题名

走路臨界速度評量生理穩定狀態之研究

并列篇名

A Study of Physiological Steady State by Critical Velocity of Walking

DOI

10.5297/ser.200306_5(1).0023

作者

王順正(Soun-Cheng Wang);吳顥照(Hao-Chao Wu);林玉瓊(Yu-Chiung Lin);吳忠芳(Chung-Fung Wu)

关键词

走路 ; 臨界速度 ; 三參數模式 ; walking ; critical velocity ; three-parameter model

期刊名称

大專體育學刊

卷期/出版年月

5卷1期(2003 / 06 / 30)

页次

259 - 267

内容语文

繁體中文

中文摘要

本研究的目的,在透過三參數的非線性臨界速度(critical Velocity , CV)數學模式,進行走路運動CV強度的判定,並且進一步評量CV強度走路運動時的各項生理反應的變化情形,包括心跳率、攝氧量、二氧化碳產生量、換氣量以及自覺量表等人體生理反應,以便能夠確認走路CV的有效性。本研究以經常參與運動的男性大學生20名為受試對象,年齡21.55±1.67 歲、身高170.7±3.93公分、體重61.80±9.57公斤。所有受試者依平衡次序的方式,接受四次實驗室跑步機上的最大持續走路時間測驗(2.0-3.2m/sec),以確定受試者的走路CV強度。然後,受試者於實驗室內接受走路CV強度的20分鐘運動測驗。研究結果發現,走路CV強度下的運動過程中,攝氧量並不會隨著運動時間的增加而提高;但是,心跳率、換氣量、二氧化碳產生量與自覺量表等人體生理反應,則出現無法達成穩定狀態的情形。本研究以攝氧量證實走路CV的效度,進而確認CV對於評量走路有氧能力的代表性,值得一般運動參與者適度運動的參考與應用。

英文摘要

The purpose of this study was to examine the validity of critical velocity (CV) derived from walking using a 3-parameter critical power model. The walking CV was evaluated according to the variations of physiological data, which include heart rate (HR), oxygen intake (VO2), carbon dioxide output (VCO2), ventilation (VE), and RPE. Twenty male college students (21.55±1.67yrs, 170.70±3.93cm, 61.80±9.57kg) who exercise regularly served as subjects in this study. At the first session, each subject performed four constant velocity exhaustive treadmill tests (2.0-3 .2m/sec) to determine walking CV in a counter balance order. Then, participants performed a .20-minute continuous treadmill test at their walking CV. In the second session, the response of oxygen intake maintained a constant while examining the validity of walking CV, but the other physiological responses increased with time. The result proved that the 3-parameter critical power model was valid to predict walking CV by VO2. At the same time, it brought the representative of examining walking aerobic ability, which was useful for participants of moderate exercise.

主题分类 社會科學 > 體育學
参考文献
  1. Bull, A. J.,Housh, T. J.,Johnson, G. O.,Perry, S. R.(2000).Effect of mathematical modeling on the estimation of critical power.Medicine and Science in Sports and Exercise,32(2),526-530.
  2. Capodaglio, P.,Bazzini, G.(1996).Predicting endurance limits in arm cranking exercise with a subjectively based method.Ergonomics,39(7),924-932.
  3. deVries, H. A.,Moritani, T.(1980).A simple, direct method for estimation of aerobic power and anaerobic threshold. Abstract.Medicine and Science in Sports and Exercise,12,86.
  4. Gaesser, G. A.,Carnevale, T. J.,Garfinkel, A.,Walter, D. O.,Womack, C. J.(1995).Estimation of critical power with nonlinear and linear models.Medicine and Science in Sports and Exercise,27(10),1430-1438.
  5. Ginn, E. M.,Mackinnon, L. T.(1989).Proceedings of the First IOC World Congress on Sport Sciences.
  6. Hill, D. W.,Ferguson, C. S.(1999).A physiological description of critical velocity.European Journal of Applied Physiology and Occupational Physiology,79(3),290-293.
  7. Hopkins, W. G.,Edmund, I. M.,Hamilton, B. H.,Macfarlane, D. J.,Ross, B. H.(1989).Relation between power and endurance for treadmill running of short duration.Ergonomics,32,1565-1571.
  8. Hughson, R. L.,Orok, C. J.,Staudt, L. E.(1984).A high velocity treadmill running test to assess endurance running potential.International Journal of Snorts Medicine,5,23-25.
  9. Ikuta, Y.,Wakayoshi, K.,Nomura, T.(1994).Ⅶ International Symposium on Biomechanics and Medicine in Swimming-Program and Abstract Book.
  10. Jenkins, D. G.,Quigley, B. M.(1992).Endurance training enhances critical power.Medicine and Science in Sports and Exercise,24(11),1283-1289.
  11. Lin, J. C.,Wang, S. C.(1999).The physiological responses of running at critical velocity for distance runners. Abstract.Medicine and Science in Sports and Exercise,31(5),371.
  12. Lin, J. C.,Wu, C. F.,Wang, S. C.(1998).A comparative study of various mathematical models for critical velocity of juvenile swimmers.
  13. Mayhew, J. L.,Ball, T. E.,Bowen, J. C.(1992).Prediction of bench press lifting ability from submaximal repetitions before and after training.Sports Medicine, Training and Rehabilitation,3,195-201.
  14. McLellan, T. M.,Cheung, K. S. Y.(1992).A comparative evaluation of the individual anaerobic threshold and the critical power.Medicine and Science in Sports and Exercise,25(2),275-282.
  15. Monod, H.,Scherrer, J.(1965).The work capacity of a synergic muscular group.Ergonomics,8,329-338.
  16. Morton, R. H.(1996).A 3-parameter critical power model.Ergonomics,39,611-619.
  17. Overend, T. J.,Cunningham, D. A.,Paterson, D. H.,Smith, W. D. F.(1992).Physiological responses of young and elderly men to prolonged exercise at critical power.European Journal of Applied Physiology and Occupational Physiology,64,187-193.
  18. Wakayoshi, K.,Ikuta, K.,Yoshida, T.,Udo, M.,Moritani, T.,Mutoh, Y.,Miyashita, M.(1992).Determination and validity of critical velocity as an index of swimming performance in the competitive swimmer.European Journal of Applied Physiology and Occupational Physiology,64,153-157.
  19. Walsh, M. L.(2000).Whole body fatigue and critical power: A physiological interpretaion.Sports Medicine,29(3),153-166.
  20. 王順正(1998)。。
  21. 王順正、林正常(1998)。中華民國大專運動科學86學年度研究獎助專刊。台北市:中華民國大專院校體育總會。
被引用次数
  1. 李昭慶、王順正、王昇界(2014)。田徑場間歇跑步評量臨界速度之效度研究。運動生理暨體能學報,19,23-30。