Abstract: To provide a vehicle position processing apparatus, a vehicle control apparatus, a vehicle position processing method, and a vehicle control method capable of increasing the number of the position information of front object used for generation of the trajectory and improving the generation accuracy of the trajectory. A vehicle position processing apparatus, a vehicle control apparatus, a vehicle position processing method, and a vehicle control method that obtains positions of a target object, sets a trajectory generation range which is a continuous range including a position of the target object close to a position of the present own vehicle, selects positions of the target object included in the trajectory generation range among the plural positions of the target object, as target object positions for trajectory generation, and generates a trajectory of the target object based on the target object positions for trajectory generation.

Abstract: A light-emitting element includes: a first electrode serving as an anode; a second electrode serving a cathode; a light-emitting layer; a first insulator; and a third electrode. The light-emitting layer is positioned between the first electrode and the second electrode, and the first insulator is positioned toward the first side surface of the light-emitting layer with respect to the light-emitting layer. The third electrode is included in the first insulator, and positioned so that a first portion of the first insulator is sandwiched between the third electrode and the first side surface of the light-emitting layer.

Abstract: A light-emitting device includes an anode, a cathode, a light-emitting layer disposed between the anode and the cathode, a first electrode disposed in a manner capable of generating a second electric field in the light-emitting layer in cooperation with one of the anode and the cathode, the second electric field bringing a total electric field, which is generated in the light-emitting layer and includes a first electric field generated in the light-emitting layer between the anode and the cathode, close to zero, and a first insulating film surrounding the first electrode in a cross-sectional view of the anode, the cathode, and the light-emitting layer.

Abstract: A light-emitting element includes the following: a cathode; an anode; and a light-emitting layer disposed between the cathode and the anode, and containing a quantum dot including a core and a shell, wherein the core contains a dopant.

Abstract: A light-emitting element includes a first electrode, a second electrode, and a functional layer provided between the first electrode and the second electrode. Moreover, the light-emitting element includes: a third electrode provided to the functional layer through a first insulating film; a fourth electrode provided to the functional layer through a second insulating film; a stress applying unit made of a piezoelectric material, and applying stress to the functional layer in response to application of a voltage from the third electrode and the fourth electrode; a power supply connected to the third electrode and the fourth electrode; a detecting unit detecting a condition of the functional layer; a storage unit storing predetermined threshold value information; and a control unit controlling the power supply in accordance with a result of the detection obtained from the detecting unit and the predetermined threshold information stored in the storage unit.

Abstract: A light-emitting element includes a first electrode, a second electrode, and a functional layer provided between the first electrode and the second electrode. Moreover, the light-emitting element includes: a third electrode provided to the functional layer through a first insulating film; a fourth electrode provided to the functional layer through a second insulating film; and a stress applying unit made of a piezoelectric material, and applying stress to the functional layer in response to application of a voltage from the third electrode and the fourth electrode.

Abstract: A power conversion apparatus includes a power conversion circuit portion which includes a plurality of semiconductor switching elements, a control signal generation portion which generates a control signal for controlling opening and closing of each of the semiconductor switching elements, a plurality of driving portions which drive the semiconductor switching elements, and a first board on which the power conversion circuit portion and the plurality of driving portions are mounted. Each of the driving portions includes a power supply portion which converts AC power-supply power input from outside the first board into DC power-supply power, and a driving signal generation portion which generates a driving signal for driving the semiconductor switching elements from the DC power-supply power in accordance with the control signal.

Abstract: The purpose of the present disclosure is to provide a computer, an information processing method, and a network system by which information relating to a trend of a mental or physical state of a subject can be acquired more easily than before. Provided is a computer including: a memory configured to store first data obtained from a strand of hair acquired from a subject and second data obtained from a specimen acquired from the subject, the specimen being different in acquisition time from the strand of hair; and a processor configured to generate a trend of a mental or physical state of the subject based on the first data and the second data.

Abstract: An object of an embodiment of the present invention is to stop thawing an object at the appropriate time. A temperature measuring device (18) measures the temperature of a matching circuit (13) or a high-frequency power supply (11). A controller unit (21) controls irradiation of an object (22) with radio frequency waves and stopping thereof based on the measured temperature.

