Using a range of computational tools and resources, we have compiled information on all experimentally annotated changes in enzyme function within 379 structurally defined protein domain superfamilies, linking the changes observed in functions during evolution to changes in reaction chemistry.
The annotated changes (testing, adapting and implementing new processes of care) are linked to designed tests of change which are special (assignable) causes of variation, in this case, to improvement after week 15, after which a new better stable process has taken hold.
To identify possible transcription factors that could be active in mediating these gene expression changes, we annotated fold change results for each model using TRANSFAC (Additional file 2, 3).
Operations on the displayed Kinemage could be rotated in real time, parts of the display could be turned on or off, points could be identified and annotated, and changes between different forms could be animated.
The expression levels of 867 annotated genes changed as a result of ADAR1 knockdown by at least 1.5 fold.
We also annotated fold change differences between each model using gene ontologies (Additional files 2, 3).
The process described here has been incorporated into regular RefSeq processing: it is run regularly in response to newly annotated genome assemblies, changes in the gene membership of ortholog sets, and changes (updates and additions) to the protein products of each gene.
As a result, pages of ideas were found for the two unrelated solo songs, heavily annotated with the changes that were made to incorporate them into King Olaf.
They found pages of ideas for the two unrelated solo songs, heavily annotated with the changes that were made to incorporate them into King Olaf.
However, comparative TAM and EE studies using comparable designs and models identified conserved functionally annotated gene expression changes that are consistent with the measured uterotrophic response.
In AD affected CPE, we found and annotated specific cellular changes probably due to increased oxidative stress, such as the unfolded protein response, E1F2 and NRF2 signalling and the protein ubiquitin pathway.
