R. GURSOY ET AL.
Copyright © 2012 SciRe s . 171
found insignificant difference in the accelerating ability be-
tween elite and non-elite female ice hockey players. Bracko et
al., (1998) also found that non-age matched male high school
players were similar in acceleration, Bracko and Fellingham
(2001) reported that it appears that the accelerating ability did
not differentiated significantly for younger and older elite and
non-elite females, and young non-elite male hockey players.
But male ice hockey players were faster than the females on the
speed test. Dane and Erzurumluoglu (2003) reported that the
eye-hand reaction time was of longer duration for women than
men. But we didn’t find difference between male and female
ice hockey players training experience, left and right hand reac-
tion time in this study. According to Montegomerty (1998)
anaerobic fitness is an important performance variable for
hockey players, and information about on-ice fitness can be an
important criteria for a coach to understand a player’s ability.
Bar-Or (1987) suggests the accuracy of “field tests” maybe
questioned because of the skill level required to perform well.
Nevertheless, skating ability, and testing skating ability are
important aspects of hockey performance (Hansen & Reed,
1979). Bracko (2001) found that 10 - 11, 12 - 13, 14 - 15 years
male ice hockey players have higher anaerobic power than
female. Sport scientists are concerned with eliminating the skill
factor in exercise testing to produce objective results, whereas
coaches are interested in a player’s sport-specific fitness and
game-performance skating ability (Watson & Sargeant, 1986).
Future research is needed to examine the relationship between
training and fitness levels, to compare on-ice performance tests
with off-ice fitness test results, and to continue to examine po-
tential positional differences in fitness parameters in male and
female ice hockey players.
As a result, knowing the physical profile of male and female
ice hockey players can enable athletes, coaches, athletic trainers,
scouts, and strength and conditioning specialists to establish
athlete physical fitness expectations, design science-based train-
ing programs that will improve performance, and address any
weaknesses in physical fitness identified through testing. Also
the current findings can be used to identify physical charac-
teristics and biomotor abilities for male and female ice hockey
players (average for man 1.82 ± 0.81, for women 1.20 ± 0.56)
and regular measurement of physical and functional character-
istics of athletes is an important method used in comparing
athletes from two different teams as well as in evaluating the
efficiency of their training programs.
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