Abstract: A semiconductor device includes a substrate having a main surface and a back surface opposite to the main surface, a first transistor disposed on the main surface, a second transistor disposed on the main surface, a third transistor disposed on the main surface between the first transistor and the second transistor, a first gate line disposed on the main surface, and a back-surface metal layer disposed on the back surface.

Abstract: A semiconductor device includes a base, one or a plurality of chips that include a semiconductor chip provided on the base, a first bonding wire connected to at least one of the one or the plurality of chips, a second bonding wire that extends in a direction intersecting with an extending direction of the first bonding wire when viewed from a thickness direction of the base, and a resin layer that is provided on the base and seals the one or the plurality of chips, the first bonding wire and the second bonding wire. The first bonding wire and the second bonding wire are not in contact with each other, and the first bonding wire is contactable with the second bonding wire when the first bonding wire is inclined toward the second bonding wire.

Abstract: A semiconductor device includes a conductive base, a first chip and a second chip that are mounted on the base, and a first bonding wire that electrically connects the first chip to the second chip and transmits a high frequency signal. The base has a first opening extending through the base in a thickness direction of the base and overlapping at least a part of the first bonding wire with no conductor layer interposed between the first opening and the at least a part of the first bonding wire as viewed in the thickness direction of the base.

Abstract: A radio frequency amplifier circuit includes a Doherty amplifier including a main amplifier and a peak amplifier. The main amplifier includes a first input end, a first output end, and a first transistor. The main amplifier includes only a first harmonic processing circuit among the first harmonic processing circuit and a first fundamental matching circuit. The peak amplifier includes a second input end, a second output end, and a second transistor. The peak amplifier includes only a second fundamental matching circuit among a second harmonic processing circuit and the second fundamental matching circuit.

Abstract: To provide a traveling system of an autonomous traveling vehicle capable of executing navigation even when there is an obstacle on a node in topological navigation and a method executed by the traveling system of an autonomous traveling vehicle. The traveling system of an autonomous traveling vehicle that travels on a route constituted by a plurality of nodes and edges is provided, wherein the autonomous traveling vehicle determines passage of the nodes by passing over the nodes, and the traveling system includes: a processing unit that, in a case where there is an obstacle on the node, transitions the node outside an occupied range of the obstacle or expands the node so that the node is outside the occupied range of the obstacle; and a control unit that controls traveling of the autonomous traveling vehicle on the basis of the node transitioned or expanded by the processing unit.

Abstract: A processing apparatus includes: a processing portion that interpolates, when at least one of two-dimensional image information and three-dimensional sensor information that are input at an arbitrary time is missing, the missing two-dimensional image information or the missing three-dimensional sensor information and outputs an object detection result based on the interpolated two-dimensional image information and the interpolated three-dimensional sensor information to an object-tracking apparatus, wherein the processing portion interpolates the missing one of the two-dimensional image information and the three-dimensional sensor information with conversion of another of the two-dimensional image information and the three-dimensional sensor information, or interpolates the two-dimensional image information or the three-dimensional sensor information at a missing time with estimation based on two-dimensional image information or three-dimensional sensor information at another time.

Abstract: The passive element includes a semiconductor substrate, a first insulating film, a first metal pad, a first conductor, and a first conductive film. The semiconductor substrate has p-type or n-type conductivity, and has a main surface and a back surface. The first insulating film is provided on a first region in the main surface of the semiconductor substrate. The first metal pad is provided on the first insulating film. The first conductor extends from the first metal pad in the first direction. The first conductive film is provided on a second region adjacent to the first region in a first direction in the main surface of the semiconductor substrate. The first conductive film is in ohmic contact with the main surface of the semiconductor substrate, and has an electrical resistivity lower than an electrical resistivity of the semiconductor substrate.

Abstract: A route generation device for an autonomous mobile body 1 is configured to generate a route for the autonomous mobile body 1 based on a cost map of a way serving as the route for the autonomous mobile body 1, the cost map including a plurality of grid cells M1 to M9 into which the cost map is divided. In the cost map, a center of a road RD is assigned with a lower value of cost than an edge zone of the road RD. The route generation device includes a controller that is configured to update the cost map based on a result of detection by an outside recognition device, and generate a route based on the updated cost map.

