The 4th Industrial Revolution describe this as part of a huge change in social, economic and society changes driven by rapid technology advances, changing environment, social and infrastructural changes.
Chemical modifications of RNA provide a direct and rapid way to manipulate the existing transcriptome, allowing rapid responses to the changing environment further enriching the regulatory capacity of RNA.
A tight coordination between protein synthesis and degradation is critical for rapid response to the changing environment and, therefore, is expected in dendritic changes.
In addition, due to the rapid changing business environment, the way an organisation conducts business and the consequent data also changes.
In many settings, it is desired to operate legged machines at high performance levels where rapid velocities and a changing environment make stability of utmost concern.
The broader regulation that can be achieved with the observed translational regulation may be especially appropriate to generate rapid responses to the changing environment, from the vector's gut to the mammalian host, affecting the infective MT stage.
Although epigenetic modifications previously were thought to be fixed during development and maintained over the lifetime, more recent research provides evidence that epigenetic mechanisms allow rapid adaptations to a changing environment and are responsive to signaling cascades [ 50, 51].
A wide range of upstream signaling molecules including the cell adhesion molecule E-cadherin, integrins, components of the ECM, or stimuli such as tumor necrosis factor alpha (TNF-α) and lysophosphatidic acid (LPA) are known in the transmission of extracellular signals to the actin cytoskeleton allowing rapid reactions to a changing environment.
Furthermore, unlike other cultivation-independent methods, SCG is well-suited to analyze genomic rearrangements, horizontal gene transfer and the organization of hereditary information in multiple DNA molecules in a cell, all of which likely play key roles in the non-Darwinian evolution of microorganisms and their rapid adaptation to a changing environment (Ochman et al., 2000; Shapiro, 2010).
The interaction of a stable genetic background with the rapidly changing environment has resulted in rapid changes in the prevalence of T2D observed over recent decades [ 14].
