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35 results about "Ferric chloride hydrate" patented technology

Anhydrous ferric chloride salt has an octahedral geometry, with Fe+3 ions bind to two chloride ligands. The chemical structures for the anhydrous and hexahydrate ferric chloride can be written as below, in the common representations used for organic molecules.

Molybdenum sulfide-ferrite nano-enzyme as well as preparation and application

The invention relates to a molybdenum sulfide-ferrite nano-enzyme as well as a preparation method and an application method thereof. The preparation method comprises the following steps: uniformly mixing ferric chloride hydrate, magnesium chloride hydrate and dodecyl amine with a proper amount of ethylene glycol; enabling the components to react in a high-pressure reaction kettle, and repeatedly cleaning the product; drying the product so as to obtain ferrite magnesium; dissolving ammonium tetrathiomolybdate into dimethyl formamide; slowly adding hydrazine hydrate, and uniformly mixing; putting a proper amount of the ferrite magnesium into the mixed liquid; enabling the components to react in the high-pressure reaction kettle, and repeatedly cleaning the product; drying the product so as to obtain molybdenum sulfide-ferrite magnesium; putting the molybdenum sulfide-ferrite magnesium into a proper amount of TMB (Tetramethylbenzidine) and hydrogen peroxide-sodium acetate buffer solutionsof different concentrations; culturing, and testing the concentration of hydrogen peroxide. Results show that when being adopted to detect hydrogen peroxide, the molybdenum sulfide-ferrite magnesiumnano-enzyme is convenient and rapid to operate, high in sensitivity and wide in detection concentration range.
Owner:YANGZHOU UNIV

A method for preparing flexible conductive composite materials by adjusting graphene alignment by magnetic field

The invention relates to a method for preparing a flexible conductive composite material by regulating the arrangement of graphene by a magnetic field, and belongs to the technical field of development of the flexible conductive composite material. Prepare graphene oxide, ferrous chloride tetrahydrate, and ferric chloride hexahydrate aqueous solutions respectively, then blend and stir mechanically, add ammonia water dropwise to adjust the pH value, mechanically stir in a water bath, and centrifuge the mixed solution after cooling to separate the precipitated substances in the lower layer out, and dry to prepare magnetic graphene powder; ultrasonically disperse magnetic graphene powder and polymer in N,N-dimethylformamide, respectively, and then blend them evenly, add 3,3'-dichloro After ‑4,4'‑diaminodiphenylmethane, continue mechanical stirring, pour the mixture into a petri dish coated with a release agent, put it in a uniform magnetic field generated by a strong neodymium-iron-boron magnet, and then dry it in a vacuum A magnetic graphene / polymer flexible conductive composite was obtained. The invention has simple operation, simple and easy-to-obtain raw materials, and low preparation condition requirements.
Owner:KUNMING UNIV OF SCI & TECH

Zinc ferrite hollow sphere with micro-nano structure and preparation method thereof

The invention discloses a zinc ferrite hollow sphere with a micro-nano structure and a preparation method of the zinc ferrite hollow sphere, wherein the hollow sphere is a micro-sphere with the diameter of 1.5-3 microns and comprises zinc ferrite hollow spheres, the sphere diameter of the zinc ferrite hollow spheres is 180-220 nm, the sphere wall thickness of the zinc ferrite hollow spheres is 28-32 nm, and the sphere wall is composed of zinc ferrite nano-particles; the method comprises the following steps: respectively preparing a urea aqueous solution, a trisodium citrate dihydrate aqueous solution, a ferric chloride hexahydrate aqueous solution and a zinc nitrate aqueous solution; uniformly mixing the urea aqueous solution and the trisodium citrate dihydrate aqueous solution; and sequentially adding the ferric chloride hexahydrate aqueous solution and the zinc nitrate aqueous solution into the obtained mixed solution, uniformly mixing, carrying out closed reaction on the obtained precursor solution at 120-180 DEG C, and sequentially carrying out solid-liquid separation, washing and drying treatment on the obtained reaction solution to obtain the target product. The material is uniform in size and large in specific surface area, and can be easily and widely commercially applied to the fields of photoconductive materials, water treatment, surface enhanced Raman scattering, sensors and the like.
Owner:ANHUI UNIVERSITY OF ARCHITECTURE

Material for measuring microcosmic hot spots in microwave field and application and method thereof

PendingCN114133924ARealize quantitative determinationBreaking through the challenge of measuring temperature at the microscopic scaleThermometers using physical/chemical changesTenebresent compositionsFluorescence spectraCarboxylic acid
The invention discloses a material for measuring microcosmic hot spots in a microwave field, which is prepared by the following steps: dissolving ferric chloride pentahydrate and terephthalic acid in N, N-dimethylformamide, stirring and carrying out ultrasonic treatment, and carrying out hydrothermal reaction; the iron-based metal frame material particles are placed in a tubular furnace, the material is roasted in the air environment, and then the material is further roasted in the nitrogen environment; the preparation method comprises the following steps: uniformly dispersing nano carbon particles in an N, N-dimethylformamide solution; adding biphenyl tetracarboxylic acid; adding a mixed solution of europium nitrate hexahydrate and terbium nitrate hexahydrate; stirring, carrying out hydrothermal reaction in an oil bath pan, and carrying out centrifugal separation; after the reaction is finished, the obtained particle fluorescence spectrum characteristic peak is sensitive to the temperature change, so that the real temperature of the particle in the microwave heating process can be calculated by capturing the fluorescence spectrum. According to the invention, the problem of measuring the micro-scale temperature in a microwave field is solved, and quantitative measurement of the microwave-induced micro-scale local overheating phenomenon can be realized.
Owner:TIANJIN UNIV

