A strong, biodegradable, brush written all-wood-based flexible electronic device

Disposable consumer electronics become electronic waste at the end of their life, which can cause serious environmental pollution if discarded in the ground. Here, we have developed an all-wood-based flexible electronic device. The substrate is used to prepare self-densification wood-derived paper (...

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Veröffentlicht in:Cellulose (London) 2024-03, Vol.31 (4), p.2571-2581
Hauptverfasser: Zhang, Weiye, Wang, Beibei, Dong, Huilin, Li, Yanchen, Sun, Jingmeng, Pang, Yao, Fan, Zhengqiang, Liu, Yi, Guo, Hongwu
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container_end_page 2581
container_issue 4
container_start_page 2571
container_title Cellulose (London)
container_volume 31
creator Zhang, Weiye
Wang, Beibei
Dong, Huilin
Li, Yanchen
Sun, Jingmeng
Pang, Yao
Fan, Zhengqiang
Liu, Yi
Guo, Hongwu
description Disposable consumer electronics become electronic waste at the end of their life, which can cause serious environmental pollution if discarded in the ground. Here, we have developed an all-wood-based flexible electronic device. The substrate is used to prepare self-densification wood-derived paper (SWP) at room temperature through the natural balsa wood (NW) self-densification process. Chemical treatment removed lignin and hemicellulose from NW, and the cell wall structure collapsed under the action of elastic capillary force generated by water evaporation. The hydrogen bonds between the cellulose fibers are further strengthened, and the arrangement of the cellulose fibers is maintained. The obtained SWP exhibits an excellent tensile strength of 229.4 ± 10.4 MPa in the fiber direction, which is 8.3–8.6 times (27.1 ± 1.7 MPa) and 4.2–4.8 times (51.2 ± 5.6 MPa) higher than NW and cellulose paper, respectively, and higher than some commercial plastics. In addition, it also exhibits excellent wetting performance and a certain degree of transparency. Finally, conductive wood carbon ink prepared from carbonized NW can be directly written on SWP using a Chinese brush to obtain customized patterns. We have demonstrated the application of an all-wood-based flexible electronic device in flexible sensors that can stably monitor finger movements. This newly developed all-wood-based composite can return to the carbon cycle of nature after its service life, providing a new way to replace traditional electronic products.
doi_str_mv 10.1007/s10570-024-05770-7
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subjects Balsa
Bioorganic Chemistry
Bonding strength
Carbon cycle
Cellulose fibers
Cellulosic resins
Ceramics
Chemical treatment
Chemistry
Chemistry and Materials Science
Composites
Densification
Electronic waste
Flexible components
Glass
Hydrogen bonds
Natural Materials
Organic Chemistry
Original Research
Physical Chemistry
Polymer Sciences
Room temperature
Service life
Substrates
Sustainable Development
Tensile strength
title A strong, biodegradable, brush written all-wood-based flexible electronic device
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