mhurhangee/ep-ind-claims huggingface dataset:
A liner-label, comprising: a liner; a label; wherein a plurality of die cut tabs (111, 112) are provided in the liner; wherein a die cut second label is provided in the label, the second label having a release edge; wherein a backside of the label includes an adhesive coating and is affixed to a front side of the liner with the tabs (111, 112) at least partially aligned to the second label; wherein the label and the second label are configured to be removed from the liner as a unit and adhered to a package as the unit with the tabs; wherein a liner backside corresponding to the tabs (111, 112) removed with the unit is devoid of any adhesive; wherein areas of the backside of the label that correspond to the second label and that do not correspond to the tabs include the adhesive coating to permit the second label to retain adhesion on the package; wherein the unit comprising the label and the second label share one outer edge; wherein the outer edge corresponding to the label is a straight line; wherein the outer edge corresponding to the second label curves inward from the straight line forming an arc; and wherein the outer edge corresponding to the second label is a release edge to remove the second label from the unit when adhered to the package. a liner; a label; wherein a plurality of die cut tabs (111, 112) are provided in the liner; wherein a die cut second label is provided in the label, the second label having a release edge; wherein a backside of the label includes an adhesive coating and is affixed to a front side of the liner with the tabs (111, 112) at least partially aligned to the second label; wherein the label and the second label are configured to be removed from the liner as a unit and adhered to a package as the unit with the tabs; wherein a liner backside corresponding to the tabs (111, 112) removed with the unit is devoid of any adhesive; wherein areas of the backside of the label that correspond to the second label and that do not correspond to the tabs include the adhesive coating to permit the second label to retain adhesion on the package; wherein the unit comprising the label and the second label share one outer edge; wherein the outer edge corresponding to the label is a straight line; wherein the outer edge corresponding to the second label curves inward from the straight line forming an arc; and wherein the outer edge corresponding to the second label is a release edge to remove the second label from the unit when adhered to the package.
A silica sol, characterized in that the silica sol comprises silica particles, water and/or a liquid organic medium serving as a dispersion medium, and at least one of a secondary amine and a tertiary amine, wherein the silica particles are produced through a method including hydrolysis a silicon alkoxide with ammonia while the mole ratio (N/Si) is maintained at a mole ratio (N/Si) of 0.01 to 1.0; can be used in electronic material; and are dispersed in the dispersion medium, wherein the silica sol satisfies the following requirements (a) to (c): (a) the silica particles have a specific surface area, as determined through a nitrogen adsorption method, of 20 to 500 m 2 /g; (b) the silica particles have a moisture adsorption amount per surface area thereof of 0.5 mg/m 2 or less; and (c) the amount of at least one of a secondary amine and a tertiary amine inside of the silica particles is 0.2 mmol/g or smaller, and the silica sol has at least one of a secondary amine and a tertiary amine content of 0.001 to 0.5 mmol/g with respect to the silica particles. (a) the silica particles have a specific surface area, as determined through a nitrogen adsorption method, of 20 to 500 m 2 /g; (b) the silica particles have a moisture adsorption amount per surface area thereof of 0.5 mg/m 2 or less; and (c) the amount of at least one of a secondary amine and a tertiary amine inside of the silica particles is 0.2 mmol/g or smaller, and the silica sol has at least one of a secondary amine and a tertiary amine content of 0.001 to 0.5 mmol/g with respect to the silica particles.
