mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: an ink ejecting head configured to eject an ultraviolet curing ink; an ink flow path configured to channel the ultraviolet curing ink to the ink ejecting head; a heat emitting section which is provided in the ink flow path; and a gas supplying section which is provided further in an upstream direction than the heat emitting section in the ink flow path and is configured to supply oxygen or a gas containing oxygen to the ultraviolet curing ink which flows in the ink flow path, wherein the upstream direction is a direction opposite to a downstream direction of flow of the ultraviolet curing ink to the ink ejecting head through the ink flow path in use of the printing apparatus, characterized in that the gas supplying section includes a plurality of hollow fiber membranes and is configured to supply the oxygen or the gas containing oxygen to the ultraviolet curing ink through the plurality of hollow fiber membranes. an ink ejecting head configured to eject an ultraviolet curing ink; an ink flow path configured to channel the ultraviolet curing ink to the ink ejecting head; a heat emitting section which is provided in the ink flow path; and a gas supplying section which is provided further in an upstream direction than the heat emitting section in the ink flow path and is configured to supply oxygen or a gas containing oxygen to the ultraviolet curing ink which flows in the ink flow path, wherein the upstream direction is a direction opposite to a downstream direction of flow of the ultraviolet curing ink to the ink ejecting head through the ink flow path in use of the printing apparatus, characterized in that the gas supplying section includes a plurality of hollow fiber membranes and is configured to supply the oxygen or the gas containing oxygen to the ultraviolet curing ink through the plurality of hollow fiber membranes.
A packing material for size exclusion liquid chromatography, which is made of a porous gel obtained by polymerizing monomers including 40% by mass or more of a crosslinkable monomer having two or more ethylenic double bonds in the molecule thereof and having a (meth)acryloyloxy group, and 10% or more and less than 60% by mass of a non-crosslinkable monomer having a glycidyl group, wherein the crosslinkable monomer having a (meth)acryloyloxy group is at least one selected from the group consisting of an ester of a glycerin and a (meth)acrylic acid and an ester of a pentaerythritol and a (meth)acrylic acid, wherein the gel has hydroxyl groups which are generated by a reaction of the glycidyl group of the non-crosslinkable monomer with a polyol to obtain hydroxyl groups and a subsequent reaction of the obtained hydroxyl groups with glycidol. 10% or more and less than 60% by mass of a non-crosslinkable monomer having a glycidyl group, wherein the crosslinkable monomer having a (meth)acryloyloxy group is at least one selected from the group consisting of an ester of a glycerin and a (meth)acrylic acid and an ester of a pentaerythritol and a (meth)acrylic acid, wherein the gel has hydroxyl groups which are generated by a reaction of the glycidyl group of the non-crosslinkable monomer with a polyol to obtain hydroxyl groups and a subsequent reaction of the obtained hydroxyl groups with glycidol.
A washing machine comprising: a rotatable washing tub for accommodating laundry, and is rotatably disposed about a vertical axis; a pulsator which is rotatably disposed in the washing tub; a drive shaft for rotating the pulsator; a spinning shaft which is connected to the washing tub, having a first hollow through which the drive shaft passes; a solenoid which has a coil wound about the spinning shaft ; a clutch configured to be lifted along the spinning shaft from a lower side of the solenoid , so as to function as a shaft-joint between the drive shaft and the spinning shaft at a connection position and as a shaft-joint release between the drive shaft and the spinning shaft at a disconnection position of being lifted from the connection position by a magnetic force of the solenoid ; a bearing which is disposed above the solenoid , supporting the spinning shaft ; and a bearing housing which receives the bearing , wherein the bearing housing comprises a first fixing core which surrounds an outer circumference of the bearing , characterised in that the bearing housing receives the solenoid and comprises a second fixing core which extends downward from the first fixing core and surrounds an outer circumference of the solenoid ; and the first fixing core and the second fixing core are integrally formed. a rotatable washing tub for accommodating laundry, and is rotatably disposed about a vertical axis; a pulsator which is rotatably disposed in the washing tub; a drive shaft for rotating the pulsator; a spinning shaft which is connected to the washing tub, having a first hollow through which the drive shaft passes; a solenoid which has a coil wound about the spinning shaft ; a clutch configured to be lifted along the spinning shaft from a lower side of the solenoid , so as to function as a shaft-joint between the drive shaft and the spinning shaft at a connection position and as a shaft-joint release between the drive shaft and the spinning shaft at a disconnection position of being lifted from the connection position by a magnetic force of the solenoid ; a bearing which is disposed above the solenoid , supporting the spinning shaft ; and a bearing housing which receives the bearing , wherein the bearing housing comprises a first fixing core which surrounds an outer circumference of the bearing , characterised in that the bearing housing receives the solenoid and comprises a second fixing core which extends downward from the first fixing core and surrounds an outer circumference of the solenoid ; and the first fixing core and the second fixing core are integrally formed.
