研究生: |
吳顥照 Hao-Chao Wu |
---|---|
論文名稱: |
間歇跑步測驗評量速度耐力模式之有氧與無氧參數的效度分析 A Validity Analysis of Aerobic and Anaerobic Parameters in Velocity–Endurance Model by Intermittent Running Test |
指導教授: |
林正常
Lin, Jung-Charng 王順正 Wang, Soun-Cheng |
學位類別: |
碩士 Master |
系所名稱: |
體育學系 Department of Physical Education |
論文出版年: | 2003 |
畢業學年度: | 91 |
語文別: | 日文 |
論文頁數: | 84 |
中文關鍵詞: | 臨界速度測驗 、間歇跑步測驗 、速度耐力模式 、有氧參數 、無氧參數 |
英文關鍵詞: | critical velocity test, intermittent running test, velocity–endurance model, aerobic parameter, anaerobic parameter |
論文種類: | 學術論文 |
相關次數: | 點閱:207 下載:14 |
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目的:研究目的在探討間歇跑步測驗評量「速度耐力模式」之三個有氧與無氧參數(臨界速度,CV;無氧跑步能力,ARC;最大瞬間速度,Vmax)的效度。方法:研究以20名男性大學生為受試對象,受試者的平均年齡為22.4±1.66歲、平均身高為170.4±5.63公分與平均體重為66.9±11.95公斤。實驗設計是以在原地跑步機分別進行臨界速度測驗與間歇跑步測驗,利用三參數的「速度耐力模式」概念,推算出臨界測驗與間歇測驗各自的三個參數,包括CV、ARC與Vmax。接著,比較臨界測驗與間歇測驗各自的CV與最大攝氧量、心跳閾值和換氣閾值之相關;並且探討臨界測驗與間歇測驗各自的ARC和Vmax與短距離最大努力跑步測驗、Margaria-Kalamen動力測驗、Wingate 動力測驗以及MAOD測驗之相關;藉此確認臨界速度(CV)、無氧跑步能力(ARC)和最大瞬間速度(Vmax)的效度。結果:(1)臨界CV為2.1±0.48 m/sec和間歇CV為2.0±0.55 m/sec,這個變項達到顯著相關(r=0.911),差異檢定(t檢定)沒有達到顯著差異存在(p>.05);(2)臨界ARC為582.1±194.04 m和間歇ARC為342.1±166.36 m,以及臨界Vmax為5.9±2.38 m/sec和間歇Vmax為9.9±3.63 m/sec,兩個變項都沒有達到顯著相關,差異檢定(t檢定)達到顯著差異存在(p<.05);(3)有氧參數─CV的效度分析方面,間歇CV和臨界CV兩者不但顯著相關、沒有差異,與各項有氧運動能力呈現顯著相關,具有評量有氧運動能力的效度;(4)無氧參數─ARC和Vmax的效度分析方面,間歇和臨界的ARC 和 Vmax,兩個變項都未達相關,只有部份結果與無氧運動能力呈現相關,不能完全有效評量無氧運動能力。結論:間歇跑步測驗在有氧參數─CV的推算方面,確實可以取代臨界速度測驗;然而,間歇跑步測驗在無氧參數─ARC和Vmax方面,則不能完全取代臨界速度測驗。
Purpose: This study was to evaluate the validity of three aerobic and anaerobic parameters (critical velocity, CV; anaerobic running capacity, ARC; maximal instantaneous velocity, Vmax) in velocity–endurance model by intermittent running test. Methods: Subjects were 20 male college students (22.4±1.66 yrs, 170.4±5.63 cm, 66.9±11.95 kg). In this experiment, critical velocity test and intermittent running test were evaluated on treadmill and the data of three parameters by velocity–endurance model were calculated. Then, the correlation of CV from critical velocity test and intermittent running test with those from maximal oxygen intake (VO2max), heart hate threshold (HRT), and ventilatory anaerobic threshold (VAT) were compared. Furthermore, the correlation of ARC and Vmax from critical velocity test and intermittent running test with those from short-distance running test, Margaria-Kalamen power test, Wingate power test, and maximal accumulated oxygen deficit test were assessed. Results: The results were: 1) The CV from critical velocity test (2.1±0.48 m/sec) and intermittent running test (2.0±0.55 m/sec) was significantly correlated (r=0.911) and not significantly different (p>.05). 2) The ARC from critical velocity test (582.1±194.04 m) and intermittent running test (342.1±166.36 m) as well as those of the Vmax from critical velocity test (5.9±2.38 m/sec) and intermittent running test (9.9±3.63 m/sec) were not significantly correlated (p<.05). 3) In aerobic parameter- CV validity analysis, the CV from critical velocity test and intermittent running test were significantly correlative with aerobic exercise ability and could evaluate this ability efficiently. 4) In anaerobic parameters- ARC and Vmax validity analysis, the ARC and Vmax from critical velocity test and intermittent running test were only parts of the data correlative with anaerobic exercise ability and could not evaluate it efficiently. Conclusion: In this study, intermittent running test is only valid for estimating aerobic- CV, but not for anaerobic- ARC and Vmax.
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