mhurhangee/patent-ind-claim-en huggingface dataset:
An ink jet printing penetrant which is used to penetrate an ink jet printing color ink containing a dye in a cloth, the ink jet printing penetrant comprising: at least one glycol-based solvent having an HSP value of 13.6 or more; and water; wherein a content of the glycol-based solvent with respect to a total mass of at least one organic solvent contained in the ink jet printing penetrant is 95 percent by mass or more, and the total content of the glycol-based solvent and the other organic solvent with respect to a total mass of the ink jet printing penetrant is 25 percent by mass or more; the glycol-based solvent has a standard boiling point of 243°C or less; the number of the glycol-based solvents is at least two; and the penetrant further comprises a surfactant, and the content of the surfactant is 0.1 to 1.5 percent by mass with respect to the total mass of the penetrant. at least one glycol-based solvent having an HSP value of 13.6 or more; and water; wherein a content of the glycol-based solvent with respect to a total mass of at least one organic solvent contained in the ink jet printing penetrant is 95 percent by mass or more, and the total content of the glycol-based solvent and the other organic solvent with respect to a total mass of the ink jet printing penetrant is 25 percent by mass or more; the glycol-based solvent has a standard boiling point of 243°C or less; the number of the glycol-based solvents is at least two; and the penetrant further comprises a surfactant, and the content of the surfactant is 0.1 to 1.5 percent by mass with respect to the total mass of the penetrant.
A motor, the motor including a rotation shaft , a rotor including a magnet formed on the rotation shaft and a stator including a coil wound thereon to generate an electromagnetic force in response to an applied current, wherein the rotation shaft includes an alignment groove at a distal end thereof, and a sensing magnet is mounted in the alignment groove of the rotation shaft characterized in that the alignment groove is concavely formed from an upper surface of the rotation shaft and a depth of the alignment groove is greater than a height of the sensing magnet , a center of the alignment groove is formed as same as a rotation center of the rotation shaft , the sensing magnet takes a shape corresponding to that of the alignment groove and the sensing magnet is completely press-fitted within the alignment groove via an adhesive, such that a rotation center of the sensing magnet matches a rotation center of the rotation shaft and the sensing magnet is prevented from being disengaged from the rotation shaft , and the rotation shaft takes a shape of a cylinder and is formed with a set of teeth for transmitting a power at a bottom periphery thereof.
A method of decomposing a composite material consisting of a fiber-reinforced organic resin matrix in order to recover said fibers and optionally degradation products of said resin matrix, said resin being a resin containing C-N and/or C-O bonds, characterized in that a vapour phase of acetic acid and hydrogen chloride is caused to act on said composite material until the fibers are detached from the thus formed degradation products of said resin matrix and the latter are separated from said fibers.
A mechanically programmed actuator , comprising: at least one soft actuator body configured to bend, linearly extend, contract, twist, or combinations thereof when actuated without constraint, wherein the soft actuator body includes a strain-limiting layer along a side of the soft actuator body , and wherein the strain-limiting layer is configured to produce bending of the soft actuator body by restricting expansion of that side of the soft actuator body ; an activation mechanism configured to actuate the soft actuator body ; and at least one sleeve wrapped around at least a part of the soft actuator body and configured to constrain the soft actuator body inside the sleeve when actuated and to enable the soft actuator body to deform where the soft actuator body is not covered by the sleeve , wherein the at least one sleeve is configured to have an adjustable length to alter the amount of the soft actuator body contained by the at least one sleeve . at least one soft actuator body configured to bend, linearly extend, contract, twist, or combinations thereof when actuated without constraint, wherein the soft actuator body includes a strain-limiting layer along a side of the soft actuator body , and wherein the strain-limiting layer is configured to produce bending of the soft actuator body by restricting expansion of that side of the soft actuator body ; an activation mechanism configured to actuate the soft actuator body ; and at least one sleeve wrapped around at least a part of the soft actuator body and configured to constrain the soft actuator body inside the sleeve when actuated and to enable the soft actuator body to deform where the soft actuator body is not covered by the sleeve , wherein the at least one sleeve is configured to have an adjustable length to alter the amount of the soft actuator body contained by the at least one sleeve .
A glass article comprising at least one glass substrate on which a stack of layers is deposited, said stack comprising at least one layer consisting of a layer of silicon nitride of formulation SiN x , in which x is less than 1.25, the physical thickness of said SiN x layer being between 5 and 50 nm, and in which the light reflection of the glass article, measured on the side of the substrate on which the stack is deposited, is greater than 20% and in which the stack does not comprise layers based on silver, on gold or on copper.
