Nature CommunicationsGeneticsPeer-reviewed journal article
SLE non-coding Genetic Risk Variant Determines the Epigenetic Dysfunction of an Immune Cell Specific Enhancer that Controls Disease-critical microRNA Expression
Guojun HouiD, Isaac T. W. HarleyiD, Xiaoming LuiD, Tian ZhouiD, Ning XuiD, Chao Yao, Yuting QiniD, Ye OuyangiD, Jianyang MaiD, Xinyi ZhuiD, Xiang YuiD, Hong XuiD, Dai DaiiD, Huihua DingiD, Zhihua YiniD, Zhizhong YeiD, Jun DengiD, Mi ZhouiD, Yuanjia TangiD, Bahram NamjouiD, Ya GuoiD, Matthew T. WeirauchiD, Leah Claire KottyaniD, John B. HarleyiD, Nan SheniD
Abstract
The human genome contains millions of putative regulatory elements, which regulate gene expression. We are just beginning to understand the functional consequences of genetic variation within these regulatory elements. Since the bulk of common genetic variation impacting polygenic disease phenotypes localizes to these non-coding regions of the genome, understanding the consequences will improve our understanding of the mechanisms mediating genetic risk in human disease. Here, we define the systemic lupus erythematosus (SLE) risk variant rs2431369 as likely causal for SLE and show that it is located in a functional regulatory element that modulates miR-146a expression. We use epigenomic analysis and genome-editing to show that the rs2431697-containing region is a distal enhancer that specifically regulates miR-146a expression in a cell-type dependent manner. 3D chromatin structure analysis demonstrates physical interaction between the rs2431697-containing region and the miR-146a promoter. Further, our data show that NF-kB binds the disease protective allele in a sequence-specific manner, leading to increased expression of this immunoregulatory microRNA. Our work provides a strategy for using disease-associated variants to define the functional regulatory elements of non-coding RNA molecules such as miR-146a and provides mechanistic links between autoimmune disease risk genetic variation and disease etiology.
- organism: human
- assay: DNA methylation
- assay: ChIP-seq
- research focus: gene regulatory network inference
- approach: statistical model
- Citations
- 74
- FWCI
- 11.85
- Field percentile
- top 1%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- High-throughput identification of functional regulatory SNPs in systemic lupus erythematosus
Qiang Wang, Taehyeung Kim, … Peter Andrija Nigrovic·Nature CommunicationsPeer-reviewed·Aug 9, 2024
- Genome-wide discovery of lupus genetic risk variant allelic regulatory activity
Xiaoming Lu, Xiaoting Chen, … Leah Claire Kottyan·Nature CommunicationsPeer-reviewed·Mar 12, 2021
- Mechanistic characterization of RASGRP1 variants identifies an hnRNP K-regulated transcriptional enhancer contributing to SLE susceptibility
Julio E. Molineros, Bhupinder Singh, … Swapan K. Nath·Frontiers in ImmunologyPeer-reviewed·May 20, 2019
- A Non-Coding Variant in SLC15A4 Modulates Enhancer Activity and Lysosomal Deacidification Linked to Lupus Susceptibility
Manish Kumar Singh, Guru Prashad Maiti, … Swapan K. Nath·Frontiers in LupusPeer-reviewed·Nov 22, 2023
- A novel regulatory element upstream of TNFAIP3 promoter may be influenced by SLE risk variants
Ajay Nair, Archana S. Rao·bioRxiv·Sep 30, 2020
- An allele-specific functional SNP associated with two autoimmune diseases modulates IRF5 expression by long-range chromatin loop formation
Hlaing Nwe Thynn, Xiaofeng Chen, … Tie‐Lin Yang·Journal of Investigative DermatologyPeer-reviewed·Aug 15, 2019