Abstract: A method for producing a sulfide glass ceramic, including reacting a lithium compound, a phosphorus compound and a halogen compound in a solvent that contains a hydrocarbon and an ether compound to produce a sulfide glass that contains a Li element, a P element, a S element and one or more halogen elements, and heating the sulfide glass to produce a sulfide glass ceramic.

Abstract: A method for efficiently producing fine particles in a complex state from a plurality of raw material components is provided. The method includes spraying a good solvent solution made from a good solvent and the plurality of raw material components dissolved in the good solvent into a poor solvent having a temperature of at least 165° C. higher than the boiling point of the good solvent and evaporating off the good solvent and precipitating a plurality of fine particles.

Abstract: A method for producing a lithium composition capable of suppressing the generation of polysulfides is provided. The method for producing a lithium composition includes a first aqueous solution forming step of forming a first aqueous solution by reacting iodine with a reducing aqueous solution containing calcium oxide, formic acid, and water under a condition of a pH of 5.5 or more and a pH of 10.21 or less through heating, a second aqueous solution forming step of forming a second aqueous solution by adding calcium oxide to the first aqueous solution, a third aqueous solution forming step of forming a third aqueous solution by adding lithium carbonate to the second aqueous solution, and a Li2S forming step of forming the lithium sulfide (Li2S) by sulfurizing lithium hydroxide (LiOH) to form lithium hydrosulfide (LiHS) and then eliminating hydrogen sulfide from lithium hydrosulfide (LiHS).

Abstract: A manufacturing method for a sulfide-based solid electrolyte material includes: preparing a raw material mixture, containing LiHS and LiX (X is one of F, Cl, Br and I), from a single lithium source; and desorbing hydrogen sulfide from the LiHS in the raw material mixture to form Li2S and synthesizing a sulfide-based solid electrolyte material from the LiX and the Li2S.

Abstract: A main object of the present invention is to provide a method for manufacturing a sulfide solid electrolyte that enables a sulfide solid electrolyte whose ion-conducting characteristic is easy to be improved, to be manufactured. The present invention is a method for manufacturing a sulfide solid electrolyte including loading a raw material for manufacturing a sulfide solid electrolyte which is mainly composed of a substance represented by the general formula of (100-x)(0.75Li2S.0.25P2S5).xLiI (here, 0<x<100), into a vessel; and amorphizing the raw material after said loading, wherein a reaction site temperature in the vessel is controlled so that x included in the general formula and the reaction site temperature y [° C.] in the vessel in said amorphizing satisfy y<?2.00x+1.79×102.

Abstract: A main object of the present invention is to provide electrolyte-coated cathode active material particles capable of increasing the discharge capacity of an all solid state battery and of enhancing the battery efficiency. In the present invention, the above object is achieved by providing electrolyte-coated cathode active material particles including cathode active material particles, and a sulfide solid electrolyte layer formed on the surface of the cathode active material particles.

Abstract: A manufacturing method for a sulfide-based solid electrolyte material includes: preparing a raw material mixture, containing LiHS and LiX (X is one of F, Cl, Br and I), from a single lithium source; and desorbing hydrogen sulfide from the LiHS in the raw material mixture to form Li2S and synthesizing a sulfide-based solid electrolyte material from the LiX and the Li2S.

Abstract: A fuel cell system includes a fuel cell (10), a supply passage (11) through which fuel gas and oxidizing gas are supplied to the fuel cell, an exhaust passage (12) through which the fuel gas and the oxidizing gas are discharged from the fuel cell, and a reactor (13) provided in the exhaust passage (12) such that a fuel off-gas from the fuel cell is oxidized. The fuel cell system further includes a bypass passage (14) that extends from the supply passage (11) to reach the reactor (13) and returns to the supply passage (11) such that at least a portion of the fuel gas and the oxidizing gas supplied to the fuel cell upon activation thereof is supplied to the bypass passage 14 and heated in the reactor (13). The bypass passage (14) is communicated with an inside of the reactor (13) such that the gas is heated and humidified under a reaction in the reactor (13) upon activation of the fuel cell.

Abstract: A fuel cell system which reduces a quantity of hydrogen in hydrogen off-gas discharged from a fuel cell, and then discharges the hydrogen off-gas to atmosphere, includes an adjusting valve that suppresses a pulsed change in a flow quantity of hydrogen off-gas, which is intermittently discharged from the fuel cell to an exhaust passage and therefore flows in the exhaust passage in a pulse manner, such that the flow quantity becomes constant (stable).