4results about How to "Achieve antibacterial effect" patented technology

This application discloses an odor-removing product comprising an absorbent with an adsorption surface; a neutralizing agent comprising an acidic odor remover and an alkaline odor remover, each fixedly disposed on the adsorption surface; the acidic odor remover neutralizes alkaline odor components, and the alkaline odor remover neutralizes acidic odor components; and a biological inhibitor disposed on the adsorption surface to inhibit microbial growth. Therefore, it can neutralize and remove odors from both alkaline and acidic odor components, thereby achieving deodorization, and also inhibits microbial growth based on the biological inhibitor to prevent bacterial proliferation, thus achieving both odor removal and antibacterial effects and improving the user experience.

The application relates to the technical field of sterilization and disinfection, in particular to a long-acting antibacterial composition for hard surfaces and application and use method thereof. The antibacterial composition is composed of a polymer precursor and a polymer base molecule in a molar ratio of 1:(100-200); the polymer precursor is obtained by modifying one or more of amino groups, hydroxyl groups, double bonds, siloxanes and isocyanate groups on the basis of a photodynamic molecule; the photodynamic organic molecule is one or more of porphyrin, metal porphyrin, dihydrogenophorin, phthalocyanine, fluorinated boron dipyrrin, pyrrolopyrrole diketone, cyanine dye, coumarin, benzophenone, isoazoline, riboflavin and ring metal complex and derivatives thereof. The application mainly realizes the long-acting antibacterial effect by depositing the photodynamic functional organic molecule on the hard surface and forming a stable coating structure, and the coating structure has very strong hardness.

This invention belongs to the textile field, and specifically relates to a method for preparing colored antibacterial textiles. The method uses waste colored cotton fabric as raw material, and obtains colored micro / nanocellulose by acid hydrolysis to break down the cellulose macromolecular chains. After cationic modification, it yields cationic modified colored cellulose with excellent water dispersibility. Polyethyleneimine or polylysine is added to alter the stability of the cationic modified colored cellulose aqueous dispersion, causing it to flocculate and form a gel. A crosslinking agent is used to form chemical crosslinks between cellulose, polyethyleneimine or polylysine, and the textile substrate, resulting in high-performance colored antibacterial textiles. This invention utilizes waste colored cotton fabric as raw material, realizing the resource utilization of waste textiles. The use of epoxy or cyclonitrogen crosslinking agents to form crosslinks between the cationic modified colored cellulose gel, polyethyleneimine or polylysine, and the textile substrate achieves coloring and antibacterial finishing of the textiles.

This invention relates to a method for synthesizing dust-free silica gel cat litter at the source. Its morphology and mesoporous structure can be controlled at the source according to usage requirements, belonging to the field of pet product manufacturing technology. This method uses sodium silicate and an acidic solution as raw materials. By controlling the pH, temperature, and reaction time during the gel synthesis stage, the density of hydroxyl groups and the pore structure of the silica gel surface can be controlled at the source. Further optimization of its mesoporous structure and surface properties is achieved through treatment in an alkali metal salt solution. This method eliminates the need for subsequent resin coating or chemical additives, simultaneously achieving dust-free, high-adsorption, long-lasting odor-locking, and structural antibacterial functions at the synthesis source. The resulting silica gel cat litter has low dust content, high water absorption, and strong adsorption capacity for odors such as ammonia. The production process covers the entire process from synthesis and modification to sorting and packaging, making it suitable for large-scale continuous production. It solves the problems of balancing performance and environmental protection, unstable quality control, and fragmented industrial chains inherent in traditional processes.