mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented contrast element tracking method comprising: obtaining a sequence of frames each comprising ultrasound or other medical imaging data representing an anatomical region of a human or animal subject at a respective different time; for each frame, identifying one or more portions of the ultrasound or other medical imaging data, wherein the identified portions comprise both at least one single contrast element signal portion and at least one multiple contrast element signal portion, each single contrast element signal portion being representative of a contrast element and each multiple contrast element signal portion being representative of a plurality of contrast elements; assigning respective position data to each of the single contrast element signal portions and assigning respective position data to each of the multiple contrast element signal portions; and using a linking model that uses at least said assigned position data to link single or multiple contrast element signal portions represented in at least one of the frames to single or multiple contrast element signal portions represented in at least one other of the frames thereby to track movement of contrast elements through said region of the subject. obtaining a sequence of frames each comprising ultrasound or other medical imaging data representing an anatomical region of a human or animal subject at a respective different time; for each frame, identifying one or more portions of the ultrasound or other medical imaging data, wherein the identified portions comprise both at least one single contrast element signal portion and at least one multiple contrast element signal portion, each single contrast element signal portion being representative of a contrast element and each multiple contrast element signal portion being representative of a plurality of contrast elements; assigning respective position data to each of the single contrast element signal portions and assigning respective position data to each of the multiple contrast element signal portions; and using a linking model that uses at least said assigned position data to link single or multiple contrast element signal portions represented in at least one of the frames to single or multiple contrast element signal portions represented in at least one other of the frames thereby to track movement of contrast elements through said region of the subject.
A fluid conduit , comprising: a wall defining a fluid flow path and comprising a composite material formed of at least a matrix and reinforcing elements comprising fibres embedded within the matrix; and a component at least partially embedded within the wall and configured to transmit energy to and/or receive energy from the flow path, wherein the region of the wall between the component and the fluid flow path is devoid of reinforcing elements to define a transmission path for energy between the fluid flow path and the component , wherein the matrix material defines a monolithic structure. a wall defining a fluid flow path and comprising a composite material formed of at least a matrix and reinforcing elements comprising fibres embedded within the matrix; and a component at least partially embedded within the wall and configured to transmit energy to and/or receive energy from the flow path, wherein the region of the wall between the component and the fluid flow path is devoid of reinforcing elements to define a transmission path for energy between the fluid flow path and the component , wherein the matrix material defines a monolithic structure.
A punching machine which comprises: - A base which has a work table which defines an horizontal resting surface on which an item to be punched is designed to be placed for obtaining punched items; - An operating head that is arranged upon said work table and equipped with punching means to punch said item; said work table comprising at least one opening having a perimeter inside which a movable section of said work table is fitted which defines a supplementary movable surface of said resting surface and which can be moved by moving means between a punching position and a downloading position of said punched items, characterized in that said movable section has moving means in a configuration co-planar with said work table . - A base which has a work table which defines an horizontal resting surface on which an item to be punched is designed to be placed for obtaining punched items; - An operating head that is arranged upon said work table and equipped with punching means to punch said item;
A method, performed by an entity, of transmitting billing data for user equipment, UE, in a wireless communication system based on dual connectivity, DC, supporting a plurality of radio access technologies, the method comprising: transmitting (S510), to an upper entity, billing data to differentially apply billing for 4G service and 5G service determining (S520) whether the billing data has been normally transmitted; and executing (S530) a supplementary operation based on a result of the determining, wherein the entity is an eNB or a MME, wherein when the entity is an eNB, a MME is the upper entity, and when the entity is a MME, a GW is the upper entity, wherein the UE connected to the eNB and a gNB, wherein the eNB is master node and the gNB is secondary node, wherein the executing of the supplementary operation comprises deleting the billing data in case that the billing data has been normally transmitted, wherein the executing of the supplementary operation comprises: outputting a failure message based on a retransmission list; and storing billing data that has failed to be normally transmitted among the billing data, as a log, based on the retransmission list, wherein the determining of whether the billing data has been normally transmitted comprises: receiving a response message representing reception of the billing data from the upper entity; and determining whether the billing data has been normally transmitted, based on the response