mhurhangee/ep-ind-claims huggingface dataset:
A display method to display an interest area of an ultrasound image displayed on a touch screen, comprising: - providing, on the ultrasound image, at least a first movable object (1711; 1811) having a first area (1710; 1810), which defines an extended touch recognition range with respect to the first movable object (1711; 1811), and a second object (1721; 1821); - receiving a touch-and-drag input, by recognizing that the first movable object (1711; 1811) is touched when the touch screen is touched in the extended touch recognition range of the first area (1710; 1810) outside the first movable object; - displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image; characterized by - defining the extended touch recognition range with respect to the first movable object (1711; 1811) as a boundary of the first area (1710; 1810), which encloses the first movable object (1711; 1811); - wherein the receiving the touch-and-drag input comprises receiving an input of a touch-point within the boundary of the first area (1710; 1810); wherein displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image is relative to the second object (1721; 1821); and - adapting a measurement line between the first movable object (1711; 1811) and the second object (1721; 1821) having a length corresponding with a distance between the first movable object (1711; 1811) and the second object (1721; 1821), based on the displacement of the first movable object (1711; 1811). - providing, on the ultrasound image, at least a first movable object (1711; 1811) having a first area (1710; 1810), which defines an extended touch recognition range with respect to the first movable object (1711; 1811), and a second object (1721; 1821); - receiving a touch-and-drag input, by recognizing that the first movable object (1711; 1811) is touched when the touch screen is touched in the extended touch recognition range of the first area (1710; 1810) outside the first movable object; - displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image; characterized by - defining the extended touch recognition range with respect to the first movable object (1711; 1811) as a boundary of the first area (1710; 1810), which encloses the first movable object (1711; 1811); - wherein the receiving the touch-and-drag input comprises receiving an input of a touch-point within the boundary of the first area (1710; 1810); wherein displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image is relative to the second object (1721; 1821); and - adapting a measurement line between the first movable object (1711; 1811) and the second object (1721; 1821) having a length corresponding with a distance between the first movable object (1711; 1811) and the second object (1721; 1821), based on the displacement of the first movable object (1711; 1811).
A floor covering comprising: - at least one stone plate (1, 2) arranged on the surface of the floor covering, wherein a stone plate (1, 2) is understood to include a ceramic plate, a plate made of stone powder or a plate containing stone powder and granulated stone material, respectively, and a calibrated natural stone plate, i.e. a natural stone, which has previously been brought to a defined thickness, and - a base layer composed of a thermoplastic material and cork, which base layer covers the lower side of the at least one stone plate (1, 2) and has a permanent joint with the at least one stone plate (1, 2). - at least one stone plate (1, 2) arranged on the surface of the floor covering, wherein a stone plate (1, 2) is understood to include a ceramic plate, a plate made of stone powder or a plate containing stone powder and granulated stone material, respectively, and a calibrated natural stone plate, i.e. a natural stone, which has previously been brought to a defined thickness, and - a base layer composed of a thermoplastic material and cork, which base layer covers the lower side of the at least one stone plate (1, 2) and has a permanent joint with the at least one stone plate (1, 2).
Insulation element for thermal and/or acoustic insulation of a flat roof or a flat inclined roof, comprising: - a first layer made of mineral fibres, especially stone wool fibres, - a second layer made of at least one fabric, especially a fleece being impregnated, whereby the second layer is fixed to a major surface of the first layer by an adhesive, characterized in that - the second layer is impregnated with a inorganic filler, especially lime and - the second layer in combination with the filler has a permeability allowing hot air gases to pass through the second layer and closing the second layer for the penetration of a glue or adhesive in the direction to the first layer. - a first layer made of mineral fibres, especially stone wool fibres, - a second layer made of at least one fabric, especially a fleece being impregnated, - the second layer is impregnated with a inorganic filler, especially lime and - the second layer in combination with the filler has a permeability allowing hot air gases to pass through the second layer and closing the second layer for the penetration of a glue or adhesive in the direction to the first layer.