A drawer adapted to contain a group of smoking articles and a collar ; the drawer comprises a pocket , which has a tubular shape, is adapted to house the group of smoking articles and the collar , and has a first opening , through which the group of smoking articles can be axially inserted, and a second opening opposite to the first opening , through which the group of smoking articles and the collar can be extracted from the drawer axially and together; wherein at least one first wall of the pocket has a first step , which is arranged close to the first opening , locally reduces the size of the pocket , and has a thickness equal to at least the corresponding thickness of the collar ; the drawer is characterized in that the pocket has at least one groove , which extends from the first opening to the second opening and preferably through a corresponding step . wherein at least one first wall of the pocket has a first step , which is arranged close to the first opening , locally reduces the size of the pocket , and has a thickness equal to at least the corresponding thickness of the collar ; the drawer is characterized in that the pocket has at least one groove , which extends from the first opening to the second opening and preferably through a corresponding step .
A substance having tyrosine kinase inhibitory activity, which is a compound of general formula I, geometric isomers or pharmaceutically acceptable salts thereof: wherein: - R 2 is hydrogen or halogen; R 1 is hydrogen or -SO 2 NR 3 R 4 , in which R 3 is hydrogen or methyl, R 4 is phenyl, cyclohexyl, halogen-substituted phenyl, methylphenyl, ethylphenyl, ethoxyphenyl, hydroxyphenyl or β-naphthyl, or - R 1 and R 2 are such that the compound of general formula I is 3-(1H-benzimidazol-2-methylene)-5-(4-hydroxyethylphenylaminosulfo)-2-indolone (Indo 7). - R 2 is hydrogen or halogen; R 1 is hydrogen or -SO 2 NR 3 R 4 , in which R 3 is hydrogen or methyl, R 4 is phenyl, cyclohexyl, halogen-substituted phenyl, methylphenyl, ethylphenyl, ethoxyphenyl, hydroxyphenyl or β-naphthyl, or - R 1 and R 2 are such that the compound of general formula I is 3-(1H-benzimidazol-2-methylene)-5-(4-hydroxyethylphenylaminosulfo)-2-indolone (Indo 7).
Flange connection for connecting two pipeline ends made of plastic, including two pipe ends located opposite one another made of plastic, wherein the pipe ends each comprise a weld stub , two loose flanges , wherein at each pipe end a loose flange is in each case arranged, wherein the loose flanges comprise bores for the mutual clamping together, clamping means , wherein the clamping means are arranged in the bores and serve for the mutual pulling together of the loose flanges and of the pipeline ends, and a sealing element , characterised in that the sealing element consists of a conductive plastic and exclusively of one material. a sealing element , characterised in that the sealing element consists of a conductive plastic and exclusively of one material.
A system comprising a first set of replicated state machines , the first set of replicated state machines comprising: a first state machine , the first state machine being configured to: receive a state update message , the state update message including a clock value; in response to receiving the state update message : execute a state update operation; and characterised in that the first state machine is further configured to: compare the following values to determine a maximum value thereof: the clock value included in the state update message incremented by a first amount, a clock value for the first state machine incremented by a second amount, and a current local wall clock value for the first state machine ; assign the maximum value as the clock value for the first state machine ; propagate the state update and the clock value for the first state machine to the other state machines in the first set of replicated state machines ; and transmit the clock value for the first state machine to a sender of the state update message; and in response to a passage of an amount of time: advance the clock value for the first state machine to the current local wall clock value for the first state machine ; and propagate the clock value for the first state machine to the other state machines in the first set of replicated state machines . a first state machine , the first state machine being configured to: receive a state update message , the state update message including a clock value; in response to receiving the state update message : receive a state update message , the state update message including a clock value; in response to receiving the state update message : execute a state update operation; and characterised in that the first state machine is further configured to: compare the following values to determine a maximum value thereof: the clock value included in the state update message incremented by a first amount, a clock value for the first state machine incremented by a second amount, and a current local wall clock value for the first state machine ; assign the maximum value as the clock value for the first state machine ; propagate the state update and the clock value for the first state machine to the other state machines in the first set of replicated state machines ; and transmit the clock value for the first state machine to a sender of the state update message; and in response to a passage of an amount of time: advance the clock value for the first state machine to the current local wall clock value for the first state machine ; and propagate the clock value for the first state machine to the other state machines in the first set of replicated state machines . advance the clock value for the first state machine to the current local wall clock value for the first state machine ; and propagate the clock value for the first state machine to the other state machines in the first set of replicated state machines .
