mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation-curable inkjet ink or coating composition comprising: a) one or more acrylic polymers in an amount of greater than 12 wt% based on the total weight of the ink or coating; and b) one or more multifunctional monomers having two or more polymerizable groups per molecule; wherein at least one multifunctional monomer is a hybrid monomer containing two or more different polymerizable groups per molecule; wherein the composition contains greater than or equal to 40 wt% of polymerizable monomers based on the total weight of the ink or coating; and wherein the radiation-curable inkjet ink or coating composition is not either of example 11 or example 12 of WO2016/178989 A1. a) one or more acrylic polymers in an amount of greater than 12 wt% based on the total weight of the ink or coating; and b) one or more multifunctional monomers having two or more polymerizable groups per molecule; wherein at least one multifunctional monomer is a hybrid monomer containing two or more different polymerizable groups per molecule; wherein the composition contains greater than or equal to 40 wt% of polymerizable monomers based on the total weight of the ink or coating; and wherein the radiation-curable inkjet ink or coating composition is not either of example 11 or example 12 of WO2016/178989 A1.
A method for the production of a recombinant biological product, comprising: (a) obtaining cells that have been expanded in suspension mode; and (c) inoculating the cells into a bioreactor having a packed-fiber carrier providing a surface area for adherent cell culture; and then (d) exposing the cells to a factor promoting adherence selected from the group consisting of: fetal bovine serum, collagen, fibronectin, laminin, calcium ions, proteoglycans and ECM polysaccharides, in an amount effective to promote adherence, whereby the cells adhere to said packed-fiber carrier in said bioreactor. (a) obtaining cells that have been expanded in suspension mode; and (c) inoculating the cells into a bioreactor having a packed-fiber carrier providing a surface area for adherent cell culture; and then (d) exposing the cells to a factor promoting adherence selected from the group consisting of: fetal bovine serum, collagen, fibronectin, laminin, calcium ions, proteoglycans and ECM polysaccharides, in an amount effective to promote adherence, whereby the cells adhere to said packed-fiber carrier in said bioreactor.
A nitrated lipid and an inhibitor of the renin-angiotensin-aldosterone system (RAAS) for use in a method for the treatment of a chronic kidney disease or diabetic nephropathy, wherein the nitrated lipid is 9-nitrooleic acid, 10-nitrooleic acid, or the combination thereof.
An antenna system, comprising: a plurality of electronically steerable antennas configured to be operable at different frequencies, each of the antennas comprising a feed configured to launch a surface wave and surface-wave waveguides connected to the feed , wherein the surface-wave waveguides of the antennas operable at different frequencies are interleaved with each other; wherein the plurality of electronically steerable antennas comprise: a first antenna configured to be operable at a first frequency, the first antenna comprising first waveguides ; and a second antenna configured to be operable at a second frequency different from the first frequency, the second antenna comprising second waveguides , wherein the first waveguides of the first antenna and the second waveguides of the second antenna are interleaved with each other; the antenna system further comprising: a first ground layer for the first waveguides ; and a second ground layer for the second waveguides . a plurality of electronically steerable antennas configured to be operable at different frequencies, each of the antennas comprising a feed configured to launch a surface wave and surface-wave waveguides connected to the feed , wherein the surface-wave waveguides of the antennas operable at different frequencies are interleaved with each other; wherein the plurality of electronically steerable antennas comprise: a first antenna configured to be operable at a first frequency, the first antenna comprising first waveguides ; and a second antenna configured to be operable at a second frequency different from the first frequency, the second antenna comprising second waveguides , wherein the first waveguides of the first antenna and the second waveguides of the second antenna are interleaved with each other; the antenna system further comprising: a first ground layer for the first waveguides ; and a second ground layer for the second waveguides . a first antenna configured to be operable at a first frequency, the first antenna comprising first waveguides ; and a second antenna configured to be operable at a second frequency different from the first frequency, the second antenna comprising second waveguides , wherein the first waveguides of the first antenna and the second waveguides of the second antenna are interleaved with each other; the antenna system further comprising: a first ground layer for the first waveguides ; and a second ground layer for the second waveguides . a first ground layer for the first waveguides ; and a second ground layer for the second waveguides .
