Deep learning methods for protein structure prediction

Abstract Protein structure prediction (PSP) has been a prominent topic in bioinformatics and computational biology, aiming to predict protein function and structure from sequence data. The three‐dimensional conformation of proteins is pivotal for their intricate biological roles. With the advancement of computational capabilities and the adoption of deep learning (DL) technologies (especially Transformer network architectures), the PSP field has ushered in a brand‐new era of “neuralization.” Here, we focus on reviewing the evolution of PSP from traditional to modern deep learning‐based approaches and the characteristics of various structural prediction methods. This emphasizes the advantages of deep learning‐based hybrid prediction methods over traditional approaches. This study also provides a summary analysis of widely used bioinformatics databases and the latest structure prediction models. It discusses deep learning networks and algorithmic optimization for model training, validation, and evaluation. In addition, a summary discussion of the major advances in deep learning‐based protein structure prediction is presented. The update of AlphaFold 3 further extends the boundaries of prediction models, especially in protein‐small molecule structure prediction. This marks a key shift toward a holistic approach in biomolecular structure elucidation, aiming at solving almost all sequence‐to‐structure puzzles in various biological phenomena.

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Publication Details

Journal
MedComm – Future Medicine
Published
2024-09-01
DOI
https://doi.org/10.1002/mef2.96
Citations
20
Primary Topic
Protein Structure and Dynamics
Type
article
Field-Weighted Citation Impact
4.21

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article

Deep learning methods for protein structure prediction

Yiming Qin, Xi Yu, Zihan Chen, Peng Ye et al.
20 citations
MedComm – Future Medicine
Protein Structure and Dynamics
4.21
article

Deep learning methods for protein structure prediction

Yiming Qin, Xi Yu, Zihan Chen, Peng Ye, Tian Zhong, Ying Xiao
article en
20 citations

Abstract

Abstract Protein structure prediction (PSP) has been a prominent topic in bioinformatics and computational biology, aiming to predict protein function and structure from sequence data. The three‐dimensional conformation of proteins is pivotal for their intricate biological roles. With the advancement of computational capabilities and the adoption of deep learning (DL) technologies (especially Transformer network architectures), the PSP field has ushered in a brand‐new era of “neuralization.” Here, we focus on reviewing the evolution of PSP from traditional to modern deep learning‐based approaches and the characteristics of various structural prediction methods. This emphasizes the advantages of deep learning‐based hybrid prediction methods over traditional approaches. This study also provides a summary analysis of widely used bioinformatics databases and the latest structure prediction models. It discusses deep learning networks and algorithmic optimization for model training, validation, and evaluation. In addition, a summary discussion of the major advances in deep learning‐based protein structure prediction is presented. The update of AlphaFold 3 further extends the boundaries of prediction models, especially in protein‐small molecule structure prediction. This marks a key shift toward a holistic approach in biomolecular structure elucidation, aiming at solving almost all sequence‐to‐structure puzzles in various biological phenomena.

MedComm – Future MedicineVol. 3(3)
Macau University of Science and Technology (MO)
Fundo para o Desenvolvimento das Ciências e da Tecnologia
Openalex Percentile: Top 5%
Protein Structure and Dynamics
4.21
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