mhurhangee/patent-ind-claim-en huggingface dataset:
A discharge apparatus configured to carry out a printing method, the discharge apparatus comprising: an ink accommodating unit that accommodates a clear ink, the clear ink including water and resin particles; a discharge head (434; 4a; 4b) including a nozzle configured to discharge the clear ink to a print target ; a heating unit configured to heat the print target ; and a wiping member configured to wipe a nozzle-formed surface of the discharge head (434; 4a; 4b) including the nozzle , characterized in that the resin particles have a volume average particle diameter of 50 nm or less, the resin particles include resin particles A and resin particles B, and the resin particles A have a glass transition temperature of 50 degrees Celsius or higher and the resin particles B have a glass transition temperature of lower than 0 degrees Celsius, such that a dried film of the clear ink has glass transition temperatures at 50 degrees Celsius or higher and at lower than 0 degrees Celsius. an ink accommodating unit that accommodates a clear ink, the clear ink including water and resin particles; a discharge head (434; 4a; 4b) including a nozzle configured to discharge the clear ink to a print target ; a heating unit configured to heat the print target ; and a wiping member configured to wipe a nozzle-formed surface of the discharge head (434; 4a; 4b) including the nozzle , characterized in that the resin particles have a volume average particle diameter of 50 nm or less, the resin particles include resin particles A and resin particles B, and the resin particles A have a glass transition temperature of 50 degrees Celsius or higher and the resin particles B have a glass transition temperature of lower than 0 degrees Celsius, such that a dried film of the clear ink has glass transition temperatures at 50 degrees Celsius or higher and at lower than 0 degrees Celsius.
A physiological information measurement device comprising: one or more processors configured to calculate a first time-averaged value (A1) of physiological information of a subject based for a first time period ending at a present time and calculate a second time-averaged value (A2) of the physiological information for a second time period that ends at the present time and is different from the first time period, wherein the first time-averaged value A1(t0) at the present time t0 is indicated by A 1 t 0 = 1 T 1 ∫ t 0 − T 1 t 0 f t dt , where the time-varying physiological information is expressed as f(t) and T1 is the first time period, wherein the second time-averaged value A2(t0) at the present time t0 is indicated by A 2 t 0 = 1 T 2 ∫ t 0 − T 2 t 0 f t dt , where the time-varying physiological information is expressed as f(t) and T2 is the second time period; and a display configured to display a first graph curve (G1) indicating a temporal change of the first time-averaged value (A1) and a second graph curve (G2) indicating a temporal change of the second time-averaged value (A2) simultaneously, wherein the processor outputs data for displaying the first and second time-averaged values A1(t0), A2(t0) of the physiological information on the display. one or more processors configured to calculate a first time-averaged value (A1) of physiological information of a subject based for a first time period ending at a present time and calculate a second time-averaged value (A2) of the physiological information for a second time period that ends at the present time and is different from the first time period, wherein the first time-averaged value A1(t0) at the present time t0 is indicated by A 1 t 0 = 1 T 1 ∫ t 0 − T 1 t 0 f t dt , where the time-varying physiological information is expressed as f(t) and T1 is the first time period, wherein the second time-averaged value A2(t0) at the present time t0 is indicated by A 2 t 0 = 1 T 2 ∫ t 0 − T 2 t 0 f t dt , where the time-varying physiological information is expressed as f(t) and T2 is the second time period; and a display configured to display a first graph curve (G1) indicating a temporal change of the first time-averaged value (A1) and a second graph curve (G2) indicating a temporal change of the second time-averaged value (A2) simultaneously, wherein the processor outputs data for displaying the first and second time-averaged values A1(t0), A2(t0) of the physiological information on the display.
A tissue removal tool for use with an endoscope, comprising: a loop formed by a piece of wire and movable between an open position and a closed position, and a transmitting assembly comprising: a handle ; and a link having a first end attached to the handle and a second end attached to the loop , the loop portion being movable between the open and closed position by action of the handle , a cutting section disposed at least at a distal portion of the loop , wherein the loop is defined in the open position by a proximal portion and the distal portion , and wherein the widest portion of the loop is more proximal to a proximal end of the loop than the mid-point of the length (L) of the loop is, characterised in that the cutting section is a cutting element with eyelets . a loop formed by a piece of wire and movable between an open position and a closed position, and a transmitting assembly comprising: a handle ; and a link having a first end attached to the handle and a second end attached to the loop , the loop portion being movable between the open and closed position by action of the handle , a cutting section disposed at least at a distal portion of the loop , wherein the loop is defined in the open position by a proximal portion and the distal portion , and wherein the widest portion of the loop is more proximal to a proximal end of the loop than the mid-point of the length (L) of the loop is, characterised in that the cutting section is a cutting element with eyelets .
