开发用于高效便捷地全合成蛋白质的聚合混合相连接技术。

IF 1.5 4区 生物学 Q4 BIOCHEMISTRY & MOLECULAR BIOLOGY Peptide Science Pub Date : 2023-07-01 Epub Date: 2023-05-25 DOI:10.1002/pep2.24323
Ziyong Z Hong, Ruixuan R Yu, Xiaoyu Zhang, Allison M Webb, Nathaniel L Burge, Michael G Poirier, Jennifer J Ottesen
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引用次数: 0

摘要

简单高效地全合成均质和化学修饰的蛋白质样品仍然是一项重大挑战。在此,我们报告了一种用于便捷制备蛋白质的聚合杂化相原生化学连接(CHP-NCL)策略的发展情况。在这一策略中,蛋白质被分割成约 100 个残基的区块,每个区块由可合成的肽片段组装在固体支持物上,然后在溶液中连接成全长蛋白质。采用这种新方法,我们将 CENP-A 的合成产量比以前的杂交阶段连接方法提高了 2.5 倍。我们进一步将新策略扩展到 212 个残基连接体组蛋白 H1.2 的全化学合成,包括未修饰型、磷酸化型和瓜氨酸化型,每种组蛋白由八个肽段组成,只需一次纯化。我们证明,全合成的 H1.2 复制了连接组蛋白与完整的单核糖体的结合相互作用,这代表了连接组蛋白在高阶染色质结构的形成和调控中的重要功能。
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Development of Convergent Hybrid Phase Ligation for Efficient and Convenient Total Synthesis of Proteins.

Simple and efficient total synthesis of homogeneous and chemically modified protein samples remains a significant challenge. Here, we report development of a convergent hybrid phase native chemical ligation (CHP-NCL) strategy for facile preparation of proteins. In this strategy, proteins are split into ~100-residue blocks, and each block is assembled on solid support from synthetically accessible peptide fragments before ligated together into full-length protein in solution. With the new method, we increase the yield of CENP-A synthesis by 2.5-fold compared to the previous hybrid phase ligation approach. We further extend the new strategy to the total chemical synthesis of 212-residue linker histone H1.2 in unmodified, phosphorylated, and citrullinated forms, each from eight peptide segments with only one single purification. We demonstrate that fully synthetic H1.2 replicates the binding interactions of linker histones to intact mononucleosomes, as a proxy for the essential function of linker histones in the formation and regulation of higher order chromatin structure.

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来源期刊
Peptide Science
Peptide Science Biochemistry, Genetics and Molecular Biology-Biophysics
CiteScore
5.20
自引率
4.20%
发文量
36
期刊介绍: The aim of Peptide Science is to publish significant original research papers and up-to-date reviews covering the entire field of peptide research. Peptide Science provides a forum for papers exploring all aspects of peptide synthesis, materials, structure and bioactivity, including the use of peptides in exploring protein functions and protein-protein interactions. By incorporating both experimental and theoretical studies across the whole spectrum of peptide science, the journal serves the interdisciplinary biochemical, biomaterials, biophysical and biomedical research communities. Peptide Science is the official journal of the American Peptide Society.
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