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Thursday, June 25th, 2009<br />

High pain). Areas affected by physiotherapeutic treatments were excluded from the sample. Rough reports and pictures from each player<br />

were daily reported to the physiotherapist <strong>of</strong> the team.<br />

Results: ANOVA results point out a direct relationship between the declared level <strong>of</strong> nuisance <strong>of</strong> the area and its temperature both in<br />

ankles (F[AR] = 9.20; p < 0.05 and F[AL] = 3.99; p < 0.05) and knees (F[PKR] = 5.34; p < 0.05 and F[PKL] = 9.14; p < 0.05). There were also<br />

found significant differences for temperatures (aprox. 0.5 degrees) between the painful and non-painful limb on the knee (F[AK] = 14.36; p<br />

< 0.05) and hamstrings (F[H] = 3.9; p < 0.05) results. None serious injury has been produced among the players during the 2-months <strong>of</strong><br />

the study.<br />

Discussion: We concluded that infrared thermography is a valid, fast and convenient method <strong>of</strong> preventing soccer injuries. We suggest<br />

that this technique could also be applied to monitor and diagnose injuries and to quantify training loads in <strong>sport</strong>s<br />

References<br />

1. Barnes, R.B. (1967). Determination <strong>of</strong> body temperature by infrared emission. J. Appl. Physiol. 22:1143-1146.<br />

2. Garagiola, U. & Giani, E. (1990). Use <strong>of</strong> telethermography in the management <strong>of</strong> <strong>sport</strong>s injuries. Sports Medicine. 10(4): 267-272.<br />

3. Pichot, C. (2001). Use <strong>of</strong> thermography in chronic lumbar pain. Rev. Soc. Esp. Dolor. 8: 43-47.<br />

4. Lee, M., y Cohen, J. (2005). Rehabilitation Medicine and Thermography. United States: Impress Publications (available in<br />

http://www.lulu.com/content/1690479).<br />

CARDIAC ADAPTATIONS WITH 6 WEEKS OF EITHER SPRINT INTERVAL OR ENDURANCE EXERCISE TRAINING IN<br />

HEALTHY YOUNG HUMANS<br />

RAKOBOWCHUK, M., PROUDFOOT, N., TANGUAY, S., MACDONALD, M.J.<br />

1. UNIVERSITY OF LEEDS, 2. MCMASTER UNIVERSITY<br />

Introduction: A recent study showed improved peripheral vascular adaptations to sprint interval training (SIT) that are similar to those <strong>of</strong><br />

traditional endurance training (ET) (Rakobowchuk et al., 2008). However, central artery stiffness was not improved with either training<br />

paradigm, suggesting limited central vascular or cardiac adaptations. The current study evaluated whether 6-weeks <strong>of</strong> SIT alters left<br />

ventricular (LV) morphology compared with traditional ET.<br />

Methods: Twenty healthy untrained subjects were randomly assigned to a SIT (n=10, 24 ± 1.0 yrs [mean ± SE]) or ET group (n=10, 23 ± 0.7<br />

yrs). The SIT group completed 4-6 x 30s “all-out” efforts (repeated Wingate Tests) separated by 4 minutes <strong>of</strong> recovery, 3 times/wk. The ET<br />

group completed 40-60 minutes <strong>of</strong> cycling at 65% <strong>of</strong> their maximal oxygen uptake, 5 d/wk. B-mode echocardiography (GE System FiVe,<br />

2.5 MHz probe) was used to quantify LV morphology, using established guidelines, in all participants on 2 separate days before training<br />

and at 48 after the completion <strong>of</strong> training.<br />

Results: Training improved maximal oxygen uptake to a similar extent in both groups (ET PRE: 40.5±6.6 ml/kg/min, POST: 42.4±6.6<br />

ml/kg/min; SIT PRE: 40.7±6.1 ml/kg/min, POST: 45.0±5.2 ml/kg/min, p

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