Neuroplasticity can be understood as the sustaining fluidity that prevents cognition from hardening into irrelevance. If entropy pushes all systems toward rigidity, decay, and eventual failure, then neuroplasticity operates as a countervailing process—not by reversing entropy, but by enabling continuous structural reconfiguration in response to it. The “dew” metaphor captures this precisely: a subtle, recurring replenishment that preserves adaptability without resisting the broader thermodynamic flow.
The hypothesis proposes that cognition does not remain viable through stability, but through controlled instability. Neural pathways that are repeatedly reinforced become efficient but brittle; they reduce processing cost while increasing vulnerability to environmental change. Neuroplasticity interrupts this brittleness by allowing pathways to weaken, dissolve, and reform. This dynamic turnover maintains a state of readiness, ensuring the system can absorb novelty rather than fracture under it.
Importantly, this process is metabolically and behaviorally dependent. Plasticity is not constant; it is modulated by attention, stress, novelty, and environmental engagement. Without sufficient “dew”—that is, without exposure to variation or the internal permission to reorganize—the system begins to calcify. Perception narrows, predictions become rigid, and error signals are suppressed rather than integrated.
Thus, neuroplasticity is less a feature and more a maintenance cycle. It does not make the system stronger in a static sense; it keeps it permeable. In a universe defined by irreversible change, the capacity to remain fluid becomes the closest approximation to resilience.

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