message. transmitting (S510), to an upper entity, billing data to differentially apply billing for 4G service and 5G service determining (S520) whether the billing data has been normally transmitted; and executing (S530) a supplementary operation based on a result of the determining, wherein the entity is an eNB or a MME, wherein when the entity is an eNB, a MME is the upper entity, and when the entity is a MME, a GW is the upper entity, wherein the UE connected to the eNB and a gNB, wherein the eNB is master node and the gNB is secondary node, wherein the executing of the supplementary operation comprises deleting the billing data in case that the billing data has been normally transmitted, wherein the executing of the supplementary operation comprises: outputting a failure message based on a retransmission list; and storing billing data that has failed to be normally transmitted among the billing data, as a log, based on the retransmission list, wherein the determining of whether the billing data has been normally transmitted comprises: receiving a response message representing reception of the billing data from the upper entity; and determining whether the billing data has been normally transmitted, based on the response message. receiving a response message representing reception of the billing data from the upper entity; and determining whether the billing data has been normally transmitted, based on the response message.
A method for manufacturing an optical article , comprising: - providing a base-lens substrate having opposite first and second lens surfaces , and at least one optical element disposed on the second lens surface , each optical element having a maximum height that is less than or equal to 0.5 mm, and a maximum width that is less than or equal to 2.0 mm, and - performing a differentiate coating deposition on the second lens surface, characterized in that the second lens surface comprises at least three areas (Z1, Z2,Z3) defined according to their relative position with respect to at least one optical element , and the differentiate coating deposition comprises changing at least one parameter of the coating deposition according to the considered area, the at least three areas (Z1, Z2, Z3) of the second lens surface comprising: - a first set of areas (Z1) located at the position of at least one optical element, - a second set of areas (Z2) located at a position of the second lens surface devoid of any optical element , and - a third set of areas (Z3) corresponding to transition areas between an optical element and a zone (Z2) of the second lens surface devoid of optical element. - providing a base-lens substrate having opposite first and second lens surfaces , and at least one optical element disposed on the second lens surface , each optical element having a maximum height that is less than or equal to 0.5 mm, and a maximum width that is less than or equal to 2.0 mm, and - performing a differentiate coating deposition on the second lens surface, characterized in that the second lens surface comprises at least three areas (Z1, Z2,Z3) defined according to their relative position with respect to at least one optical element , and the differentiate coating deposition comprises changing at least one parameter of the coating deposition according to the considered area, the at least three areas (Z1, Z2, Z3) of the second lens surface comprising: - a first set of areas (Z1) located at the position of at least one optical element, - a second set of areas (Z2) located at a position of the second lens surface devoid of any optical element , and - a third set of areas (Z3) corresponding to transition areas between an optical element and a zone (Z2) of the second lens surface devoid of optical element. - a first set of areas (Z1) located at the position of at least one optical element, - a second set of areas (Z2) located at a position of the second lens surface devoid of any optical element , and - a third set of areas (Z3) corresponding to transition areas between an optical element and a zone (Z2) of the second lens surface devoid of optical element.
An aircraft passenger seat assembly comprising: a passenger seat ; a component comprising an outer surface; and an inductive wireless power unit comprising a coil assembly , wherein the coil assembly is positioned within the component; wherein wires connecting the coil assembly to a power supply are hidden from view within the aircraft passenger seat assembly; a portion of the outer surface of the component comprises a power location covering the coil assembly , the power location being formed of materials that do not impede or interfere with charging, the component comprises an outer shroud, characterized in that a) portions of the shroud that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location ; and/or b) portions of the shroud that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly ; or in that the power location comprises a separately formed unit attached to a cutout location in the shroud . a passenger seat ; a component comprising an outer surface; and an inductive wireless power unit comprising a coil assembly , wherein the coil assembly is positioned within the component; wherein wires connecting the coil assembly to a power supply are hidden from view within the aircraft passenger seat assembly; a portion of the outer surface of the component comprises a power location covering the coil assembly , the power location being formed of materials that do not impede or interfere with charging, the component comprises an outer shroud, characterized in that a) portions of the shroud that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location ; and/or b) portions of the shroud that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly ; a) portions of the shroud that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location ; and/or b) portions of the shroud that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly ; or in that the power location comprises a separately formed unit attached to a cutout location in the shroud .
