Zebrafish regulatory genomic resources for disease modelling and regeneration

ABSTRACT In the past decades, the zebrafish has become a disease model with increasing popularity owing to its advantages that include fast development, easy genetic manipulation, simplicity for imaging, and sharing conserved disease-associated genes and pathways with those of human. In parallel, studies of disease mechanisms are increasingly focusing on non-coding mutations, which require genome annotation maps of regulatory elements, such as enhancers and promoters. In line with this, genomic resources for zebrafish research are expanding, producing a variety of genomic data that help in defining regulatory elements and their conservation between zebrafish and humans. Here, we discuss recent developments in generating functional annotation maps for regulatory elements of the zebrafish genome and how this can be applied to human diseases. We highlight community-driven developments, such as DANIO-CODE, in generating a centralised and standardised catalogue of zebrafish genomics data and functional annotations; consider the advantages and limitations of current annotation maps; and offer considerations for interpreting and integrating existing maps with comparative genomics tools. We also discuss the need for developing standardised genomics protocols and bioinformatic pipelines and provide suggestions for the development of analysis and visualisation tools that will integrate various multiomic bulk sequencing data together with fast-expanding data on single-cell methods, such as single-cell assay for transposase-accessible chromatin with sequencing. Such integration tools are essential to exploit the multiomic chromatin characterisation offered by bulk genomics together with the cell-type resolution offered by emerging single-cell methods. Together, these advances will build an expansive toolkit for interrogating the mechanisms of human disease in zebrafish.

[1]  Loic A. Royer,et al.  Zebrahub – Multimodal Zebrafish Developmental Atlas Reveals the State-Transition Dynamics of Late-Vertebrate Pluripotent Axial Progenitors , 2023, bioRxiv.

[2]  C. Constantinidou,et al.  Lineage skewing and genome instability underlie marrow failure in a zebrafish model of GATA2 deficiency. , 2023, Cell reports.

[3]  J. A. Farrell,et al.  Single-cell analysis of shared signatures and transcriptional diversity during zebrafish development , 2023, bioRxiv.

[4]  S. Gustincich,et al.  The miR-430 locus with extreme promoter density forms a transcription body during the minor wave of zygotic genome activation. , 2023, Developmental cell.

[5]  M. Bamshad,et al.  PRDM1 DNA-binding zinc finger domain is required for normal limb development and is disrupted in split hand/foot malformation , 2022, medRxiv.

[6]  W. Reik,et al.  Decoding gene regulation in the mouse embryo using single-cell multi-omics , 2022, bioRxiv.

[7]  E. Semina,et al.  CRISPR-Cas9-mediated functional dissection of the foxc1 genomic region in zebrafish identifies critical conserved cis-regulatory elements , 2022, Human Genomics.

[8]  Colin M. Diesh,et al.  JBrowse 2: a modular genome browser with views of synteny and structural variation , 2022, bioRxiv.

[9]  D. Stainier,et al.  Origin and function of activated fibroblast states during zebrafish heart regeneration , 2022, Nature Genetics.

[10]  Juan M. Vaquerizas,et al.  Multiomic atlas with functional stratification and developmental dynamics of zebrafish cis-regulatory elements , 2022, Nature genetics.

[11]  Jason M. Torres,et al.  Loss of RREB1 in pancreatic beta cells reduces cellular insulin content and affects endocrine cell gene expression , 2022, bioRxiv.

[12]  Daofeng Li,et al.  WashU Epigenome Browser update 2022 , 2022, Nucleic Acids Res..

[13]  J. Tena,et al.  Multidimensional chromatin profiling of zebrafish pancreas to uncover and investigate disease-relevant enhancers , 2022, Nature Communications.

[14]  J. Lazar,et al.  The landscape of GWAS validation; systematic review identifying 309 validated non-coding variants across 130 human diseases , 2022, BMC medical genomics.

[15]  J. Blackburn,et al.  Long-read sequencing of the zebrafish genome reorganizes genomic architecture , 2022, BMC Genomics.

[16]  I. Ovcharenko,et al.  A regulatory network of Sox and Six transcription factors initiate a cell fate transformation during hearing regeneration in adult zebrafish , 2022, bioRxiv.

