Bio-catalytic nanoparticle shaping for preparing mesoscopic assemblies of semiconductor quantum dots and organic molecules†

IF 8 2区 材料科学 Q1 CHEMISTRY, PHYSICAL
Rumana Akter, Nicholas Kirkwood, Samantha Zaman, Bang Lu, Tinci Wang, Satoru Takakusagi, Paul Mulvaney, Vasudevanpillai Biju and Yuta Takano
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Abstract

We report a unique bio-catalytic nanoparticle shaping (BNS) method for preparing a variety of mesoscopic particles by a facile process. For example, the BNS method affords mesoscopic QD assembly dispersions. Large-size sedimentations (>1 μm) of QDs are first formed using oligo-L-lysine linkers. These then undergo controlled enzymatic cleavage of the linkers using trypsin, which surprisingly leads to mesoscopic particles about 84 nm in size with a narrow size distribution. A detailed mechanism of the BNS method is investigated using tetrakis(4-carboxyphenyl)porphyrin (TCPP), instead of QDs, as a probe molecule. Interestingly, the BNS method can also be applied to other combinations of enzymes and enzymatically degradable linkers, such as hyaluronidase with hyaluronan. As a potential application, the mesoscopic particles of QDs and oligo-lysine exhibit their ability to act as a drug delivery carrier originating from the features of both QDs and oligo-lysine. The BNS method demonstrates the universality and versatility of preparing mesoscopic particles and opens new doors for studying QD assemblies and molecular-based mesoscopic particles.

Abstract Image

Abstract Image

用于制备半导体量子点和有机分子介观组合体的生物催化纳米粒子成型。
我们报告了一种独特的生物催化纳米粒子成型(BNS)方法,可通过简便的工艺制备各种介观粒子。例如,BNS 方法可提供介观 QD 组装分散体。首先使用低聚-L-赖氨酸连接体形成大尺寸(大于 1 μm)的 QDs 沉淀。然后,使用胰蛋白酶对链接物进行可控的酶解,结果令人惊讶地产生了大小约为 84 nm、尺寸分布较窄的介观颗粒。使用四(4-羧基苯基)卟啉(TCPP)代替 QDs 作为探针分子,研究了 BNS 方法的详细机理。有趣的是,BNS 方法还可应用于酶和酶可降解连接体的其他组合,如透明质酸酶与透明质酸。作为一种潜在的应用,QDs 和低聚赖氨酸的介观颗粒表现出了作为药物输送载体的能力,这源于 QDs 和低聚赖氨酸的特性。BNS 方法展示了制备介观粒子的通用性和多样性,为研究 QD 组装和分子介观粒子打开了新的大门。
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来源期刊
Nanoscale Horizons
Nanoscale Horizons Materials Science-General Materials Science
CiteScore
16.30
自引率
1.00%
发文量
141
期刊介绍: Nanoscale Horizons stands out as a premier journal for publishing exceptionally high-quality and innovative nanoscience and nanotechnology. The emphasis lies on original research that introduces a new concept or a novel perspective (a conceptual advance), prioritizing this over reporting technological improvements. Nevertheless, outstanding articles showcasing truly groundbreaking developments, including record-breaking performance, may also find a place in the journal. Published work must be of substantial general interest to our broad and diverse readership across the nanoscience and nanotechnology community.
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