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Karbonhidrat (CHO) alımı ve aktif toparlanmanın yoğun fiziksel aktivite sonrası alaktasit ve laktasit güce etkileri

Year 2016, , 1 - 13, 01.04.2016
https://doi.org/10.1501/Sporm_0000000280

Abstract

Bu çalışmanın amacı yoğun fiziksel aktivite sonrası aktif toparlanma ve CHO alımının antrenmanlı kişilerde ve sporcularda alaktasit (ALG) ve laktasit güç (LG) değerlerine etkisinin 48 saat boyunca incelenmesi ve yüklenmeden ne kadar sonra başlangıç değerlerine ulaşılacağının anlaşılması idi. Araştırmaya 24 erkek (12 egzersiz yapan; yaş: 22,42 ± 1,31 yıl, boy: 172,51 ± 8,88 cm, vücut ağırlığı: 66,65 ± 5,71 kg;ve 12 profesonel futbolcu yaş: 18,33 ± 0,98 yıl, boy: 178,83 ± 4,57 cm, vücut ağırlığı: 71,68 ± 4,82 kg) gönüllü olarak katıldı. İlk olarak vücut kompozisyonu, aerobik ve anaerobik güç, enerji harcaması değerleri ölçüldü. Sonrasında katlımcılara dört farklı zamanda, maksimal oksijen tuketiminin (VO2maks) % 70’ine denk gelen bir saatlik koşuyu takiben aktif toparlanma ve normal diyet (AT-ND), pasif toparlanma ve normal diyet (PT-ND), aktif toparlanma CHO destekli diyet (AT-CHO) ve pasif toparlanma CHO destekli diyet (PT-CHO) uygulandı. Bu uygulamaların ALG ve LG parametrelerine etkilerinin incelenmesi için; koşu öncesinde, koşudan 30 dk sonra, 24 saat sonra ve 48 saat sonra ölçümler yapıldı.Gruplar arası istetistiklerde parametrik veriler için Bağımsız Örneklem T-testi, non-parametrik olanlarda ise Mann Whitney U testi kullanıldı. Grup içi analizlerde ise parametrik veriler Tekrarlı Ölçümlerde Varyans Analizi ile, non-parametrik olanlar da Friedman testi ile değerlendirildi. Bulgulara göre sporcuların güç değerleri, PT-ND uygulamasında koşu öncesi ALG değeri dışında, tüm ölçümlerde antrenmanlı yetişkinlerden yüksek bulundu. Bununla birlikte farklı toparlanma uygulamalarının bazı ölçümlerinde anlamlı farklılıklar gözlendi. Ancak bu değişiklikler karbonhidrat (CHO) alımı ve aktif toparlanma uygulamasından bağımsız idi. Sonuç olarak, VO2maks’ın % 70’ine denk gelen kalp atım hızlarında bir saatlik koşu sonrası vücut ağırlığının kg’ı başına alınan 1 gr CHO’nun ve aktivite sonrası yapılan aktif toparlanma uygulamasının sporcularda ve antrenmanlı yetişkinler üzerinde sıçrama testleriyle ölçülen alaktasit ve laktasit güç değerlerine anlamlı etki yaratmadığı elde edildi

References

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THE EFFECTS OF CARBOHYDRATE (CHO) INTAKE AND ACTIVE RECOVERY ON ALACTIC AND LACTIC POWER AFTER INTENSE PHYSICAL ACTIVITY

Year 2016, , 1 - 13, 01.04.2016
https://doi.org/10.1501/Sporm_0000000280

Abstract

The purpose of this study was to examine the effects of active recovery and CHO intake on alactacid (ALP) and lactacid power (LP) after intense physical activity during 48 hours in athletes and trained adults, and to find out how long it takes to reach the initial level after loading. A total of 24 men (12 trained adults; age: 22,42 ± 1,31 years, body height: 172,51 ± 8,88 cm, body weight: 66,65 ± 5,71 kg; and 12 professional soccer players: age: 18,33 ± 0,98 years, body height: 178,83 ± 4,57 cm, body weight: 71,68 ± 4,82 kg) participated in the study voluntarily. First of all, body composition, aerobic and anaerobic power, and energy expenditure of the participants were evaluated. Afterwards, active recovery and normal diet, passive recovery and normal diet, active recovery and CHO assisted diet and passive recovery and CHO assisted diet were applied to participants in four different times after one hour running at 70% of maximal oxygen consumption (VO2max). In order to evaluate the effects of these applications on ALP and LP; the measurements were performed before the running, and 30 minutes, 24 hours, and 48 hours after the running. Intergroup statistics for normal distribution parametric Independent Paired Sample T-Test, and for nonparametric distribution Mann Whitney U test were used. For in group statistics in accordance with the distribution parametric Variance Analysis in Repetitive Measurements test and nonparametric Friedman test were utilized. According to the findings; the power levels of athletes were recorded significantly higher than trained adults except for the ALP value obtained before the running measurement during PT-ND application. Moreover, significant changes were observed in some of the measurements of different recovery applications. However, those changes seemed that they occured indepentendly from CHO intake and active recovery. In conclusion, it was understood that the intake of 1 gr of CHO per kg, and active recovery applications after a one-hour running at 70 % of VO2max did not have any significant effect on alactacid and lactacid power levels obtained from jump tests of athletes and trained adults

