30results about How to "Raise the sodium content" patented technology

Hydrogenated pyrido[4,3-b]indoles, pyrido[3,4-b]indoles and azepino[4,5-b]indoles are described. The compounds may bind to and are adrenergic receptor α2B antagonists. The compounds may also bind to and antagonize adrenergic receptor α1B—The compounds may find use in therapy, e.g., to (i) reduce blood pressure and / or (ii) promote renal blood flow and / or (iii) decrease or inhibit sodium reabsorption. The compounds may also be used to treat diseases or conditions that are, or are expected to be, responsive to a decrease in blood pressure. Use of the compounds to treat cardiovascular and renal disorders is particularly described.

The invention relates to a health-care seasoning, particularly a prebiotic low-sodium salt and a prebiotic low-sodium salt composite seasoning, and a preparation method thereof. The prebiotic low-sodium salt comprises 50-70% of sodium chloride, 20-45% of potassium chloride, 0.5-15% of prebiotic and 1-5% of ultrafine food powder and other auxiliary materials. Unless otherwise specified, the percents in the invention are mass percents. The prebiotic low-sodium salt seasoning comprises 10-49% of sodium chloride, 10-37% of potassium chloride, 0.5-15% of prebiotic and 5-30% of ultrafine food powder and other auxiliary materials. The prebiotic low-sodium salt and prebiotic low-sodium salt seasoning overcome the defects of high sodium chloride content, unbalanced sodium and potassium ions and high tendency to causing hypertension and kidney diseases of the human body; the water-soluble dietary fiber-oligosaccharide prebiotic, which is beneficial to the human health, is added to well promote growth and reproduction of the probiotic in the intestinal tract, thereby preventing constipation and subhealth diseases caused by accumulation of toxins in the intestinal tract.

The invention relates to a photovoltaic cell, preferably a thin-film photovoltaic cell, having a substrate glass made of aluminosilicate glass, comprising a glass composition which has SiO2 and Al2O3 as well as the alkaline oxide Na2O and the alkaline earth oxides CaO, MgO, and BaO, and optionally further components, the glass composition containing 10 to 16 wt% Na2O, > 0 to < 5 wt% CaO, and > 1 to 10 wt% BaO, and the ratio of CaO:MgO being in the range of 0.5 to 1.7. The aluminosilicate glass used according to the invention is crystallization stable because of the selected quotient of CaO / MgO and has a transformation temperature Tg > 580 DEG C and a processing temperature VA < 1200 DEG C. Therefore, it represents a more thermally stable alternative to soda-lime glass. The object of the invention is also the use of the aluminosilicate glass as a substrate glass, superstrate glass, and / or cover glass for a photovoltaic cells, preferably for thin-film photovoltaic cells, in particular those based on semiconductor composite material, such as CdTe, CIS, or ClGS.

The invention belongs to the field of pharmaceutic preparation and discloses cefbuperazone sodium composition powder for injection and a preparation method thereof. The effective components of the cefbuperazone sodium composition powder for injection in the invention are cefbuperazone sodium and sodium benzoate, wherein the weight ratio of the cefbuperazone sodium to the sodium benzoate is 1:0.05. The cefbuperazone sodium composition powder particles for injection are uniform, have high cefbuperazone sodium content, and are stable in preparation, good in stability, accurate in dosage, convenient to use and carry, easy in acquisition of raw materials and low in cost. The preparation method of the cefbuperazone sodium composition powder for injection directly sub-packs the sterile raw materials, is simple in production technique and operation, mature in technique and easy to control, has low requirements on equipment and preparation conditions, and is suitable for large-scale production.

The invention discloses a method for preparing a manganese-based Prussian white positive electrode material, which comprises the following steps: step 1), dissolving manganese salt containing divalent manganese ions in deionized water to form solution A; step 2), dissolving ferrous Sodium cyanide is dissolved in deionized water to form solution B; step 3), solution A is dropped into solution B for co-precipitation reaction to obtain a suspension solution; step 4), the suspension solution obtained in step 3) is moved to the reactor , and adding soluble sodium salt, after hydrothermal reaction for a certain period of time, suction filtration, drying and precipitation to obtain the manganese Prussian white cathode material. The preparation method of the present invention can regulate the morphology and size distribution of the product, and the prepared manganese-based Prussian white has good crystallinity, which can significantly improve the electrochemical performance of the sodium-ion battery when applied to the electrode of the sodium-ion battery, especially It can effectively improve the charge and discharge capacity.