An apparatus for manufacturing a surface-layered part, wherein the surface-layered part comprises a base member assembled with a surface layer member , wherein a front side of the flat base member is covered by the surface layer member , and a wrapping portion formed at an edge of the surface layer member is configured to be fitted onto an edge of the base member , the apparatus comprising: a workpiece supporting table on which the base member and the surface layer member are placed such that the surface layer member is layered with the base member , and a push-to-fit device configured to push the wrapping portion formed at the edge of the surface layer member in a direction to fit the wrapping portion onto the edge of the base member from an opened position in which the wrapping portion is away from the edge of the base member , the push-to-fit device comprises a pushing portion configured to push the wrapping portion formed at the edge of the surface layer member , the pushing portion comprises a rigid base member , characterised in that the pushing portion comprises an elastic member formed on a surface of the rigid base member . a workpiece supporting table on which the base member and the surface layer member are placed such that the surface layer member is layered with the base member , and a push-to-fit device configured to push the wrapping portion formed at the edge of the surface layer member in a direction to fit the wrapping portion onto the edge of the base member from an opened position in which the wrapping portion is away from the edge of the base member , the push-to-fit device comprises a pushing portion configured to push the wrapping portion formed at the edge of the surface layer member , the pushing portion comprises a rigid base member , characterised in that the pushing portion comprises an elastic member formed on a surface of the rigid base member .
A method for preparing an enantiomerically enriched form of 2-[2-(2-chlorothiazol-5-yl)-2-hydroxy-ethyl]sulfanyl-6-hydroxy-3-methyl-5-phenyl-pyrimidin-4-one of the formula (I): where the asterisk * shows the stereogenic center; or of a tautomer thereof; which method comprises reducing 2-[2-(2-chlorothiazol-5-yl)-2-oxo-ethyl]sulfanyl-6-hydroxy-3-methyl-5-phenyl-pyrimidin-4-one of the formula 1 or a tautomer thereof with a reduction agent selected from the group consisting of formic acid HC(=O)OH, formates of the formula HC(=O)O-M + and mixtures of formic acid HC(=O)OH and one or more formates of the formula HC(=O)OM + , where M + is a cation equivalent; in the presence of a chiral transition metal catalyst and optionally of a base, where in case that formic acid is used as reduction agent, the reaction is carried out in the presence of a base; to obtain an enantiomerically enriched form of the pyrimidinone of the formula (I) or of a tautomer thereof. where the asterisk * shows the stereogenic center; or of a tautomer thereof; which method comprises reducing 2-[2-(2-chlorothiazol-5-yl)-2-oxo-ethyl]sulfanyl-6-hydroxy-3-methyl-5-phenyl-pyrimidin-4-one of the formula 1 or a tautomer thereof with a reduction agent selected from the group consisting of formic acid HC(=O)OH, formates of the formula HC(=O)O-M + and mixtures of formic acid HC(=O)OH and one or more formates of the formula HC(=O)OM + , where M + is a cation equivalent; in the presence of a chiral transition metal catalyst and optionally of a base, where in case that formic acid is used as reduction agent, the reaction is carried out in the presence of a base; to obtain an enantiomerically enriched form of the pyrimidinone of the formula (I) or of a tautomer thereof.
A filling rate measurement method comprising: obtaining (S111) a space three-dimensional model generated (2011; 2051) by measuring a first storage having an opening (102a; 112a) and a first storage space in which a measurement target is to be stored, the measuring being performed through the opening using a range sensor facing the first storage ; obtaining (S112) a storage three-dimensional model (2012; 2022; 2032) that is a three-dimensional model of the first storage in which the measurement target is not stored; extracting (S114) a target portion corresponding to the measurement target from the space three-dimensional model using the space three-dimensional model obtained and the storage three-dimensional model obtained; calculating (S113) a first three-dimensional coordinate system based on only a shape of a part of the first storage as viewed from the range sensor ; estimating (S115) a target three-dimensional model using the target portion extracted and the first three-dimensional coordinate system calculated, the target three-dimensional model being a three-dimensional model of the measurement target in the first storage space ; and calculating (S116) a first filling rate of the measurement target with respect to the first storage space , using the storage three-dimensional model and the target three-dimensional model. obtaining (S111) a space three-dimensional model generated (2011; 2051) by measuring a first storage having an opening (102a; 112a) and a first storage space in which a measurement target is to be stored, the measuring being performed through the opening using a range sensor facing the first storage ; obtaining (S112) a storage three-dimensional model (2012; 2022; 2032) that is a three-dimensional model of the first storage in which the measurement target is not stored; extracting (S114) a target portion corresponding to the measurement target from the space three-dimensional model using the space three-dimensional model obtained and the storage three-dimensional model obtained; calculating (S113) a first three-dimensional coordinate system based on only a shape of a part of the first storage as viewed from the range sensor ; estimating (S115) a target three-dimensional model using the target portion extracted and the first three-dimensional coordinate system calculated, the target three-dimensional model being a three-dimensional model of the measurement target in the first storage space ; and calculating (S116) a first filling rate of the measurement target with respect to the first storage space , using the storage three-dimensional model and the target three-dimensional model.
