{"title":"超越 DAD:为核碱基介导的分子识别提出单字母代码。","authors":"Aiden J Ward, Benjamin E Partridge","doi":"10.1039/d4tb01999g","DOIUrl":null,"url":null,"abstract":"<p><p>Nucleobase binding is a fundamental molecular recognition event central to modern biological and bioinspired supramolecular research. Underpinning this recognition is a deceptively simple hydrogen-bonding code, primarily based on the canonical nucleobases in DNA and RNA. Inspired by these biotic structures, chemists and biologists have designed abiotic hydrogen-bonding motifs that can interact with, augment, and reshape native molecular recognition, for applications ranging from genetic code expansion and nucleic acid recognition to supramolecular materials utilizing mono- and bifacial nucleobases. However, as the number of nucleobase-inspired motifs expands, the absence of a standard vocabulary to describe hydrogen bond (HB) patterns has led to a haphazard mixture of shorthand descriptors that are confusing and inconsistent. Alternative notations that specify individual HB sites (such as <i>DAD</i> for donor-acceptor-donor) are cumbersome for biological and supramolecular constructs that contain many such patterns. This situation creates a barrier to sharing and interpreting nucleobase-related research across sub-disciplines, hindering collaboration and innovation. In this perspective, we aim to initiate discourse on this issue by considering what would be needed to formulate a concise one-letter code for the HB patterns associated with synthetic nucleobases. We first summarize some of the issues caused by the current absence of a consistent naming scheme. Subsequently, we discuss some key considerations in designing a coherent naming system. Finally, we leverage chemical rationale and pedagogical mnemonic considerations to propose a succinct and intuitive one-letter code for supramolecular two- and three-HB motifs. We hope that this discussion will spark conversations within our interdisciplinary community, thereby facilitating collaboration and easing communication among researchers engaged in synthetic nucleobase design.</p>","PeriodicalId":94089,"journal":{"name":"Journal of materials chemistry. B","volume":" ","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-11-21","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Beyond <i>DAD</i>: proposing a one-letter code for nucleobase-mediated molecular recognition.\",\"authors\":\"Aiden J Ward, Benjamin E Partridge\",\"doi\":\"10.1039/d4tb01999g\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p>Nucleobase binding is a fundamental molecular recognition event central to modern biological and bioinspired supramolecular research. Underpinning this recognition is a deceptively simple hydrogen-bonding code, primarily based on the canonical nucleobases in DNA and RNA. Inspired by these biotic structures, chemists and biologists have designed abiotic hydrogen-bonding motifs that can interact with, augment, and reshape native molecular recognition, for applications ranging from genetic code expansion and nucleic acid recognition to supramolecular materials utilizing mono- and bifacial nucleobases. However, as the number of nucleobase-inspired motifs expands, the absence of a standard vocabulary to describe hydrogen bond (HB) patterns has led to a haphazard mixture of shorthand descriptors that are confusing and inconsistent. Alternative notations that specify individual HB sites (such as <i>DAD</i> for donor-acceptor-donor) are cumbersome for biological and supramolecular constructs that contain many such patterns. This situation creates a barrier to sharing and interpreting nucleobase-related research across sub-disciplines, hindering collaboration and innovation. In this perspective, we aim to initiate discourse on this issue by considering what would be needed to formulate a concise one-letter code for the HB patterns associated with synthetic nucleobases. We first summarize some of the issues caused by the current absence of a consistent naming scheme. Subsequently, we discuss some key considerations in designing a coherent naming system. Finally, we leverage chemical rationale and pedagogical mnemonic considerations to propose a succinct and intuitive one-letter code for supramolecular two- and three-HB motifs. We hope that this discussion will spark conversations within our interdisciplinary community, thereby facilitating collaboration and easing communication among researchers engaged in synthetic nucleobase design.</p>\",\"PeriodicalId\":94089,\"journal\":{\"name\":\"Journal of materials chemistry. B\",\"volume\":\" \",\"pages\":\"\"},\"PeriodicalIF\":0.0000,\"publicationDate\":\"2024-11-21\",\"publicationTypes\":\"Journal Article\",\"fieldsOfStudy\":null,\"isOpenAccess\":false,\"openAccessPdf\":\"\",\"citationCount\":\"0\",\"resultStr\":null,\"platform\":\"Semanticscholar\",\"paperid\":null,\"PeriodicalName\":\"Journal of materials chemistry. 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引用次数: 0
摘要
核碱基结合是现代生物和生物启发超分子研究的核心基本分子识别事件。支撑这种识别的是一个简单得令人难以置信的氢键代码,主要基于 DNA 和 RNA 中的典型核碱基。受这些生物结构的启发,化学家和生物学家设计出了非生物氢键图案,它们可以与原生分子识别相互作用,增强和重塑原生分子识别,应用范围从遗传密码扩展和核酸识别到利用单双面核碱基的超分子材料。然而,随着核碱基启发图案数量的增加,由于缺乏描述氢键(HB)模式的标准词汇,因此出现了混乱和不一致的速记描述符。对于包含许多氢键模式的生物和超分子结构来说,指定单个氢键位点的替代符号(如 DAD 表示供体-受体-供体)非常麻烦。这种情况阻碍了跨学科共享和解释核碱基相关研究,阻碍了合作与创新。从这一角度出发,我们旨在通过考虑为与合成核碱基相关的 HB 模式制定简明的单字母代码所需的条件,启动有关这一问题的讨论。我们首先总结了目前缺乏统一命名方案所造成的一些问题。随后,我们讨论了设计连贯命名系统的一些关键考虑因素。最后,我们利用化学原理和教学记忆法的考虑因素,提出了一种简洁、直观的超分子双 HB 和三 HB 主题单字母代码。我们希望这次讨论能引发跨学科社区的对话,从而促进从事合成核碱基设计的研究人员之间的合作和交流。
Beyond DAD: proposing a one-letter code for nucleobase-mediated molecular recognition.
Nucleobase binding is a fundamental molecular recognition event central to modern biological and bioinspired supramolecular research. Underpinning this recognition is a deceptively simple hydrogen-bonding code, primarily based on the canonical nucleobases in DNA and RNA. Inspired by these biotic structures, chemists and biologists have designed abiotic hydrogen-bonding motifs that can interact with, augment, and reshape native molecular recognition, for applications ranging from genetic code expansion and nucleic acid recognition to supramolecular materials utilizing mono- and bifacial nucleobases. However, as the number of nucleobase-inspired motifs expands, the absence of a standard vocabulary to describe hydrogen bond (HB) patterns has led to a haphazard mixture of shorthand descriptors that are confusing and inconsistent. Alternative notations that specify individual HB sites (such as DAD for donor-acceptor-donor) are cumbersome for biological and supramolecular constructs that contain many such patterns. This situation creates a barrier to sharing and interpreting nucleobase-related research across sub-disciplines, hindering collaboration and innovation. In this perspective, we aim to initiate discourse on this issue by considering what would be needed to formulate a concise one-letter code for the HB patterns associated with synthetic nucleobases. We first summarize some of the issues caused by the current absence of a consistent naming scheme. Subsequently, we discuss some key considerations in designing a coherent naming system. Finally, we leverage chemical rationale and pedagogical mnemonic considerations to propose a succinct and intuitive one-letter code for supramolecular two- and three-HB motifs. We hope that this discussion will spark conversations within our interdisciplinary community, thereby facilitating collaboration and easing communication among researchers engaged in synthetic nucleobase design.