Natural biomass hydrogels for intelligent sensing: From component crosslinking engineering to stimuli-responsive mechanisms

Natural biomass hydrogels are ideal candidate materials for sensors due to the structural tunability and abundant functional groups of natural biomass, and they have been widely applied in medical diagnosis, environmental monitoring, and intelligent systems, among other areas. However, the literature lacks a comprehensive review of the inherent connection between the crosslinking network structures of natural biomass hydrogels and the sensing performance of assembled sensors. Herein, this review analyzes the molecular structure characteristics of representative natural biomass materials (such as cellulose, chitosan, sodium alginate, etc.), as well as their advantages for fabricating hydrogels and their application in sensors, including stress–strain sensors, biosensors, temperature sensors, and humidity sensors. We provide a detailed overview of the crosslinking mechanisms (such as physical crosslinking, chemical crosslinking, and dual crosslinking), crosslinking strategies, and application scope of various natural biomass hydrogels in sensors. This is followed by a summary of the sensing mechanisms in sensors assembled with natural biomass hydrogels and the impact of different crosslinking networks on the performance of various sensors. Finally, we outline the challenges and prospects for the development of sensors based on natural biomass hydrogels, from the coordinated development of crosslinking networks and dynamic response mechanisms to scalable preparation technology. • A detailed overview of the crosslinking mechanisms, crosslinking strategies, and application scope of various natural biomass hydrogels in sensors is provided. • The inherent connection between crosslinking network structures of natural biomass hydrogel and sensing performance is elaborated. • The challenges and prospects from the coordinated development of the crosslinking network and dynamic response mechanism to scalable technology are summarized.

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Publication Details

Journal
eScience
Published
2025-11-20
DOI
https://doi.org/10.1016/j.esci.2025.100505
Citations
4
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
2.70
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article

Natural biomass hydrogels for intelligent sensing: From component crosslinking engineering to stimuli-responsive mechanisms

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4 citations
eScience
Advanced Sensor and Energy Harvesting Materials
2.70
article

Natural biomass hydrogels for intelligent sensing: From component crosslinking engineering to stimuli-responsive mechanisms

Junjie Qi, Haishun Du, Chuanling Si, Kai Zhang, Xuan Wang, Kun Liu, Han Zhang, Meng Zhang, Ting Xu, Liyu Zhu, Yaxuan Wang
article en
4 citations

Abstract

Natural biomass hydrogels are ideal candidate materials for sensors due to the structural tunability and abundant functional groups of natural biomass, and they have been widely applied in medical diagnosis, environmental monitoring, and intelligent systems, among other areas. However, the literature lacks a comprehensive review of the inherent connection between the crosslinking network structures of natural biomass hydrogels and the sensing performance of assembled sensors. Herein, this review analyzes the molecular structure characteristics of representative natural biomass materials (such as cellulose, chitosan, sodium alginate, etc.), as well as their advantages for fabricating hydrogels and their application in sensors, including stress–strain sensors, biosensors, temperature sensors, and humidity sensors. We provide a detailed overview of the crosslinking mechanisms (such as physical crosslinking, chemical crosslinking, and dual crosslinking), crosslinking strategies, and application scope of various natural biomass hydrogels in sensors. This is followed by a summary of the sensing mechanisms in sensors assembled with natural biomass hydrogels and the impact of different crosslinking networks on the performance of various sensors. Finally, we outline the challenges and prospects for the development of sensors based on natural biomass hydrogels, from the coordinated development of crosslinking networks and dynamic response mechanisms to scalable preparation technology. • A detailed overview of the crosslinking mechanisms, crosslinking strategies, and application scope of various natural biomass hydrogels in sensors is provided. • The inherent connection between crosslinking network structures of natural biomass hydrogel and sensing performance is elaborated. • The challenges and prospects from the coordinated development of the crosslinking network and dynamic response mechanism to scalable technology are summarized.

eScienceVol. 6(3)
Openalex Percentile: Top 9%
Advanced Sensor and Energy Harvesting Materials
2.70
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