mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device at a user equipment side, comprising: one or more processing circuits configured to perform operations of: determining positioning measurement auxiliary data for the user equipment, the auxiliary data comprising configuration information of an enhanced discovery reference signal eDRS transmitted by at least one sleeping small cell base station; performing positioning measurement on the eDRS transmitted by the at least one sleeping small cell base station based on the auxiliary data; and generating positioning information based on a result of positioning measurement performed on the eDRS transmitted by the at least one sleeping small cell base station to perform positioning on the user equipment, wherein the eDRS has a greater transmission power than a discovery reference signal DRS. one or more processing circuits configured to perform operations of: determining positioning measurement auxiliary data for the user equipment, the auxiliary data comprising configuration information of an enhanced discovery reference signal eDRS transmitted by at least one sleeping small cell base station; performing positioning measurement on the eDRS transmitted by the at least one sleeping small cell base station based on the auxiliary data; and generating positioning information based on a result of positioning measurement performed on the eDRS transmitted by the at least one sleeping small cell base station to perform positioning on the user equipment, determining positioning measurement auxiliary data for the user equipment, the auxiliary data comprising configuration information of an enhanced discovery reference signal eDRS transmitted by at least one sleeping small cell base station; performing positioning measurement on the eDRS transmitted by the at least one sleeping small cell base station based on the auxiliary data; and generating positioning information based on a result of positioning measurement performed on the eDRS transmitted by the at least one sleeping small cell base station to perform positioning on the user equipment, wherein the eDRS has a greater transmission power than a discovery reference signal DRS.
A gelled carbon-based composition forming an organic polymeric monolithic gel capable of forming a porous carbon monolith by pyrolysis, the composition being based on a resin derived at least partly from polyhydroxybenzene(s) monomer(s) R chosen from the di- or tri- hydroxybenzenes and from a formaldehyde monomer F and having a thermal conductivity of less than or equal to 40 mW.m -1 .K -1 , wherein said gelled composition comprises at least one water-soluble cationic polyelectrolyte P, the composition comprising the product of a reaction for polymerization, in an aqueous solvent W, of said polyhydroxybenzene(s) R and of the formaldehyde F, in the presence of said at least one cationic polyelectrolyte P dissolved in this solvent and of a catalyst, and wherein said product of the polymerization reaction comprises said at least one cationic polyelectrolyte P in a mass fraction of between 0.2% and 2%.
Apparatus, comprising: a probe , configured for insertion into a body cavity of a patient and comprising a position sensor for measuring a position of a distal end of the probe inside the body cavity and a force sensor for measuring a force between the distal end and a wall of the body cavity; and a processor , which is configured to construct a simulated surface of the body cavity, to accept from the probe , while pressing the distal end against the wall, position measurements indicating a position of the probe within the body cavity and force measurements indicating a force between the distal end and the wall, to create a distortion in the simulated surface at the position indicated by the position measurements, so as to form a distorted surface, upon detecting that the force measurements exceed a predefined amount, and to display the distorted surface, wherein the processor is configured to adjust the magnitude of the distortion depending on the tissue in contact with the distal end, wherein the processor is configured to introduce a greater degree of distortion when the distal end is in contact with atrial tissue than when the distal end is in contact with ventricle tissue and applying equivalent force. a probe , configured for insertion into a body cavity of a patient and comprising a position sensor for measuring a position of a distal end of the probe inside the body cavity and a force sensor for measuring a force between the distal end and a wall of the body cavity; and a processor , which is configured to construct a simulated surface of the body cavity, to accept from the probe , while pressing the distal end against the wall, position measurements indicating a position of the probe within the body cavity and force measurements indicating a force between the distal end and the wall, to create a distortion in the simulated surface at the position indicated by the position measurements, so as to form a distorted surface, upon detecting that the force measurements exceed a predefined amount, and to display the distorted surface, wherein the processor is configured to adjust the magnitude of the distortion depending on the tissue in contact with the distal end, wherein the processor is configured to introduce a greater degree of distortion when the distal end is in contact with atrial tissue than when the distal end is in contact with ventricle tissue and applying equivalent force.
A method of displaying a plurality of display windows (10-40) on a screen by using a device , the method comprising: displaying (S200) a first display window of a first application on the screen; receiving (S202) a first user input that selects a first object included in the first display window; displaying (S204) a first list of applications matching a display mode of the first display window in response to the first user input, the display mode being for displaying a window of an application according to at least one of a size, a displaying position or a displaying priority of the window; receiving a second user input that selects a second application included in the first list ; and displaying (S206) a second display window of the second application in the display mode of the first display window, the second display window including an execution result of the second application selected from the first list , wherein a window of each application in the first list is displayable in a display mode that is the same as the display mode of the first window. displaying (S200) a first display window of a first application on the screen; receiving (S202) a first user input that selects a first object included in the first display window; displaying (S204) a first list of applications matching a display mode of the first display window in response to the first user input, the display mode being for displaying a window of an application according to at least one of a size, a displaying position or a displaying priority of the window; receiving a second user input that selects a second application included in the first list ; and displaying (S206) a second display window of the second application in the display mode of the first display window, the second display window including an execution result of the second application selected from the first list , wherein a window of each application in the first list is displayable in a display mode that is the same as the display mode of the first window.