An electrode device , comprising: a substrate formed of a flexible material and configured to cover a target ; electrodes disposed on a face of the substrate that is configured to be in contact with the target in a longitudinal direction of the substrate ; an electrode router configured to connect the electrodes to a processor , a sensing circuit configured to detect an electrical signal from the electrodes through the electrode router ; and characterized by the processor configured to allocate a positive channel of a sensing channel and a negative channel of the sensing channel to the electrodes based on a value of a common noise being included in the electrical signal detected from the electrodes . a substrate formed of a flexible material and configured to cover a target ; electrodes disposed on a face of the substrate that is configured to be in contact with the target in a longitudinal direction of the substrate ; an electrode router configured to connect the electrodes to a processor , a sensing circuit configured to detect an electrical signal from the electrodes through the electrode router ; and characterized by the processor configured to allocate a positive channel of a sensing channel and a negative channel of the sensing channel to the electrodes based on a value of a common noise being included in the electrical signal detected from the electrodes .
A method for reducing the appearance of visual artifacts caused by pixel-by-pixel energy emission variations exhibited in a portion of a display panel comprising a plurality of pixels, the method comprising: sensing, via a camera sensor, the light emitted by each of sub-pixels in the portion of the display panel, wherein sensing the light emitted by each of the sub-pixels comprises sensing the light emitted by each of the sub-pixels of the single color in the central region of the display panel; estimating energy emitted for each of the sub-pixels based on the sensing of the light emitted by each of the sub-pixels; computing a set of global and per-pixel correction factors based on a correction model and the estimated energy emitted for each of the sub-pixels, wherein computing a set of per-pixel correction factors comprises computing a set of per-pixel correction factors for the pixels in the central region, and smoothly blending the per-pixel correction factors to provide no correction towards the periphery of the display panel; and applying said global and per-pixel correction factors in real-time to image data being transmitted to said portion of said display panel. sensing, via a camera sensor, the light emitted by each of sub-pixels in the portion of the display panel, wherein sensing the light emitted by each of the sub-pixels comprises sensing the light emitted by each of the sub-pixels of the single color in the central region of the display panel; estimating energy emitted for each of the sub-pixels based on the sensing of the light emitted by each of the sub-pixels; computing a set of global and per-pixel correction factors based on a correction model and the estimated energy emitted for each of the sub-pixels, wherein computing a set of per-pixel correction factors comprises computing a set of per-pixel correction factors for the pixels in the central region, and smoothly blending the per-pixel correction factors to provide no correction towards the periphery of the display panel; and applying said global and per-pixel correction factors in real-time to image data being transmitted to said portion of said display panel.
A curable potting composition, comprising: a multifunctional acetoacetate compound, a (meth)acrylate compound having at least three (meth)acrylate groups, a catalyst, and a filler, wherein the equivalent ratio of the (meth)acrylate compound having at least three (meth)acrylate groups to the multifunctional acetoacetate compound is more than 1.5, as defined in the description. a multifunctional acetoacetate compound, a (meth)acrylate compound having at least three (meth)acrylate groups, a catalyst, and a filler, wherein the equivalent ratio of the (meth)acrylate compound having at least three (meth)acrylate groups to the multifunctional acetoacetate compound is more than 1.5, as defined in the description.
A light-emitting device, comprising: an electron blocking layer comprising a first AlGaInP material; a hole blocking layer comprising a second AlGaInP material; and an active layer between the hole blocking layer and the electron blocking layer, characterized in that , the second AlGaInP material has a composition represented as (Al x Ga (1-x) ) 1-y In y P, where 0.4 < x < 1 and 0.49 < y < 0.7, and a greater ratio of indium than a ratio of indium in the first AlGaInP material, at least a portion of the electron blocking layer is arranged to have a tensile strain and at least a portion of the hole blocking layer is arranged to have a compressive strain. an electron blocking layer comprising a first AlGaInP material; a hole blocking layer comprising a second AlGaInP material; and an active layer between the hole blocking layer and the electron blocking layer, characterized in that , the second AlGaInP material has a composition represented as (Al x Ga (1-x) ) 1-y In y P, where 0.4 < x < 1 and 0.49 < y < 0.7, and a greater ratio of indium than a ratio of indium in the first AlGaInP material, at least a portion of the electron blocking layer is arranged to have a tensile strain and at least a portion of the hole blocking layer is arranged to have a compressive strain.
