Abstract: A direct-current circuit breaker includes a first main circuit breaker inserted into a first direct-current line, a resonance circuit connected in parallel to the first main circuit breaker, a MOSA connected in parallel to the first main circuit breaker via the resonance circuit, a second main circuit breaker inserted into a second direct-current line, a switch connected in series to the second main circuit breaker, a resonance circuit connected in parallel to the second main circuit breaker, and a MOSA connected in parallel to the second main circuit breaker via the resonance circuit. The second direct-current line is a line that branches off from the first direct-current line and returns to the first direct-current line. The switch is inserted upstream of the second direct-current line.

Abstract: A body of an electric vehicle may include: a floor panel; a rocker; a first floor crossmember protruding from a first surface of the floor panel and joined to the rocker; a body component protruding from the first surface and extending rearward from the first floor crossmember so as to shift upward toward a rear end of the electric vehicle; a battery case located below the floor panel; a battery case reinforcement extending along a side edge of the battery case, located below the rocker, and extending from a position frontward of the first crossmember to a position rearward of the first crossmember; a first fastening member fastening the battery case reinforcement to the rocker in a range frontward of the first floor crossmember; and a second fastening member fastening the battery case reinforcement to the rocker in a range rearward of the first floor crossmember.

Abstract: An automobile includes a base that supports a seat cushion, and electric equipment disposed below the base. The base is provided with a top panel that covers above the electric equipment.

Abstract: A vehicle includes a vehicle body having a door opening, and a door that is attached to the vehicle body and that has a door reinforcing member extending straddling the door opening. The vehicle body includes: a rocker extending following a lower end of the door opening; a floor panel extending from an upper face of the rocker to a vehicle inward side; a first reinforcing member fixed to an upper face of the floor panel and extends in a vehicle front-rear direction following an end portion of the floor panel, an outward end portion of the first reinforcing member being disposed above the rocker, and an inward end portion of the first reinforcing member being disposed inward of the rocker; and a second reinforcing member that is fixed to an upper face of the first reinforcing member and that extends in a vehicle width direction.

Abstract: An electrically driven vehicle includes at least one wheel driven by a motor, a vehicle body including a floor panel, a battery pack arranged on the lower side of the floor panel and configured to supply power to the motor, at least one wire harness extending in a front-rear direction of the electrically driven vehicle between the floor panel and the battery pack, and a harness cover extending in the front-rear direction of the electrically driven vehicle along the at least one wire harness and interposed between the at least one wire harness and the battery pack.

Abstract: An object of the present invention is to provide a simple, low-cost, and industrial method of producing a compound having a polyene skeleton containing hydrogen and fluorine and/or chlorine. A method of producing a halogenated diene represented by formula (1): A1A2C?CA3-CA4=CA5A6 [A1, A2, A5, and A6 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A3 and A4 are each independently hydrogen, fluorine, or chlorine; at least one of A1 to A6 is hydrogen; at least one of A1 to A6 is fluorine or chlorine] comprises a step of subjecting the same or different halogenated olefin(s) represented by formula (2): A7A8C?CA9X [A7 and A8 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A9 is each independently hydrogen, fluorine, or chlorine; X is bromine or iodine] to a coupling reaction in the presence of a zero-valent metal and a metal salt.

Abstract: A direct-current circuit breaker includes a first main circuit breaker inserted into a first direct-current line, a resonance circuit connected in parallel to the first main circuit breaker, a MOSA connected in parallel to the first main circuit breaker via the resonance circuit, a second main circuit breaker inserted into a second direct-current line, a switch connected in series to the second main circuit breaker, a resonance circuit connected in parallel to the second main circuit breaker, and a MOSA connected in parallel to the second main circuit breaker via the resonance circuit. The second direct-current line is a line that branches off from the first direct-current line and returns to the first direct-current line. The switch is inserted upstream of the second direct-current line.

Abstract: A vehicle may include: a floor panel; a rocker extending along a side edge of the floor panel; a rear side member located on a rear side of the rocker and extending along a front-rear direction of the vehicle; and a suspension. The suspension may include a trailing arm; and a bracket connected to the trailing arm via a bush. The bracket may be fastened to the rocker at a first fastening point by a first bolt and fastened to the rear side member at a second fastening point by a second bolt.

Abstract: A body of a vehicle may include: a floor panel including a panel consisting of a single plate; a pair of rockers extending along both of side edges of the floor panel, respectively; an indoor floor crossmember protruding upward from the floor panel and connecting the rockers to each other; an outdoor floor crossmember protruding downward from the floor panel, connecting the rockers to each other, and located rearward of the indoor floor crossmember; and a unit component located below the floor panel. The unit component may extend from a position located frontward of the indoor floor crossmember to a position that is located rearward of the indoor floor crossmember and frontward of the outdoor floor crossmember. A portion of the floor panel that is within a range surrounded by the pair of rockers, the indoor crossmember, and the outdoor crossmember may consist of the panel.

