This paradox that fewer benthic organisms bioluminesce, but they do so more frequently may be explained by how the phenomenon is triggered.
The phenomenon is triggered only under certain conditions: emission of SVOCs (e.g. from refurbished materials), low ventilation rates, high temperature gradients (e.g. above lamps or radiators), and, naturally, the presence of PM.
Although it is described by neurological and psychiatric patients [1, 2] and healthy individuals in different situations [1, 3, 4], it is not yet understood how the phenomenon is triggered by the brain.
This phenomenon is triggered by environmental cues that begin a cascade of complex physiological, morphological, and behavioral changes, collectively called a "migratory syndrome" (Dingle 2006).
These phenomena are triggered off in a reproducible manner under laboratory conditions.
The occurrence of these phenomena is triggered by various intracellular signalling pathways.
Rather, waves of TE propagation are thought to coincide with speciation because both phenomena are triggered by the division of large populations into small sub-populations (demes) in which drift is important.
However, the starting points for each of the processes: rapid Rg growth, abrupt α-helix downfall and sharp loss of solutions transparency, take place at particular surfactant concentrations, regardless of whether these phenomena are triggered by oxyC4 or oxyC8 surfactant.
More specifically, these resonance phenomena are triggering inner "processes" that give rise to experiences similar to ones that I have when I engage in various activities involving the movement of my body.