A gas analysis method for computing a concentration of each component gas of a gas to be analyzed, which is a mixture gas that is predominantly composed of a methane gas and contains either one or both of a hydrogen gas and a carbon dioxide gas, the gas analysis method comprising computing, by a procedure and a procedure , the concentration of each component gas of the gas to be analyzed, wherein the procedure includes computing a concentration value X CO2 [vol%] of the carbon dioxide gas contained in the gas to be analyzed by the following equation , X CO 2 = 100 / k CO 2 × U O − U s / 1 − α , where U O is a refractive index equivalent output value for a particular gas physical property which is selected from a calorific value, a density and a specific gravity, the refractive index equivalent output value being converted from a refractive index value of the gas to be analyzed; U s is a sonic speed equivalent output value for the particular gas physical property converted from a sonic speed value of the gas to be analyzed; k CO2 is an error coefficient for the particular gas physical property of the carbon dioxide gas; and α is a correction factor based on a difference between a measurement error of the refractive index equivalent output value and a measurement error of the sonic speed equivalent output value, and the procedure includes computing a value U of the particular gas physical property of the gas to be analyzed by Equation or Equation below, on a basis of the refractive index equivalent output value U O and the sonic speed equivalent output value Us: U = U S − α × U O / 1 − α U = U O − α × U s / 1 − α , and computing a concentration of the methane gas X CH4 [vol%] and a concentration of the hydrogen gas X H2 [vol%], which are contained in the gas to be analyzed, by Equation and Equation below, on a basis of a value U of the particular gas physical property of the gas to be analyzed; the values A 1 , A 2 and A 3 of the particular gas physical property of a methane gas, a carbon dioxide gas and a hydrogen gas of a concentration of 100 vol%; and a volume fraction of each component gas: U = A 1 × X CH 4 + A 2 × X CO 2 + A 3 × X H 2 / 100 X CH 4 + X CO 2 + X H 2 = 100 .
Pick-up device comprising: - a printhead module frame , wherein printhead module frames are holders for the stationary arrangement of different printhead modules , - two spaced-apart longitudinal struts of a holder frame , - in each case one guide rail arranged on the respective longitudinal strut , the guide rails being aligned parallel to one another characterized in that - the printhead module frame is connected by its ends facing the guide rails in each case to a carriage which, together with the respective guide rail , forms a linear guide - the pick-up device has in each case a locking rail which is arranged at the respective longitudinal strut , runs parallel to the respective guide rail and is configured for releasable locking of a locking element arranged at one of the carriages , and - wherein the pick-up device allows one or more printhead module frames to be displaced along the guide rails arranged at the longitudinal struts into any position on the holder frame and to be fixed in the set position. - a printhead module frame , wherein printhead module frames are holders for the stationary arrangement of different printhead modules , - two spaced-apart longitudinal struts of a holder frame , - in each case one guide rail arranged on the respective longitudinal strut , the guide rails being aligned parallel to one another characterized in that - the printhead module frame is connected by its ends facing the guide rails in each case to a carriage which, together with the respective guide rail , forms a linear guide - the pick-up device has in each case a locking rail which is arranged at the respective longitudinal strut , runs parallel to the respective guide rail and is configured for releasable locking of a locking element arranged at one of the carriages , and - wherein the pick-up device allows one or more printhead module frames to be displaced along the guide rails arranged at the longitudinal struts into any position on the holder frame and to be fixed in the set position.
A substrate on which an imaging chip is placed, comprising: a first insulating layer ; a second insulating layer having an elastic modulus that is different from an elastic modulus of the first insulating layer ; and a core layer (123; 323) that is sandwiched by the first insulating layer and the second insulating layer , and is more rigid than the first insulating layer and the second insulating layer , wherein the substrate and the imaging chip are configured such that the core layer receives, via a heat transfer path provided on the first insulating layer , a heat generated in the imaging chip . a first insulating layer ; a second insulating layer having an elastic modulus that is different from an elastic modulus of the first insulating layer ; and a core layer (123; 323) that is sandwiched by the first insulating layer and the second insulating layer , and is more rigid than the first insulating layer and the second insulating layer , wherein the substrate and the imaging chip are configured such that the core layer receives, via a heat transfer path provided on the first insulating layer , a heat generated in the imaging chip .