Abstract: A body of an electric vehicle may include: a floor panel; a pair of rockers extending along both side edges of the floor panel, respectively; an indoor floor crossmember protruding upward from the floor panel and connecting the rockers to each other; an outdoor floor crossmember protruding downward from the floor panel, connecting the rockers to each other, and located rearward of the indoor floor crossmember; and a battery case located below the floor panel and housing a battery configured to supply power to a traction motor. The battery case may extend from a position located frontward of the indoor floor crossmember to a position that is located rearward of the indoor floor crossmember and frontward of the outdoor floor crossmember.

Abstract: A body of an electric vehicle may include: a floor panel; a rocker; a first floor crossmember protruding from a first surface of the floor panel and joined to the rocker; a body component protruding from the first surface and extending rearward from the first floor crossmember so as to shift upward toward a rear end of the electric vehicle; a battery case located below the floor panel; a battery case reinforcement extending along a side edge of the battery case, located below the rocker, and extending from a position frontward of the first crossmember to a position rearward of the first crossmember; a first fastening member fastening the battery case reinforcement to the rocker in a range frontward of the first floor crossmember; and a second fastening member fastening the battery case reinforcement to the rocker in a range rearward of the first floor crossmember.

Abstract: An object of the present invention is to provide a simple, low-cost, and industrial method of producing a compound having a polyene skeleton containing hydrogen and fluorine and/or chlorine. A method of producing a halogenated diene represented by formula (1): A1A2C?CA3-CA4?CA5A6[A1, A2, A5, and A6 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A3 and A4 are each independently hydrogen, fluorine, or chlorine; at least one of A1 to A6 is hydrogen; at least one of A1 to A6 is fluorine or chlorine] comprises a step of subjecting the same or different halogenated olefin(s) represented by formula (2): A7A8C?CA9X[A7 and A8 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A9 is each independently hydrogen, fluorine, or chlorine; X is bromine or iodine] to a coupling reaction in the presence of a zero-valent metal and a metal salt.

Abstract: An object of the present invention is to provide a simple, low-cost, and industrial method of producing a compound having a polyene skeleton containing hydrogen and fluorine and/or chlorine. A method of producing a. halogenated diene represented by formula (1): A1A2C=CA3-CA4=CA5A6 [A1, A2, A5, and A6 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A3 and A4 are each independently hydrogen, fluorine, or chlorine; at least one of A1 to A6 is hydrogen; at least one of A1 to A6 is fluorine or chlorine] comprises a step of subjecting the same or different halogenated olefin(s) represented by for (2): A7A8C=CA9X [A7 and A8 are each independently hydrogen, fluorine, chlorine, a (perfluoro)alkyl group having 1 to 3 carbon atoms, or a (perfluoro)alkenyl group; A9 is each independently hydrogen, fluorine, or chlorine; X is bromine or iodine] to a coupling reaction in the presence of a zero-valent metal.

Abstract: Provided is a method for manufacturing an electrode material having a pressing step in which an irregularly shaped aggregate containing at least an active material is statically pressed in the presence of an alkali metal source and a solvent.

Abstract: A manufacturing method for an electrode material, the manufacturing method including, in a presence of an alkali metal supplying source and a solvent, dynamically pressurizing an amorphous aggregate including at least an active material in a dynamic pressurizer, sending out in a sending direction, and continuously discharging the aggregate in the sending direction from the dynamic pressurizer.

Abstract: Provided is a method for manufacturing an electrode material having a pressing step in which an irregularly shaped aggregate containing at least an active material is statically pressed in the presence of an alkali metal source and a solvent.

Abstract: A re-transmission controlling method and a wireless communication terminal are provided to prevent a transitional high-load state on the data receiving side in a wireless transmission system employing the HSDPA method, for example. In the case where a correct data packet has been determined based on a result of error-correction decoding of a data packet received, the correct data packet is disassembled into predetermined data units and are sent to an upper layer; and when the packet sequence number of a correct data packet received is not continuous, after the received data packet having a discontinuous number is disassembled into the predetermined data units to be sent to the upper layer, the data disassembled into the data units are temporarily stored, and the temporarily stored data is sent to the upper layer without applying disassembly processing when the missing correct data packet due to the discontinuity is received.

Abstract: A re-transmission controlling method and a wireless communication terminal are provided to prevent a transitional high-load state on the data receiving side in a wireless transmission system employing the HSDPA method, for example. In the case where a correct data packet has been determined based on a result of error-correction decoding of a data packet received, the correct data packet is disassembled into predetermined data units and are sent to an upper layer; and when the packet sequence number of a correct data packet received is not continuous, after the received data packet having a discontinuous number is disassembled into the predetermined data units to be sent to the upper layer, the data disassembled into the data units are temporarily stored, and the temporarily stored data is sent to the upper layer without applying disassembly processing when the missing correct data packet due to the discontinuity is received.