Abstract: Provided is a drug superior for preventing and/or treating dementia. It contains a carbostyril derivative of the following formula (1) (wherein R is a cycloalkyl group, A is a lower alkyl group, and a single bond or a double bond is present between the 3-position and the 4-position of the carbostyril nucleus) and dihydroquercetin.

Abstract: The generation processing part generates the target route including a plurality of straight routes arranged at equal interval spacing, based on the reference line which passes through point A and point in the field. In a case of changing the orientation of the target route, the change processing part maintains the interval spacing of each of the plurality of straight routes.

Abstract: On a straight advancing route in which a straight advancing vehicle speed is preset following a turning route in which a turning vehicle speed is preset, a traveling processor causes a combine to travel at a straight advancing vehicle speed if the distance of the straight advancing route is not less than a predetermined distance, and causes a combine to travel at a turning vehicle speed if the distance of the straight advancing route is less than the predetermined distance.

Abstract: An active material separation apparatus according to an embodiment of the present invention is an active material separation apparatus for separating an active material from a battery member, which includes a container, a base member that is disposed inside the container and that is configured to support the battery member, and a nozzle that is disposed above the container and that is configured to jet a fluid to the battery member, the base member being movable at least in a horizontal direction.

Abstract: An active material separation device according to an embodiment of the present invention is an active material separation device configured to separate an active material from a battery member, which includes a container, a base member disposed in the container and configured to support the battery member, and a nozzle disposed above the container and configured to inject a liquid with respect to the battery member, and the nozzle injects the liquid in a state in which a position of an upper surface of the battery member is lower than a position of a liquid surface of the liquid.

Abstract: A peeling device (12) includes a first peeling unit (21) and a second peeling unit (22). When an upper peeling die (33) and a lower peeling die (34) of the first peeling unit (21) are moved forward, an insulating coating (8) is peeled off from upper and lower surface of a coil conductor wire (2), and a conductive portion (7) is cut from the upper surface and the lower surface of the coil conductor wire (2). The conductive portion (7) is formed to have exposed portions (7a) and recessed portions (7b) cut in a trapezoidal shape. A front peeling die (42) and a rear peeling die (43) of the second peeling unit (22) are moved downward while the recessed portion (7b) is placed on and pressed against a second receiving section (41b) of a cradle (41), which peels off the insulating coating (8) and cuts the conductive portion (7).

Abstract: An inkjet ink contains pigment particles, a glycol ether, a sugar alcohol, and water. The sugar alcohol has a melting point of 25° C. or higher. A content percentage of the glycol ether is at least 6.0% by mass and no greater than 40.0% by mass. A content percentage of the sugar alcohol is at least 2.0% by mass and no greater than 10.0% by mass. The content percentage of the glycol ether is greater than the content percentage of the sugar alcohol.

Abstract: A removing apparatus (2) includes a first removing section (11) and a second removing section (12). The first removing section (11) includes a rotating disk (15) and a driven roller (16). The rotating disk (15) has a pair of left and right first to fourth left and right removing blades (21) to (24) attached thereto. When the rotating disk (15) rotates in a counterclockwise direction, a coil conductive wire (3) sandwiched between the rotating disk (15) and the driven roller (16) is transferred in a transfer direction. When the rotating disk (15) rotates in a counterclockwise direction, the left and right side surface portions of the insulating coating (4) are removed by a blade portion (21b) of a pair of left and right first left and right removing blades (21).

Abstract: A peeling apparatus 1 includes a first peeling die and a second peeling die respectively including a pair of cutting blades 251 that peels the insulating film by being moved in a direction perpendicular to an axial direction of the conductive wire material 2 to cut the insulating film, and a support die 253 that supports a side surface of the conductive wire material 2 from a downstream side in a moving direction of the cutting blades 251 at the time of cutting by the cutting blades 251, the support die 253 of the first peeling die including a convex portion 2533 protruding toward the conductive wire material 2.

Abstract: A peeling device (12) includes a first peeling unit (21) and a second peeling unit (22). When an upper peeling die (33) and a lower peeling die (34) of the first peeling unit (21) are moved forward, an insulating coating (8) is peeled off from upper and lower surface of a coil conductor wire (2), and a conductive portion (7) is cut from the upper surface and the lower surface of the coil conductor wire (2). The conductive portion (7) is formed to have exposed portions (7a) and recessed portions (7b) cut in a trapezoidal shape. A front peeling die (42) and a rear peeling die (43) of the second peeling unit (22) are moved downward while the recessed portion (7b) is placed on and pressed against a second receiving section (41b) of a cradle (41), which peels off the insulating coating (8) and cuts the conductive portion (7).

