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EAGER: On-Chip Optical Amplifier Using Novel Erbium-Chloride Silicate Single Crystal Nanowires

EAGER: On-Chip Optical Amplifier Using Novel Erbium-Chloride Silicate Single Crystal Nanowires
EAGER:使用新型氯化铒硅酸盐单晶纳米线的片上光学放大器
批准号:
1228512
负责人:
Cun-Zheng Ning
金额:
$14.0万
依托单位:
依托单位国家:
美国
项目类别:
Standard Grant
财政年份:
2013
资助国家:
美国
项目状态:
已结题
起止时间:
2013-08-15 至 2015-01-31

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中文摘要
翻译
这项建议的目的是进行早期的探索性研究,以开发一种使用氯化铒硅酸盐的高增益片上光放大器,这是PI小组最近合成的一种新材料。这种新材料的主要优点是获得了高质量的高密度掺铒单晶。智能的优点在于材料的新颖性,对这类重要材料的基本了解的重要性,以及对芯片上纳米光子系统的潜在影响。了解各种状态的寿命和跃迁的线宽等基本问题将影响许多未来的设备应用。这项研究的变革性方面是从掺杂材料到稀土化合物作为高增益材料的范式转变。100纳米规模的光学放大器将为芯片上的纳米光子系统提供一种改变游戏规则的解决方案,允许前所未有的计算和通信功能的大规模集成。这种高风险、高回报的研究非常适合迫切需要的项目。拟议研究的更广泛影响包括一系列其他应用,如电信波长的量子信息和芯片上的原子钟。启用的光子能力将从根本上革命并潜在地统一基于电子的计算和基于光子的通信,影响信息技术和整个社会。拟议的努力还将把研究与少数民族和女学生的教育结合起来。研究成果将迅速纳入本科项目和研究生课程,以便教育能够及时从拟议的研究中受益。
英文摘要
The objective of this proposal is to conduct early stage exploratory research to develop a high-gain on-chip optical amplifier using erbium chloride silicate, a novel material recently synthesized by the PI's group. The main advantage of the new material is the high quality of the single crystals with high erbium density. The intellectual merits lie in the novelty of materials, the importance of the fundamental understanding of this important class of materials, and the potential impact to on-chip nanophotonic systems. Understanding the fundamental issues such as lifetimes of various states and linewidths of the transitions would impact many future device applications. The transformative aspect of this research is the paradigm shift from doped materials to rare-earth compounds as high gain materials. Optical amplifiers on the scale of 100 nanometers would provide a game-changing solution for on-chip nanophotonic systems, allowing for unprecedentedly large-scale integration of computing and communication functionalities. Such high-risk and high pay-off research is ideally suited for an EAGER project. The broader impact of the proposed research includes an array of other applications such as quantum information at telecomm wavelengths and on-chip atomic clocks. The enabled photonic capabilities would fundamentally revolutionize and potentially unify electronics-based computing and photonics-based communication, impacting information technology and our society in general. The proposed efforts will also integrate research with education of minority and female students. The results of the research will be rapidly incorporated into undergraduate projects and graduate curriculum, so that education can benefit from the proposed research in a timely fashion.
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