Kristen J. Nowak
Ana C. Estrada
Milena B. Furtado
Lois Balmer, Edith Cowan UniversityFollow
Jeffrey W. Holmes
Nadia A. Rosenthal
Springer Nature in partnership with Australian Regenerative Medicine Institute
School of Medical and Health Sciences
...This work was supported by National Health and Medical Research Council (NHMRC) Australia Fellowship (546133, N.A.R.), Australian Research Council (ARC) Stem Cells Australia (SR1100102, N.A.R.), NHMRC/Heart Foundation Career Development Fellowship (1049980, M.R.), a trampoline grant from the Association Française contre les Myopathies (17822, K.J.N.), an Australian Research Council Future Fellowship (FT100100734, K.J.N.), an NHMRC Program Grant (1037321, G.M.), an NHMRC Project Grant (1069173, G.M.), and the Diabetes Research Foundation of WA (G.M.), a United States National Institutes of Health Research Grant (R01HL116449, J.W.H.).
NHMRC Number : 1037321
Clinical variation in patient responses to myocardial infarction (MI) has been difficult to model in laboratory animals. To assess the genetic basis of variation in outcomes after heart attack, we characterized responses to acute MI in the Collaborative Cross (CC), a multi-parental panel of genetically diverse mouse strains. Striking differences in post-MI functional, morphological, and myocardial scar features were detected across 32 CC founder and recombinant inbred strains. Transcriptomic analyses revealed a plausible link between increased intrinsic cardiac oxidative phosphorylation levels and MI-induced heart failure. The emergence of significant quantitative trait loci for several post-MI traits indicates that utilizing CC strains is a valid approach for gene network discovery in cardiovascular disease, enabling more accurate clinical risk assessment and prediction.
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