Class / Patent application number | Description | Number of patent applications / Date published |
075594000 | Magnesium(Mg) | 14 |
20080236338 | Melting Apparatus and Method - A melting apparatus facilitates the melting of pieces of solid metal in a bath of molten metal ( | 10-02-2008 |
20100257976 | Protective Gas Composition For Magnesium/Magnesium Alloy Production And Combustion Preventing Method - There is provided a protective gas composition for preventing combustion of a molten magnesium/magnesium alloy, containing a compound selected from the group consisting of 1,1,1,3,3-pentafluoropropane (HFC-245fa), 1,3,3,3-tetrafluoropropene (OHFC-1234ze), methyl 1,1,2,2-tetrafluoroethyl ether (HFE-254pc), which are fluorine-containing organic compounds, and mixtures thereof; and a carrier gas. | 10-14-2010 |
20100263489 | USE OF A PROTECTIVE GAS COMPOSITION FOR PREVENTING OXIDATION OR COMBUSTION OF MOLTEN MAGNESIUM - A method of using a protective gas composition comprising a fluorine-containing organic compound and a carrier gas for preventing a rapid oxidation or combustion of a molten magnesium/magnesium alloy alloy in a magnesium or magnesium alloy production process. | 10-21-2010 |
20130319176 | MIXING AND KNEADING MACHINE FOR CONTINUOUS CONDITIONING PROCESS & METHOD FOR CONDITIONING METALS - What is proposed is a mixing and kneading machine ( | 12-05-2013 |
20140041485 | PROCESS FOR MAGNESIUM PRODUCTION - The invention relates to a process for conditioning material for pyrometallurgical conversion to magnesium, the process comprising carrying out de-su'fation of the material in a slurry to reduce sulfur content of the material; and carrying out de-ferration of the de-sulfated material in a slurry to reduce iron content of the material to produce a conditioned material suitable for pyrometallurgical conversion to magnesium. | 02-13-2014 |
075595000 | Vaporizing or condensing | 4 |
20150128765 | PROCESS AND APPARATUS FOR VACUUM DISTILLATION OF HIGH-PURITY MAGNESIUM - A starting material | 05-14-2015 |
075596000 | Reduction | 3 |
075597000 | Using metal or metal compound reductant | 1 |
20120198968 | METHOD FOR PRODUCING METALLIC MAGNESIUM BY VACUUM CIRCULATING SILICOTHERMIC PROCESS AND APPARATUS THEREOF - A method for producing metallic magnesium by vacuum circulating silicothermic process and apparatus thereof The method comprises the following steps: passing molten ferrosilicon ( | 08-09-2012 |
075599000 | Using Carbon(C) | 2 |
20130220077 | Method and apparatus for high temperature production of metals - Carbothermic reduction of magnesium oxide at approximately 2200 degrees Kelvin yields a high temperature mixture of magnesium vapors and carbon monoxide gas. Previous processes have sought to cool or alter the mixture to cause the yield of pure magnesium, which is then used in subsequent processes for its reducing properties. The present invention takes advantage of the stability and inertness of carbon monoxide at elevated temperatures enabling the magnesium vapor/carbon monoxide gas mixture from the carbothermic process to be used directly for the production of other metals at high temperatures. Chromium oxide, manganese oxide, zinc oxide and sulfide, and several other metal compounds can be reduced by the magnesium vapor/carbon monoxide gas mixture at temperatures high enough to prevent the gas mixture from back-reacting to magnesium oxide and carbon. | 08-29-2013 |
20150368752 | PRODUCTION PROCESS - A process for the production of a metal which comprises: carbothermal reduction of the corresponding metal oxide to produce a mixed gas stream comprising the metal and carbon monoxide; maintaining the mixed gas stream at a suitably elevated temperature to prevent reformation of the metal oxide; ejecting the mixed gas stream through a convergent-divergent nozzle in order to cool the mixed gas stream instantaneously to a temperature at which reformation of the metal oxide cannot take place; and separating and collecting the metal, wherein the nozzle is heated by means other than gas flow through the nozzle so that temperature of surfaces of the nozzle in contact with the mixed gas stream are maintained at a temperature sufficient to prevent deposition on the said surfaces of products from the gas stream. | 12-24-2015 |
075600000 | Treating molten Magnesium(Mg) | 5 |
20130199337 | APPARATUS AND METHOD FOR PRODUCING MG(2)Si(1-x)SN(x) POLYCRYSTAL - Provided are an apparatus and a method for producing an inexpensive Mg | 08-08-2013 |
075602000 | Adding gas | 3 |
20080202290 | SYSTEM AND METHOD FOR IN-LINE MOLTEN METAL PROCESSING USING SALT REACTANT IN A DEEP BOX DEGASSER - An in-line deep box treatment of molten metal wherein, instead of gaseous Cl | 08-28-2008 |
20090071294 | Rotary Stirring Device for Treating MoltenMetal - The invention relates to a rotary device for dispersing a gas in a molten metal. The device comprises a hollow shaft at one end of which is attached a rotor. The rotor has a roof and a base which are spaced apart and connected by a plurality of vanes. A compartment is defined between each adjacent pair of vanes and the roof and the base, and each compartment has an inlet and first and second outlets. A flow path is defined through the shaft into the inlets of the compartments and out of the first and second outlets. Each first outlet is disposed radially outwardly of the respective inlet and arranged to disperse gas laterally of the rotor in use, and each second outlet is disposed in the roof of the rotor and arranged to disperse gas upwardly from the rotor in use. | 03-19-2009 |
20100101371 | ROTARY STIRRING DEVICE FOR TREATING MOLTEN METAL - A rotary device for treating molten metal, said device comprising a hollow shaft ( | 04-29-2010 |
075604000 | Adding solid | 1 |
20110154952 | METHOD FOR MAKING MAGNESIUM-BASED COMPOSITE MATERIAL - The present disclosure provides a method for making magnesium-based composite material. The method comprises the following steps. Firstly, a semi-solid-state magnesium-based material is provided. Secondly, at least one nanoscale reinforcement is added into the semi-solid-state magnesium-based material to obtain a semi-solid-state mixture. Thirdly, the semi-solid-state mixture is heated to a liquid-state mixture. Fourthly, the liquid-state mixture is ultrasonically processed. Fifthly, the liquid-state mixture is cooled to obtain the magnesium-based composite material. | 06-30-2011 |