Abstract: An asset value calculation unit (25) calculates an asset value with respect to an asset being an evaluation target based on an evaluation axis in a target business process to evaluate the asset value while using each of a plurality of business processes as a target. A contribution degree calculation unit (26) calculates an asset contribution degree indicating a degree that the asset being the evaluation target contributes to an organization objective by synthesizing the asset value calculated with respect to one or more business processes to realize a business strategy set to achieve the organization objective.

Abstract: Compounds and use of the compounds for formula (I) where X is selected from the group consisting of a single bond, O, N—(C1-C4)-alkyl, N—Ar1, CR5R6, S, S(O) and SO2; Z1 and Z2 are independently selected from hydrogen, -Alk-OH, —CH2—Ar2—CH2—OH, -Alk?-C(O)ORx, —CH2—Ar2—C(O)ORx and —C(O)—Ar2—C(O)ORx, where Rx is selected from the group consisting of hydrogen, phenyl, benzyl and C1-C4-alkyl; R1 and R2 are independently selected from the group consisting of optionally substituted mono- or polycyclic aryl having from 6 to 26 carbon atoms as ring members and optionally substituted mono- or polycyclic hetaryl having a total of 5 to 26 atoms as ring members, R5 is selected from the group consisting of hydrogen, C1-C4-alkyl and a radical Ar1; R6 is selected from the group consisting of hydrogen and C1-C4-alkyl; Alk is C2-C4-alkandiyl; provided that R1 and R2 are not both phenyl, if R3 and R4 are both hydrogen.

Abstract: The present invention relates to compounds of the formula (I) where X is selected from the group consisting of a single bond, O, N—(C1-C4)-alkyl, N—Ar1, CR5R6, S, S(O) and SO2; Z1 and Z2 are independently selected from hydrogen, -Alk-OH, —CH2—Ar2—CH2—OH, -Alk?-C(O)ORx, —CH2—Ar2—C(O)ORx and —C(O)—Ar2—C(O)ORx, where Rx is selected from the group consisting of hydrogen, phenyl, benzyl and C1-C4-alkyl; R1 and R2 are independently selected from the group consisting of optionally substituted mono- or polycyclic aryl having from 6 to 26 carbon atoms as ring members and optionally substituted mono- or polycyclic hetaryl having a total of 5 to 26 atoms as ring members, R5 is selected from the group consisting of hydrogen, C1-C4-alkyl and a radical Ar1; R6 is selected from the group consisting of hydrogen and C1-C4-alkyl; Alk is C2-C4-alkandiyl; provided that R1 and R2 are not both phenyl, if R3 and R4 are both hydrogen.

Abstract: An electrocardiographic detection device for a vehicle includes: a steering wheel electrode provided at a lower layer of a covering material that covers a surface of a steering wheel; a steering wheel electrode provided at a lower layer of the covering material of the steering wheel and an insulating material of a predetermined thickness; a waveform generator detecting a differential voltage between the steering wheel electrode and a ground region; a waveform generator detecting a differential voltage between the steering wheel electrode and a ground region; and a signal processing section that generates an electrocardiographic signal on the basis of the differential voltage detected at the waveform generator and the differential voltage detected at the waveform generator.

Abstract: A jig according to the present disclosure includes N planes (N is an integer equal to or larger than 4) respectively attached with patterns, in which ?90°<?<90°??(1) 0?0??(2) where ? is an angle formed by, with respect to a reference normal vector perpendicular to a jig reference plane, the jig reference plane being one plane among the N planes, and having a direction from the jig reference plane toward a space in which the stereo camera is disposed, a non-reference normal vector perpendicular to a non-reference plane different from the jig reference plane among the N planes and having a direction from the non-reference plane toward the space in which the stereo camera is disposed. Non-reference normal vectors corresponding to N?1 non-reference planes among the N planes have directions different from one another with respect to the reference normal vector and do not have directions symmetrical with respect to the reference normal vector.

Abstract: The data management server (10) includes a data acquirer (113) and an individual metadata generator (114a). The data acquirer (113) acquires main data including a plurality of pieces of device data. The individual metadata generator (114a) generates individual metadata including target data information and process information. The target data information indicates, as target data, one or more of the plurality of pieces of device data included in the main data. The process information is associated with a process performed on the target data indicated by the target data information.

Abstract: A data processing device (100) is connected to a backup storage (50) used for a backup of data and to a restore test storage (60) used for a restore test on the data backed up. A backup execution section (B-04) stores in the backup storage (50), a plurality of pieces of test divided data selected as restore test targets from among a plurality of pieces of divided data divided from backup-targeted data in a smaller size than a storage size of the restore test storage (60). A restore test execution section (C-05) repeats an operation of storing test divided data from the backup storage (50) into the restore test storage (60) and performs the restore test on the plurality of pieces of test divided data.

Abstract: A jig according to the present disclosure includes N planes (N is an integer equal to or larger than 4) respectively attached with patterns, in which ?90°<?<90°??(1) 0?0??(2) where ? is an angle formed by, with respect to a reference normal vector perpendicular to a jig reference plane, the jig reference plane being one plane among the N planes, and having a direction from the jig reference plane toward a space in which the stereo camera is disposed, a non-reference normal vector perpendicular to a non-reference plane different from the jig reference plane among the N planes and having a direction from the non-reference plane toward the space in which the stereo camera is disposed. Non-reference normal vectors corresponding to N?1 non-reference planes among the N planes have directions different from one another with respect to the reference normal vector and do not have directions symmetrical with respect to the reference normal vector.