A device for determining whether liquid enters a subsea system, the device comprising: a flow line comprising an inside bore capable of carrying producing fluids from a subsea wellhead to a floating production storage and offloading vessel (FPSO), wherein an annulus is defined between an innermost sheath that surrounds the inside bore and an outermost sheath at an exterior of the flow line; characterized by: a plurality of open-ended tubes disposed within the annulus and in hydraulic communication with the annulus, wherein the open-ended tubes have different lengths; a sensor element disposed in each open-ended tube at a pre-determined location; and data acquisition equipment capable of: determining environmental characteristics of the annulus based on measurements made by each sensor element, and determining at least one of the presence, location, and rate of collection of liquids in the subsea system based on the environmental characteristics of the annulus. a plurality of open-ended tubes disposed within the annulus and in hydraulic communication with the annulus, wherein the open-ended tubes have different lengths; a sensor element disposed in each open-ended tube at a pre-determined location; and data acquisition equipment capable of: determining environmental characteristics of the annulus based on measurements made by each sensor element, and determining at least one of the presence, location, and rate of collection of liquids in the subsea system based on the environmental characteristics of the annulus. determining environmental characteristics of the annulus based on measurements made by each sensor element, and determining at least one of the presence, location, and rate of collection of liquids in the subsea system based on the environmental characteristics of the annulus.
A modular electrical connector assembly kit, said kit comprising; a common insulative material header component having a plurality of receptacle spaces defined therein for forming a connector configuration; a plurality of different contact sub-assemblies having varying contact element configurations; each of said contact sub-assemblies comprising an insulative base component, said contact elements held in said base component, said base component defining a first mating surface; each of said receptacle spaces comprising a second mating surface disposed so as to face said first mating surface of said contact sub-assemblies; wherein said contact sub-assemblies fit into said receptacle spaces with a secure attachment between said first and second mating surfaces in said connector configuration; and characterized in that the contact sub-assemblies have a common perimeter size and are configured to be received in the respective receptacle spaces defined in the header component. a common insulative material header component having a plurality of receptacle spaces defined therein for forming a connector configuration; a plurality of different contact sub-assemblies having varying contact element configurations; each of said contact sub-assemblies comprising an insulative base component, said contact elements held in said base component, said base component defining a first mating surface; each of said receptacle spaces comprising a second mating surface disposed so as to face said first mating surface of said contact sub-assemblies; wherein said contact sub-assemblies fit into said receptacle spaces with a secure attachment between said first and second mating surfaces in said connector configuration; and characterized in that the contact sub-assemblies have a common perimeter size and are configured to be received in the respective receptacle spaces defined in the header component.
An image sensor comprising an image sensor substrate having an array of pixels formed thereon, said array of pixels comprising: a first pixel region comprising a contiguous first array of pixels, said first array of pixels only comprising pixels configured for peak sensitivity to wavelength(s) below 700 nm; and a second pixel region comprising a contiguous second array of pixels of at least 300 pixels, said second array of pixels comprising pixels of a first pixel type and pixels of a second pixel type, wherein pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region, such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor. a first pixel region comprising a contiguous first array of pixels, said first array of pixels only comprising pixels configured for peak sensitivity to wavelength(s) below 700 nm; and a second pixel region comprising a contiguous second array of pixels of at least 300 pixels, said second array of pixels comprising pixels of a first pixel type and pixels of a second pixel type, wherein pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region, such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor. pixels of the first pixel type are configured for peak sensitivity to wavelength(s) between 700 nm and 1000 nm; and pixels of the second pixel type are configured for peak sensitivity to wavelength(s) below 700 nm, wherein the first pixel region surrounds the second pixel region, such that an average distance of pixels within the second pixel region from a centre of the image sensor is less than an average distance of pixels within the first pixel region from the centre of the image sensor.
