A Nanostructured Moisture‐Absorbing Gel for Fast and Large‐Scale Passive Dehumidification. Issue 17 (15th March 2022)
- Record Type:
- Journal Article
- Title:
- A Nanostructured Moisture‐Absorbing Gel for Fast and Large‐Scale Passive Dehumidification. Issue 17 (15th March 2022)
- Main Title:
- A Nanostructured Moisture‐Absorbing Gel for Fast and Large‐Scale Passive Dehumidification
- Authors:
- Dai, Ming
Zhao, Fei
Fan, Juanjuan
Li, Qing
Yang, Ya
Fan, Zhuangjun
Ling, Shengjie
Yu, Haipeng
Liu, Shouxin
Li, Jian
Chen, Wenshuai
Yu, Guihua - Abstract:
- Abstract: Dehumidification is significant for environmental sustainability and human health. Traditional dehumidification methods involve significant energy consumption and have negative impact on the environment. The core challenge is to expose hygroscopic surfaces to the air, and appropriately store the captured water and avoid surface inactivation. Here, a nanostructured moisture‐absorbing gel (N‐MAG) for passive dehumidification, which consists of a hydrophilic nanocellulose network functionalized by hygroscopic lithium chloride, is reported. The interconnected nanocellulose can transfer the captured water to the internal space of the bulky N‐MAG, eliminating water accumulation near the surfaces and hence enabling high‐rate moisture absorption. The N‐MAG can reduce the relative humidity from 96.7% to 28.7% in 6 h, even if the space is over 2 × 10 4 times of its own volume. The condensed water can be completely confined in the N‐MAG, overcoming the problem of environmental pollution. This research brings a new perspective for sustainable humidity management without energy consumption and with positive environmental footprint. Abstract : A nanostructured moisture‐absorbing gel is constructed by integrating hygroscopic lithium salt and hydrophilic nanocellulose. The gel maintains a large hygroscopic active area for capturing water from air, and thus exhibits super‐moisture‐absorption ability. Even in a space with a volume over 2 × 10 4 times its own, the gel demonstratesAbstract: Dehumidification is significant for environmental sustainability and human health. Traditional dehumidification methods involve significant energy consumption and have negative impact on the environment. The core challenge is to expose hygroscopic surfaces to the air, and appropriately store the captured water and avoid surface inactivation. Here, a nanostructured moisture‐absorbing gel (N‐MAG) for passive dehumidification, which consists of a hydrophilic nanocellulose network functionalized by hygroscopic lithium chloride, is reported. The interconnected nanocellulose can transfer the captured water to the internal space of the bulky N‐MAG, eliminating water accumulation near the surfaces and hence enabling high‐rate moisture absorption. The N‐MAG can reduce the relative humidity from 96.7% to 28.7% in 6 h, even if the space is over 2 × 10 4 times of its own volume. The condensed water can be completely confined in the N‐MAG, overcoming the problem of environmental pollution. This research brings a new perspective for sustainable humidity management without energy consumption and with positive environmental footprint. Abstract : A nanostructured moisture‐absorbing gel is constructed by integrating hygroscopic lithium salt and hydrophilic nanocellulose. The gel maintains a large hygroscopic active area for capturing water from air, and thus exhibits super‐moisture‐absorption ability. Even in a space with a volume over 2 × 10 4 times its own, the gel demonstrates fast dehumidification without energy input and environment pollution. … (more)
- Is Part Of:
- Advanced materials. Volume 34:Issue 17(2022)
- Journal:
- Advanced materials
- Issue:
- Volume 34:Issue 17(2022)
- Issue Display:
- Volume 34, Issue 17 (2022)
- Year:
- 2022
- Volume:
- 34
- Issue:
- 17
- Issue Sort Value:
- 2022-0034-0017-0000
- Page Start:
- n/a
- Page End:
- n/a
- Publication Date:
- 2022-03-15
- Subjects:
- dehumidification -- desiccants -- gels -- moisture absorption -- nanocellulose
Materials -- Periodicals
Chemical vapor deposition -- Periodicals
620.11 - Journal URLs:
- http://onlinelibrary.wiley.com/journal/10.1002/(ISSN)1521-4095 ↗
http://onlinelibrary.wiley.com/ ↗ - DOI:
- 10.1002/adma.202200865 ↗
- Languages:
- English
- ISSNs:
- 0935-9648
- Deposit Type:
- Legaldeposit
- View Content:
- Available online (eLD content is only available in our Reading Rooms) ↗
- Physical Locations:
- British Library DSC - 0696.897800
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- 21447.xml