A patch package structure comprising a patch and a packaging member housing the patch, wherein the patch comprises a support and an adhesive layer formed on at least one surface of the support, the adhesive layer comprises an organic liquid component which comprises one or more kinds selected from the group consisting of plasticizers, fats and oils, hydrocarbons, surfactants, alcohols, glycerol esters, fatty acid esters, fatty acids, N-methylpyrrolidone, and 1,3-butanediol, the packaging member comprises a first package and a second package, the first package comprises an acrylonitrile resin layer, a moisture-absorbing layer which comprises a composition containing a moisture-absorbing agent and a polyolefin resin formed on the acrylonitrile resin layer, and a moisture impermeable layer formed on the moisture-absorbing layer, a first low density polyethylene layer disposed between the moisture impermeable layer and the moisture-absorbing layer, and a second low density polyethylene layer disposed between the acrylonitrile resin layer and the moisture-absorbing layer, and the acrylonitrile resin layer is provided on a proximal side of the patch. the patch comprises a support and an adhesive layer formed on at least one surface of the support, the adhesive layer comprises an organic liquid component which comprises one or more kinds selected from the group consisting of plasticizers, fats and oils, hydrocarbons, surfactants, alcohols, glycerol esters, fatty acid esters, fatty acids, N-methylpyrrolidone, and 1,3-butanediol, the packaging member comprises a first package and a second package, the first package comprises an acrylonitrile resin layer, a moisture-absorbing layer which comprises a composition containing a moisture-absorbing agent and a polyolefin resin formed on the acrylonitrile resin layer, and a moisture impermeable layer formed on the moisture-absorbing layer, a first low density polyethylene layer disposed between the moisture impermeable layer and the moisture-absorbing layer, and a second low density polyethylene layer disposed between the acrylonitrile resin layer and the moisture-absorbing layer, and the acrylonitrile resin layer is provided on a proximal side of the patch.
A retraction guidewire for imparting a retraction force on an organ wall, configured to transition from an elongate configuration to a deployed configuration, the deployed configuration of the retraction guidewire including: a dome portion having a distal end and a proximal end, a first side, and a second side defined laterally opposite the first side; and including a first contact loop on the first side of the dome portion that extends from the distal end to the proximal end of the dome portion, and a second contact loop on the second side of the dome portion that extends from the distal end to the proximal end of the dome portion; the first contact loop including a first leg portion, a first foot defined by an arcuate extension of wire at the proximal end of the dome portion; the first foot portion extending arcuately from the first leg portion to define a bottom contact surface at a proximal end of the dome portion, and a second leg portion extending distally from the first foot portion; and the dome portion further comprising a second foot defined by an arcuate extension of wire at the proximal end of the dome portion; and wherein the dome portion defines an open interior region; and wherein a stem portion extends through the dome portion and proximally from the distal end of the dome portion. a dome portion having a distal end and a proximal end, a first side, and a second side defined laterally opposite the first side; and including a first contact loop on the first side of the dome portion that extends from the distal end to the proximal end of the dome portion, and a second contact loop on the second side of the dome portion that extends from the distal end to the proximal end of the dome portion; the first contact loop including a first leg portion, a first foot defined by an arcuate extension of wire at the proximal end of the dome portion; the first foot portion extending arcuately from the first leg portion to define a bottom contact surface at a proximal end of the dome portion, and a second leg portion extending distally from the first foot portion; and the dome portion further comprising a second foot defined by an arcuate extension of wire at the proximal end of the dome portion; and wherein the dome portion defines an open interior region; and wherein a stem portion extends through the dome portion and proximally from the distal end of the dome portion.
Motor vehicle having a lane detection system for detecting at least one lane (2, 3, 4) behind said motor vehicle, comprising a marking generating device and a display device, wherein a marking (10, 11, 12) representing the detected lane (2, 3, 4) is generated on the display device by means of the marking generating device as a result of a lane signal generated by the lane detection system, wherein the motor vehicle has a vehicle detection device, wherein the lane (2, 3, 4) in which the vehicle is located is indicated on the display device by means of the vehicle detection device in conjunction with the marking generating device, and the motor vehicle is designed having a distance measuring device for measuring both the distance from tailing vehicles (14, 15, 16) and in which lane (2, 3, 4) said tailing vehicles (14, 15, 16) are located, and for indicating the distance in conjunction with the marking generating device, wherein the distance is indicated by changing the marking (10, 11, 12) which represents the corresponding detected lane (2, 3, 4).