A method of stress testing a telecommunications connection between a customer premises termination and a local switching system connected to a network, independently of the rest of the network, by using a test device provided with an emulation processor and connected to the customer premises termination, the method comprising the steps of: a) using the emulation processor to control the test device such that a port on the test device is mapped to a dummy device destination address at a dummy destination node address; b) using the emulation processor to generate a high volume of simulated data traffic and transmit said simulated data traffic to said dummy device destination address through said port; c) using the local switching system to intercept said test data such that the data routing is terminated at the local switching system and the test data is forwarded to a data analysis processor, arranged to detect one or more characteristics of said intercepted data. a) using the emulation processor to control the test device such that a port on the test device is mapped to a dummy device destination address at a dummy destination node address; b) using the emulation processor to generate a high volume of simulated data traffic and transmit said simulated data traffic to said dummy device destination address through said port; c) using the local switching system to intercept said test data such that the data routing is terminated at the local switching system and the test data is forwarded to a data analysis processor, arranged to detect one or more characteristics of said intercepted data.
A water-in-oil (W/O) type emulsion comprising chemically asymmetric anisotropic powder which comprises a first hydrophilic polymer spheroid and a second hydrophobic polymer spheroid, wherein the first and second polymer spheroids are bound to each other with a structure in which one polymer spheroid at least partially infiltrates the other polymer spheroid; the first polymer spheroid has a core-shell structure; and the shell has a functional group, wherein the second polymer spheroid and the core of the first polymer spheroid comprise a vinyl polymer, and the shell of the first polymer spheroid comprises a copolymer of a vinyl monomer with a functional group-containing monomer which is siloxane; and the vinyl polymer is polystyrene, and wherein the aqueous phase part of the water-in-oil type emulsion composition comprises a salt.
A method of preparing a hard coating film, comprising the steps of: applying a hard coating composition onto both sides of a supporting substrate, the hard coating composition comprising a binder including a tri- to hexa-functional acrylate-based monomer, inorganic particles and a photoinitiator; and irradiating the applied hard coating composition with ultraviolet to simultaneously photocure the hard coating composition, thus forming a hard coating layer, wherein the inorganic particles have a particle size of 100 nm or less, and wherein the hard coating composition includes 35 to 85 parts by weight of the binder, 10 to 60 parts by weight of the inorganic particles and 0.5 to 10 parts by weight of the photoinitiator, based on 100 parts by weight of the hard coating composition. applying a hard coating composition onto both sides of a supporting substrate, the hard coating composition comprising a binder including a tri- to hexa-functional acrylate-based monomer, inorganic particles and a photoinitiator; and irradiating the applied hard coating composition with ultraviolet to simultaneously photocure the hard coating composition, thus forming a hard coating layer, wherein the inorganic particles have a particle size of 100 nm or less, and wherein the hard coating composition includes 35 to 85 parts by weight of the binder, 10 to 60 parts by weight of the inorganic particles and 0.5 to 10 parts by weight of the photoinitiator, based on 100 parts by weight of the hard coating composition.
A method for mixing a first gas and a second gas, the method comprising the steps of: - providing a mixing device for mixing the first gas with the second gas, the mixing device comprising: • a first inlet section • a second inlet section • an outlet section • a first duct sheet • a second duct sheet • a distribution chamber • at least two injection ducts arranged in said first duct sheet • at least two mixing ducts arranged in said second duct sheet, wherein the space between the first duct sheet and the second duct sheet forms the distribution chamber and wherein said mixing device is at least partly made of ceramic materials, - providing a first flow comprising the first gas at the first inlet section, - providing a second flow comprising the second gas at the second inlet section, - mixing the first gas and the second gas in a mixing zone formed within each of the at least two mixing ducts, wherein the one of the two gasses is a relative cold corrosive gas with a temperature below its dew point and the other gas is a relative hot corrosive gas with a temperature above its dew point. - providing a mixing device for mixing the first gas with the second gas, the mixing device comprising: • a first inlet section • a second inlet section • an outlet section • a first duct sheet • a second duct sheet • a distribution chamber • at least two injection ducts arranged in said first duct sheet • at least two mixing ducts arranged in said second duct sheet, wherein the space between the first duct sheet and the second duct sheet forms the distribution chamber and wherein said mixing device is at least partly made of ceramic materials, • a first inlet section • a second inlet section • an outlet section • a first duct sheet • a second duct sheet • a distribution chamber • at least two injection ducts arranged in said first duct sheet • at least two mixing ducts arranged in said second duct sheet, - providing a first flow comprising the first gas at the first inlet section, - providing a second flow comprising the second gas at the second inlet section, - mixing the first gas and the second gas in a mixing zone formed within each of the at least two mixing ducts, wherein the one of the two gasses is a relative cold corrosive gas with a temperature below its dew point and the other gas is a relative hot corrosive gas with a temperature above its dew point.
