Cell Reports · 2019 · 185 citations · 37 references
EducationGeneticsMolecular BiologyAgingGene ExpressionGerontologyAge-related Physiologic ChangesAge-related Physiological ChangesAging PhysiologyBiological AgingCellular AgingGenetics Of AgingAge-related PhysiologyAging-related PathologyAging-related Tissue DeclineChronological Age EffectsPhysiological Changes In AgingTranscriptional Activation
To understand the changes in gene expression that occur as a result of age, which might create a permissive or causal environment for age-related diseases, we produce a multi-time point age-related gene expression signature (AGES) from liver, kidney, skeletal muscle, and hippocampus of rats, comparing 6-, 9-, 12-, 18-, 21-, 24-, and 27-month-old animals. We focus on genes that changed in one direction throughout the lifespan of the animal, either early in life (early logistic changes), at mid-age (mid-logistic), late in life (late-logistic), or linearly, throughout the lifespan of the animal. The pathways perturbed because of chronological age demonstrate organ-specific and more-global effects of aging and point to mechanisms that could potentially be counter-regulated pharmacologically to treat age-associated diseases. A small number of genes are regulated by aging in the same manner in every tissue, suggesting they may be more-universal markers of aging.
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