The invention relates to a method for preparing a prussian blue material through reduction of graphene oxide, and application. The preparation method comprises the steps of ultrasonically dispersing the graphene oxide into a sodium ferrocyanide water solution, adding ascorbic acid for resisting oxidation, adding sodium citrate for reducing a reaction rate, dropwise adding hydrochloric acid for adjusting the solution to be acidic, heating and stirring for reacting under the inert gas protection to obtain a material, washing, vacuum drying, and carrying out microwave irradiation for reducing thegraphene oxide to obtain the product. When the prussian blue material prepared through composite reduction of the graphene oxide provided by the invention is used as a sodium-ion battery anode, the specific capacity, the cycle performance and the rate capability of a battery are greatly improved, the charge and discharge specific capacity of the battery in an organic system reaches up to not lessthan 153mAh.g<-1>, and the specific capacity of the battery in a water system single platform reaches up to not less than 81mAh.g<-1>; the preparation method is low in cost, fast, simple, and favorable in application prospect.

The invention relates to the technical field of chemical building materials, in particular to a hemihydrate gypsum base material imitation stone floor and a preparation method thereof. By properly proportioning hemihydrate gypsum, bamboo carbon fibers, cement, calcite powder, polyvinyl alcohol, methylcellulose, ethylcellulose and imitation stone paint, the hemihydrate gypsum is further activated in an environment with the cement, and the activity of the hemihydrate gypsum is improved; moreover, through the addition of polyvinyl alcohol, methylcellulose, ethylcellulose, the bamboo carbon fibers and the calcite powder, the strength and toughness of a base material of a product made from the hemihydrate gypsum are enhanced, characteristics of heat retaining property and light weight of the hemihydrate gypsum also can be reserved, the radioactivity of the hemihydrate gypsum product is also reduced, and the product quality is improved.

The present invention relates to the field of ceramic products and production methods thereof, in particular to a low-temperature primary-fired ceramic with an opaque glaze surface and a preparation method thereof, characterized in that: the raw materials of the bottom glaze layer include the following components in parts by weight 5-6 parts of industrial iron oxide, 5-10 parts of wood ash, 3-5 parts of flint, 10-12 parts of quartz, 10-15 parts of orthoclase, the raw materials of the surface glaze layer are in parts by weight, including the following groups Parts: 10-15 parts of molten powder, 15-18 parts of quartz, 10-15 parts of feldspar, 21-25 parts of albite, 2-3 parts of cooked talc, 8-10 parts of calcite, 2-3 parts of zircon and 1‑2 parts of zinc oxide. The low-temperature once-fired ceramics with an opacified glaze surface and the preparation method provided by the present invention reduce the firing temperature, have good opacification effects, rich glaze shapes, effectively save fuel, have good blank glaze adaptability, and have high strength and hardness of the blank glaze. .

The invention belongs to the technical field of sodium-ion battery materials, and specifically discloses a sodium-rich phase sodium-ion battery cathode composite material, which is a composite material of sodium-rich phase sodium titanomanganese phosphate and carbon, and the chemical formula of the sodium-rich phase sodium titanomanganese phosphate is Na 3+4x MnTi 1‑x (PO 4 ) 3 , where 0<x≤0.3. The invention also discloses the preparation of the composite material and its application in sodium ion batteries. The composite material of the present invention innovatively adopts the sodium-rich titanium manganese phosphate sodium, which increases the sodium content in the material through the appropriate proportion of titanium defects. The excess sodium content in the lattice is conducive to maintaining the stability of the structure during the extraction of sodium ions, thereby improving the long-term cycle stability of the material. In addition, the synergy between the sodium-rich phase sodium titanomanganese phosphate and carbon can significantly improve the electrical properties of the composite material, such as improving the capacity and cycle performance of the composite material. In addition, the "Na‑Mn‑Ti‑P‑O" system is rich in resources and low in cost, and the preparation method is simple to operate and has broad prospects for commercial application.

The present invention deals with a process for catalytic cracking of hydrocarbons comprising vacuum gas oil, hydrotreated vacuum gas oil, unconventional light crude oil, preferably unconventional light crude oil type shale / tight oil and its blends with conventional vacuum gas oil, in order to generate products of major commercial value in the field of fuels, getting improved gasoline and coke yield, as well as the procedure for the preparation of a catalyst with essential physical properties of density and particle size to uphold it in a fluidized bed under the operation conditions in the catalyst evaluation unit at micro level, wherein the catalyst particles achieve a catalytic performance similar to fluidized microspheres in a reactor, without appreciable generation of fine particles.