Muscle force recovery in relation to muscle oxygenation

Ufland, Pierre; Lapole, Thomas; Ahmaidi, Saïd; Buchheit, Martin

doi:10.1111/j.1475-097x.2012.01141.x

Cited by 11 publications

(15 citation statements)

References 38 publications

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“…Other research has shown arterial occlusion to have no significant effect on muscleforce recovery in the plantar flexors. 22 In the same study, muscle oxygenation and force-production capacity were found to be only moderately correlated. This observation may have important ramifications when considering the effect of IPC on repeated-sprint ability, in so much as it may confer a benefit in sparing ATP while exerting no negative impact on force production.…”

Section: Discussionmentioning

confidence: 85%

Effect of Ischemic Preconditioning on Land-Based Sprinting in Team-Sport Athletes

Gibson¹,

White²,

Neish

et al. 2013

International Journal of Sports Physiology and Performance

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Results from the current study suggest there to be no benefit to team-sport players in using IPC as a means of enhancing sprint performance over a distance of 30 m. While IPC has been shown to be beneficial to sprint activities in other sports such as swimming, further research is required to elucidate whether this is the case over distances associated with land-based events in track and field or in events reliant on repeated-sprint ability.

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Section: Discussionmentioning

confidence: 85%

Effect of Ischemic Preconditioning on Land-Based Sprinting in Team-Sport Athletes

Gibson¹,

White²,

Neish

et al. 2013

International Journal of Sports Physiology and Performance

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“…Muscle O 2 kinetics and PCr resynthesis are also tightly linked (Kime et al, 2003 ). A high perfusion and reoxygenation rate of the active musculature during recovery periods, assessed via near-infrared spectroscopy (NIRS), is paramount to reproduce a high performance in a subsequent bout (Ufland et al, 2012 ). The delivery of O 2 is also highly sensitive to manipulations of environmental O 2 and compromised at altitude, which may contribute to impairment during repeated-sprint exercise (Billaut and Buchheit, 2013 ).…”

Section: Introductionmentioning

confidence: 99%

Variations in Hypoxia Impairs Muscle Oxygenation and Performance during Simulated Team-Sport Running

et al. 2017

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Purpose: To quantify the effect of acute hypoxia on muscle oxygenation and power during simulated team-sport running.Methods: Seven individuals performed repeated and single sprint efforts, embedded in a simulated team-sport running protocol, on a non-motorized treadmill in normoxia (sea-level), and acute normobaric hypoxia (simulated altitudes of 2,000 and 3,000 m). Mean and peak power was quantified during all sprints and repeated sprints. Mean total work, heart rate, blood oxygen saturation, and quadriceps muscle deoxyhaemoglobin concentration (assessed via near-infrared spectroscopy) were measured over the entire protocol. A linear mixed model was used to estimate performance and physiological effects across each half of the protocol. Changes were expressed in standardized units for assessment of magnitude. Uncertainty in the changes was expressed as a 90% confidence interval and interpreted via non-clinical magnitude-based inference.Results: Mean total work was reduced at 2,000 m (−10%, 90% confidence limits ±6%) and 3,000 m (−15%, ±5%) compared with sea-level. Mean heart rate was reduced at 3,000 m compared with 2,000 m (−3, ±3 min−1) and sea-level (−3, ±3 min−1). Blood oxygen saturation was lower at 2,000 m (−8, ±3%) and 3,000 m (−15, ±2%) compared with sea-level. Sprint mean power across the entire protocol was reduced at 3,000 m compared with 2,000 m (−12%, ±3%) and sea-level (−14%, ±4%). In the second half of the protocol, sprint mean power was reduced at 3,000 m compared to 2,000 m (−6%, ±4%). Sprint mean peak power across the entire protocol was lowered at 2,000 m (−10%, ±6%) and 3,000 m (−16%, ±6%) compared with sea-level. During repeated sprints, mean peak power was lower at 2,000 m (−8%, ±7%) and 3,000 m (−8%, ±7%) compared with sea-level. In the second half of the protocol, repeated sprint mean power was reduced at 3,000 m compared to 2,000 m (−7%, ±5%) and sea-level (−9%, ±5%). Quadriceps muscle deoxyhaemoglobin concentration was lowered at 3,000 m compared to 2,000 m (−10, ±12%) and sea-level (−11, ±12%).Conclusions: Simulated team-sport running is impaired at 3,000 m compared to 2,000 m and sea-level, likely due to a higher muscle deoxygenation.