Method for controlling a tail lift having a loading platform , wherein the loading platform can be both pivoted and lowered or raised, and wherein the pivot angle of the loading platform is determined during the movement thereof, characterized in that , in addition to the pivot angle, dynamic values are also determined during the movement of the loading platform and used for at least one subsequent movement sequence of the loading platform and, on the basis of the determined dynamic values, it is detected when the loading platform is completely lowered and/or completely raised.
An active element structure comprising at least two stacked active elements, each of said active elements of said at least two stacked active elements comprising: - a substrate film which comprises a conductive or semiconductive electrode layer , - an elastic layer comprising a multitude of elastic support nodules arranged in a grid array, so that there is arranged a compression space between the active element and its adjacent active element, said compression space having a space gap between said multitude of elastic support nodules , said multitude of elastic support nodules forming, together with a base layer of the same material, an integral part of said elastic layer , and - at least one insulating layer , said at least one insulating layer covering said conductive or semiconductive electrode layer , extending beyond the edge of the area of said conductive or semiconductive electrode layer , and making direct contact with said elastic layer in this region for electrical insulation; - wherein said conductive or semiconductive electrode layer is positioned between said elastic layer and an insulating layer of said at least one insulating layer , and - wherein said active element structure is arranged to compress due to electrostatic attraction between adjacent active elements of said at least two stacked active elements when voltage difference is applied between them. - a substrate film which comprises a conductive or semiconductive electrode layer , - an elastic layer comprising a multitude of elastic support nodules arranged in a grid array, so that there is arranged a compression space between the active element and its adjacent active element, said compression space having a space gap between said multitude of elastic support nodules , said multitude of elastic support nodules forming, together with a base layer of the same material, an integral part of said elastic layer , and - at least one insulating layer , said at least one insulating layer covering said conductive or semiconductive electrode layer , extending beyond the edge of the area of said conductive or semiconductive electrode layer , and making direct contact with said elastic layer in this region for electrical insulation; - wherein said conductive or semiconductive electrode layer is positioned between said elastic layer and an insulating layer of said at least one insulating layer , and - wherein said active element structure is arranged to compress due to electrostatic attraction between adjacent active elements of said at least two stacked active elements when voltage difference is applied between them.
A compound of formula ( I ) wherein R 1 is selected from X is selected from O, S or CF 2 ; Y is selected from O or S; Q is selected from CH or N; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F and optionally by one substituent selected from OH, OCi-3alkyl, N(C 1-3 alkyl) 2 , cyclopropyl, or tetrahydropyran; R 7 is selected from hydrogen, F, Cl or CH 3 ; or a pharmaceutically-acceptable salt thereof. R 1 is selected from X is selected from O, S or CF 2 ; Y is selected from O or S; Q is selected from CH or N; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F and optionally by one substituent selected from OH, OCi-3alkyl, N(C 1-3 alkyl) 2 , cyclopropyl, or tetrahydropyran; R 7 is selected from hydrogen, F, Cl or CH 3 ; or a pharmaceutically-acceptable salt thereof.
