ALBERT

Keywords: TA1-2040 ; T1-995 ; 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 ; thema EDItEUR::T Technology, Engineering, Agriculture, Industrial processes::TB Technology: general issues::TBX History of engineering and technology