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LIBRIS Formathandbok  (Information om MARC21)
FältnamnIndikatorerMetadata
00003353naa a2200457 4500
001oai:prod.swepub.kib.ki.se:120547811
003SwePub
008240701s2010 | |||||||||||000 ||eng|
024a http://kipublications.ki.se/Default.aspx?queryparsed=id:1205478112 URI
024a https://doi.org/10.1101/gr.100552.1092 DOI
040 a (SwePub)ki
041 a engb eng
042 9 SwePub
072 7a ref2 swepub-contenttype
072 7a art2 swepub-publicationtype
100a Jolma, Au Karolinska Institutet4 aut
2451 0a Multiplexed massively parallel SELEX for characterization of human transcription factor binding specificities
264 c 2010-04-08
264 1b Cold Spring Harbor Laboratory,c 2010
520 a The genetic code—the binding specificity of all transfer-RNAs—defines how protein primary structure is determined by DNA sequence. DNA also dictates when and where proteins are expressed, and this information is encoded in a pattern of specific sequence motifs that are recognized by transcription factors. However, the DNA-binding specificity is only known for a small fraction of the ∼1400 human transcription factors (TFs). We describe here a high-throughput method for analyzing transcription factor binding specificity that is based on systematic evolution of ligands by exponential enrichment (SELEX) and massively parallel sequencing. The method is optimized for analysis of large numbers of TFs in parallel through the use of affinity-tagged proteins, barcoded selection oligonucleotides, and multiplexed sequencing. Data are analyzed by a new bioinformatic platform that uses the hundreds of thousands of sequencing reads obtained to control the quality of the experiments and to generate binding motifs for the TFs. The described technology allows higher throughput and identification of much longer binding profiles than current microarray-based methods. In addition, as our method is based on proteins expressed in mammalian cells, it can also be used to characterize DNA-binding preferences of full-length proteins or proteins requiring post-translational modifications. We validate the method by determining binding specificities of 14 different classes of TFs and by confirming the specificities for NFATC1 and RFX3 using ChIP-seq. Our results reveal unexpected dimeric modes of binding for several factors that were thought to preferentially bind DNA as monomers.
700a Kivioja, T4 aut
700a Toivonen, J4 aut
700a Cheng, L4 aut
700a Wei, GH4 aut
700a Enge, Mu Karolinska Institutet4 aut
700a Taipale, M4 aut
700a Vaquerizas, JM4 aut
700a Yan, Ju Karolinska Institutet4 aut
700a Sillanpaa, MJ4 aut
700a Bonke, M4 aut
700a Palin, K4 aut
700a Talukder, S4 aut
700a Hughes, TR4 aut
700a Luscombe, NM4 aut
700a Ukkonen, E4 aut
700a Taipale, Ju Karolinska Institutet4 aut
710a Karolinska Institutet4 org
773t Genome researchd : Cold Spring Harbor Laboratoryg 20:6, s. 861-873q 20:6<861-873x 1549-5469x 1088-9051
856u http://genome.cshlp.org/content/20/6/861.full.pdf
8564 8u http://kipublications.ki.se/Default.aspx?queryparsed=id:120547811
8564 8u https://doi.org/10.1101/gr.100552.109

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