Abstract: A coordinator (10) includes an accepting unit (11), a required resource information calculation unit (13a), an insufficient resource information calculation unit (13b), a combination determination unit (14), and a communication unit (18). The required resource information calculation unit (13a) calculates information regarding resources required to satisfy a request accepted by the accepting unit (11). The insufficient resource information calculation unit (13b) compares the required resources calculated by the required resource information calculation unit (13a) with resources included in each of a plurality of sensor nodes (30, 40, 50), and calculates information regarding an insufficient resource that each sensor node lacks. The combination determination unit (14) determines a combination of resources required to satisfy the request, based on the information regarding the insufficient resource calculated by the insufficient resource information calculation unit (13b).

Abstract: Provided is a tube pump including: a housing unit that has an inner peripheral surface, which is formed in an arc shape around an axis, along which a tube with flexibility is disposed, and that is opened toward one end side along the axis; a pair of roller units that are accommodated in the housing unit and rotate about the axis in a state in which the tube is blocked; a pair of drive units that cause each of the pair of roller units to rotate about the axis in the same direction; and a cover member that is disposed in the housing unit such that the cover member covers the pair of roller units and provides an annular opening region into which the tube is able to be inserted toward the inner peripheral surface.

Abstract: The objective of the present invention is to detect defects in a structure accurately in a non-contact manner. An optical path length converting unit (320) is disposed between a specimen being inspected and an image capturing element (310) in such a way as to cover part of a field of view of the image capturing element (310). An image analyzing unit (330) uses images captured by the image capturing element (310) to calculate amounts of displacement within the surface of the specimen, obtained using two fields of view of the image capturing element (310) not covered/covered by the optical path length converting unit (320). An out-of-plane displacement calculating unit (340) calculates an out-of-plane displacement of the specimen on the basis of the calculated amounts of displacement.

Abstract: The fluid transfer connector includes: a plug including a plug body, the plug body including a fluid channel; a socket including a socket body, the socket body including a fluid channel that communicates with the fluid channel of the plug body when the plug is connected to the socket; and a driving mechanism configured to adjust a distance between the plug body and the socket body. The plug body and the socket body can be stopped by the driving mechanism at an initial position where the plug body and the socket body are spaced from and face each other, a connecting position where the fluid channel of the plug body communicates with the fluid channel of the socket body, and an intermediate position between the initial position and the connecting position.

Abstract: Provided is a joint structure comprising a main body, a tubular part that is formed in a tubular shape to protrude from the main body along an axis and holds an outer peripheral surface of the resin-made tube, and a protrusion that is formed in a shaft shape to protrude from the main body along the axis and forms, between the protrusion and the tubular part, an insertion groove in which the resin-made tube is inserted, the main body and the protrusion are formed with a coupling channel extending along the axis and coupling a liquid transferring channel and another channel, and a tip of the protrusion is disposed at a position closer to the main body than a tip of the tubular part.

Abstract: A matching apparatus includes: a sensor-side metadata acquisition unit that acquires sensor-side metadata; an application-side metadata acquisition unit that acquires application-side metadata; a matching unit that performs matching between the sensor-side metadata and the application-side metadata in which a first related term that is related to a term in the acquired sensor-side metadata and a second related term that is related to a term in the acquired application-side metadata are in common with each other, and extracts a sensor candidate; and a dataflow control command instruction unit that transmits a dataflow control command that includes information that specifies the sensor extracted by the matching unit and an application.

Abstract: A metadata generation apparatus capable of generating metadata, as well as a metadata generation method and program are provided. The sensing device is configured to generate an output value based on a physical amount that is input. The metadata generation apparatus includes a probability density function generation unit and a metadata generation unit. The probability density function generation unit is configured to generate a probability density function of an output value when a specific physical amount is input to the sensing device. The metadata generation unit is configured to generate metadata based on the probability density function.

Abstract: A compatibility determination apparatus, a compatibility determination method and a program that are configured to determine the compatibility of an agent that outputs input data to a processing module are provided. The processing module is a learned model generated by using a plurality of learning data. Each of the plurality of learning data includes input data and a ground truth label of output data associated with the input data. First metadata is associated with the processing module. The first metadata is generated based on a probability density function of a plurality of input data associated with a ground truth label common to each thereof. The compatibility determination apparatus acquires the first metadata, and determines the compatibility based on the first metadata.

Abstract: Provided is a metadata generation apparatus. The metadata generation apparatus generates metadata that is associated with a processing module. The processing module is a trained model generated by using a plurality of sets of learning data. Each set of the learning data includes input data and a correct label of output data. The metadata generation apparatus includes a probability density function generation unit and a metadata generation unit. The probability density function generation unit generate a probability density function of a plurality of sets of input data associated with the same correct label. The metadata generation unit generates metadata based on the probability density function.

Abstract: At an electric pump, a first gasket is interposed between a stator and a motor housing, and a supporting member, and a second gasket is interposed between the supporting member and a substrate housing. Further, the electric pump has a first snap-fit structure that assembles the stator to the supporting member, a second snap-fit structure that assembles the motor housing the supporting member, and a third snap-fit structure that assembles the substrate housing to the supporting member.

Abstract: A power supply and demand prediction system that predicts the power supply and demand of a group including multiple utility customers is provided and includes a communication unit, a demand prediction unit, a power generation prediction unit, and a stored power prediction unit. The communication unit acquires the amount of power stored in each of multiple power storage devices belonging to the group. The demand prediction unit predicts the amount of demand for power for each utility customer. The power generation prediction unit predicts the amount of power generated by each of multiple solar panels belonging to the group. The stored power prediction unit predicts the amount of power stored in each battery on the basis of the amount of stored power acquired for each power storage device, the amount of demand predicted for each utility customer, and the amount of generated power predicted for each solar panel.

Abstract: A degradation state determination apparatus 100 is an apparatus for determining the state of a structure, and includes a measurement unit 10 configured to measure a deflection amount and a surface displacement amount of the structure, a statistical processing unit 20 configured to executes statistical processing using the measured deflection amount and surface displacement amount, and a degradation state determination unit 30 configured to determine the degradation state of the structure based on the result of statistical processing.

Abstract: A state determination apparatus 100 determines the state of a structure 200. The state determination apparatus 100 includes a measurement unit 10 configured to measure a deflection amount and a surface displacement amount in each of a plurality of target regions that are preset on the structure 200, a feature value calculation unit 20 configured to calculate, for the respective target regions, feature values each indicating a relationship between the deflection amount and the surface displacement amount, using the measured deflection amount and surface displacement amount, a spatial distribution calculation unit 30 configured to calculate a spatial distribution of the feature values using the feature values calculated for each of the target regions, and a degradation state determination unit 40 configured to determine a degradation state of the structure 200 based on the spatial distribution of the feature value.

Abstract: To provide a tube pump which includes: a drive mechanism including a first roller unit and a second roller unit which rotate about an axis line while being in contact with a tube having elasticity, and a first drive unit and a second drive unit which cause the first roller unit and the second roller unit to rotate independently about the axis line; a holding mechanism which holds the tube in an arcuate shape about the axis line; and an attachment mechanism which detachably attaches the holding mechanism to the drive mechanism.

Abstract: Power coordination control systems (10a-10c) are provided with superimposed signal generation units (11a-11c), transmission units (12a-12c), receiving units (13a-13c) and connection relation estimation units (14a-14c). At the location of a utility consumer A (20), the superimposed signal generation unit (11a) generates a superimposed signal by superimposing a prescribed signal on a voltage supplied from a system (50). The transmission unit (12a) transmits the superimposed signal generated in the superimposed signal generation unit (11a) from the utility consumer A (20) to utility consumers B (30) and C (40). The receiving unit (13b) receives the superimposed signal at the location of the utility consumer B (30). The connection relation estimation units (14a-14c) estimate the connection relation between the utility consumer A (20) and the utility consumer B (30) on the basis of the receiving status of the superimposed signal and/or the received information received by the receiving units (13a-13c).

Abstract: Provided are a power storage control apparatus and a power storage control method with which a second power storage apparatus connected to a first storage apparatus via a power distribution network can be used based on an availability status of the first power storage apparatus under a configuration that a plurality of power storage apparatuses are deployed in the power distribution network. The power storage control apparatus includes a status determination part, a signal generation part and a communication part. The status control part determines the availability status of the first power storage apparatus deployed in the power distribution network. The signal generation part generates a control signal for using the second power storage apparatus connected to the first storage apparatus in the power distribution network instead of the first power storage apparatus based on a determination result from the status determination part.

Abstract: To provide a flow passage unit which is detachably mounted on a pressure detection unit, the flow passage unit including: a flexible flow passage part including a flexible flow passage which introduces liquid flowing in the flexible flow passage part from an inflow port, to an outflow port, and which is made of a flexible material; a body portion configured to form a pressure transmitting space which surrounds an outer peripheral surface of the flexible flow passage part; a diaphragm mounted on the body portion and having a thin-film shape; and a pressure transmission medium filled in the pressure transmitting space, and being non-compressible, wherein the flexible flow passage is a flow passage which has a predetermined inner diameter, and which extends in a straight line along an axis.

Abstract: A management device includes a potential usable power calculator that computes a measurement value or an estimated value for a potential usable power which is the amount of power available when the power consumption of an electrical appliance and a potential feed-in amount that can be sold are excluded from the power output from the solar power device; a planned usage determination unit that identifies a planned usage time that a user plans to use a designated appliance; an effective time determination unit that identifies a continuous effective time when a physical quantity representing a state that changes due to the designated appliance using the potential usable power is within a range that is effective for a user; and a scheduler that creates an operation schedule indicating at least an operation start time for the designated appliance on the basis of the planned usage time and the continuous effective time.

Abstract: The fluid transfer connector includes: a plug including a plug body, the plug body including a fluid channel; a socket including a socket body, the socket body including a fluid channel that communicates with the fluid channel of the plug body when the plug is connected to the socket; and a driving mechanism configured to adjust a distance between the plug body and the socket body. The plug body and the socket body can be stopped by the driving mechanism at an initial position where the plug body and the socket body are spaced from and face each other, a connecting position where the fluid channel of the plug body communicates with the fluid channel of the socket body, and an intermediate position between the initial position and the connecting position.

Abstract: A thermal flowmeter including a measurement tube that has an inflow port into which a liquid flows and an outflow port that allows the liquid which flows in from the inflow port to flow out, and has an internal flow passage where the liquid flows formed to extend along an axis, and a plurality of detection sections each of which has a heating resistor and a temperature detecting resistor along the axis and is provided at the measurement tube, and a control section that calculates a flow rate of the liquid flowing through the internal flow passage based on signals from the plurality of detection sections, wherein the plurality of detection sections are respectively provided with predetermined intervals left in a circumferential direction with the axis as a center.