Semi-dynamic CAs adapt fast to the changes in the traffic pattern and the interference on the wireless medium from both internal and external sources.
The paradox for many species, however, is that they need to adapt fast to a plethora of stressors related to global change while suffering population declines as a consequence of global change itself.
A large amount of genetic variation that is present but invisible at the phenotypic level (i.e. cryptic variation) enables populations to adapt faster to environmental change (Le Rouzic and Carlborg 2008; Wagner 2011, 2012; Masel 2013).
For some researchers, it is possible that sensitive species, including species with TSD, will not be able to adapt fast enough to the changes in temperature due to global warming [ 200, 204], these changes being characterized by their fast pace [ 199].
However, certain sensitive species, including species with TSD, may not be able to adapt fast enough to the changes in temperature due to global warming.
Fish species with geographical ranges that span large temperature gradients or with relatively short re-generation times are more likely to adapt fast enough to moderate climate change impacts.
Thus, it has been suggested that sensitive species, including species with TSD, could not adapt fast enough to the rapid change in temperatures brought by the new thermal situation [3].
Whereas four papers focus on emissions mitigation policies, one paper examines challenges to adapt fast growing transport infrastructures to future climate change induced risks.
Behavioural results indicate that participants used instructions to adapt their behaviour faster to changes in the environment when instructions indicated that negative feedback was more informative, even if it was simultaneously less surprising.
These above mentioned changes are, however, restricted to life history and behavioral defenses, with especially the latter considered to adapt fast and reversibly [ 33, 34].
But it will have to adapt fast.
