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Binding Specificities of Human RNA Binding Proteins Towards Structured bioRxiv preprint doi: https://doi.org/10.1101/317909; this version posted March 1, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 1 Binding specificities of human RNA binding proteins towards structured and linear 2 RNA sequences 3 4 Arttu Jolma1,#, Jilin Zhang1,#, Estefania Mondragón4,#, Teemu Kivioja2, Yimeng Yin1, 5 Fangjie Zhu1, Quaid Morris5,6,7,8, Timothy R. Hughes5,6, Louis James Maher III4 and Jussi 6 Taipale1,2,3,* 7 8 9 AUTHOR AFFILIATIONS 10 11 1Department of Medical Biochemistry and Biophysics, Karolinska Institutet, Solna, Sweden 12 2Genome-Scale Biology Program, University of Helsinki, Helsinki, Finland 13 3Department of Biochemistry, University of Cambridge, Cambridge, United Kingdom 14 4Department of Biochemistry and Molecular Biology and Mayo Clinic Graduate School of 15 Biomedical Sciences, Mayo Clinic College of Medicine and Science, Rochester, USA 16 5Department of Molecular Genetics, University of Toronto, Toronto, Canada 17 6Donnelly Centre, University of Toronto, Toronto, Canada 18 7Edward S Rogers Sr Department of Electrical and Computer Engineering, University of 19 Toronto, Toronto, Canada 20 8Department of Computer Science, University of Toronto, Toronto, Canada 21 #Authors contributed equally 22 *Correspondence: [email protected] 23 24 25 SUMMARY 26 27 Sequence specific RNA-binding proteins (RBPs) control many important 28 processes affecting gene expression. They regulate RNA metabolism at multiple 29 levels, by affecting splicing of nascent transcripts, RNA folding, base modification, 30 transport, localization, translation and stability. Despite their central role in most 31 aspects of RNA metabolism and function, most RBP binding specificities remain 32 unknown or incompletely defined. To address this, we have assembled a genome- 33 scale collection of RBPs and their RNA binding domains (RBDs), and assessed their 34 specificities using high throughput RNA-SELEX (HTR-SELEX). Approximately 70% 35 of RBPs for which we obtained a motif bound to short linear sequences, whereas 36 ~30% preferred structured motifs folding into stem-loops. We also found that 37 many RBPs can bind to multiple distinctly different motifs. Analysis of the matches 38 of the motifs on human genomic sequences suggested novel roles for many RBPs in 39 regulation of splicing, and revealed RBPs that are likely to control specific classes 40 of transcripts. Global analysis of the motifs also revealed an enrichment of G and U 41 nucleotides. Masking of G and U by RBPs is expected to increase the specificity of 42 RNA folding, as both G and U can pair to two other RNA bases via canonical Watson- 43 Crick or G-U base pairs. The collection containing 145 high resolution binding 44 specificity models for 86 RBPs is the largest systematic resource for the analysis of 45 human RBPs, and will greatly facilitate future analysis of the various biological 46 roles of this important class of proteins. 47 48 49 1 bioRxiv preprint doi: https://doi.org/10.1101/317909; this version posted March 1, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 50 INTRODUCTION 51 52 The abundance of protein and RNA molecules in a cell depends both on their rates 53 of production and degradation. These rates are determined directly or indirectly by the 54 sequence of DNA. The transcription rate of RNA and the rate of degradation of proteins is 55 determined by DNA and protein sequences, respectively. HoWever, most regulatory steps 56 that control gene eXpression are influenced by the sequence of the RNA itself. These 57 processes include RNA splicing, localization, stability, and translation, all of Which can be 58 regulated by RNA-binding proteins (RBPs) that specifically recognize short RNA 59 sequence elements (Glisovic et al., 2008). 60 RBPs can recognize their target sites using tWo mechanisms: they can form direct 61 contacts to the RNA bases of an unfolded RNA chain, and/or recognise folded RNA- 62 structures (Loughlin et al., 2009). These tWo recognition modes are not mutually 63 eXclusive, and the same RBP can combine both mechanisms in recognition of its target 64 sequence. The RBPs that bind to unfolded target sequences generally bind to each base 65 independently of other bases, and their specificity can thus be Well eXplained by a simple 66 position Weight matriX (PWM) model. HoWever, recognition of a folded RNA-sequence 67 leads to strong positional interdependencies between different bases due to base pairing. 68 In addition to the canonical Watson-crick base pairs G:c and A:U, double-stranded RNA 69 commonly contains also G:U base pairs, and can also accommodate other non-canonical 70 base pairing configurations in specific structural contexts (Varani and McClain, 2000). 