Uniform and porous nacre-like cellulose nanofibrils/nanoclay composite membrane as separator for highly safe and advanced Li-ion battery

Sustainable Lithium‐Ion Battery Separator Membranes Based on Carrageenan Biopolymer

“…136.4/-0.71 120@2C (LCO) [16a] Cellulose nanofibrils/nanoclay composite 260/68 0.977 160@2C (NCM 811) [40] Clay nanorods (attapulgite, ATP) and polyvinylalcohol (PVA) 168.2/45.8 0.782 125@1C (LFP) [41] Cyanoethyl-chitin nanofiber (CCN) 439/-0.45 119.5@1C (LFP) [15] Poly(L-lactic acid) 345/72 1.6 93@1C (LFP) [42] Sodium alginate (Na-Alg) -/--116@0.5C (NCM) [43] Sodium alginate/attapulgite 420/-…”

Solution-processable robust, recyclable and sustainable cellulose conductor for photoelectric devices via a starch-gluing–Ag nanowires strategy

“…Among these modern electronic devices, the flexible electronic device offers unique flexibility and even a fascinating foldability, [1][2][3][4][5] which enables promising applications, such as photoelectricity, communication, energy storage and conversion, and biomedicine systems. 4,[6][7][8][9][10][11][12][13][14][15][16] Note that the flexible conductor functions as the critical component of a flexible electronic device as it offers the desirable flexibility and robustness of such a device. More specifically, the flexible conductor not only independently supports the operation of the electronic device but also realizes an effective connection between the electronic device and the external circuit.…”

Sustainable and safer nanoclay composites for multifaceted applications

“…7 They are emerging two-dimensional (2D) inorganic silicates with an atomically thin layered structure, unique shape, high surface-to-volume ratio, charge characteristics, swelling capacity, biocompatibility, and well-defined composition. 8,9 Their relative abundance and cost-effectiveness have been extensively exploited by their use in batteries, [10][11][12][13] supercapacitors, [14][15][16][17][18] flexible electronics, 19 dye discoloration, 17,20 biomedical applications, 21,22 drug delivery and bio-imaging, 23 oil adsorbers, 17,24 catalysis, 17,[25][26][27][28] agriculture, 17 bio-based flame retardants, 29 electrochemical nanosensors, 30,31 energy storage and conversion devices, 32 orthopedic biomaterials, 33 bioremediation, [34][35][36] and synthetic endeavors, 27 especially under solvent-free conditions. [37][38][39][40] Recent advances in assorted nanostructures with intriguing properties have illustrated that nanotechnologies may help optimize the properties of various materials, [41][42][43]…”