Przejdź do treści
Central European Journal of Sport Sciences and Medicine
Vol. 17, No. 1/2017
OpenAlex

Dane dotyczą tego artykułu lub rozdziału.

Rekord znaleziony w bazie

Cytowania
6
Pozycje bibliografii
26
Cytowania według lat
RokCytowania
20181
20202
20211
20231
20261

Dane pobrane:

Zobacz w źródle (nowa karta)

Dla całego czasopisma, według OpenAlex.

Cytowania
1 079
Publikacje
402
H-index
13
I10-index
23
Średnia cytowań (2 lata)
0,63
Cytowania w poszczególnych latach
Wykres cytowań czasopisma. Dokładne wartości są dostępne w tabeli poniżej. 2017: 27 2018: 41 2019: 47 2020: 103 2021: 96 2022: 143 2023: 152 2024: 167 2025: 173 2026: 98 2017 2026
Pokaż dane w tabeli
Cytowania w poszczególnych latach
RokPublikacjeCytowania
20174227
20183341
20193547
202038103
20213896
202231143
202330152
202429167
202530173
20261698

Dane pobrane:

Co oznaczają te liczby?

Publikacje i cytowania obejmują rekordy powiązane z tym czasopismem w OpenAlex. H-index to największa liczba h publikacji mających co najmniej h cytowań. I10-index to liczba publikacji cytowanych co najmniej 10 razy. Wykres przedstawia cytowania otrzymane w danym roku; bieżący rok jest niepełny. Zakres bazy może różnić się od WNUS i innych serwisów.

Średnia z 2 lat jest wskaźnikiem OpenAlex. Nie jest to Journal Impact Factor firmy Clarivate.

Zobacz w OpenAlex (nowa karta)
Crossref

Dane dotyczą tego artykułu lub rozdziału.

Rekord znaleziony w bazie

Cytowania
2

Dane pobrane:

Zobacz w źródle (nowa karta)
OpenCitations

Dane dotyczą tego artykułu lub rozdziału.

Cytowania
1

Dane pobrane:

Publikacje cytujące
  1. 10.23949/kjpe.2023.7.62.4.13 (2023)
Zobacz w źródle (nowa karta)
DOAJ

Dane dotyczą tego artykułu lub rozdziału.

Rekord znaleziony w bazie

Dane pobrane:

Zobacz w źródle (nowa karta)
Google Scholar

The Effects of Warm-up Duration on Cycling Time Trial Performance in Trained Cyclists

DOI: 10.18276/cej.2017.1-01
Cytuj

Pełny tekst jest dostępny

Abstrakt

. The purpose of this study was to assess the effects of three different warm-up condi-tions on a 5K cycling time trial (TT). Sixteen trained cyclists completed the study. At the first testing session, participants completed a maximal graded exercise test to assess maximal oxygen consumption (VO2max) and a familiarization of the TT. At three subse-quent visits, the participants completed the TT after no warm up, short warm-up of three minutes at 60% VO2max, or long warm-up of ten minutes at 60% VO2max. The warm-up was assigned in randomized order. VO2, heart rate (HR), lactate, power, and speed were assessed after the warm-up, 1K, and completion of the 5K TT. There was no dif-ference between type of warm-up for time, power, cadence, speed, VO2, HR, or lactate levels at the end of the TT. There was no significant difference between type of warm-up for time, VO2 or HR at the end of the 1K split. Warm-up length was not impactful on 5K TT performance or during the first km of the TT in trained cyclists. These results con-flict with previous evidence indicating that a warm-up in endurance events primarily improved VO2 kinetics at the onset of the exercise.
Podgląd PDF

