DocumentCode
3319171
Title
Notice of Retraction
Why Athletes Do Not Negative Split Some Endurance Events: A Thermodynamics-Based Explanation
Author
Simeoni, R.J.
Author_Institution
Sch. of Physiotherapy & Exercise Sci., Griffith Univ., Gold Coast, QLD, Australia
fYear
2011
fDate
10-12 May 2011
Firstpage
1
Lastpage
4
Abstract
Notice of Retraction
After careful and considered review of the content of this paper by a duly constituted expert committee, this paper has been found to be in violation of IEEE\´s Publication Principles.
We hereby retract the content of this paper. Reasonable effort should be made to remove all past references to this paper.
The presenting author of this paper has the option to appeal this decision by contacting TPII@ieee.org.
The study expands upon a thermodynamics-based model that considers the work associated with gas pressure, volume and temperature changes for the glucose-based equation of respiration to accurately predict the slow component of oxygen uptake kinetics. The extended model, when applied to physiological data for endurance events, further supports model efficacy by its prediction of maximum velocities in swimming and quantitative explanation of observed race splitting strategies. The model suggests that athletes often effectively negative split an endurance race, even when recorded times indicate that an even or positive split strategy has been employed. Viz., athletes often essentially maintain constant maximal steady-state effort for which constant oxygen consumption leads to a gradual decrease in velocity due to an unavoidable loss of efficiency as calculated by the model. Any final stage surge then results in an "effective" negative spilt since effort prior to the surge is approximately constant.
After careful and considered review of the content of this paper by a duly constituted expert committee, this paper has been found to be in violation of IEEE\´s Publication Principles.
We hereby retract the content of this paper. Reasonable effort should be made to remove all past references to this paper.
The presenting author of this paper has the option to appeal this decision by contacting TPII@ieee.org.
The study expands upon a thermodynamics-based model that considers the work associated with gas pressure, volume and temperature changes for the glucose-based equation of respiration to accurately predict the slow component of oxygen uptake kinetics. The extended model, when applied to physiological data for endurance events, further supports model efficacy by its prediction of maximum velocities in swimming and quantitative explanation of observed race splitting strategies. The model suggests that athletes often effectively negative split an endurance race, even when recorded times indicate that an even or positive split strategy has been employed. Viz., athletes often essentially maintain constant maximal steady-state effort for which constant oxygen consumption leads to a gradual decrease in velocity due to an unavoidable loss of efficiency as calculated by the model. Any final stage surge then results in an "effective" negative spilt since effort prior to the surge is approximately constant.
Keywords
biomechanics; biothermics; oxygen; pneumodynamics; thermodynamics; athletes; constant maximal steady-state effort; endurance events; gas pressure; glucose-based equation; oxygen consumption; oxygen uptake kinetics; physiological data; race splitting; respiration; swimming; thermodynamics-based explanation; Blood; Engines; Equations; Mathematical model; Predictive models; Steady-state; Surges;
fLanguage
English
Publisher
ieee
Conference_Titel
Bioinformatics and Biomedical Engineering, (iCBBE) 2011 5th International Conference on
Conference_Location
Wuhan
ISSN
2151-7614
Print_ISBN
978-1-4244-5088-6
Type
conf
DOI
10.1109/icbbe.2011.5780117
Filename
5780117
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