化学图书馆对化学生物学/化学遗传学/化学基因组学的重要性

IF 0.4 Q4 BIOCHEMISTRY & MOLECULAR BIOLOGY
文彦 九川, 勝 渡辺, 冬彦 玉野井
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引用次数: 5

摘要

一个新的科学领域,化学生物学/化学遗传学/化学基因组学(cb/cg/cg)自20世纪90年代末以来出现了,特别是在美国。NIH路线图议程,分子文库筛选中心网络(MLSCN),成为推动cb/cg/cg向前发展的推动力。Cb/cg/cg研究包括三种方法:小分子化学文库、高通量筛选和计算数据库。本文就化学文库的重要性作一综述。天然产物衍生的化学文库或其合成的相关化合物衍生的化学文库长期以来对人类健康科学做出了贡献,主要是制药工业。天然产物之所以引起人们的兴趣,是因为它们是由多种复杂的化合物组成的。这一特性使得天然化合物成为未来医学的重要种子。目前,以制药工业为基础的化学生物学使用以生物学为导向的化学文库已经在非营利性科学组织中发展为基础生物学的cb/cg/cg研究,并且由于化学文库与天然产物的使用而产生了各种各样的发展。为了克服天然化合物的多样性和复杂性,20世纪90年代末,美国哈佛大学化学家Stuart Schreiber提出了一种合成小化合物的新概念——多样性定向合成(diversity - oriented Synthesis, DOS)。利用分裂池合成方法,DOS生成的小分子使我们有可能获得跨越广泛化学空间的化合物。本文主要讨论了cb/cg/cg在信号转导、干细胞分化和小g蛋白研究中的应用。这些研究不仅使用了面向生物学的库,而且还使用了面向dos的库。虽然cb/cg/cg是一门相对年轻的科学,其目标是后基因组时代的科学,但它必须不仅在学术界而且在制药工业中架起化学和生物学的桥梁。遗传学、化学文库、化学基因组学、Broad研究所化学生物学平台、化学空间、商用化学文库、多样性和复杂性、多样性导向合成(DOS)、重点文库、香叶基香叶基转移酶i抑制剂、高通量筛选(HTS)、独立筛选设施、文库库、分子文库筛选中心网络(MLSCN)、天然产物、NIH Roadmap、Peter Schultz、RIKEN NPDeo、小g蛋白、小分子,Stuart L. Schreiber, σ-element, Target-Oriented Synthesis (TOS), UCLA化合物文库,UCLA MSSR
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ケミカルバイオロジー/ ケミカルジェネティクス/ ケミカルゲノミクスにおけるケミカルライブラリーの重要性
A new field of science, chemical biology/ chemical genetics/ chemical genomics (cb/cg/cg) has emerged since the late 1990's, especially in the United States. The NIH Roadmap agenda, Molecular Libraries Screening Center Network (MLSCN), became a drive force to push cb/cg/cg forward. Cb/cg/cg studies consist of three methodologies, chemical libraries with small molecules, high-throughput screenings, and computational databases. In this review, we focus on the importance of chemical libraries. Natural products-originated chemical libraries or their synthesized related compounds-derived chemical libraries have long contributed to human health sciences in mainly pharmaceutical industries. The reason why natural products have been of interest is that they consist of diverse and complex chemical compounds. This character makes natural compounds important as the seed of future medicine. Currently, pharmaceutical industry-based chemical biology using biology-oriented chemical libraries has spun off into the cb/cg/cg studies for basic biology in non-profit scientific organizations and a variety of developments have resulted from the use of chemical libraries with natural products. To overcome the diversity and complexity of nature-originated chemical compounds, a new concept of synthesizing small chemical compounds, Diversity-Oriented Synthesis (DOS), has been established by Harvard chemist, Stuart Schreiber in late 1990's. Using split-pool synthesizing methodology, small molecules produced by DOS make it possible for us to obtain compounds that span a wide chemical space. Here, we discuss cb/cg/cg studies applied to signal transduction, stem cell differentiation and small G-protein researches. All of these studies are conducted not only using biology-oriented libraries but also DOS-oriented libraries. Although cb/cg/cg is a relatively young science that aims the post-genome era sciences, it must bridge chemistry and biology not only in the academia but also in pharmaceutical industries. genetics, chemical library, chemical genomics, Chemical Biology Platform at Broad Institute, chemical space, commercially-available chemical library, diversity and complexity, Diversity-Oriented Synthesis (DOS), focused library, geranylgeranyltransferase-I inhibitors, high-throughput screen (HTS), independent screening facilities, library of libraries, Molecular Libraries Screening Center Network (MLSCN), natural products, NIH Roadmap, Peter Schultz, RIKEN NPDeo, small G-protein, small molecules, Stuart L. Schreiber, σ-element, Target-Oriented Synthesis (TOS), UCLA chemical compound library, UCLA MSSR
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来源期刊
Chem-Bio Informatics Journal
Chem-Bio Informatics Journal BIOCHEMISTRY & MOLECULAR BIOLOGY-
CiteScore
0.60
自引率
0.00%
发文量
8
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