The branches have the same open, glass-walled design, and a red C on most everything from pens to coloring books.
Actually, the two branches have the same goal, that of optimizing the performance of thermal machines and they were developed almost in parallel.
This branch (branch number five) is said to have a foreground rate, while all the other branches have the same background rate.
Under the MC model, the branches have the same length (1 1 ratio) because the divergence time from the common ancestor is obviously the same for both sister genomes.
Since the two branches have the same function of activating TRAF6, and we focus on the overall dynamical behavior of the LPS-mediated NF-κB pathway, it is not necessary to distinguish the two branches explicitly.
In the first case, it was assumed that all the branches have the same dN/dS (model = 0), while in the second case two different dN/dS ratios were allowed for Epipogium and non- Epipogium branches (model = 2).
For M2 H0 the foreground ω (branch tested) is fixed at 1; (omega = 1; fix_omega = 1); for M2 H1 ω is estimated from the data (omega = 0); for M3 H0 all branches have the same distribution of ω (see Table 4, "M3" for values); for M3 H1 the branch values are estimated independently from the data.
Although rustling foliage is efficiently filtered out by our algorithms, the motion of the tree branches has the same speed and amplitude characteristics as the objects to be detected (e.g., humans).
The branches holding AY283555.1 and isolated B. bassiana strain were originated from a single node, containing a bootstrap value of 99, where both branches had the same length and described that both had been evolved from same ancestor, with exactly equal and same genetic changes (Fig. 4).
Firstly, we compared a model in which all branches had the same dN/dS ratio of 1, in which each branch had its own ratio, to determine whether it was appropriate to use branch-specific tests for selection.
