C01G9/02

Solar light antibactertal agent

A composite nanomaterial of ZnO impregnated by, e.g., a green copper phthalocyanine compound (CuPc) can be an efficient solar light photocatalyst for water remediation. The composite may include hollow shell microspheres and hollow nanospheres of CuPc-ZnO. CuPc may function as a templating and/or structure modifying agent, e.g., for forming hollow microspheres and/or nanospheres of ZnO particles. The composite can photocatalyze the degradation of organic pollutants such as crystal violet (CV) and 2,4-dichlorophenoxyacetic acid as well as microbes in water under solar light irradiation. The ZnO—CuPc composite can be stable and recyclable under solar irradiation.

USE OF SILICONE TO FILL JOINTS
20230159805 · 2023-05-25 ·

When silicone is used to fill joints in surfaces on which vehicles drive, it is advantageous if the silicone contains zinc oxide in the form of tetrapod-shaped crystals.

USE OF SILICONE TO FILL JOINTS
20230159805 · 2023-05-25 ·

When silicone is used to fill joints in surfaces on which vehicles drive, it is advantageous if the silicone contains zinc oxide in the form of tetrapod-shaped crystals.

MODIFIED ZINC OXIDE NANOPARTICLES, METHOD FOR MODIFYING THEREOF, AND QUANTUM DOT LIGHT-EMITTING DIODE
20220336746 · 2022-10-20 ·

The present application discloses a method for modifying zinc oxide nanoparticles, comprising following steps: obtaining zinc oxide solution and betaine ligands; mixing the zinc oxide solution and the betaine ligand, keeping a resulting mixed solution reacted under a protective gas atmosphere at a preset temperature, and separating a modified zinc oxide from the resulting mixed solution to obtain a modified zinc oxide. The method for modifying zinc oxide nanoparticles provided in the present application is simple and quick to operate, suitable for industrial production and meets application requirements. And the modified zinc oxide with betaine ligands grafted on the surface has good stability and excellent monodisperse performance, hinders the transmission rate of electrons to a certain extent and improves the recombination efficiency of electrons and holes in the quantum dot light-emitting layer.

PHOTOCATALYTIC ROOFING GRANULES, PHOTOCATALYTIC ROOFING PRODUCTS, AND PROCESS FOR PREPARING SAME
20170355611 · 2017-12-14 · ·

Photocatalytic roofing granules include a binder and inert mineral particles, with photocatalytic particles dispersed in the binder.

PHOTOCATALYTIC ROOFING GRANULES, PHOTOCATALYTIC ROOFING PRODUCTS, AND PROCESS FOR PREPARING SAME
20170355611 · 2017-12-14 · ·

Photocatalytic roofing granules include a binder and inert mineral particles, with photocatalytic particles dispersed in the binder.

ZINC ANODE COMPOSITION
20170358793 · 2017-12-14 ·

An alkaline electrochemical cell, preferably a zinc/air cell which includes a container; a negative electrode, a positive electrode, wherein said negative electrode and said positive electrode are disposed within the container, and an alkaline electrolyte, wherein the negative electrode comprises zinc, a branched chain fluorosurfactant, barium sulfate (and, more specifically, amino- and/or epoxy-funcationalized barium sulfate) and nano sized zinc oxide. The negative electrode composition supports high zinc to electrolyte weight ratios.

METHOD FOR MANUFACTURING SPUTTERING TARGET
20170350002 · 2017-12-07 ·

A sputtering target including an oxide with a low impurity concentration is provided. Provided is a method for manufacturing a sputtering target, including a first step of preparing a mixture including indium, zinc, an element M (the element M is aluminum, gallium, yttrium, or tin), and oxygen; a second step of raising a temperature of the mixture from a first temperature to a second temperature in a first atmosphere containing nitrogen at a concentration of higher than or equal to 90 vol % and lower than or equal to 100 vol %; and a third step of lowering the temperature of the mixture from the second temperature to a third temperature in a second atmosphere containing oxygen at a concentration of higher than or equal to 10 vol % and lower than or equal to 100 vol %.

COMPOSITIONS INCLUDING A VACANCY-ENGINEERED (VE)-ZnO NANOCOMPOSITE, METHODS OF MAKING THE COMPOSITIONS AND METHODS OF USING THE COMPOSITIONS

Embodiments of the present disclosure, in one aspect, relate to compositions including a vacancy-engineered (VE)-ZnO nanocomposite, methods of making a composition, methods of using a composition, and the like.

COMPOSITIONS INCLUDING A VACANCY-ENGINEERED (VE)-ZnO NANOCOMPOSITE, METHODS OF MAKING THE COMPOSITIONS AND METHODS OF USING THE COMPOSITIONS

Embodiments of the present disclosure, in one aspect, relate to compositions including a vacancy-engineered (VE)-ZnO nanocomposite, methods of making a composition, methods of using a composition, and the like.