5results about How to "Restore evenly" patented technology

The invention relates to the field of skin care products, in particular to micro-capsule acne removal cream and a preparation method thereof. The micro-capsule acne-removing cream is prepared from the following components: a humectant, a skin conditioner, a suspending agent, a pH regulator and aloe barbadensis leaf water, behenyl alcohol, arachil alcohol, stearic acid, ethylhexyl hydroxystearate, an artemisia annua extract, pentaerythritol tetrakis (ethylhexanoate) ester, polydimethylsiloxane, tocopheryl acetate and squalane are used as raw materials; and carbomer. The anti-acne cream provided by the invention has the novel appearance of transparent gel and coated particles, can form a micro-capsule structure, and has the advantages of enhancing the anti-acne effect and fully exerting the effects of active substances.

The invention relates to a system and a method for reducing iron ore by using external hot iron ore and carbon-containing materials by adding normal-temperature hydrogen and carbon monoxide from the upper part of a cooling section at the bottom of a shaft furnace. In the system, an iron ore and carbon-containing material distribution bin is arranged at the top of a shaft furnace; the shaft furnace structure is formed by arranging combustion chambers and reduction chambers at intervals; the combustion chamber provides heat by adopting an efficient combustion heating technology; the combustors are evenly distributed on the two sides of the combustion chamber. The upper section of the reduction chamber is an iron ore and carbon-containing material preheating section, the middle section is an iron ore reduction section, and the lower section is a reduced iron heat recovery section; the bottom of the shaft furnace is a reduced iron cooling system; a reduction tail gas collecting system is arranged at the top of the shaft furnace; smoke exhaust systems are arranged on the two sides of the shaft furnace combustion chamber.

The uniformly-heated bell jar type reduction furnace comprises a bell jar body, the bottom end of the bell jar body is inserted into the top end of an insertion cavity, the insertion cavity is installed at the top end of a base, a heat transfer box is installed at the top end of the base, a heat conduction layer is installed at the top end of the heat transfer box, and a limiting cavity is installed at the top end of the heat conduction layer. A limiting cavity is formed in the top end of the base, a raw material containing cavity is formed in the top end of the limiting cavity, a first rotating cavity is formed in the bottom end of the raw material containing cavity, a first rotating block is rotationally connected into the first rotating cavity, and a spiral conveying rod is installed at the top end of the first rotating block. And the polycrystalline silicon raw materials are uniformly heated, so that the heated and reduced polycrystalline silicon raw materials are uniformly heated, the subsequent screening step is reduced, the problems of non-uniform growth of silicon rods and non-uniform grain size distribution are avoided, and the practicability and convenience of the device are improved.

The invention provides a multistage ore grinding reduction device which comprises a hearth, a gas-solid mixed outlet is formed in the upper portion of the side wall or the top wall of one side of the hearth, and a material inlet is formed in the side wall or the top wall of the other side of the hearth; a fluidized gas inlet is formed in the lower part of the side wall or the bottom wall of the hearth and is communicated with a reducing gas source; a crushing and grinding mechanism is arranged in the hearth; the device comprises a plurality of hearths which are sequentially connected in series, wherein an upper-stage gas-solid mixing outlet is communicated with a lower-stage material inlet; a sieve plate is arranged at each gas-solid mixing outlet, and the sieve pore diameter of the next stage of sieve plate is smaller than that of the previous stage of sieve plate. According to the invention, through the crushing mechanism and the sieve plate in the hearth, materials are fed into the hearth under different process conditions according to different size fractions, so that the problem of non-uniform grinding particle size caused by high hardness of the hard manganese ore is solved, uniform, accurate and efficient reduction of minerals with different size fractions is realized, and the energy consumption of the grinding reduction process is reduced.

This invention discloses a method for preparing graphene-loaded iridium-ruthenium-cobalt-copper-nickel high-entropy nanoparticles. The method includes: dissolving iridium, ruthenium, cobalt, copper, and nickel metal salts in an equiatomic ratio to prepare a metal precursor solution; simultaneously preparing a graphene oxide dispersion; and then mixing and atomizing the dispersion using a dual-feed atomization drying device to obtain a composite precursor powder. Finally, the powder is subjected to microwave reduction under inert gas protection to obtain graphene-loaded iridium-ruthenium-cobalt-copper-nickel high-entropy nanoparticles. This invention employs a synergistic process of dual-feed atomization and microwave reduction, avoiding metal ion aggregation and elemental segregation, achieving uniform and stable loading of high-entropy nanoparticles on the graphene surface. The high-entropy nanoparticles have a single-phase face-centered cubic structure with a particle size of 8 nm to 25 nm. The process is simple, efficient, low-consumption, and allows for controllable proportions. The prepared graphene-loaded iridium-ruthenium-cobalt-copper-nickel high-entropy nanoparticles can be widely used in water electrolysis, exhibiting advantages such as low overpotential and high stability, making them suitable for large-scale production and industrial applications.