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74 results about "Aluminum Acetate" patented technology

A topical astringent that is used as an antiseptic agent. Aluminum acetate is used to treat inflammation, itching, and stinging of the infected skin and promotes healing.

Aluminum cladding method for lithium ion positive electrode material

InactiveCN103872331ANo reduction in gram capacityImprove uniformityCell electrodesSecondary cellsSolventMuffle furnace
The invention discloses an aluminum cladding method for a lithium ion positive electrode material. The aluminum cladding method comprises the following steps: (1) preparing a cladding-free positive electrode material by a conventional method; (b) preparing an aluminum salt solution from an inorganic aluminum salt and a solvent, wherein the aluminum salt solution is taken as a cladding solution, the aluminum salt is selected from aluminum nitrate, aluminum chloride, aluminum sulfate and aluminum acetate and the solvent is selected from ethanol, methanol and isopropanol; (c) adding the cladding-free positive electrode material into the aluminum salt solution, agitating and heating till the solution reflows; (d) after the solution reflows for 30 minutes, filtering to remove the solvent and drying in vacuum at 70-100 DEG C to prepare a semi-finished product; and (e) putting the semi-finished product into a muffle furnace for roasting, and naturally cooling to room temperature to obtain the aluminum-cladded positive electrode material. Compared with the prior art, the aluminum cladding method for the lithium ion positive electrode material disclosed by the invention not only can prolong the cycle life and improve the heat stability of the positive electrode material under high-charging cut-off voltage, but also can reduce the cladding cost and improve the cladding consistency.
Owner:NINGDE AMPEREX TECH

Method for preparing textured ZnO membrane with pyramid-like structure

The invention relates to a method for preparing a textured ZnO membrane with a pyramid-like structure. The method comprises the following steps: taking zinc acetate as a Zn source, indium nitrate or indium acetate as a doped indium source, aluminum nitrate or aluminum acetate as a doped aluminum source, gallium nitrate or gallium acetate as a doped gallium source and anhydrous ethanol and/or water as a solvent; preparing a zinc source solution and a doped source solution with certain concentration respectively, and mixing the zinc source solution and the doped source solution; adding glacial acetic acid into the mixture; using high-purity N2 or air as carrier gas; and conveying the reaction liquid into a membrane precipitation chamber for growth, wherein a substrate can be glass or stainless steel and the like, and the growth temperature is between 300 and 550 DEG C. The method adopts cheap and nontoxic chemical products and utilizes a low-cost ultrasonic atomizer to directly obtain the ZnO membrane with a textured structure and light scattering characteristic under the condition of not requiring the doping of B2H6, so that the method cannot pollute the environment, belongs to 'environment-friendly' technology, and can be suitable for the preparation of the large-area (for example, S is equal to 1.2X0.6 meter) ZnO transparent conductive film.
Owner:NANKAI UNIV

Method for preparing lithium magnalium co-doped synergic nitrogen-sulfur doped carbon-coated modified barium titanate lithium cathode material

The invention relates to a method for preparing a lithium magnalium co-doped synergic nitrogen-sulfur doped carbon-coated modified barium titanate lithium cathode material. The method is characterized by comprising the following steps: mixing barium nitrate, lithium nitrate, magnesium acetate, aluminum acetate, nano titanium dioxide and acetylene black in a ball mill, sintering obtained powder in a muffle furnace, presintering for 4 hours at constant temperature of 650 DEG C to decompose salts, further sintering for 14 hours at 980 DEG C, and naturally cooling to the room temperature, so as to obtain lithium magnalium co-doped barium titanate lithium; putting the obtained lithium magnalium co-doped barium titanate lithium into a porcelain boat, putting into a tubular atmosphere furnace, putting another porcelain boat with cystine into the tubular atmosphere furnace, placing at upstream of air flow, treating for 2 hours at 680 DEG C in the presence of argon as a protection gas, naturally cooling to the room temperature, and grinding a product into powder, thereby obtaining a product, namely, the lithium magnalium co-doped synergic nitrogen-sulfur doped carbon-coated modified barium titanate lithium cathode material.
Owner:NINGBO UNIV