Abstract: A removing apparatus (2) includes a first removing section (11) and a second removing section (12). The first removing section (11) includes a rotating disk (15) and a driven roller (16). The rotating disk (15) has a pair of left and right first to fourth left and right removing blades (21) to (24) attached thereto. When the rotating disk (15) rotates in a counterclockwise direction, a coil conductive wire (3) sandwiched between the rotating disk (15) and the driven roller (16) is transferred in a transfer direction. When the rotating disk (15) rotates in a counterclockwise direction, the left and right side surface portions of the insulating coating (4) are removed by a blade portion (21b) of a pair of left and right first left and right removing blades (21).

Abstract: A stator 1 includes a plurality of divided cores 3 constituting a stator core 2, and an annular holder 4 integrally holding the divided cores 3 from the outside. The divided core 3 has an opposite surface 8 opposing an inner circumferential surface of the holder 4. On the opposite surface 8, a recess part 10 extending parallel to a center axis line ax is provided, and on the inner circumferential surface of the holder 4, a projection part 14 entering the recess parts 10 is provided. The projection part 14 comes into contact with an edge of any one of both sidewalls 10a and 10b in the corresponding recess part 10.

Abstract: An aluminum alloy brazing sheet having a good brazing property that prevents diffusion of molten filler material in a core material of the aluminum alloy brazing sheet during a brazing process and which has a superior corrosion resistance to an exhaust gas condensate water after the brazing process is disclosed. A method of manufacturing of the aluminum alloy brazing sheet also is disclosed. A high corrosion-resistant heat exchanger that employs the aluminum alloy brazing sheet also is disclosed.

Abstract: A peeling apparatus 1 includes a first peeling die and a second peeling die respectively including a pair of cutting blades 251 that peels the insulating film by being moved in a direction perpendicular to an axial direction of the conductive wire material 2 to cut the insulating film, and a support die 253 that supports a side surface of the conductive wire material 2 from a downstream side in a moving direction of the cutting blades 251 at the time of cutting by the cutting blades 251, the support die 253 of the first peeling die including a convex portion 2533 protruding toward the conductive wire material 2.

Abstract: Each information processor executes a mission which allows participation of users of a plurality of information processors using wireless communication. While the mission is being executed, a mission beacon including personal score information is repeatedly transmitted to an unspecified apparatus from each of the information processors. Each information processor calculates a total score based on the personal score information included in the mission beacon of each of other information processors and determines whether the mission has been successful or not based on the total score.

Abstract: A stator 1 includes a plurality of divided cores 3 constituting a stator core 2, and an annular holder 4 integrally holding the divided cores 3 from the outside. The divided core 3 has an opposite surface 8 opposing an inner circumferential surface of the holder 4. On the opposite surface 8, a recess part 10 extending parallel to a center axis line ax is provided, and on the inner circumferential surface of the holder 4, a projection part 14 entering the recess parts 10 is provided. The projection part 14 comes into contact with an edge of any one of both sidewalls 10a and 10b in the corresponding recess part 10.

Abstract: Problem To provide an aluminum alloy brazing sheet, featuring a good brazing property that prevents diffusion of molten filler material in a core material of the aluminum alloy brazing sheet during a brazing process and exhibiting a superior corrosion resistance to an exhaust gas condensate water after the brazing process, a method of manufacturing the aluminum alloy brazing sheet, and a high corrosion-resistant heat exchanger using the aluminum alloy brazing sheet. Resolving Means A high corrosion-resistant aluminum alloy brazing sheet comprises a core material composed of an aluminum alloy, a sacrificial anode material cladded on one surface of the core material, and a filler material composed of an Al/Si-based alloy and cladded on another surface of said core material, and is characterized in that the sacrificial anode material is composed of an aluminum alloy which contains Si falling within a range of 2.5-7.0 mass %, Zn falling a range of 1.0-5.5 mass %, Fe falling within a range of 0.05-1.

Abstract: A first information processor executes a program or a routine which uses wireless communication and transmits, while the program or the routine is being executed, identification information for identifying the program or the routine to an unspecified apparatus. A second information processor receives the identification information transmitted from the first information processor to the unspecified apparatus and selects, from among a plurality of programs or a plurality of routines stored in the second information processor, a program or a routine corresponding to the identification information as a program or a routine to be executed.

Abstract: Each information processor executes a mission which allows participation of users of a plurality of information processors using wireless communication. While the mission is being executed, a mission beacon including personal score information is repeatedly transmitted to an unspecified apparatus from each of the information processors. Each information processor calculates a total score based on the personal score information included in the mission beacon of each of other information processors and determines whether the mission has been successful or not based on the total score.

Abstract: Each information processor executes a mission which allows participation of users of a plurality of information processors using wireless communication. While the mission is being executed, a mission beacon including personal score information is repeatedly transmitted to an unspecified apparatus from each of the information processors. Each information processor calculates a total score based on the personal score information included in the mission beacon of each of other information processors and determines whether the mission has been successful or not based on the total score.