Cellulose (Nano)Composites

• Other Authors: Panaitescu, Denis (Editor), Frone, Adriana Nicoleta (Editor)
• Format: Electronic Book Chapter
• Language: English
• Published: Basel MDPI - Multidisciplinary Digital Publishing Institute 2023
• Subjects: Technology: general issues; Chemical engineering; films; nanocellulose; nanocrystals; biodegradable packaging; rice straw; cellulose nanofibers; unbleached pulp; polysulfone; membrane; Walnut shell; TEMPO oxidation; sulfuric acid hydrolysis; ultrasonication; cellulose acetate butyrate; plasticizer; molecular dynamics simulation; thermal analysis; compatibility; cellulose; plasma in liquids; polyhydroxyalkanoate; polymer composites; thermal properties; DMA; glycerin; dissolution; green solvent; aqueous solution; poly(3-hydroxyoctanoate); polyhydroxybutyrate; bio-based modifiers; toughening; biocompatibility; hydrogels; cellulose nanocrystals; UCST polymer; hydrogen bond; drug release; drug delivery; functionalization; natural polyester; nanocomposites; microfibrillated cellulose; polymethacrylic acid; grafting; poly(3-hydroxybutyrate); biocomposites; polyhydroxyalkanoates; n/a
• Online Access: DOAB: download the publication; DOAB: description of the publication

Our environment has been severely affected by the intensive production and use of plastics derived from fossil fuels and their uncontrolled end-of-life disposal. The return to using natural products is a characteristic of the most recent decades, and nanocellulose occupies a privileged position among these intensively studied products. Nanocellulose is obtained from cellulose, which is the most abundant natural polymer, by applying different chemical, mechanical, enzymatic and, most often, combined methods. A huge effort has been invested in the application of nanocellulose as a modifier or reinforcing agent in polymer nanocomposites. This Special Issue brings together twelve original articles and studies that contribute to our understanding of the fundamental and technological knowledge of cellulose-polymer nanocomposites. The isolation of nanocellulose from cheap sources and, especially, from agro-food industry waste is an important step to be implemented for cost reduction and environmental protection. An appropriate surface treatment of nanocellulose is a key element for achieving a good interfacial adhesion and superior properties in polymer nanocomposites. The use of more appropriate and green solvent systems for cellulose, the use of biobased plasticizers and toughening agents in nanocellulose nanocomposites, and the use of molecular dynamics simulations for the prediction of the compatibility of cellulose blends are valuable methods for expanding the application of nanocellulose.