Abstract: An object of the present disclosure is to provide a communication control method capable of preventing excessive bandwidth allocation to a specific apparatus. A communication control method according to the present disclosure includes: estimating a quality of experience of a monitoring person who monitors videos displayed on a monitoring apparatus (30) that has received video data of the videos captured by a plurality of imaging apparatuses (20) via a network (40), when viewing the videos; and controlling communication for transmitting the video captured by each of the imaging apparatuses (20) to the monitoring apparatus via the network based on the estimated quality of experience.

Abstract: The moving body receives data from a remote monitoring apparatus and transmits data to the remote monitoring apparatus, via the wireless communication network. A candidate route acquisition unit acquires a candidate route of the moving body to a destination. A communication quality evaluation unit evaluates communication quality of the wireless communication network at each location included in the candidate route for each direction of communication by using communication quality information for each direction of communication. A candidate route evaluation unit evaluates communication stability of the candidate route by using communication quality evaluated for each direction of communication. A route determination unit determines a movement route of the moving body among the candidate routes by using an evaluation result of the communication stability.

Abstract: A Machine Type Communication Inter Working Function (MTC-IWF) entity (1) is configured to, in response to receiving from a Service Capability Server (SCS) a first request for quality of service to be applied to a specific communication of an MTC device, send to a Policy and Charging Rule Function (PCRF) entity a second request for applying the quality of service to the specific communication. It is thus possible, for example, to facilitate controlling quality of service of a specific communication in a Public Land Mobile Network (PLMN) in response to a request by the SCS for the quality of service.

Abstract: A control apparatus (40) is configured to acquire a required end-to-end performance required for an end-to-end path from a first end node to a second end node, and determine each required segment performance required for a respective one of the path segments based on the required end-to-end performance. The control apparatus (40) is further configured to communicate with a node included in each path segment or communicate with an entity controlling the path segment to enforce a corresponding one of the required segment performances in the path segment. The control apparatus (40) is further configured to update a required segment performance currently enforced in at least one path segment based on an achievement status of each of the required segment performances in the respective path segments. It is thus, for example, possible to contribute to guaranteeing the required end-to-end performance even when quality of each path segment changes.

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 Machine Type Communication Inter Working Function (MTC-IWF) entity (1) is configured to, in response to receiving from a Service Capability Server (SCS) a first request for quality of service to be applied to a specific communication of an MTC device, send to a Policy and Charging Rule Function (PCRF) entity a second request for applying the quality of service to the specific communication. It is thus possible, for example, to facilitate controlling quality of service of a specific communication in a Public Land Mobile Network (PLMN) in response to a request by the SCS for the quality of service.

Abstract: A video analysis apparatus and the like with improved video analysis accuracy are provided. The video analysis apparatus includes a first video analysis unit and a second video analysis unit. The first video analysis unit is configured to distribute frames to the first video analysis unit or the second video analysis unit, detect a target object in frames which are distributed to be analyzed in the first video analysis unit, and acquire information on movement associated with the detected target object, and transmitting the information on the movement and a detection result in the first detection unit to the second video analysis unit. The second video analysis unit is configured to detect a target object in frames from the distribution unit, and adjust the detection result of the first detection unit based on a detection result in the second detection unit and the information on the movement.

Abstract: An object is to provide a management server for performing a technique to satisfy a predetermined latency requirement in an end-to-end flow. A management server (10) according to the present disclosure includes: a control unit (11) configured to distribute permissible latency associated with an end-to-end flow to an uplink flow and a downlink flow, where the end-to-end flow is to be transmitted from a communication terminal of a transmission source to a communication terminal of a transmission destination via an application server, based on a data size of the uplink flow, and a data size of the downlink data which is different from the data size of the uplink flow; and monitoring unit (12) configured to cause an uplink flow that has exceeded the permissible latency distributed to the uplink flow to be discarded in the communication terminal of the transmission source or the application server.

Abstract: A control apparatus (40) determines a control value to be supplied to a node (604) in a communication network so as to achieve a setpoint of Quality of Service (QoS) performance required by a traffic flow transferred through the communication network. This control value causes the node (604) to adjust allocation of network resources to the traffic flow. The control apparatus (40) corrects the control value to be supplied to the node (604) on the basis of a control delay between the control apparatus (40) and the node (604) and on the basis of a trend in changes in a traffic-related parameter. It is thus, for example, possible to contribute to stabilizing control for guaranteeing QoS performance required by a traffic flow even when there is a non-negligible control delay.

Abstract: A vehicle control unit controls automated driving of a target vehicle on the basis of first information obtained by a sensor of the target vehicle. An analysis unit analyzes state information of the target vehicle on the basis of the first information obtained by the sensor of the target vehicle, and second information obtained by a sensor outside the target vehicle. A specification unit specifies a control policy of the target vehicle on the basis of the analyzed state information.