A method for accessing and removing the sterile water within a coconut , having a seed-case , a layer of coconut meat inside of the seed-case, and an internal cavity containing sterile coconut water , in a condition that is ready for a consumer to easily access and remove the coconut water within the coconut, wherein the sterility of the coconut water has not been compromised during shipping, handling and/or storage of the coconut, the method including the steps of: inserting through the seed-case of the coconut a spigot , wherein the spigot is partially inserted into the coconut meat in a manner in which the spigot does not pierce the coconut water cavity ; and providing cover means for stopping further casual insertion of the spigot into the coconut during shipping and handling, whereby a consumer can easily access and remove the sterile water within the coconut by disabling the cover means and pushing the partially inserted spigot through the remainder of the coconut meat and into the water cavity to access the sterile water . inserting through the seed-case of the coconut a spigot , wherein the spigot is partially inserted into the coconut meat in a manner in which the spigot does not pierce the coconut water cavity ; and providing cover means for stopping further casual insertion of the spigot into the coconut during shipping and handling, whereby a consumer can easily access and remove the sterile water within the coconut by disabling the cover means and pushing the partially inserted spigot through the remainder of the coconut meat and into the water cavity to access the sterile water .
A hybrid dynamic pressure gas thrust bearing, comprises two outer discs , an inner disc clamped between the two outer discs , and foil type elastic parts arranged between each outer disc and the inner disc ; and the two end faces of the inner disc are respectively provided with regular groove-type patterns , and the groove-type pattern in one end face is in mirror symmetry with the groove-type pattern in the other end face, characterised in that , groove-type patterns are also arranged in the outer circumferential face of the inner disc , and the shape of the groove-type pattern in the outer circumferential face is the same as the shape of the groove-type pattern in the left and right end faces, and axial contour lines of the groove-type patterns in the outer circumferential face and radial contour lines of the groove-type patterns in the left and right end faces are in one-to-one correspondence and are connected with each other.
A control unit for deriving a measure of arterial compliance, operably coupleable in use with an oscillometric blood pressure measurement device , and a means for measuring pulse arrival time , the control unit adapted to: acquire using the oscillometric blood pressure measurement device an arterial volume signal indicative of a variation in arterial volume of an artery assumed to be in contact with the measurement device, as a pressure applied to the artery by the measurement device is varied across a range of pressures; wherein the control unit is further adapted to: extract from said arterial volume signal a peak-to-peak volume amplitude signal indicative of a peak-to-peak amplitude of the arterial volume across said range of applied pressures; acquire using the means for measuring pulse arrival time a signal indicative of a variation in pulse arrival time at a particular location along said artery as said applied pressure is varied across said range of pressures; derive from said extracted peak-to-peak volume amplitude signal, a signal, V a - osc , indicative of arterial volume as a function of arterial transmural pressure, based on a first model fitting procedure employing a pre-determined arterial volume model; and derive an output measure indicative of arterial compliance based on the derived Va-osc signal and based on the acquired signal indicative of variation in pulse arrival time, using a further model fitting procedure employing a pre-determined pulse arrival time model relating variation in pulse arrival time, arterial volume, and arterial compliance. acquire using the oscillometric blood pressure measurement device an arterial volume signal indicative of a variation in arterial volume of an artery assumed to be in contact with the measurement device, as a pressure applied to the artery by the measurement device is varied across a range of pressures; extract from said arterial volume signal a peak-to-peak volume amplitude signal indicative of a peak-to-peak amplitude of the arterial volume across said range of applied pressures; acquire using the means for measuring pulse arrival time a signal indicative of a variation in pulse arrival time at a particular location along said artery as said applied pressure is varied across said range of pressures; derive from said extracted peak-to-peak volume amplitude signal, a signal, V a - osc , indicative of arterial volume as a function of arterial transmural pressure, based on a first model fitting procedure employing a pre-determined arterial volume model; and derive an output measure indicative of arterial compliance based on the derived Va-osc signal and based on the acquired signal indicative of variation in pulse arrival time, using a further model fitting procedure employing a pre-determined pulse arrival time model relating variation in pulse arrival time, arterial volume, and arterial compliance.
Textile carrier material for adhesive tapes, comprising one or more plies of a nonwoven material or nonwoven fabric, characterized in that the one or more plies of the nonwoven material or nonwoven fabric has at least one formed areal region with longitudinal strength and at least one transverse tear-off region formed as a tear-off edge, the areal region with longitudinal strength comprising one or more longitudinally oriented loops, produced by means of pillar stitching, of one or more consolidation threads which are stitched to the nonwoven material or nonwoven fabric, and the transverse tear-off region being formed at least by one or more consolidation threads formed with at least one lateral offset with offset stitching, wherein the laterally offset consolidation thread or threads, by mechanically and/or electronically adjustable guide bars, are arranged at an angle of 1° to 90° to the longitudinally oriented consolidation threads and stitched to the nonwoven material or nonwoven fabric.
