During the learning, a mouse is headfixed on a turntable and phase adaptation is achieved by an in-phase table and drum rotation in the light.
It results that a phase adaptation of the equalizer coefficient has to be undertaken to ensure a convergence toward the expected value, leading to the proposed phase adaptation procedure (PAP).
We then investigated PC spiking patterns in PC-ΔPP2B mice before and after VOR phase adaptation training (naïve mice: n = 3, n of PCs = 9; trained mice: n = 6, n of PCs = 12).
With the exception of the exposure to short optokinetic stimulation during the recording sessions, trained animals were kept and transported in and out of the setup in the dark during the experiments to prevent loss of the acquired phase adaptation.
Each period was divided into 4 phases: adaptation, d 1 to 12; baseline, d 13 to 14; challenge, d 15 to 19; and recovery, d 20 to 26.
As expected, a rapid amplitude decrement of the responses in the train was obtained and a three phase adaptation was described.
This experiment consisted of three phases; adaptation (P1), two-choice testing (P2) and multiple-choice testing using a chequerboard design (P3).
Second, multi-phase adaptation cases, i.e. making the system more robust, redundant and responsive are explained to discuss different strategies to enhance the resilience of the electricity network.
Additionally, we apply user-specific phase adaptation.
The growth curves show an initial lag phase (adaptation) that had a longer time in the presence of the extracts (48 h) than in the control assay (24 h), followed by a linear growth.
During the initial phase, adaptation of endophytes ranged from 5 to 8 days at 30°C and up to 12 days at 20°C, which can be due to cellular metabolism at lower temperature (Figure 2).
