muscle?
The second picture provides a side view to remind us how much of the caudal scapular edge is covered by the muscle's aponeuroses and deep fascia.

My Patreon is a platform where I can share more detailed information, videos, ideas and studies (and not be threatened with the page being closed).
https://www.patreon.com/equineanatomyinlayers

Kilka słów na temat parskania.
04/01/2026

Kilka słów na temat parskania.

PARSKANIE A ZADOWOLENIE
🍀 Parskanie u koni jest wskaźnikiem pozytywnych emocji. Jest to dźwięk produkowany przez nozdrza przy wydechu i może też pełnić funkcję higieniczną. Niemniej parskanie występuje niezależnie od jakości powietrza (i np. częściej na pastwisku niż w stajni).

🍀 Obserwowano 48 koni żyjących w dwóch "ekstremalnych" warunkach: jedne w boksach na diecie z małą ilością objętościowych i drugie w grupach na pastwisku [1]. Wykazano, że:

🐎 1) parskanie wiąże się z sytuacjami pozytywnymi (np karmienie na pastwisku) i pozytywnym stanem wewnętrznym (uszy do przodu lub na bok),

🐎 2) konie ze szkółek jeździeckich będąc na pastwisku parskały dwa razy więcej niż w stajni

🐎 3) konie żyjące w warunkach zbliżonych do naturalnych parskały znacząco więcej niż stajenne w podobnych kontekstach

🐎 4) częstotliwość parskania była odwrotnie proporcjonalna do wskaźników chronicznego stresu: mniej stresu = więcej parskania

🍀 Parskanie może wskazywać fazy pracy i działania, które podobają się koniom. Najpierw zbadano częstotliwość parskania u 127 koni w 16 szkółkach. Bardzo różniła się między ośrodkami, co może być wynikiem różnych technik jazdy. Następnie u 37 par obserwowano pozycję szyi konia i rąk jeźdźca.

🐎 Okazało się, że parskanie jest szczególnie związane z fazami gdy technika jeźdźca, np długie i luźne wodze, niskie ustawienie rąk, jest bardziej komfortowa dla konia, zwłaszcza w stępie. W wyższych chodach związek parskania z oznakami komfortu jest mniej jednoznaczny.[2]

🍀 Sama akustyczna struktura parsknięcia może wskazywać na stan emocjonalny. Parsknięcia mogą być 2 typów: pulsujące (wibrujące) i niepulsujące. Oba występowały głównie w pozytywnych kontekstach, ale zwłaszcza pulsujące były szczególnie związane z mocno docenianymi sytuacjami (na pastwisku i przy uszach do przodu).[3]

Tekst i zdjęcie: Joanna Smulska

Źródła:

[1] PLoS One. 2018 Jul 11;13(7) An unexpected acoustic indicator of positive emotions in horses, M Stomp, M Leroux, M Cellier, S Henry, A Lemasson, M Hausberger

[2] Behav Processes. 2020 Mar; Could snorts inform us on how horses perceive riding?, M Stomp, A Masson, S Henry, M Hausberger, C Lesimple

[3] Naturwissenschaften. 2018 Sep 12;105(9-10):57. Snort acoustic structure codes for positive emotions in horses, M Stomp, M Leroux, M Cellier, S Henry, M Hausberger, A Lemasson

31/12/2025

Thank you for this year!

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