Abstract: A network of a new configuration is flexibly constructed while maintaining a stable operation in the network. A management device includes: a detection unit that detects addition of a function unit to a network including one or a plurality of on-vehicle function units; an acquisition unit that acquires function unit information of a new function unit that is the function unit the addition of which has been detected by the detection unit and function unit information of each on-vehicle function unit, each piece of function unit information including information regarding network configuration of a layer lower than an application layer; and a generation unit that, based on the pieces of function unit information acquired by the acquisition unit, generates configuration information of a new network that is the network further including the new function unit.

Abstract: A technique includes at least one chamber including a process chamber that is capable of processing a substrate and a shower head arranged in an upstream of the process chamber; a gas supplier that is capable of supplying a gas into the process chamber via the shower head; a first exhaust pipe communicating with the shower head; a second exhaust pipe communicating with the process chamber; a first exhaust controller installed in the first exhaust pipe; a first heater installed in the first exhaust pipe; and a controller configured to be capable of: (a) controlling the gas supplier so as to supply a processing gas as the gas to the shower head, and (b) controlling the gas supplier so as to supply a non-processing gas as the gas to the shower head.

Abstract: Movement control of a player character in a field in a virtual space is performed based on a user's operation input. At least one first type of object is disposed in the field. Lightness for the first type of object is set such that the first type of object is visually recognized even when the field is dark. When the player character satisfies a first condition at a location where one of the at least one first type of object is disposed, lighting is set in the virtual space such that a range in the field including the location is lighter than before the first condition is satisfied.

Abstract: A metal powder for 3D printer includes a plurality of metal particles. A particle size distribution of the plurality of metal particles has a maximum peak within particle diameters of 1 ?m to 200 ?m. The particle size distribution gives a difference D90?D10 of 10 ?m or more between D90 and D10, D90 denoting a particle diameter in which a cumulative percentage is 90% in volume proportion, and D10 denoting a particle diameter in which a cumulative percentage is 10% in volume proportion.

Abstract: In this drill, a cutting edge, which is formed at an intersecting ridge line part between a wall surface, facing a drill rotation direction, of a chip discharging flute formed at an outer periphery of a tip portion of a drill main body that is rotated around an axis, and a tip flank face, includes an inner peripheral cutting edge located on a radially inner peripheral side with respect to the axis; and an outer peripheral cutting edge connected to a radially outer peripheral side of the inner peripheral cutting edge. A point angle of a portion of the inner peripheral cutting edge on an inner peripheral side with respect to the axis is within a range of 90° to 170°.

Abstract: A method of manufacturing an OTS device of the invention is a method of manufacturing OTS device including a first conductor, an OTS portion made of chalcogenide, and a second conductor which are layered in order and disposed on an insulating substrate. The manufacturing method includes: a step D of forming a resist so as to coat part of an upper surface of the second conductor; a step E of dry etching a region which is not coated with the resist; and a step F of ashing the resist. In the step E, the second conductor, all of the OTS portion, and an upper portion of the first conductor are removed by an etching treatment once in a depth direction of the region.

Abstract: A travel track creation device (2) includes a travel track creator (42) that creates a travel track including an inlet straight track, an inlet clothoid track formed by connecting a first group of clothoid curves, an arc track, an outlet clothoid track formed by connecting a second group of clothoid curves, and an outlet straight track, wherein the travel track creator (42) includes an arc creator (42a) that creates the arc track which is located further on a side opposite to the center side of the arc portion than a passing target point and a radius of which is as large as possible, the passing target point being separated from an inner edge of the arc portion by a predetermined distance toward the side opposite to the center side of the arc portion, and a clothoid creator (42b) that creates the inlet clothoid track in which a radius of a last tangential arc corresponds to a radius of the arc track and a start point of which is in contact with the inlet straight track and in which a direction angle of the st

Abstract: A method of reducing static charge of a plastic container is provided. The method includes providing a PECVD coating of SiCOH, SiOx or SiOH to an external support surface of the container. The PECVD coating reduces static charge of the container compared to a reference container that is essentially identical to the container except that the reference container is uncoated.

Abstract: A method of manufacturing an OTS device of the invention is a method of manufacturing OTS device including a first conductor, an OTS portion made of chalcogenide, and a second conductor which are layered in order and disposed on an insulating substrate. The manufacturing method includes: a step D of forming a resist so as to coat part of an upper surface of the second conductor; a step E of dry etching a region which is not coated with the resist; and a step F of ashing the resist. In the step E, the second conductor, all of the OTS portion, and an upper portion of the first conductor are removed by an etching treatment once in a depth direction of the region.

Abstract: A method of reducing static charge of a plastic container is provided. The method includes providing a PECVD coating of SiCOH, SiOx or SiOH to an external support surface of the container. The PECVD coating reduces static charge of the container compared to a reference container that is essentially identical to the container except that the reference container is uncoated.

Abstract: A moving path memory stores a moving path of a train in advance. A signal receiver receives satellite positioning signals. A position calculator calculates measured positions and receiver clock errors, based on the satellite positioning signals and the moving path. A error area calculator sets vector pairs, each consisting of arbitrary two vectors perpendicular to each other on a plane spanned by a tangent vector and a radial vector of a tangent circle of the moving path at the measured positions, and calculates an error area for each vector pair, based on the measured positions, the receiver clock errors, and positions of positioning satellites. A position range extractor extracts a part of the moving path included in each error area, as a candidate position range corresponding to the error area. A position range restrictor determines a common area of the candidate position ranges, as a position range of the train.