Abstract: A robot includes a movable part, and the movable part performs an action based on a position of a first marker obtained using first position and attitude of the movable part when a first image containing the first marker is captured by an imaging unit provided in the movable part and second position and attitude of the movable part when a second image containing the first marker is captured by the imaging unit.

Abstract: A robot includes an instruction receiving unit that receives a calibration initiation instruction, and an arm that changes a positional relationship between a marker which indicates a reference point and a capturing unit when the calibration initiation instruction is received, in which the calibration of a coordinate system of the capturing unit and a coordinate system of the robot is performed on the basis of an image in which the marker is captured by the capturing unit after the positional relationship between the capturing unit and the marker changes.

Abstract: A control device is capable of controlling each of a robot having a robot arm, and an imaging portion which is capable of capturing a first reference marker, a second reference marker, and a third reference marker, any one of the imaging portion, the first reference marker, the second reference marker, and the third reference marker is provided in the robot, and a posture of a reference surface parallel to a plane which passes through the first reference marker, the second reference marker, and the third reference marker, is acquired based on a first image in which the first reference marker is captured by the imaging portion, a second image in which the second reference marker is captured by the imaging portion, and a third image which captures the third reference marker by the imaging portion.

Abstract: A control device controls a robot including an arm, an end effector provided in the arm, and a force detector provided in the arm and configured to detect force. After bringing a first portion of the end effector close to a work surface and detecting contact of the first portion and the work surface on the basis of an output from the force detector, the control device brings a second portion of the end effector different from the first portion close to the work surface, detects contact of the second portion and the work surface on the basis of an output from the force detector, and teaches the robot a position of the end effector with respect to the work surface.

Abstract: In order to provide feedback information of a transmission acknowledgement signal or the like appropriately even in change in DL/UL configuration in TDD, a radio base station that communicates with a user terminal by time division duplex that is capable of controlling change in DL/UL configuration is provided. The user terminal includes a receiver that receives information to change a DL/UL configuration in time division duplex, receives higher layer signaling including first information about HARQ feedback timing, and receives downlink control information including second information about the HARQ feedback timing. The user terminal determines the HARQ feedback timing for a downlink shared channel based on the first information and the second information.

Abstract: A robot includes: a local coordinate system deriving portion which derives a local coordinate system having two shafts which are parallel to a work plane and orthogonal to each other, based on an image in which markers illustrating three or more points on the work plane which is not horizontal are captured; and a control parameter obtaining portion which obtains control parameters via the local coordinate system.

Abstract: A robot includes an instruction receiving unit that receives a calibration initiation instruction, and an arm that changes a positional relationship between a marker which indicates a reference point and a capturing unit when the calibration initiation instruction is received, in which the calibration of a coordinate system of the capturing unit and a coordinate system of the robot is performed on the basis of an image in which the marker is captured by the capturing unit after the positional relationship between the capturing unit and the marker changes.

Abstract: The embodiments of the present invention provide an uplink resource scheduling method, a wireless base station and a mobile station. The method comprises: generating group dedicated signaling respectively for mobile station groups managed by the wireless base station, wherein group dedicated signaling of each mobile station group indicates uplink resources allocated to the mobile station group; multiplexing the generated group dedicated signaling into different positions of a first channel and transmitting the multiplexed group dedicated signaling; generating mobile station dedicated signaling for each mobile station in each of the mobile station groups, wherein the mobile station dedicated signaling at least includes group information indicating the mobile station group to which the mobile station belongs; and multiplexing the generated mobile station dedicated signaling into a second channel and transmitting the multiplexed mobile station dedicated signaling.

Abstract: The present disclosure provides a base station, a communication system and a method thereof. The communication system includes three base stations adjacent to each other, and each base station serves at least one UE. The method includes: acquiring, by each base station, a channel matrix of a channel from the base station to an adjacent base station; calculating an interference alignment-based transmission precoding matrix for each base station based on the channel matrices of the channels between the base stations; and precoding, by each base station, data to be transmitted with the interference alignment-based transmission precoding matrix.

Abstract: A robot includes a movable part, and the movable part performs an action based on a position of a first marker obtained using first position and attitude of the movable part when a first image containing the first marker is captured by an imaging unit provided in the movable part and second position and attitude of the movable part when a second image containing the first marker is captured by the imaging unit.

Abstract: A radio base station capable of reducing the impact of interference and improving the efficiency of the use of radio resources even when different DL/UL configurations are employed between neighboring transmitting/receiving points is disclosed. The radio base station can communicate with user terminals via time division duplex and is able to change and control DL/UL configurations, has a subframe type determining section that classifies subframes into fixed subframes or flexible subframes, in accordance with the relationship between the DL/UL configurations that are employed in the radio base station and the DL/UL configurations that are employed in other radio base stations, and a frequency allocation control section that applies mutually different frequency allocation methods to the fixed subframes and the flexible subframes.