Quan-Fu An

Dr. Quan-Fu An

Beijing Key Laboratory for Green Catalysis and Separation, College of Environmental and Energy Engineering, Beijing University of Technology, Beijing 100124, China

Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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21 January 2021 in Nature Nanotechnology
Verified
Journal Article
Closed access
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WZWen-Hai Zhang
Wen-Hai Zhang
MYMing-Jie Yin
Ming-Jie Yin
QZQiang Zhao
Qiang Zhao
CJCheng-Gang Jin
Cheng-Gang Jin
Naixin WangNaixin Wang
Naixin Wang
Quan-Fu AnQuan-Fu An
Quan-Fu An

30 April 2020 in Advanced Materials
Verified
Journal Article
Closed access
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HPHuawen Peng
Huawen Peng
WZWen‐Hai Zhang
Wen‐Hai Zhang
WHWei‐Song Hung
Wei‐Song Hung
NWNaixin Wang
Naixin Wang
JSJian Sun
Jian Sun
QZQiang Zhao
Qiang Zhao

5 May 2023 in Science Advances
Verified
Journal Article
Open access
YBYunxiang Bai
Yunxiang Bai
BLBeibei Liu
Beibei Liu
JLJiachen Li
Jiachen Li
MLMinghui Li
Minghui Li
ZYZheng Yao
Zheng Yao
MEMenachem Elimelech
Menachem Elimelech
The successful implementation of thin-film composite membranes (TFCM) for challenging solute-solute separations in the pharmaceutical industry requires a fine control over the microstructure (size, distribution, and connectivity of the free-volume elements) and thickness of the selective layer. For example, desalinating antibiotic streams requires highly interconnected free-volume elements of the right size to block antibiotics but allow the passage of salt ions and water. Here, we introduce stevioside, a plant-derived contorted glycoside, as a promising aqueous phase monomer for optimizing the microstructure of TFCM made via interfacial polymerization. The low diffusion rate and moderate reactivity of stevioside, together with its nonplanar and distorted conformation, produced thin selective layers with an ideal microporosity for antibiotic desalination. For example, an optimized 18-nm membrane exhibited an unprecedented combination of high water permeance (81.2 liter m −2 hour −1 bar −1 ), antibiotic desalination efficiency (NaCl/tetracycline separation factor of 11.4), antifouling performance, and chlorine resistance.

1 March 2019 in Chemical Engineering Journal
Verified
Journal Article
Closed access
CYChun-Chun Ye
Chun-Chun Ye
Quan-Fu AnQuan-Fu An
Quan-Fu An
JWJia-Kai Wu
Jia-Kai Wu
FZFeng-Yang Zhao
Feng-Yang Zhao
PZPei-Yao Zheng
Pei-Yao Zheng
NWNai-Xin Wang
Nai-Xin Wang

29 November 2024 in Science
Verified
Journal Article
Closed access
HSHao Sun
Hao Sun
Naixin WangNaixin Wang
Naixin Wang
YXYinghui Xu
Yinghui Xu
FWFengkai Wang
Fengkai Wang
Jun LuJun Lu
Jun Lu
Quan-Fu AnQuan-Fu An
Quan-Fu An
Aromatic - aliphatic hydrocarbon separation is a challenging but important industrial process. Pervaporation membrane technology has the potential for separating these mixtures. We developed an oriented monolayer polyhedral (OMP) membrane that consists of a monolayer of ordered polyhedral particles and is anchored by hyperbranched polymers. It contains a high density of straight, selective nanochannels, enabling the preferential transport of aromatic molecules. Compared with traditional mixed-matrix membranes with random orientations, the OMP membrane improves the pervaporation separation index for aromatic-aliphatic hydrocarbon mixtures with C 6 and C 7 compounds, surpassing the performance of existing membranes by 3 to 10 times. This high performance demonstrates the potential of OMP membranes for hydrocarbon molecular separation and their application in the value-added separation of naphtha feedstocks.

4 August 2021 in Advanced Materials
Verified
Journal Article
Closed access
PDF file
YJYan‐Li Ji
Yan‐Li Ji
BGBing‐Xin Gu
Bing‐Xin Gu
SXShi‐Jie Xie
Shi‐Jie Xie
MYMing‐Jie Yin
Ming‐Jie Yin
WQWei‐Jie Qian
Wei‐Jie Qian
CGCong‐Jie Gao
Cong‐Jie Gao