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无糖含氨基酸电解质饮料对 5 公里运动表现、血液电解质和运动后抽筋的影响与传统碳水化合物电解质运动饮料和水的对比。

The effects of a sugar-free amino acid-containing electrolyte beverage on 5-kilometer performance, blood electrolytes, and post-exercise cramping versus a conventional carbohydrate-electrolyte sports beverage and water.

机构信息

Nutrabolt Applied and Molecular Sciences Laboratory, Auburn University, School of Kinesiology, Auburn, AL, USA.

Nutrabolt, Austin, TX, USA.

出版信息

J Int Soc Sports Nutr. 2024 Dec;21(1):2296888. doi: 10.1080/15502783.2023.2296888. Epub 2023 Dec 22.

DOI:10.1080/15502783.2023.2296888
PMID:38131124
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10763896/
Abstract

OBJECTIVE

The purpose of this study was to examine the acute effects of a multi-ingredient, low calorie dietary supplement (MIDS, XTEND® Healthy Hydration) on 5-kilometer (5-km) time trial performance and blood electrolyte concentrations compared to a carbohydrate-electrolyte beverage (CE, GATORADE® Thirst Quencher) and distilled water (W).

METHODS

During visit 1 (V1), participants (10 men and 10 women, 20-35 years old, BMI ≤ 29 kg/m, recreationally active) reported to the laboratory whereby the following tests were performed: i) height and weight measurements, ii) body composition analysis, iii) treadmill testing to measure maximal aerobic capacity, and iv) 5-km time trial familiarization. The second visit (V2) was one week after V1 in the morning (0600 - 0900) and participants arrived 12-14 h fasted (no food or drink). The first battery of assessments (V2-T1) included nude body mass, urine specific gravity (USG), a profile of mood states (POMS) questionnaire, and the completion of a visual analogue scale (VAS) questionnaire to quantify cramping. Then heart rate (HR), blood pressure (BP), total body hydration (via bioelectrical impedance spectroscopy [BIS]) were examined. Finally, a measurement of blood markers via finger stick was performed. Participants consumed a randomized beverage (16 fl. oz. of MIDS, 16 fl. oz. of W, or 16 fl. oz. of CE) within 3 min followed by a 45-min rest. Following the rest period, a second battery (V2-T2) was performed whereby participants' USG was assessed and they completed the POMS and VAS questionnaires, and HR, BP, and blood markers were measured. The participants then performed a 5-km treadmill time trial. Immediately following the 5-km time trial, participants completed a third testing battery (V2-T3) that began with blood markers, HR and BP assessments, followed by nude body weight assessment, and the POMS and VAS questionnaires. After 60 min, a fourth battery (V2-T4) was performed that included HR, BP, and blood markers. After sitting quietly for another 60 min a fifth battery assessment was performed (V2-T5) that included participants' USG, POMS and VAS questionnaires, HR, BP, blood markers, and total body hydration. Visits 3 (V3) and 4 (V4) followed the same protocol except a different randomized drink (16 oz. of CE, MIDS, or W) was consumed; all of which were separated by approximately one week.

RESULTS

No differences occurred between conditions for 5-km time trial completion, indirect calorimetry outcomes during 5-km time trials, USG, or nude mass measurements ( > 0.05 for all relevant statistical tests). However, blood potassium and the sodium/potassium ratio displayed significant interactions ( < 0.05), and post hoc testing indicated these values were better maintained in the MIDS versus other conditions. Post-exercise cramp prevalence was greater in the CE ( < 0.05) and trended higher with W ( = 0.083) compared to the MIDS condition. Post-exercise cramp severity was also elevated with the W and CE beverages ( < 0.05) but not the MIDS ( = 0.211).

CONCLUSIONS

The MIDS did not affect 5-km time trial performance but exhibited favorable effects on blood electrolyte and post-exercise self-reporting cramp outcomes compared to the CE and W drinks.

摘要

目的

本研究旨在比较一种多成分、低热量膳食补充剂(MIDS,XTEND®健康补水)与碳水化合物-电解质饮料(CE,GATORADE®口渴终结者)和蒸馏水(W)对 5 公里(5-km)计时赛表现和血液电解质浓度的急性影响。

方法

在第一次访问(V1)中,参与者(10 名男性和 10 名女性,年龄 20-35 岁,BMI≤29kg/m,有规律的运动)报告至实验室,进行以下测试:i)身高和体重测量,ii)身体成分分析,iii)跑步机测试以测量最大有氧能力,iv)5-km 计时赛熟悉度。第二次访问(V2)在 V1 一周后的早上(0600-0900)进行,参与者禁食 12-14 小时(不进食或饮水)。第一次评估(V2-T1)包括裸体体重、尿比重(USG)、心境状态问卷(POMS)和视觉模拟量表(VAS)问卷,以量化抽筋。然后检查心率(HR)、血压(BP)、全身水合作用(通过生物电阻抗光谱法[BIS])。最后,通过手指穿刺进行血液标志物测量。参与者在 3 分钟内随机饮用一种饮料(MIDS 16 液盎司、W 16 液盎司或 CE 16 液盎司),然后休息 45 分钟。休息后,进行第二次评估(V2-T2),评估参与者的 USG,完成 POMS 和 VAS 问卷,测量 HR、BP 和血液标志物。然后,参与者进行 5 公里跑步机计时赛。计时赛结束后,参与者立即进行第三次测试(V2-T3),开始时进行血液标志物、HR 和 BP 评估,然后进行裸体体重评估,并进行 POMS 和 VAS 问卷。60 分钟后,进行第四次评估(V2-T4),包括 HR、BP 和血液标志物。安静坐 60 分钟后,进行第五次评估(V2-T5),包括参与者的 USG、POMS 和 VAS 问卷、HR、BP、血液标志物和全身水合作用。第三次访问(V3)和第四次访问(V4)遵循相同的方案,只是饮用不同的随机饮料(CE、MIDS 或 W 16 盎司);所有这些都间隔大约一周。

结果

在 5-km 计时赛完成、5-km 计时赛期间的间接测热结果、USG 或裸体体重测量方面,条件之间没有差异(所有相关统计检验均>0.05)。然而,血钾和钠/钾比值显示出显著的相互作用(<0.05),事后检验表明 MIDS 与其他条件相比,这些值得到了更好的维持。CE(<0.05)和 W 饮料(=0.083)的运动后抽筋发生率较高,与 MIDS 条件相比,运动后抽筋的严重程度也较高(<0.05)。

结论

MIDS 不会影响 5-km 计时赛表现,但与 CE 和 W 饮料相比,对血液电解质和运动后自我报告的抽筋结果有有利影响。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7a10/10763896/dd8717d00564/RSSN_A_2296888_F0009_OC.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7a10/10763896/305bc4181a4f/RSSN_A_2296888_F0001_OC.jpg
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https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7a10/10763896/fa4120ca580d/RSSN_A_2296888_F0006_OC.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7a10/10763896/ee1589a348ac/RSSN_A_2296888_F0007_OC.jpg
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