A substrate within a device (12-32, 450, 500, 550) having a first and second intra-device local transceiver, the substrate comprising: the first intra-device local transceiver formed upon the substrate; a wave guide (316, 308) formed within the substrate operable to guide very high radio frequency signals of at least 10 GHz within the wave guide; a first substrate local transceiver (312, 304) operable to transmit the very high RF signals through the wave guide and not through space; a second substrate local transceiver operable to receive the very high RF signals from the wave guide and not from space; wherein the first intra-device local transceiver is communicatively coupled to the first substrate local transceiver and is operable to wirelessly transmit low power RF signals over a wireless link radiated through space to the second intra-device local transceiver; and a third transceiver communicatively coupled to at least one of the first substrate local transceiver, the second substrate local transceiver, the first intra-device local transceiver, or the second intra-device local transceiver, wherein the third transceiver is operable to transmit wireless communication signals over wireless links radiated through space to remote wireless communication devices. the first intra-device local transceiver formed upon the substrate; a wave guide (316, 308) formed within the substrate operable to guide very high radio frequency signals of at least 10 GHz within the wave guide; a first substrate local transceiver (312, 304) operable to transmit the very high RF signals through the wave guide and not through space; a second substrate local transceiver operable to receive the very high RF signals from the wave guide and not from space; wherein the first intra-device local transceiver is communicatively coupled to the first substrate local transceiver and is operable to wirelessly transmit low power RF signals over a wireless link radiated through space to the second intra-device local transceiver; and a third transceiver communicatively coupled to at least one of the first substrate local transceiver, the second substrate local transceiver, the first intra-device local transceiver, or the second intra-device local transceiver, wherein the third transceiver is operable to transmit wireless communication signals over wireless links radiated through space to remote wireless communication devices.
The method for biofunctionalization of textile materials by extrusion, wherein a polymer component is premixed with copper silicate, a plasticizer and an antioxidant, then heated to melt, after which the molten composition is subjected to pneumothermal extrusion of liquid-polymer composite in hot air stream, characterized in that the copper silicate is used in the form of a hydrate.
A non-transitory computer storage medium having embodied thereon computer-readable instructions that, when executed, perform a method comprising: detecting a biometric marker of a driver of a vehicle via a personal electronic device of the driver; and projecting health condition data associated with the biometric marker on a window of the vehicle, wherein the health condition data associated with the biometric marker is projected on the window pre-travel, before the driver enters the vehicle. detecting a biometric marker of a driver of a vehicle via a personal electronic device of the driver; and projecting health condition data associated with the biometric marker on a window of the vehicle, wherein the health condition data associated with the biometric marker is projected on the window pre-travel, before the driver enters the vehicle.
An amplifier system, comprising: a power stage having inputs for three different supply voltages and an output for coupling to a load; a controller to generate control signals to the power stage that cause the power stage to vary an output voltage (VOUT) applied to the load among more than three distinct voltage levels; a monitor to provide a first control signal to the controller based on an input voltage signal and not on the output voltage; and a feedback system to provide a second control signal to the controller based on comparison of the output voltage and the input voltage signal. a power stage having inputs for three different supply voltages and an output for coupling to a load; a controller to generate control signals to the power stage that cause the power stage to vary an output voltage (VOUT) applied to the load among more than three distinct voltage levels; a monitor to provide a first control signal to the controller based on an input voltage signal and not on the output voltage; and a feedback system to provide a second control signal to the controller based on comparison of the output voltage and the input voltage signal.
A holder device, comprising: a plurality of multi-core optical adapters each multi-core optical adapter being configured for interconnecting pairs of facing LC type optical connector plugs (P1, P2), and a holder for said plurality of multi-core optical adapters, said holder having a plurality of receiving portions which are each arranged within a rectangular tubular casing so as to be adjacent via a reinforcing intermediate partition portion, wherein the holder device is formed by fitting and arranging said plurality of multi-core optical adapters in the respective plurality of receiving portions of said holder, characterized by further comprising a pulling direction come-off prevention portion constructed by projection portions which are formed in right and left inner wall surfaces and said reinforcing intermediate partition portion of said holder, and concave portions which are formed in right and left outer wall surfaces of said plurality of multi-core optical adapters for fitting and locking said projection portions. a plurality of multi-core optical adapters each multi-core optical adapter being configured for interconnecting pairs of facing LC type optical connector plugs (P1, P2), and a holder for said plurality of multi-core optical adapters, said holder having a plurality of receiving portions which are each arranged within a rectangular tubular casing so as to be adjacent via a reinforcing intermediate partition portion, wherein the holder device is formed by fitting and arranging said plurality of multi-core optical adapters in the respective plurality of receiving portions of said holder, characterized by further comprising a pulling direction come-off prevention portion constructed by projection portions which are formed in right and left inner wall surfaces and said reinforcing intermediate partition portion of said holder, and concave portions which are formed in right and left outer wall surfaces of said plurality of multi-core optical adapters for fitting and locking said projection portions.
