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Zijing Xia

Visiting Student - Graduate/Center for Molecular Engineering (CME)

My research focuses on understanding the ionic transport process in aqueous system through nanoscale channels with advanced material systems.

Biography

Zijing Xia got his bachelor degree in material science from Tsinghua University at 2017, and is pursuing PhD degree at molecular engineering at UChicago from 2017 till now. His research focuses on understanding the ionic transport process in aqueous system through nanoscale channels. I have 5 years’ experience in developing advanced materials for water treatment and membrane modification, and 2 years’ experience in electrocatalysis.

 

Publications

  • Xia, Zijing, et al. Surface Zeta Potential of ALD-Grown Metal-Oxide Films.” Langmuir 37.39 (2021): 11618-11624.
  • Xia, Zijing, Yusen Zhao, and Seth B. Darling. Covalent organic frameworks for water treatment.” Advanced Materials Interfaces 8.1 (2021): 2001507.
  • Zhang, Huiru, et al. Visible‐light‐activated photocatalytic films toward self‐cleaning membranes.” Advanced Functional Materials 30.34 (2020): 2002847.
  • Yang, Xiaobin, et al. Polyphenol‐sensitized atomic layer deposition for membrane interface hydrophilization.” Advanced Functional Materials 30.15 (2020): 1910062.
  • Zhang, Cheng, et al. Ferric tannate photothermal material for efficient water distillation.” Environmental Science: Water Research & Technology 6.4 (2020): 911-915.
  • Li, Bo‐Quan, et al. One‐pot synthesis of framework porphyrin materials and their applications in bifunctional oxygen electrocatalysis.” Advanced Functional Materials 29.29 (2019): 1901301.
  • Xia, Zi‐Jing, et al. Porphyrin covalent organic framework (POF)‐Based interface engineering for solar steam generation.” Advanced Materials Interfaces 6.11 (2019): 1900254.
  • Li, Bo-Quan, et al. A porphyrin covalent organic framework cathode for flexible Zn–air batteries.” Energy & Environmental Science 11.7 (2018): 1723-1729.
  • Li, Bo-Quan, et al. Regulating p-block metals in perovskite nanodots for efficient electrocatalytic water oxidation.” Nature communications 8.1 (2017): 1-7.