A sensor comprising: a printed circuit board ; a photosensor mounted on a first side of the printed circuit board; and a light source mounted on a second, opposite side of the printed circuit board; and characterised in that , the light source is arranged to transmit light through at least a portion of the printed circuit board, said portion being impermeable to air; and further characterised by , an opaque chamber mounted on the first side of the printed circuit board over the photosensor; and wherein the light source is arranged such that the light transmitted through the printed circuit board is transmitted into the inside of the opaque chamber. a printed circuit board ; a photosensor mounted on a first side of the printed circuit board; and a light source mounted on a second, opposite side of the printed circuit board; and characterised in that , the light source is arranged to transmit light through at least a portion of the printed circuit board, said portion being impermeable to air; and further characterised by , an opaque chamber mounted on the first side of the printed circuit board over the photosensor; and wherein the light source is arranged such that the light transmitted through the printed circuit board is transmitted into the inside of the opaque chamber.
A servomotor drive device comprising: an encoder configured to detect rotation of a servomotor that is a driving source for a driving target object; a servo amplifier configured to perform feedback control of the rotation of the servomotor based on a count value, hereinafter referred to as an encoder value, of the encoder; and an amp control section configured to control operation of the servo amplifier, wherein the amp control section includes a function for sending an initialization instruction for initializing the encoder to the servo amplifier in a state of fixed cycle connection over a servo network between the servo amplifier and the encoder when an error occurs with the encoder, and further includes a function for, after sending the initialization instruction, checking the state of initialization of the encoder via the servo network to determine if initialization is complete before resuming control of the servo amplifier; and the servo amplifier includes a function for performing initialization of the encoder without disconnecting the servo network when receiving the initialization instruction sent from the amp control section, and further includes a function for maintaining a state in which it is possible to determine a state of initialization of the encoder and an encoder value as encoder information. an encoder configured to detect rotation of a servomotor that is a driving source for a driving target object; a servo amplifier configured to perform feedback control of the rotation of the servomotor based on a count value, hereinafter referred to as an encoder value, of the encoder; and an amp control section configured to control operation of the servo amplifier, wherein the amp control section includes a function for sending an initialization instruction for initializing the encoder to the servo amplifier in a state of fixed cycle connection over a servo network between the servo amplifier and the encoder when an error occurs with the encoder, and further includes a function for, after sending the initialization instruction, checking the state of initialization of the encoder via the servo network to determine if initialization is complete before resuming control of the servo amplifier; and the servo amplifier includes a function for performing initialization of the encoder without disconnecting the servo network when receiving the initialization instruction sent from the amp control section, and further includes a function for maintaining a state in which it is possible to determine a state of initialization of the encoder and an encoder value as encoder information.
A method of operating a building elevator system , the method comprising: controlling a first elevator system and a second elevator system , floor coverage of the first elevator system overlapping floor coverage of the second elevator system at a least one transfer floor ; receiving an evacuation call from an evacuation floor; detecting when a first elevator car of the first elevator system is dispatched to the transfer floor ; and dispatching a second elevator car of the second elevator system to the transfer floor , characterized by detecting, using a sensor system , a number of occupants within the first elevator car ; and determining a number of elevators cars from the second elevator system to be dispatched to the transfer floor in response to the number of occupants within the first elevator car . controlling a first elevator system and a second elevator system , floor coverage of the first elevator system overlapping floor coverage of the second elevator system at a least one transfer floor ; receiving an evacuation call from an evacuation floor; detecting when a first elevator car of the first elevator system is dispatched to the transfer floor ; and dispatching a second elevator car of the second elevator system to the transfer floor , characterized by detecting, using a sensor system , a number of occupants within the first elevator car ; and determining a number of elevators cars from the second elevator system to be dispatched to the transfer floor in response to the number of occupants within the first elevator car .
