Abstract: An automated driving vehicle includes an analysis unit, an autonomous travel control unit, and a passenger ascertaining unit configured to transmit a notification to an interested person's contact-number device set in a reservation for vehicle allocation in at least one of (1) a case in which a passenger set in the reservation for vehicle allocation has boarded at a boarding point set in the reservation for vehicle allocation, (2) a case in which the passenger has not been recognized by the analysis unit within a predetermined waiting time from a target boarding point arrival time set in the reservation for vehicle allocation, and (3) a case in which the passenger has alighted at a destination set in the reservation for vehicle allocation.

Abstract: An autonomous vehicle allows passengers to transfer from a passenger vehicle, which is a relatively large vehicle, to the autonomous vehicle. The autonomous vehicle is provided with an autonomous travel control unit (steering control unit) configured to, when the passenger vehicle is stopped, cause the autonomous vehicle to pull up alongside the passenger vehicle such that an entrance (second entrance) of the autonomous vehicle is placed next to an entrance (first entrance) of the passenger vehicle.

Abstract: An industrial vehicle includes a vehicle body, a driver compartment provided in the vehicle body, an obstacle detector configured to detect an obstacle existing behind the vehicle body, a warning generator configured to generate a warning, and a control device configured to control the warning generator. The warning generator is positioned at least in front of the driver compartment. The control device actuates the warning generator when the obstacle detector detects an obstacle behind the vehicle body that is moving rearward.

Abstract: A mass transportation vehicle includes a stop selector and a dispatcher. The stop selector is configured to enable a passenger on the mass transportation vehicle to select a destination stop at which the passenger plans to get off. The dispatcher is configured to book dispatch of an autonomous vehicle to which the passenger transfers after getting off the mass transportation vehicle at the destination stop. The dispatcher sends information about the destination stop to a dispatch management device of the autonomous vehicle as information about a waiting point of the autonomous vehicle.

Abstract: A mobile terminal includes an input unit that is capable of receiving input of a dispatch request and a destination and a position determiner that is capable of obtaining a terminal position which is its own current position. In accordance with the dispatch request, an autonomous vehicle is designated as a vehicle that is to be dispatched. The autonomous vehicle includes an autonomous driving controller that performs driving control so as to track the mobile terminal based on the terminal position while on its way to pick up the user.

Abstract: When a rental user schedule management unit (general user schedule management unit) receives, from a general user (rental user) different from the priority user that is a lease contractor, a general usage request for a predetermined autonomous vehicle in which a time zone excluding a priority usage time zone is specified, the rental user schedule management unit set the time zone specified by the general usage request as a general usage time zone.

Abstract: The management device of an autonomous driving vehicle includes a congestion rate calculation unit and a waiting place setting unit. The congestion rate calculation unit is able to calculate the congestion rate of a parking lot adjoining each of a plurality of commercial facilities. In a case where the congestion rate of a neighbor parking lot, or a parking lot in the neighborhood of a boarding place contained in reservation information for an autonomous driving vehicle reserved for dispatch, during a waiting time period before the scheduled boarding time, is less than a congestion threshold, the waiting place setting unit sets the neighbor parking lot as a waiting place for the autonomous driving vehicle to wait during the waiting time period.

Abstract: In a side airbag device, a base member in which an airbag and an inflator are accommodated is fixed to a vehicle body. An outer covering member covers at least a front side of the base member to form a front-facing interior surface. The base member comprises: an inner portion located laterally farther inward within the vehicle body relative to the airbag; an outer portion located laterally farther outward within the vehicle body relative to the airbag; a rear portion located farther rearward relative to the airbag with respect to a front-rear direction of the seat, the rear portion connecting the inner portion and the outer portion; and a bridging portion made of a metal rod, and located apart from and farther frontward relative to the rear portion, the bridging portion connecting the inner portion and the outer portion.

Abstract: The problem to be addressed by the present invention is to provide improved recombinant Fc?RIIb and Fc?RIIa that do not require refolding and exhibit high productivity and thermal stability, and to provide a method for producing the same. Said problem is solved by improved recombinant Fc?RIIb comprising at least the amino acid residues of the extracellular domain of human Fc?RIIb (No. 43 to No. 215 in UniProt No. P31994), wherein, in said amino acid residues, at least one amino acid substitution has occurred at a position corresponding to No. 82, 94, 98, 104, 105, or 139 in UniProt No. P31994. Said problem is also solved by improved recombinant Fc?RIIa comprising at least the amino acid residues of the extracellular domain of human Fc?RIIa (No. 34 to No. 206 in UniProt No. P12318-1), wherein, in said amino acid residues, at least one amino acid substitution has occurred at a position corresponding to No. 73, 85, 89, 95, 96, or 130 in UniProt No. P12318-1.