Abstract: The present invention aims to provide a composition for controlling Cercospora leaf spot of beet causing serious damage in beet cultivation, and a method for controlling Cercospora leaf spot of beet using the composition for controlling said disease. The present invention relates to a composition for controlling Cercospora leaf spot of beet comprising isotianil, and a method for controlling Cercospora leaf spot of beet comprising applying a composition for controlling Cercospora leaf spot of beet comprising isotianil at least once. The composition for controlling Cercospora leaf spot of beet of the present invention may further comprise a controlling agent for Cercospora leaf spot of beet other than isotianil.

Abstract: A ride-share support system includes a getting-on/getting-off point information acquiring unit configured to acquire first getting-on/getting-off point information including a getting-on point or a getting-off point of a first ride-share applicant and second getting-on/getting-off point information including a getting-on point or a getting-off point of a second ride-share applicant, a getting-on/getting-off point distance calculating unit configured to calculate a distance between getting-on/getting-off points which is a distance between the getting-on point or the getting-off point of the first ride-share applicant and the getting-on point or the getting-off point of the second ride-share applicant, and a ride-share matching unit configured to determine ride-sharers of a vehicle by matching a plurality of ride-share applicants while excluding combination of the first ride-share applicant and the second ride-share applicant in a case where the distance between getting-on/getting-off points is equal to or less

Abstract: A ride-share support system includes a getting-on/getting-off point information acquiring unit configured to acquire first getting-on/getting-off point information including a getting-on point or a getting-off point of a first ride-share applicant and second getting-on/getting-off point information including a getting-on point or a getting-off point of a second ride-share applicant, a getting-on/getting-off point distance calculating unit configured to calculate a distance between getting-on/getting-off points which is a distance between the getting-on point or the getting-off point of the first ride-share applicant and the getting-on point or the getting-off point of the second ride-share applicant, and a ride-share matching unit configured to determine ride-sharers of a vehicle by matching a plurality of ride-share applicants while excluding combination of the first ride-share applicant and the second ride-share applicant in a case where the distance between getting-on/getting-off points is equal to or less

Abstract: A ride-share support system includes a getting-on/getting-off point information acquiring unit configured to acquire first getting-on/getting-off point information including a getting-on point or a getting-off point of a first ride-share applicant and second getting-on/getting-off point information including a getting-on point or a getting-off point of a second ride-share applicant, a getting-on/getting-off point distance calculating unit configured to calculate a distance between getting-on/getting-off points which is a distance between the getting-on point or the getting-off point of the first ride-share applicant and the getting-on point or the getting-off point of the second ride-share applicant, and a ride-share matching unit configured to determine ride-sharers of a vehicle by matching a plurality of ride-share applicants while excluding combination of the first ride-share applicant and the second ride-share applicant in a case where the distance between getting-on/getting-off points is equal to or less

Abstract: A methanation reaction catalyst is for subjecting CO and/or CO2 to methanation reaction with hydrogen, and is a calcined product of a wet mixture of zirconia and/or a salt of Zr, a salt of a stabilizing element, a salt of Ni, and an inorganic oxide. The stabilizing element is at least one of element selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy, Ca, Mg, Mn, Fe, and Co, and the inorganic oxide is at least one of inorganic oxide selected from the group consisting of silica, alumina, titania, and ceria. When the inorganic oxide contains the silica, the mole ratio of the Ni atom with respect to the Si atom is 0.20 or more and 10.0 or less. When the inorganic oxide contains the alumina, the mole ratio of the Ni atom with respect to the Al atom is 0.20 or more and 7.0 or less. When the inorganic oxide contains the titania, the mole ratio of the Ni atom with respect to the Ti atom is 0.30 or more and 10.5 or less.