Abstract: A vehicle configured to so as to be able to be remotely driven transmits information about each vehicle to a vehicle control apparatus through a network. In the vehicle control apparatus, an analysis unit receives information about each vehicle. The analysis unit analyzes state information of each vehicle based on the received information about each vehicle. Each remote control unit performs at least one of remote monitoring or remote control for at least one of a plurality of vehicles. An assignment determination unit determines a correspondence relationship between the vehicle and the remote control unit based on the analyzed state information.

Abstract: A video reception unit obtains a first video and a second video that are different in an imaging position from each other. An important video determination unit determines a video having a higher degree of importance on the basis of the first video and the second video. A video adjustment report unit transmits a transmission video adjustment report that is used to adjust qualities of the first video and the second video in accordance with a result of determining a degree of importance. A first video adjustment unit adjusts the first video on the basis of the transmission video adjustment report. A second video adjustment unit adjusts the second video on the basis of the transmission video adjustment report.

Abstract: An image reception unit receives an image from a vehicle through a network. An event prediction unit predicts an event based on the image received by the image reception unit. Based on an event result predicted by the event prediction unit an important area identification unit identifies an area related to the predicted event as an important area in the image. An image adjustment unit adjusts image quality concerning the important area, which is identified by the important area identification unit, in the image.

Abstract: An image reception unit receives an internal image from a mobile object. An accident risk prediction unit predicts a risk of occurrence of an accident inside the mobile object based on the internal image and situation information indicating a situation of the mobile object. A quality determination unit determines internal image quality information indicating quality of the internal image based on a result of the predicted risk of the inside accident. A quality adjustment unit adjusts the quality of the internal image based on the internal image quality information.

Abstract: The image analysis apparatus includes: a first analysis unit that analyzes image frames by using a first image analysis model; a second analysis unit that can analyze the image frames by using a second image analysis model an analysis accuracy of which is lower; a storage unit that stores therein analyzed frames, which are already analyzed by using the first and second image analysis models, in association with an evaluation value for evaluating a result of an analysis performed with the second image analysis model; an extraction unit that extracts an analyzed frame that satisfies an extraction condition based on the evaluation value; and an update unit that updates the second image analysis model by using a result of an analysis performed with the first image analysis model on the extracted analyzed frame, and a result of an analysis performed with the first image analysis model on a new frame.

Abstract: A RAN node (2) receives, from a core network node (6, 7, 8), a first identifier that is used by a service, an application, or an edge server (5) to identify a radio terminal (1) connected to the RAN node (2), and associates the first identifier with a second identifier that is used by the RAN node (2) to identify the radio terminal (1). Further, the RAN node (2) communicates with the edge server (5) using the first identifier. It is thus, for example, possible to allow an MEC server (or an MEC application hosted on the MEC server) and a radio access network (RAN) node to directly exchange therebetween a control message regarding a specific radio terminal.

Abstract: A system includes a non-transitory computer readable medium configured to store instructions thereon; and a processor connected to the non-transitory computer readable medium. The processor is configured to execute the instructions for generating a mask based on received data from a sensor, wherein the mask includes a plurality of importance values, and each region of the received data is designated a corresponding importance value of the plurality of importance values. The processor is configured to execute the instructions for encoding the received data based on the mask; and transmitting the encoded data to a decoder for defining reconstructed data. The processor is configured to execute the instructions for computing a loss based on the reconstructed data, the received data and the mask. The processor is configured to execute the instructions for providing training to an encoder for encoding the received data based on the computed loss.

Abstract: A traffic control apparatus, a traffic control system, and a traffic control method that can facilitate an operation of an autonomous driving vehicle are provided. A traffic control apparatus includes analysis means for analyzing a state of a vehicle based on information about the vehicle including an autonomous driving function, specifying means for specifying a control policy, which is predetermined control to be transmitted to the vehicle, based on the analyzed state of the vehicle and remote control means for controlling driving of the vehicle based on the specified control policy.

Abstract: An estimating apparatus (1) according to the present invention includes a plurality of feature quantity calculating units (111 to 11n) configured to implement processing of calculating, from a communication traffic, a differing feature quantity group for each of a plurality of types of control attributes relating to communication control, the plurality of feature quantity calculating units being each associated with each of the plurality of types of control attributes, a calculating unit (12) configured to calculate, with regard to each of two or more of the plurality of types of control attributes, each of the feature quantity groups from the communication traffic by use of the feature quantity calculating unit being associated with each of the control attributes, and an estimating unit (13) configured to estimate an attribute value of each of the two or more control attributes from each of the calculated feature quantity groups.

Abstract: There is provided a communication device capable of determining whether admission of new data traffic is allowed or rejected not by comparing throughputs only, but by considering other parameters when the data traffic is admitted. A communication device (10) according to the present invention includes a determination unit (11) that determines whether to admit a flow regarding a new radio terminal (30), the flow being to be transmitted between a radio terminal (30) and a base station (20) and having a transmission deadline, depending on a transmission state of a plurality of data packets included in the flow, and a communication unit (12) that transmits, to the base station (20), instruction information indicating whether to admit the flow regarding the new radio terminal (30).