Abstract: A thermally-assisted magnetic recording head includes a medium facing surface, a main pole, a waveguide, and a plasmon generator. A second metal layer of the plasmon generator includes a second front end facing the medium facing surface. A third metal layer of the plasmon generator includes a narrow portion located on the second metal layer. The narrow portion includes a front end face located in the medium facing surface and configured to generate near-field light from a surface plasmon, and a rear end opposite the front end face. The rear end is located farther from the medium facing surface than is the second front end.

Abstract: A battery pack includes a circuit board, a battery cell, an exterior case having a cylindrical shape, and a pair of external terminals respectively provided at both ends of the exterior case, in which each of the external terminals includes an inserted portion to be inserted into the exterior case and an uninserted portion not to be inserted into the exterior case, at least a part of the circuit board is disposed between the battery cell and the external terminals, and an elastic resin is provided so as to be in contact with the battery cell, the at least part of the circuit board, and the external terminals.

Abstract: This atomic resonator for causing a resonance frequency by CPT resonance includes: a gas cell having alkali metal atoms enclosed; a photodetector configured to detect light having passed through the gas cell and convert the light to an electric signal; a high-frequency oscillator configured to receive the electric signal and output the signal after a frequency thereof is divided by two; and a laser light source configured to modulate and introduce, into the gas cell, light based on the signal output from the high-frequency oscillator. The high-frequency oscillator has an injection-locked frequency divider circuit including an acoustic resonator as an oscillation element.

Abstract: The flow rate control device 10 includes a control valve 11, a restriction part 12 provided downstream of the control valve 11, an upstream pressure sensor 13 for measuring a pressure P1 between the control valve 11 and the restriction part 12, a differential pressure sensor 20 for measuring a differential pressure ?P between the upstream and the downstream of the restriction part 12, and an arithmetic control circuit 16 connected to the control valve 11, the upstream pressure sensor 13, and the differential pressure sensor 20.

Abstract: The present invention provides a gaming machine that can achieve a balance between a profit given to a player and a profit of a gaming facility. The gaming machine is provided with: a display that displays a game result by scrolling a video reel including a plurality of symbols and then rearranging the plurality of symbols; and a controller that executes a base game and a plurality of chance games that require betting, and a plurality of free games that require no betting.

Abstract: The present invention provides a gaming machine that can allow active participation in a game without loss of interest even in the midst of a free game. The present invention includes: an operation reception device that receives an operation by a player; a display that scrolls a video reel on which a plurality of symbols are aligned, and then display a game result by rearranging the plurality of symbols; and a controller that executes a base game and a plurality of chance games that require betting, and a plurality of free games that require no betting. The controller executes, during execution of a free game, a skill game in which a video reel being scrolled is stopped in accordance with an operation by a player on the operation reception device.

Abstract: Provided herein are approaches for forming an image sensor with increased well depth due to cryogenic ion channeling of ultra-high energy (UHE) ions. In some embodiments, a method may include providing a wafer of a semiconductor device, the semiconductor device including a photoelectric conversion region, and cooling the wafer to a temperature less than ?50° C. The method may further include performing an ion implant to the photoelectric conversion region to form a photodiode well after cooling the wafer.

Abstract: A magnetic head includes a medium facing surface, a main pole, a trailing shield, and a spin torque oscillator. A bottom surface of the trailing shield includes a first portion that includes an end located in the medium facing surface and is in contact with the spin torque oscillator at least in part. An element height that is a dimension of the spin torque oscillator in a direction perpendicular to the medium facing surface and a writer height that is a dimension of the first portion in the direction perpendicular to the medium facing surface are different from each other.

Abstract: An airbag includes: a first inflatable section that is inflated and deployed forward from the upper portion of a seat back through the left side of a head of an occupant; a second inflatable section that is inflated and deployed forward from the upper portion of the seat back through the right side of the head of the occupant; and a third inflatable section that is continuous with lower portions of front portions of the first inflatable section and the second inflatable section and that is inflated and deployed in front of the chest of the occupant. The front portions of the first and second inflatable sections extend in directions intersecting the vehicle front-rear direction so as to be closer to each other toward the front side. The front portions meet each other at a front end of the airbag.

Abstract: The present invention provides a distribution board having a main breaker and a plurality of branch breakers, the distribution board being wired to branch power supplied to the main breaker into each branch breaker, the distribution board including: a plurality of noise detection sections configured to correspond to the respective branch breakers one-to-one and each configured to output a detection signal based on a noise component of not less than a predetermined frequency generated on a secondary side of each branch breaker; and processor configured to separately receive the detection signal output from each noise detection section and determine whether the detection signal is high frequency noise at a threshold or more.

Abstract: A magnetic head includes a medium facing surface, a main pole, a trailing shield, a spin torque oscillator, and a first insulating layer. The first insulating layer is interposed between a portion of the main pole and a portion of the spin torque oscillator. The first insulating layer has a first end closest to the medium facing surface. The spin torque oscillator has a rear end farthest from the medium facing surface. The first end of the first insulating layer is located closer to the medium facing surface than the rear end of the spin torque oscillator is.