A component mounting machine comprising: a component supply device configured to supply a component; a board holding device configured to hold a board; a head configured to hold a component holding tool to be capable of lifting and lowering the component holding tool ; a load detector configured to detect a load applied to the component holding tool ; a head moving device configured to move the head between the component supply device and the board holding device ; and a control device configured to obtain hardness characteristics when the component holding tool comes into contact with the board or the component holding tool that holds the component comes into indirect contact with the board via the component, based on load information detected by the load detector when the head is controlled such that the component holding tool comes into contact with the board, wherein the load information is time-dependent data that represents a time-dependent change of the load; the machine further comprises a storage device configured to store a correspondence between the time-dependent data and the hardness characteristics; and the control device is configured to obtain the hardness characteristics that correspond to the time-dependent data using the correspondence stored in the storage device . a component supply device configured to supply a component; a board holding device configured to hold a board; a head configured to hold a component holding tool to be capable of lifting and lowering the component holding tool ; a load detector configured to detect a load applied to the component holding tool ; a head moving device configured to move the head between the component supply device and the board holding device ; and a control device configured to obtain hardness characteristics when the component holding tool comes into contact with the board or the component holding tool that holds the component comes into indirect contact with the board via the component, based on load information detected by the load detector when the head is controlled such that the component holding tool comes into contact with the board, wherein the load information is time-dependent data that represents a time-dependent change of the load; the machine further comprises a storage device configured to store a correspondence between the time-dependent data and the hardness characteristics; and the control device is configured to obtain the hardness characteristics that correspond to the time-dependent data using the correspondence stored in the storage device .
An anomaly detection system for detecting an anomaly in a reduction drive , the anomaly detection system comprising: a plurality of sensors for being attached onto a surface of a housing of the reduction drive at a plurality of locations, the sensors being configured to detect vibration on the surface of the housing of the reduction drive ; a statistical analysis unit configured to perform a statistical analysis on the vibration detected by the sensors ; a frequency analysis unit configured to perform a frequency analysis on the vibration detected by the sensors ; and an anomaly determination unit configured to perform anomaly determination on the reduction drive based on a result of the statistical analysis and a result of the frequency analysis, characterized in that the statistical analysis unit performs the statistical analysis using acceleration of the vibration detected by the sensors , the frequency analysis unit generates a power spectrum indicating a magnitude of acceleration relative to a frequency of the vibration detected by the sensors , and the anomaly determination unit is configured to determine presence or absence of an anomaly in the reduction drive based on a result of the statistical analysis, identify a type of an anomaly in the reduction drive based on the power spectrum, and determine an anomaly location in the reduction drive based on results of the statistical analysis and results of the frequency analysis based on the plurality of sensors . a plurality of sensors for being attached onto a surface of a housing of the reduction drive at a plurality of locations, the sensors being configured to detect vibration on the surface of the housing of the reduction drive ; a statistical analysis unit configured to perform a statistical analysis on the vibration detected by the sensors ; a frequency analysis unit configured to perform a frequency analysis on the vibration detected by the sensors ; and an anomaly determination unit configured to perform anomaly determination on the reduction drive based on a result of the statistical analysis and a result of the frequency analysis, characterized in that the statistical analysis unit performs the statistical analysis using acceleration of the vibration detected by the sensors , the frequency analysis unit generates a power spectrum indicating a magnitude of acceleration relative to a frequency of the vibration detected by the sensors , and the anomaly determination unit is configured to determine presence or absence of an anomaly in the reduction drive based on a result of the statistical analysis, identify a type of an anomaly in the reduction drive based on the power spectrum, and determine an anomaly location in the reduction drive based on results of the statistical analysis and results of the frequency analysis based on the plurality of sensors .
A method for indicating paging detection, performed by a base station, comprising: determining a User Equipment, UE, that needs to monitor a Paging Occasion, PO, or receive a paging message; sending Downlink Control Information, DCI, carrying a first information field to the UE, and indicating, by means of a correspondence between a value of the first information field and a paging detection parameter of the UE, that the UE needs to monitor a PO associated with the DCI or receive a paging message scheduled by the DCI; wherein the paging detection parameter is determined according to one or a combination of the following parameters: a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF. determining a User Equipment, UE, that needs to monitor a Paging Occasion, PO, or receive a paging message; sending Downlink Control Information, DCI, carrying a first information field to the UE, and indicating, by means of a correspondence between a value of the first information field and a paging detection parameter of the UE, that the UE needs to monitor a PO associated with the DCI or receive a paging message scheduled by the DCI; wherein the paging detection parameter is determined according to one or a combination of the following parameters: a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF. a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF.
