Abstract: The image processing device 1X includes an acquisition means 30X, a detection means 31X, a first determination means 32X, and a second determination means 33X. The acquisition means 30X acquires an endoscopic image of an examination target. The detection means 31X detects, based on the endoscopic image, a lesion region which is a candidate lesion region of the examination target in the endoscopic image. The first determination means 32X determines whether or not the endoscopic image is an image adequate to determine a degree of progression or an invasion depth, based on a size of the lesion region and/or a degree of reliability regarding a probability of the lesion region as the lesion. The second determination means 33X determines the degree of progression or the invasion depth, based on the endoscopic image determined to be the image adequate to determine the degree of progression or the invasion depth.

Abstract: An electric vehicle management apparatus (10) includes a charging plan acquisition unit (110), an operation plan acquisition unit (120), and an output unit (150). The charging plan acquisition unit (110) acquires vehicle identification information of at least one electric vehicle incorporated with a battery, and charging plan information indicating a charging schedule period of the electric vehicle associated with the vehicle identification information, in association with each other. The operation plan acquisition unit (120) acquires the vehicle identification information of a target vehicle being the electric vehicle for which operation timing is determined, and the operation timing of the target vehicle, in association with each other. The output unit (150) outputs first vehicle information indicating the target vehicle, when the charging plan information of the target vehicle is absent, or when it is indicated that charging is not completed before the operation timing in the charging plan information.

Abstract: A transfer control system or a transfer control apparatus controls lifting or lowering of a loading portion that loads an object in a mobile body that conveys an object. The transfer control system or the transfer control apparatus acquires a load amount of the loading portion, and information regarding a first height that is a height of a place where the object is moved to and from the loading portion. The transfer control system or the transfer control apparatus specifies, based on the first height, a second height that is one of the heights for lifting or lowering the loading portion and is higher than the first height. The transfer control system or the transfer control apparatus performs a first lifting or lowering control of lifting or lowering the loading portion according to the load amount between a first height and a second height above the place.

Abstract: The learning device 1X mainly includes a solution generation means 15X and a learning means 16X. The solution generation means 15X generates solutions of an optimization problem. The learning means 16X generates a plurality of sets of solutions and train a model configured to determine a set of solutions to be outputted, based on one or more sets selected by an external input from the plurality of sets.

Abstract: A learning data generation apparatus includes an acquisition unit and a selection unit. The acquisition unit acquires a plurality of images generated by an image capture unit. The selection unit selects an image satisfying a predetermined condition out of the plurality of images acquired by the acquisition unit in order to include the image into at least part of learning data as negative data not including a target product. The number of products included in an image can be precisely detected by using a model generated by using the learning data.

Abstract: A terminal apparatus (10) is used when at least one of product registration processing and settlement processing is performed, and includes a first display (150), a second display (140), and an input device (172). The first display (150) is located next to the second display (140). A lower end of the first display (150) is located higher than a lower end of the second display (140). The input device (172) is disposed in a region located below the first display (150).

Abstract: A first radio terminal (1A) transmits to a second radio terminal (1B) inter-terminal coordination information generated based on a result of its own sensing. The inter-terminal coordination information indicates a first set of preferred resources for sidelink transmission by the second radio terminal (1B) or a second set of non-preferred resources for sidelink transmission by the second radio terminal (1B). The inter-terminal coordination information further indicates a trust level of each resource in the first or second set. This allows, for example, a second radio terminal receiving inter-terminal coordination information to distinguish between the trust or importance levels of multiple preferred or non-preferred resources.

Abstract: Embodiments of the present disclosure relate to methods, devices and computer storage media for communication. According to embodiments of the present disclosure, a terminal device transmits, to a network device, a first hybrid automatic repeat request acknowledgement (HARQ-ACK) information corresponding to a first downlink control information (DCI) in a first physical downlink control channel (PDCCH), wherein the first DCI indicates a first transmission configuration indicator (TCI) state. If a condition is fulfilled, the terminal device applies the first TCI state. In this way, the terminal device understands when and/or whether to apply the indicated TCI state.

Abstract: An information processing device 100 of the present disclosure can assist decision-making by a user by including: an error calculation unit 121 that calculates a prediction error which is a difference between a prediction value which is output obtained when an explanatory variable of subject data is input to a prediction model and an objective variable of the subject data; an index calculation unit 122 that calculates, on a basis of data that can be used for calculating the prediction error, an index for evaluating an amount of contribution of at least one of the explanatory variable of the subject data, the objective variable of the subject data, and the prediction model to the prediction error; and a contribution calculation unit 123 that calculates the amount of contribution on a basis of the prediction error and the index.

Abstract: The image processing device 1X includes a first acquisition means 30X, a second acquisition means 31X, and an inference means 33X. The first acquisition means 30X acquires a set value of a first index indicating an accuracy relating to a lesion analysis. The second acquisition means 31X acquires, for each of plural models which make inference regarding a lesion, a predicted value of a second index, which is an index of the accuracy other than the first index, on an assumption that the set value of the first index is satisfied. The inference means 33X makes inference regarding the lesion included in an endoscopic image of an examination target, based on the predicted value of the second index and the plural models.