References

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  • Ahmaidi S, Granier P, Taoutaou Z, ve ark. (1996): Effects of active recovery on plasma lactate and anaerobic power following repe- ated intensive exercise. Medicine and Sci- ence in Sports and Exercise, 28, 450-456.
  • Arazi H, Mosavi SS, Basir SS, ve ark. (2012): The effects of different recovery conditions on blood lactate concentration and physiological variables after high inten- sity exercise in handball players. Sport Sci- ence, 2, 13‐17.
  • Babault N, Cometti C, Maffiuletti NA, ve ark. (2011): Does electrical stimulation en- hance post-exercise performance recovery? EurJAppI Physiol,111(10), 2501-2507.
  • Barnett A (2006): Using recovery modalities between training sessions in elite athletes: does it help? Sports Med,36, 781-796.
  • Bastos FN, Vanderlei LCM, Nakamura FY, ve ark. (2012): Effects of cold water immer- sion and active recovery on post-exercise heart rate variability. Int J Sports Med,33, 873-879.
  • Betts J, Williams C, Duffy K, ve ark. (2007): The influence of carbohydrate and protein ingestion during recovery from pro- longed exercise on subsequent endurance performance. Journal of Sports Sciences, 25(13), 1449-1460.
  • Bielik V (2010): Effect of different recovery modalities on anaerobic power in off-road cyclists. Biol Sport, 27, 59-63.
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  • Carver ML, O’Malley M (2015): Progressi- ve muscle relaxation to decrease anxiety in clinical simulations. Teaching and Learning in Nursing, 10(2), 57-62.
  • Coffey V, Leveritt M, Gill N (2004): Effect of recovery modality on 4-hour repeated treadmill running performance and changes in physiological variables. J Sci Med Sport,7, 1-10.
  • Corder KP, Potteiger JA, Nau KL, ve ark. (2000): Effects of active and passive reco- very conditions on blood lactate, rating of perceived exertion, and performance during resistance exercise. J Strength Cond Res, 14, 151-156.
  • De Bock K, Richter EA, Russell AP, ve ark. (2005): Exercise in the fasted state facilita- tes fibre type-specific intramyocellular lipid breakdown and stimulates glycogen resynt- hesis in humans. J Physiol, 564, 649-660.
  • Dodd S, Powers SK, Callender T, ve ark. (1984): Blood lactate disappearance at vari- ous intensities of recovery exercise. J Appl Physiol, 57(5), 1462-1465.
  • Dupont G, Blondel N, Berthoin S (2003): Performance for short intermittent runs: ac- tive recovery vs. passive recovery. Eur J Appl Physiol, 89, 548-554.
  • Elena S (2014): Recovery - a healthy lifesty- le for students. Science, Movement and He- alth, 14(1), 166-170.
  • Ferreira JC, Carvalho RGDS, Barroso TM, ve ark. (2011): Effect of different types of recovery on blood lactate removal after maximum exercise. Pol J Sport Tourism,18, 105-111.
  • Flier JS (2004): Obesity wars: molecular progress confronts an expanding epidemic. Cell, 116(2), 337-350.
  • Fujita Y, Koizumi K, Sukeno S, ve ark. (2009): Active recovery effects by previo- usly inactive muscles on 40-s exhaustive cycling. Journal of Sports Sciences, 27(11), 1145–1151.
  • Green MS, Corona BT, Doyle JA, ve ark. (2008): Carbohydrate-protein drinks do not enhance recovery from exercise-induced muscle injury. International Journal of Sport Nutrition and Exercise Metabolism, 18, 1- 18.
  • Guru K, Gourang SA, Singh SJ (2013): Effect of active arm exercise and passive rest in physiological recovery after high- intensity exercises. Biology of Sports, 9(1), 9-23.
  • Haddad HA, Laursen PB, Ahmaidi S, ve ark. (2009): Nocturnal heart rate variability following supramaximal intermittent exerci- se. International Joumeş of Sports Physio- logy and Performance, 4, 435-447.
  • Hawley JA, Burke LM, Phillips SM, ve ark. (2011): Nutritional modulation of training- induced skeletal muscle adaptations. Journal of Applied Physiology, 110(3), 834–845.
  • Hawley JA, Tipton KD, Millard-Stafford ML (2006): Promoting training adaptations through nutritional interventions. J Sports Sci.24, 709-721.
  • Higgins TR, Heazlewood IT, Climstein M (2011): A random control trial of contrast baths and ice baths for recovery during competition in U/20 rugby union. J Strength Cond Res,25(4), 1046-1051.
