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1 l role in regulating ciliogenesis throughout Eukaryota.
2 parasite and the earliest branching clade of eukaryota.
3 the other domains of life-Archaebacteria and Eukaryota.
4 one of the most common DNA-binding motifs in Eukaryota.
5 Z homologues from the Bacteria, Archaea, and Eukaryota.
6 viruses, bacteria, archae, mitochondria, and eukaryota.
7 ee kingdoms of life: Eubacteria, Archaea and Eukaryota.
8 d DNA break repair in Archaea, Bacteria, and Eukaryota.
9 ation during generative cells development in Eukaryota.
10 ssive ribonucleoprotein complex found across Eukaryota.
11 ty of cytoplasmic inheritance systems across Eukaryota.
12 nce against transposable elements across the Eukaryota.
13 s the domains of life: Bacteria, Archaea and Eukaryota.
14 thologs for over 1800 genomes, including 226 Eukaryota, 1447 Bacteria, 113 Archaea and 21 Viruses.
15 tein domain is conserved across bacteria and eukaryota and coordinates extrahelical or "flipped" DNA
16  in the late 1950s, is widely distributed in eukaryota and eubacteria.
17              Their coding genes exist in all eukaryota and in several prokaryota.
18 e major superkingdoms (Bacteria, Archaea and Eukaryota) and documented conserved and specific DBD occ
19 three domains of life (Bacteria, Archaea and Eukaryota), and used phylogenies to polarize amino acid
20 le-proteome FFP trees (i) Archaea, Bacteria, Eukaryota, and a random sequence outgroup are clearly se
21 r phylogenies were introduced after Archaea, Eukaryota, and Bacteria had diverged from one another.
22 12 131 species across Archaea, Bacteria, and Eukaryota, and offers advanced features such as count pr
23  regulation for all three divisions of life: Eukaryota, Archaea and Bacteria.
24 tely 99.9% of databased COX I sequences from Eukaryota, Archaea, and Bacteria.
25  TF paralogs, drawing on studies from across Eukaryota but with a special emphasis on the plant kingd
26  one gene supported the tree where Gram+ and Eukaryota define one clade.
27 s supported the one where Gramminus sign and Eukaryota form a clade, and one gene supported the tree
28 he nuclear envelope segregates the genome of Eukaryota from the cytoplasm.
29 three domains of life (Archaea, Bacteria and Eukaryota:Fungi) in soil samples taken from the forest e
30  genes significantly supported the (Archaea, Eukaryota) (Gram+, Gramminus sign) topology, two genes s
31 le proteins of multiple organisms, including Eukaryota, Homo sapiens, Viridiplantae, Gram-positive Ba
32 he common ancestor of Archaea, Bacteria, and Eukaryota, illustrating its essential role in the metabo
33 ifying templates from Bacteria, Archaea, and Eukaryota in a single PCR reaction.
34 nscriptional regulatory functions throughout eukaryota, including prominent roles in development and
35 l protein in a common ancestor of archea and eukaryota, making it a particularly ancient protein stru
36 ly shows high conservation, with examples in eukaryota (plants and eukaryotic algae), archaea, and ba
37  molecules present in the archaea (RadA) and eukaryota (Rad51) are more closely related to each other
38  phylogenetic domains (Archaea, Bacteria and Eukaryota) show that TAP families are mostly taxon-speci
39 in one of the earliest-diverging lineages of Eukaryota, that represented by the parasitic protist Tri
40 ains are widespread in archaea, bacteria and eukaryota, the mechanism of signal transduction has been
41 tree of life, covering Bacteria, Archaea and Eukaryota, we review TF abundance with respect to the nu