Method for preparing aluminum oxide coating on surface of silicon carbide fiber

The invention discloses a method for preparing an aluminum oxide coating on the surface of silicon carbide fiber. The method mainly comprises the operating steps that aluminum acetate, glycerine and acetic acid are added into deionized water according to the proportion, after the aluminum acetate, the glycerine and the acetic acid are dissolved, ammonium hydroxide is added drop by drop for adjusting the pH value, and sediment is obtained; after the sediment is washed through the deionized water, suction filtration is conducted; the sediment is added into the deionized water again to be dispersed; a nitric acid solution is added into the solution, and aluminum oxide sol is prepared after reflux, heating and stirring are conducted; and the silicon carbide fiber is placed into an impregnation tank filled with the aluminum oxide sol for impregnation, and finally the silicon carbide fiber coated with the aluminum oxide coating is obtained after drying treatment and heat treatment are conducted. The aluminum oxide coating is excellent in oxidation resistance, and the high-temperature performance of the silicon carbide fiber can be improved greatly; in addition, the adhesion performance between the aluminum oxide coating and the silicon carbide fiber is good, and the coating is distributed uniformly on the surface of the fiber and is not prone to falling off.
Owner:SUZHOU HONGJIU AVIATION THERMAL MATERIALS TECH CO LTD

Mass concrete mixture and construction method of pouring wall body by mass concrete mixture

The invention relates to a mass concrete mixture and a construction method of pouring a wall body by the mass concrete mixture. The technical scheme adopted by the invention is that the mass concretemixture is prepared from the following raw materials in parts by weight: 165 parts of water, 214 parts of portland blast furnace slag cement, 743 parts of sand, 1070 parts of gravel, 103 parts of flyash, 95 parts of mineral powder, 4.94 parts of admixture and 0.9 part of polypropylene fibers, wherein the admixture is prepared from a JH-GHL polycarboxylate superplasticizer, an H-III type concrete mortar water-proofing agent, a UEA-H type concrete expanding agent, basic aluminum acetate and delta-aluminum oxide of which the weight ratio is 4 to 3 to 2 to 0.2 to 0.3. The construction method comprises the steps of pre-construction preparation, weighing of the raw materials, stirring of the raw materials, pouring, vibrating, primary leveling, maintenance, secondary leveling and measurement of the temperature. In the construction process of a mass concrete structure, indwelling of a post pouring belt can be avoided, the construction progress is speeded up and the construction period is shortened; in addition, without structural cracks, the overall stability of the structure is improved and the waterproof quality of a project can be ensured.
Owner:BCEG ROAD & BRIDGE CONSTR

Thermal printing paper with good color rendering property and processing technology thereof

The invention discloses a thermal printing paper with good color rendering property. The thermal printing paper comprises the following components: 45-55 parts of a degradable inorganic filler, 0.2-0.4 part of N-dimethylformamide, 0.8-1.2 parts of p-toluenesulfonic acid, 0.3-0.5 part of trifluoromethanesulfonic anhydride, 5-8 parts of aluminum acetate, 13-15 parts of p-hydroxybenzoic acid, 3-5 parts of beewax, 2-4 parts of a film forming agent, 2-3 parts of an antioxidant and 1-2 parts of an ultraviolet light absorber. The processing technique comprises the following steps: proportionally weighing a proper amount of N-dimethylformamide, p-toluenesulfonic acid and trifluoromethanesulfonic anhydride, mixing with an organic solvent to obtain a mixed solution, adding a degradable inorganic filler, continuing stirring and mixing to obtain a color developing layer coating, uniformly coating the base paper base layer with the color developing layer coating, spraying the color developing layerwith a mixed solution of aluminum acetate and p-hydroxybenzoic acid, weighing a proper amount of beeswax in proportion, adding an organic solvent mixed solution, heating the beeswax dissolved solution to 40-45 DEG C, adding the film forming agent, the antioxidant and the ultraviolet light absorber, carrying out stirring and mixing, and uniformly coating a display layer with a protective layer solution.
Owner:安徽军号信息科技有限公司

