Predicting RNA-seq coverage from DNA sequence as a unifying model of gene regulation

IF 31.7 1区 生物学 Q1 GENETICS & HEREDITY
Johannes Linder, Divyanshi Srivastava, Han Yuan, Vikram Agarwal, David R. Kelley
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引用次数: 0

Abstract

Sequence-based machine-learning models trained on genomics data improve genetic variant interpretation by providing functional predictions describing their impact on the cis-regulatory code. However, current tools do not predict RNA-seq expression profiles because of modeling challenges. Here, we introduce Borzoi, a model that learns to predict cell-type-specific and tissue-specific RNA-seq coverage from DNA sequence. Using statistics derived from Borzoi’s predicted coverage, we isolate and accurately score DNA variant effects across multiple layers of regulation, including transcription, splicing and polyadenylation. Evaluated on quantitative trait loci, Borzoi is competitive with and often outperforms state-of-the-art models trained on individual regulatory functions. By applying attribution methods to the derived statistics, we extract cis-regulatory motifs driving RNA expression and post-transcriptional regulation in normal tissues. The wide availability of RNA-seq data across species, conditions and assays profiling specific aspects of regulation emphasizes the potential of this approach to decipher the mapping from DNA sequence to regulatory function.

Abstract Image

从DNA序列预测RNA-seq覆盖作为基因调控的统一模型
基于序列的机器学习模型经过基因组学数据的训练,通过提供描述基因变异对顺式调控代码影响的功能预测,改善了基因变异的解释。然而,由于建模方面的挑战,目前的工具不能预测RNA-seq表达谱。在这里,我们介绍Borzoi,这是一种学习从DNA序列预测细胞类型特异性和组织特异性RNA-seq覆盖的模型。利用来自Borzoi预测覆盖率的统计数据,我们分离并准确地评分了多个调控层的DNA变异效应,包括转录、剪接和聚腺苷化。通过对数量性状位点的评估,猎狼犬可以与最先进的个体调节功能模型相竞争,而且往往优于它们。通过将归因方法应用于导出的统计数据,我们提取了正常组织中驱动RNA表达和转录后调控的顺式调控基序。RNA-seq数据在物种、条件和分析中广泛可用,分析了调控的特定方面,强调了这种方法在破译从DNA序列到调控功能的映射方面的潜力。
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来源期刊
Nature genetics
Nature genetics 生物-遗传学
CiteScore
43.00
自引率
2.60%
发文量
241
审稿时长
3 months
期刊介绍: Nature Genetics publishes the very highest quality research in genetics. It encompasses genetic and functional genomic studies on human and plant traits and on other model organisms. Current emphasis is on the genetic basis for common and complex diseases and on the functional mechanism, architecture and evolution of gene networks, studied by experimental perturbation. Integrative genetic topics comprise, but are not limited to: -Genes in the pathology of human disease -Molecular analysis of simple and complex genetic traits -Cancer genetics -Agricultural genomics -Developmental genetics -Regulatory variation in gene expression -Strategies and technologies for extracting function from genomic data -Pharmacological genomics -Genome evolution
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