CAREER: Variable Temperature Electric Force and Magnetic Resonance Force Microscopy Studies of Organic Electronic Materials

职业：有机电子材料的变温电力和磁共振力显微镜研究

• 批准号: 0134956
• 负责人: John Marohn
• 金额: --
• 依托单位: Cornell University
• 依托单位国家: 美国
• 项目类别: Continuing Grant
• 财政年份: 2002
• 资助国家: 美国
• 起止时间: 2002-07-01 至 2007-12-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=0134956&HistoricalAwards=false
• 关键词: CAREER; Variable; Temperature; Electric; Force

This project aims to develop new leading-edge instrumentation as tools for advancing the understanding of chemical and physical mechanisms of doping and charge conduction in organic conductors and semiconductors. The goal is to enhance the ability to quantify and image surface charge since the detecting charge with better than single electron sensitivity over a wide range of temperatures and pressures will significantly advance the science and engineering of organic device fabrication. Another goal is to explore the possibilities for measuring sub-femto Newton forces and ultimately single-molecule nuclear magnetic resonance imaging by force microscopy. The educational goals include exploring the integration of this research with chemistry-based materials science directed to training undergraduates, particularly engineers, and for outreach to Kindergarten through grade 12 students.%%%The development of all silicon technology hinges upon the inherently low charge trap density at the silicon / silicon dioxide interface. The presence of interface charge traps in organic devices has seriously retarded the development of high-efficiency organic transistor type devices. Designing and using tools that can be used to characterize and remove these charge traps will be crucial to the commercialization of organic based devices. Students trained in these areas will compete very effectively for job opportunities.

该项目旨在开发新的前沿仪器，以促进有机导体和半导体中掺杂和电荷传导的化学和物理机制的理解。目的是增强量化和图像表面电荷的能力，因为在广泛的温度和压力中，检测电荷比单电子灵敏度更好，这将显着提高有机设备制造的科学和工程。另一个目标是探索测量牛顿亚牛顿力量的可能性，并最终通过力显微镜进行单分子核磁共振成像。教育目标包括探索这项研究与基于化学的材料科学的整合，该材料科学针对培训本科生，尤其是工程师，并通过12年级的学生向幼儿园推广。%%％的所有硅技术的开发都取决于固有的低电荷陷阱密度在硅 /硅Dioxide界面上。有机设备中界面电荷陷阱的存在严重阻碍了高效有机晶体管设备的发展。设计和使用可用于表征和删除这些电荷陷阱的工具对于有机设备的商业化至关重要。在这些领域接受培训的学生将为就业机会提供非常有效的竞争。