Equine hoof slip distance during trot at training speed: Comparison between kinematic and accelerometric measurement techniques

Holden-Douilly, Laurène; Pourcelot, Philippe; Desquilbet, Loïc; Falala, Sylvain; Crevier-Denoix, Nathalie; Château, Henry

doi:10.1016/j.tvjl.2013.02.004

Cited by 18 publications

(19 citation statements)

References 15 publications

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“…It is interesting to note that there was a significant interaction between surface and gait in the craniocaudal power parameters but not in those of the proximodistal plane. This could indicate that the craniocaudal plane is more sensitive to changes in surface and gait, potentially because the time taken for the hoof to come to a stop is influenced by both speed and surface properties [24,25]. It is relatively intuitive to consider differences in foot-surface impacts between firm and soft surfaces but we have demonstrated a significant difference between three surfaces perceived to be firm, (especially during a dry summer).…”

Section: Foot-impact Deceleration -Surfacementioning

confidence: 74%

Section: Discussionmentioning

confidence: 99%

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Does ‘hacking’ surface type affect equine forelimb foot placement, movement symmetry or hoof impact deceleration during ridden walk and trot exercise?

Barstow

Bailey

Campbell

et al. 2018

Equine Veterinary Journal

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Section: Foot-impact Deceleration -Surfacementioning

confidence: 74%

Section: Discussionmentioning

confidence: 99%

Does ‘hacking’ surface type affect equine forelimb foot placement, movement symmetry or hoof impact deceleration during ridden walk and trot exercise?

Barstow

Bailey

Campbell

et al. 2018

Equine Veterinary Journal

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“…In addition to slip on impact, hooves may slip during foot off as they attempt to generate propulsion . Slip is often considered to be a problem contributing to injury and a risk when assessing lameness on a hard surface; however, some degree of slip is considered essential to aid in the dissipation of impact loads .…”

Section: Damping Firmness (Hardness) and Gripmentioning

confidence: 99%

The foot–surface interaction and its impact on musculoskeletal adaptation and injury risk in the horse

Parkes

Witte

2015

Equine Veterinary Journal

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The equine limb has evolved for efficient locomotion and high-speed performance, with adaptations of bone, tendon and muscle. However, the system lacks the ability seen in some species to dynamically adapt to different circumstances. The mechanical interaction of the limb and the ground is influenced by internal and external factors including fore-hind mass distribution, lead limb, moving on a curve, shoeing and surface properties. It is unclear which of the components of limb loading have the largest effect on injury and performance but peak load, impact and vibration all play a role. Factors related to the foot-ground interface that limit performance are poorly understood. Peak performance varies vastly between disciplines but at high speeds such as racing and polo, force and grip are key limits to performance.

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“…The gait study has not been limited to humans as there are many applications for analysis of animal gaits. Some examples are quantification of hoof slip distances at training trot [110], detection of unilateral hind limb lameness and foot pathologies in dairy cows [118] and measurement of temporal gait characteristics in dogs [128].…”

Section: B Gait Analysis For Clinical Applicationsmentioning

confidence: 99%

A Review on Accelerometry-Based Gait Analysis and Emerging Clinical Applications

Jarchi

Pope

Lee

et al. 2018

IEEE Rev. Biomed. Eng.

170

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Gait analysis continues to be an important technique for many clinical applications to diagnose and monitor certain diseases. Many mental and physical abnormalities cause measurable differences in a person's gait. Gait analysis has applications in sport, computer games, physical rehabilitation, clinical assessment, surveillance, human recognition, modeling, and many other fields. There are established methods using various sensors for gait analysis, of which accelerometers are one of the most often employed. Accelerometer sensors are generally more user friendly and less invasive. In this paper, we review research regarding accelerometer sensors used for gait analysis with particular focus on clinical applications. We provide a brief introduction to accelerometer theory followed by other popular sensing technologies. Commonly used gait phases and parameters are enumerated. The details of selecting the papers for review are provided. We also review several gait analysis software. Then we provide an extensive report of accelerometry-based gait analysis systems and applications, with additional emphasis on trunk accelerometry. We conclude this review with future research directions.

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Equine hoof slip distance during trot at training speed: Comparison between kinematic and accelerometric measurement techniques

Cited by 18 publications

References 15 publications

Does ‘hacking’ surface type affect equine forelimb foot placement, movement symmetry or hoof impact deceleration during ridden walk and trot exercise?

Does ‘hacking’ surface type affect equine forelimb foot placement, movement symmetry or hoof impact deceleration during ridden walk and trot exercise?

The foot–surface interaction and its impact on musculoskeletal adaptation and injury risk in the horse

A Review on Accelerometry-Based Gait Analysis and Emerging Clinical Applications

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