Grate bar for a furnace with a travelling grate, wherein a solid fuel is being conveyed on the travelling grate , comprising a base body , in particular for a releasable fixing to a holder of the travelling grate , and at least one wear plate , wherein the wear plate has a surface , the surface being wear-resistant and facing towards the fuel; wherein the wear plate is attached to the base body , in particular by means of welding, wherein at least a second wear plate is being provided, wherein the second wear plate adjoins to the first wear plate in order to form a surface extending across both of the wear plates , wherein a surface of the second wear plate has an angled orientation to the surface of the first wear plate , and wherein the first and the second wear plate have a carrier layer , in particular consisting of a heat-resistant alloy, and a wear-resistant layer , the wear resistant layer being materially bonded to the carrier layer , characterized in that the second wear plate is materially bonded to the first wear plate by means of welding. wherein a solid fuel is being conveyed on the travelling grate , comprising a base body , in particular for a releasable fixing to a holder of the travelling grate , and at least one wear plate , wherein the wear plate has a surface , the surface being wear-resistant and facing towards the fuel; wherein the wear plate is attached to the base body , in particular by means of welding, wherein at least a second wear plate is being provided, wherein the second wear plate adjoins to the first wear plate in order to form a surface extending across both of the wear plates , wherein a surface of the second wear plate has an angled orientation to the surface of the first wear plate , and wherein the first and the second wear plate have a carrier layer , in particular consisting of a heat-resistant alloy, and a wear-resistant layer , the wear resistant layer being materially bonded to the carrier layer , characterized in that the second wear plate is materially bonded to the first wear plate by means of welding.
An anhydrous shampoo composition comprising: propanediol; and surfactant consisting of two or more surfactants, selected from (a) sodium cocoyl isethionate, and (b) at least one of sodium lauroyl methyl isethionate and sodium cocoyl methyl isethionate, wherein no additional surfactants are present, wherein the shampoo composition is free of added preservatives, wherein the shampoo composition is a cream, and wherein the shampoo composition has a viscosity of 120,000 mPa.s (cps) 3,000,000 mPa.s (cps). propanediol; and surfactant consisting of two or more surfactants, selected from (a) sodium cocoyl isethionate, and (b) at least one of sodium lauroyl methyl isethionate and sodium cocoyl methyl isethionate, wherein no additional surfactants are present, wherein the shampoo composition is free of added preservatives, wherein the shampoo composition is a cream, and wherein the shampoo composition has a viscosity of 120,000 mPa.s (cps) 3,000,000 mPa.s (cps).
A composition of matter suitable for use as an etch or plating resist in a process for manufacturing passivated emitter rear contact (PERC) solar cells, comprising organic compounds comprising: a phenol-formaldehyde resin; a vinyl polymer or copolymer; a vinyl acetate polymer or copolymer; a rosin resin or a modified rosin resin; a rosin polyester; a gum rosin or a modified ester of a gum rosin; shellac; melamine or modified melamine resin, cyclized rubber, uintahite resin or combinations thereof; one or more solvents; and a rheological modifier including (i) 0.1 wt% to 12 wt% organoclay rheological additive, 2.0 wt % to 35 wt% uncoated talc, and 0.1 wt% to 15 wt% of an amide wax or micronized amide wax, or (ii) 1.0 to 30% talc; 1.0% to 40% fumed silica; and 0.1 wt% to 15 wt% polyacrylate flow aid. one or more solvents; and a rheological modifier including (i) 0.1 wt% to 12 wt% organoclay rheological additive, 2.0 wt % to 35 wt% uncoated talc, and 0.1 wt% to 15 wt% of an amide wax or micronized amide wax, or (ii) 1.0 to 30% talc; 1.0% to 40% fumed silica; and 0.1 wt% to 15 wt% polyacrylate flow aid. (i) 0.1 wt% to 12 wt% organoclay rheological additive, 2.0 wt % to 35 wt% uncoated talc, and 0.1 wt% to 15 wt% of an amide wax or micronized amide wax, or (ii) 1.0 to 30% talc; 1.0% to 40% fumed silica; and 0.1 wt% to 15 wt% polyacrylate flow aid.
