In transition management, experimenting is a vital activity.
The phase transition in the UChicago experiment is more exotic: In the experiment, cesium atoms transform from a gas to a superfluid, a form of matter that exists only at temperatures of hundreds of degrees below zero.
Specifically, since almost all base substitutions in our experiment were transitions (99.5%), we calculated the neutral mutation rate of each of the four bases to its partner (A→G, G→A, C→T, and T→C) using the observed synonymous mutations in our experiment.
We developed a scheme in which the momentum compaction factor of the machine was changed as the antiprotons were decelerated, so that the energies of interest to the experiment were kept above transition.
The significance of this experiment is that the transition between two stable states of the GRN is much sharper with respect to the intracellular stimuli, i.e., performance can be adjusted by special input.
The experiment is about actual threshold determinations at body segment transitions.
Since Swi6 is known to be important for the G1/S transition, the expression in these specific experiments was examined more closely (noted in Figure 3).
As thermal transitions in the DSC experiments are not reversible, binding data cannot be deconvoluted to derive binding constants.
As in the case of the (global) MS data, the transition points obtained from isobaric experiments are in quantitative agreement with the isothermal experiments, thus linking the typical surface science (isothermal) approach and the typical technical catalysis (isobaric) approach.
The channel conductance transitions of TtOmp85 in our experiments were not distributed around a single, distinct peak value possibly because of the superposition of open states that range from rather constricted to more dilated ion pathways, generating a kind of continuous distribution.
