Ct4/6, Sox Stat3 Stat3 Gli Oct4; Brn1/2 Oct4; Brn1/2 HIF2alpha HIF2alphaR() HRE DR(0)

Ct4/6, Sox Stat3 Stat3 Gli Oct4; Brn1/2 Oct4; Brn1/2 HIF2alpha HIF2alphaR() HRE DR(0) DR(0) DR(1)Dejosez08 Nordhoff01; Sylvester94 Fuhrmann01 Gu05 Park[89] [59,90] [91] [92] [93]Schoorlemmer94 [94] Schoorlemmer94 [94] Uncommon (a) Barnea00 Nordhoff01 Yu09 (b) 1B PE2 P1 P1 1B 1A(PE) 1A(PE) P2 PE1 M3 Barnea00 Choi06 Gu05 Zhang08 Zhang08 Gu05 Tam08 Nordhoff01 Aoto06 Zhang08 Zhang06 Chew05 2B M1 1B(PE) 2A(DE) OkumuraN05 Tam08 Nordhoff01 Nordhoff01 Nordhoff01 Nordhoff01 Nordhoff01 Nordhoff01 Wiebe00 neural neural 2 1 1 1 two HRE HRE 1 2 Kamachi09 Kamachi09 Tomioka02 Foshay08 Foshay08 Takanaga09 Catena04 Catena04 MorenoM10 MorenoM10 [95] [59] [96] [95] [97] [92] [66] [66] [92] [98] [99] [59,99] [66] [100] [101] [102] [98] [59] [59] [59] [59] [59] [59] [60] [48] [48] [82] [103] [103] [104] [105] [105] [106] [106] Schoorlemmer94 [94]Fuellen and Methyl anisate supplier Struckmann Biology Direct 2010, 5:67 http://www.biology-direct.com/content/5/1/Page 9 ofTable 2 Experimentally validated transcription factor binding web pages (Continued)Sox2 Sox2 Sox2 Sox2 Sox2 Sox2 Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Nanog Gli N1 N2 N3 N4 N5 Oct1 OctSox Smad2/3/4 Klf4 Stat T FoxD3 p53 p53 Klf Sp1/3 Sp1/3 Tcf3 Gcnf/Nr6a1 Cdx2 and Nanog Zfp143 Esrrb Klf5 CR1 CR2 CR3 R() revcom?two 1 RE1 RE2 R() neural neural neural neural neural two dna_ Takanaga09 not_matching?Kamachi09 Kamachi09 Kamachi09 Kamachi09 Kamachi09 Wu05 Rodda05; Kuroda05 Greber10 Zhang10 Suzuki06 Suzuki06 Pan06 Lin05 Lin05 Jiang08 Wu06 Wu06 Pereira06 Gu05 Chen09 Chen08 vdBerg08 Parisi08 Chan09 Chan09 Chan09 [104] [48] [48] [48] [48] [48] [107] chr3 chr3 chr3 chr3 chr3 chr3 chr6 34545074 34564105 34544940 34529134 34577673 34558702 34545085 34564403 34545478 34529728 34578140122657427 122657442 + 122657429 122657445 + 122657408 122657412 + 122657370 122657550 122653091 122653100 + 122653135 122653155 + 122657311 122657341 + 122656935 122656957 + 122657195 122657221 + 122652655 122652663 + 122657555 122657570 + 122657530 122657539 + 122653837 122653844 + 122655499 122655511 + 122652629 122652743 122657340 122657354 + 122657409 122657418 + 122657532 122657539 + 122657170 122657827 122652641 122653468 122652431[108,69] chr6 [109] [110] [111] [111] [112] [113] [113] [114] [115] [115] [116] [92] [117] [118] [119] [120] [84] [84] [84] chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chr6 chrChIP-defined region. ?reverse complement information in paper. ?DNA sequence at UCSC will not match sequence in paper.cow, elephant, and armadillo are included in the tree, marked by red 3-Bromo-7-nitroindazole Biological Activity duplication nodes. Not considering them, the gene tree suggests that duplications of Pou5f1 are significantly less frequent than thought [46]. Sox2 diverged from its putatively closest paralog Sox1 immediately after the second round of genomic duplication inside the vertebrate lineage [48], even though the complete Sox family is almost certainly of metazoan origin [49]. Inside the Ensembl gene tree (Additional File 5; Supplementary Figure S2), Sox2 evolution is mainly concordant with Carroll’s principle of “Infrequent toolkit gene duplication”; the only putative paralogs are Q6WNU1 (in takifugu), Sox14 (in chicken) and a few genes around Sox5 (in rat). Inside the later two circumstances, we observe long branches (dashed lines, highlighted in red). Nanog possibly originated within the vertebrate lineage [50]; since then it has diverged drastically from itsclosest paralogs, the NK domain proteins. Apart from the Nanog P1.