ThermalProGAN: A sequence-based thermally stable protein generator trained using unpaired data.

IF 0.9 4区 生物学 Q4 MATHEMATICAL & COMPUTATIONAL BIOLOGY Journal of Bioinformatics and Computational Biology Pub Date : 2023-02-01 DOI:10.1142/S0219720023500087
Hui-Ling Huang, Chong-Heng Weng, Torbjörn E M Nordling, Yi-Fan Liou
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Abstract

Motivation: The synthesis of proteins with novel desired properties is challenging but sought after by the industry and academia. The dominating approach is based on trial-and-error inducing point mutations, assisted by structural information or predictive models built with paired data that are difficult to collect. This study proposes a sequence-based unpaired-sample of novel protein inventor (SUNI) to build ThermalProGAN for generating thermally stable proteins based on sequence information.

Results: The ThermalProGAN can strongly mutate the input sequence with a median number of 32 residues. A known normal protein, 1RG0, was used to generate a thermally stable form by mutating 51 residues. After superimposing the two structures, high similarity is shown, indicating that the basic function would be conserved. Eighty four molecular dynamics simulation results of 1RG0 and the COVID-19 vaccine candidates with a total simulation time of 840[Formula: see text]ns indicate that the thermal stability increased.

Conclusion: This proof of concept demonstrated that transfer of a desired protein property from one set of proteins is feasible. Availability and implementation: The source code of ThermalProGAN can be freely accessed at https://github.com/markliou/ThermalProGAN/ with an MIT license. The website is https://thermalprogan.markliou.tw:433. Supplementary information: Supplementary data are available on Github.

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ThermalProGAN:一个基于序列的热稳定蛋白质生成器,使用非配对数据进行训练。
动机:合成具有新特性的蛋白质具有挑战性,但受到工业界和学术界的追捧。主要的方法是基于试错诱导点突变,辅以结构信息或用难以收集的成对数据建立的预测模型。本研究提出了一种基于序列的新蛋白发明人(SUNI)的未配对样本来构建ThermalProGAN,用于基于序列信息生成热稳定蛋白。结果:ThermalProGAN可以对输入序列进行强突变,中位数为32个残基。一种已知的正常蛋白,1RG0,通过突变51个残基来产生一种热稳定的形式。两种结构叠加后显示出较高的相似性,表明基本函数是守恒的。1RG0和COVID-19候选疫苗的84个分子动力学模拟结果表明,总模拟时间为840[公式:见文]ns,热稳定性有所提高。结论:这一概念证明了从一组蛋白质转移所需的蛋白质特性是可行的。可用性和实现:ThermalProGAN的源代码可以通过MIT许可免费访问https://github.com/markliou/ThermalProGAN/。网址是https://thermalprogan.markliou.tw:433。补充信息:在Github上可以获得补充数据。
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来源期刊
Journal of Bioinformatics and Computational Biology
Journal of Bioinformatics and Computational Biology MATHEMATICAL & COMPUTATIONAL BIOLOGY-
CiteScore
2.10
自引率
0.00%
发文量
57
期刊介绍: The Journal of Bioinformatics and Computational Biology aims to publish high quality, original research articles, expository tutorial papers and review papers as well as short, critical comments on technical issues associated with the analysis of cellular information. The research papers will be technical presentations of new assertions, discoveries and tools, intended for a narrower specialist community. The tutorials, reviews and critical commentary will be targeted at a broader readership of biologists who are interested in using computers but are not knowledgeable about scientific computing, and equally, computer scientists who have an interest in biology but are not familiar with current thrusts nor the language of biology. Such carefully chosen tutorials and articles should greatly accelerate the rate of entry of these new creative scientists into the field.
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