Abstract: A method for producing a printed material includes forming a color image having an image area ratio of 20% or less on a peripheral edge portion of a recording medium by using a coloring material; providing pressure-induced phase transition particles to a region of the recording medium, the region including the peripheral edge portion; bonding the color image and the pressure-induced phase transition particles onto the recording medium; and folding the recording medium having the color image and the pressure-induced phase transition particles bonded thereon and pressure-bonding the folded recording medium, or pressure-bonding the recording medium having the color image and the pressure-induced phase transition particles bonded thereon and another recording medium placed on top of each other.

Abstract: A learning network includes: a first extraction unit that extracts each feature vector of different pieces of teaching data designated in a support set using a first inception neural network that extracts a feature vector of time-series data by convolution layers with different filter sizes; a second extraction unit that extracts a feature vector of teaching data designated in a query set using a second inception neural network that extracts a feature vector of time-series data by a plurality of convolution layers with different filter sizes; and a learning unit that updates a network parameter of the learning network such that a relative distance between feature vectors of teaching data of the query set and of a positive sample of the support set is small and a relative distance between feature vectors of teaching data of the query set and of a negative sample of the support set is large.

Abstract: A processing device includes: a first processing unit that refers to function data including a labeling function that labels an input dataset or abstain if it cannot label, to output first output data that associates each input dataset with a probability of corresponding to each label from a result of labeling the input dataset by the labeling function; and an identifying unit that identifies an input dataset in which a variation in the probability of corresponding to each label in the first output data satisfies a predetermined condition among the input datasets. A labeling function newly created for the input dataset identified from the first output data by the identifying unit is inserted into the function data.

Abstract: A compound indicated by formula (I) or a pharmacologically acceptable salt thereof is provided as a compound that can be a therapeutic or prophylactic drug for TRPC6-related diseases, such as nephrotic syndrome, membranous nephropathy, acute renal failure, septicemia, chronic renal failure, diabetic nephropathy, pulmonary hypertension, acute lung injury, heart failure, malignant tumor, and muscular dystrophy. (In the formula, Ar1, Ar2, X1-X3, R1, R3, R7, R8, L1, and L2 are as defined in the specifications.

Abstract: A text data analysis information generation device (1) includes: a dependence relationship tree information generation unit (12) configured to generate dependence relationship tree information that indicates, in a tree structure, a dependence relationship between words in text data to be analyzed; a graph information generation unit (13) configured to extract a subject, a predicate, and an object from the text data based on the generated dependence relationship tree information, and generate graph information that indicates, in a graph structure, triple information of ontology that consists of them; and a hierarchical concept information adding unit (14) configured to extract two suitable components from the text data, acquire broader concept information that is common between the two components, and add the acquired broader concept information to the graph information as a parent node that is common between the two components so as to generate text data analysis information.

Abstract: A pump communicates with a waste fluid storage container and generates a negative pressure to draw waste fluids into the waste fluid storage container. A sensor measures a negative pressure. A driving unit performs driving control upon the pump. A computation unit detects, for example, the amount of air leak from the change in negative pressure. The driving unit performs driving control using an ON period Ton in which the pump operates and an OFF period Toff in which the pump stops. The computation unit detects the amount of air leak using the change in negative pressure in the OFF period Toff.

Abstract: An ontology mapping system 1 includes: a generation unit 21 that generates non-link training data 31 identifying non-link pairs other than link pairs, from among pairs each associating a node of a first ontology T1 with a node of a second ontology T2 associated by plural link pairs, each associating a node of a first ontology with a node of a second ontology, which is to be mapped to the node of the first ontology, and merges link training data 11 and the non-link training data 31 to generate training data 32; an estimation unit 25 that estimates an expression vector of each node by using a first neural network 33a and a second neural network 33b that have been trained with reference to the training data 32; and a mapping unit 26 that determines, based on a degree of difference between expression vectors of a node of the first ontology and a node of the second ontology, whether or not the nodes are mapped.

Abstract: A fluid control device includes a container and a passive valve. A vacuum source has a suction hole. The container has a first connection hole, a second connection hole, a third connection hole, a storage chamber, and a water-sealing chamber. The passive valve includes a first valve housing, a second valve housing, and a diaphragm. A ventilation hole, a second ventilation hole, and a third ventilation hole are provided in the first valve housing and the second valve housing. The first ventilation hole of the passive valve communicates with the second connection hole of the container. The second ventilation hole of the passive valve communicates with the suction hole of the vacuum source. The third ventilation hole is opened to the atmosphere. The diaphragm is pinched between the first valve housing and the second valve housing and forms a first region and a second region.

Abstract: A suction discharge unit of a suction discharge device includes a first unit and a second unit. The second unit controls the pressure inside the first unit. The first unit includes a storage chamber and a water sealing chamber. The water sealing chamber includes a first chamber communicating with the storage chamber, and a second chamber is sealed from the first chamber by sealing water. A negative pressure control unit is disposed in the second chamber. The negative pressure control unit includes a liquid retaining part retaining a liquid, a control member including control holes, and a support tube supporting the control member. The negative pressure control unit controls the pressure of the first chamber by causing gas to flow from the second chamber into the first chamber via the control holes and the liquid based on the pressure of the second chamber and the pressure of the first chamber.

Abstract: An atomizer includes a first piezoelectric pump, a first flow path, a reservoir part, and a second flow path. The first piezoelectric pump ejects gas through an outlet. The first flow path has a first end and a second end. The first end of the first flow path is connected to the outlet of the first piezoelectric pump. A connection point is provided between the first and second ends of the first flow path. Liquid is to be stored in the reservoir part. The second flow path has a first end and a second end. The first end of the second flow path is connected to the liquid reservoir part. The second end of the second flow path is connected to the connection point.

