UK NIEHS SRP Project # 3 Supplement Relating to Extending Halo-organic Capture/Remediation Technology to Corona Virus Membrane Mask and Enclosed Space Air Filter Development

摘要：通过我们对NIEHS-SRP的研究，我们拥有先进的材料(从膜到吸附和 基于识别的聚合物)用于水中有毒有机物的降解和捕获/传感的开发。 膜和基于聚合物的技术也被用于空气过滤领域，以去除颗粒和 气雾剂。从纳米粒子和病毒到水介质的有机分离，我们建议 先进的水处理技术和科学，创造先进的面具和封闭的空间空气 过滤平台，以一种变革性的方式捕获冠状病毒颗粒。通过扩展我们目前的具体情况 AIMS，总体目标将是通过高效的机载实现基于交互的捕获和识别 去除冠状病毒，具有透气性和空气过滤性能。智能材料的转移 从水修复领域到空气病毒清除领域的发展知识将带来巨大的 有益于社会和人类健康。在封闭空气中积聚的病毒纳米粒子(微气溶胶)是 病毒传播的关键因素。对于封闭的空间空气过滤器，将采用独特的再生机制 发展起来的。此补充内容将允许我们添加病毒捕获/停用功能，以便我们正在进行的 晕-有机捕获/销毁技术也将有效地对抗冠状病毒(新冠肺炎) 环境污染物。我们的工作将涉及伪型病毒颗粒，我们还将专注于 外表面S-蛋白质和功能化的人工合成纳米颗粒。

Abstract: Through our NIEHS-SRP research we have advanced materials (membranes to adsorptive and recognition-based polymers) development for degradation and capture/sensing of toxic organics from water. Membranes and polymers-based technologies are also used in air filtration area to remove particles and aerosols. Learning from nanoparticles and virus to organic separations from water media, we propose to advance the aqueous treatment technology and science to create advanced mask and enclosed space air filtration platform to capture coronavirus particles in a transformative way. By expanding on our current specific aims, the overall goal will be to bring interaction-based capture and recognition with highly efficient airborne coronavirus removal with easy breathability and air filtration properties. The transfer of smart materials development knowledge from water remediation area to airborne virus removal area will bring in immense benefit to society and human health. Virus nanoparticles (micro aerosols) build-up in enclosed air space is critical factor in viral transmission. For the enclosed space air filter, unique regenerative mechanisms will be developed. This supplement will allow us to add virus capture/deactivation functionality so that our on-going halo-organic capture/destruction technology will also be effective against coronavirus (COVID-19) environmental pollutant. Our work will involve pseudotype virus particles, and we will also concentrate on the outer surface S-protein and functionalized, synthetic nanoparticles.