bioRxivEvolutionary Biology
CaMKII oxidation is a performance/disease trade-off in vertebrate evolution
Q. Wang, E. O. Hernandez-Ochoa, M. C. Viswanathan, I. D. Blum, J. M. Granger, K. R. Murphy, A.-C. Wei, S. Aja, N. Liu, C. M. Antonescu, L. D. Florea, C. C. Talbot, D. Mohr, K. R. Wagner, S. Regot, R. M. Lovering, M. N. Wu, A. Cammarato, M. F. Schneider, G. S. Bever, M. E. Anderson
Abstract
Reactive oxygen species (ROS) contribute to health and disease. CaMKII is a widely expressed enzyme whose activation by oxidation of regulatory domain methionines (ox-CaMKII) contributes to cardiovascular disease, asthma, and cancer. Here we integrate comparative genomic and experimental data to show that CaMKII activation by ROS arose more than half-a-billion years ago on the vertebrate stem lineage where it constituted a bridge between ROS and increased intracellular Ca2+ release, exercise responsive gene transcription, and improved performance in skeletal muscle. These enhancements to fight-or-flight physiology were likely key in facilitating a well-evidenced shift in the behavioural ecology of our immediate chordate ancestors, and, in turn, the evolutionary success of vertebrates. Still, the ox-CaMKII innovation for augmenting performance must be considered a critical evolutionary trade-off, as it rendered us more susceptible to common and often fatal diseases linked to excessive ROS.
- organism: multiple species
- research focus: development & morphogenesis
- research focus: host-pathogen & immune response
- approach: experimental assay
- approach: comparative / phylogenetic analysis
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