Abstract: Provided is a technology which can produce a battery comprising a wound electrode assembly including separators having adhesive layers, with high productivity. In one suitable aspect of the method of manufacturing a battery as disclosed herein, the method comprises a first winding step of bringing a first separator and a second separator into contact with a winding core and winding the first separator and the second separator around the winding core; a second adhesive layer forming step of forming a second adhesive layer in the second separator; a first adhesive layer forming step of forming a first adhesive layer in the first separator; a second winding step of winding a positive electrode sheet and an negative electrode sheet around the winding core along with the first separator and the second separator; and a pressing step of pressing, after the second winding step, the first separator, the positive electrode sheet, the second separator, and the negative electrode sheet which have been wound.

Abstract: The present disclosure provides a method for manufacturing includes: an adhesive layer formation step of forming a first adhesive layer on a surface of at least one of a positive electrode sheet and a first separator and forming a second adhesive layer on a surface of at least one of the positive electrode sheet and a second separator; and a wound electrode body fabrication step of fabricating a wound electrode body by winding the first separator, the positive electrode sheet, second separator, and the negative electrode sheet.

Abstract: Provided is a technology which can produce a battery comprising a wound electrode assembly including adhesive layers, with high productivity. The method of manufacturing a battery as disclosed herein comprises a first formation step of forming a first adhesive layer on a surface of a first separator; a second formation step of forming a second adhesive layer on a surface of a positive electrode sheet; and a lamination step of laminating the first separator, the positive electrode sheet, a second separator, and an negative electrode sheet.

Abstract: An analysis system comprising: an analysis device that analyzes a sample using a reagent and that performs the analysis of the sample in accordance with a measurement parameter measured in relation to a reagent to be used; and a management device communicably connected to the analysis device via a network; wherein the analysis device includes a first control unit that enables execution of processing for accepting a registration of the measurement parameter, and when the measurement parameter is registered, executes processing for transmitting to the management device transmission information including information indicating that the measurement parameter is registered; and the management device includes a second control unit that executes a receiving process of receiving the transmission information transmitted from the analysis device and an output process of outputting information indicating that the measurement parameter is registered in the analysis device based on the received transmission information is

Abstract: A sample analyzing system comprising: a first sample analyzer including a first measurement unit for measuring a sample and a first control unit for controlling the first measurement unit; and a second sample analyzer including a second measurement unit for measuring the sample and a second control unit for controlling the second measurement unit; wherein the first control unit is configured to transmit an activation signal for activating the second sample analyzer when a predetermined condition is met for the first sample analyzer; and the second control unit is configured to activate the second sample analyzer when the activation signal is received.

Abstract: An analysis system comprising: an analysis device that analyzes a sample using a reagent and that performs the analysis of the sample in accordance with a measurement parameter measured in relation to a reagent to be used; and a management device communicably connected to the analysis device via a network; wherein the analysis device includes a first control unit that enables execution of processing for accepting a registration of the measurement parameter, and when the measurement parameter is registered, executes processing for transmitting to the management device transmission information including information indicating that the measurement parameter is registered; and the management device includes a second control unit that executes a receiving process of receiving the transmission information transmitted from the analysis device and an output process of outputting information indicating that the measurement parameter is registered in the analysis device based on the received transmission information is

Abstract: A sample analyzing system comprising: a first sample analyzer including a first measurement unit for measuring a sample and a first control unit for controlling the first measurement unit; and a second sample analyzer including a second measurement unit for measuring the sample and a second control unit for controlling the second measurement unit; wherein the first control unit is configured to transmit an activation signal for activating the second sample analyzer when a predetermined condition is met for the first sample analyzer; and the second control unit is configured to activate the second sample analyzer when the activation signal is received.

Abstract: A dye solvent useful as a material for microcapsules necessary for the manufacture of pressure-sensitive manifold paper. This solvent essentially consists of a hydroaromatic compound for pressure-sensitive manifold paper. The compound is a polycyclic aromatic compound with three or more aromatic rings, some of which rings have been hydrogenated and exhibits solvency, particularly, for a black pigment and a blue pigment of leuco dye.

Abstract: In a method of the invention for selectively adsorbing CO in a gas mixture containing at least CO and CO.sub.2 with an adsorbent and desorbing the adsorbed CO, the adsorbent carries one metal or a mixture of metals selected from Ni, Mn, Rh, Cu(I) and Ag, and an adsorption temperature is set to be 50.degree. to 250.degree. C. to allow a single-step treatment.

Abstract: Powder and/or fine particles containing mainly oxides of iron or ferroalloys, which are used or generated in ironworks, steelworks, etc. are sieved to a grain size range between about 32 mesh and about 10mm and used as reduction catalyzer. A reactor is filled with said reduction catalyzer. Exhaust gas containing nitrogen oxides and with added ammonia is passed in contact with said reduction catalyzer through said reactor, while heating said reduction catalyzer to a temperature between about 300.degree. C and about 370.degree. C, whereby nitrogen oxides are removed from said exhaust gas by reduction. Said reduction catalyzer can be used as material for ironmaking, without requiring any further treatment, after use as catalyzer.