Panasonic Intellectual Property Corporation of America

Panasonic Corporation

Panasonic Intellectual Property Management Co., Ltd.

Sumitomo Heavy Industries Ion Technology Co., Ltd.

Ryota Ohnishi

Takahiro Yoneda

Eiichi Muramoto

Kazunobu Konishi

Yuta Shimotsuma

Akira Ishikawa

Hiroaki Urabe

Hiroshi Matsushita

Yoshimasa Honda

Yuki Minoda

An information processing method is an information processing method executed by a computer, and includes: detecting a first operation by a supervising party that supervises a moving body which drives autonomously from a remote location where the moving body cannot be supervised directly; and when the first operation is detected, relaxing an execution condition for autonomous driving of the moving body more than an execution condition applied when the first operation is not detected, and causing the moving body to drive autonomously under the execution condition that has been relaxed.

Information processing method and information processing system

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.

An information processing apparatus includes a first acquisition unit that acquires first sensing data from a first sensor that performs sensing of an object outside a vehicle, a presentation control unit that generates presentation information based on the first sensing data and causes a presentation device present in the vehicle to present the presentation information, a second acquisition unit that acquires input data for presentation of the presentation information via an input device present in the vehicle, and a boarding control unit that controls boarding of a person on the vehicle according to the input data acquired by the second acquisition unit.

Information processing apparatus and information processing method

An ion implanter includes: a main body which includes a plurality of units which are disposed along a beamline along which an ion beam is transported, and a substrate transferring/processing unit which is disposed farthest downstream of the beamline, and has a neutron ray source in which a neutron ray is generated due to collision of a ultrahigh energy ion beam; an enclosure which at least partially encloses the main body; and a neutron ray scattering member which is disposed at a position where a neutron ray which is emitted from the neutron ray source is incident in a direction in which a distance from the neutron ray source to the enclosure is equal to or less than a predetermined value.

Ion implanter

A communication method in a roadside unit that acquires first dynamic information indicative of a dynamic object around the roadside unit and second dynamic information indicative of a dynamic object around in-vehicle units includes: selecting at least one in-vehicle unit from among the plurality of in-vehicle units on a basis of a list in which the second dynamic information and the in-vehicle units having the second dynamic information are associated with each other; acquiring the first dynamic information indicative of a state around the roadside unit acquired by a sensor mounted in the roadside unit; configurating a dynamic map on a basis of the acquired first dynamic information, the second dynamic information acquired from the selected in-vehicle unit, and a static map indicative of a static object; and transmitting the dynamic map to one or more of the in-vehicle units that communicate with the roadside unit.

Communication method, roadside unit, and communication system

A router includes a content store (CS) that stores content, a packet processing determination unit that determines whether a received interest packet is a best available (BA) interest packet, and an optimum content request processor that if it is determined that the interest packet is a BA interest packet and if the optimum content request processor determines that content having higher quality than the quality of the content stored in the CS can be acquired from an upstream router, on the basis of the quality of the content stored in the CS and constraining conditions of the BA interest packet, forwards the BA interest packet to the upstream router.

Communication controller, communication control method, and communication control system

A communication control apparatus connected to a content-oriented network includes a transmitter, a receiver, a memory, and a processor. The transmitter transmits an interest packet requesting a plurality of pieces of content. The receiver receives a first data packet including (i) a first piece of content, which is one of the pieces of content, and (ii) first PIT information representing a name of a second piece of content, which is another of the pieces of content and which has not been transmitted from a transmission source. The memory stores a transmission PIT in which names of the pieces of content are registered. The processor registers, in response to transmission of the interest packet, the names of the pieces of content registered in the transmission PIT, and deletes, in response to reception of the first data packet, a name of the first piece of content from the transmission PIT.

Communication control apparatus and communication control method

A roadside device transmits first detection data obtained by a first sensor to a server. The server extracts an unobservable area that is a blind spot of the first sensor, based on the first detection data, and transmits unobservable-area information indicating the unobservable area to a moving terminal. The moving terminal extracts, based on second detection data obtained by a second sensor, second dynamic information indicating an object that exists in a sensing range of the second sensor, and determines whether or not an overlapping area where the unobservable area indicated by the unobservable-area information and the sensing range of the second sensor overlap each other exists. Upon determining that the overlapping area exists, the moving terminal transmits, to the server, third dynamic information that is included in the second dynamic information and that indicates an object that exists in the overlapping area.