Abstract: A method for producing a carbon particle by a detonation method includes two steps. The first step is a step of disposing an explosive substance in the periphery of a raw material substance. The explosive substance has a detonation velocity of 6,300 m/s or more. The raw material substance contains an aromatic compound having not more than 2 nitro groups. The second step is a step of allowing the explosive substance to detonate.

Abstract: A power conversion apparatus includes a power conversion circuit portion which includes a plurality of semiconductor switching elements, a control signal generation portion which generates a control signal for controlling opening and closing of each of the semiconductor switching elements, a plurality of driving portions which drive the semiconductor switching elements, and a first board on which the power conversion circuit portion and the plurality of driving portions are mounted. Each of the driving portions includes a power supply portion which converts AC power-supply power input from outside the first board into DC power-supply power, and a driving signal generation portion which generates a driving signal for driving the semiconductor switching elements from the DC power-supply power in accordance with the control signal.

Abstract: A production method of a carbon particle by a detonation method includes a step of disposing an explosive substance in a periphery of a raw material substance, and a step of subjecting the explosive substance to a detonation. The explosive substance is a liquid at normal temperature and normal pressure. The raw material substance contains an aromatic compound having 3 or more nitro groups.

Abstract: Provided is graphite group that, when observed with a transmission electron microscope, has a laminated surface spacing of 0.2-1 nm, includes graphite pieces measuring 1.5-10 nm in a direction perpendicular to the laminating direction, the laminating direction of the graphite pieces being irregular.

Abstract: A coated particle includes a surface of a base material particle which is coated with carbon particles. The carbon particles are produced by a step of disposing an explosive substance which shows a liquid state at normal temperature and normal pressure in a periphery of a raw material substance containing an aromatic compound having three or more nitro groups, and a step of detonating the explosive substance.

Abstract: A heat exchanging device includes a frame member assembled having a square frame shape by using a lower frame extending in a front and rear direction and mounted on a revolving frame, side frames extending to an upper side from both ends of the lower frame, and an upper frame extending on an upper part of the side frames. A cooling fan is disposed in a state in which each of the blades enters into the frame member from an engine side end surface with respect to the frame member. An oil cooler and a radiator are mounted on a mounting surface plate on an opposite side to the engine and interposing said cooling fan at an interval from the cooling fan with respect to the frame member. A flat plate shaped shroud surrounding each of the blades of the cooling fan and forming a fan accommodating chamber among the frame member, the oil cooler, and the radiator is mounted on the engine side end surface of the frame member.

Abstract: Provided is graphite group that, when observed with a transmission electron microscope, has a laminated surface spacing of 0.2-1 nm, includes graphite pieces measuring 1.5-10 nm in a direction perpendicular to the laminating direction, the laminating direction of the graphite pieces being irregular.

Abstract: In a coated particle, a surface of a base material particle is coated with a carbon particle. The carbon particle is produced by disposing an explosive substance with a detonation velocity of 6,300 m/sec or higher in a periphery of a raw material substance containing an aromatic compound having two or less nitro groups, and detonating the explosive substance.

Abstract: A blast treatment method whereby a smoke grenade is blast treated inside an explosion-proof container, said method comprising: a blast step in which the smoke grenade (20) is exploded inside the explosion-proof container (10); and a dissolving step in which gas or micro particles generated when the smoke grenade (20) was exploded are dissolved inside the explosion-proof container (10), in a liquid (W) including a greater volume of water than the volume of water generated by the explosion of the smoke grenade (20).

Abstract: A production method of a carbon particle by a detonation method includes a step of disposing an explosive substance in a periphery of a raw material substance, and a step of subjecting the explosive substance to a detonation. The explosive substance is a liquid at normal temperature and normal pressure. The raw material substance contains an aromatic compound having 3 or more nitro groups.

Abstract: A blast treatment method whereby a smoke grenade is blast treated inside an explosion-proof container, said method comprising: a blast step in which the smoke grenade (20) is exploded inside the explosion-proof container (10); and a dissolving step in which gas or micro particles generated when the smoke grenade (20) was exploded are dissolved inside the explosion-proof container (10), in a liquid (W) including a greater volume of water than the volume of water generated by the explosion of the smoke grenade (20).