3d打印微流控芯片合成AgInS2量子点的光学特性

Konstantin Baranov, I. Reznik, S. Karamysheva, J. Swart, S. Moshkalev, A. Orlova
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引用次数: 1

摘要

胶体纳米粒子,特别是量子点,是一类新的材料,可以显著提高光子学,电子学,传感器设备等的功能。本文解决的主要挑战是修改胶体NP的合成,使其投入大规模生产。提出了一种用于微流体合成的芯片增材打印方法,并表明我们的方法可以提供一种廉价,易于扩展和自动化的合成方法,可以将产品收率提高到60%,并改善AgInS2量子点的光学性能。
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Optical Properties of AgInS2 Quantum Dots Synthesized in a 3D-Printed Microfluidic Chip
Colloidal nanoparticles, and quantum dots in particular, are a new class of materials that can significantly improve the functionality of photonics, electronics, sensor devices, etc. The main challenge addressed in the article is modification of the syntheses of colloidal NP to launch them into mass production. It is proposed to use an additive printing method of chips for microfluidic synthesis, and it is shown that our approach allows to offer a cheap, easily scalable and automated synthesis method which allows to increase the product yield up to 60% with improved optical properties of AgInS2 quantum dots.
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