基于多特征表示和信息瓶颈的深度学习多肽可检测性预测方法。

IF 3.9 2区 生物学 Q1 MATHEMATICAL & COMPUTATIONAL BIOLOGY
Fenglin Li, Yannan Bin, Jianping Zhao, Chunhou Zheng
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引用次数: 0

摘要

多肽可检测性测量样品中蛋白质组成和丰度与分析过程中鉴定的多肽之间的关系。这种关系对蛋白质组学的基本任务具有重要意义。现有的方法主要依赖于单一类型的特征表示,这限制了它们捕捉肽的复杂和多样化特征的能力。针对这一限制,我们引入了DeepPD,这是一种创新的深度学习框架,结合多特征表示和信息瓶颈原理(IBP)来预测肽的可检测性。deep - ppd利用进化尺度模型2 (evolutionary scale modeling 2, ESM-2)从肽段中提取语义信息,并将序列信息和进化信息整合,协同构建特征空间。IBP有效地指导特征学习过程,最大限度地减少特征空间中的冗余。不同数据集的实验结果表明,DeepPD优于最先进的方法。此外,我们证明了deepd在不同的数据集和物种中表现出竞争性的泛化和迁移学习能力。总之,DeepPD是预测肽可检测性最有效的方法,显示了其在其他蛋白质序列预测任务中的潜在适用性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
DeepPD: A Deep Learning Method for Predicting Peptide Detectability Based on Multi-feature Representation and Information Bottleneck.

Peptide detectability measures the relationship between the protein composition and abundance in the sample and the peptides identified during the analytical procedure. This relationship has significant implications for the fundamental tasks of proteomics. Existing methods primarily rely on a single type of feature representation, which limits their ability to capture the intricate and diverse characteristics of peptides. In response to this limitation, we introduce DeepPD, an innovative deep learning framework incorporating multi-feature representation and the information bottleneck principle (IBP) to predict peptide detectability. DeepPD extracts semantic information from peptides using evolutionary scale modeling 2 (ESM-2) and integrates sequence and evolutionary information to construct the feature space collaboratively. The IBP effectively guides the feature learning process, minimizing redundancy in the feature space. Experimental results across various datasets demonstrate that DeepPD outperforms state-of-the-art methods. Furthermore, we demonstrate that DeepPD exhibits competitive generalization and transfer learning capabilities across diverse datasets and species. In conclusion, DeepPD emerges as the most effective method for predicting peptide detectability, showcasing its potential applicability to other protein sequence prediction tasks.

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来源期刊
Interdisciplinary Sciences: Computational Life Sciences
Interdisciplinary Sciences: Computational Life Sciences MATHEMATICAL & COMPUTATIONAL BIOLOGY-
CiteScore
8.60
自引率
4.20%
发文量
55
期刊介绍: Interdisciplinary Sciences--Computational Life Sciences aims to cover the most recent and outstanding developments in interdisciplinary areas of sciences, especially focusing on computational life sciences, an area that is enjoying rapid development at the forefront of scientific research and technology. The journal publishes original papers of significant general interest covering recent research and developments. Articles will be published rapidly by taking full advantage of internet technology for online submission and peer-reviewing of manuscripts, and then by publishing OnlineFirstTM through SpringerLink even before the issue is built or sent to the printer. The editorial board consists of many leading scientists with international reputation, among others, Luc Montagnier (UNESCO, France), Dennis Salahub (University of Calgary, Canada), Weitao Yang (Duke University, USA). Prof. Dongqing Wei at the Shanghai Jiatong University is appointed as the editor-in-chief; he made important contributions in bioinformatics and computational physics and is best known for his ground-breaking works on the theory of ferroelectric liquids. With the help from a team of associate editors and the editorial board, an international journal with sound reputation shall be created.
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