Bio-Based Polymers for Engineered Green Materials

• Auteur principal: Schnabel, Thomas (auth)
• Autres auteurs: Tondi, Gianluca (auth)
• Format: Électronique Chapitre de livre
• Langue: anglais
• Publié: MDPI - Multidisciplinary Digital Publishing Institute 2020
• Sujets: History of engineering & technology; chitosan; graphene oxide; microstructure; autoxidation; heavy metals; polycaprolactone; precipitation; thermosetting polymers; thermal degradation; humidity sensor; asphalt rubber; tung oil; nanobiocomposites; ionic liquid; GC-MS; hybrid nonisocyanate polyurethane; physicochemical properties; alginate sponge; Bioflex; dimer acid; bio-asphalt; benzoyl cellulose; Peptone; transparent wood; biocomposite; nanoclays; storage stability; solvent- and catalyst-free; microcellulose fiber; lignin-containing cellulose nanofibrils; polylactic acid (PLA); bio-inspired interfaces; polyhydroxyalkanoates; strain sensor; enzymatic saccharification; headspace solid phase microextraction; PHBV; electrical resistance; melt condensation; cement; solution casting; orange waste; hybrid composites; biopolymers; TEMPO oxidation; pollutant adsorbents; Escherichia coli; bio-nanocomposites; TiO2 anatase; metal binding; liquid natural rubber; hydrotropic treatment; metal chloride; feast-famine; biomass resources; wood; electroless deposition; one-pot synthesis; thermoplastic starch; films; lignin-carbohydrate complex; cellulose; corn starch; microencapsulated phase change material (MPCM); differential scanning calorimetry; compatibility; natural fibers; workability; silkworm cocoons; lignin content; polylactic acid; porous structure; electrospinning; nanocellulose fibers; H2O2 bleaching treatment; polysaccharides; mixing sequence; porosity; lignocellulosic nanofibrils; dense structure; alkali lignin; polydopamine coating; nuclear magnetic resonance; cationic dyes; poly(lactic acid) and composite films; endothermic effect; HSQC-NMR; Microbial nutrient; n/a; toughening; X-ray diffraction; water resistance; waste biomass; lignin; UV light; ultrafiltration; two-step lyophilization; mechanical degradation; bio-based; methylene blue; stearoyl cellulose; ONP fibers; anionic surfactants; Hatscheck process; osteoblast proliferation; resource recovery; dissolution; copper coating; bacterial cellulose; hydrogel; iron chelation; knotwood; sensitivity; mixed microbial cultures; dimensional stability; volatiles; lignocellulose; Artemisia vulgaris; surface modification; PHA; crosslinked microparticles; pyrene; composites; galactoglucomannan; polymeric composites; kaempferol; tannin-furanic foam; Solanyl; wastewater treatments; adsorption capacity; heat treatment; thermal gravimetric analysis; WAXS; unsaturated polyester resins; pulp fibers; free-radical polymerization; larixol; delignification; antifouling; chemical composition; hemicellulose; tissue engineering; extrusion-compounding; membrane; photodegradation; structural plastics; scanning electron microscope; phenanthrene; thermal properties; immobilized TEMPO; Staphylococcus aureus; adsorption; wood modification; structure-property relationship; physical property; film; mechanical properties; tannin; Bio-based foams; latex state; paper-based scaffolds; skincare; pyrolysis mechanism; emulsion-solvent evaporation method; bioplastics; imidazolium; fractionation; cost; fiber-cement; lyocell fiber; recycling; kenaf fiber; thermal stability; transport properties; SAXS; silanization; cellulose nanofibers; taxifolin; tannin polymer; vibrational spectroscopy; robust fiber network; nanocelluloses; poly(lactic acid); Anti-bacterial silver nanoparticle; cellulose nanocrystals
• Accès en ligne: DOAB: download the publication; DOAB: description of the publication

With daily signals, Nature is communicating us that its unconscious wicked exploitation is no more sustainable. Our socio-economic system focuses on production increasing without considering the consequences. We are intoxicating ourselves on a daily bases just to allow the system to perpetuate itsel...