Aluminum-zirconium co-doped silicon carbide/boron nitride fiber and preparation method thereof

The invention discloses aluminum-zirconium co-doped silicon carbide/boron nitride fiber and a preparation method thereof. The method includes the following steps that aluminum acetate, zirconium acetoacetate and polyborosilicazane are mixed, polydimethylsilane is injected to uniformly cover the surface of a mixture, heat preservation is conducted after heating, and after dissolving with xylene, filtering, and vacuum distillation, fine materials are obtained; the fine materials are subjected to melt spinning, sintering is conducted, and the aluminum-zirconium co-doped silicon carbide/boron nitride fiber is obtained. Aluminum, zirconium, boron and nitrogen elements are introduced into a precursor, N elements are re-introduced in the sintering process, especially the interface of the siliconcarbide/boron nitride fiber contains nanon silicon carbide nitride, the strength of the prepared aluminum-zirconium co-doped silicon carbide/boron nitride fiber is 3.5+/-0.3 GPa at room temperature, and the elastic modulus is 280+20 GPa. After treatment in an air environment of 1100 DEG C for 100 hours, the strength retention rate of the fiber still reaches 85% or above, and the fiber has practical value and a wide application prospect in the field of high-performance fiber.
Owner:JIANGXI JIAJIEXINDA NEW MATERIAL TECH CO LTD

Aluminum alloy refining material and preparation method and application thereof

InactiveCN109988931AChanged spoilage treatment efficiencyInhibition of segregationSlagPotassium
The invention discloses an aluminum alloy refining material and a preparation method and an application thereof and relates to the field of aluminum alloy modifiers. The aluminum alloy refining material comprises the following raw materials in percentage by weight: 5-8% of potassium fluoroaluminate, 7-11% of sodium fluoroaluminate, 3-5% of disodium hydrogen phosphate hydrate, 5-7% of potassium chloride, 4-8% of sodium chloride, 0.4-0.8% of barium acetate, 3-6% of barium nitrate, 0.2-0.9% of samarium fluoride, 0.2-0.9% of aluminum acetate, 6-8% of aluminum chloride, 15-20% of lepidolite compound powder and the balance of pure aluminum. The aluminum alloy refining material has the beneficial effects that the four modifiers of barium, sodium, lithium and samarium are combined according to thecharacteristics and a sintered body with a loose structure is prepared by adopting spray deposition and extrusion calcination in one step, so that the metamorphic activity is effectively retained andthe material has the characteristics of short metamorphic incubation period, long effective metamorphic time and stable metamorphic effect; and the lepidolite powder can serve as a modifier carrier for degassing and slag removal and the alloy hardness can be significantly increased by utilizing high hardness matters contained in the lepidolite powder.
Owner:ANHUI POLYTECHNIC UNIV MECHANICAL & ELECTRICAL COLLEGE

Ni-based catalyst prepared through solution combustion and method thereof

The invention relates to the technical field of a Ni-based catalyst, in particular to a Ni-based catalyst prepared through solution combustion and a preparation method thereof. The Ni-based catalyst is prepared from the following method including the steps of taking a certain amount of nickel nitrate hexahydrate or nickel acetate or nickel chloride and aluminum nitrate nonahydrate or aluminum acetate or aluminum chloride; using polypyrrolidone as a morphological regulating and controlling agent; adding a deionized water and ethylene glycol mixed solution; performing ultrasound processing to obtain a precursor test solution; raising the temperature through a muffle furnace program; burning the test solution in the muffle furnace; preparing a combustion body test specimen; then, performing cooing, grinding and sieving; performing high-temperature reduction by H2 to obtain the Ni-based catalyst prepared through solution combustion. The method belongs to a method for simply and fast preparing the Ni-based catalyst. The prepared catalyst test specimen is a flaky micro porous material; when the catalyst is used for synthesizing 1,4-butanediol through butynediol hydrogenation, the characteristics of high conversion rate and selectivity of the 1,4-butanediol, high stability and the like are realized. The industrialization is easy.
Owner:XINJIANG MARKORCHEM
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