Otwórz PDF

Bibliografia (25)
  1. Andzel, W.D. (1978). The effects of moderate prior exercise and varied rest intervals upon cardiorespiratory endurance performance. J Sports Med Phys Fitness, 18 (3), 245–252.
  2. Andzel, W.D. (1982). One mile run performance as a function of prior exercise. J Sports Med Phys Fitness, 22 (1), 80–84.
  3. Andzel, W.D., Busuttil, C. (1982). Metabolic and physiological responses of college females to prior exercise, varied rest intervals and a strenuous endurance task. J Sports Med Phys Fitness, 22 (1), 113–119.
  4. Andzel, W.D., Gutin, B. (1976). Prior exercise and endurance performance: a test of the mobilization hypothesis. Res Q, 47 (2), 269–276.
  5. Bearden, S.E., Moffatt, R.J. (2001). VO2 and heart rate kinetics in cycling: transitions from an elevated baseline. J Appl Physiol (1985), 90 (6), 2081–2087.
  6. Bergstrom, J., Hermansen, L., Hultman, E., Saltin, B. (1967). Diet, muscle glycogen and physical performance. Acta Physiol Scand, 71 (2), 140–150.
  7. Bishop, D. (2003a). Warm up I: potential mechanisms and the effects of passive warm up on exercise performance. Sports Med, 33 (6), 439–454.
  8. Bishop, D. (2003b). Warm up II: performance changes following active warm up and how to structure the warm up. Sports Med, 33 (7), 483–498.
  9. Burnley, M., Jones, A.M., Carter, H., Doust, J.H. (2000). Effects of prior heavy exercise on phase II pulmonary oxygen uptake kinetics during heavy exercise. J Appl Physiol (1985), 89 (4), 1387–1396.
  10. Carter, H., Grice, Y., Dekerle, J., Brickley, G., Hammond, A.J., Pringle, J.S. (2005). Effect of prior exercise above and below critical power on exercise to exhaustion. Med Sci Sports Exerc, 37 (5), 775–781.
  11. Chwalbinska-Moneta, J., Hanninen, O. (1989). Effect of active warming-up on thermoregulatory, circulatory, and metabolic responses to incremental exercise in endurance-trained athletes. Int J Sports Med, 10 (1), 25–29.
  12. Genovely, H., Stamford, B.A. (1982). Effects of prolonged warm-up exercise above and below anaerobic threshold on maximal performance. Eur J Appl Physiol Occup Physiol, 48 (3), 323–330.
  13. Gerbino, A., Ward, S.A., Whipp, B.J. (1996). Effects of prior exercise on pulmonary gas-exchange kinetics during high-intensity exercise in humans. J Appl Physiol (1985), 80 (1), 99–107.
  14. Gray, S., Nimmo, M. (2001). Effects of active, passive or no warm-up on metabolism and performance during high-intensity exercise. J Sports Sci, 19 (9), 693–700.
  15. Gregson, W.A., Drust, B., Batterham, A., Cable, N.T. (2002). The effects of pre-warming on the metabolic and thermoregulatory responses to prolonged submaximal exercise in moderate ambient temperatures. Eur J Appl Physiol, 86 (6), 526–533.
  16. Grodjinovsky, A., Magel, J.R. (1970). Effect of warm-up on running performance. Res Q, 41 (1), 116–119.
  17. Hajoglou, A., Foster, C., De Koning, J.J., Lucia, A., Kernozek, T.W., Porcari, J.P. (2005). Effect of warm-up on cycle time trial performance. Med Sci Sports Exerc, 37 (9), 1608–1614.
  18. Johnson, M.A., Gregson, I.R., Mills, D.E., Gonzalez, J.T., Sharpe, G.R. (2014). Inspiratory muscle warm-up does not improve cycling time-trial performance. Eur J Appl Physiol, 114 (9), 1821–1830.
  19. Jones, A.M., Koppo, K., Burnley, M. (2003). Effects of prior exercise on metabolic and gas exchange responses to exercise. Sports Med, 33 (13), 949–971.
  20. Kozlowski, S., Brzezinska, Z., Kruk, B., Kaciuba-Uscilko, H., Greenleaf, J.E., Nazar, K. (1985). Exercise hyperthermia as a factor limiting physical performance: temperature effect on muscle metabolism. J Appl Physiol (1985), 59 (3), 766–773.
  21. Martin, B.J., Robinson, S., Wiegman, D.L., Aulick, L.H. (1975). Effect of warm-up on metabolic responses to strenuous exercise. Med Sci Sports, 7 (2), 146–149.
  22. Mujika, I., de Txabarri, R.G., Maldonado-Martin, S., Pyne, D.B. (2012). Warm-up intensity and duration’s effect on traditional rowing time-trial performance. Int J Sports Physiol Perform, 7 (2), 186–188.
  23. Ng, G., Cheng, C., Fung, M., Ngai, N., Wong, E., Yeung, A. (2007). Comparison of the time to perceived exertion in cycling with different warm-up procedures. Hong Kong Physiotherapy Journal, 25 (1), 10–13.
  24. Tomaras, E.K., MacIntosh, B.R. (2011). Less is more: standard warm-up causes fatigue and less warm-up permits greater cycling power output. J Appl Physiol (1985), 111 (1), 228–235.
  25. Wittekind, A.L., Beneke, R. (2009). Effect of warm-up on run time to exhaustion. J Sci Med Sport, 12 (4), 480–484.