Abstract: An electronic device includes: a processing unit; and a plurality of interfaces configured to transmit commands to the processing unit. The processing unit invalidates the commands from the interfaces other than the interface from which the command first received by the processing unit after start-up is transmitted. The processing unit has a plurality of modes, and invalidates the commands other than the command that is valid for the selected mode. The plurality of interfaces include a user interface configured to detect an operation of a user and a communication interface configured to communicate with an external device.

Abstract: An inertial measurement device includes: an inertial sensor; a first circuit board disposed on one side of the inertial sensor; a second circuit board that is disposed on an opposite side of the first circuit board from the inertial sensor and on which a heat-generating component is mounted; and a housing configured to accommodate the inertial sensor, the first circuit board, and the second circuit board. The first circuit board and the second circuit board are separated from each other and are electrically coupled to each other via a cable.

Abstract: A sensing apparatus includes a sensor, a processing circuit that acquires sensor output information from the sensor, a communication circuit that receives communication start time information, a power supply circuit that supplies the processing circuit with power supply voltage based on battery voltage from a battery, and a clocking circuit that operates by using the battery voltage and generates time information. The power supply circuit is activated by an instruction from the clocking circuit. The processing circuit starts acquiring the sensor output information after the power supply voltage is supplied from the power supply circuit. The communication circuit starts transmitting the transmission information at communication start time specified by the communication start time information.

Abstract: In a display system, each of a plurality of sensor terminals estimates first information based on accumulated first measurement data and transmits the first information to a display device. The display device synchronizes a received plurality of kinds of the first information at time and classifies the plurality of kinds of first information into a plurality of first information groups, estimates, based on position information of the plurality of sensor terminals and the first information included in each of the first information groups, updates the first information group, generates, for each of the updated plurality of first information groups, based on map information including a region where a structure is located, image information including a distribution of values of the first information on a map, and displays an image based on the image information.

Abstract: A sensor system includes a sensor that is provided in a structure and detects an acceleration, a storage unit that stores installation information indicating a relationship between a direction of a gravitational acceleration and a direction of a detection axis of the sensor, and a drop determination unit that determines whether or not the sensor is dropped based on a representative value of accelerations in the direction of the detection axis detected by the sensor and a gravitational acceleration value in the direction of the detection axis specified based on the installation information.

Abstract: A sensing apparatuses includes a sensor, a processing circuit that acquires sensor output information from the sensor, a communication circuit that transmits transmission information corresponding to the sensor output information, and a clocking circuit that generates time information. The communication circuit receives time information for correction before the processing circuit starts acquiring the sensor output information. The clocking circuit corrects the time information based on the time information for correction received by the communication circuit. The processing circuit starts acquiring the sensor output information based on the corrected time information.

Abstract: Provided is a sensor data processing system including: a plurality of sensor terminals, each including a sensor that outputs measurement data; a synchronization signal generation apparatus that simultaneously transmits a synchronization signal in a wireless manner to the plurality of sensor terminals through an access point; and a data processing apparatus that performs processing on the measurement data, in which, after synchronization that is based on the synchronization signal is established, each of the plurality of sensor terminals transmits the measurement data in a wireless manner to the data processing apparatus through the access point during a communication duration that is allocated in a mutually exclusive manner.

Abstract: An inertial measurement unit includes: a sensor unit including an inertial sensor, a case accommodating the inertial sensor, and a first fixing part having the case fixed thereto; an elastic member having a first elastic member mainly damping a vibration at a predetermined frequency in a first direction and a second elastic member mainly damping a vibration at a predetermined frequency in a second direction that is different from the first direction; a second fixing part where the sensor unit and the elastic member are arranged; and a fixing member fixing the sensor unit and the elastic member to the second fixing part.

Abstract: A method for installing an inertial sensor unit includes: attaching a substrate to a structure with a magnet; and attaching a case accommodating an inertial sensor, to the substrate. The case is provided with a first attachment part. The substrate is provided with a second attachment part. In the attaching the case, the first attachment part and the second attachment part are fitted together to attach the case to the substrate. The inertial sensor has a base part, a moving part coupled to the base part, a physical quantity detection element arranged at the moving part, and a mass part arranged at the moving part. The mass part is made of a non-magnetic material.

Abstract: A method for mounting an inertial sensor unit includes: mounting a substrate to a structure; and mounting, to the substrate, a case in which an inertial sensor is accommodated, wherein the case is provided with a first mounting portion, the substrate is provided with a second mounting portion, and in the mounting of the case, the first mounting portion and the second mounting portion fit together, whereby the case is mounted to the substrate.