[17]  S. Lacadie,et al.  Single-cell-resolved dynamics of chromatin architecture delineate cell and regulatory states in zebrafish embryos , 2022, Cell genomics.

[18]  Yong Zhang,et al.  Antibody-free profiling of transcription factor occupancy during early embryogenesis by FitCUT&RUN , 2021, Genome research.

[19]  Stephen W. Wilson,et al.  The zebrafish issue: 25 years on. , 2021, Development.

[20]  W. Bickmore,et al.  Quantitative spatial and temporal assessment of regulatory element activity in zebrafish , 2021, eLife.

[21]  C. Kaufman,et al.  Transcriptional profile and chromatin accessibility in zebrafish melanocytes and melanoma tumors , 2021, G3.

[22]  N. Gehlenborg,et al.  Gosling: A Grammar-based Toolkit for Scalable and Interactive Genomics Data Visualization , 2021, IEEE Transactions on Visualization and Computer Graphics.

[23]  M. Goll,et al.  Identification of chromatin states during zebrafish gastrulation using CUT&RUN and CUT&Tag , 2021, bioRxiv.

[24]  Aaron M. Streets,et al.  The complete sequence of a human genome , 2021, bioRxiv.

[25]  Juan M. Vaquerizas,et al.  Chromatin architecture transitions from zebrafish sperm through early embryogenesis , 2021, Genome research.

[26]  D. Zöller,et al.  Cre-Controlled CRISPR mutagenesis provides fast and easy conditional gene inactivation in zebrafish , 2021, Nature Communications.

[27]  R. Hardison,et al.  A map of cis-regulatory elements and 3D genome structures in zebrafish , 2020, Nature.

[28]  D. Torrents,et al.  Enhancer hijacking determines extrachromosomal circular MYCN amplicon architecture in neuroblastoma , 2020, Nature Communications.

[29]  José Alquicira-Hernandez,et al.  Benchmarking of cell type deconvolution pipelines for transcriptomics data , 2020, Nature Communications.

[30]  Ethan K. Scott,et al.  Deep conservation of the enhancer regulatory code in animals , 2020, Science.

[31]  F. Rajaii,et al.  Gene regulatory networks controlling vertebrate retinal regeneration , 2020, Science.

[32]  J. Tena,et al.  CTCF knockout in zebrafish induces alterations in regulatory landscapes and developmental gene expression , 2020, Nature Communications.

[33]  Sofia M. C. Robb,et al.  Changes in regeneration-responsive enhancers shape regenerative capacities in vertebrates , 2020, Science.

[34]  K. Poss,et al.  Gene regulatory programmes of tissue regeneration , 2020, Nature Reviews Genetics.

[35]  U. Strähle,et al.  Bone morphogenetic protein signaling regulates Id1‐mediated neural stem cell quiescence in the adult zebrafish brain via a phylogenetically conserved enhancer module , 2020, Stem cells.

[36]  Samantha A. Morris,et al.  Dissecting cell identity via network inference and in silico gene perturbation , 2023, Nature.

[37]  Philip A. Ewels,et al.  The nf-core framework for community-curated bioinformatics pipelines , 2020, Nature Biotechnology.

[38]  E. de Pater,et al.  Deletion of a conserved Gata2 enhancer impairs haemogenic endothelium programming and adult Zebrafish haematopoiesis , 2020, Communications Biology.

[39]  A. Visel,et al.  Analysis of zebrafish periderm enhancers facilitates identification of a regulatory variant near human KRT8/18 , 2020, bioRxiv.

[40]  H. R. Crollius,et al.  Enhancer–gene maps in the human and zebrafish genomes using evolutionary linkage conservation , 2020, Nucleic acids research.

[41]  M. Beltrame,et al.  Glycogen storage in a zebrafish Pompe disease model is reduced by 3-BrPA treatment. , 2020, Biochimica et biophysica acta. Molecular basis of disease.

[42]  G. Crawford,et al.  Identification and requirements of enhancers that direct gene expression during zebrafish fin regeneration , 2020, Development.

