液相分离中π相互作用的研究

Eisuke Kanao
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引用次数: 0

摘要

由于控制分子识别和自组装能力的主要因素,π相互作用最近受到了相当大的关注,正如在生物系统和有机功能材料结构中的近似排列数据库中积累的那样。因此,对π相互作用的进一步深入理解和控制将极大地促进新功能材料的开发。尽管π相互作用很重要,但它们的研究仍然具有挑战性,因为π相互作用比大多数其他分子相互作用弱得多,如疏水相互作用、氢键和静电键。另一方面,液相色谱(LC)是一种强大的分离技术,它能够区分溶质在流动相和固定相之间的分配系数,并能灵敏地反映分子相互作用的强度。我们通过开发用碳材料改性的新型二氧化硅整体毛细管柱来研究π相互作用的性质,该柱提供了强π相互作用。在这篇重点综述中,我们介绍了富勒烯和多环芳烃(PAHs)修饰柱的几种特定π相互作用,由于球形识别和多重CH-π相互作用而表现出强烈的π-π相互作用力。此外,π相互作用有助于各种样品的分离,而现有的保留机制很难实现这一点。简言之,我们将各种π相互作用应用于特定的分离分析,并通过有效的π相互作用成功地分离了卤代化合物、H/D异拓扑对和糖类。这些结果表明,π相互作用有助于实际分离科学,如去除环境污染物和定量测定药用化合物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Studies on π Interactions in Liquid-phase Separations
π interactions have recently received considerable attentions due to principal factor governing molecular recognitions and self-assemble abilities, as accumulated in the database on proximate arrangements in structures of biological systems and organic functional materials. Therefore, further deep understanding and control of π interactions will greatly facilitate the development of new functional materials. Despite the importance of π interactions, they are still challenging to study because π interactions are much weaker than most other molecular interactions, such as hydrophobic interaction, hydrogen bonding, and electrostatic bonding. On the other hand, liquid chromatography (LC) is a powerful separation technique, which is able to distinguish the partition coefficients of solutes between the mobile and stationary phases, and can sensitively reflect the strength of molecular interactions. We investigated the properties of π interactions by developing new silica-monolithic capillary columns modified with carbon materials providing strong π interactions. In this focusing review, we introduce a few specific π interactions by columns modified with fullerenes and polycyclic aromatic hydrocarbons (PAHs), which showed strong π - π interactions due to spherical recognition and multiple CH- π interactions. Furthermore, π interactions can contribute to the separation of various samples, which are difficult to achieve by the available retention mechanisms. Briefly, we applied various π interactions to specific separation analyses, and we succeeded in separating halogenated compounds, H/D isotopologue pairs, and saccharides by effective π interactions. These results indicates that π interactions contribute to practical separation science, such as removal of environmental pollutants and quantitative determination of medicinal compounds.
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