Abstract: An NPWT module includes a suction module including a suction device that has an intake port, an exhaust port, and a suction main body connected to the intake port and the exhaust port, a power supply that supplies power to the suction device, and a control circuit that controls power supply performed by the power supply and a water-absorbing member having a flat shape, and the NPWT module has a first space in which the suction module is located and a second space that communicates with the intake port of the suction device and in which the water-absorbing member is located. The first space and the second space are positioned adjacent to each other.

Abstract: An information processing apparatus in embodiments includes a feature extraction unit configured to extract a plurality of features from a data group supplied from a device and generate a group of feature vectors obtained by representing the plurality of features with vectors, a hierarchical shaping unit configured to perform clustering according to a distance between feature vectors on the group of feature vectors generated by the feature extraction unit to generate a cluster tree obtained by hierarchizing cluster groups generated by the clustering according to a distance between the clusters, a metadata annotation unit configured to generate a metadata tree, the metadata tree including, for each of the clusters, metadata obtained by annotating a synopsis obtained by summarizing information under each of the clusters, based on the cluster tree generated by the hierarchical shaping unit, and a metadata search unit configured to search the metadata tree generated by the metadata annotation unit for metadata of

Abstract: A suction device (1) having a suction port (90) exposed outside, a flow passage (91 to 98) communicating with the suction port (90), and a discharge port (99) through which fluid is discharged from the flow passage (91 to 98) includes a diaphragm (83) having one principal surface facing a pump chamber (98) and the other principal surface opposed to the one principal surface, and a piezoelectric element (81) attached to the diaphragm (83) to displace the one principal surface of the diaphragm (83) relative to the pump chamber (98). The one principal surface and the other principal surface of the diaphragm (83) face in a direction different from a direction to which the suction port (90) faces.

Abstract: A piezoelectric blower includes a housing, top plate, side plate, vibrating plate, piezoelectric element, and cap. The top plate, side plate, and vibrating plate define a blower chamber. The top plate includes a vent hole. The vibrating plate and piezoelectric element constitutes a piezoelectric actuator. The cap includes a wall portion facing the piezoelectric actuator and has a disc-shaped suction port. Here, a central axis of the suction port extending along a thickness direction of the wall portion and a central axis of the piezoelectric element extending along the thickness direction of the wall portion do not coincide with each other. An air channel is provided among the housing, the cap, and a joined structure of the top plate, side plate, and piezoelectric actuator.

Abstract: A fluid control device includes a piezoelectric pump, an inhaler, and a valve. The piezoelectric pump has a gas suction hole and a gas discharge hole. The inhaler has a container, an inhalation port, and a connection hole. The valve has a first ventilation hole, a second ventilation hole, a third ventilation hole, a first valve housing, a second valve housing, and a valve body. The first ventilation hole of the valve is connected to the connection hole of the inhaler. The second ventilation hole of the valve is connected to the suction hole of the piezoelectric pump. The third ventilation hole of the valve is opened to the atmosphere. The valve body is held between the first valve housing and the second valve housing, and configures a first region and a second region.

Abstract: A suction discharge unit of a suction discharge device includes a first unit and a second unit. The second unit controls the pressure inside the first unit. The first unit includes a storage chamber and a water sealing chamber. The water sealing chamber includes a first chamber communicating with the storage chamber, and a second chamber is sealed from the first chamber by sealing water. A negative pressure control unit is disposed in the second chamber. The negative pressure control unit includes a liquid retaining part retaining a liquid, a control member including control holes, and a support tube supporting the control member. The negative pressure control unit controls the pressure of the first chamber by causing gas to flow from the second chamber into the first chamber via the control holes and the liquid based on the pressure of the second chamber and the pressure of the first chamber.

Abstract: A fluid control device includes a piezoelectric pump, a suction unit, and a valve. The piezoelectric pump has a suction hole for a gas and a discharge hole for the gas. The suction unit includes a container, a suction port, and a connection hole. The valve includes a first ventilation hole, a second ventilation hole, a third ventilation hole, a first valve housing, a second valve housing, and a diaphragm. The first ventilation hole of the valve is connected to the connection hole of the suction unit. The second ventilation hole of the valve is connected to the suction hole of the piezoelectric pump. The third ventilation hole of the valve is opened under atmospheric pressure. The diaphragm is clamped between the first valve housing and the second valve housing and forms a first region and a second region.

Abstract: Disclosed is a switchable transmit and receive phased array antenna (“STRPAA”). As an example, the STRPAA may include a housing, a multilayer printed wiring board (“MLPWB”) within the housing having a top surface and a bottom surface, a plurality of radiating elements located on the top surface of the MLPWB, and a plurality of transmit and receive (“T/R”) modules attached to the bottom surface of the MLPWB. The STRPAA may also include a plurality of vias, wherein each via, of the plurality of vias, passes through the MLPWB and is configured as a signal path between a T/R module, of the plurality of T/R modules, on the bottom surface of the MLPWB and a radiating element, of the plurality of radiating elements, located on the top surface of the MLPWB opposite the T/R module.

Abstract: The purpose of the present invention is to provide a compound having an excellent CDK4/6 inhibiting activity. The present invention is a compound represented by general formula (I) or a pharmaceutically acceptable salt thereof.

Abstract: A method executed by a computer, the method includes receiving first information that indicates a plurality of functions provided in a first computing system when the plurality of functions are migrated from the first computing system to a second computing system, specifying a first linkage state of the plurality of functions in the first computing system, specifying a second linkage state of the plurality of functions in the second computing system, specifying a first performance determined based on the first linkage state, the first performance being performance of the plurality of functions in the first computing system, specifying a second performance determined based on the second linkage state, the second performance being performance of the plurality of functions in the second computing system, determining a first difference between the first performance and the second performance, and outputting the first difference.