[43]  S. Koren,et al.  De novo assembly of the goldfish (Carassius auratus) genome and the evolution of genes after whole-genome duplication , 2019, Science Advances.

[44]  Z. Lewis,et al.  The maternal to zygotic transition regulates genome-wide heterochromatin establishment in the zebrafish embryo , 2019, Nature communications.

[45]  T. Requena,et al.  Expanding the CRISPR Toolbox in Zebrafish for Studying Development and Disease , 2019, Front. Cell Dev. Biol..

[46]  H. Ogino,et al.  Arid3a regulates nephric tubule regeneration via evolutionarily conserved regeneration signal-response enhancers , 2019, eLife.

[47]  O. Andreassen,et al.  A global overview of pleiotropy and genetic architecture in complex traits , 2019, Nature Genetics.

[48]  Michael D. Wilson,et al.  Heart enhancers with deeply conserved regulatory activity are established early in zebrafish development , 2018, Nature Communications.

[49]  Y. Zhang,et al.  Widespread Enhancer Dememorization and Promoter Priming during Parental-to-Zygotic Transition. , 2018, Molecular cell.

[50]  E. Liao,et al.  Generation and characterization of a zebrafish muscle specific inducible Cre line , 2018, Transgenic Research.

[51]  A. Miyashita,et al.  Enhancer variants associated with Alzheimer’s disease affect gene expression via chromatin looping , 2018, BMC Medical Genomics.

[52]  Lucas J. T. Kaaij,et al.  Systemic Loss and Gain of Chromatin Architecture throughout Zebrafish Development , 2018, Cell reports.

[53]  J. Gerton,et al.  Cohesin facilitates zygotic genome activation in zebrafish , 2018, Development.

[54]  Boris Lenhard,et al.  Conserved non-coding elements: developmental gene regulation meets genome organization , 2017, Nucleic acids research.

[55]  E. Barillot,et al.  Comparative analyses of super-enhancers reveal conserved elements in vertebrate genomes , 2017, Genome research.

[56]  Monte Westerfield,et al.  The Zebrafish Model Organism Database: new support for human disease models, mutation details, gene expression phenotypes and searching , 2016, Nucleic Acids Res..

[57]  J. Wysocka,et al.  Ever-Changing Landscapes: Transcriptional Enhancers in Development and Evolution , 2016, Cell.

[58]  Junsu Kang,et al.  Modulation of tissue repair by regeneration enhancer elements , 2016, Nature.

[59]  S. Burgess,et al.  Genome-Wide Analysis of Transposon and Retroviral Insertions Reveals Preferential Integrations in Regions of DNA Flexibility , 2016, G3: Genes, Genomes, Genetics.

[60]  Jessica M. Lindvall,et al.  Altered DNA methylation of glycolytic and lipogenic genes in liver from obese and type 2 diabetic patients , 2016, Molecular metabolism.

[61]  E. Colombo,et al.  A zebrafish model of Poikiloderma with Neutropenia recapitulates the human syndrome hallmarks and traces back neutropenia to the myeloid progenitor , 2015, Scientific Reports.

[62]  James B. Brown,et al.  Lessons from modENCODE. , 2015, Annual review of genomics and human genetics.

[63]  M. Vazquez,et al.  Functional Assessment of Disease-Associated Regulatory Variants In Vivo Using a Versatile Dual Colour Transgenesis Strategy in Zebrafish , 2015, PLoS genetics.

[64]  Linlin Yin,et al.  Multiplex Conditional Mutagenesis Using Transgenic Expression of Cas9 and sgRNAs , 2015, Genetics.

[65]  Pengpeng Liu,et al.  Regulation of transcriptionally active genes via the catalytically inactive Cas9 in C. elegans and D. rerio , 2015, Cell Research.

[66]  Yi Zhou,et al.  A CRISPR/Cas9 vector system for tissue-specific gene disruption in zebrafish. , 2015, Developmental cell.

[67]  Yukiko Kimura,et al.  Efficient generation of knock-in transgenic zebrafish carrying reporter/driver genes by CRISPR/Cas9-mediated genome engineering , 2014, Scientific Reports.

