KC Donnelly Externship Admin Supplement for Francisco Leniz P42ES007380 UKSRC

KC Donnelly摘要弗朗西斯科Leniz PD/PI：Kelly Pennell 摘要 向世界人口提供饮用水的挑战及其与以下需求的密切关系： 从污染物中净化天然水在整个人类历史中一直存在。作为 UKSRC项目3的一部分，“用于传感和分析的响应膜和先进材料” 修复卤代有机物”，我们一直致力于开发多功能材料 朝着提高分离率、更节能和便携式技术的方向发展。全氟和 多氟烷基物质（PFAS）是我们在以前的手稿中研究的案例。汇集 UKSRC的项目3和耶鲁大学MEMCARE的项目4，“设计下一个 产生高选择性的吸附剂用于水修复”，意味着将团队的努力与 共同的目标，为社会治理水资源。最近，MEMCARE的项目4专注于 从非污染物中分离水中砷的选择性吸附剂的研制 竞争对手我们在多功能平台合成方面的知识可以提供有趣的机会 用于这些吸附剂的整合。总的来说，这次经历将扩大我对 分离技术和溶质的运输机制，通过这些，为应用程序， 更广泛的污染物在水中，从有机到无机阴离子。孔功能化 吸附纳滤膜，与高度选择性吸附剂的集成，是假设 以更紧凑的方式实现新的高分离率，这可以造福于人民和社区 通过简化这项技术的便携性。

KC Donnelly Abstract for Francisco Leniz PD/PI: Kelly Pennell Abstract The challenge of providing drinkable water to the world population, and its close relation to the need of purifying natural water from contaminants has been present throughout the history of the humankind. As part of the Project 3 at the UKSRC, “Responsive Membranes and Advanced Materials for Sensing and Remediation of Halo-organics”, we have been working on the development of multifunctional materials toward the increase of separation rates, more energy efficient, and portable technologies. Per- and polyfluoroalkyl substances (PFAS) were our case of study in our previous manuscript. Bringing together Project 3 at the UKSRC and Project 4 from MEMCARE at Yale University, “Designing the next generation of highly selective sorbents for water remediation”, means merging teams' efforts with a common goal, the remediation of water for the society. Recently, Project 4 from MEMCARE has focused on developing selective adsorbents for the separation of Arsenic in water from non-contaminant competitors. Our knowledge on synthesis of multifunctional platform can provide intriguing opportunities for the integration of these adsorbents. Overall, this experience will expand my understanding of separation technologies and the transport mechanisms of solutes through these, for the application of a broader range of contaminants in water, from organic to inorganic anions. The pore-functionalized adsorptive nanofiltration membranes, with the integration of highly selective adsorbents, is hypothesized to bring new high separation rates in a more compact fashion, which can benefit people and communities by easing the portability of this technology.