  • Hollman W, Hettinger T (2000): Sports Medicine. Stuttgart, Germany.
  • Hulton AT, Edwards JP, Gregson W, ve ark. (2013): Effect of fat and cho meals on in- termittent exercise in soccer players. Int J Sports Med 2013; 34, 165–169.
  • Ivy JL (2001): Dietary strategies to promote glycogen synthesis after exercise. Canadian Journal of Applied Physiology, 26, 236-245.
  • Ivy JL, Res PT, Sprague RC, ve ark. (2003): Effect of a carbohydrate-protein supplement on endurance performance during exercise of varying intensity. International Journal of Sport Nutrition and Exercise Metabolism, 13, 382-395.
  • Jougla A, Micallef JP, Mottet D (2010): Effects of active vs. passive recovery on re- peated rugby-specific exercises. Journal of Science and Medicine in Sport, 13, 350-355.
  • Koizumi K, Fujita Y, Muramatsu S, ve ark. (2011): Active recovery effects on local oxygenation level during intensive cycling bouts. Journal of Sports Sciences, 29(9), 919-926.
  • Kumar S, Raje A (2014): Effect of progres- sive muscular relaxation exercises versus transcutaneous electrical nerve stimulation on tension headache: A comparative study. Hong Kong Physiotherapy Journal, 32(2), 86-91.
  • Lima-Silva AE, Pires FO, Bertuzzi R, ve ark. (2013): Effects of a low- or a high- carbohydrate diet on performance, energy system contribution, and metabolic respon- ses during supramaximal exercise. Appl Physiol Nutr Metab, 38, 928-934.
  • Lopes FAS, Panissa VLG, Julio UF, ve ark. (2014): The effect of active recovery on power performance during the bench press exercise. Journal of Human Kinetics, 40, 161-169.
  • Lopez ED, Smoliga JM, Zavorsky GS (2014): The effect of passive versus active recovery on power output over six repeated wingate sprints. Research Quarterly for Exercise and Sport, 85, 519-526.
  • Mazreno AB, Nodoushan Sİ, Hajian N (2013): Comparison of the effects of active and passive recovery after incremental exer- cise to exhaustion on serum testosterone and progesterone levels of athletes. Sport Scien- ce, 6(1), 28‐32.
  • McEniery CM, Jenkins DG, Barnett C (1997): The relationship between plasma potassium concentration and muscle torque during recovery following intense exercise. European Journal of Applied Physiology and Occupational Physiology, 75, 462-466.
  • Mika A, Mika P, Fernhall B (2007): Compa- rison of recovery strategies on muscle per- formance after fatiguing exercise. Am J Phys Med Rehabil, 86, 474-481.
  • Millard-Stafford M, Childers WL, Conger SA, ve ark. (2008): Recovery nutrition: ti- ming and composition after endurance exer- cise. Curr Sports Med Rep, 7(4), 193-201.
  • Millard-Stafford M, Warren GL, Thomas LM, ve ark. (2005): Recovery from run trai- ning: efficacy of a carbohydrate-protein be- verage? International Journal of Sport Nutri- tion and Exercise Metabolism, 15, 610-624.
  • Mohr M, Krustrup P, Bangsbo J (2005): Fatigue in Soccer: A Brief Review. Journal of sports sciences, 23(6), 593-599.
  • Monedero J, Donne B (2000): Effect of recovery interventions on lactate removal and subsequent performance. Int J Sports Med, 21, 593-597.
  • Mukaimoto T, Semba S, Inoue Y, ve ark. (2014): Changes in transverse relaxation ti- me of quadriceps femoris muscles after ac- tive recovery exercises with different inten- sities. Journal of Sports Sciences, 32(8), 766-775.
  • Ohya T, Aramaki Y, Kitagawa K (2013): Effect of duration of active or passive reco- very on performance and muscle oxygena- tion during intermittent sprint cycling exer- cise. Int J Sports Med, 34, 616-622.
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There are 73 citations in total.

Details

Other ID JA24FR59ZT
Journal Section Research Article
Authors

Dicle Aras This is me

Barış Karakoç This is me

Mitat Koz This is me

Publication Date April 1, 2016
Published in Issue Year 2016

Cite

APA Aras, D., Karakoç, B., & Koz, M. (2016). Karbonhidrat (CHO) alımı ve aktif toparlanmanın yoğun fiziksel aktivite sonrası alaktasit ve laktasit güce etkileri. SPORMETRE Beden Eğitimi Ve Spor Bilimleri Dergisi, 14(1), 1-13. https://doi.org/10.1501/Sporm_0000000280

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