The capacity of the kidney to adjust to variation in intake of salt, potassium, and water becomes progressively impaired, so that electrolyte disturbances are common.
Humans can adjust to variation, but robots usually cannot.
Stimulus generalization, or the ability to decide that two objects, though readily distinguishable, are similar enough to afford the same consequence [1], could help animals adjust to variation in odor signals without losing sensitivity to key inter-stimulus differences.
Learning allows individuals to adjust to variation in their environment.
A redundant handover system that can effectively adjust to variation in patients' ability, resources and preferences for active participation in the handover may be the optimal solution to enhance patient safety.
It is possible that the decision rules each species uses may be adjusted to variation in mean species abundance in order for individuals to maintain the same overall flock-level response.
In this section, we study the ability of the CA-FEI scheme to continuously adjust to variations of the traffic load distribution.
Plants adjust to variations in resource availabilities by variable partitioning to root and shoot growth [1], [2].
Normal human chondrocytes adjust to variations in the extracellular glucose concentration by modulating GLUT-1 synthesis and degradation which involves the lysosome pathway.
The present study has shown that normal human chondrocytes adjust to variations in the extracellular glucose concentration by modulating GLUT-1 synthesis and degradation through the lysosome pathway.
Thus far, little is known regarding the ability of chondrocytes to adjust to variations in the extracellular glucose concentration, resulting from hypoglycemia and hyperglycemia episodes, and so, to avoid deleterious effects resulting from deprivation or intracellular accumulation of glucose.
