Cellulose Nanocrystals
Characterized by abundant surface hydroxyl groups, it is suitable for interfacial modification, composite reinforcement, and material systems requiring low surface charge.
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Characterized by abundant surface hydroxyl groups, it is suitable for interfacial modification, composite reinforcement, and material systems requiring low surface charge.
Featuring carboxyl groups on the surface, this material exhibits excellent water dispersibility and a functionalizable interface, making it suitable for research and applications in hydrogels, adsorption, functional membranes, and composite materials.
Sulfonic Acid-Functionalized CNCs; Sulfonated CNCs; Sulfate Ester-Functionalized CNCs. Recommended Applications: Colloidal Systems and Dispersion; Structural Color; Self-Assembly; Functional Membranes; Coatings; Nanocomposites; Interfacial Studies.
Featuring reactive aldehyde groups, this material can react with amino-containing components and other functional groups, providing an active interface for crosslinking, immobilization, functional loading, and the development of bio-based materials.
Through the self-assembly of cellulose nanocrystals (CNCs), ordered structure form that produces structural color without conventional pigments, making it suitable for research into photonic films, decorative materials, and structural-color application.
Retaining a certain lignin content, this material provides unique interfacial and optical properties alongside nanoscale reinforcement, making it suitable for research into bio-based composites and functional materials.
Combining carboxyl and sulfate ester surface groups, this material offers both excellent dispersibility and reactivity, providing greater flexibility in interfacial design for adsorption, composites, and functional material development.
Cationic cellulose nanocrystals feature positively charged surfaces, enabling electrostatic interactions with anionic dyes, polyelectrolytes, and negatively charged particles, making them suitable for adsorption, interfacial assembly.
Hydrophobically modified cellulose nanocrystals (CNCs) feature enhanced compatibility with low-polarity polymers, resins, and organic phases through surface hydrophobic functionalization, making them suitable for research into interfacial reinforcement.