Abstract: Provided are a catalyst treatment device and a method of manufacturing the catalyst treatment device. In the catalyst treatment device, the catalyst component can be used in a smaller amount and at a lower cost without need of equipment such as casing, and can suppress excessive pressure loss with adequate voids occurring when the supported catalyst is loaded for use. The catalyst treatment device of the present invention includes a supported catalyst having a corrugated and fragmentary form, wherein the supported catalyst includes a glass paper having a corrugated and fragmentary form, a catalyst activity component supported on the glass paper and having catalytic action, and an inorganic binder necessary to cause the catalyst activity component to be supported on the glass paper and make the glass paper into a corrugated form.

Abstract: Provided is an ammonia oxidation/decomposition catalyst which can decrease the reduction temperature of a support, which is required for the catalyst to have a property of being activated at room temperature, and also can render a property of being activated at a temperature lower than room temperature. The ammonia oxidation/decomposition catalyst of the present invention is an ammonia oxidation/decomposition catalyst, comprising: a catalyst support composed of a composite oxide of cerium oxide and zirconium oxide; and at least one metal selected from the group consisting of metals of group 6A, group 7A, group 8, and group 1B as a catalytically active metal deposited thereon, characterized in that the molar concentration of zirconium oxide in the catalyst support is from 10 to 90%.

Abstract: In an exhaust gas purification system provided with a denitration catalyst layer, a reducing agent oxidation catalyst layer is installed together; a reducing agent and air are supplied into the reducing agent oxidation catalyst layer at the time of catalyst regeneration of the denitration catalyst layer; a high-temperature oxidation reaction gas is produced by a reaction heat generated by an oxidation reaction of the reducing agent and the air in this reducing agent oxidation catalyst layer; and this high-temperature oxidation reaction gas is introduced into the denitration catalyst layer to heat the denitration catalyst, thereby recovering a denitration performance of the catalyst.

Abstract: The present invention provides an ammonia oxidation/decomposition catalyst including a support composed of an oxidizable and reducible metal oxide and a catalytically active metal supported thereon. By bringing the ammonia oxidation/decomposition catalyst including a support composed of an oxidizable and reducible metal oxide and a catalytically active metal supported thereon into contact with ammonia and air at room temperature, the support in a reduced state reacts with oxygen to generate oxidation heat, and the temperature of the catalyst layer is increased in a moment. Once the temperature of the catalyst layer is increased to a temperature at which ammonia and oxygen react with each other, the ammonia oxidation reaction proceeds autonomously after that. The heat generated in this exothermic reaction is used in the course of decomposing ammonia in the presence of the catalytically active metal, thereby producing hydrogen.

Abstract: In an exhaust gas purification system provided with a denitration catalyst layer, a reducing agent oxidation catalyst layer is installed together; a reducing agent and air are supplied into the reducing agent oxidation catalyst layer at the time of catalyst regeneration of the denitration catalyst layer; a high-temperature oxidation reaction gas is produced by a reaction heat generated by an oxidation reaction of the reducing agent and the air in this reducing agent oxidation catalyst layer; and this high-temperature oxidation reaction gas is introduced into the denitration catalyst layer to heat the denitration catalyst, thereby recovering a denitration performance of the catalyst.

Abstract: Provided is an ammonia oxidation/decomposition catalyst which can decrease the reduction temperature of a support, which is required for the catalyst to have a property of being activated at room temperature, and also can render a property of being activated at a temperature lower than room temperature. The ammonia oxidation/decomposition catalyst of the present invention is an ammonia oxidation/decomposition catalyst, comprising: a catalyst support composed of a composite oxide of cerium oxide and zirconium oxide; and at least one metal selected from the group consisting of metals of group 6A, group 7A, group 8, and group 1B as a catalytically active metal deposited thereon, characterized in that the molar concentration of zirconium oxide in the catalyst support is from 10 to 90%.

Abstract: The object of the present invention is to provide novel carboxamides which exhibit an excellent pesticidal activity as pesticides. Disclosed are the carboxamides represented by the following Formula (I): wherein each substituent is as defined in the specification, and use thereof as pesticides and animal parasite controlling agents.