A system for the fabrication of a three-dimensional object , the system comprising an apparatus, a fabrication powder, and a small-diameter-particle powder, wherein the apparatus comprises: a small-diameter-particle powder supplier to supply small-diameter-particle powder to a surface of an object formed by binding fabrication powder with fabrication liquid , and a small-diameter-particle powder binder to bind the small-diameter-particle powder on the surface of the object ; wherein: the small-diameter-particle powder and the fabrication powder are identical in composition, and an average particle diameter of the small-diameter-particle powder is smaller than an average particle diameter of the fabrication powder . a small-diameter-particle powder supplier to supply small-diameter-particle powder to a surface of an object formed by binding fabrication powder with fabrication liquid , and a small-diameter-particle powder binder to bind the small-diameter-particle powder on the surface of the object ; wherein: the small-diameter-particle powder and the fabrication powder are identical in composition, and an average particle diameter of the small-diameter-particle powder is smaller than an average particle diameter of the fabrication powder . the small-diameter-particle powder and the fabrication powder are identical in composition, and an average particle diameter of the small-diameter-particle powder is smaller than an average particle diameter of the fabrication powder .
Screwing tool comprising a drive member , an output member rotatably mounted on a drive member about an axis of rotation (D) and having a switchable locking mechanism which comprises a locking body engaging in a toothing of the output member , which locking body is switchable between two switching positions by means of a switching extension protruding from the locking body by a switching element which is pivotable about a switching axis (S), in which the rotatability of the output member is blocked either in one or the other direction of rotation, wherein the switching extension pivotably engages in an actuation recess of the switching element relative to the switching element and a spring element arranged in the switching element acts upon the switching extension in a locking position, characterized in that the wedge-shaped end section of the switching extension protruding into the actuating recess forms oblique flanks extending towards one another in a roof shape, wherein a central rounded portion of the spring element engages the ridge line of the two oblique flanks, so that the spring element acts on the switching extension in the two switching positions in different directions.
A tool for channelling the liquid projected and/or sprayed by equipment for applying phytosanitary products, comprising an essentially concave hollow body, with a central part recessed with respect to the two side parts, defining a first U-shaped channel,and comprising means for projecting and/or spraying water which comprise a plurality of mechanisms that project and/or spray water, whereby the mechanisms are connected by means of a pipe with a solenoid valve to a water supply network and the solenoid valve is controlled by a control panel , characterised in that the tool comprises on each side part at least one longitudinal fold oriented towards the concave part of the body, which in combination with the side part defines a V- to U-shaped second channel designed to prevent the liquid from escaping from the body by the side parts and to channel the liquid inside it into the concave part of the body, the tool comprises a plurality of longitudinal fins in the concave part of the body and oriented towards the central, most deeply recessed part of the body, such that each one of the longitudinal fins forms a V-shaped channelling unit and the formed assembly channels the liquid in a U-shape, using the concave surface of the tool as the common side part of the V-shaped channelling units, and in that the plurality of mechanisms that project and/or spray water are disposed in the longitudinal folds in the front part of the tool and oriented such that with their projection and/or spray they direct in the direction of the splashes produced when the equipment for applying phytosanitary products projects and/or sprays liquid into the concave part of the body of the tool.
A medical device for measuring blood pressure, comprising: an elongated shaft having a proximal region and a distal region ; an optical fiber extending along the proximal region ; wherein the optical fiber is secured to an inner surface of the shaft ; an optical pressure sensor coupled to the optical fiber , the optical pressure sensor being disposed along the distal region ; and a sealing member attached to the optical fiber and having a surface engaged with the inner surface of the shaft , wherein the sealing member includes a conical portion . an elongated shaft having a proximal region and a distal region ; an optical fiber extending along the proximal region ; wherein the optical fiber is secured to an inner surface of the shaft ; an optical pressure sensor coupled to the optical fiber , the optical pressure sensor being disposed along the distal region ; and a sealing member attached to the optical fiber and having a surface engaged with the inner surface of the shaft , wherein the sealing member includes a conical portion .
A radial foil bearing comprising: a bearing housing that has an insertion hole into which a shaft is inserted; a base sheet that is disposed in the insertion hole ; a back foil that is supported by the base sheet and has unevenness in a radial direction of the insertion hole ; and a top foil that is supported by the back foil , wherein the base sheet has a first branch (P) deviated in an inner side in the radial direction of the insertion hole , characterized in that the back foil has a notch in an end edge in an axial direction in which the insertion hole extends, and a first extension portion extending from the first branch (P) of the base sheet is inserted in the notch . a bearing housing that has an insertion hole into which a shaft is inserted; a base sheet that is disposed in the insertion hole ; a back foil that is supported by the base sheet and has unevenness in a radial direction of the insertion hole ; and a top foil that is supported by the back foil , wherein the base sheet has a first branch (P) deviated in an inner side in the radial direction of the insertion hole , characterized in that the back foil has a notch in an end edge in an axial direction in which the insertion hole extends, and a first extension portion extending from the first branch (P) of the base sheet is inserted in the notch .