MRI: Acquisition of a Cathodoluminescence Microscope for Device Testing, Materials Research and Education

标题：收购用于材料研究、器件测试和教育的阴极发光系统这项建议应用于主要研究仪器(MRI)计划，请求中佛罗里达大学(UCF)支持收购由Attolight AG制造的最先进的Allalin 4027计时阴极发光电子显微镜，用于以纳米级分辨率连续和脉冲(时间分辨)原位表征各种材料和器件。摘要：阴极发光是指样品在160~2000 nm的波长范围内，由于电子轰击而发出的光。这一宽广的光谱范围使化学发光可以从包括金属、半导体和生物样品在内的各种材料以及基于它们的设备中收集。拟建的CL电子显微镜将用于材料和器件的光学测试，并将支持UCF的使命，UCF是一所综合性州立大学，致力于提供优质教育，从事有益的研究，并将大学的教育、研究和培训计划与当地社区相结合。截至2016年，UCF是美国第二大大学，也是佛罗里达州授予理科硕士学位的第二大大学。材料科学与工程专业博士学位。因此，很有必要制定和加强课程，以建立综合的物理、光学、光子学和材料科学课程。由于涉及的学生人数众多，因此开设了许多关于先进设备和材料技术的专业研究生水平的课程。拟议的CL显微镜将成为新的实验室课程的基础，以培训学生使用这种新的和多功能的最先进设备进行理论、方法和数据分析方面的培训。应该指出的是，UCF主办了几个NSF项目，高达68%的学生来自代表不足的群体。因此，拟议的Attolight显微镜参与这些项目也将促进少数族裔学生在尖端研究项目中的培训。如果该项目成功，拟议的CL显微镜将是第一个在北美和南美洲部署的显微镜，从而展示了该仪器在地区、国家和国际各级对研究界的更广泛影响。拟议的化学发光仪器将是表征新材料和功能结构(如半导体和等离子器件)以及陶瓷微结构和缺陷的重要设备。该系统的优势还在于它能够研究各种有机材料。拟议的化学发光显微镜将允许前所未有的纳米级成像和深入了解非平衡电子载流子动力学(精确到皮秒时间尺度)和在广泛的材料和设备中的传输。这一理解构成了拟议的NSF-MRI项目的主要智力优势。拟议的系统还将推动UCF在光子学和材料科学方面的一些研究工作。因此，这种工具将提供中佛罗里达大学目前所缺乏的基本的、多学科的和多功能的能力，从而强调这一MRI提议的更广泛的影响。

Title: Acquisition of a Cathodoluminescence System for Materials Research, Device Testing and EducationThis proposal application to the Major Research Instrumentation (MRI) Program requests support of the University of Central Florida (UCF) in acquisition of the state-of-the-art Allalin 4027 Chronos Cathodoluminescence Electron Microscope manufactured by Attolight AG for continuous and pulsed (time-resolved) in-situ characterization of a wide-range of materials and devices with nano-scale resolution. Abstract:Cathodoluminescence (CL) is the light emitted by specimens, as a result of electron bombardment, in the wavelength range of 160 to 2000 nm. This broad spectral range allows CL to be collected from a wide variety of materials including metals, semiconductors and biological samples, as well as devices based on them. The proposed CL Electron Microscope will be employed for optical testing of materials and devices and will support the mission of UCF, a comprehensive state university committed to providing quality education, engaging in beneficial research and integrating the university's education, research and training programs with the local community. As of 2016, UCF is the second largest university in the US and the second largest in the state of Florida to grant M.Sc. and Ph.D. degrees in Materials Science and Engineering. Consequently, there has been a significant need for curriculum development and enhancement to establish comprehensive physics, optics, photonics and materials science programs. Because of the large number of students involved, there is a number of specialty graduate level courses given on advanced devices and materials technologies. The proposed CL Microscope will form the basis of new laboratory course to train students in the theory, methodology and data analysis possible with this new and versatile state-of-the-art equipment. It should be noted that UCF hosts several NSF programs with as much as 68% students from under-represented groups. Therefore, an involvement of the proposed Attolight Microscope in these programs will also promote training of minority students in top-edge research projects. If this project is successful, the proposed CL Microscope will be the first one ever deployed in the North and South America, thus demonstrating the broader impact of the instrument on the research community at the regional, national and international levels. The proposed CL instrument will be an essential piece of equipment for characterization of novel materials and functional structures such as semiconductor and plasmonic devices as well as ceramic microstructures and defects. The advantage of the proposed system is also in its capabilities of studying various organic materials. The proposed CL Microscope will allow unprecedented nano-scale imaging and in-depth understanding of non-equilibrium electronic carrier dynamics (down to pico-second time scale) and transport in a wide range of materials and devices. This understanding constitutes the main intellectual merit of the proposed NSF-MRI project. The proposed system will additionally advance a number of research efforts in photonics and materials science at UCF. Hence, such a tool will provide a fundamental, multi-disciplinary and versatile capability that is presently lacking at the University of Central Florida, thus emphasizing the broader impact of this MRI proposal.