A light-emitting diode (LED) package structure , including: an insulating substrate that has a front bonding pad assembly formed thereon; a dark-colored die-attach adhesive ; a blue LED chip (B) emitting a blue light and being mounted on said front bonding pad assembly via said dark-colored die-attach adhesive ; a green LED chip (G) emitting a green light and being mounted on said front bonding pad assembly via said dark-colored die-attach adhesive ; and a dark-colored and light-transmissible encapsulant that is disposed on said insulating substrate and that encapsulates said blue LED chip (B) and said green LED chip (G), said encapsulant having a light transmittance that ranges from 7% to 28% for said blue light and having a light transmittance that ranges from 9% to 30% for said green light, wherein said insulating substrate is formed with four via holes at four corners thereof, and said encapsulant fully covers a front surface of said insulating substrate and sealingly encapsulates said front bonding pad assembly , such that said encapsulant covers said four via holes at four corners of said insulating substrate . an insulating substrate that has a front bonding pad assembly formed thereon; a dark-colored die-attach adhesive ; a blue LED chip (B) emitting a blue light and being mounted on said front bonding pad assembly via said dark-colored die-attach adhesive ; a green LED chip (G) emitting a green light and being mounted on said front bonding pad assembly via said dark-colored die-attach adhesive ; and a dark-colored and light-transmissible encapsulant that is disposed on said insulating substrate and that encapsulates said blue LED chip (B) and said green LED chip (G), said encapsulant having a light transmittance that ranges from 7% to 28% for said blue light and having a light transmittance that ranges from 9% to 30% for said green light, wherein said insulating substrate is formed with four via holes at four corners thereof, and said encapsulant fully covers a front surface of said insulating substrate and sealingly encapsulates said front bonding pad assembly , such that said encapsulant covers said four via holes at four corners of said insulating substrate .
Medical handling set for connecting two implants, which are arranged spatially separated from each other, by means a flexible connecting line , along which a mechanical interface in the form of a plug-socket connection is provided, with - a tube as well as, guided therein, a mandrin which provides a mandrin tip which is fixedly attached to the distal mandrin region in a releasable manner by means of a first joint and in the joined state protrudes beyond the distal tube end, - a first joining contour with is applied at the distal mandrin region and forms part of a second joint , as well as - for forming the second joint , an adapter element with a counter joining contour which is contoured counter to the first joining contour , and with a second joining contour which is contoured counter to the plug or socket part of the mechanical interface and is part of a third joint . - a tube as well as, guided therein, a mandrin which provides a mandrin tip which is fixedly attached to the distal mandrin region in a releasable manner by means of a first joint and in the joined state protrudes beyond the distal tube end, - a first joining contour with is applied at the distal mandrin region and forms part of a second joint , as well as - for forming the second joint , an adapter element with a counter joining contour which is contoured counter to the first joining contour , and with a second joining contour which is contoured counter to the plug or socket part of the mechanical interface and is part of a third joint .
A method of activating and dispensing a self-foaming hot melt adhesive composition, comprising: melting the self-foaming hot melt adhesive composition at a temperature below a decomposition temperature of the chemical blowing agent present in the self-foaming hot melt adhesive composition to form a melt; pumping the melt through a device configured to heat the melt to or above an activation temperature at which the chemical blowing agent completely decomposes into a gas while pressurizing the heated melt in the device; characterized by cooling the heated melt while under pressure to a temperature below the temperature at which the blowing agent was completely decomposed; and dispensing the cooled melt into a region of atmospheric pressure and allowing it to foam. melting the self-foaming hot melt adhesive composition at a temperature below a decomposition temperature of the chemical blowing agent present in the self-foaming hot melt adhesive composition to form a melt; pumping the melt through a device configured to heat the melt to or above an activation temperature at which the chemical blowing agent completely decomposes into a gas while pressurizing the heated melt in the device; characterized by cooling the heated melt while under pressure to a temperature below the temperature at which the blowing agent was completely decomposed; and dispensing the cooled melt into a region of atmospheric pressure and allowing it to foam.