To quantify how total cluster translation, rotation, scaling and deformation contribute to STA, a resizable and deformable cluster model was constructed.
The purpose of this study is to describe and quantify which components of this marker motion (cluster translation, rotation, scaling and deformation) contribute to STA during the stance phase of walking, a cutting manoeuvre, and one-legged hops.
The results of the current study indicate that procedures designed to account for cluster translation and rotation during human movement are required to correctly represent the motion of body segments, however reducing marker cluster scaling and deformation will have little effect on STA.
The results show an increasing tendency over time in the expression profile of genes associated with oxidation-reduction processes and glutathione metabolic processes (cluster 3), translation activity and the ribosome (cluster 2).
Among the 26 COG categories, the cluster for "Translation" (5,939) represented the largest group, followed by "Post-translational modification, protein turnover, chaperon" (5,713), "General Functional Predication only" (4,921), and "Signal Transduction" (4,364).
Genes of this family cluster with translation genes.
Similarly, in the SGIV infected library, the cluster for "translation, ribosomal structure and biogenesis" represented the largest group (172 ESTs) followed by "general function prediction" and "posttranslational modification, protein turnover, chaperones" clusters.
> The same analysis was applied to the co-expression cluster of genes involved in translation (Cluster K1).
> Both algorithms were applied to the cluster of co-expressed genes involved in translation (Cluster K1).
To determine the effects, if any, of these rare codon clusters on tailspike translation, E. coli cells over-expressing N-terminally His-tagged tailspike were analyzed for translational pauses.
