An emerging research focus on within-person brain signal variability is providing novel insights, and offering highly predictive, complementary, and even orthogonal views of brain function in relation to human lifespan development, cognitive performance, and various clinical conditions.
Also, our observations are generally in line with other gene expression studies, where lower expression levels of reproduction or cell-cycle genes were found in relation to longer lifespan ([ 1, 45, 50, 51], but see [ 38]).
The seed production potential of plants has often been studied in relation to three connected characteristics: lifespan, self-incompatibility, and genetic load (the presence of deleterious recessive alleles in a population).
Below we first address how this result relates to earlier studies on the genetic architecture of lifespan, and then discuss our findings in relation to theories for sexual dimorphism in lifespan.
Therefore, this review will seek to discuss the hypertrophic, degradative and sirtuin pathways in relation to their modulatory regulation of lifespan, healthspan and muscle cell survival particularly in inflamed aged environments.
More generally, the limited data available on adult survival rates are equivocal in relation to the idea that long lifespan is linked to slow development, thus long EDPs and their predictors.
There are animals that have wildly varying lifespans in relation to each other.
On its website, the Whitegoods Trade Association (WTA) openly acknowledges that the average lifespan has dropped in relation to prices.
We described the effects of the gene on lifespan only through its relation to elevated risk for CVD.
We therefore developed a novel Drosophila melanogaster model of sepsis to recapitulate the clinical course of sepsis, explored inflammation over time, and its relation to impaired mobility, metabolic disturbance, and changes in lifespan.
