Designing Elemental Devices for Molecular Electronics - Molecular Diodes

非技术性：分子电子学基于纳米级材料的量子特性，为高密度电子电路提供了独特的潜力。该项目旨在推进分子电子学的基本构建模块-分子隧道结的科学和技术。隧道结器件具有广泛的应用，包括探测器、高频电路和量子计算。该项目将开发具有与商业硅二极管互补的功能的分子电荷整流器。该项目包括物理和化学的基础研究以及广泛实验条件下的设备工程。该项目与当前国家在量子技术方面的努力以及Quantum Leap NSF Big Idea保持一致。该项目将对研究生和本科生进行无机化学和应用物理之间的接口培训。他们将参与由主要研究者开发的跨学科和国际合作者小组。该项目将把研究与教育活动结合起来，如物理夏令营和为本科生举办的Capstone Research Program。技术：该项目旨在研究金属-分子-金属结的输运性质，目的是了解分子隧道结中的电荷电流整流，并为开发具有与商业硅基二极管互补功能的分子电荷整流器铺平道路。该项目包括化学，物理，设备工程，以及在广泛的实验条件下的基础研究。拟议中的研究将导致更好地了解分子整流和运输的分子结，在先进的知识，使未来的技术应用在分子电子学。本项目的具体目标是（1）研究和量化电荷载流子通过金属-分子-金属形式的分子结的传导，以及（2）阐明未来用于分子电子应用的高效分子电荷整流器件的设计。这个项目将推进对分子结中电荷和自旋传导的基本理解。这些研究将有助于阐明可操作和高效的分子电荷整流器件的设计，以供将来在分子电子应用中使用。一些学生将接受无机化学与基础物理和应用物理之间的接口培训，并接触到PI多年来建立的高度跨学科的国际合作网络。该项目与当前国家在量子技术方面的努力保持一致，如国家量子倡议法案和量子飞跃NSF大创意所示。PI将把拟议的研究与三个主要的教育活动结合起来：（1）物理夏令营offered在没有成本的高性能高中学生在奥兰多大都会地区，（2）服务学习纳米未成年人，本科生外展到该地区的中学传播纳米科学研究，和（3）合作物理科学顶点研究计划，一个独一无二的多机构和多学科的初级/高级顶点研究经验，以促进过渡到专业的物理科学本科生。这个奖项反映了NSF的法定使命，并已被认为是值得通过使用基金会的智力价值和更广泛的影响审查标准进行评估的支持。

Nontechnical:Molecular electronics is based on the quantum properties of nanoscale materials and offers unique potential for high density electronic circuitry. This project seeks to advance the science and technology of a basic building block of molecular electronics - the molecular tunnel junction. Tunnel junction devices have a wide range of applications, including detectors, high frequency circuits, and quantum computing. This project will develop molecular charge rectifiers with functionality complementary to commercial silicon diodes. The project encompasses fundamental studies in physics and chemistry as well as device engineering in a broad range of experimental conditions. This project is well-aligned with current national efforts on quantum technologies as well as the Quantum Leap NSF Big Idea. The project will train graduate and undergraduate students on the interface between inorganic chemistry and applied physics. They will be involved with an interdisciplinary and international group of collaborators developed by the principal investigator. The project will integrate research with educational activities such as a Physics Summer Camp and a Capstone Research Program for undergraduates.Technical:This project aims at investigating the transport properties of metal-molecule-metal junctions, with the goal to understand charge current rectification in molecular tunnel junctions and pave the way towards developing molecular charge rectifiers with functionalities complementary to commercial silicon-based diodes. The project encompasses chemistry, physics, device engineering, as well as fundamental studies in a broad range of experimental conditions. The proposed studies will lead to a better understanding of molecular rectification and transport in molecular junctions, in view of advancing knowledge enabling future technological applications in molecular electronics. The specific objectives of this project are to (1) investigate and quantify the conduction of charge carriers through molecular junctions of the form metal-molecule-metal and (2) elucidate the design of highly efficient molecular charge rectifying devices for future use in molecular electronic applications. This project will advance the fundamental understanding electrical charge and spin conduction in molecular junctions. The projected studies will help elucidate the design of operative and highly efficient molecular charge rectifying devices for future use in molecular electronic applications. Several students will be trained at the interface between inorganic chemistry and fundamen-tal and applied physics and exposed to a highly interdisciplinary international net of collaborations that the PI has established over many years. This project aligns well with current national efforts on quantum technologies, as illustrated by the National Quantum Initiative Act and the Quantum Leap NSF Big Idea. The PI will integrate the proposed research with three main educational activities: (1) a Physics Summer Camp offred at no cost to high-performing high-school students in the Orlando metropolitan area, (2) a Service-Learning Nanoscience Minor, where undergraduate students outreach to middle schools in the area to disseminate research in nanoscience, and (3) a Collaborative Physical Science Capstone Research Program, a one-of-a-kind multi-institutional and multi-disciplinary junior/senior capstone research experience to facilitate transition into the profession to physical science undergraduates.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.