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通过激光诱导正向转移进行打印与数字制造的未来。

Printing via Laser-Induced Forward Transfer and the Future of Digital Manufacturing.

作者信息

Florian Camilo, Serra Pere

机构信息

Princeton Institute for the Research and Technology of Materials (PRISM), Princeton University, 70 Prospect Av, Princeton, NJ 08540, USA.

Instituto de Óptica Daza de Valdés, Consejo Superior de Investigaciones Científicas (IO-CSIC), Calle Serrano 122, 28006 Madrid, Spain.

出版信息

Materials (Basel). 2023 Jan 11;16(2):698. doi: 10.3390/ma16020698.

Abstract

In the last decades, digital manufacturing has constituted the headline of what is starting to be known as the 'fourth industrial revolution', where the fabrication processes comprise a hybrid of technologies that blur the lines between fundamental sciences, engineering, and even medicine as never seen before. One of the reasons why this mixture is inevitable has to do with the fact that we live in an era that incorporates technology in every single aspect of our daily lives. In the industry, this has translated into fabrication versatility, as follows: design changes on a final product are just one click away, fabrication chains have evolved towards continuous roll-to roll processes, and, most importantly, the overall costs and fabrication speeds are matching and overcoming most of the traditional fabrication methods. Laser-induced forward transfer (LIFT) stands out as a versatile set of fabrication techniques, being the closest approach to an all-in-one additive manufacturing method compatible with virtually any material. In this technique, laser radiation is used to propel the material of interest and deposit it at user-defined locations with high spatial resolution. By selecting the proper laser parameters and considering the interaction of the laser light with the material, it is possible to transfer this technique from robust inorganic materials to fragile biological samples. In this work, we first present a brief introduction on the current developments of the LIFT technique by surveying recent scientific review publications. Then, we provide a general research overview by making an account of the publication and citation numbers of scientific papers on the LIFT technique considering the last three decades. At the same time, we highlight the geographical distribution and main research institutions that contribute to this scientific output. Finally, we present the patent status and commercial forecasts to outline future trends for LIFT in different scientific fields.

摘要

在过去几十年里,数字制造已成为所谓“第四次工业革命”的焦点,其制造过程融合了多种技术,模糊了基础科学、工程甚至医学之间的界限,这是前所未有的。这种融合不可避免的一个原因是,我们生活在一个将技术融入日常生活方方面面的时代。在工业领域,这已转化为制造的多功能性,具体如下:最终产品的设计更改只需一键操作,制造链已朝着连续的卷对卷工艺发展,最重要的是,总体成本和制造速度正在与大多数传统制造方法相匹配并超越它们。激光诱导正向转移(LIFT)作为一组多功能制造技术脱颖而出,是最接近与几乎任何材料兼容的一体化增材制造方法。在这项技术中,激光辐射用于推动感兴趣的材料并将其以高空间分辨率沉积在用户定义的位置。通过选择合适的激光参数并考虑激光与材料的相互作用,可以将这项技术从坚固的无机材料转移到脆弱的生物样本上。在这项工作中,我们首先通过查阅近期的科学综述出版物,简要介绍LIFT技术的当前发展情况。然后,我们通过统计过去三十年关于LIFT技术的科学论文的发表数量和被引次数,提供一个总体研究概述。同时,我们突出贡献这一科学成果的地理分布和主要研究机构。最后,我们介绍专利状况和商业预测,以概述LIFT在不同科学领域的未来趋势。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/2180/9865182/dc3dce1607c2/materials-16-00698-g001.jpg

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