A thin-film transistor (TFT) comprising a dielectric layer, wherein the dielectric layer comprises a molecular glass, and wherein the molecular glass comprises an amorphous molecular material.
A fluid monitoring module comprising an enclosure , a controller disposed within the enclosure, and a flow sensing device , the flow sensing device comprising: a first body member [410a-1, 410b-1] defining an inlet port , a first sensor retaining upstream sensor port mounted to the enclosure, and a first connecting port ; a second body member [410a-2, 410b-2] defining an outlet port , a second sensor retaining downstream sensor port mounted to the enclosure, and a second connecting port ; a flow restricting element external to the enclosure defining a flow restricting passage and including a first end connection coupled to the first connecting port and a second end connection coupled to the second connecting port, such that the flow restricting passage is disposed between the inlet port and the outlet port, and between the first sensor retaining upstream sensor port and the second sensor retaining downstream sensor port; a first fluid sensor assembled with the first sensor retaining upstream sensor port and electrically connected to the controller by wiring within the enclosure; and a second fluid sensor assembled with the second sensor retaining downstream sensor port and electrically connected to the controller by wiring within the enclosure; the controller being in circuit communication with the first and second fluid sensors for receiving at least one of pressure indicating signals and temperature indicating signals from each of the first and second fluid sensors, and for measuring fluid data based on the received signals. a first body member [410a-1, 410b-1] defining an inlet port , a first sensor retaining upstream sensor port mounted to the enclosure, and a first connecting port ; a second body member [410a-2, 410b-2] defining an outlet port , a second sensor retaining downstream sensor port mounted to the enclosure, and a second connecting port ; a flow restricting element external to the enclosure defining a flow restricting passage and including a first end connection coupled to the first connecting port and a second end connection coupled to the second connecting port, such that the flow restricting passage is disposed between the inlet port and the outlet port, and between the first sensor retaining upstream sensor port and the second sensor retaining downstream sensor port; a first fluid sensor assembled with the first sensor retaining upstream sensor port and electrically connected to the controller by wiring within the enclosure; and a second fluid sensor assembled with the second sensor retaining downstream sensor port and electrically connected to the controller by wiring within the enclosure; the controller being in circuit communication with the first and second fluid sensors for receiving at least one of pressure indicating signals and temperature indicating signals from each of the first and second fluid sensors, and for measuring fluid data based on the received signals.
Car of a public transport vehicle, having at least one side wall comprising at least one window , at least part of the window being adjacent to a seat capable of receiving a passenger, and the window comprising glazing of variable opacity, and the car having means for controlling the opacity of the glazing , characterised in that it comprises: - at least one presence sensor arranged to detect the presence of a passenger on the seat , and - means for modifying the opacity of the glazing , which means are configured to modify the opacity of the glazing of the part of the window that is adjacent to the seat to a predefined configuration when a presence is not detected on the seat for a predefined period of time, as a priority over the control means . - at least one presence sensor arranged to detect the presence of a passenger on the seat , and - means for modifying the opacity of the glazing , which means are configured to modify the opacity of the glazing of the part of the window that is adjacent to the seat to a predefined configuration when a presence is not detected on the seat for a predefined period of time, as a priority over the control means .