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 starter air valve (SAV) system comprising: an SAV ; a pressure actuated SAV actuator configured to be operatively connected to the SAV ; and a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; the SAV system characterised by : a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a manual override (MOR) valve selector disposed between the first pressure valve, the second pressure valve, and the SAV actuator, the MOR valve selector configured to selectively fluidly connect the first pressure valve and the SAV actuator in a first position and to fluidly connect the second pressure valve and the SAV actuator in a second position. an SAV ; a pressure actuated SAV actuator configured to be operatively connected to the SAV ; and a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; the SAV system characterised by : a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a manual override (MOR) valve selector disposed between the first pressure valve, the second pressure valve, and the SAV actuator, the MOR valve selector configured to selectively fluidly connect the first pressure valve and the SAV actuator in a first position and to fluidly connect the second pressure valve and the SAV actuator in a second position.
A method for isolating extracellular nucleic acids from a biological sample, comprising (a) preparing from the biological sample a binding mixture comprising i) extracellular nucleic acids; ii) particles providing an anion exchange surface; iii) at least one non-ionic detergent which is a polyoxyalkylene fatty alcohol ether; iv) optionally at least one salt; wherein the anion exchange particles are not comprised in a column or other device that would prevent the particles from moving in the binding mixture and wherein the binding mixture has a pH so that extracellular nucleic acids bind to the particles, (b) separating the particles with the bound extracellular nucleic acids from the remaining binding mixture; (c) optionally washing the bound extracellular nucleic acids; (d) optionally eluting bound extracellular nucleic acids. (a) preparing from the biological sample a binding mixture comprising i) extracellular nucleic acids; ii) particles providing an anion exchange surface; iii) at least one non-ionic detergent which is a polyoxyalkylene fatty alcohol ether; iv) optionally at least one salt; wherein the anion exchange particles are not comprised in a column or other device that would prevent the particles from moving in the binding mixture and wherein the binding mixture has a pH so that extracellular nucleic acids bind to the particles, i) extracellular nucleic acids; ii) particles providing an anion exchange surface; iii) at least one non-ionic detergent which is a polyoxyalkylene fatty alcohol ether; iv) optionally at least one salt; (b) separating the particles with the bound extracellular nucleic acids from the remaining binding mixture; (c) optionally washing the bound extracellular nucleic acids; (d) optionally eluting bound extracellular nucleic acids.
An extruded film comprising a composition comprising a blend of a fluoropolymer and an ultraviolet light-absorbing oligomer, wherein the ultraviolet light-absorbing oligomer comprises: a first divalent unit comprising a pendent ultraviolet absorbing group; and a second divalent unit represented by formula: wherein R 1 is hydrogen or methyl; and R 2 is alkyl having from 1 to 4 carbon atoms, and wherein at least one of the following limitations is met: the ultraviolet light-absorbing oligomer further comprises a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group; or the composition further comprises a second oligomer comprising a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group and at least one of the second divalent units and not the first divalent unit, wherein the nitrogen of the pendent 2,2,6,6-tetramethylpiperidinyl group is substituted by hydrogen, alkyl, oxy, alkoxy, or alkanone. a first divalent unit comprising a pendent ultraviolet absorbing group; and a second divalent unit represented by formula: wherein R 1 is hydrogen or methyl; and R 2 is alkyl having from 1 to 4 carbon atoms, and wherein at least one of the following limitations is met: the ultraviolet light-absorbing oligomer further comprises a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group; or the composition further comprises a second oligomer comprising a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group and at least one of the second divalent units and not the first divalent unit, wherein the nitrogen of the pendent 2,2,6,6-tetramethylpiperidinyl group is substituted by hydrogen, alkyl, oxy, alkoxy, or alkanone. R 1 is hydrogen or methyl; and R 2 is alkyl having from 1 to 4 carbon atoms, and wherein at least one of the following limitations is met: the ultraviolet light-absorbing oligomer further comprises a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group; or the composition further comprises a second oligomer comprising a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group and at least one of the second divalent units and not the first divalent unit, wherein the nitrogen of the pendent 2,2,6,6-tetramethylpiperidinyl group is substituted by hydrogen, alkyl, oxy, alkoxy, or alkanone. the ultraviolet light-absorbing oligomer further comprises a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group; or the composition further comprises a second oligomer comprising a third divalent unit comprising a pendent 2,2,6,6-tetramethylpiperidinyl group and at least one of the second divalent units and not the first divalent unit, wherein the nitrogen of the pendent 2,2,6,6-tetramethylpiperidinyl group is substituted by hydrogen, alkyl, oxy, alkoxy, or alkanone.