MRI: Acquisition of an Integrated Scanning Probe - Raman Microscope

该项目支持购买组合扫描探针-拉曼显微镜，该显微镜提供材料结构、物理性质和分子组成的非破坏性成像。 这种仪器对工程、材料科学、物理、化学和其他领域的基础研究至关重要，能够推动从新材料和设备的设计到人类疾病起源的识别等一系列进步。 SP-拉曼组合显微镜将使高分辨率拉曼技术成为可能，并将弥补宾厄姆顿纽约州立大学研究和科学培训基础设施的不足，该大学没有拉曼设施。拟议的工具将支持小规模系统、材料、能源和生物医学科学方面的基础研究和教育工作。这些项目的基本知识将促进太阳能应用和下一代制造和材料设计，并将有助于扩大女性和代表性不足的群体对研究的参与。大学将为学生开设一门关于扫描探针和拉曼显微镜的新课程？的工程和科学计划。扫描探针-拉曼显微镜组合是一种最先进的研究工具，用于在亚微米尺度上表征材料的结构、物理和化学性质。锐利的扫描探针协同实现了高分辨率拉曼技术，如TERS（尖端增强拉曼光谱），这是所提出的研究计划所必需的。该仪器启用的研究活动汇集了来自机械工程，生物工程，电气和计算机工程，物理和化学系的15名教师，并形成了合作研究项目和指导初级教师的基础。 该仪器还将与工业界和其他学术机构分享，通过大学进行研究和开发。小型系统集成和包装中心（S3 IP）。通过这项研究获得的新知识将对推进基础科学和工程以及实现新技术产生变革性影响。

This project supports the acquisition of a combined scanning probe-Raman microscope, which provides non-destructive imaging of materials structure, physical properties and molecular composition. This instrumentation is critical to fundamental research in engineering, materials science, physics, chemistry and other fields, enabling advances ranging from the design of new materials and devices to the identification of the origins of human disease. The combined SP-Raman microscope will enable high-resolution Raman techniques and will remedy a deficiency in the research and scientific training infrastructure at the State University of New York at Binghamton, which does not have a Raman facility. The proposed instrument will support fundamental research and education efforts on small-scale systems, materials, energy, and biomedical science. The fundamental knowledge from these projects will advance solar energy applications and next generation manufacturing and materials design and will help to broaden the participation of female and underrepresented groups in research. A new course on scanning probe and Raman microscopy will be developed for students in the University?s engineering and science programs. A combined scanning probe-Raman microscope is a state-of-the-art research tool used to characterize structural, physical and chemical properties of materials at sub-micron scales. The sharp scanning probe synergistically enables high-resolution Raman techniques such as TERS (tip-enhanced Raman spectroscopy), which are essential for the proposed research plan. The research activities enabled by this instrumentation bring together 15 faculty members from the Mechanical Engineering, Bioengineering, Electrical and Computer Engineering, Physics and Chemistry Departments and form the basis for collaborative research projects and mentoring for junior faculty. This instrumentation will also be shared with industry and other academic institutions for their research and development through the University?s Small-Scale Systems Integration and Packing Center (S3IP). The new knowledge gained through this research will have a transformative impact on advancing fundamental science and engineering and enabling new technologies.