MRI-R2: Acquisition of an Environmental Field Emission Scanning Electron Microscope for Research and Education at North Caroline Central University

0959679 WuNorth卡罗莱纳中央大学技术摘要：该奖项是根据2009年美国复苏和再投资法案（公法111-5）资助的。纳米结构材料在广泛的科学学科的基础和应用研究中越来越重要。 该提案要求为高分辨率环境场发射扫描电子显微镜（FESEM）提供资金，以支持北卡罗来纳州中央大学（NCCU）各科学系和研究机构的纳米科学研究和教育，包括重点关注以下项目的项目：（1）开发用于先进光电器件的半导体量子点和纳米线;（2）纳米颗粒的健康和环境影响;（3）用于药物递送和光伏应用的聚合物纳米复合材料;（4）用于生物医学成像的纳米结构;以及（5）通过表面等离子体共振效应控制光的金属纳米结构。 该FESEM包括能量色散X射线和电子背散射衍射系统，将提供及时获取尺寸，形状，元素组成和晶体相数据的纳米级分辨率，这对NCCU正在进行的研究至关重要。 所要求的FESEM的低真空能力使NCCU研究的各种材料（包括非导电或生物样品）的成像成为可能，而无需耗时和分辨率限制的制备步骤。 收购FESEM将加强NCCU多个科学学科的研究，增加正在进行的项目的深度，生产力和范围，开辟新的研究途径，并改善许多NCCU学生的研究经验。 一个远程操作软件附件将使该仪器的演示在任何位置与互联网接入，促进纳米科学介绍到大型入门课程在NCCU和当地的K-12类。该奖项由2009年美国复苏和再投资法案（公法111-5）资助。纳米材料由于其独特的物理性质及其对从癌细胞成像到从太阳光发电的应用的潜在影响而引起了极大的兴趣。 该提案要求为高分辨率环境场发射扫描电子显微镜（FESEM）提供资金，以支持北卡罗来纳州中央大学（NCCU）各科学系和研究机构的纳米科学研究和教育，包括专注于纳米材料在光学设备，生物医学成像和人类健康中的影响的广泛项目。 该FESEM包括能量色散X射线和电子背散射衍射系统，将提供及时获取对这些项目至关重要的纳米级分辨率的尺寸，形状，元素成分和结构数据。 该FESEM能够对NCCU研究的各种材料（包括难以用传统扫描电子显微镜成像的生物样品）进行成像，而无需耗时和分辨率限制的制备步骤。 收购FESEM将加强NCCU多个科学学科的研究，增加正在进行的项目的深度，生产力和范围，开辟新的研究途径，并改善许多NCCU学生的研究经验。 一个远程操作软件附件将使该仪器的演示在任何位置与互联网接入，促进纳米科学介绍到大型入门课程在NCCU和当地的K-12类。

0959679WuNorth Carolina Central U.Technical Summary: This award is funded under the American Recovery and Reinvestment Act of 2009 (Public Law 111-5). Nanostructured materials are increasingly important to fundamental and applied research in a wide range of scientific disciplines. This proposal requests funding for a high resolution environmental field emission scanning electron microscope (FESEM) to support nanoscience research and education across science departments and research institutes at North Carolina Central University (NCCU), including projects focused on: (1) Development of semiconductor quantum dots and nanowires for advanced optoelectronic devices; (2) Health and environmental effects of nanoparticles; (3) Polymer nanocomposites for drug delivery and photovoltaic applications; (4) Nanostructures for biomedical imaging; and (5) Metal nanostructures for control of light through surface plasmon resonance effects. This FESEM, which includes energy dispersive x-ray and electron backscattered diffraction systems, will provide timely access to size, shape, elemental composition and crystallographic phase data with nanoscale resolution that are critically important to ongoing research at NCCU. The low vacuum capability of the requested FESEM enables imaging of the wide variety of materials studied at NCCU (including nonconductive or biological samples) without time consuming and resolution limiting preparation steps. Acquisition of the FESEM will enhance research across multiple scientific disciplines at NCCU, increasing the depth, productivity and scope of ongoing projects, opening new research avenues, and improving the research experiences of many NCCU students. A remote operation software accessory will enable demonstration of the instrument in any location with internet access, facilitating introduction of nanoscience to large introductory classes at NCCU and local K-12 classes. Layman Summary: This award is funded under the American Recovery and Reinvestment Act of 2009 (Public Law 111-5). Nanometer sized materials are of great interest due to their unique physical properties and their potential impact for applications ranging from imaging of cancer cells to generation of electricity from sunlight. This proposal requests funding for a high resolution environmental field emission scanning electron microscope (FESEM) to support nanoscience research and education across science departments and research institutes at North Carolina Central University (NCCU), including a wide range of projects focused on the impact of nanoscale materials in optical devices, biomedical imaging and human health. This FESEM, which includes energy dispersive x-ray and electron backscattered diffraction systems, will provide timely access to data on sizes, shapes, elemental compositions and structures with nanoscale resolution that are critically important to these projects. This FESEM is capable imaging of the wide variety of materials studied at NCCU (including biological samples that are difficult to image with conventional scanning electron microscopes) without time consuming and resolution limiting preparation steps. Acquisition of the FESEM will enhance research across multiple scientific disciplines at NCCU, increasing the depth, productivity and scope of ongoing projects, opening new research avenues, and improving the research experiences of many NCCU students. A remote operation software accessory will enable demonstration of the instrument in any location with internet access, facilitating introduction of nanoscience to large introductory classes at NCCU and local K-12 classes.