Soler Maria, Scholtz Alexis, Zeto Rene, Armani Andrea M
Nanobiosensors and Bioanalytical Applications Group (NanoB2A), Catalan Institute of Nanoscience and Nanotechnology (ICN2), CSIC, BIST and CIBER-BBN, Barcelona, Spain.
Department of Biomedical Engineering, University of Southern California, Los Angeles, California 90089, USA.
APL Photonics. 2020 Sep 1;5(9):090901. doi: 10.1063/5.0021270.
As the impact of COVID-19 on society became apparent, the engineering and scientific community recognized the need for innovative solutions. Two potential roadmaps emerged: developing short-term solutions to address the immediate needs of the healthcare communities and developing mid/long-term solutions to eliminate the over-arching threat. However, in a truly global effort, researchers from all backgrounds came together in tackling this challenge. Short-term efforts have focused on re-purposing existing technologies and leveraging additive manufacturing techniques to address shortages in personal protective equipment and disinfection. More basic research efforts with mid-term and long-term impact have emphasized developing novel diagnostics and accelerating vaccines. As a foundational technology, photonics has contributed directly and indirectly to all efforts. This perspective will provide an overview of the critical role that the photonics field has played in efforts to combat the immediate COVID-19 pandemic as well as how the photonics community could anticipate contributing to future pandemics of this nature.
随着新冠疫情对社会的影响日益明显,工程和科学界意识到需要创新解决方案。出现了两条潜在的路线图:开发短期解决方案以满足医疗保健社区的迫切需求,以及开发中长期解决方案以消除总体威胁。然而,在一项真正的全球努力中,来自各种背景的研究人员共同应对这一挑战。短期努力集中在重新利用现有技术和利用增材制造技术来解决个人防护装备和消毒方面的短缺。具有中长期影响的更多基础研究努力则强调开发新型诊断方法和加速疫苗研发。作为一项基础技术,光子学直接或间接地为所有努力做出了贡献。本视角将概述光子学领域在抗击当前新冠疫情的努力中所发挥的关键作用,以及光子学领域如何预期为未来此类性质的大流行做出贡献。