Publications by authors named "Kate Horan"

Article Synopsis
  • Horseshoes significantly affect the safety and performance of racehorses by providing necessary traction while managing hoof slip, which can help reduce stress and potential injuries.
  • The study measured hoof slip duration in retired Thoroughbreds galloping on turf and artificial tracks with different shoeing setups using high-speed video, analyzing data from 389 hoof interactions.
  • Findings revealed that slip duration varied among shoeing conditions and surfaces, with the leading hindlimb typically having the shortest slip duration, while turf generally resulted in longer slip durations for most limbs compared to artificial track surfaces.
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Injuries to racehorses and their jockeys are not limited to the racetrack and high-speed work. To optimise racehorse-jockey dyads' health, well-being, and safety, it is important to understand their kinematics under the various exercise conditions they are exposed to. This includes trot work on roads, turf and artificial surfaces when accessing gallop tracks and warming up.

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The athletic performance and safety of racehorses is influenced by hoof−surface interactions. This intervention study assessed the effect of eight horseshoe−surface combinations on hoof acceleration patterns at impact and foot-off in 13 galloping Thoroughbred racehorses retired from racing. Aluminium, barefoot, GluShu (aluminium−rubber composite) and steel shoeing conditions were trialled on turf and artificial (Martin Collins Activ-Track) surfaces.

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Horseshoes influence how horses' hooves interact with different ground surfaces, during the impact, loading and push-off phases of a stride cycle. Consequently, they impact on the biomechanics of horses' proximal limb segments and upper body. By implication, different shoe and surface combinations could drive changes in the magnitude and stability of movement patterns in horse-jockey dyads.

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Understanding the effect of horseshoe-surface combinations on hoof kinematics at gallop is relevant for optimising performance and minimising injury in racehorse-jockey dyads. This intervention study assessed hoof breakover duration in Thoroughbred ex-racehorses from the British Racing School galloping on turf and artificial tracks in four shoeing conditions: aluminium, barefoot, aluminium-rubber composite (GluShu) and steel. Shoe-surface combinations were tested in a randomized order and horse-jockey pairings ( = 14) remained constant.

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Article Synopsis
  • Riding racehorses involves significant risk, and safety is heavily influenced by the type of horseshoes used, as they affect traction and performance.
  • A study surveyed jockeys about their opinions on four different shoeing conditions—aluminum, steel, GluShu, and barefoot—across turf and artificial surfaces, focusing on various performance metrics.
  • Results showed a clear preference for aluminum and steel shoes, rated highly for support and grip, while barefoot shoes were less favored, especially on turf, where they were sometimes considered unsafe.
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Tungsten road nails are commonly used by farriers to increase grip between the hoof and the ground surface. There is limited evidence relating the use of road nails to the fundamental mechanics of movement. Grip is important for efficient deceleration on landing and subsequent propulsion, but this must be balanced against an amount of slip to divide the landing force into horizontal as well as vertical subcomponents.

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Over millions of years, the oxidation of organic carbon contained within sedimentary rocks is one of the main sources of carbon dioxide to the atmosphere, yet the controls on this emission remain poorly constrained. We use rhenium to track the oxidation of rock-bound organic carbon in the mountain watersheds of New Zealand, where high rates of physical erosion expose rocks to chemical weathering. Oxidative weathering fluxes are two to three times higher in watersheds dominated by valley glaciers and exposed to frost shattering processes, compared to those with less glacial cover; a feature that we also observe in mountain watersheds globally.

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