The invention relates to a method for modifying nanofibrillar cellulose composition, comprising—preparing fibrous dispersion of ionically charged nanofibrillar cellulose (NFC), and—applying heat treatment at a temperature of at least 90° C. to the fibrous dispersion until the viscosity of NFC starts to decrease. The viscosity of the heat-treated NFC is reversible by applying shear forces to the NFC.

The present application provides high solids film coating compositions comprising a water-soluble cellulose ether, hydroxy propyl cellulose (HPC), a poly (N-vinyl pyrrolidone-co-vinyl acetate) copolymer, a film-forming agent based on D-glucose, plasticizer, medium chain triglycerides (MCT) and an anti-tack agent. The invention further provides a process for preparing the above described film coating compositions and method of coating solid substrate with such coating compositions.

The present application provides high solids film coating compositions comprising a water-soluble cellulose ether, hydroxy propyl cellulose (HPC), a poly (N-vinyl pyrrolidone-co-vinyl acetate) copolymer, a film-forming agent based on D-glucose, plasticizer, medium chain triglycerides (MCT) and an anti-tack agent. The invention further provides a process for preparing the above described film coating compositions and method of coating solid substrate with such coating compositions.

A method of forming a conductive film. The method includes applying an ink onto a substrate. The ink includes a plurality of nanostructures formed from an electrically-conductive material and a polymer binder. The method includes drying the ink on the substrate. The method includes applying an overcoat material solution onto the dried ink. The overcoat solution includes at least some solvent suitable to provide at least some solubility of the binder. Also, a conductive film that includes a substrate, a matrix on the substrate, and a plurality of nanostructures within the matrix. The matrix is provided as a resultant of a polymer binder present within an ink that carried the nanostructures that was applied and dried upon the substrate, a dried/cured overcoat material that that was applied on the dried ink layer in the form of a coating solution that included a polymer and at least some solvent to provide at least some solubility of the binder, with the binder being at least partially dissolved.

A method of forming a conductive film. The method includes applying an ink onto a substrate. The ink includes a plurality of nanostructures formed from an electrically-conductive material and a polymer binder. The method includes drying the ink on the substrate. The method includes applying an overcoat material solution onto the dried ink. The overcoat solution includes at least some solvent suitable to provide at least some solubility of the binder. Also, a conductive film that includes a substrate, a matrix on the substrate, and a plurality of nanostructures within the matrix. The matrix is provided as a resultant of a polymer binder present within an ink that carried the nanostructures that was applied and dried upon the substrate, a dried/cured overcoat material that that was applied on the dried ink layer in the form of a coating solution that included a polymer and at least some solvent to provide at least some solubility of the binder, with the binder being at least partially dissolved.

The present disclosure provides a surface-nanocrystallized cellulose-containing biomass material, a preparation method and use thereof. The cellulose-containing biomass material is one or more derived from biomass materials containing cellulose components from natural plants or animals. Nanoscale celluloses are present on a surface of the surface-nanocrystallized cellulose-containing biomass material, and a portion of hydroxyl groups in the cellulose structure has been converted to carboxyl groups, such that the surface-nanocrystallized cellulose-containing biomass material has high specific surface area, high surface activity, and high crystallinity. Thus, the present application provides an excellent raw material for the further processing of biomass materials.

A modified cellulose nanofiber, a single-layer laminate including the same, and a method for manufacturing the modified cellulose nanofiber are disclosed. The modified cellulose nanofiber includes a TEMPO-oxidized cellulose nanofiber that is modified by amine compounds with long alkyl chains to have alkylamine groups and carboxyl groups, wherein the alkylamine groups is 20 to 90% of the carboxyl groups.

Composite particles that are biodegradable and easy to handle while maintaining the characteristics of cellulose nanofibers, a method of producing composite particles, a dry powder containing the composite particles, and a skin application composition and a method of producing the skin application composition. A composite particle contains at least one type of particle and fine cellulose with which at least part of a surface of the particle is coated, wherein the particle and the fine cellulose are inseparable.

The present invention relates to a method for producing a denatured cellulose fiber cake including carrying out a solid-liquid separation of a dispersion containing denatured cellulose fibers under the conditions of a centrifugal force of a centrifuge of 50 G or more and 600 G or less (step A). According to the present invention, a new method for producing a resin composition containing denatured cellulose fibers, and a new method for producing a denatured cellulose fiber cake, a shortened anionically denatured cellulose fiber cake, modified cellulose fibers, or fine cellulose fibers which can be used therefor can be provided.

A resin composition according to the present invention contains: at least one resin that is selected from among an epoxy resin, a urethane resin, a fluorine resin, a silicone resin, an acrylic resin and a vinyl resin; and anion-modified cellulose nanofibers.