A downlink emergency service transmission method, characterized in comprising: receiving (S103), by user equipment, first indication information sent by a base station, wherein the first indication information is used to indicate a reserved resource, and the reserved resource is a resource that is reserved by the base station from system resource and that is used to transmit a downlink emergency service, wherein the reserved resource is a resource statically configured by the base station, or the reserved resource is a resource dynamically configured by the base station; monitoring, by the user equipment after receiving the first indication information sent by the base station, whether there is an emergence service sent to the UE on the resource indicated by the first indication information; and receiving (S109), by the user equipment based on the first indication information and by using the resource indicated by the first indication information, a downlink emergency service sent by the base station if the user equipment detects that there is a downlink emergency service sent to the UE on the resource indicated by the first indication information. receiving (S103), by user equipment, first indication information sent by a base station, wherein the first indication information is used to indicate a reserved resource, and the reserved resource is a resource that is reserved by the base station from system resource and that is used to transmit a downlink emergency service, wherein the reserved resource is a resource statically configured by the base station, or the reserved resource is a resource dynamically configured by the base station; monitoring, by the user equipment after receiving the first indication information sent by the base station, whether there is an emergence service sent to the UE on the resource indicated by the first indication information; and receiving (S109), by the user equipment based on the first indication information and by using the resource indicated by the first indication information, a downlink emergency service sent by the base station if the user equipment detects that there is a downlink emergency service sent to the UE on the resource indicated by the first indication information.
Use of whole grain oat flour to reduce or prevent formation of bubbles or foam during processing of a slushie, wherein the whole grain oat flour comprises soluble components, and wherein the whole grain oat flour is present in the slushie in an amount of 2 to 10 wt% based on the total weight of the slushie.
A fluid valve for use in a turbomachine in a high temperature location, comprising: a fluid inlet ; a fluid outlet ; a fluid circuit defined between the fluid inlet and the fluid outlet ; and a solenoid including a solenoid casing and disposed between the fluid inlet and fluid outlet , the solenoid configured to move a valve member between a closed position, at least one partially open position, and a fully open position to selectively meter fluid flow through the fluid circuit, and further including a valve casing , wherein the solenoid and valve member are disposed in the valve casing , wherein a thermal regulation portion of the fluid circuit is defined around at least a portion of the circumference of the solenoid to thermally regulate the solenoid ; and wherein the fluid circuit is defined more than about 330 degrees around the solenoid , and characterized in that the solenoid casing includes a blocking feature protruding therefrom and contacting an inner wall of the valve casing adjacent to the fluid inlet such that the fluid flows around the solenoid before entering a valve chamber housing the valve member . a fluid inlet ; a fluid outlet ; a fluid circuit defined between the fluid inlet and the fluid outlet ; and a solenoid including a solenoid casing and disposed between the fluid inlet and fluid outlet , the solenoid configured to move a valve member between a closed position, at least one partially open position, and a fully open position to selectively meter fluid flow through the fluid circuit, and further including a valve casing , wherein the solenoid and valve member are disposed in the valve casing , wherein a thermal regulation portion of the fluid circuit is defined around at least a portion of the circumference of the solenoid to thermally regulate the solenoid ; and wherein the fluid circuit is defined more than about 330 degrees around the solenoid , and characterized in that the solenoid casing includes a blocking feature protruding therefrom and contacting an inner wall of the valve casing adjacent to the fluid inlet such that the fluid flows around the solenoid before entering a valve chamber housing the valve member .
A method of selecting a path-determination algorithm associated with a movement mode of a user capable of moving in a plurality of movement modes, comprising: acquiring data comprising an acceleration ( a xy ) and an angular velocity (ω Z ) of a measurement system ; a detection step comprising detecting whether the user changes movement modes, and is thus moving in a new movement mode distinct from a movement mode in which the user was moving until then; and a selection step comprising selecting, in the case where it was detected in the detection step that the user changed movement modes and is moving in the new movement mode, a path-determination algorithm associated with the new movement mode; and characterized in that the measurement system is configured to be detachably attached to a plurality of supports , and comprises a cooperation element able to cooperate with a guide element provided on each support of said plurality of supports , and the detection step comprises detecting, from the acceleration ( a xy ) and the angular velocity (ω Z ) acquired from the measurement system , a movement associated with the attachment of the measurement system on a support , the movement being defined at least in part by the guide element . acquiring data comprising an acceleration ( a xy ) and an angular velocity (ω Z ) of a measurement system ; a detection step comprising detecting whether the user changes movement modes, and is thus moving in a new movement mode distinct from a movement mode in which the user was moving until then; and a selection step comprising selecting, in the case where it was detected in the detection step that the user changed movement modes and is moving in the new movement mode, a path-determination algorithm associated with the new movement mode; and characterized in that the measurement system is configured to be detachably attached to a plurality of supports , and comprises a cooperation element able to cooperate with a guide element provided on each support of said plurality of supports , and the detection step comprises detecting, from the acceleration ( a xy ) and the angular velocity (ω Z ) acquired from the measurement system , a movement associated with the attachment of the measurement system on a support , the movement being defined at least in part by the guide element .