Key result
Highly elite strength athletes had a significantly higher prevalence of carrying ≥26 strength-related alleles compared with Russian controls (84.8% vs 26.3%; OR 15.6, p<0.0001).
Why the study?
Is the carriage of a high number of strength-related alleles associated with elite strength athlete status?
Case-Control (n=795)
Yes
Is the carriage of a high number of strength-related alleles associated with elite strength athlete status?
Odds Ratio: 15.6
Absolute Event Rate: 84.8% vs 26.3%
p-value: p=<0.0001
The likelihood of becoming an elite strength athlete is strongly associated with carrying a high number of specific strength-related alleles.
High polygenic load may aid talent identification in strength sports; leaves open generalizability and predictive utility.
Moreland, E, Borisov, OV, Semenova, EA, Larin, AK, Andryushchenko, ON, Andryushchenko, LB, Generozov, EV, Williams, AG, and Ahmetov, II. Polygenic profile of elite strength athletes. J Strength Cond Res 36(9): 2509-2514, 2022-Strength is a heritable trait with unknown polygenic nature. So far, more than 200 DNA polymorphisms associated with strength/power phenotypes have been identified majorly involving nonathletic populations. The aim of the present study was to investigate individually and in combination the association of 217 DNA polymorphisms previously identified as markers for strength/power phenotypes with elite strength athlete status. A case-control study involved 83 Russian professional strength athletes (53 weightlifters, 30 powerlifters), 209 Russian and 503 European controls. Genotyping was conducted using micro-array analysis. Twenty-eight DNA polymorphisms (located near or in ABHD17C , ACTG1 , ADCY3 , ADPGK , ANGPT2 , ARPP21 , BCDIN3D , CRTAC1 , DHODH , GBE1 , IGF1 , IL6 , ITPR1 , KIF1B , LRPPRC , MMS22L , MTHFR , NPIPB6 , PHACTR1 , PLEKHB1 , PPARG , PPARGC1A , R3HDM1 , RASGRF1 , RMC1 , SLC39A8 , TFAP2D , ZKSCAN5 genes) were identified to have an association with strength athlete status. Next, to assess the combined impact of all 28 DNA polymorphisms, all athletes were classified according to the number of "strength" alleles they possessed. All highly elite strength athletes were carriers of at least 22 (up to 34) "strength" alleles, whereas 27.8% of Russian controls had less than 22 "strength" alleles ( p < 0.0001). The proportion of subjects with a high (≥26) number of "strength" alleles was significantly greater in highly elite strength athletes (84.8%) compared with less successful strength athletes (64.9%; odd ratio [OR] = 3.0, p = 0.042), Russian (26.3%; OR = 15.6, p < 0.0001) or European (37.8%; OR = 6.4, p < 0.0001) controls. This is the first study to demonstrate that the likelihood of becoming an elite strength athlete depends on the carriage of a high number of strength-related alleles.
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Moreland et al. (2020) conducted a case-control in Elite strength athlete status (n=795). Highly elite strength athlete status vs. Russian controls was evaluated on Carriage of a high (≥26) number of strength-related alleles (OR 15.6, p=<0.0001). Highly elite strength athletes had a significantly higher prevalence of carrying ≥26 strength-related alleles compared with Russian controls (84.8% vs 26.3%; OR 15.6, p<0.0001).
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