| Literature DB >> 32806070 |
Yuyao Lu1, Kaichen Xu1, Lishu Zhang2, Minako Deguchi3, Hiroaki Shishido1, Takayuki Arie1, Ruihua Pan4, Akitoshi Hayashi3, Lei Shen5, Seiji Akita1, Kuniharu Takei1,6.
Abstract
The rising global human population and increased environmental stresses require a higher plant productivity while balancing the ecosystem using advanced nanoelectronic technologies. Although multifunctional wearable devices have played distinct roles in human healthcare monitoring and disease diagnosis, probing potential physiological health issues in plants poses a formidable challenge due to their biological complexity. Herein an integrated multimodal flexible sensor system is proposed for plant growth management using stacked ZnIn2S4(ZIS) nanosheets as the kernel sensing media. The proposed ZIS-based flexible sensor can not only perceive light illumination at a fast response (∼4 ms) but also monitor the humidity with a perdurable steady performance that has yet to be reported elsewhere. First-principles calculations reveal that the tunneling effect dominates the current model associated with humidity response. This finding guides the investigation on the plant stomatal functions by measuring plant transpiration. Significantly, dehydration conditions are visually recorded during a monitoring period (>15 days). This work may contribute to plant-machine biointerfaces to precisely manage plant health status and judiciously utilize limited resources.Entities:
Keywords: abiotic stress detection; humidity sensor; multimodal flexible sensors; plant health status monitoring; plant transpiration
Mesh:
Year: 2020 PMID: 32806070 DOI: 10.1021/acsnano.0c03757
Source DB: PubMed Journal: ACS Nano ISSN: 1936-0851 Impact factor: 15.881