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Hopegood, L; Sander, L; Ellis, AD (2013)
Publisher: Wageningen Academic Publishers
Languages: English
Types: Article

Classified by OpenAIRE into

mesheuropmc: otorhinolaryngologic diseases
Sport horses frequently injure tendons of the lower limb. Tendon boots are commonly applied for structural support and trauma prevention during competitions. However these boots may increase heat stress in the area. Two separate studies were carried out with the aim to improve understanding of the effect of boots on heat around the tendon area. Study 1 measured heat emitted from two types of boots (traditional and perforated, cross over design) covering the superficial digital flexor tendon (SDFT) in 4 horses during a set ridden and lunged exercise test. Study 2, a Field test, measured the effect of boot style (traditional, perforated and open fronted) on skin surface temperature in 131 horses, after completing a cross country event test (either a BE 100 three day event or a CCI* - two day short format event). The Raytek Raynger ST20 (infrared thermometer) was used to measure temperatures during both studies. The MobIR®M4 Thermal Imager was also used in Study 1 to compare measurement methods. A significant correlation was found between both measurement types (p<0.001; R2=0.94). Boots designed with perforations demonstrated greater heat emissions than traditional (non-perforated) boots (+ 3.5°C, p<0.01). In Study 2 mean tendon surface temperature for perforated type boots (28.0°C) was significantly lower than for traditional boots (32.3°C) and for open fronted tendon boots (31.1°C) (P<0.001). As this was an applied field study, additional environmental factors, such as speed and fitness level of horses, may have influenced results.
  • The results below are discovered through our pilot algorithms. Let us know how we are doing!

    • Bardy, E., Mollendorf, J. and Pendergast, D. 2006. A comparison of the thermal resistance of a foam neoprene wetsuit to a wetsuit fabricated from aerogel-syntactic foam hybrid insulation Journal of Physics D: Applied Physics 39: 18, 4068-4076 (9).
    • Birch, H.L., Wilson, A.M. and Goodship, A.E. 1997. The effect of exercise induced hyperthermia on tendon cell survival. The Journal of Experimental Biology. 200. 1703-1708.
    • Birch H.L., Smith T.J., Poulton C., Peiffer D., Goodship A.E. 2002. Do regional variations in flexor tendons predispose to site-specific injuries? Equine Veterinary Journal. Supplement 34, 288-292.
    • Burrows, S., Patterson-Kane, J.C., Fleck, R.A., Becker, D.L. 2008. Alterations in gap junction communication in tenocyte monolayers following an episode of hyperthermia.
    • Transactions of the Orthopaedic Research Society. 33: 0323.
    • Dowling, B.A., Dart, A.J., Hodgson, D.R., Rose, R.J. and Walsh, W.R. 2002. Recombinant equine growth hormone does not affect the in vitro biomechanical properties of equine superficial digital flexor tendons. Veterinary Surgery. 31, 325-330.
    • Eddy, A.L., van Hoogmoed, L.M. and Snyder, J.R., 2001. The role of thermography in the management of equine lameness. The Veterinary Journal. 162. 172-181.
    • Ely, E.R., Avella, C.S., Price, J.S., Smith, R.K.W., Wood, J.L.N. and Verheyen, K.L.P. 2009.
    • Descriptive epidemiology of fracture, tendon and suspensory ligament injuries in National Hunt racehorses in training. Equine Veterinary Journal. 41:4, 372-378.
    • Holden, G., Kricheldorf, H. R. and Quirk, R. P. 2000. Thermoplastic Elastomers, Hanser 3rd edition.
    • Liduin, S., Meershoek, L.S. and Lanovaz, J.L. 2001. Sensitivity analysis and application to trotting of a non-invasive method to calculate flexor tendon forces in the equine forelimb.
    • American Journal of Veterinary Research. 62. 1594-1598.
    • Malvankar, S. and Khan, W.S. 2011. Evolution of the Achilles tendon: the athlete's Achilles heel? Foot (Edinburgh). 21. 193-197.
    • Murphy, J. 2008 Boots on Horses: Limb Protection or Hyperflexion Training Aids in the Showjumping Horse. Journal of Applied Animal Welfare Science. 11:3, 223-227.
    • Murray, R. C., Dyson, S. J., Tranquille, C. and Adams, V. 2006. Association of type of sport and performance level with anatomical site of orthopaedic injury diagnosis, Equine Veterinary Journal, 38, 411-416.
    • Patterson-Kane, J.C. and Firth, E.C. 2009. The pathobiology of exercise-induced superficial digital flexor tendon injury in Thoroughbred racehorses, The Veterinary Journal. 181:2, 79- 89.
    • Purohit, R.C. and McCoy, M.D. 1980. Thermography in the diagnosis of inflammatory processes in the horse. American Journal of Veterinary Research. 41, 1167-1174.
    • Rouabah F., Fois M., Ibos L., Boudenne A., Dadache D., Haddaoui N. and Ausset P. 2007.
    • Mechanical and thermal properties of polycarbonate. II. Influence of titanium dioxide content and quenching on pigmented polycarbonate, Journal of Applied Polymer Science. 106, 2710 - 2717.
    • Singer, E.R., Barnes, J., Saxby, F. and Murray, J.K. 2008. Injuries in the event horse: training versus competition. Veterinary Journal. 175, 76-81.
    • Smith R.K.W. 2004. Equine tendon adaptation to training: which type of exercise does what? Conference of Equine Sports Medicine and Science, CESMAS 2004, Oslo.
    • 2001. Exercise- induced Superficial Digital Flexor Tendon Hyperthermia and the effect of cooling sheets on thoroughbreds, Journal of Equine Science. 12. 85-91.
    • Yang, W. and Yang, P.P.T. 1992 Literature survey on biomedical applications of thermography. Bio-Medical Materials and Engineering. 2. 7-18.
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