Mediator Monomer Regulated Emulsion Interfacial Polymerization to Synthesize Nanofractal Magnetic Particles for Nucleic Acid Separation

IF 10.7 2区 材料科学 Q1 CHEMISTRY, PHYSICAL Small Methods Pub Date : 2023-07-25 DOI:10.1002/smtd.202300531
Xinyi Shen, Yue Zhang, Duanda Wang, Yanling Huang, Yongyang Song, Shutao Wang
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Abstract

Polymer-based magnetic particles have been widely used for the separation of biological samples including nucleic acids, proteins, virus, and cells. Existing magnetic particles are almost prepared by coating polymers on magnetic nanoparticles (NPs). However, this strategy usually encounters the problem of poor magnetic NPs loading capacity. Here, a series of nanofractal magnetic particles (nanoFMPs) synthesized by a strategy of mediator monomer regulated emulsion interfacial polymerization is presented, which allows effective magnetic NPs loading and show efficient nucleic acid separation performance. The mediator monomers facilitate the dispersion of magnetic NPs in internal phase to achieve higher loading, and the hydrophilic monomers use electrostatic interactions to form surface nanofractal structures with functional groups. Compared with magnetic particles without nanofractal structure, nanoFMPs exhibit a higher nucleic acid extraction capability. This strategy offers an effective and versatile way for the synthesis of nanoFMPs toward efficient separation in various fields from clinical diagnosis to food safety and environmental monitoring.

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用介质单体调控乳液界面聚合法合成用于核酸分离的纳米分形磁性粒子
聚合物磁性颗粒已被广泛用于分离核酸、蛋白质、病毒和细胞等生物样本。现有的磁性颗粒几乎都是通过在磁性纳米粒子(NPs)上涂覆聚合物来制备的。然而,这种策略通常会遇到磁性 NPs 负载能力差的问题。本文介绍了一系列采用介质单体调控乳液界面聚合策略合成的纳米分形磁性粒子(nanoFMPs),这种粒子能有效负载磁性 NPs,并显示出高效的核酸分离性能。介导单体可促进磁性 NPs 在内层相中的分散以实现更高的负载,亲水单体则利用静电作用与功能基团形成表面纳米分形结构。与没有纳米分形结构的磁性颗粒相比,纳米 FMPs 具有更高的核酸提取能力。这种策略为合成纳米 FMPs 提供了一种有效而多用途的方法,可用于从临床诊断到食品安全和环境监测等多个领域的高效分离。
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来源期刊
Small Methods
Small Methods Materials Science-General Materials Science
CiteScore
17.40
自引率
1.60%
发文量
347
期刊介绍: Small Methods is a multidisciplinary journal that publishes groundbreaking research on methods relevant to nano- and microscale research. It welcomes contributions from the fields of materials science, biomedical science, chemistry, and physics, showcasing the latest advancements in experimental techniques. With a notable 2022 Impact Factor of 12.4 (Journal Citation Reports, Clarivate Analytics, 2023), Small Methods is recognized for its significant impact on the scientific community. The online ISSN for Small Methods is 2366-9608.
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