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“…This study used a 2-wavelength, portable, continuous-wave NIRS system (Portamon, Artinis, Medical System, Zetten, Netherlands). The system utilized the modified Beer–Lambert and spatially resolved spectroscopy methods to measure changes in deoxyhemoglobin (HHb) and oxyhemoglobin (HbO 2 ) concentrations at 760 and 850 nm wavelengths ( Ufland, 2012 ; Ufland et al, 2012 ). Due to an overlap in wavelengths, myoglobin concentrations could not be separated from hemoglobin concentrations.…”

Section: Methodsmentioning

confidence: 99%

“…Each NIRS device had three fixed optode sets capable of penetrating 35 mm into the target tissue. A Portamon sensor was placed on the belly of the VL and medial forearm flexor muscles, primarily the flexor carpi radialis ( Ufland, 2012 ; Ufland et al, 2012 ). Each placement was measured, marked with permanent marker, and recorded during baseline testing to ensure placement consistency before each test.…”

Section: Methodsmentioning

confidence: 99%

“…Each placement was measured, marked with permanent marker, and recorded during baseline testing to ensure placement consistency before each test. The probe was attached to the skin using black kinesio-tape to prevent corruption of the signal from ambient light from the surrounding environment ( Ufland, 2012 ; Ufland et al, 2012 ). Skinfold thickness at the sight of probe application was taken using Lange skinfold calipers (Cambridge Scientific Industries, Cambridge, MA, United States) ( Shibuya and Tanaka, 2003 ; Felici et al, 2009 ; Ufland et al, 2012 ).…”

Section: Methodsmentioning

confidence: 99%

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Effects of Resting, Consecutive, Long-Duration Water Immersions on Neuromuscular Endurance in Well-Trained Males

et al. 2018

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Purpose: This study examined the effects of repeated long-duration water immersions (WI)s at 1.35 atmospheres absolute (ATA) on neuromuscular endurance performance. We hypothesized that, following 5 days of consecutive, resting, long-duration WIs, neuromuscular endurance performance would decrease.Methods: Fifteen well-trained, male subjects completed five consecutive 6-h resting WIs with 18-h surface intervals during the dive week while breathing compressed air at 1.35 ATA. Skeletal muscle endurance performance was assessed before and after each WI, and 24 and 72 h after the final WI. Muscular endurance assessments included 40% maximum handgrip endurance (MHE) and 50-repetition maximal isokinetic knee extensions. Near infrared spectroscopy was used to measure muscle oxidative capacity of the vastus lateralis and localized muscle tissue oxygenation of the vastus lateralis and flexor carpi radialis. Simultaneously, brachioradialis neuromuscular activation was measured by surface electromyography.Results: A 24.9% increase (p = 0.04) in the muscle oxidative capacity rate constant (k) occurred on WI 4 compared to baseline. No changes occurred in 40% MHE time to exhaustion or rate of fatigue or total work performed for the 50-repetition maximal isokinetic knee extension. The first quartile of deoxygenated hemoglobin concentration showed a 6 and 35% increase on WIs 3 and 5 (p = 0.026) with second quartile increases of 9 and 32% on WIs 3 and 5 (p = 0.049) during the 40% MHE testing when compared to WI 1.Conclusion: Our specific WI protocol resulted in no change to muscular endurance and oxygen kinetics in load bearing and non-load bearing muscles.

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Muscle force recovery in relation to muscle oxygenation

Cited by 11 publications

References 38 publications

Effect of Ischemic Preconditioning on Land-Based Sprinting in Team-Sport Athletes

Effect of Ischemic Preconditioning on Land-Based Sprinting in Team-Sport Athletes

Variations in Hypoxia Impairs Muscle Oxygenation and Performance during Simulated Team-Sport Running

Effects of Resting, Consecutive, Long-Duration Water Immersions on Neuromuscular Endurance in Well-Trained Males

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