Functional Natural-Based Polymers (2022)
Keywords: 2-furaldehyde; 3D printing; 4-(2-pyridylazo)resorcinol; acemannan; acetylation; activated carbon; adhesive hydrogels; adsorption; aerogels; agro-byproduct; albumin deposition; alginate; aloe vera; alpha cellulose; ammonia oxidase gene; anionic hydrogel; anisotropy; annealing; anti-adhesion; anti-inflammatory; antibacterial activity; antibacterial potential; antimicrobial; antimicrobial activities; antimicrobial activity; aqueous medium; Asphodelaceae; Bacillus amyloliquefaciens; Bacillus licheniformis; bacterial cellulose; banana peel; bio-based polyurethanes; Biochemistry; bioconversion; biodegradable polymers; Biology, life sciences; biopolymers; biosorbent; birch wood; blood circulation; Box-Behnken design; Cactaceae; carboxymethyl cellulose; cellulose; cellulose acetate; cellulose derivatives; cellulose paper; cellulose-citrate; cellulose-derived polyol; chemical modification; chicken feet; chitinase; chitinous fishery wastes; chitosan; circular dichroism; CNC; Co NPs; cold plasma coating; collagen; CoNi nanocomposite; contact lens; conventional fillers; copper; crab shells; crosslinking; crystallization; customization; cytotoxicity; date palm trunk mesh; decolorization; decomposition mechanism; degradation; dielectric properties; dissolution; DoE; double-cross-linked networks; electron irradiation; electrospinning; elongation at break; emulsion capacity; enhanced strain; esterification reaction; ethylene glycol; europium; extraction optimization; extrusion; flexor tendon repair; flocculant; food applications; food packaging; food quality; free radical polymerization; FTIR; functionalized materials; gelatine; glutaraldehyde; glycerol; graft copolymerization; graphene oxide; hyaluronic acid