Abstract: An electrolyte solution containing a compound (1) represented by the formula (1), (wherein R101 and R102 are each individually a substituent such as a C1-C7 alkyl group, and the substituent optionally contains at least one divalent to hexavalent hetero atom in a structure or optionally has a structure obtained by replacing at least one hydrogen atom by a fluorine atom or a C0-C7 functional group) and at least one compound (11) selected from compounds such as a compound represented by formula (11-1) (wherein R111 and R112 are the same as or different from each other and are each a hydrogen atom or the like, and R113 is an alkyl group free from a fluorine atom or the like):

Abstract: A control device includes: a calculating portion configured to calculate an electrolytic solution passing amount based on a temperature history of a secondary battery; a determination portion configured to make the determination on a predetermined gas content based on one or more first thresholds and a ratio of the electrolytic solution passing amount to a free volume of a container in which the secondary battery is accommodated; and a controlling portion configured to form predetermined notification information when an affirmative determination is made on the predetermined gas content.

Abstract: A pulverizer that pulverizes coal into pulverized coal; a gasifier that gasifies pulverized coal pulverized by the pulverizer; a combustor that combusts a gasified gas gasified by the gasifier; a compressor that supplies compressed air to the combustor; a gas turbine driven by a combustion gas generated by the combustor; a generator driven by the gas turbine to generate power; a flue gas supply channel that guides a part of a flue gas from the gas turbine to the pulverizer; an IGV that adjusts a flow rate of air supplied from the compressor to the combustor; and a controller that applies an air flow-rate reduction operation to control the IGV so that the flow rate of air is smaller than a set air flow rate determined from a set combustion temperature of the combustor.

Abstract: A loom includes a rotary shaft bridged to a pair of side frames with being supported via bearings each provided in corresponding one of the side frames, the rotary shaft includes: solid shaft-shaped shaft parts supported by corresponding one of the side frames: and a hollow pipe-shaped main body part located between the shaft parts. The loom includes a bearing structure provided in at least one of existence ranges of the shaft parts between the side frames with respect to an axis line direction of the rotary shaft. The bearing structure includes: a rolling bearing into which one of the shaft parts is fitted; and a support body configured to support the rolling bearing.

Abstract: In the present invention, a coal gasification combined power generation facility comprises: a feed water supply line (72); a condensate pump (39) and an intermediate-pressure feed water pump (40); a turbine bypass line (32) that bypasses a steam turbine and supplies steam to the condenser (73); and a spray water line (76) that supplies the feed water to the turbine bypass line (32). The coal gasification combined power generation facility has a normal operation mode and a bypass operation mode, and in the bypass operation mode, a control device (80) supplies the feed water to the turbine bypass line (32) and performs a first opening degree control to control the opening degree of the supply adjustment valve so that the amount of feed water supplied to the exhaust heat recovery boiler becomes less than that in the normal operation mode.

Abstract: A slag discharge system includes a slag bath at a bottom portion of a gasifier; a slag cooling water circulation line that discharges a mixture of slag and a slag cooling water from the slag bath; a coarse slag separator device that separates coarse slag contained in the slag cooling water; a fine slag separator device connected to the coarse slag separator device downstream side, the fine slag separator device separating fine slag; and a circulator pump connected to the fine slag separator device downstream side, the circulator pump creating a water flow in the slag cooling water circulation line; wherein the fine slag separator device includes a branch section where the slag cooling water circulation line branches into a plurality of branch lines and again joins together as one line, a fine slag filter portion, and a shutoff valve and disposed in each of the plurality of branch lines.

Abstract: Disclosed is a measurement apparatus including: a first setting base capable of having set thereon a plurality of first storage portions arranged in a first direction; a second setting base capable of having set thereon a second storage portion, the second setting base being disposed in a second direction crossing the first direction with respect to the first setting base; a holding body configured to hold the first setting base and to hold the second setting base; a drive unit configured to move the holding body in the first direction; a dispenser configured to move along a movement axis thereof in the second direction, to suction a liquid in the second storage portion and dispense the liquid into each first storage portion; a measurement unit configured to measure a mixture dispensed in the first storage portion; and a movement stopping unit.

Abstract: A coal gasification combined power generation facility includes a feed water supply line that supplies feed water condensed by a condenser to an exhaust heat recovery boiler; a supply adjustment valve that adjusts the flow amount of feed water supplied to the exhaust heat recovery boiler; a turbine bypass line that bypasses a steam turbine and supplies steam to the condenser; and a spray water line that supplies the feed water to the turbine bypass line. The coal gasification combined power generation facility has a bypass operation mode, wherein a control device supplies the feed water to the turbine bypass line and performs a first opening degree control to control the opening degree of the supply adjustment valve so that the amount of feed water supplied to the exhaust heat recovery boiler becomes less than that in a normal operation mode.

Abstract: A slag discharge system includes a slag bath at a bottom portion of a gasifier; a slag cooling water circulation line that discharges a mixture of slag and a slag cooling water from the slag bath; a coarse slag separator device that separates coarse slag contained in the slag cooling water; a fine slag separator device connected to the coarse slag separator device downstream side, the fine slag separator device separating fine slag; and a circulator pump connected to the fine slag separator device downstream side, the circulator pump creating a water flow in the slag cooling water circulation line; wherein the fine slag separator device includes a branch section where the slag cooling water circulation line branches into a plurality of branch lines and again joins together as one line, a fine slag filter portion, and a shutoff valve and disposed in each of the plurality of branch lines.