[68]  Piotr J. Balwierz,et al.  ISMARA: automated modeling of genomic signals as a democracy of regulatory motifs , 2014, Genome research.

[69]  G. Borsani,et al.  Molecular cloning and knockdown of galactocerebrosidase in zebrafish: new insights into the pathogenesis of Krabbe's disease. , 2014, Biochimica et biophysica acta.

[70]  T. Meehan,et al.  An atlas of active enhancers across human cell types and tissues , 2014, Nature.

[71]  E. Stupka,et al.  Targeted transgene integration overcomes variability of position effects in zebrafish , 2014, Development.

[72]  Mark I. McCarthy,et al.  Pancreatic islet enhancer clusters enriched in type 2 diabetes risk–associated variants , 2013, Nature Genetics.

[73]  Boris Lenhard,et al.  The mystery of extreme non-coding conservation , 2013, Philosophical Transactions of the Royal Society B: Biological Sciences.

[74]  Leonard I Zon,et al.  Site‐directed zebrafish transgenesis into single landing sites with the phiC31 integrase system , 2013, Developmental dynamics : an official publication of the American Association of Anatomists.

[75]  Anton J. Enright,et al.  The zebrafish reference genome sequence and its relationship to the human genome , 2013, Nature.

[76]  Steven A. Harvey,et al.  A systematic genome-wide analysis of zebrafish protein-coding gene function , 2013, Nature.

[77]  M. Nóbrega,et al.  Regulatory variation in a TBX5 enhancer leads to isolated congenital heart disease. , 2012, Human molecular genetics.

[78]  Annemarie H. Meijer,et al.  Pathogen Recognition and Activation of the Innate Immune Response in Zebrafish , 2012, Advances in hematology.

[79]  T. Glaser,et al.  Deletion of a remote enhancer near ATOH7 disrupts retinal neurogenesis, causing NCRNA disease , 2011, Nature Neuroscience.

[80]  Ryan A. Flynn,et al.  A unique chromatin signature uncovers early developmental enhancers in humans , 2011, Nature.

[81]  Akihiro Urasaki,et al.  zTrap: zebrafish gene trap and enhancer trap database , 2010, BMC Developmental Biology.

[82]  G. Elgar Pan-vertebrate conserved non-coding sequences associated with developmental regulation. , 2009, Briefings in functional genomics & proteomics.

[83]  Boris Lenhard,et al.  Ancora: a web resource for exploring highly conserved noncoding elements and their association with developmental regulatory genes , 2008, Genome Biology.

[84]  Boris Lenhard,et al.  Retroviral enhancer detection insertions in zebrafish combined with comparative genomics reveal genomic regulatory blocks - a fundamental feature of vertebrate genomes , 2007, Genome Biology.

[85]  F. Müller,et al.  Cooperation of sonic hedgehog enhancers in midline expression. , 2007, Developmental biology.

[86]  Vip Viprakasit,et al.  A Regulatory SNP Causes a Human Genetic Disease by Creating a New Transcriptional Promoter , 2006, Science.

[87]  Paul T. Groth,et al.  The ENCODE (ENCyclopedia Of DNA Elements) Project , 2004, Science.

[88]  Lior Pachter,et al.  VISTA: computational tools for comparative genomics , 2004, Nucleic Acids Res..

[89]  B. Oostra,et al.  A long-range Shh enhancer regulates expression in the developing limb and fin and is associated with preaxial polydactyly. , 2003, Human molecular genetics.

[90]  L. Zon,et al.  Dissecting hematopoiesis and disease using the zebrafish. , 1999, Developmental biology.

[91]  Jairo Navarro Gonzalez,et al.  The UCSC Genome Browser database: 2022 update , 2021, Nucleic Acids Res..

[92]  OUP accepted manuscript , 2021, Nucleic Acids Research.

[93]  OUP accepted manuscript , 2021, Nucleic Acids Research.

[94]  K. Kawakami,et al.  Gal4 Driver Transgenic Zebrafish: Powerful Tools to Study Developmental Biology, Organogenesis, and Neuroscience. , 2016, Advances in genetics.