Fundamental and practical aspects of machine learning for the peak picking of biomolecular NMR spectra

IF 1.3 3区 生物学 Q3 BIOCHEMISTRY & MOLECULAR BIOLOGY Journal of Biomolecular NMR Pub Date : 2022-04-07 DOI:10.1007/s10858-022-00393-1
Da-Wei Li, Alexandar L. Hansen, Lei Bruschweiler-Li, Chunhua Yuan, Rafael Brüschweiler
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引用次数: 9

Abstract

Rapid progress in machine learning offers new opportunities for the automated analysis of multidimensional NMR spectra ranging from protein NMR to metabolomics applications. Most recently, it has been demonstrated how deep neural networks (DNN) designed for spectral peak picking are capable of deconvoluting highly crowded NMR spectra rivaling the facilities of human experts. Superior DNN-based peak picking is one of a series of critical steps during NMR spectral processing, analysis, and interpretation where machine learning is expected to have a major impact. In this perspective, we lay out some of the unique strengths as well as challenges of machine learning approaches in this new era of automated NMR spectral analysis. Such a discussion seems timely and should help define common goals for the NMR community, the sharing of software tools, standardization of protocols, and calibrate expectations. It will also help prepare for an NMR future where machine learning and artificial intelligence tools will be common place.

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生物分子核磁共振波谱峰拾取的机器学习的基本和实际方面
机器学习的快速发展为多维核磁共振光谱的自动分析提供了新的机会,从蛋白质核磁共振到代谢组学应用。最近,它已经证明了深度神经网络(DNN)是如何设计的光谱峰拾取能够反卷积高度拥挤的核磁共振光谱与人类专家的设施相媲美。基于深度神经网络的峰值拾取是核磁共振光谱处理、分析和解释过程中的一系列关键步骤之一,机器学习有望在这些步骤中产生重大影响。从这个角度来看,我们在这个自动化核磁共振光谱分析的新时代列出了机器学习方法的一些独特优势和挑战。这样的讨论似乎是及时的,应该有助于定义NMR社区的共同目标、软件工具的共享、协议的标准化和校准期望。这也将有助于为核磁共振的未来做准备,机器学习和人工智能工具将成为常见的地方。
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来源期刊
Journal of Biomolecular NMR
Journal of Biomolecular NMR 生物-光谱学
CiteScore
6.00
自引率
3.70%
发文量
19
审稿时长
6-12 weeks
期刊介绍: The Journal of Biomolecular NMR provides a forum for publishing research on technical developments and innovative applications of nuclear magnetic resonance spectroscopy for the study of structure and dynamic properties of biopolymers in solution, liquid crystals, solids and mixed environments, e.g., attached to membranes. This may include: Three-dimensional structure determination of biological macromolecules (polypeptides/proteins, DNA, RNA, oligosaccharides) by NMR. New NMR techniques for studies of biological macromolecules. Novel approaches to computer-aided automated analysis of multidimensional NMR spectra. Computational methods for the structural interpretation of NMR data, including structure refinement. Comparisons of structures determined by NMR with those obtained by other methods, e.g. by diffraction techniques with protein single crystals. New techniques of sample preparation for NMR experiments (biosynthetic and chemical methods for isotope labeling, preparation of nutrients for biosynthetic isotope labeling, etc.). An NMR characterization of the products must be included.
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