Abstract:
A vehicle-mounted apparatus comprises a measurement part capable of measuring, by means of a sensor, a road surface state in which a vehicle travels, a band evaluation part that evaluates a network band between it and a server at a transmission destination of measurement data of the road surface state, an importance calculation part that calculates importance of the measurement data based on a predetermined importance determination policy, a transmission part capable of transmitting the measurement data to the server, and a control part that controls transmission of the measurement data to the server by the transmission part based on evaluation of the network band and the importance of the measurement data.
Abstract:
A road inspection system includes: an inspection determination part that determines, regarding road segments, each of which is a unit obtained by dividing an inspection target road, a need for inspection for the individual road segment; a control part that controls, based on the need for inspection for the individual road segment, measurement of a road surface state(s) of the road performed by a measurement vehicle that is capable of measuring the road surface state(s) or transmission of measured data obtained by the measurement; and a road surface inspection part that analyzes measured data received from the measurement vehicle and performs inspection.
Abstract:
In one aspect, a reception means receives, from a roadside device, first information transmitted from a mobile body by using a first wireless communication. An identification means identifies, based on information of a terminal apparatus to be managed by an information management means, the terminal apparatus being located in the vicinity of the mobile body that has transmitted the first information. A transmission means transmits second information generated based on the first information, to the terminal apparatus identified by the identification means via a second wireless communication.
Abstract:
An information provision apparatus includes: a data acquisition part that acquires data from a sensor(s) installed to grasp movement of a vehicle(s) traveling on a road; a database that accumulates primary data acquired by the sensor(s); a user-specific processing content storage part that stores a user-specific processing content(s) defining a processing content(s) on the primary data for each data user; a data processing part that reads out the user-specific processing content(s) stored in the user-specific processing content storage part and creates secondary data for the data user(s) from the primary data; and a data transmission part that transmits the secondary data to the data user(s).
Abstract:
A server receives video data from a moving body. A traveling speed control apparatus controls a traveling speed of the moving body. A quality monitoring unit monitors video quality of the video data received by the server. A speed upper limit calculation unit calculates, by using the video quality and a monitoring required condition of the video data, a maximum value of a traveling speed satisfying the monitoring required condition as an upper limit value of a traveling speed of the moving body. A speed control unit controls a traveling speed of the moving body to be equal to or lower than the calculated upper limit value.
Abstract:
A communication apparatus (10) includes: a communication unit (11) configured to transmit sensor information detected using at least two or more sensors, the two or more sensors being adapted to detect states of a mobile body in directions different from one another with the mobile body being a base point; a moving state recognition unit (12) configured to recognize a moving state; a peripheral state recognition unit (13) configured to recognize a peripheral state of the mobile body; and a communication control unit (14) configured to determine a priority level of each of the two or more sensors based on the moving state and the peripheral state and perform communication control so that the sensor information detected by the sensor having a high priority level is transmittable in quality higher than that of the sensor information detected by the sensor having a low priority level.
Abstract:
A radio communication system, a radio station, a network operation management apparatus, and a network healing method are provided that can suppress system performance degradation caused when a failure occurs in a radio base station, a network apparatus, or the like. In a radio communication system which includes multiple radio stations (10, 20) and a network operation management apparatus (30) managing the radio stations and in which network optimization is performed, at least one of a first radio station (10) in which a failure occurs, a second radio station (20) different from the first ration station, and the network operation management apparatus (30) sends alarm information regarding the failure.
Abstract:
In order to make it possible to more easily share a plurality of servers each of which can be a distribution destination of an application, an application distribution apparatus (10) includes: a management unit (11) that manages, for each of a plurality of servers, a location and a use condition of the server; an acquisition unit (12) that acquires a distribution request for an application, the distribution request including information pertaining to a desired execution area; a selection unit (13) that selects, as candidate servers, servers included in the desired execution area from among the plurality of servers; a determination unit (14) that determines one or more distribution destination servers that satisfy the use condition from among the candidate servers; and a distribution unit (15) that distributes the application to the one or more distribution destination servers.
Abstract:
A communication control device that is mounted in a moving body, the communication control device including: a detecting unit that detects, based on image data obtained by imaging a direction of a base station to which the moving body is connected, a blocking object between the moving body and the base station to which the moving body is connected; and a predicting unit that predicts, based on a position and a size of the detected blocking object, a change in communication quality of a first wireless network used by the moving body for external communication.
Abstract:
A structure investigation assistance system comprises: a first storage unit that stores image data of a road captured continuously by a camera; a second storage unit that stores detailed information about a structure around the road in association with position information about the structure on a map, the detailed information on the structure being configured using point cloud data obtained by 3D scanning the structure; a first selection unit that selects, from the first storage unit, image data targeted for an investigation request in a case where a request for an investigation of the structure is received; a second selection unit that selects, from the second storage unit, detailed information about the structure targeted for the investigation request; and an information presentation unit that presents a map indicating a location of the structure, the image data selected, and the detailed information about the structure.