If these cells are energetically compromised, this could perturb vascular tone and impede the ability of the vascular smooth muscle cells to adapt to alteration in the microenvironment, also known as functional hyperaemia.
These units work in a perfectly synchronized manner to regulate the central nervous system (CNS) biochemical and physiological processes involved in cerebral blood flow, brain energetics, blood brain barrier (BBB) properties, brain development and in responding and adapting to alterations in several systemic physiological and pathophysiological alterations [ 1, 3, 8, 12- 15].
We should, therefore, be especially concerned about the possible effects of EDCs on the ability of Arctic marine mammals and seabirds to adapt to environmental alterations caused by climate change.
Since many wildlife species are unable to adapt to these alterations in their environment, urbanization is commonly responsible for a decline of biodiversity in areas of urban development.
Discussed is the plasticity of carbon metabolism, by which the cyanobacterial cells flexibly distribute intracellular carbon fluxes towards target products and adapt to environmental/genetic alterations.
The changes in these characteristics, when the cells adapt to deliberate alterations in such environmental parameters as light intensity, nutrient supply, temperature, salinity, rate of flow and concentration of pollutants, can be studied readily (e.g. Droop 1968; Geider et al. 1996; Stramski et al. 2002; Okay et al. 2003).
Current efforts mainly investigate optimization during resting conditions; however, there is a need to develop automated algorithms to implement dynamic optimization in order to adapt to physiological alterations during exercise and after anatomical remodeling.
Although current efforts mainly investigate optimization during resting conditions, there is a need to develop automated algorithms to implement dynamic optimization in order to adapt to physiological alterations during exercise and after anatomical remodeling.
The unfolded protein response (UPR) is an intracellular signaling pathway that coordinates the ER protein-folding demand with protein-folding capacity and is essential to adapt to homeostatic alterations that cause protein misfolding.
