Abstract: An information processing method to be executed by a computer includes: obtaining a driving skill of a person who rides an autonomous vehicle, which represents at least one of whether the person can drive a manually-drivable autonomous vehicle or a level at which the person can drive; obtaining specifications of autonomous vehicles about autonomous driving; obtaining a route for transporting the person; determining deviation risks, each of which includes at least one of a possibility of deviation of an autonomous driving system including a corresponding one of the autonomous vehicles from an operational design domain or a degree of the deviation, based on the specifications and the route; selecting an autonomous vehicle assigned to transportation of the person from the autonomous vehicles according to each of the deviation risks and the driving skill; and sending a notification of the selected autonomous vehicle.

Abstract: A wearable camera includes an image capture device, a processor, and first and second memories. The image capture device images a subject. The first memory at least temporarily stores first communication setting information for communication with an in-vehicle communication device.

Abstract: A wearable camera includes an image capture device, a processor, and first and second memories. The image capture device images a subject. The first memory at least temporarily stores first communication setting information for communication with an in-vehicle communication device.

Abstract: A wearable camera images a subject in front of the user, executes a first communication setting process for communicating with an in-vehicle communication device, mounted in a vehicle on which the user rides, stores first communication setting information used for communication with the in-vehicle communication device, based on the first communication setting process, in a memory, and transmits a captured image of the subject to the in-vehicle communication device, using the first communication setting information. The wearable camera deletes the first communication setting information from the memory, after a lapse of a certain time from a last communication time.

Abstract: A wearable camera images a subject in front of the user, executes a first communication setting process for communicating with an in-vehicle communication device, mounted in a vehicle on which the user rides, stores first communication setting information used for communication with the in-vehicle communication device, based on the first communication setting process, in a memory, and transmits a captured image of the subject to the in-vehicle communication device, using the first communication setting information. The wearable camera deletes the first communication setting information from the memory, after a lapse of a certain time from a last communication time.

Abstract: A wearable camera images a subject in front of the user, executes a first communication setting process for communicating with an in-vehicle communication device, mounted in a vehicle on which the user rides, stores first communication setting information used for communication with the in-vehicle communication device, based on the first communication setting process, in a memory, and transmits a captured image of the subject to the in-vehicle communication device, using the first communication setting information. The wearable camera deletes the first communication setting information from the memory, after a lapse of a certain time from a last communication time.

Abstract: A wearable camera images a subject in front of the user, executes a first communication setting process for communicating with an in-vehicle communication device, mounted in a vehicle on which the user rides, stores first communication setting information used for communication with the in-vehicle communication device, based on the first communication setting process, in a memory, and transmits a captured image of the subject to the in-vehicle communication device, using the first communication setting information. The wearable camera deletes the first communication setting information from the memory, after a lapse of a certain time from a last communication time.

Abstract: The present invention is directed to chitosan-containing acrylic fibers having a total chitosan content of 0.05 to 2% by weight and an extractable chitosan content of not less than 0.03% by weight to less than the total chitosan content. The antimicrobial activity of the chitosan-containing acrylic fibers of the present invention can persist for a long period of time and is not deteriorated even when subjected to posttreatments, such as dyeing and bleaching of fibers, and treatments in usual service environments of fiber products, such as washing and ironing.

Abstract: The present invention is directed to chitosan-containing acrylic fibers having a total chitosan content of 0.05 to 2% by weight and an extractable chitosan content of not less than 0.03% by weight to less than the total chitosan content. The antimicrobial activity of the chitosan-containing acrylic fibers of the present invention can persist for a long period of time and is not deteriorated even when subjected to posttreatments, such as dyeing and bleaching of fibers, and treatments in usual service environments of fiber products, such as washing and ironing.

Abstract: A slope is provided from a heater area to the side of the edge of a substrate near the heater area. A resistance film layer and a common electrode are provided on the slope which is formed as a convexly curved surface. In the slope, a reinforcement conductor along the common electrode is embedded below the resistance film layer.

Abstract: A slope is provided from a heater area to the side of the edge of a substrate near the heater area. A resistance film layer and a common electrode are provided on the slope which is formed as a convexly curved surface. In the slope, a reinforcement conductor along the common electrode is embedded below the resistance film layer.

Abstract: A method of making thermal printheads is provided which comprises the steps of: (a) preparing a master substrate having plural rows of unit head regions; (b) forming a head glaze member in each unit head region in each row so that an edge of the head glaze member of the unit head region aligned with that of the head glaze member of any other unit region in the same row; (c) half-cutting the master substrate along the edge of the head glaze member of the unit head region with a half-cutting dicing blade which has an inclined edge face for partially cutting the head glaze member to provide a glaze corner; and (d) forming an array of heating dots along the glaze corner; wherein at least one blade positioning mark is formed on the master substrate before the half-cutting step (c); and the half-cutting dicing blade is positionally set in the half-cutting step (c) by referring to the blade positioning mark.

Abstract: A slope is provided from a heater area to the side of the edge of a substrate near the heater area. A resistance film layer and a common electrode are provided on the slope which is formed as a convexly curved surface. In the slope, a reinforcement conductor along the common electrode is embedded below the resistance film layer.

Abstract: Disclosed is an optical switch of the rotary-type in which a pair of opposing optical transmission path mounting members are disposed on the same axis.A plurality of junction faces of optical transmission paths disposed on the respective opposing plane portions of the mounting members along phantom circles which are opposite to each other and concentric with the pair of mounting members respectively with respect to the axis so that the junction faces on the respective plane portions are capable of being correspondingly opposite to each other.When the pair of the mounting members are relatively rotated about the axis, the facing mates of the opposing junction faces of the optical transmission paths are changed over to switch the optical transmission paths.In the case where an optical path relay member is interposed between the pair of the optical transmission path mounting members, the optical transmission paths can be switched by only the rotation of the optical path relay member.