Embodiments of the present disclosure pertain to bioink compositions that are operational to form an artificial tissue. The bioink may include materials that are completely or primarily derived from humans, such as human tissues. Additional embodiments of the present disclosure pertain to artificial tissues that include a plurality of cells and a bioink of the present disclosure, where the bioink is embedded with the cells, and the artificial tissue is in the form of a three-dimensional structure. Further embodiments of the present disclosure pertain to methods of making the artificial tissues of the present disclosure by applying a plurality of cells and a bioink onto a surface.

Embodiments of the present disclosure pertain to bioink compositions that are operational to form an artificial tissue. The bioink may include materials that are completely or primarily derived from humans, such as human tissues. Additional embodiments of the present disclosure pertain to artificial tissues that include a plurality of cells and a bioink of the present disclosure, where the bioink is embedded with the cells, and the artificial tissue is in the form of a three-dimensional structure. Further embodiments of the present disclosure pertain to methods of making the artificial tissues of the present disclosure by applying a plurality of cells and a bioink onto a surface.

Cellulose-based composite material comprising an electrically conductive material dispersed in a matrix comprising at least one plant-derived protein and a polymer of aleuritic acid, said composite material being obtainable by a process comprising the steps of dissolving at least one plant-derived protein and aleuritic acid in a dissolving solution to achieve a first mixture, dispersing an electrically conductive material in said first mixture to achieve a conductive ink, distributing said conductive ink on at least one side of a cellulose substrate to achieve a coated cellulose substrate, hot-pressing said coated cellulose substrate to obtain i) impregnation of the cellulose substrate with said conductive ink and ii) polymerization of aleuritic acid.

Cellulose-based composite material comprising an electrically conductive material dispersed in a matrix comprising at least one plant-derived protein and a polymer of aleuritic acid, said composite material being obtainable by a process comprising the steps of dissolving at least one plant-derived protein and aleuritic acid in a dissolving solution to achieve a first mixture, dispersing an electrically conductive material in said first mixture to achieve a conductive ink, distributing said conductive ink on at least one side of a cellulose substrate to achieve a coated cellulose substrate, hot-pressing said coated cellulose substrate to obtain i) impregnation of the cellulose substrate with said conductive ink and ii) polymerization of aleuritic acid.

The present invention relates to a method for printing on an adhesive medium. The present invention further relates to a printed product. In addition, the present invention relates to a method for applying an image onto an object. The present invention also relates to a radiation-curable ink composition.

Provided is an ink including: water; a colorant; and an organic solvent, wherein the colorant is resin particles dyed with a fluorescent dye, wherein the resin particles contain a urethane resin, and wherein pH of the ink is from 9 through 11.

Provided is an ink including: water; a colorant; and an organic solvent, wherein the colorant is resin particles dyed with a fluorescent dye, wherein the resin particles contain a urethane resin, and wherein pH of the ink is from 9 through 11.

A set of inkjet inks used for forming an image by application of an ink on a cloth is provided. The set includes an ink and a pre-processing fluid. The pre-processing fluid contains water, a compound that flocculates an anionic compound, and at least one emulsified sizing agent.

A functional ink suitable for 3D printing and a preparation method thereof are provided. The ink includes the following components in parts by weight: 0.5-1.5 parts of a regulator, 1-5 parts of a conductive material, 0.1-0.5 parts of a crosslinking agent, 0.1-0.5 parts of a catalyst, and 10-80 parts of a solvent. The prepared functional ink has a self-healing function at room temperature, eliminating the interface resistance between printing layers and improving the mechanical strength between the layers. Moreover, the prepared functional ink has excellent electrical conductivity and a variety of electrical, magnetic, and electrochemical properties, and can be applied in the fields of functional materials and devices such as energy storage, electromagnetic shielding and stress sensing.

A functional ink suitable for 3D printing and a preparation method thereof are provided. The ink includes the following components in parts by weight: 0.5-1.5 parts of a regulator, 1-5 parts of a conductive material, 0.1-0.5 parts of a crosslinking agent, 0.1-0.5 parts of a catalyst, and 10-80 parts of a solvent. The prepared functional ink has a self-healing function at room temperature, eliminating the interface resistance between printing layers and improving the mechanical strength between the layers. Moreover, the prepared functional ink has excellent electrical conductivity and a variety of electrical, magnetic, and electrochemical properties, and can be applied in the fields of functional materials and devices such as energy storage, electromagnetic shielding and stress sensing.