纳米粒子束沉积技术在新型材料绿色合成中的应用

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摘要

将尺寸可控的纳米颗粒(原子团簇)沉积到梁的支撑上是一种无溶剂的、绿色的、小规模制造功能纳米材料的途径。为了将簇的美丽物理和化学转化为实际应用,例如涂层,催化剂,生物芯片,生物材料和光子材料,需要显着扩大沉积速率[1,2],同时减少过程中的材料损失(例如1-10%)。例如,工业催化剂研发所需的沉积速率为10mg/小时的簇,而定制药品制造所需的沉积速率为1-10g/小时。在这次演讲中,我将讨论原子尺度上沉积团簇的基本方面——正如像差校正扫描透射电子显微镜所揭示的[3,4]——以及满足规模挑战的努力现状,重点是我们的“矩阵组装团簇源”(MACS)[5]。一些沉积团簇在多相和电催化中的首次实际演示[6-10]将被展示,显示出有吸引力的活性和选择性[1,6 -10],作为在表面工程、治疗学、光子学和神经形态学等不同领域可能做的说明。
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Scaling-up Nanoparticle Beam Deposition for Green Synthesis of Advanced Materials
The deposition of size-controlled nanoparticles (atomic clusters) onto supports from the beam is a solvent-free, green route to small-scale manufacturing of functional nanomaterials. To translate the beautiful physics and chemistry of clusters into practical applications, e.g., coatings, catalysts, biochips, biomaterials, and photonic materials, significant scale-up of the rate of deposition is needed [1,2], while reducing the loss of material in the process (to say 1-10%). For example, the deposition rate needed for industrial catalyst R&D is 10mg/hour of clusters, while for bespoke pharmaceutical manufacturing, 1-10g/hour is required. In this talk, I will discuss both the fundamental aspects of deposited clusters at the atomic-scale – as revealed by aberration-corrected scanning transmission electron microscopy [3,4] – and the status of efforts to meet the scale-up challenge, with emphasis on our “Matrix Assembly Cluster Source” (MACS) [5]. Some first practical demonstrations [6-10] of deposited clusters in heterogeneous and electrocatalysis will be presented, showing attractive activities and selectivities [1, 6-10], as an illustration of what might be done in fields as diverse as surface engineering, theranostics, photonics, and neuromorphic.
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