共查询到18条相似文献,搜索用时 78 毫秒
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如何从化学学科的角度理解化学生物学的内涵 总被引:2,自引:0,他引:2
化学生物学作为一个新兴的交叉学科,已经引起了我国各个高校化学院系密切关注,为了顺应这一新学科发展的需要,众多高校纷纷建立与化学生物学学科相关的实验室或研究组,并开始招收化学生物学专业的本科生和研究生。但是,有关化学生物学的基本知识结构仍然不清楚,化学、生物学和药学家对于化学生物学内容的理解均本着本学科相关的一些方面,侧重点各不相同。因此,本文从化学学科的角度对目前化学生物学的研究内容、化学生物学学科的建立以及化学生物学的定义进行讨论。 相似文献
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药物共晶是一种新兴的药物晶型, 一个给定的活性药物分子通过形成共晶, 一方面可以大大丰富其结晶形式, 另一方面可以改善其物化性质及临床疗效. 本文从超分子化学的角度对药物共晶进行了综述, 列举了一系列通过氢键超分子合成子进行药物共晶设计和制备的研究实例, 旨在促进超分子化学和药学的交叉融合. 相似文献
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超分子化学药物研究 总被引:14,自引:2,他引:14
超分子药物化学是超分子化学在药学领域的新发展.该领域研究活跃,发展迅速,是一个充满活力的新兴交叉学科领域,并正在逐渐变成一个相对独立的研究领域.迄今已有许多两个或两个以上分子通过非共价键力形成的超分子化学药物应用于临床.超分子化学药物可具有良好的安全性、低毒性、不良反应少、高生物利用度、药物靶向性强、多药耐药性小、生物相容性好、高疗效以及其开发成本低、周期短、成功可能性大等诸多优点而备受关注,显示出超分子化学药物具有很大的发展潜力.本文首次给出了超分子药物的定义.结合自己的工作,参考国内外文献综述了超分子化学药物在抗肿瘤、抗炎镇痛、抗疟、抗菌、抗真菌、抗结核、抗病毒、抗癫痫、作为心血管和磁共振成像药物等医药领域的研究与开发状况,并展望其发展趋势与应用前景. 相似文献
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气相色谱中的超分子化学问题:Ⅰ.气相色谱与超分子化学的关系 总被引:1,自引:3,他引:1
超分子化学是有关超分子体系结构和功能的化学,超分子体系是由多个分子作用联系起来的实体,分子识别是形成超分本系的基本特征,本文从分子识别的角度,探讨了气相色谱学中超分子化学问题,并详细地评述了冠醚、液晶、环表固定液的分子识别机理的研究状况,最后,作者们大致展望了色谱研究超分子问题的前景,并且认为在多人工作基础上会产生一门新科学-超分子色谱学。 相似文献
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单体分子在溶液相自发形成周期性的网络结构,是超分子化学和分子自组装研究领域的重大挑战.多头基分子在溶液相通过分子间非共价键作用可以形成超分子聚合物.提高多头基(三头基和四头基)分子骨架的刚性,可以提高结合位点的结构预组织,进而增强分子间相互作用的协同性和多价性特征,提高自组装结构的有序性或周期性.本文综述了多头基分子自组装形成超分子聚合物的一些重要进展,介绍了二维超分子有机框架(一类新的溶液相周期性自组装网络结构研究的最新进展. 相似文献
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从生物有机化学到化学生物学 总被引:1,自引:0,他引:1
生物体系中的发现一直是与小分子连系在一起的.生物有机化学是生物学和有机化学相互交叉发展起来的新领域,特别是小分子与蛋白结合后引起蛋白功能变化的研究如抑制作用和活化.化学生物学和结构多样性有机合成使系统研究生物学成为可能,人工转录因子可以用作探针来发现生命过程中新的奥秘. 相似文献
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Dr. Nicholas H. Evans Prof. Paul D. Beer 《Angewandte Chemie (International ed. in English)》2014,53(44):11716-11754
Since the start of this millennium, remarkable progress in the binding and sensing of anions has been taking place, driven in part by discoveries in the use of hydrogen bonding, as well as the previously under‐exploited anion–π interactions and halogen bonding. However, anion supramolecular chemistry has developed substantially beyond anion recognition, and now encompasses a diverse range of disciplines. Dramatic advance has been made in the anion‐templated synthesis of macrocycles and interlocked molecular architectures, while the study of transmembrane anion transporters has flourished from almost nothing into a rapidly maturing field of research. The supramolecular chemistry of anions has also found real practical use in a variety of applications such as catalysis, ion extraction, and the use of anions as stimuli for responsive chemical systems. 相似文献
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Han Liu Shaoquan Lin Kristian M. Jacobsen Thomas B. Poulsen 《Angewandte Chemie (International ed. in English)》2019,58(39):13630-13642
A central goal of chemical biology is to develop molecular probes that enable fundamental studies of cellular systems. In the hierarchy of bioactive molecules, the so‐called ionophore class occupies an unflattering position in the lower branches, with typical labels being “non‐specific” and “toxic”. In fact, the mere possibility that a candidate molecule possesses “ionophore activity” typically prompts its removal from further studies; ionophores—from a chemical genetics perspective—are molecular outlaws. In stark contrast to this overall poor reputation of ionophores, synthetic chemistry owes some of its most amazing achievements to studies of ionophore natural products, in particular the carboxyl polyethers renowned for their intricate molecular structures. These compounds have for decades been academic battlegrounds where new synthetic methodology is tested and retrosynthetic tactics perfected. Herein, we review the most exciting recent advances in carboxyl polyether ionophore (CPI) synthesis and in addition discuss the burgeoning field of CPI chemical biology. 相似文献
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Quentin T. L. Pasquer Ioannis A. Tsakoumagkos Sascha Hoogendoorn 《Molecules (Basel, Switzerland)》2020,25(23)
Biologically active small molecules have a central role in drug development, and as chemical probes and tool compounds to perturb and elucidate biological processes. Small molecules can be rationally designed for a given target, or a library of molecules can be screened against a target or phenotype of interest. Especially in the case of phenotypic screening approaches, a major challenge is to translate the compound-induced phenotype into a well-defined cellular target and mode of action of the hit compound. There is no “one size fits all” approach, and recent years have seen an increase in available target deconvolution strategies, rooted in organic chemistry, proteomics, and genetics. This review provides an overview of advances in target identification and mechanism of action studies, describes the strengths and weaknesses of the different approaches, and illustrates the need for chemical biologists to integrate and expand the existing tools to increase the probability of evolving screen hits to robust chemical probes. 相似文献