Abstract: A flow cytometer, in which detection of light generated from a particle is less likely to be affected by change in a flow velocity of a liquid flowing in a flow cell, is provided. The flow cytometer includes: a flow cell (10) in which a liquid flows; a liquid sending unit (40) configured to send the liquid into the flow cell (10); a controller (300) configured to obtain information related to a flow velocity of the liquid flowing in the flow cell (10); a light source (121) configured to irradiate the liquid flowing in the flow cell (10) with light; and a detector (162) configured to detect light generated from a particle in the liquid irradiated with light. The controller (300) changes a liquid sending condition for the liquid sending unit (40), based on the obtained information related to the flow velocity.

Abstract: A system is disclosed provided with: a slag bath that retains slag cooling water and receives slag; a slag cooling water feed line and a slag pump outlet via which the slag and the slag cooling water are pumped and fed to a slag separation device; a circulation pump that forms a water flow for pumping out the slag; a slag cooling water circulation line linking from the slag separation device to the slag bath; a reverse flow line that causes the slag cooling water dispensed from the circulation pump to flow in reverse in the slag cooling water feed line; a selective supply unit capable of selectively supplying the slag cooling water dispensed from the circulation pump to the slag cooling water circulation line and the reverse flow line; and a water supply line, one end of which is connected to the slag cooling water feed line.

Abstract: A specimen measurement apparatus may include: an aspirator via which a specimen is aspirated. A flow path may be connected to the aspirator. A first pump may be connected to the flow path. A second pump may be connected to the flow path. A controller may select and cause either the first pump or the second pump to aspirate the specimen via the aspirator.

Abstract: The present invention is to provide a flow cytometer comprising: flow cell; a liquid feeding unit for feeding a liquid different from a sample liquid containing sample particles to the flow cell; a sample liquid feeding unit for feeding the sample liquid to the flow cell after the liquid is sent to the flow cell; and a detector for detecting the sample particles flowing through the flow cell.

Abstract: According to one or more aspects, a specimen processing method may use a cartridge comprising a chamber configured to store a liquid. The method may include: storing a specimen and a dispersion medium in the chamber of the cartridge; and rotating the cartridge about a rotational shaft to agitate the specimen and the dispersion medium in the chamber, to thereby form an emulsion in which a dispersoid containing the specimen is dispersed in the dispersion medium.

Abstract: The present invention is to provide a flow cytometer comprising: flow cell; a liquid feeding unit for feeding a liquid different from a sample liquid containing sample particles to the flow cell; a sample liquid feeding unit for feeding the sample liquid to the flow cell after the liquid is sent to the flow cell; and a detector for detecting the sample particles flowing through the flow cell.

Abstract: A system is disclosed provided with: a slag bath that retains slag cooling water and receives slag; a slag cooling water feed line and a slag pump outlet via which the slag and the slag cooling water are pumped and fed to a slag separation device; a circulation pump that forms a water flow for pumping out the slag; a slag cooling water circulation line linking from the slag separation device to the slag bath; a reverse flow line that causes the slag cooling water dispensed from the circulation pump to flow in reverse in the slag cooling water feed line; a selective supply unit capable of selectively supplying the slag cooling water dispensed from the circulation pump to the slag cooling water circulation line and the reverse flow line; and a water supply line, one end of which is connected to the slag cooling water feed line.

Abstract: A specimen measurement apparatus may include: an aspirator via which a specimen is aspirated. A flow path may be connected to the aspirator. A first pump may be connected to the flow path. A second pump may be connected to the flow path. A controller may select and cause either the first pump or the second pump to aspirate the specimen via the aspirator.

Abstract: This invention provides a microcomputer mounting printed board that has a novel structure and enables the mounting of microcomputers having different pin arrangements or sizes without designing and manufacturing a new printed board, and a control apparatus that uses this microcomputer mounting printed board. At least a first microcomputer mounting pattern and a second microcomputer mounting pattern are formed on a microcomputer mounting printed board on which a microcomputer is to be mounted. Also, in a control apparatus in which an internal circuit is housed inside a case, the internal circuit is constituted including this microcomputer mounting printed board.

Abstract: A method of producing a platelet solution replaced with an artificial preservation solution includes a filtering step of carrying out cross-flow filtration of a platelet solution under the conditions of Formula (1) at an inlet wall shear rate of 25 to 1500 s?1 using a separation membrane whose surface which contacts with the platelet solution has an average pore size of not less than 0.1 ?m and less than 2.0 ?m, thereby obtaining a concentrated platelet solution; and a mixing step of mixing the concentrated platelet solution with an artificial preservation solution to obtain the platelet solution replaced with an artificial preservation solution: 1.0×1011<(A×B)/(?×?P)?2.5×1013 (platelets/(hr·m2·Pa))??(1) A: Concentration of platelets contained in the platelet solution (platelets/mL; with the proviso that the range is 8.0×107 to 200×107 platelets/mL) B: Filtration flow rate per unit area (mL/hr/m2) ?: Inlet wall shear rate (s?1) ?P: Viscosity of the platelet solution (Pa·s).

Abstract: A method of producing a platelet solution replaced with an artificial preservation solution includes a filtering step of carrying out cross-flow filtration of a platelet solution under the conditions of Formula (1) at an inlet wall shear rate of 25 to 1500 s?1 using a separation membrane whose surface which contacts with the platelet solution has an average pore size of not less than 0.1 ?m and less than 2.0 ?m, thereby obtaining a concentrated platelet solution; and a mixing step of mixing the concentrated platelet solution with an artificial preservation solution to obtain the platelet solution replaced with an artificial preservation solution: 1.0×1011<(A×B)/(?×?P)?2.5×1013 (platelets/(hr·m2·Pa))??(1) A: Concentration of platelets contained in the platelet solution (platelets/mL; with the proviso that the range is 8.0×107 to 200×107 platelets/mL) B: Filtration flow rate per unit area (mL/hr/m2) ?: Inlet wall shear rate (s?1) ?P: Viscosity of the platelet solution (Pa·s).