Dynamic-map constructing method, dynamic-map constructing system, and moving terminal

A communication method includes generating a packet including the data regarding which the priority has been set beforehand, acquiring channel-used time, calculating channel-usable time based on the channel-used time, calculating a first channel usage estimated time, calculating a wireless transmission rate to be applied when the wireless base station transmits the packet to the first wireless terminal and the second wireless terminal, based on the priority of the data included in the packet, to where the first channel usage estimated time is within the channel-usable time, and transmitting the packet, and information indicating the wireless transmission rate, to the wireless base station.

Communication method, wireless base station, server, and wireless distribution system

A vehicle system includes an obtainment unit that obtains first blind spot information from an infrastructure system having an infrastructure sensor detecting a surrounding object, the first blind spot information indicating a blind spot region due to the object observed from the infrastructure sensor, and a detection recognizer that generates second blind spot information indicating a blind spot region due to the object observed from an in-vehicle sensor detecting the object. The detection recognizer has a combination unit that outputs common blind spot information indicating a first common blind spot region common to the blind spot regions based on the first blind spot information and the second blind spot information to an external device.

Vehicle system, method of processing vehicle information, recording medium storing a program, traffic system, infrastructure system, and method of processing infrastructure information

A vehicle-mounted apparatus that is capable of wireless connection with a roadside device is provided. The roadside device is on, above, or below a road. The vehicle-mounted apparatus is on a vehicle and acquires position information broadcast from the roadside device by wireless communication. The position information is about a position of the roadside device. The vehicle-mounted apparatus decides whether individual wireless connection is performed between the roadside device and the vehicle-mounted apparatus based on roadside device information. The roadside device information includes the position information about the position of the roadside device. Connection or disconnection of individual wireless connection is performed between the vehicle-mounted apparatus and the roadside device based on the decision. Periphery information of the roadside device is acquired from the roadside device during the individual wireless connection in response to the individual wireless connection being connected.

Communication system, vehicle-mounted apparatus, and recording medium recording program

A communication method includes acquiring information relating to a first wireless terminal and a second wireless terminal, deciding priority of data based on information relating to the first wireless terminal and the second wireless terminal, generating a packet including the data regarding which the priority has been decided, acquiring channel-used time, calculating channel-usable time based on the channel-used time, calculating a first channel usage estimated time, calculating a wireless transmission rate to be applied when the wireless base station transmits the packet to the first wireless terminal and the second wireless terminal, based on the priority of the data included in the packet, to where the first channel usage estimated time is within the channel-usable time, and transmitting the packet, and information indicating the wireless transmission rate, to the wireless base station.

Communication method, server, and wireless distribution system

A congestion control method includes determining whether congestion occurs by monitoring a network, receiving an interest packet including a name of content data that is requested to be sent, generating a first NACK packet indicating an occurrence of congestion if it is determined that the congestion occurs when the interest packet is received, and sending the generated first NACK packet to the network. In the generating of the first NACK packet, if first alternative content data which is an alternative of the content data corresponding to a name included in the received interest packet is stored in a cache of the router, information regarding the first alternative content data is set in the first NACK packet. At least one of the determining whether the congestion occurs, the receiving the interest packet, the generating the NACK packet, and the sending the NACK packet is performed by a processor of the router.

Router, terminal, and congestion control method for router and terminal

A method used in a server includes configurating a dynamic map by superimposing time-changing information on a road onto a static map based on first data indicative of surrounding information acquired by a first sensor mounted in a roadside unit; computing a first region that is incapable of being observed by the first sensor; receiving a plurality of attribute information items related to respective second sensors mounted in respective vehicles running on the road from the vehicles; selecting a specific second sensor from among the second sensors based on the attribute information items and the first region; receiving specific second data acquired by the specific second sensor among a plurality of pieces of second data acquired by the second sensors; reconfigurating the dynamic map by filling the first region by using the specific second data; and distributing the reconfigurated dynamic map to at least one of the vehicles.

Communication method and server for reconfiguration of a dynamic map

A device is provided that is connected with a content centric network. The device includes a request reception unit that receives a request packet that requests data that are generated by the device. The device also includes a data transmission unit that transmits the requested data to a CCN network in a case where the data that are requested by the request packet, which is received by the request reception unit, are present in the device. The device further includes a negative acknowledgement unit that transmits a packet that indicates a negative acknowledgement, which includes information about a generation time as a time when the requested data are generated to the CCN network, in a case where the data that are requested by the request packet that is received by the request reception unit are absent in the device.

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Hyogo, Japan

Ryota Ohnishi