Yu Jinbo, Luo Mingtao, Lv Ziyu, Huang Shenming, Hsu Hsiao-Hsuan, Kuo Chi-Ching, Han Su-Ting, Zhou Ye
Institute of Microscale Optoelectronics, Shenzhen University, 3688 Nanhai Road, Shenzhen, 518060, P.R. China.
Nanoscale. 2020 Dec 8;12(46):23391-23423. doi: 10.1039/d0nr06719a.
The substantial amount of data generated every second in the big data age creates a pressing requirement for new and advanced data storage techniques. Luminescent nanomaterials (LNMs) not only possess the same optical properties as their bulk materials but also have unique electronic and mechanical characteristics due to the strong constraints of photons and electrons at the nanoscale, enabling the development of revolutionary methods for data storage with superhigh storage capacity, ultra-long working lifetime, and ultra-low power consumption. In this review, we investigate the latest achievements in LNMs for constructing next-generation data storage systems, with a focus on optical data storage and optoelectronic data storage. We summarize the LNMs used in data storage, namely upconversion nanomaterials, long persistence luminescent nanomaterials, and downconversion nanomaterials, and their applications in optical data storage and optoelectronic data storage. We conclude by discussing the superiority of the two types of data storage and survey the prospects for the field.
大数据时代每秒产生的海量数据对新型先进的数据存储技术提出了迫切需求。发光纳米材料(LNM)不仅具有与其块体材料相同的光学性质,而且由于纳米尺度下光子和电子的强约束,还具有独特的电子和机械特性,从而能够开发出具有超高存储容量、超长工作寿命和超低功耗的革命性数据存储方法。在本综述中,我们研究了用于构建下一代数据存储系统的发光纳米材料的最新成果,重点是光学数据存储和光电数据存储。我们总结了用于数据存储的发光纳米材料,即上转换纳米材料、长余辉发光纳米材料和下转换纳米材料,以及它们在光学数据存储和光电数据存储中的应用。最后,我们讨论了这两种数据存储的优势,并展望了该领域的前景。