Multifunctional Micro/Nano‐Scale Nonwoven With Antibacterial Properties for Efficient Capture of <scp>PM<sub>0.3</sub></scp>

ABSTRACT This study innovatively used polyethylene glycol (PEG) as a multifunctional modifier to prepare nano‐zinc oxide and polyhexamethylene guanidine hydrochloride (Nano ZnO/PHMG) hybrid melt‐blown antibacterial composite materials by twin‐screw blending. PEG overcame traditional additives' single‐function limitation, achieving dual structural regulation and antibacterial enhancement. PEG rheological properties were modulated to produce multistage fiber structures, improving filtration performance, while simultaneously optimizing antibacterial component distribution through its water solubility. Systematic experiments revealed how PEG‐regulated local viscosity affected multistage fiber formation and pore distribution, directly impacting filtration performance. At 12% PEG loading (ABA‐PP‐12PEG), optimal comprehensive performance was demonstrated: 77.45% filtration efficiency (153.5% increased) with 34.0% lower resistance (11.28 Pa). Post‐treatment further enhanced performance to 80.06% efficiency and 10.68 Pa resistance. Antibacterial rates surged 6.7‐fold from 1.78 to 12.01.

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Publication Details

Journal
Polymer Engineering and Science
Published
2025-08-09
DOI
https://doi.org/10.1002/pen.70090
Primary Topic
Antimicrobial agents and applications
Type
article
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article

Multifunctional Micro/Nano‐Scale Nonwoven With Antibacterial Properties for Efficient Capture of PM0.3

Jianjun Lu, Dandan Lian, Yaxin An, Zezhang T. Wen et al.
1 links
Polymer Engineering and Science
Antimicrobial agents and applications
article

Multifunctional Micro/Nano‐Scale Nonwoven With Antibacterial Properties for Efficient Capture of PM0.3

Jianjun Lu, Dandan Lian, Yaxin An, Zezhang T. Wen, Hua Wang, Jiaxin Zhang, Teng Ma
article en

Abstract

ABSTRACT This study innovatively used polyethylene glycol (PEG) as a multifunctional modifier to prepare nano‐zinc oxide and polyhexamethylene guanidine hydrochloride (Nano ZnO/PHMG) hybrid melt‐blown antibacterial composite materials by twin‐screw blending. PEG overcame traditional additives' single‐function limitation, achieving dual structural regulation and antibacterial enhancement. PEG rheological properties were modulated to produce multistage fiber structures, improving filtration performance, while simultaneously optimizing antibacterial component distribution through its water solubility. Systematic experiments revealed how PEG‐regulated local viscosity affected multistage fiber formation and pore distribution, directly impacting filtration performance. At 12% PEG loading (ABA‐PP‐12PEG), optimal comprehensive performance was demonstrated: 77.45% filtration efficiency (153.5% increased) with 34.0% lower resistance (11.28 Pa). Post‐treatment further enhanced performance to 80.06% efficiency and 10.68 Pa resistance. Antibacterial rates surged 6.7‐fold from 1.78 to 12.01.

Polymer Engineering and ScienceVol. 65(10)
Shanxi University (CN), Shanxi University of Traditional Chinese Medicine (CN), Taiyuan University of Technology (CN)
Clean water and sanitation
Openalex Percentile: Top 84%
Antimicrobial agents and applications
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Multifunctional Micro/Nano‐Scale Nonwoven With Antibacterial Properties for Efficient Capture of <scp>PM<sub>0.3</sub></scp> — Jianjun Lu, Dandan Lian, et al. · Polymer Engineering and Science (2025) | TGRS Research Map | TGRS