A battery powered tool extending in a longitudinal direction, comprising a tool body and a battery pack, which battery pack is arranged on the tool body and adapted to power the tool, wherein the tool body is provided with a through aperture with an extension length through the tool body in a direction that is perpendicular to the longitudinal extension direction of the tool; characterized in that the through aperture is adapted to receive the battery pack, such that when the battery pack is mounted in the through aperture, the tool body at least partly surrounds the battery pack; the tool body is provided with a connector within the through aperture, which connector is adapted to integrate with a corresponding connector on the battery pack when the battery pack is mounted in the through aperture; and the connectors (13,22) are adapted to transfer power from the battery pack to the tool body.
A method for reducing or eliminating scale in an industrial process, comprising adding a composition comprising a polymeric reaction product of at least a polyamine, a first nitrogen-reactive compound, and a second nitrogen-reactive compound, the polymeric reaction product having a weight average molecular weight of at least 500 as measured by size exclusion chromatography (light scattering detection), wherein: the first nitrogen-reactive compound comprises a -Si(OR") 3 group and a nitrogen-reactive group, where R" = H, optionally substituted C 1 -C 20 alkyl, optionally substituted C 6 -C 12 aryl, optionally substituted C 7 -C 20 aralkyl, optionally substituted C 2 -C 20 alkenyl, Group I metal ion, Group II metal ion, or NR 1 4, each R 1 being independently selected from H, optionally substituted C 1 -C 20 alkyl, optionally substituted C 6 -C 12 aryl, optionally substituted C 7 -C 20 aralkyl, and optionally substituted C 2 -C 20 alkenyl; the second nitrogen-reactive compound comprises a nitrogen-reactive group and does not contain a Si(OR") 3 group; and at least one of the polyamine and the second nitrogen-reactive compound comprises an optionally substituted hydrocarbyl radical comprising from 2 to 40 carbons, to the process. the first nitrogen-reactive compound comprises a -Si(OR") 3 group and a nitrogen-reactive group, where R" = H, optionally substituted C 1 -C 20 alkyl, optionally substituted C 6 -C 12 aryl, optionally substituted C 7 -C 20 aralkyl, optionally substituted C 2 -C 20 alkenyl, Group I metal ion, Group II metal ion, or NR 1 4, each R 1 being independently selected from H, optionally substituted C 1 -C 20 alkyl, optionally substituted C 6 -C 12 aryl, optionally substituted C 7 -C 20 aralkyl, and optionally substituted C 2 -C 20 alkenyl; the second nitrogen-reactive compound comprises a nitrogen-reactive group and does not contain a Si(OR") 3 group; and at least one of the polyamine and the second nitrogen-reactive compound comprises an optionally substituted hydrocarbyl radical comprising from 2 to 40 carbons, to the process.
A system for determining a rotation matrix for use in generating a cardiopulmonary resuscitation-induced chest compression depth measurement, said system comprising: a first sensor operable to generate first signals in a first orientation frame defined by a first set of axes (10x, 10y, 10z); a second sensor operable to generate second signals in a second orientation frame defined by a second set of axes (11x, 11y, 11z); in which the system is operable to: receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors. a first sensor operable to generate first signals in a first orientation frame defined by a first set of axes (10x, 10y, 10z); a second sensor operable to generate second signals in a second orientation frame defined by a second set of axes (11x, 11y, 11z); in which the system is operable to: receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors. receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors.