Yokogawa Electric Patente

A providing server (10) stores therein product information indicating each of specification items indicating each of products, acquires request information indicating each of specification items of a product requested by a customer, extracts candidate products to be proposed to the customer from all of the products included in the product information based on the acquired request information, calculates a conformity degree with the request information for each of the extracted candidate products, and provides proposal information indicating the candidate products based on the calculated conformity degree.

A measurement device is the measurement device that measures a thickness of a covering layer included in a measurement target object with respect to a measurement axis direction, and that includes a first measurer which electromagnetically measures a first distance between the first end surface and a top surface of a base material with respect to the measurement axis direction, a second measurer which electromagnetically measures a second distance between the second end surface and the top surface of the base material with respect to the measurement axis direction, and a third measurer which optically measures a third distance between the third end surface and a top surface of the covering layer with respect to the measurement axis direction, wherein, in a direction perpendicular to the measurement axis direction, the first end portion, the second end portion, and the third end portion are arranged adjacent to each other.

A processing unit is disclosed for managing and coordinating multiple robots in an environment. The processing unit receives parameters from sensors describing at least one of an activity and a capability of a first robot and a second robot and uses the parameters to determine that an unexpected event has occurred within an environment. The processing unit then sends an assignment command to one or both of the first robot and the second robot, wherein the assignment command causes the second robot to automatically perform at least one task in the first set of tasks or causes the first robot to automatically perform at least one task in the second set of tasks.

A radiation source unit 2 includes a radiation source section 4 that emits radiation and that has a first surface 41a, a detection section 5 that is arranged together with the radiation source section 4 with a space between the detection section 5 and the radiation source section 4 and that has a second surface 52a that faces the first surface 41a in which the radiation is detected, and a shielding plate 6 that is provided between the first surface 41a and the second surface 52a. On the first surface 41a, an opening 41b that is formed in a shape in which a first direction is a longitudinal direction and a second direction perpendicular to the first direction is a transverse direction. The shielding plate 6 is formed in a shape that includes at least a part of a diamond shape when viewed in a third direction that is perpendicular to the first direction and the second direction, and is arranged such that a center line of the opening 41b in the second direction overlaps with a shorter diagonal line of the diamond shape.

[Solution] Provided is an apparatus comprising a processor, wherein the processor executes: a generation process for generating an execution plan by allowing at least one task not to be executed, as an execution plan for performing a plurality of tasks by a plurality of robots; and a decision process for deciding a first execution plan in which a value of an objective function satisfies a reference condition among generated execution plans by using an objective function that imposes a penalty when the execution plan includes a task not to be executed, and wherein the penalty imposed on the objective function is a value corresponding to a parameter of the task not to be executed among parameters which are set for respective tasks.

A combustor monitoring system (1000) includes a gas turbine combustor (10) and an operator terminal (20) that is connected to the gas turbine combustor (10). The gas turbine combustor (10) includes a burner (110). The burner (110) includes a swirler (112a) that is installed in an inner tube portion of a channel in which a mixture gas (MG) including a fuel (FG) and air (AG) flows, and a temperature sensor (111) that output temperature data indicating temperature of the channel. The operator terminal (20) acquires the temperature data, detects occurrence of flashback (FB) in the channel based on the temperature data, and adjusts the angles of the swirler (112a) when detecting the occurrence of the flashback (FB).

[Solution] Provided is an analytical apparatus with a processor, which estimates an end point of a chemical reaction, in which a concentration of at least one raw material is unknown, the processor performs operations including: a spectrum acquisition unit that acquires spectroscopic spectra at a plurality of time points for a chemical reaction system; a calculation unit that calculates a spectroscopic spectrum feature quantity for each time point from the spectroscopic spectra at the plurality of time points; and an estimation unit that estimates an end point of a chemical reaction based on variation of the feature quantity that is calculated by the calculation unit. Further provided is an analytical method using the analytical apparatus, and a program that causes a computer to function the analytical apparatus.

A light measurement device includes a control device capable of switching between a measurement mode and a calibration mode, an optical system including a light irradiator that is capable of moving and irradiates an object to be measured with irradiation light, and a light blocking device including a shutter capable of blocking the irradiation light and calibrating the light measurement device. In the measurement mode, the positions of the shutter and the optical system are adjusted so that the shutter does not block the irradiation light and a focusing position of the irradiation light coincides with the position of the object to be measured. In the calibration mode, the positions of the shutter and the optical system are adjusted so that the shutter blocks the irradiation light and the focusing position of the irradiation light coincides with the position of the reference material.

In a management system (1), a first nameplate with writing of which content is not updated and a second nameplate that is replaceable, that is with writing of which content is updatable, and that is in a pair with the first nameplate are fixed to a housing of a pressure transmitter (10) and a management apparatus (20) manages a history of updating the content of writing on the second nameplate. For example, serial numbers that are identical are written on the first nameplate and the second nameplate. For example, information on the pressure transmitter (10) that is the latest and that is changeable is written on the second nameplate. For example, the management apparatus (20) adds a photograph of the first nameplate and the second nameplate that are subjects to the history of the updating. For example, the history of the updating is updated by a mobile terminal device (30) that is able to communicate with the management apparatus (20).

Brillouin gain spectra are measured at low cost. An optical fiber characteristic measurement apparatus 10 according to the present disclosure measures the characteristics of an optical fiber 1 by the Brillouin optical correlation domain reflectometry method. The optical fiber characteristic measurement apparatus 10 includes a local oscillator 122 that generates a sinusoidal electrical signal, a mixer 121 that receives Brillouin gain spectra resulting from Brillouin scattering in the optical fiber 1 and the sinusoidal electrical signal generated by the local oscillator 122 and outputs down-converted Brillouin gain spectra, and a frequency analyzer 123 that measures the down-converted Brillouin gain spectra.

Provided is a receptor comprising a base and a molecular imprinted polymeric film formed on the base and having a space that captures at least a part of a compound having an asymmetric carbon atom. The above-described receptor may comprise a metal layer formed between the base and the molecular imprinted polymeric film and having a nanostructure on a plane in contact with the molecular imprinted polymeric film. In any of the above-described receptor, the molecular imprinted polymeric film may have a noncovalently bonded functional group on a surface in which the space is formed.

A control device (1) includes a ROM (2) that stores therein programs, a processor (3), and an output circuit (4). The processor includes a plurality of cores (10) that load the respective programs from the ROM (2) and execute the respective loaded programs. The output circuit outputs (4), in a case where one program out of the plurality of programs stored in the ROM (2) has been updated, an interrupt signal to the core (10) that executes the one program. The core (10) reloads the updated program stored in the ROM (2) in a case where the core (10) has detected the interrupt signal.

A chemical sensor 1 includes a silicon substrate 2 on which a diaphragm 21 is formed, a strain sensor 3 that is provided on the silicon substrate 2, an adsorption membrane 4 that is provided at the diaphragm 21 and whose volume changes by adsorbing a specific substance. The strain sensor 3 includes a vacuum chamber that is formed in the diaphragm 21, and a resonator that is formed in an interior of the vacuum chamber.

In a measurement system (1), a setting device (10) transmits, to a gateway (20-1, 20-2), a scan instruction that causes the gateway to perform a device scan for acquiring device identification information on a sensor device (30-1, 30-2, 30-3, 30-4) being connected to the gateway (20-1, 20-2) from the sensor device, sets a measurement item of the sensor device based on the device identification information that is received from the gateway, and transmits, to a cloud server (40), item information that is information in which the device identification information and the measurement item are associated with each other and the cloud server registers the item information received from the setting device in the cloud server and transmits the item information to the gateway, and the gateway acquires a measured value of the sensor device from the sensor device based on the item information received from the cloud server.

A current measurement device (1) includes a magnetic shield (13) having a notch portion (20) for taking a magnetic field generated by a current flowing through a conductor (MC) to be measured into an internal space; a sensor (14) that is disposed in the internal space of the magnetic shield and outputs a voltage corresponding to a magnetic field at a position where the sensor (14) is disposed; and a circuit unit (12) that detects the current flowing through the conductor (MC) to be measured based on the voltage output from the sensor (14), and the magnetic shield (13) includes a first correction unit (A) that corrects the magnetic field measured by the sensor (14) to reduce influence of magnetic flux density saturation of the magnetic shield, and/or magnetic shield (13) or the circuit unit (12) includes a second correction unit (B) that corrects the voltage output from the sensor to reduce the influence of the magnetic flux density saturation of the magnetic shield (13).

A management apparatus (10) acquires an information model that is obtained by structuring pieces of equipment data related to one or more pieces of subsea equipment (40) installed on the seabed, converts the acquired information model to an information model generated in a predetermined file format in which a controller (30) that controls one or more pieces of the subsea equipment (40) is able to read and write, and releases the converted information model to the controller (30).

An operator terminal (10) acquires measurement data representing a characteristic of an optical fiber in a cable (C) connecting plural wind turbines (W), the cable (C) including a power transmission line and the optical fiber, and monitors, on the basis of the measurement data and section information indicating plural cable sections corresponding to locations, the cable (C) for each of the plural cable sections, the locations each being a location where a state of the cable (C) is common.

Various examples of the present disclosure relate to a computer-implemented method, a system, and a computer program or non-transitory computer-readable medium for determining an action. The method comprises obtaining (110) a sequence of 3D skeletal model representations of an entity, generating (140), using the sequence of 3D skeletal model representations of the entity, at least one sequence of 2D skeletal model representations of the entity showing the skeletal model of the entity from at least one perspective relative to the entity, providing (160) the at least one sequence of 2D skeletal model representations of the entity to a 2D action recognition model, and providing (190) information on an action being performed by the entity based on an output of the 2D action recognition model.

(Solution) There is provides an apparatus including a processor, wherein the processor receives a plurality of captured images capturing a flow channel through which a microbe flows, and extracts a plurality of microbial images capturing a same individual of the microbe from the plurality of captured images. In the above-described apparatus, the flow channel may include a vortex generator which generates a vortex in an image-capturing area in the flow channel, in which the plurality of captured images are captured. In any of the above-described apparatus, the processor may receive the plurality of captured images which capture the flow channel at different timings.

Provided is a fertilizer feeding device (100, 300, 400) including: a feeding conduit (120, 310, 420, 510) with apertures (125) for feeding fertilizer to marine products (110) to be cultivated underwater; and a fertilizer feeder (130) connected to the feeding conduit, which feeds fertilizer to the feeding conduit. In the above-described fertilizer feeding device, the feeding conduit may have at least one aperture of the apertures provided with respect to each of a plurality of depths underwater; and lock the marine product near the at least one aperture provided with respect to each of the plurality of depths.

A resonant pressure sensor (1A; 1B) includes: a housing (50); a housing-fixed portion (2) fixed to the housing; a substrate (3; 3A; 3B; 3C) including a substrate-fixed portion (31) fixed to the housing-fixed portion (2) and a substrate-separated portion (32; 32A; 32B; 32C)) separated from the housing-fixed portion (2) in a first direction and extending from the substrate-fixed portion (31); a gap (S) being defined between the housing-fixed portion (2) and the substrate (3; 3A; 3B; 3C), the gap (S) being configured to receive a pressure-receiving fluid (F; K) enveloping the substrate; a first resonator (4) disposed in the substrate-separated portion (32; 32A; 32B; 32C) and configured to detect a change of a resonance frequency based on a strain in the substrate (3; 3A; 3B; 3C) caused by static pressure applied by a pressure-receiving fluid (F; K); a first electrode (36a) extending along a second direction perpendicular to the first direction and configured to output an excitation signal to the first resonator (4) to excite the first resonator (4); a second electrode (36c) extending along the second direction and from which the first resonator (4) is configured to output a signal having the resonance frequency; and a processor configured to measure the static pressure based on the detected change of the resonance frequency. The first resonator (4) is disposed between the first electrode (36a) and the second electrode (36c) in a third direction perpendicular to the first direction and the second direction.

In an analog sensor (100) that is connected to a converter (200) that computes a measured value includes a sensor unit (130) that measures a physical quantity and that converts the physical quantity into an electric signal that is used to compute the measured value, a memory (120) that stores individual information that is information unique to the analog sensor (100),a first signal line (150) that is used to input and output the individual information between the converter (200) and the analog sensor (100), and a second signal line (140) that is used to input and output the electric signal between the converter (200) and the analog sensor (100).

Provided is a flow synthesizing apparatus comprising: a flow channel through which a fluid flows; and a measuring unit including a plurality of measurement points arranged from an upstream side to a downstream side in a reaction region in which a fluid during a reaction in the flow channel flows, wherein a flow channel portion where the plurality of measurement points are arranged in the reaction region includes a location in which a cross-sectional area of the flow channel becomes greater as the flow channel portion is closer to the downstream side. In the above-described flow synthesizing apparatus, the flow channel may include a pre-reaction region in which a fluid before a reaction flows, and the reaction region may include a location in which a cross-sectional area of the flow channel is smaller than a total cross-sectional area of the flow channel in the pre-reaction region.

An electric current sensor (1) includes a shield (3) having an opening (37) for capturing a magnetic field (H) in the shield (3), the magnetic field (H) having been generated by an electric current (I) flowing through a conductor (9), a magnetic field sensor (4) that is placed at a position in the shield (3) and outputs a sensor voltage corresponding to the magnetic field (H) at the position, and a detection circuit (6) that is placed outside the shield (3) and detects the electric current (I) on the basis of the sensor voltage from the magnetic field sensor (4). The magnetic field sensor (4) includes a first magnetic field sensor (41) to detect low-frequency magnetic fields, and a second magnetic field sensor (42) to detect high-frequency magnetic fields. The first magnetic field sensor (41) is placed nearer to the opening (37) than the second magnetic field sensor (42) and the second magnetic field sensor (42) is placed farther from the opening (37) than the first magnetic field sensor (41).

A current measurement system includes a magnetic field shield (3) that is configured to capture, to the inside thereof, a magnetic field (H) that is generated by a current (I) that flows through a cable (9), a magnetic field sensor (4) that is installed inside the magnetic field shield (3), a predetermined sensor, and a current measurement apparatus (2). The predetermined sensor is a sensor for detecting the cable (9), the magnetic field sensor (4) detects the magnetic field (H) at an installation location, the current measurement apparatus (2) acquires a detection result of the predetermined sensor and a detection result of the magnetic field sensor (4), identifies a center position of the cable (9) based on the acquired detection result of the predetermined sensor, and calculates a current value of the current (I) that flows through the cable (9) based on the identified center position and the acquired detection result of the magnetic field sensor (4).

Provided is an information processing apparatus including: an information acquisition unit which acquires position information regarding a position of each of a plurality of moving bodies and state information regarding a state of each of the plurality of moving bodies in a real space in which the plurality of moving bodies move; a reception unit which receives designation of a measurement position of measurement target information that is information of a measurement target in the real space on a virtual map corresponding to the real space; and a determination unit which determines a moving body of the moving bodies to move to the measurement position, based on the measurement position, and the position information and the state information of each of the plurality of moving bodies.

A measurement device includes a radiation unit 20 that houses inside a charged particle radiation source 21; a detection unit 30 that houses inside a detection device 31 that detects charged particle radiation radiated from the charged particle radiation source and that is arranged with a clearance between the detection unit 30 and the radiation unit 20; and a magnetic field generator 40 that generates a magnetic field from a side of one of the radiation unit 20 and the detection unit 30 toward a side of the other between the radiation unit 20 and the detection unit 30 and, in the radiation unit 20, an output port 23a that allows the charged particle radiation radiated from the charged particle radiation source 21 to be output to outside is formed in a position opposed to the detection unit 30, and, in the detection unit 30, an incidence port 33a that allows the charged particle radiation to be incident on the inside is formed in a position opposed to the output port 23a.

An error amplifier (Q2) generates an electric current signal that is constant electric current. A signal processing circuit (102) inputs input voltage for generating an electric current signal having a target electric current value, to the error amplifier (Q2), and detects a failure by comparing a voltage value of voltage output from the error amplifier (Q2) with a determination voltage value.

A surge protection device (1) is mounted on a transmitter (100). A cable that sends a signal received from an external device is connected to terminal block screw portions (12, 13). The connector (23) is detachable with respect to a connector component provided in the transmitter (100), and outputs an input signal received from each of the terminal block screw portions (12, 13) to the connector component. The surge protection element (21, 22) absorbs a surge electric current in a case where a surge voltage is applied from the terminal block screw portions (12, 13) to the connector component. The terminal connector portion (11) is connected to the terminal block screw portions (12, 13) via the surge protection element (21, 22).

Provided is an information processing apparatus including: a virtual map acquisition unit which acquires a virtual map that is three-dimensional and corresponds to a real space in which a plurality of moving bodies move, the virtual map including an initial position and a destination position of movement of the moving body; an information acquisition unit which acquires position information regarding a position of each of the plurality of moving bodies and state information regarding a state of each of the plurality of moving bodies in the real space; and a display unit which displays the state information of each of the plurality of moving bodies at a position, on the virtual map, corresponding to the position of each of the plurality of moving bodies.

A server apparatus (10) stores therein device setting information that includes tag information that is set in association with a plant device (20) that is included in a plant and a data type code that indicates a data format, receives device data that is transmitted by the plant device (20), determines an output destination of the device data in accordance with the data format based on the tag information, and outputs the device data to the determined output destination based on the data type code.

Provided is an information processing apparatus including: a virtual map storage unit which stores a virtual map that is three-dimensional and corresponds to a real space; a map information acquisition unit which acquires map information of the real space from a plurality of moving bodies moving in the real space; a difference extraction unit which extracts a difference of each piece of the map information from the virtual map; and a virtual map update unit which updates the virtual map based on the difference in a case where the difference for a same place is extracted from two or more pieces of the map information. The map information acquisition unit may acquire the map information for each place in the real space from the plurality of moving bodies moving in the real space. The difference extraction unit may judge a similarity degree in the difference between the map information and the virtual map for the same place. The virtual map update unit may update the virtual map based on the similarity degree.

The relay apparatus (100) includes a first communication unit (110) that communicates with a first device that is connected to a first link, a second communication unit (120) that communicates with a second device that is connected to a second link, a communication control unit (150) that receives, from the first device, software that is to be transmitted to the second device, and stores the received software in a storage unit (140), and an update control unit (160) that updates software of the second device by transmitting the software that is stored in the storage unit (140) to the second device.

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