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脈動氧血紅素飽和度與高地訓練生理適應之研究

The Relationships between Oxyhemoglobin Saturation and Physiological Acclimatization during Altitude Training

摘要


Monitoring the peripheral blood flow oxygen saturation in patients undergoing hemodialysis or in intensive care unit is the clinical application of oxyhemoglobin saturation by pulse oximetry (SPO2), which is easy to use and non-invasive. The patients were supplied with oxygen if their SPO2 drop to abnormal level in order to avoid emergency syndromes such as anoxia or acute respiratory distress syndrome. This study applied the clinical application of SPO2 on endurance training, using the resting values of SPO2 and daily recorded heart rate, to investigate the influence of training intensity on SPO2 and heart rate variances. Purpose: to examine the influence of hypoxia environment (altitude training base, 1906m, average relative oxygen concentration was 16%) by monitoring daily resting SPO2 and Heart rate records on elite distance runners. Methods: monitoring and recording the daily SPO2 and heart rate values before sleep by portable pulse oximetry. Independent-Sample t test and one-way ANOVA were used to analyze difference of altitude training and sea-level training, and the variances of SPO2 and heart rate by training intensity. Results: after 3weeks of altitude training and 3weeks of sea-level training, the daily resting SPO2 and heart rate showed significant differences between altitude and sea-level training (SPO2: 95.39±2.49%, 97.56±1.18%, p<.05; HRrest: 63.55±8.26bpm, 58.24±6.33bpm, p<.05), however, there were no influence on two types of training sessions (F value: 0.482, 2.408, p>.05). Conclusion: in the hypoxia environment, the SPO2 decreased significantly. Subsequently, the physiological compensations such as heart rate, breath and pulmonary exchange ratio increased, which had close effects by environment oxygen saturation. For altitude training, we suggest that, through the daily rest SPO2 and heart rate monitoring, the records could be useful on athletes training program, considering the physiological aspect, and adjust the training intensity.

關鍵字

耐力訓練 長跑 訓練里程數

並列摘要


Monitoring the peripheral blood flow oxygen saturation in patients undergoing hemodialysis or in intensive care unit is the clinical application of oxyhemoglobin saturation by pulse oximetry (SPO2), which is easy to use and non-invasive. The patients were supplied with oxygen if their SPO2 drop to abnormal level in order to avoid emergency syndromes such as anoxia or acute respiratory distress syndrome. This study applied the clinical application of SPO2 on endurance training, using the resting values of SPO2 and daily recorded heart rate, to investigate the influence of training intensity on SPO2 and heart rate variances. Purpose: to examine the influence of hypoxia environment (altitude training base, 1906m, average relative oxygen concentration was 16%) by monitoring daily resting SPO2 and Heart rate records on elite distance runners. Methods: monitoring and recording the daily SPO2 and heart rate values before sleep by portable pulse oximetry. Independent-Sample t test and one-way ANOVA were used to analyze difference of altitude training and sea-level training, and the variances of SPO2 and heart rate by training intensity. Results: after 3weeks of altitude training and 3weeks of sea-level training, the daily resting SPO2 and heart rate showed significant differences between altitude and sea-level training (SPO2: 95.39±2.49%, 97.56±1.18%, p<.05; HRrest: 63.55±8.26bpm, 58.24±6.33bpm, p<.05), however, there were no influence on two types of training sessions (F value: 0.482, 2.408, p>.05). Conclusion: in the hypoxia environment, the SPO2 decreased significantly. Subsequently, the physiological compensations such as heart rate, breath and pulmonary exchange ratio increased, which had close effects by environment oxygen saturation. For altitude training, we suggest that, through the daily rest SPO2 and heart rate monitoring, the records could be useful on athletes training program, considering the physiological aspect, and adjust the training intensity.

參考文獻


Bärtsch, P.,Saltin, B.(2008).General introduction to altitude adaptation and mountain sickness.Scandinavian Journal of Medicine & Science in Sports.18(s1),1-10.
Dakin J.,K. E.,Winter, R.(2003).Making sense of lung function tests.London:ARNOLD.
Powers, S. K.,Howly, E. T.(2009).Exercise physiology: theory and application to fitness and performance.New York:McGraw-Hill.
Pradhan, S.,Yadav, S.,Neupane, P.,Subedi, P.(2009).Acute mountain sickness in children at 4380 meters in the Himalayas.Wilderness & Environmental Medicine.20(4),359-363.
Saunders, P. U.,Pyne, D. B.,Gore, C. J.(2009).Endurance training at altitude.High Altitude Medicine & Biology.10(2),135-148.

被引用紀錄


楊雁婷、廖翊宏、陳宗與、郭堉圻、魏振展(2019)。低氧環境對耐力運動表現及認知功能之影響:探討相關生理機制與營養增補策略體育學報52(4),407-422。https://doi.org/10.6222/pej.201912_52(4).0001

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