mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a device (100, 400) that communicates via inductive coupling to detect an external tag, the method comprising: - generating, by a Tx transmitter unit of the device (100, 400), a transmitted signal, wherein a Tx transmitter control unit of the device (100, 400) is configured for controlling the Tx transmitter unit of the device (100, 400); - sweeping, by the Tx transmitter control unit of the device (100, 400), a first output value of the transmitted signal by increasing or decreasing the first output value of the transmitted signal so that a step change in a second output value of the transmitted signal is detectable, the step change being caused by the external tag harvesting sufficient energy to enable the external tag to start up; and - monitoring, by the device (100, 400), the second output value of the transmitted signal, detecting the external tag when there is the step change in the second output value of the transmitted signal; wherein the first output value of the transmitted signal comprises one of the following: - a voltage of the transmitted signal, - a power of the transmitted signal, - a current of the transmitted signal; wherein the second output value of the transmitted signal comprises one of the following: - a current of the transmitted signal, - a voltage of the transmitted signal, - a power of the transmitted signal, and wherein the second output value is not the same as the first output value. - generating, by a Tx transmitter unit of the device (100, 400), a transmitted signal, wherein a Tx transmitter control unit of the device (100, 400) is configured for controlling the Tx transmitter unit of the device (100, 400); - sweeping, by the Tx transmitter control unit of the device (100, 400), a first output value of the transmitted signal by increasing or decreasing the first output value of the transmitted signal so that a step change in a second output value of the transmitted signal is detectable, the step change being caused by the external tag harvesting sufficient energy to enable the external tag to start up; and - monitoring, by the device (100, 400), the second output value of the transmitted signal, detecting the external tag when there is the step change in the second output value of the transmitted signal; - a voltage of the transmitted signal, - a power of the transmitted signal, - a current of the transmitted signal; - a current of the transmitted signal, - a voltage of the transmitted signal, - a power of the transmitted signal, and
A method of installing a hand guard on a firearm, the firearm having a barrel, a barrel nut, and a delta ring, the method comprising: i) retracting the delta ring away from the barrel nut; ii) positioning one or more hand guard members about the barrel, wherein an annular groove associated with each hand guard member mates with at least a portion of a flange of the barrel nut; iii) advancing the delta ring over at least a portion of some or all of the hand guard members; and (iv) securing the flange within the annular groove associated with each hand guard member; characterized in that the flange is secured within the annular groove using a set screw, wherein a portion of the flange is clamped between the set screw and a portion of at least one said hand guard member by applying a clamping force in a direction generally parallel to a longitudinal axis of the firearm. i) retracting the delta ring away from the barrel nut; ii) positioning one or more hand guard members about the barrel, wherein an annular groove associated with each hand guard member mates with at least a portion of a flange of the barrel nut; iii) advancing the delta ring over at least a portion of some or all of the hand guard members; and (iv) securing the flange within the annular groove associated with each hand guard member;
A toothbrush comprising: a body (105, 205, 305) comprising a handle portion (120, 220, 320) and a head portion (110, 210, 310); a plurality of tooth cleaning elements (115, 215, 315) extending from the head portion (110, 210, 310); a store of an oral care material in the body (105, 205, 305); an applicator (140, 240, 340) coupled to the body (105, 205, 305), the applicator (140, 240, 340) fluidly coupled to the store of the oral care material; and a bite guard (168, 268, 368) protruding from the body (105, 205, 305) adjacent the applicator (140, 240, 340), wherein the applicator (140, 240, 340) comprises a first applicator portion and a second applicator portion, the bite guard (168, 268, 368) located between the first and second applicator portions (141, 142); wherein the applicator (140, 240, 340) comprises an exposed surface (145, 245, 345) that comprises a contour that corresponds to a collection of facial surfaces of a user's teeth. a body (105, 205, 305) comprising a handle portion (120, 220, 320) and a head portion (110, 210, 310); a plurality of tooth cleaning elements (115, 215, 315) extending from the head portion (110, 210, 310); a store of an oral care material in the body (105, 205, 305); an applicator (140, 240, 340) coupled to the body (105, 205, 305), the applicator (140, 240, 340) fluidly coupled to the store of the oral care material; and a bite guard (168, 268, 368) protruding from the body (105, 205, 305) adjacent the applicator (140, 240, 340), wherein the applicator (140, 240, 340) comprises a first applicator portion and a second applicator portion, the bite guard (168, 268, 368) located between the first and second applicator portions (141, 142); wherein the applicator (140, 240, 340) comprises an exposed surface (145, 245, 345) that comprises a contour that corresponds to a collection of facial surfaces of a user's teeth.
