Molecular Design and 3-D Assembly for Coupled Electro-Optical Functionalities

该项目的目标是对分子组装进行纳米级控制，以创建集成的功能系统，以便“每个原子都计数”，即相对于原子密度，活性体积和功能最大化。 该方法利用具有高表面积和放大响应的有组织界面。该研究是合成和处理的重点，以确定分子合成和三维组织结构集成层次组装与相互作用的电光功能。 由于易于同时合成和加工，以及通过组合、无机改性、有机掺入和多域组装可获得的巨大化学多样性，潜在的重大技术应用是巨大的。 为了实现这些可能性，必须能够预测性地设计和控制多变量动力学和热力学参数，从而获得所需的多尺度结构和功能特性。 本科生，研究生和博士后研究人员在这个项目上工作的教育重点将包括1）促进女性学生和博士后助理的职业生涯，2）在加州科学界的大学内提供尖端的跨学科合作互动和资源，3）个人接触世界各地的机构领先的研究和教育计划，以及4）为K-12和社区学院的学生提供暑期“实践”培训机会。该项目的目标是通过受控分子组装，创建由薄膜，涂层或纤维组成的多功能设备，其厚度为人类头发的直径或更小。薄膜、涂层和纤维将包含自组装的、三维图案化的和界面化的功能组件，这些组件的尺寸在分子和纳米尺度上。 合成和加工同时进行，大大减少了通常与多步组装相关的费用和时间。商业利益包括低介电涂层，光学限制器，光致发光，光催化剂，化学和生物传感器，显示器，微腔激光器和激光阵列，电池电解质和光学数据存储。本科生，研究生和博士后研究人员在这个项目上工作的教育重点包括促进女学生和博士后助理的职业生涯，提供尖端的协作跨学科的互动和资源在加州科学界的大学，个人接触到领先的研究和教育计划在世界各地的机构，并为K-12和社区学院的学生提供夏季“动手”培训机会。

This project targets nanoscale control of molecular assembly to create integrated, functional systems such that "every atom counts", i.e. the active volume and function is maximized relative to the atomic density. The approach makes use of organized interfaces with high surface areas and amplification of response. The research is synthesis and processing focused to determine the molecular synthesis and 3 dimensional organization needed to structurally integrate hierarchical assembly with interacting electro-optic functionalities. Because of the ease of simultaneous synthesis and processing and the huge chemical diversity that is accessible through composition, inorganic modification, organic incorporation, and multidomain assembly, the potential significant technological applications are great. In order to realize these possibilities, it is essential to be able to predictively design and control the multivariable kinetic and thermodynamic parameters that lead to the desired multiscale structure and functional properties. The educational emphasis for undergraduate, graduate and postdoctoral researchers working on this project will include 1) the promotion of professional careers for female students and postdoctoral associates, 2) providing cutting edge collaborative interdisciplinary interactions and resources within the University of California scientific community, 3) personal exposure to leading research and educational programs in world-wide institutions, and 4) provision of summer "hands-on" training opportunities for K-12 and community college students. The goal of this project is to enable, by controlled molecular assembly, the creation of multi-functional devices made up of thin films, coatings or fibers that have thickness' which are the diameter of a human hair or smaller. The thin films, coatings and fibers will contain self-assembled, 3-d patterned and interfaced functional components that are dimensioned on the molecular and nanoscale. Synthesis and processing are carried out simultaneously to greatly reduce the expense and time normally associated with multi-step assembly. Commercial interest includes low-dielectric coatings, optical limiters, photovoltaics, photocatalysts, chemical and bio sensors, displays, microcavity lasers and laser arrays, battery electrolytes, and optical data storage. The educational emphasis for undergraduate, graduate and postdoctoral researchers working on this project includes the promotion of professional careers for female students and postdoctoral associates, providing cutting edge collaborative interdisciplinary interactions and resources within the University of California scientific community, personal exposure to leading research and educational programs in world-wide institutions, and provision of summer "hands-on" training opportunities for K-12 and community college students.