Abstract: A management apparatus includes: an obtaining means that obtains an existence confirmation result, which is a result of confirmation on existence of a subject; and a management means that manages the existence confirmation result in association with a non-fungible token.

Abstract: A health information storage unit (20) stores, for each of a plurality of individuals, health information of the individual, and individual identification information identifying the individual in association with each other. A relative information storage unit (30) stores relative information. The relative information is information being capable of determining, for each of a plurality of individuals, individual identification information of a relative of the individual. A acquisition unit (110) acquires individual identification information of a target person. A determination unit (120) determines the individual identification information of a relative of the target person by using the relative information storage unit (30). A output unit (130) acquires, from the health information storage unit (20), the health information associated with the individual identification information determined by the determination unit (120), and outputs the acquired health information.

Abstract: A multi-core fiber optical amplifier includes: a multi-core excitation fiber configured to include a first core and a second core; and a clad excitation circuit configured to inject excitation light into a clad of the multi-core excitation fiber, wherein signal light input to one end of the first core is output from the other end of the first core, the signal light output from the other end of the first core is input to one end of the second core, and the signal light input to one end of the second core is output from the other end of the second core.

Abstract: A base station system includes a base station device (1), a wireless transmission device (2) and a data transfer device (3), each of which can be installed outdoors. Enclosures (12, 22 and 32) of the devices (1-3) each provide a degree of protection from water and dust ingress necessary for being installed outdoors. The enclosure (12) of the base station device (1) accommodates electronic equipment (11) functioning as a base station. The enclosure (22) of the wireless transmission device (2) accommodates electronic equipment (21) functioning as a radio station to perform wireless transmission with the other device for connecting the base station device (1) to a mobile backhaul network. The enclosure (32) of the data transfer device (3) accommodates electronic equipment (31) functioning as a router or a switch to transfer data packets or data flames between the base station device (1) and the wireless transmission device (2).

Abstract: A communication system is described in which a communication apparatus configured provides a first communication path to a user communication device to using a first radio resource and another communication apparatus provides a second communication path to the user communication device to using a second radio resource, different from the first radio resource. The communication apparatus controls flow of user data via the first and second communication paths based on information which is received from the other communication apparatus and which indicates availability of the second radio resource for transmission of the user data.

Abstract: A history management apparatus includes a storage unit configured to store usage application information of a user in a region into which entry is restricted by biometric authentication, a cancellation control unit configured to cancel, in a case where a predetermined visitor has succeeded in biometric authentication at a gateway of the region, and the usage application information is satisfied, restriction on entry into the region, a history registration unit configured to register, into the storage unit, history information of a visitor who has succeeded in the biometric authentication, a generation unit configured to generate, in a case where a disclosure request for the history information has been received from a terminal of a predetermined disclosure requestor, disclosed information obtained by performing predetermined processing on the history information in accordance with an attribute of the disclosure requestor, and an output unit configured to output the disclosed information to the terminal.

Abstract: A mobile station which communicates with a base station includes a transceiver configured to receive a downlink control channel, and a controller configured to determine whether C-RNTI is included in the downlink control channel. The controller is further configured to determine that resource allocation in the downlink control channel overrides persistent downlink resource allocation for a Transmission Time Interval (TTI) if the C-RNTI is included in the downlink control channel. The transceiver is further configured to receive a Hybrid Automatic Repeat Request (HARQ) transmission by using persistent downlink resources.

Abstract: Provided is a method for movement estimation and movement compensation of a target object that can be applied without introducing restrictions on antenna placement. The present invention provides a radar apparatus including: a radar signal transmission-reception unit acquiring a radar signal acquired by measurement using a transmission antenna and a reception antenna, and a measurement time of the radar signal; a velocity candidate control unit holding a setting of a velocity candidate set of a target object; a velocity estimation imaging unit generating a radar image applied with movement compensation by using each velocity candidate; a velocity estimation unit selecting an estimated velocity from a velocity candidate set, based on comparison of each generated radar image; and an output image imaging unit generating a final output image applied with movement compensation using an estimated velocity.

Abstract: An on-premise-side construction device transmits on-premise-side setting information for a cloud device to communicate with an on-premise device, to a cloud-side construction device via the Internet, receives cloud-side setting information for the on-premise device to communicate with the cloud device from the cloud-side construction device, and sets the cloud-side setting information in the on-premise device. The cloud-side construction device transmits the cloud-side setting information to the on-premise-side construction device via the Internet, receives the on-premise-side setting information from the on-premise-side construction device, and sets the on-premise-side setting information in the cloud device.

Abstract: An OAM mode-multiplexing transmitting apparatus includes an OAM transmitting processing unit, a phase adjustment unit, a transmitting radio unit, a UCA (Uniform Circular Array) antenna, and a control unit (control apparatus). The UCA antenna includes a plurality of transmitting antenna elements. In the control apparatus, an acquisition unit acquires “information corresponding to a transmitting-side axis misalignment”. A beam control unit controls a beam of the UCA antenna by controlling phases of N OAM mode-multiplexing signals based on the acquired “information corresponding to the transmitting-side axis misalignment”.