A tyre comprising: a tread portion comprising a first tread edge, a first shoulder circumferential groove extending in a tyre circumferential direction adjacent to the first tread edge, and a first shoulder land portion demarcated by the first shoulder circumferential groove to include the first tread edge, wherein the first shoulder land portion is provided with a plurality of first shoulder lateral grooves extending from the first shoulder circumferential groove to at least the first tread edge, at least one of the plurality of first shoulder lateral grooves comprises a first groove wall and a second groove wall which face each other and extend in a tyre radial direction, and a tie-bar in which a groove bottom portion raises locally, the tie-bar comprises an outer surface extending along a ground contact surface of the first shoulder land portion, the outer surface being connected to the first groove wall and the second groove wall, characterized in that the outer surface comprises a first edge connected to the first groove wall, and a second edge connected to the second groove wall, the second edge having a length smaller than a length of the first edge. a tread portion comprising a first tread edge, a first shoulder circumferential groove extending in a tyre circumferential direction adjacent to the first tread edge, and a first shoulder land portion demarcated by the first shoulder circumferential groove to include the first tread edge, wherein the first shoulder land portion is provided with a plurality of first shoulder lateral grooves extending from the first shoulder circumferential groove to at least the first tread edge, at least one of the plurality of first shoulder lateral grooves comprises a first groove wall and a second groove wall which face each other and extend in a tyre radial direction, and a tie-bar in which a groove bottom portion raises locally, the tie-bar comprises an outer surface extending along a ground contact surface of the first shoulder land portion, the outer surface being connected to the first groove wall and the second groove wall, characterized in that the outer surface comprises a first edge connected to the first groove wall, and a second edge connected to the second groove wall, the second edge having a length smaller than a length of the first edge.
A computer-implemented method comprising: representing actual measurements of a seismic wavefield as combinations of an upgoing pressure component of the seismic wavefield and ghost operators, wherein the act of representing comprises representing the upgoing pressure component as a linear combination of basis functions; and determining the coefficients of the linear combination of basis functions, thereby jointly determining interpolated and deghosted components of the seismic wavefield, based at least in part on the actual measurements and the representation, wherein the act of determining comprises: determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and building up an image of a survey area based on the interpolated and deghosted seismic data for the purposes of identifying subterranean geological formations. representing actual measurements of a seismic wavefield as combinations of an upgoing pressure component of the seismic wavefield and ghost operators, wherein the act of representing comprises representing the upgoing pressure component as a linear combination of basis functions; and determining the coefficients of the linear combination of basis functions, thereby jointly determining interpolated and deghosted components of the seismic wavefield, based at least in part on the actual measurements and the representation, wherein the act of determining comprises: determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and determining coefficients of the linear combination of basis functions in an iterative sequence of adding a basis function to the existing linear combination of basis functions, applying the ghost operator to the added basis function to generate a transformed basis function; adding the transformed basis function to an existing representation of the actual measurements to generate a new representation of the actual measurements; and minimizing a residual between the actual measurements and the new representation of the actual measurements; and building up an image of a survey area based on the interpolated and deghosted seismic data for the purposes of identifying subterranean geological formations.
A method comprising: receiving, by a computing device, a data model configuration indicating one or more attributes of a data model used by a cloud-based application as protected by a data security provider monitoring communications between the cloud-based application and a client device (205, 210, 215); determining, by the computing device, one or more protected fields using the data model configuration; determining, by the computing device, one or more actions that can be performed using the one or more protected fields; and configuring, by the computing device, the cloud-based application based on the one or more actions that can be performed using the one or more protected fields. receiving, by a computing device, a data model configuration indicating one or more attributes of a data model used by a cloud-based application as protected by a data security provider monitoring communications between the cloud-based application and a client device (205, 210, 215); determining, by the computing device, one or more protected fields using the data model configuration; determining, by the computing device, one or more actions that can be performed using the one or more protected fields; and configuring, by the computing device, the cloud-based application based on the one or more actions that can be performed using the one or more protected fields.