A precessional-motion drilling tool for industrial use, comprising: a shank configured to be releasably attachable to a motor to rotate the drilling tool about an axis of rotation ; and a drill body extending from the shank, the drill body including a shank end where the drill body extends from the shank and a free end at an end of the drill body that is opposite of the shank end, wherein the bone drill defines continuous helical flutes (208, 210, 320A, 320B, 420A, 420C, 520A, 520B, 520C, 620A, 620B, 620C, 720A, 720B, 720C, 820A 820B, 820C, 820D, 920A, 920B, 920C, 920D) that extend along the drill body as spirals, wherein the flutes are equidistant from each other, the drill body including a cutting portion between the shank end and the free end, the drill body having a center of mass at each transverse cross-section of the drill body, wherein the combination of multiple centers of mass of consecutive transverse cross-sections define a center of mass path of the drilling tool, wherein a center of mass of a transverse cross-section at the shank end is offset from the axis of rotation, characterised in that a center of mass of a transverse cross-section at the free end lies nearer to the axis of rotation than the center of mass of a transverse cross-section further at the shank end, and in that the distance of the center of mass from the axis of rotation decreases linearly from the shank end to the free end. a shank configured to be releasably attachable to a motor to rotate the drilling tool about an axis of rotation ; and a drill body extending from the shank, the drill body including a shank end where the drill body extends from the shank and a free end at an end of the drill body that is opposite of the shank end, wherein the bone drill defines continuous helical flutes (208, 210, 320A, 320B, 420A, 420C, 520A, 520B, 520C, 620A, 620B, 620C, 720A, 720B, 720C, 820A 820B, 820C, 820D, 920A, 920B, 920C, 920D) that extend along the drill body as spirals, wherein the flutes are equidistant from each other, the drill body including a cutting portion between the shank end and the free end, the drill body having a center of mass at each transverse cross-section of the drill body, wherein the combination of multiple centers of mass of consecutive transverse cross-sections define a center of mass path of the drilling tool, wherein a center of mass of a transverse cross-section at the shank end is offset from the axis of rotation, characterised in that a center of mass of a transverse cross-section at the free end lies nearer to the axis of rotation than the center of mass of a transverse cross-section further at the shank end, and in that the distance of the center of mass from the axis of rotation decreases linearly from the shank end to the free end.
A cellulose powder with an average polymerization degree of 150 to 450, an average particle diameter of not less than 10 μm but less than 100 μm, and a primary particle ratio of 50% or more, wherein the average particle diameter [μm] of the particles is determined using a laser diffraction/scattering particle size distribution meter wherein the average particle diameter is calculated as the number average of volume frequencies; and wherein the primary particle ratio is determined using a dry image analyzer, photographing about 10,000 particles, and performing image analysis to obtain the particle diameter equivalent to the area circle and aspect ratio of each particle; from the result, images of 1,000 particles are arbitrarily extracted from particles in the range of the average of particle diameter equivalent to the area circle ± 5 μm and in the range of the average of aspect ratio ± 0.1; when the number of the particles in the above ranges is less than 1,000, the image of all particles are used; the particle shape in the image of each extracted particle is visually confirmed, and a single particle is determined as a primary particle, and aggregated particles are determined as a secondary particle; the ratio of the number of primary particles in 1,000 particles is calculated as a primary particle ratio.
A heat-press system for use in the production of footwear or apparel, comprising: at least a hollow first roll comprising an external surface and an internal surface , the internal surface defining a core , wherein the core comprises a first heating element ; an abutting surface configured to form a compression zone with the external surface of the first roll for compressing a fabric for an article of footwear or apparel; and characterised in it comprises a guiding means to guide a fabric for a piece of footwear or apparel toward the compression zone located between the first roll and the abutting surface . at least a hollow first roll comprising an external surface and an internal surface , the internal surface defining a core , wherein the core comprises a first heating element ; an abutting surface configured to form a compression zone with the external surface of the first roll for compressing a fabric for an article of footwear or apparel; and characterised in it comprises a guiding means to guide a fabric for a piece of footwear or apparel toward the compression zone located between the first roll and the abutting surface .
A crystalline form CS2 of Pexidartinib monohydrochloride, wherein the X-ray powder diffraction pattern shows characteristic peaks at 2theta values of 7.2°±0.2°, 10.6°±0.2° and 29.3°±0.2° using CuKα radiation.
Protective helmet , in particular motorcycle helmet, having a jet helmet part and a chin part , which are releasably connected to each other via a coupling part , wherein - the chin part and the jet helmet part are swivelable by means of a swiveling mechanism relative to each other in swiveling directions between an integral helmet position and a jet helmet position, - the coupling part comprises a first coupling element on the chin part and a second coupling element on the jet helmet part , which are designed to interengage for mutual releasable form-fitting coupling, characterized in that - the protective helmet is formed in such a way that a locking mechanism is actuated by the swiveling mechanism, wherein the locking mechanism comprises a blocking slider and is configured such that, in the integral helmet position, the blocking slider blocks the first coupling element in such a way that uncoupling of the coupling elements is blocked and, in the jet helmet position, the blocking of the first coupling element is released, so that uncoupling of the coupling elements is made possible. - the chin part and the jet helmet part are swivelable by means of a swiveling mechanism relative to each other in swiveling directions between an integral helmet position and a jet helmet position, - the coupling part comprises a first coupling element on the chin part and a second coupling element on the jet helmet part , which are designed to interengage for mutual releasable form-fitting coupling, characterized in that - the protective helmet is formed in such a way that a locking mechanism is actuated by the swiveling mechanism, wherein the locking mechanism comprises a blocking slider and is configured such that, in the integral helmet position, the blocking slider blocks the first coupling element in such a way that uncoupling of the coupling elements is blocked and, in the jet helmet position, the blocking of the first coupling element is released, so that uncoupling of the coupling elements is made possible.
