Exploiting interrelated genomic, biochemical, nutritional and pathophysiological data to optimize athletic performance (Review)

The present review describes a multidimensional approach for enhancing athletic performance through the integration of innovative and interrelated methodologies. In this respect, telomere dynamics, genotyping/phenotype analysis, metabolomics, biochemical tests, essential elements quantitation, echocardiography and burnout testing are jointly employed to provide a comprehensive assessment of athlete health wellness and longevity. Telomere analysis as a biomarker of effect provides novel insight into cellular dynamics, aging and adaptability, elucidating the impact of training on cellular well‑being. Genotype/phenotype analysis reveals genetic variances related to athletic performance (i.e., strength, flexibility, endurance, power, VO2 max), injury predisposition and recovery needs, facilitating the customization of training programs and interventions. Metabolomics provides a detailed overview of low‑molecular weight metabolites, revealing pivotal metabolic pathways and responses to exercise. Biochemical tests critically evaluate markers associated with energy metabolism, inflammation and recovery, providing crucial information for tailored performance optimization. Essential elements quantitation assesses micronutrient status, a vital factor for sustained peak performance. Echocardiography enables the assessment of cardiac structure and function, fine‑tuning cardiovascular performance for superior athletic output and for early detection of underlying abnormalities. Burnout testing evaluates psychological stress, fatigue levels and readiness for optimal performance, ensuring holistic well‑being. By integrating these advanced scientific methodologies, this approach yields a comprehensive understanding of athlete health. This, in turn, informs personalized interventions in training, nutrition, supplementation, injury prevention and mental wellness. Through evidence‑based, personalized strategies, this rigorous scientific framework holds significant promise in advancing athletic performance and longevity, propelling the field of sports performance optimization, and unlocking athletic excellence.

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Publication Details

Journal
World Academy of Sciences Journal
Published
2025-04-01
DOI
https://doi.org/10.3892/wasj.2025.340
Citations
3
Primary Topic
Genetics and Physical Performance
Type
article
Field-Weighted Citation Impact
5.45
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article

Exploiting interrelated genomic, biochemical, nutritional and pathophysiological data to optimize athletic performance (Review)

Irene Fragkiadoulaki, Alexander E. Nosyrev, Marios Spanakis, Emmanouil Tzatzarakis et al.
3 citations
World Academy of Sciences Journal
Genetics and Physical Performance
5.45
article

Exploiting interrelated genomic, biochemical, nutritional and pathophysiological data to optimize athletic performance (Review)

Irene Fragkiadoulaki, Alexander E. Nosyrev, Marios Spanakis, Emmanouil Tzatzarakis, Elena Vakonaki, Nikolaos Drakoulis, Aristidis Tsatsakis, Stella Baliou, Elisavet Renieri, Persefoni Fragkiadaki
article en
3 citations

Abstract

The present review describes a multidimensional approach for enhancing athletic performance through the integration of innovative and interrelated methodologies. In this respect, telomere dynamics, genotyping/phenotype analysis, metabolomics, biochemical tests, essential elements quantitation, echocardiography and burnout testing are jointly employed to provide a comprehensive assessment of athlete health wellness and longevity. Telomere analysis as a biomarker of effect provides novel insight into cellular dynamics, aging and adaptability, elucidating the impact of training on cellular well‑being. Genotype/phenotype analysis reveals genetic variances related to athletic performance (i.e., strength, flexibility, endurance, power, VO2 max), injury predisposition and recovery needs, facilitating the customization of training programs and interventions. Metabolomics provides a detailed overview of low‑molecular weight metabolites, revealing pivotal metabolic pathways and responses to exercise. Biochemical tests critically evaluate markers associated with energy metabolism, inflammation and recovery, providing crucial information for tailored performance optimization. Essential elements quantitation assesses micronutrient status, a vital factor for sustained peak performance. Echocardiography enables the assessment of cardiac structure and function, fine‑tuning cardiovascular performance for superior athletic output and for early detection of underlying abnormalities. Burnout testing evaluates psychological stress, fatigue levels and readiness for optimal performance, ensuring holistic well‑being. By integrating these advanced scientific methodologies, this approach yields a comprehensive understanding of athlete health. This, in turn, informs personalized interventions in training, nutrition, supplementation, injury prevention and mental wellness. Through evidence‑based, personalized strategies, this rigorous scientific framework holds significant promise in advancing athletic performance and longevity, propelling the field of sports performance optimization, and unlocking athletic excellence.

World Academy of Sciences JournalVol. 7(4)
University of Crete (GR), Sechenov University (RU), National and Kapodistrian University of Athens (GR)
Zero hunger
Openalex Percentile: Top 5%
Genetics and Physical Performance
5.45
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