11 results about "Colemanite" patented technology

A granular fertilizer product having at least two sources of boron having different solubilities to tailor boron availability during the entire growing season of a plant, while reducing the risk of boron toxicity. A first source of boron can include a sodium-based or highly water soluble boron compound such as sodium tetraborate and / or boric acid, while a second source of boron can include a calcium-based boron compound such as colemanite (CaB3O4(OH)3·(H2O)) (e.g. when the carrier fertilizer is N- or K-based) and / or boron phosphate (BPO4) (e.g., when the carrier fertilizer is P-based). The solubility of the first source of boron is higher than the solubility of the second source of boron such that the sources of boron have different release rates into the soil.

The present invention relates to a method for preparing a self-cleaning raw ceramic glaze with a micro-nanostructured rough surface. The glaze raw materials are composed of the following weight percentages: kaolin 5.47-6.69%, albite 24.95-28.74%, potassium feldspar 24.86-28.82%, quartz 1.17-8.97%, calcite 1.83-9.84%, talc 2.55-3.05%, colemanite 14.49-27.26%, and titanium dioxide 6.15-7.08%. The self-cleaning raw ceramic glaze is obtained by batching, homogenizing, ball milling, screening, and aging according to the glaze formula. The present invention uses inexpensive mineral raw materials and utilizes the principle of high-temperature phase separation to generate uniformly sized, closely spaced phase-separated droplets in the glaze to construct a micro-nanoscale rough surface, thereby achieving super-hydrophilic self-cleaning properties on the glaze's macroscopic surface. Therefore, the industrialization prospect is broad.

The present invention discloses a high-temperature resistant cementing slurry system for 10,000-meter deep wells, relating to the technical field of cementing materials for oil and gas well engineering. The cementing slurry system of the present invention comprises the following components, measured by weight: 100 parts of low-heat Portland cement, 10-20 parts of an anti-abnormal gelling material, 35-55 parts of an enhanced anti-fading material, 10-20 parts of a suspended fluid loss reducer, 6-8 parts of a high-temperature fluid loss reducer, and 2-5 parts of a high-temperature retarder; wherein the anti-abnormal gelling material comprises, by weight, ulexite: colemanite: ulexite: chollastone = (40-60): (20-40): (10-20): (5-15). The present invention reduces the hydration rate of the slurry under high-temperature conditions by limiting the dicalcium silicate content in the cement components and reducing the specific surface area of ​​the cement, thereby suppressing the rapid abnormal gelling of the cement slurry. The anti-abnormal gelling material, based on the perspective of cement hydration products, addresses the abnormal gelling effect of cement mineral component fluctuations in different batches on the cement slurry, while also ensuring stable control of other properties of the slurry.

A granular fertilizer product having at least two sources of boron having different solubilities to tailor boron availability during the entire growing season of a plant, while reducing the risk of boron toxicity. A first source of boron can include a sodium-based or highly water soluble boron compound such as sodium tetraborate and / or boric acid, while a second source of boron can include a calcium-based boron compound such as colemanite (CaB3OH)3·(H2O)) (e.g. when the carrier fertilizer is N- or K-based) and / or boron phosphate (BPO4) (e.g., when the carrier fertilizer is P-based). The solubility of the first source of boron is higher than the solubility of the second source of boron such that the sources of boron have different release rates into the soil.

The invention relates to a method for producing boron compounds from boron ores such as colemanite and tinkal by means of a photocatalytic process that provides solutions to the high energy requirements, environmental impacts, difficult process conditions, and cost issues arising from conventional chemical processes.

The present invention belongs to the technical field of building ceramic materials and specifically discloses an environmentally friendly foamed ceramic and a preparation method thereof. The foamed ceramic comprises the following components, by weight: 95-105 parts of a foamed ceramic inorganic raw material, 3-5 parts of methyl cellulose, 0.5-1 part of castor oil, 2-4 parts of glycerin, and 15-18 parts of water; the foamed ceramic inorganic raw material comprises the following components, by weight: 44-50 parts of high-alumina fly ash, 21-30 parts of colemanite, 13-20 parts of albite, and 12-17 parts of quartz. The present invention utilizes the aforementioned environmentally friendly foamed ceramic and a preparation method thereof. The method uses high-alumina fly ash as a solid waste raw material, colemanite, albite, and quartz as mineral raw materials, without the addition of any external foaming agent. A green body is prepared by plastic molding and sintered at a low temperature to ultimately obtain an environmentally friendly foamed ceramic with excellent fireproofing, heat insulation, thermal insulation, and moisture-proof properties.

