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Optimization of Laser-Patterned Superhydrophilic–Superhydrophobic Surfaces on 304 Stainless Steel for Enhanced Fog Water Collection
by
Cui, Yuanchen
, Ma, Wenjian
, Guo, Zhiquan
, Chen, Hongda
, Zhao, Jingnan
in
Alcohol
/ Aluminum
/ Chemical elements
/ Contact angle
/ Engineering
/ Experiments
/ Fog
/ fog water collection device
/ Hydrochloric acid
/ Hydrophobic surfaces
/ Laser etching
/ Medical research
/ membrane preparation
/ nanosecond laser
/ patterned fabrication
/ Perfluoroalkyl & polyfluoroalkyl substances
/ Stainless steel
/ surface wettability
/ Temperature
/ Water resources
2024
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Optimization of Laser-Patterned Superhydrophilic–Superhydrophobic Surfaces on 304 Stainless Steel for Enhanced Fog Water Collection
by
Cui, Yuanchen
, Ma, Wenjian
, Guo, Zhiquan
, Chen, Hongda
, Zhao, Jingnan
in
Alcohol
/ Aluminum
/ Chemical elements
/ Contact angle
/ Engineering
/ Experiments
/ Fog
/ fog water collection device
/ Hydrochloric acid
/ Hydrophobic surfaces
/ Laser etching
/ Medical research
/ membrane preparation
/ nanosecond laser
/ patterned fabrication
/ Perfluoroalkyl & polyfluoroalkyl substances
/ Stainless steel
/ surface wettability
/ Temperature
/ Water resources
2024
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Optimization of Laser-Patterned Superhydrophilic–Superhydrophobic Surfaces on 304 Stainless Steel for Enhanced Fog Water Collection
by
Cui, Yuanchen
, Ma, Wenjian
, Guo, Zhiquan
, Chen, Hongda
, Zhao, Jingnan
in
Alcohol
/ Aluminum
/ Chemical elements
/ Contact angle
/ Engineering
/ Experiments
/ Fog
/ fog water collection device
/ Hydrochloric acid
/ Hydrophobic surfaces
/ Laser etching
/ Medical research
/ membrane preparation
/ nanosecond laser
/ patterned fabrication
/ Perfluoroalkyl & polyfluoroalkyl substances
/ Stainless steel
/ surface wettability
/ Temperature
/ Water resources
2024
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Optimization of Laser-Patterned Superhydrophilic–Superhydrophobic Surfaces on 304 Stainless Steel for Enhanced Fog Water Collection
Journal Article
Optimization of Laser-Patterned Superhydrophilic–Superhydrophobic Surfaces on 304 Stainless Steel for Enhanced Fog Water Collection
2024
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Overview
This study focuses on creating micro-nano structures on the surface of 304 stainless steel using nanosecond lasers to achieve superhydrophobicity for fog water collection experiments in a fog chamber. By adjusting pattern parameters, an uneven wettability surface was processed, and six samples were placed at different positions in the chamber to study water collection efficiency from various surfaces. The experimental results indicate that the water collection efficiency of the patterned superhydrophobic surface is superior to that of the original surface, with the front sample collecting 0.4524 ± 0.005 g of water, representing a 90.38% improvement. As the kinetic energy of the fog flow gradually diminishes, a total of 1.1913 ± 0.005 g of water was collected, achieving a 60.25% improvement. The study also investigates the durability and optimal temperature conditions for fog water collection, ultimately achieving 1.4781 ± 0.005 g of water collection in a 5 °C fog environment, resulting in a 98.83% enhancement.
Publisher
MDPI AG
Subject
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