High‐Efficiency Atmospheric Water Harvesting and Irrigation Recycling in Greenhouse Using Hygroscopic Composite Gels

Abstract The pressing need to address the water‐food nexus, exacerbated by climate change and a rapidly growing population, calls for innovative approaches in agricultural water management. This study introduces a pioneering device, the side window recycler (SWR), which is specifically designed for greenhouses to increase water‐use efficiency. Central to the SWR is a multi‐component, interconnected hygroscopic porous gel named LHPE, which boasts significant scalability and robust adhesion properties. When synthesized through an optimized process, LHPE boasts a high water uptake of up to 4.06 g water g sorbent −1 , supporting rapid water release during desorption. The SWR utilizes this advanced gel to capture water vapor escaping from greenhouse side windows, converting it into irrigation water through electrically heated desorption. Within greenhouse trials, SWR achieved a water recovery rate of 5015.6 g m⁻ 2 and a water‐saving efficiency of 78.78%, significantly enhancing crop yields by as much as 120%. By integrating sustainable water recycling into agriculture, SWR addresses the global water scarcity crisis and represents a transformative advance in greenhouse water efficiency, poised for impactful adoption in water‐intensive practices worldwide.

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Publication Details

Journal
Advanced Functional Materials
Published
2025-03-04
DOI
https://doi.org/10.1002/adfm.202501163
Citations
11
Primary Topic
Solar-Powered Water Purification Methods
Type
article
Field-Weighted Citation Impact
4.00

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article

High‐Efficiency Atmospheric Water Harvesting and Irrigation Recycling in Greenhouse Using Hygroscopic Composite Gels

Danfeng Huang, Jingling Zhu, R.Z. Wang, Jun Li et al.
11 citations
Advanced Functional Materials
Solar-Powered Water Purification Methods
4.00
article

High‐Efficiency Atmospheric Water Harvesting and Irrigation Recycling in Greenhouse Using Hygroscopic Composite Gels

Danfeng Huang, Jingling Zhu, R.Z. Wang, Jun Li, Xinge Yang, Ziya Zeng, Hao Zou
article en
11 citations

Abstract

Abstract The pressing need to address the water‐food nexus, exacerbated by climate change and a rapidly growing population, calls for innovative approaches in agricultural water management. This study introduces a pioneering device, the side window recycler (SWR), which is specifically designed for greenhouses to increase water‐use efficiency. Central to the SWR is a multi‐component, interconnected hygroscopic porous gel named LHPE, which boasts significant scalability and robust adhesion properties. When synthesized through an optimized process, LHPE boasts a high water uptake of up to 4.06 g water g sorbent −1 , supporting rapid water release during desorption. The SWR utilizes this advanced gel to capture water vapor escaping from greenhouse side windows, converting it into irrigation water through electrically heated desorption. Within greenhouse trials, SWR achieved a water recovery rate of 5015.6 g m⁻ 2 and a water‐saving efficiency of 78.78%, significantly enhancing crop yields by as much as 120%. By integrating sustainable water recycling into agriculture, SWR addresses the global water scarcity crisis and represents a transformative advance in greenhouse water efficiency, poised for impactful adoption in water‐intensive practices worldwide.

Advanced Functional MaterialsVol. 35(31)
National University of Singapore (SG), Shanghai Jiao Tong University (CN), Beijing Solar Energy Research Institute (CN), Institute of Refrigeration (GB)
Innovative Research Group Project of the National Natural Science Foundation of China, National Research Foundation Singapore, National Natural Science Foundation of China, Fundamental Research Funds for the Central Universities
Zero hunger
Openalex Percentile: Top 6%
Solar-Powered Water Purification Methods
4.00
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