The invention relates to a capillary heat pipe transparent PVT system (10) with a phase changeable heat transfer fluid capillary heat pipe that can be used instead of transparent structures such as glass, which takes heat with the help of capillary heat transfer pipes (11) placed behind the transparent PV (12) as a result of the heating of photovoltaic panels while generating electricity from photons from the sun. In particular, the invention relates to a transparent PVT system (11) with capillary heat transfer pipes (11) which receive heat from the heated surface of photovoltaic panels during the electricity generation process, which can change phase, do not agglomerate, and contain colemanite, borax, Al2O3, SiO3, CuO, TiO2, SiL, szaybelite, boron carbide between 10-200 nanometers, is related to the capillary heat pipe transparent PVT system (10) with heat transfer fluid capillary heat pipe with heat transfer fluid containing phase changeable heat transfer fluid (10), which contains boron solid particles and transmits the heat it receives with the help of capillary heat transfer pipes (11) through the intermediate heat transfer pipe (13) quickly for demand-oriented use thanks to the catalyzing effect of these solid particles, preventing the PV (12) from decreasing its efficiency due to overheating and increasing electricity production.

The application discloses a kind of no light kiln glaze and preparation method thereof, belong to kiln glaze technical field, it includes the following mass parts of preparation raw materials: 38~45 parts of sunstone, 20~28 parts of calcite, 10~18 parts of kaolin, 6~14 parts of colemanite, 13~21 parts of strontium carbonate, 1~5 parts of nano zirconium oxide, 5~10 parts of composite colorant, 2~6 parts of microcrystalline control agent, 1~3.5 parts of fluxing regulator.Preparation method includes: S1.wet grinding, aging is obtained glaze pulp after preparation raw materials pretreatment;S2.high pressure glaze is applied to the surface of body and glazing is obtained;S3.glazing body is gradient firing, respectively, low-temperature preheating section, oxidation decomposition section, high-temperature melting section, microcrystalline precipitation section and cooling section.The application solves the technical problems of existing no light kiln glaze glaze surface dry and rough, kiln color single, glaze body matching poor, low yield, so that the glaze surface has kiln texture and high mechanical properties.

The invention relates to the chilled beam system (1) with heat transfer fluid, which quickly cools the indoor air by transferring the heat to the phase-changeable heat transfer fluid in order to bring the air of living spaces to the desired comfort conditions. The invention is especially related to the chilled beam system with a heat transfer fluid containing a heat transfer fluid containing colemanite, borax, Al2O3, SiO3, CuO, TiO2, SiL, szaybelite, boron carbide, boron solid particles between 10-200 nanometers in a heat transfer fluid that can change the phase by taking the ambient air heat passing through the heat exchanger fins and cooling it down.

The invention relates to a capillary heat pipe transparent PVT system (10) with a phase changeable heat transfer fluid capillary heat pipe that can be used instead of transparent structures such as glass, which takes heat with the help of capillary heat transfer pipes (11) placed behind the transparent PV (12) as a result of the heating of photovoltaic panels while generating electricity from photons from the sun. In particular, the invention relates to a transparent PVT system (11) with capillary heat transfer pipes (11) which receive heat from the heated surface of photovoltaic panels during the electricity generation process, which can change phase, do not agglomerate, and contain colemanite, borax, Al2O3, SiO3, CuO, TiO2, SiL, szaybelite, boron carbide between 10-200 nanometers, is related to the capillary heat pipe transparent PVT system (10) with heat transfer fluid capillary heat pipe with heat transfer fluid containing phase changeable heat transfer fluid (10), which contains boron solid particles and transmits the heat it receives with the help of capillary heat transfer pipes (11) through the intermediate heat transfer pipe (13) quickly for demand-oriented use thanks to the catalyzing effect of these solid particles, preventing the PV (12) from decreasing its efficiency due to overheating and increasing electricity production.

The application discloses a hard boracite-containing continuous casting protective slag and application thereof, wherein the raw material of the hard boracite-containing continuous casting protective slag comprises hard boracite, and the mass fraction of the hard boracite in the raw material is 1-25%. In the application, the hard boracite is used to replace borax, and the hard boracite can be added in a relatively larger amount in the protective slag, so as to avoid the phenomenon that the addition of too much borax can cause the explosion of the protective slag and the excessive dust to easily cause dust pollution. In addition, the addition of the hard boracite in a large amount can make the content of B2O3 in the protective slag large, the B2O3 can effectively reduce the melting point of the protective slag, refine the protective slag film, reduce the viscosity of the protective slag, and improve the filling flowability and lubricity of the protective slag. Most importantly, the hard boracite can replace part of expensive materials, such as lithium carbonate, under the premise of guaranteeing the performance of the protective slag, so as to reduce the cost of the protective slag.