A curable formulation comprising a) a high molecular weight polyester resin, wherein the high molecular weight polyester resin is a polyester having an average molecular weight (Mw) of 50,000 to 125,000, wherein the average molecular weight (Mw) is determined as set out in the description; b) an epoxy terminated polyester having the structure wherein -R 2 - is a divalent organic group, wherein R 1 - is selected from the group consisting of and wherein -A- is a divalent alkyl group, -CA- is a divalent cycloalkyl group, j is 0 to 5, -R 2 - is a divalent organic group, -R 21 - is a divalent alkyl group, and -R 22 - is a divalent alkyl group, G- is c) an additive selected from the group consisting of phosphoric acid and orthophosphoric acid; d) a curing agent comprising of an isocyanate-based aliphatic compound or an isocyanate-based aromatic compound; and e) a solvent, wherein, upon curing under curing conditions, the curable formulation forms at least one interpenetrating polymer network. a) a high molecular weight polyester resin, wherein the high molecular weight polyester resin is a polyester having an average molecular weight (Mw) of 50,000 to 125,000, wherein the average molecular weight (Mw) is determined as set out in the description; b) an epoxy terminated polyester having the structure wherein -R 2 - is a divalent organic group, wherein R 1 - is selected from the group consisting of and wherein -A- is a divalent alkyl group, -CA- is a divalent cycloalkyl group, j is 0 to 5, -R 2 - is a divalent organic group, -R 21 - is a divalent alkyl group, and -R 22 - is a divalent alkyl group, G- is wherein -R 2 - is a divalent organic group, wherein R 1 - is selected from the group consisting of and wherein -A- is a divalent alkyl group, -CA- is a divalent cycloalkyl group, j is 0 to 5, -R 2 - is a divalent organic group, -R 21 - is a divalent alkyl group, and -R 22 - is a divalent alkyl group, G- is c) an additive selected from the group consisting of phosphoric acid and orthophosphoric acid; d) a curing agent comprising of an isocyanate-based aliphatic compound or an isocyanate-based aromatic compound; and e) a solvent,
A method for analysing a gaseous component present in a hermetically sealed container; the method comprising the steps of placing the container in a measuring station between a laser emitter and a receiver; emitting the laser beam towards receiver and through the portion of the container where the gaseous component is located; analysing the spectrum of laser beam absorption by the gaseous component; inferring from said analysis the concentration of the gaseous component; the method being characterized in that it comprises a step of locking the container in an inspection chamber and a step of depressurizing the inspection chamber such that it is free of the gas being analysed; the steps of emitting and receiving the laser beam following the depressurizing step and the path of the laser beam being confined inside the inspection chamber.
A method of forming a nonwoven web comprising melt blowing an absorbable copolyester composition, comprising the steps of: (a) providing an absorbable copolyester composition to an extruder, the absorbable copolyester composition comprising the reaction product of a polycondensation polyester and at least one lactone monomer, wherein the polycondensation polyester comprises the reaction product of diglycolic acid and/or a derivative thereof and diethylene glycol; the copolyester comprising 30 to 60% by weight of the polycondensation polyester based on the total weight of the copolyester; the copolyester having a crystallinity ranging from 10 to 50% as determined by Wide Angle X-Ray Diffraction (WAXD); (b) extruding the polymeric composition through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form micro fibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the micro fibers to form a nonwoven web. (a) providing an absorbable copolyester composition to an extruder, the absorbable copolyester composition comprising the reaction product of a polycondensation polyester and at least one lactone monomer, wherein the polycondensation polyester comprises the reaction product of diglycolic acid and/or a derivative thereof and diethylene glycol; the copolyester comprising 30 to 60% by weight of the polycondensation polyester based on the total weight of the copolyester; the copolyester having a crystallinity ranging from 10 to 50% as determined by Wide Angle X-Ray Diffraction (WAXD); (b) extruding the polymeric composition through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form micro fibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the micro fibers to form a nonwoven web.
Automatic plate valve comprising a valve seat, a valve catcher, a longitudinal axis and a valve element arranged between the valve seat and the valve catcher and movable back and forth in the direction of the longitudinal axis, wherein the valve seat has an end face oriented towards the valve catcher and having a plurality of valve seat openings wherein the valve seat has a plurality of through channels which are fluid-conductively connected to the valve seat openings, wherein the valve element comprises at least one sealing element which cooperates in a sealing manner with the valve seat openings and wherein at least some of the through channels have a different spacing from the longitudinal axis in the direction radial to the longitudinal axis, wherein the end face of the valve seat has a plurality of groove-shaped recesses which form the valve seat openings on the end face, wherein a plurality of through channels open into the same groove-shaped recess, these through channels being connected in a fluid-conducting manner to the same valve seat opening via the respective groove-shaped recess, characterized in that at least some of these through channels connected in a fluid-conducting manner to the same valve seat opening are at different distances from the longitudinal axis.