A kind of molybdenum sulfide-ferrite nanozyme, preparation and application

The invention relates to a molybdenum sulfide-ferrite nano-enzyme as well as a preparation method and an application method thereof. The preparation method comprises the following steps: uniformly mixing ferric chloride hydrate, magnesium chloride hydrate and dodecyl amine with a proper amount of ethylene glycol; enabling the components to react in a high-pressure reaction kettle, and repeatedly cleaning the product; drying the product so as to obtain ferrite magnesium; dissolving ammonium tetrathiomolybdate into dimethyl formamide; slowly adding hydrazine hydrate, and uniformly mixing; putting a proper amount of the ferrite magnesium into the mixed liquid; enabling the components to react in the high-pressure reaction kettle, and repeatedly cleaning the product; drying the product so as to obtain molybdenum sulfide-ferrite magnesium; putting the molybdenum sulfide-ferrite magnesium into a proper amount of TMB (Tetramethylbenzidine) and hydrogen peroxide-sodium acetate buffer solutionsof different concentrations; culturing, and testing the concentration of hydrogen peroxide. Results show that when being adopted to detect hydrogen peroxide, the molybdenum sulfide-ferrite magnesiumnano-enzyme is convenient and rapid to operate, high in sensitivity and wide in detection concentration range.
Owner:YANGZHOU UNIV

Copper-iron double-metal cluster-organic silica gel oxide bundle and preparation method and application of copper-iron double-metal cluster-organic silica gel oxide bundle

The invention relates to a copper-iron double-metal cluster-organic silicon oxide bundle as well as a preparation method and application thereof. The preparation method comprises the following steps: dissolving a nonionic block copolymer F127 in deionized water, and assembling to obtain an F127 micelle aqueous solution; adding a proper amount of ammonia water and a sulfydryl silane coupling agent into the aqueous solution to obtain sulfydryl-functionalized organic silicon oxide bundles; adding a ferric chloride hexahydrate solution to reduce the iron ions in a confinement manner to obtain an iron cluster-organic silicon oxide beam, and then adding a copper chloride dihydrate solution to further reduce the copper ions in a confinement manner to obtain the copper-iron bimetallic cluster-organic silicon oxide nano therapeutic agent. The dynamic particle size of the copper-iron bimetallic cluster modified organic silica gel bundle is smaller than 30 nm, the copper-iron bimetallic cluster modified organic silica gel bundle has good biological stability and dilution resistance, and the preparation method is simple. In addition, the catalytic treatment effect of tumors can be remarkably improved based on a copper-iron synergistic catalytic mechanism, and the copper-iron-based copper-iron composite material has huge application potential in the fields of biological medicine and nano-catalytic treatment.
Owner:EAST CHINA UNIV OF SCI & TECH

Environment-friendly deplating agent as well as preparation method and use method thereof

PendingCN114807944AReduce the use temperatureNickel stripped cleanSolventMetallic substrate
The invention discloses an environment-friendly deplating agent as well as a preparation method and a use method thereof. Each liter of the environment-friendly deplating agent comprises 20-100g of sodium persulfate, 100-300mL of concentrated sulfuric acid, 2-10g of ferric chloride hexahydrate, 0.005-0.1 g of a wetting agent, 1-10g of an imidazole slow release agent, 1-10g of citric acid and water as a solvent. The environment-friendly deplating agent is safe, environmentally friendly and low in use temperature (30-40 DEG C), and has the characteristics of being clean in deplating, free of corrosion to a matrix and high in deplating speed; sodium persulfate and ferric chloride hexahydrate are adopted as main substances for dissolving a nickel layer, then an imidazole slow-release agent and citric acid are added, the nickel stripping effect is guaranteed, meanwhile, copper or copper alloy of a metal base material cannot be corroded, and the copper corrosion speed is smaller than 0.33 micrometer/min; besides, in the production process of existing printed circuit boards, plastic antenna oscillators and other products, a palladium layer is further arranged between the base material and the nickel plating layer, and after the environment-friendly deplating agent finishes deplating of the nickel plating layer, the palladium layer between the base material and the nickel plating layer can also be deplated.
Owner:江苏悦锌达新材料有限公司

Zinc ferrite hollow sphere with micro-nano structure and preparation method thereof

The invention discloses a zinc ferrite hollow sphere with a micro-nano structure and a preparation method thereof. The hollow sphere is composed of zinc ferrite hollow spheres with a diameter of 1.5-3μm. Among them, the diameter of the zinc ferrite hollow sphere is 180-220nm, the thickness of the ball wall is 28-32nm, and the ball wall is composed of zinc ferrite nanoparticles; The method is to first prepare urea aqueous solution, trisodium citrate dihydrate aqueous solution, ferric chloride hexahydrate aqueous solution and zinc nitrate aqueous solution respectively, and then mix the urea aqueous solution and trisodium citrate dihydrate aqueous solution evenly, and successively mix ferric chloride hexahydrate The aqueous solution and the zinc nitrate aqueous solution are added to the obtained mixed solution and mixed evenly. After that, the obtained precursor solution is placed at 120-180°C for closed reaction, and then the obtained reaction solution is sequentially subjected to solid-liquid separation, washing and drying. target product. Its uniform size and large specific surface area make it extremely easy to be widely commercialized in the fields of photoconductive materials, water treatment, surface-enhanced Raman scattering and sensors.
Owner:ANHUI UNIVERSITY OF ARCHITECTURE
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