Browse nanocellulose products by category and function
TEMPO-oxidized CNF features carboxyl-rich surfaces, a high aspect ratio, and excellent water dispersibility, providing reinforcement, thickening, thixotropy, suspension stability, film formation, and hydrogel formation.
Characterized by hydroxyl-rich cellulose surfaces and a high-aspect-ratio network structure, this material is suitable for reinforcement, thickening, film formation, and various water-based composite systems.
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.
High-aspect-ratio nanofibers form a three-dimensional network, producing a gel-like structure at just 1% solids content. Combined with carboxyl-functionalized surfaces, this material is suitable for rheology modification, hydrogel formation, reinforcement.
A stable dispersion formed by a high-purity nanofiber network, suitable for thickening, suspension stabilization, formulation stability, and the development of bio-based functional materials.
Positively charged nanofibrous networks combine rheological modification with electrostatic interactions, making them suitable for anionic component adsorption, suspension stabilization, and functional composite development.
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.
A dry-form bacterial cellulose (BC) membrane obtained by dehydrating and drying wet BC membranes. It retains some moisture (not completely dry), facilitating storage and transportation while allowing further composite processing and surface modification.
Bacterial cellulose (BC) hydrogel membranes feature highly hydrated 3D nanofiber networks, ideal for moisture retention, functional loading, facial masks, and medical dressings.
Hydrophobically modified through silane functionalization, this material improves the compatibility of CNF with low-polarity matrices such as silicone, resins, and rubber, while retaining the reinforcing properties of its long-fiber network.
Retaining a certain lignin content within the CNF network combines nanofiber reinforcement with lignin-related interfacial properties, coloration, and UV-absorbing characteristics.