Method of controlling a supply of a fuel to a combustor of a gas turbine comprising a compressor upstream of the combustor, the method comprising: supplying the fuel to the combustor; obtaining an inlet air pressure at a compressor inlet; obtaining an inlet air temperature (Tinlet) at the compressor inlet; obtaining an outlet air pressure at a compressor outlet; obtaining an air bleed signal (THBOV) indicative of an amount of air not supplied to the combustor; estimating a heat input (HIengmodel, HIexpected) of the fuel supplied to the combustor based on the inlet air pressure, the inlet air temperature (Tinlet), the outlet air pressure and the air bleed signal (THBOV); comparing the estimated heat input (HIengmodel, HIexpected) with a demanded heat input (FFDEM) to derive an error signal; and controlling a fuel valve regulating the supply of the fuel to the combustor based on the error signal. supplying the fuel to the combustor; obtaining an inlet air pressure at a compressor inlet; obtaining an inlet air temperature (Tinlet) at the compressor inlet; obtaining an outlet air pressure at a compressor outlet; obtaining an air bleed signal (THBOV) indicative of an amount of air not supplied to the combustor; estimating a heat input (HIengmodel, HIexpected) of the fuel supplied to the combustor based on the inlet air pressure, the inlet air temperature (Tinlet), the outlet air pressure and the air bleed signal (THBOV); comparing the estimated heat input (HIengmodel, HIexpected) with a demanded heat input (FFDEM) to derive an error signal; and controlling a fuel valve regulating the supply of the fuel to the combustor based on the error signal.
A device comprising: a precompensation renderer configured to precompensate an image with a wide field of view, FOV, into a compressed image having a compressed FOV for coupling to a waveguide; a light engine configured to produce light waves corresponding to the compressed FOV-image, an optical assembly; and said waveguide having a transmissive substrate, an in-coupler, and an out-coupler; wherein the optical assembly is configured to introduce distortion to the image having the compressed FOV, thereby generating an image precompensating for aberrations imparted by components of the device during propagation via the waveguide; the in-coupler comprising a deflection grating that is configured to provide a constant deflection angle for angles of incidence associated with the image from the optical assembly and being configured to propagate the generated image through the transmissive substrate of the waveguide to the out-coupler; and the out-coupler comprising a metasurface grating that provides a non-constant deflection angle for angles of incidence associated with the generated image, the metasurface grating increasing a FOV of the generated image. a precompensation renderer configured to precompensate an image with a wide field of view, FOV, into a compressed image having a compressed FOV for coupling to a waveguide; a light engine configured to produce light waves corresponding to the compressed FOV-image, an optical assembly; and said waveguide having a transmissive substrate, an in-coupler, and an out-coupler; wherein the optical assembly is configured to introduce distortion to the image having the compressed FOV, thereby generating an image precompensating for aberrations imparted by components of the device during propagation via the waveguide; the in-coupler comprising a deflection grating that is configured to provide a constant deflection angle for angles of incidence associated with the image from the optical assembly and being configured to propagate the generated image through the transmissive substrate of the waveguide to the out-coupler; and the out-coupler comprising a metasurface grating that provides a non-constant deflection angle for angles of incidence associated with the generated image, the metasurface grating increasing a FOV of the generated image.
A battery pack comprising: a battery having a main surface; a frame which covers the left side surface and right side surface of the battery through an armor member, spacers which cover the left side surface and right side surface and a part of the upper surface and a part of the lower surface of the battery, and a resin layer integrated with the frame, the frame armoring said battery so that at least a part of the main surface of said battery is exposed, and the resin layer covering the main surface of said battery, wherein said resin layer is formed by curing a reaction curable resin having a viscosity of not less than 80 mPa·second to less than 1000 mPa·second and a thickness of said resin layer on the main surface of said battery ranges from 0,05 mm to smaller than 0,4 mm, characterized in that the spacers further comprise a flow channel control member. which is provided at a boundary between a side surface of said battery covered with said resin layer and the main surface of said battery and which has a flow channel control configuration (1, 2). a battery having a main surface; a frame which covers the left side surface and right side surface of the battery through an armor member, spacers which cover the left side surface and right side surface and a part of the upper surface and a part of the lower surface of the battery, and a resin layer integrated with the frame, the frame armoring said battery so that at least a part of the main surface of said battery is exposed, and the resin layer covering the main surface of said battery, wherein said resin layer is formed by curing a reaction curable resin having a viscosity of not less than 80 mPa·second to less than 1000 mPa·second and a thickness of said resin layer on the main surface of said battery ranges from 0,05 mm to smaller than 0,4 mm, characterized in that the spacers further comprise a flow channel control member. which is provided at a boundary between a side surface of said battery covered with said resin layer and the main surface of said battery and which has a flow channel control configuration (1, 2). which is provided at a boundary between a side surface of said battery covered with said resin layer and the main surface of said battery and which has a flow channel control configuration (1, 2).
