Energy system contributions in indoor rock climbing

被引:0
|
作者
Rômulo Cássio de Moraes Bertuzzi
Emerson Franchini
Eduardo Kokubun
Maria Augusta Peduti Dal Molin Kiss
机构
[1] University of São Paulo (USP),School of Physical Education and Sport
[2] São Paulo State University (UNESP),Department of Physical Education, Bioscience Institute
来源
European Journal of Applied Physiology | 2007年 / 101卷
关键词
Oxygen consumption; Blood lactate; Oxygen debt; Energy sources; Training status;
D O I
暂无
中图分类号
学科分类号
摘要
The present study cross-sectionally investigated the influence of training status, route difficulty and upper body aerobic and anaerobic performance of climbers on the energetics of indoor rock climbing. Six elite climbers (EC) and seven recreational climbers (RC) were submitted to the following laboratory tests: (a) anthropometry, (b) upper body aerobic power, and (c) upper body Wingate test. On another occasion, EC subjects climbed an easy, a moderate, and a difficult route, whereas RC subjects climbed only the easy route. The fractions of the aerobic (WAER), anaerobic alactic (WPCR) and anaerobic lactic \documentclass[12pt]{minimal} \usepackage{amsmath} \usepackage{wasysym} \usepackage{amsfonts} \usepackage{amssymb} \usepackage{amsbsy} \usepackage{mathrsfs} \usepackage{upgreek} \setlength{\oddsidemargin}{-69pt} \begin{document}$$(W_{{\rm [La}^{-}]})$$\end{document} systems were calculated based on oxygen uptake, the fast component of excess post-exercise oxygen uptake, and changes in net blood lactate, respectively. On the easy route, the metabolic cost was significantly lower in EC [40.3 (6.5) kJ] than in RC [60.1 (8.8) kJ] (P < 0.05). The respective contributions of the WAER, WPCR, and \documentclass[12pt]{minimal} \usepackage{amsmath} \usepackage{wasysym} \usepackage{amsfonts} \usepackage{amssymb} \usepackage{amsbsy} \usepackage{mathrsfs} \usepackage{upgreek} \setlength{\oddsidemargin}{-69pt} \begin{document}$$W_{\rm [La^{-}]}$$\end{document} systems in EC were: easy route = 41.5 (8.1), 41.1 (11.4) and 17.4% (5.4), moderate route = 45.8 (8.4), 34.6 (7.1) and 21.9% (6.3), and difficult route = 41.9 (7.4), 35.8 (6.7) and 22.3% (7.2). The contributions of the WAER, WPCR, and \documentclass[12pt]{minimal} \usepackage{amsmath} \usepackage{wasysym} \usepackage{amsfonts} \usepackage{amssymb} \usepackage{amsbsy} \usepackage{mathrsfs} \usepackage{upgreek} \setlength{\oddsidemargin}{-69pt} \begin{document}$$W_{\rm [La^{-}]}$$\end{document} systems in RC subjects climbing an easy route were 39.7 (5.0), 34.0 (5.8), and 26.3% (3.8), respectively. These results indicate that the main energy systems required during indoor rock climbing are the aerobic and anaerobic alactic systems. In addition, climbing economy seems to be more important for the performance of these athletes than improved energy metabolism.
引用
收藏
页码:293 / 300
页数:7
相关论文
共 48 条
  • [21] Energy expenditure and dietary intake of athletes during an ultraendurance event developed by hiking, cycling and mountain climbing
    Rejc, E.
    Lazzer, S.
    Antonutto, G.
    JOURNAL OF SPORTS MEDICINE AND PHYSICAL FITNESS, 2010, 50 (03) : 296 - 302
  • [22] Transition to a nuclear/hydrogen energy system
    Walters, L
    Wade, D
    Lewis, D
    NUCLEAR ENERGY-JOURNAL OF THE BRITISH NUCLEAR ENERGY SOCIETY, 2003, 42 (01): : 55 - 62
  • [23] The design of automatic measure system of energy sources
    Sha, ZY
    Wang, SH
    Zhang, YC
    ICEMI'2003: PROCEEDINGS OF THE SIXTH INTERNATIONAL CONFERENCE ON ELECTRONIC MEASUREMENT & INSTRUMENTS, VOLS 1-3, 2003, : 1464 - 1467
  • [24] Energy contributions in swimmers with physical impairments in an all-out 200-m front crawl test
    Ongaratto, Daniela
    Feitosa, Wellington G.
    Correia, Ricardo de A.
    Castro, Flavio A. de S.
    SPORT SCIENCES FOR HEALTH, 2021, 17 (03) : 647 - 653
  • [25] Optimization of energy production system in the Dodecanese Islands
    Koroneos, C
    Zairis, N
    Charakhas, P
    Moussiopoulos, N
    RENEWABLE ENERGY, 2005, 30 (02) : 195 - 210
  • [26] Fiftieth Anniversary of the California Net Energy System Symposium What are the energy coefficients for cows?
    Freetly, Harvey C.
    TRANSLATIONAL ANIMAL SCIENCE, 2019, 3 (03) : 969 - 975
  • [27] Sustainable approach to energy rating system for residential buildings
    Pathirana S.
    Halwatura R.
    Rodrigo A.
    Asian Journal of Civil Engineering, 2020, 21 (8) : 1331 - 1342
  • [28] A System for Harvesting Energy from Stray Magnetic Fields
    Feler, L. A.
    Rigoni, M.
    Santos, H. F.
    Elias, R. A.
    Sadowski, N.
    Kuo-Peng, P.
    Batistela, N. J.
    Bastos, J. P. A.
    SENSING AND IMAGING, 2015, 16 (01):
  • [29] Metabolic Energy Contributions During High-Intensity Hatha Yoga and Physiological Comparisons Between Active and Passive (Savasana) Recovery
    Lee, Kwang-Ho
    Ju, Hyo-Myeong
    Yang, Woo-Hwi
    FRONTIERS IN PHYSIOLOGY, 2021, 12
  • [30] The relative contributions of anaerobic and aerobic energy supply during track 100-, 400- and 800-m performance
    Nevill, A. M.
    Ramsbottom, R.
    Nevill, M. E.
    Newport, S.
    Williams, C.
    JOURNAL OF SPORTS MEDICINE AND PHYSICAL FITNESS, 2008, 48 (02) : 138 - 142