Acquisition of a VisCube C4-WU CAVE Immersive 3D Display Upgrade to Advance Undergraduate Teaching and Research in Spatial Visualization at the University of Arkansas at Pine Bluff

今天，灵活的电子电路和基于纳米材料的可印刷化学/生物(CB)传感器需要多功能的电路板印刷系统来支持添加剂制造和材料开发的当前和未来举措。除了低成本外，柔性电子产品还提供重量轻的薄膜电子电路，能够附着在柔性和保形表面上。预计这种技术将给目前的电子行业带来革命性的变化，包括薄膜手机、可贴窗薄膜电视和具有各种传感、记忆和通信功能的功能性服装或可去除皮肤的堆叠器。该项目正在收购一种多功能的Optomec Aerosol Jet 300(AJ 300)打印系统，用于柔性电子电路和基于可打印纳米材料的化学/生物(CB)传感器。所要求的最先进的系统预计将提供新的能力，以促进跨学科研究和教育。该仪器是一种附加的高分辨率多层打印系统，能够以精确的多层对准精度在几乎任何平面基板或3D表面上均匀输送流体和纳米材料，使研究人员能够对柔性电子的基本问题进行系统研究，例如载流子(电子和空穴)在柔性表面上的传输，以及由于能带结构、费米能级、载流子迁移率和阈值电压的变化而导致的弯曲和应变下电路性能的变化。该仪器还为各种柔性电子和光电子器件提供了研究平台，如共形天线、高度有序的自组装聚合物/粘土纳米复合材料、太赫兹辐射和检测以及添加剂制造。此外，该仪器还支持直接打印的缩放和集成研究，并调查液滴沉积、复合结构的形成和器件性能之间的耦合。该仪器还可以以实验室参观的形式在K-12外展项目中服务，现场打印柔性电子产品和打印系统演示。

Today, flexible electronic circuits and printable nanomaterials based chemical/biological (CB) sensors require versatile board printing systems to support current and future initiatives in additive manufacturing and material development. In addition to low cost, flexible electronics offers light-weighted, thin-film electronics circuits capable of adhering on flexible and conformal surfaces. Such technology is expected to bring revolutionary changes to the current landscape of electronics, including thin-film cell phones, window-stickable thin-film TV, and functional clothes or removal skin stackers with various sensing, memory and communication capabilities.This project is acquiring a versatile Optomec Aerosol Jet 300 (AJ 300) printing system for flexible electronic circuits and printable nanomaterials based chemical/biological (CB) sensors. The requested state-of-the-art system is expected to provide new capabilities to promote interdisciplinary research and education. The instrumentation, an additive, high-resolution multi-layer printing system capable of uniformly delivering fluid and nano-materials on almost any planar substrate or 3D surface with precise multi-layer alignment accuracy, enables the researchers to perform systematic research on fundamental issues of flexible electronics, such as carrier (electrons and holes) transport on flexible surfaces, and circuit performance variation under bending and strain due to changes in the band structure, Fermi-level, carrier mobility, and threshold voltage. The instrument acquired also provides a research platform for various flexible electronics and optoelectronics devices such as conformal antenna, highly ordered self-assembling polymer/clay nanocomposite, Terahertz radiation and detection, and additive manufacturing. Furthermore, the instrumentation supports research in scaling and integration of direct printing and investigate the couplings between the deposition of the droplets, formation of the composite structure, and device performance. The instrument can also serve in K-12 outreach programs in forms of lab tours with live printed flexible electronics and printing system demonstrations.