A method for bonding sheet metal parts to a laminated core in which sheet metal parts are punched from an electrical steel strip, the punched sheet metal parts are stacked and bonded at least integrally to form a plurality of laminated cores, and in order to facilitate the separation of the integrally bonded sheet metal parts into laminated cores, a separating agent is provided at least between two stacked sheet metal parts in that in the punching stage for the punching of the sheet metal part, the separating agent is both punched from a separating agent support and provided to the sheet metal part, characterized in that the separating agent is punched from the sheet-like separating agent support that is supplied below the electrical steel strip, wherein the sheet-like separating agent support consists of a plurality of connected sheets (21.1, 21.2, 21.3) or of a sheet (21.1, 21.2, 21.3) separated from a supply roll.
A tire (100, 200, 400, 500) comprising: a pair of sidewalls (430, 520) constructed of a base rubber; a circumferential tread (120, 220, 420, 530) having a plurality of bars (130, 230, 440) and a plurality of valleys (240, 450) disposed between the plurality of bars (130, 230, 440); and a polymeric laminate (210, 310, 410) disposed on the tire (100, 200, 400, 500), such that the polymeric laminate (210, 410, 510) covers at least one of the pair of sidewalls (430, 520), characterized in that the polymeric laminate (210, 410, 510) has a greater hardness than the base rubber, and the polymeric laminate (210, 410, 510) has a greater elongation at break than the base rubber. a pair of sidewalls (430, 520) constructed of a base rubber; a circumferential tread (120, 220, 420, 530) having a plurality of bars (130, 230, 440) and a plurality of valleys (240, 450) disposed between the plurality of bars (130, 230, 440); and a polymeric laminate (210, 310, 410) disposed on the tire (100, 200, 400, 500), such that the polymeric laminate (210, 410, 510) covers at least one of the pair of sidewalls (430, 520), characterized in that the polymeric laminate (210, 410, 510) has a greater hardness than the base rubber, and the polymeric laminate (210, 410, 510) has a greater elongation at break than the base rubber.
A capsid assembly inhibitor and peginterferon alpha-2a, wherein the capsid assembly inhibitor is a compound of formula IVc:. or a pharmaceutically acceptable salt thereof; wherein: X is halo; G 1 is hydrogen or halo; G 2 is H, C 1 -C 4 alkyl, or halo; and G 4 is H, halo, C 1 -C 4 alkyl, or OH, for use in a method of treating an HBV infection. X is halo; G 1 is hydrogen or halo; G 2 is H, C 1 -C 4 alkyl, or halo; and G 4 is H, halo, C 1 -C 4 alkyl, or OH,
A filtration article for filtration of particles from a fluid stream, comprising: a first layer, positionable across a fluid stream, comprising a porous PTFE membrane for filtering particles from the fluid stream; and a second layer, positionable across said fluid stream to provide for at least one of drainage of and support of said first layer, comprising a plurality of strands of fluoropolymer fibers arranged to form a knit having a plurality of interlocking regions that are each defined by corresponding different sets of at least two interlocking loop portions of said plurality of strands of fluoropolymer fibers, wherein said plurality of interlocking regions of the knit define a plurality of wales and a plurality of courses, and wherein for at least a first portion of said plurality of strands each strand comprises different loop portions that partially define different, alternating ones of said plurality of interlocking regions located along at least two different ones of said plurality of wales, wherein said fluid stream has fluid pressure load of between 6.89 kPa (1 psid) and 68.9 kPa (10 psid), wherein said plurality of interlocking regions define a plurality of voids therebetween across said knit layer, wherein each of said plurality of voids has a corresponding first area prior to being positioned in said fluid stream and a corresponding second area while positioned in said fluid stream, and wherein for each of said plurality of voids the corresponding second area is less than two times the corresponding first area thereof. a second layer, positionable across said fluid stream to provide for at least one of drainage of and support of said first layer, comprising a plurality of strands of fluoropolymer fibers arranged to form a knit having a plurality of interlocking regions that are each defined by corresponding different sets of at least two interlocking loop portions of said plurality of strands of fluoropolymer fibers, wherein said plurality of interlocking regions of the knit define a plurality of wales and a plurality of courses, and wherein for at least a first portion of said plurality of strands each strand comprises different loop portions that partially define different, alternating ones of said plurality of interlocking regions located along at least two different ones of said plurality of wales, wherein said fluid stream has fluid pressure load of between 6.89 kPa (1 psid) and 68.9 kPa (10 psid), wherein said plurality of interlocking regions define a plurality of voids therebetween across said knit layer, wherein each of said plurality of voids has a corresponding first area prior to being positioned in said fluid stream and a corresponding second area while positioned in said fluid stream, and wherein for each of said plurality of voids the corresponding second area is less than two times the corresponding first area thereof.