Ribosome biogenesis is a fundamental process required for cellular adaptation to changing environments, responses to changes in cellular growth rate and metabolic activity, and proliferation.
This increased cellular PAR formation may play an important role in various nucleolar processes, including ribosome biogenesis, suggesting that PARP-2 activity regulated by RNA is an essential factor in nucleolar functions such as cellular adaptation to changing environments, response to changes in cellular growth rate and metabolic activity, and proliferation.
These two changes can impair adaptation to changing environments and may be considered a loss of evolutionary potential [6], [7].
This work has provided a view of bacterial pathogen evolution, involving the diversification of closely related subspecies, that suggests adaptation to changing environments and new hosts involves changes in gene content, as well as selection of orthologous protein-coding loci and operon promoters.
Reduced genetic diversity contributes to weak adaptation to changing environments.
A variety of coping strategies, scientists speculate, may allow adaptation to changing environments, favoring species survival.
We then consider how this interplay impacts a variety of phenomena, such as pathogenicity, disease, adaptation to changing environments, differential cell-fate outcome and incomplete or partial penetrance effects.
These include: the ability to estimate the true classification error rate, the classifier transparency, the computational complexity of the learning scheme and the potential for adaptation to changing environments and new classes of data.
Sexual reproduction is critical for successful evolution of eukaryotic organisms in adaptation to changing environments.
