CAD/CAM for scalable nanomanufacturing: A network-based system for hybrid 3D printing

被引:0
作者
Hae-Sung Yoon
Hyun-Taek Lee
Ki-Hwan Jang
Chung-Soo Kim
Hyunseo Park
Dae-Wook Kim
Kunwoo Lee
Sangkee Min
Sung-Hoon Ahn
机构
[1] BK21 Plus Transformative Training Program for Creative Mechanical and Aerospace Engineers,Department of Mechanical and Aerospace Engineering
[2] Seoul National University,Department of Mechanical Engineering
[3] Seoul National University,undefined
[4] University of Wisconsin-Madison,undefined
[5] Institute of Advanced Machines and Design,undefined
[6] Seoul National University,undefined
来源
Microsystems & Nanoengineering | / 3卷
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摘要
Micro- and nano-structuring have been highlighted over several decades in both science and engineering fields. In addition to continuous efforts in fabrication techniques, investigations in scalable nanomanufacturing have been pursued to achieve reduced feature size, fewer constraints in terms of materials and dimensional complexity, as well as improved process throughput. In this study, based on recent micro-/nanoscale fabrication processes, characteristics and key requirements for computer-aided design and manufacturing (CAD/CAM) systems for scalable nanomanufacturing were investigated. Requirements include a process knowledge database, standardized processing, active communication, adaptive interpolation, a consistent coordinate system, and management of peripheral devices. For scalable nanomanufacturing, it is important to consider the flexibility and expandability of each process, because hybrid and bridging processes represent effective ways to expand process capabilities. As an example, we describe a novel CAD/CAM system for hybrid three-dimensional (3D) printing at the nanoscale. This novel hybrid process was developed by bridging aerodynamically focused nanoparticle printing, focused ion beam milling, micromachining, and spin-coating processes. The system developed can print a full 3D structure using various inorganic materials, with a minimum process scale of 50 nm. The most obvious difference versus CAD/CAM at ‘conventional’ scales is that our system was developed based on a network to promote communication between users and process operators. With the network-based system, it is also possible to narrow the gap among different processes/resources. We anticipate that this approach can contribute to the development of CAD/CAM for scalable nanomanufacturing and a wide range of hybrid processes.
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[51]  
Huang Y(2014)Inverse modeling of FIB milling by dose profile optimization Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms 341 77-26
[52]  
Schmidt OG(2008)Tool path generation for ultra-precision machining of free-form surfaces Production Engineering 2 241-3083
[53]  
Doumanidis CC(2006)A prototyping and microfabrication CAD/CAM tool for the excimer laser micromachining process The International Journal of Advanced Manufacturing Technology 30 1076-47
[54]  
Zhang X(2016)Toward scalable flexible nanomanufacturing for photonic structures and devices Advanced Materials 28 10353-754
[55]  
Sun C(2012)Nanomanufacturing systems: Opportunities for industrial engineers IIE Transactions 44 492-1472
[56]  
Fang N(2012)3D THz metamaterials from micro/nanomanufacturing Laser & Photonics Reviews 6 219-222
[57]  
Dimov S(2017)A review of the scalable nano-manufacturing technology for flexible devices Frontiers of Mechanical Engineering 12 1-809
[58]  
Brousseau E(2003)Accuracy of nanoscale pitch standards fabricated by laser-focused atomic deposition Journal of Research-National Institute of Standards and Technology 108 99-279
[59]  
Minev R(2016)Toward an uncertainty budget for measuring nanoparticles by AFM Metrologia 53 41-461
[60]  
Razali AR(2013)Brittle-ductile transition during diamond turning of single crystal silicon carbide International Journal of Machine Tools and Manufacture 65 15-392