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FEATURES OF NEURONAL METABOLISM OF THE BRAIN OF ATHLETES WITH DIFFERENT TYPES OF AUTONOMIC REGULATION OF CARDIAC RHYTHM DURING SUBMAXIMUM POWER TESTING

Biological Sciences , UDC: 612.822.3; 612.822.81; 796.332 DOI: 10.24412/2076-9091-2026-363-109-128

Authors

  • Terekhov Pavel Alexandrovich Doctor of Biological Sciences, Associate Professor Russian Federation Smolensk
  • Kindyukhin Egor Alexandrovich Russian Federation Smolensk
  • Efremenkov Evgeny Konstantinovich Russian Federation Smolensk

Annotation

This article presents the results of a study of neuronal metabolism in the brain of athletes with different types of autonomic heart rate regulation during submaximal power testing. Twenty-four Smolensk football Candidate Masters of Sports participa- ted in the study. It was found that at the beginning of the experiment, the standard load did not significantly increase the athletes’ omega potential or change the dynamic charac- teristics of interhemispheric asymmetry, which was considered a sign of neurophysiological stability in their cerebral metabolism. The training process resulted in a significant increase in submaximal power in all athlete groups. The degree of acidosis of various origins was de- termined by the severity of the dominant autonomic heart rate regulation circuit, rather than by the level of increase in specific performance during bicycle ergometric testing. In athle- tes with a moderate predominance of autonomic and central mechanisms (types III and I), physical exercise did not disrupt the domed distribution of omega potential; an adaptive response was observed, shifting from the dominant hemisphere to the subdominant hemi- sphere. In contrast, in extreme forms of autonomic support (types IV and II), hypertrophied and reduced responses were observed, with no change in the interhemispheric gradient when recording the maximum level of neuronal metabolism in the occipital region. Physiological (types III and I) autonomic regulation of heart rate proved to be the most resistant to cerebral hypoxia caused by submaximal exercise.

How to link insert

Terekhov, P. A., Kindyukhin, E. A. & Efremenkov, E. K. (2026). FEATURES OF NEURONAL METABOLISM OF THE BRAIN OF ATHLETES WITH DIFFERENT TYPES OF AUTONOMIC REGULATION OF CARDIAC RHYTHM DURING SUBMAXIMUM POWER TESTING Bulletin of the Moscow City Pedagogical University. Series "Pedagogy and Psychology", 3 (63), 109-128. https://doi.org/10.24412/2076-9091-2026-363-109-128
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