Abstract: The present invention provides a novel molecule that catalyzes a hydrolysis reaction and is different from enzyme proteins. The catalytic peptide according to the present invention is a catalytic peptide that catalyzes a hydrolysis reaction, including at least one peptide selected from the group consisting of the following peptides (A1) to (A4): (A1) a peptide consisting of Box A and at least one of an upstream region and a downstream region therefrom in a Tob/BTG protein; (A2) a peptide consisting of a partial region of the peptide (A1); (A3) a peptide that consists of an amino acid sequence obtained by deletion, substitution, addition, and/or insertion of one or more amino acids in an amino acid sequence of the peptide (A1) or (A2) and has hydrolysis activity; and (A4) a peptide consisting of an amino acid sequence with a sequence identity of at least 85% to the amino acid sequence of the peptide (A1) or (A2) and having hydrolysis activity.

Abstract: A working system includes multiple modules constituting a work line, a moving body that moves along the work line in which the multiple modules are arranged to supply necessary members to each module, and a line constituent member constituting a part of the work line. The line constituent member can be installed on the moving path of the moving body and has a light projecting section that projects light toward the moving body along the moving path of the moving body. The moving body has a sensor configured to detect the presence of an interfering object; a light receiving section configured to receive light from the light projecting section, and a control section configured to monitor for the presence of the interfering object within a detection range of the sensor.

Abstract: A test signal generator generates a first test signal. A test signal transmitter transmits the first test signal. An RF receiver unit receives the first test signal and a first satellite signal through a receiving antenna, and generates a second test signal and a second satellite signal, respectively. Each of first and second demodulators calculates a correlation value between the second satellite signal and the spreading code to acquire a satellite. A first failure detector unit compares a signal intensity of the second test signal with a threshold to generate a first failure detection signal. A second failure detector compares the satellites acquired by the first and second demodulator to generate a second failure detection signal. A state determiner determines whether and where a failure exists, using the first and second failure detection signals.

Abstract: Provided is a method for producing automotive glass with a member having a U-shaped cross section in a highly efficient and space-saving manner. The present invention relates to a method for producing automotive glass with a member by curing an adhesive for bonding an adherend 21 having a U-shaped cross section to an edge portion 20a of automotive glass 20, using a superheated steam generator 1. The superheated steam generator 1 includes a boiler part 2 for generating steam, a superheating unit 3 for superheating steam generated in the boiler part 2, and a superheated steam chamber 10 having a groove portion 111 for covering the edge portion 20a of the automotive glass 20 and including superheated steam ejection portions 12 for ejecting superheated steam supplied from the superheating unit 3.

Abstract: A thermal print head includes: a substrate having an obverse surface; a plurality of heat generators arranged on the substrate in a main scanning direction; and a wiring layer provided on the substrate and constituting an energization path to the heat generators. The substrate has a protrusion protruding from the obverse surface and extending in the main scanning direction. The protrusion has a top portion having the largest distance from the obverse surface, and an inclined portion connected to the top portion in a sub-scanning direction. The inclined portion is inclined relative to the obverse surface at a predetermined angle. Each of the plurality of heat generators extends across a boundary between the top portion and the inclined portion. Each of the heat generators is formed on at least a part of the top portion and at least a part of the inclined portion in the sub-scanning direction.

Abstract: A thermal printhead includes a substrate, a resistor layer with heat generation portions supported by the substrate and aligned in a primary scanning direction, a wiring layer supported by the substrate to form a conductive path to the heat generation portions, an insulating layer interposed between the substrate and the resistor layer, and a reflection layer located opposite to the heat generation portions with respect to the insulating layer. The reflection layer overlaps with the heat generation portions as viewed in a thickness direction of the heat generation portions and has a greater heat reflectivity than the insulating layer.

Abstract: A thermal print head includes: a substrate having an obverse surface; a plurality of heat generators arranged on the substrate in a main scanning direction; and a wiring layer provided on the substrate and constituting an energization path to the heat generators. The substrate has a protrusion protruding from the obverse surface and extending in the main scanning direction. The protrusion has a top portion having the largest distance from the obverse surface, and an inclined portion connected to the top portion in a sub-scanning direction. The inclined portion is inclined relative to the obverse surface at a predetermined angle. Each of the plurality of heat generators extends across a boundary between the top portion and the inclined portion. Each of the heat generators is formed on at least a part of the top portion and at least a part of the inclined portion in the sub-scanning direction.

Abstract: A working system includes multiple modules constituting a work line, a moving body that moves along the work line in which the multiple modules are arranged to supply necessary members to each module, and a line constituent member constituting a part of the work line. The line constituent member can be installed on the moving path of the moving body and has a light projecting section that projects light toward the moving body along the moving path of the moving body. The moving body has a sensor configured to detect the presence of an interfering object; a light receiving section configured to receive light from the light projecting section, and a control section configured to monitor for the presence of the interfering object within a detection range of the sensor.

Abstract: A thermal print head includes: a substrate having an obverse surface; a plurality of heat generators arranged on the substrate in a main scanning direction; and a wiring layer provided on the substrate and constituting an energization path to the heat generators. The substrate has a protrusion protruding from the obverse surface and extending in the main scanning direction. The protrusion has a top portion having the largest distance from the obverse surface, and an inclined portion connected to the top portion in a sub-scanning direction. The inclined portion is inclined relative to the obverse surface at a predetermined angle. Each of the plurality of heat generators extends across a boundary between the top portion and the inclined portion. Each of the heat generators is formed on at least a part of the top portion and at least a part of the inclined portion in the sub-scanning direction.