7 results about "Titanium fluoride" patented technology

The application discloses a transition metal fluoride super ionic conductor dielectric film and a preparation method thereof. The super ionic conductor dielectric film is prepared by a thermal evaporation method from a transition metal fluoride super ionic conductor. The transition metal fluoride super ionic conductor is selected from scandium fluoride, yttrium fluoride, titanium fluoride, hafnium fluoride, manganese fluoride, ferrous fluoride and nickel fluoride. In the application, the source material of the transition metal fluoride is heated and evaporated into a gaseous state in an evaporation system by the thermal evaporation method. The gaseous fluoride is directly adhered to a substrate placed on the upper side of the source material and recrystallized, so that the thickness of the transition metal fluoride is controllable, the number of defects is controllable and the integration is very high. The super ionic transition metal fluoride dielectric material can show great potential in the design and manufacture of new functional devices.

This invention belongs to the field of passivating agent technology, specifically relating to a corrosion-resistant, high-temperature-resistant, chromium-free passivating agent for magnesium alloy workpieces and its preparation method. The chromium-free passivating agent comprises the following components by weight: 4-5 parts film-forming agent; 8-10 parts functional acrylic resin; 0.8-1 parts vanadate; 3-5 parts coupling agent; 1-2 parts corrosion inhibitor; and 70-80 parts water. The chromium-free passivating agent provided by this invention uses zirconium fluoride and titanium fluoride as film-forming agents, and is modified by adding functional acrylic resin, which improves the density and corrosion resistance of the passivation film. This results in a chromium-free passivating agent with good corrosion resistance, adhesion, high-temperature resistance, and antibacterial properties. When used in magnesium alloy workpieces, it exhibits good corrosion resistance and helps extend the service life of the magnesium alloy workpieces.

The present application is a method for depositing a metal conductive layer on a glass substrate, comprising the following steps: cleaning a glass substrate and forming a titanium metal thin film on the surface of the glass substrate. The titanium metal thin film is surface treated by a reaction plasma to become an intermediate layer, wherein the reaction plasma includes an oxygen plasma, a nitrogen plasma, a fluorine plasma or a chlorine plasma, and the intermediate layer includes a titanium oxide thin film, a titanium nitride thin film, a titanium fluoride thin film or a titanium chloride thin film. A titanium metal conductive layer is formed on the intermediate layer of the glass substrate. The titanium metal conductive layer is connected to the glass substrate through the intermediate layer, which can increase the adhesion between the titanium metal conductive layer and the glass substrate, and is conducive to improving the yield and reliability of subsequent packaging processes.

The invention provides a positive pole piece, a secondary battery, a battery pack and an energy storage system, the secondary electrode comprises the positive pole piece, the positive pole piece comprises a positive active material with a core-shell structure, the core of the core-shell structure is a layered transition metal oxide, the shell of the core-shell structure is made of a first fluoride, and the first fluoride is made of a second fluoride. The first fluoride is selected from at least one of zinc fluoride, zirconium fluoride, niobium fluoride, titanium fluoride and cadmium fluoride. According to the present invention, even if the active layer including the positive electrode active material cracks, the layered transition metal oxide does not directly contact the electrolyte, but the layered transition metal oxide is separated from the electrolyte through the shell, such that the transition ions in the layered transition metal oxide are prevented from being dissolved, and the cycle stability of the secondary battery is improved. Zinc, zirconium, niobium, titanium and cadmium belong to transition metals and have relatively good stability, and the shell contains fluorides of the elements, so that the positive active material has long-term stability, and the long cycle stability of the secondary battery is improved.

This disclosure is a method for depositing a metal conductive layer on a glass substrate. Firstly, a glass substrate is cleaned, and then a titanium metal thin film is formed on the surface of the glass substrate. The titanium metal thin film is performed a surface treatment by using a reactive plasma to form an intermediate layer, wherein the intermediate layer includes a titanium oxide thin film, a titanium nitride thin film, a titanium fluoride thin film, or a titanium chloride thin film. A titanium metal conductive layer is formed on the intermediate layer of the glass substrate. The titanium metal conductive layer is connected to the glass substrate through the intermediate layer, which can increase the adhesion between the titanium metal conductive layer and the glass substrate, and is beneficial to improve the yield and reliability of subsequent packaging processes.

This invention discloses a titanium fluoride-doped iron oxide photoanode, its preparation method, and its application, belonging to the field of photoelectrochemical technology. The preparation steps of the titanium fluoride-doped iron oxide photoanode are as follows: Conductive glass is placed in a mixture of iron and titanium sources, subjected to a hydrothermal reaction, and calcined to obtain a Ti-Fe₂O₃ photoanode; the Ti-Fe₂O₃ photoanode is then fluorinated to obtain the titanium fluoride-doped iron oxide photoanode. The titanium fluoride-doped iron oxide photoanode prepared by this invention can effectively detect voltage in glucose solutions of different concentrations using photoelectric detection technology. Furthermore, the titanium fluoride-doped iron oxide photoanode exhibits visible light response, higher photoelectric conversion efficiency, higher catalytic oxidation efficiency for organic matter, and long-term operational stability. The titanium fluoride-doped iron oxide photoanode prepared by this invention provides a simple analytical method for the effective voltage detection of glucose.

To provide a new method for producing a lead titanium oxyfluoride compound, which is completely different from conventional high-temperature dry synthesis and hydrothermal synthesis and can cause problems such as coarsening of particles due to sintering.SOLUTION: A method for producing an oxyfluoride titanium lead compound, comprising the steps of: (a) dissolving a compound containing a titanium (IV) fluoride complex ion or a combination of a compound containing a fluorine atom capable of forming a titanium (IV) fluoride complex ion and a compound containing a titanium atom, a compound containing a lead atom, and a compound containing a boron atom in an amine solution; and (b) heating the resulting solution to produce an oxyfluoride titanium lead compound.SELECTED DRAWING: None