Abstract: Structure monitoring software includes measuring software, arithmetic software, and communication software. The measuring software collects an output signal from an inertial sensor, stores a result of collection into a first storage unit, and outputs the result of collection to the arithmetic software. The arithmetic software computes the result of collection received from the measuring software, stores a result of computation into a second storage unit, and outputs the result of computation to the communication software. The communication software stores the result of computation received from the arithmetic software into a third storage unit and transmits the result of computation to outside. Management software determines whether each of the measuring software, the arithmetic software, and the communication software is operating normally or not, and terminates and restarts the software that is not operating normally.

Abstract: A physical quantity measurement method acquires a plurality of measurement results corresponding to the passage of a plurality of vehicles based on the measurement performed by a sensor for physical quantity computation attached to a structure through which the plurality of vehicles pass. The physical quantity measurement method further identifies the vehicle corresponding to each of the plurality of measurement results based on measurement time information that is information on the time when the measurement is performed and operation information that is information on the operation status of the vehicle. The physical quantity measurement method then determines whether or not to use each of the plurality of measurement results in an abnormality evaluation process of evaluating abnormality of the structure based on a vehicle identification result that is the result of the identification of the vehicle.

Abstract: A sensing apparatuses includes a sensor, a processing circuit that acquires sensor output information from the sensor, a communication circuit that transmits transmission information corresponding to the sensor output information, and a clocking circuit that generates time information. The communication circuit receives time information for correction before the processing circuit starts acquiring the sensor output information. The clocking circuit corrects the time information based on the time information for correction received by the communication circuit. The processing circuit starts acquiring the sensor output information based on the corrected time information.

Abstract: A sensing apparatus includes a sensor, a processing circuit that acquires sensor output information from the sensor, a communication circuit that receives communication start time information, a power supply circuit that supplies the processing circuit with power supply voltage based on battery voltage from a battery, and a clocking circuit that operates by using the battery voltage and generates time information. The power supply circuit is activated by an instruction from the clocking circuit. The processing circuit starts acquiring the sensor output information after the power supply voltage is supplied from the power supply circuit. The communication circuit starts transmitting the transmission information at communication start time specified by the communication start time information.

Abstract: The present disclosure provides an antibody for inducing immune tolerance, an induced lymphocyte, and a cell therapy agent therapeutic method using the induced lymphocyte. Specifically, the present disclosure provides an antibody that inhibits the interaction between CD80 and/or CD86 expressed on the surface of a certain cell and CD28 expressed on the surface of another cell, and substantially does not induce immune activation-induced cytokines. In a specific embodiment, the Fc portion of the antibody substantially does not produce the immune activation-induced cytokines.

Abstract: The present disclosure provides a pharmaceutical composition for antigen-specific immune tolerance or immune suppression. The present disclosure provides a pharmaceutical composition comprising a CD4-positive anergy T cell and a CD8-positive anergy T cell. In some embodiments, the anergy T cell is induced by an antibody capable of inhibiting the interaction between CD80 and/or CD86 and CD28. In a specific embodiment, the pharmaceutical composition may additionally comprise a regulatory T cell (e.g., a FOXP3-positive CD4-positive CD25-positive T cell).

Abstract: The present disclosure provides a novel technique relating to immunological tolerance. More specifically, the present inventor found for the first time that, in a technique for inducing immunological tolerance by administering to an organ transplantation patient (a recipient) a cell preparation containing cells in which anergy is induced by an inhibitor inhibiting the interaction between CD80/CD86 and CD28, the immunological tolerance continues even after the disappearance of the cells derived from the cell preparation from the recipient (infectious immunological tolerance). Further, the present inventor proved that such a cell preparation can elicit immunological tolerance against immunological rejection caused by allergy, iPS cells, etc. or cells, tissues or organs derived therefrom.

Abstract: A display device displays displacement of a bridge serving as a structure on a display part in the form of image information that is visually recognizable, based on a displacement amount of the bridge, the displacement amount having been calculated based on an output signal output from an acceleration detector serving as a physical quantity sensor provided on the bridge.

Abstract: An observation system includes an information acquiring section configured to acquire sensor information from a sensor section set in a structure and configured to detect vibration of the structure and a processing section configured to calculate information concerning a peak vibration frequency of the vibration on the basis of the sensor information and determine a surface state of the structure on the basis of the information concerning the peak vibration frequency.

Abstract: A method for installing an inertial sensor unit includes: attaching a substrate to a structure with a magnet; and attaching a case accommodating an inertial sensor, to the substrate. The case is provided with a first attachment part. The substrate is provided with a second attachment part. In the attaching the case, the first attachment part and the second attachment part are fitted together to attach the case to the substrate. The inertial sensor has a base part, a moving part coupled to the base part, a physical quantity detection element arranged at the moving part, and a mass part arranged at the moving part. The mass part is made of a non-magnetic material.