【摘要】 光谱烧孔型全息存储因高密度、抗干扰、低能耗的特点而具备了海量“冷数据”存储潜力。本文结合作者的科研经历，首先简要回顾了光谱烧孔的发展历程和存在瓶颈；随后基于等离激元光谱烧孔的基本原理，阐述了过渡金属氧化物/贵金属功能基元室温全息光谱烧孔的新思想；继而展示了作者在大面积全息盘片研制和小型化全息存储器开发方面的最新成果；最后对未来利用功能基元空间序构实现高密度频域全息光谱烧孔进行了展望。作者所在团队的系列工作开辟了高密度光存储的新方向，同时为发展过渡金属氧化物基高集成光电器件提供了有益的思路。更多还原

【Abstract】 Spectral hole-burning holographic storage has the characteristics of high-density,anti-interference and low-energy-consumption,and has potential ability of storing massive “cold data”.Based on our own research experience,we briefly review the development process and existing bottlenecks of spectral hole-burning.We propose a new idea to achieve room-temperature holographic spectral hole-burning in a functional unit of transition-metal-oxide/noble-metal,which is based on the principle of plasmatic spectral hole-burning.Then we present the latest achievements in large-area holographic discs and compact-type holographic memory devices.We also have a prospect for future work on high-density holographic spectral hole-burning in frequency domain via orderly arrangement of functional units.A series of work of the author’s group open up a new direction for high-density optical storage,and provide a useful idea for the development of transition-metal-oxide-based optoelectronic devices with high-integration.更多还原