71 It has been estimated that the human genome encodes approXimately 1500 72 proteins that can associate With RNA (Gerstberger et al., 2014). Only some of the RBPs 73 are thought to be sequence specific. Many RNA-binding proteins bind only a single RNA 74 species (e.g. ribosomal proteins), or serve a structural role in ribonucleoprotein 75 compleXes or the spliceosome. As RNA can fold to compleX three-dimensional structures, 76 defining What constitutes an RBP is not simple. In this Work, We have focused on RBPs 77 that are likely to bind to short sequence elements analogously to sequence-specific DNA 78 binding transcription factors. The number of such RBPs can be estimated based on the 79 number of proteins containing one or more canonical RNA-binding protein domains. The 80 total number is likely to be ~400 RBPs (cook et al., 2011; Dominguez et al., 2018; Ray et 81 al., 2013). The major families of RBPs contain canonical RNA-binding protein domains 82 (RBDs) such as the RNA recognition motif (RRM), cccH zinc finger, K homology (KH) and 83 cold shock domain (cSD). In addition, smaller number of proteins bind RNA using La, 84 HEXIM, PUF, THUMP, YTH, SAM and TRIM-NHL domains. In addition, many “non- 85 canonical” RBPs that do not contain any of the currently known RBDs have been reported 86 to specifically bind to RNA (see, for eXample (Gerstberger et al., 2014)). 87 Various methods have been developed to determine the binding positions and 88 specificities of RNA binding proteins. Methods that use crosslinking of RNA to proteins 89 folloWed by immunoprecipitation and then massively parallel sequencing (cLIP-seq or 90 HITS-CLIP, reviewed in (Darnell, 2010) and PAR-CLIP (Hafner et al., 2010) can determine 91 RNA positions bound by RBPs in vivo, Whereas other methods such as SELEX (Tuerk and 92 Gold, 1990), RNA Bind-n-Seq (Dominguez et al., 2018; Lambert et al., 2015) and 93 RNAcompete (Ray et al., 2009) can determine motifs bound by RBPs in vitro. Most high- 94 resolution models derived to date have been determined using RNAcompete or RNA 95 Bind-n-Seq. These methods have been used to analyze large numbers of RBPs from 96 multiple species, including generation of models for 137 human RBPs (Dominguez et al., 97 2018; Ray et al., 2013). 2 bioRxiv preprint doi: https://doi.org/10.1101/317909; this version posted March 1, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 98 The CISBP-RNA database (Ray et al., 2013) (Database Build 0.6) currently lists 99 total of 392 high-confidence RBPs in human, but contains high-resolution specificity 100 models for only 100 of them (Ray et al., 2013). The Encyclopedia of DNA Elements 101 (ENcODE) database that contains human RNA Bind-n-Seq data, in turn, has models for 78 102 RBPs (Dominguez et al., 2018). In addition, a literature curation based database RBPDB 103 (The database of RNA-binding protein specificities) (Cook et al., 2011) contains 104 eXperimental data for 133 human RBPs, but mostly contains individual target- or 105 consensus sites, and only has high resolution models for 39 RBPs. Thus, despite the 106 central importance of RBPs in fundamental cellular processes, the precise sequence 107 elements bound by most RBPs remain to be determined. To address this problem, We 108 have in this Work developed high-throughput RNA SELEX (HTR-SELEX) and used it to 109 determine binding specificities of human RNA binding proteins. Our analysis suggests 110 that many RBPs prefer to bind structured RNA motifs, and can associate With several 111 distinct sequences. The distribution of motif matches in the genome indicates that many 112 RBPs have central roles in regulation of RNA metabolism and activity in cells. 113 114 3 bioRxiv preprint doi: https://doi.org/10.1101/317909; this version posted March 1, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 115 RESULTS 116 117 118 Identification of RNA-binding motifs using HTR-SELEX 119 120 To identify binding specificities of human RBPs, We established a collection of 121 canonical and non-canonical full-length RBPs and RNA binding domains. The full-length 122 constructs representing 819 putative RBPs Were picked from the Orfeome 3.1 and 8.1 123 collections (Lamesch et al., 2007) based on annotations of the cisBP database for 124 conventional RBPs (Ray et al., 2013) and Gerstberger et al. (Gerstberger et al., 2014) for 125 additional unconventional RBPs. The 293 constructs designed to cover all canonical RBDs 126 Within 156 human RBPs Were synthesized based on Interpro defined protein domain calls 127 from ENSEMBL v76. Most RBD constructs contained all RBDs of a given protein With 15 128 amino-acids of flanking sequence (see Table S1 for details).
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