An originator comprising a processor and a memory , the originator further including computer-executable instructions stored in the memory of the originator which, when executed by the processor of the originator , cause the originator to: send a request message, to a receiver, that indicates a resource discovery operation and also indicates a RESTful operation, wherein the request message includes filter criteria for use by the receiver when performing the resource discovery operation and the indicated resource discovery operation comprises a request for a resource discovery outcome to be provided to the receiver in a filtering result, the filtering result being related to a matched resource set which fulfils the filter criteria, the filtering result being a result of the discovery operation performed at the receiver based on the filter criteria and comprising a set of discovered resources, and a matched resource in the matched resource set is a resource for which the filter criteria is true, and wherein the request message indicates that the RESTful operation is to be performed on a target resource set comprising one or more resources, which are related to the filtering result, the target resource set being related to but different from the filtering result related to the matched resource set which fulfils the filter criteria; and receive a response message from the receiver that indicates the filtering result of the resource discovery operation, performed at the receiver based on the filter criteria, and an operation result which is a result of the RESTful operation on the target resource set. send a request message, to a receiver, that indicates a resource discovery operation and also indicates a RESTful operation, wherein the request message includes filter criteria for use by the receiver when performing the resource discovery operation and the indicated resource discovery operation comprises a request for a resource discovery outcome to be provided to the receiver in a filtering result, the filtering result being related to a matched resource set which fulfils the filter criteria, the filtering result being a result of the discovery operation performed at the receiver based on the filter criteria and comprising a set of discovered resources, and a matched resource in the matched resource set is a resource for which the filter criteria is true, and wherein the request message indicates that the RESTful operation is to be performed on a target resource set comprising one or more resources, which are related to the filtering result, the target resource set being related to but different from the filtering result related to the matched resource set which fulfils the filter criteria; and receive a response message from the receiver that indicates the filtering result of the resource discovery operation, performed at the receiver based on the filter criteria, and an operation result which is a result of the RESTful operation on the target resource set.
A vacuum pump capable of determining timing of rotor blade replacement, the vacuum pump comprising: a rotor blade which is provided in a vacuum pump main body ; sensors which are disposed in the vacuum pump main body and measure a physical quantity related to the rotor blade ; a physical quantity extraction means for extracting the physical quantity which is measured by the sensors during an operation of the vacuum pump; characterised by: a setting means for setting, in advance, a fluctuation range of the physical quantity, the fluctuation range being set to a plurality of stages; a time acquisition means for acquiring total time of each of the plurality of stages when the physical quantity belongs to the stage during the operation of the vacuum pump and total time of all of the stages; a storage means for storing the total time of each stage and the total time of all of the stages which are acquired by the time acquisition means ; and a display means for displaying the total time of each stage stored by the storage means or displaying a ratio of the total time of each stage to the total time of all of the stages, wherein one of the sensors is a temperature measurement means for measuring a temperature of the rotor blade and the other is a current amount measurement means for measuring a current amount of a current flowing through a motor which drives the rotor blade . a rotor blade which is provided in a vacuum pump main body ; sensors which are disposed in the vacuum pump main body and measure a physical quantity related to the rotor blade ; a physical quantity extraction means for extracting the physical quantity which is measured by the sensors during an operation of the vacuum pump; a setting means for setting, in advance, a fluctuation range of the physical quantity, the fluctuation range being set to a plurality of stages; a time acquisition means for acquiring total time of each of the plurality of stages when the physical quantity belongs to the stage during the operation of the vacuum pump and total time of all of the stages; a storage means for storing the total time of each stage and the total time of all of the stages which are acquired by the time acquisition means ; and a display means for displaying the total time of each stage stored by the storage means or displaying a ratio of the total time of each stage to the total time of all of the stages, wherein one of the sensors is a temperature measurement means for measuring a temperature of the rotor blade and the other is a current amount measurement means for measuring a current amount of a current flowing through a motor which drives the rotor blade .