Additive Manufacturing for Nano-Feature Applications: Electrohydrodynamic Printing as a Next-Generation Enabling Technology

IF 1.8 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY IEEE Open Journal of Nanotechnology Pub Date : 2022-11-23 DOI:10.1109/OJNANO.2022.3224229
Goran Miskovic;Robin Kaufhold
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引用次数: 1

Abstract

Regardless of the technology, additive or subtractive, the miniaturization trend is constantly pushing for smaller resolutions. The rise of global challenges in material availability, fabrication in three dimensions (3D), design flexibility and rapid prototyping have pushed additive manufacturing (AM) into the spotlight. Addressing the miniaturization trend, AM has already successfully answered the challenges for microscale 3D fabrication. However, fabricating nano-resolution still presents a challenge. In this review, we will present some of the most reported AM-based technologies capable of nanoscale 3D fabrication addressing resolutions of ≤ 500 nm. The focus is placed on Electrohydrodynamic (EHD) printing (also known as e-jet printing), as EHD printing seems to have the best trade-off when it comes to technique complexity, achievable resolutions, material diversity and potential to scale-up throughput. An overview of the smallest achieved resolutions as well as the most unique use cases and demonstrated applications will be addressed in this work.
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纳米特征应用的增材制造:电流体动力打印作为下一代使能技术
无论技术是加法还是减法,小型化趋势都在不断推动更小的分辨率。材料可用性、三维(3D)制造、设计灵活性和快速原型制造等全球挑战的兴起,将增材制造(AM)推向了聚光灯下。为了解决小型化趋势,增材制造已经成功地应对了微型3D制造的挑战。然而,制造纳米分辨率仍然是一个挑战。在这篇综述中,我们将介绍一些报道最多的基于am的技术,这些技术能够解决≤500纳米的纳米级3D制造问题。重点放在电流体动力(EHD)打印(也称为电子喷射打印)上,因为EHD打印在技术复杂性、可实现的分辨率、材料多样性和扩大吞吐量的潜力方面似乎具有最佳的权衡。本文将概述最小实现的分辨率以及最独特的用例和演示的应用程序。
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CiteScore
3.90
自引率
17.60%
发文量
10
审稿时长
12 weeks
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