mhurhangee/ep-ind-claims huggingface dataset:
An image processing method, wherein the method is applied to an electronic device, and the method comprises: drawing, by the electronic device, a first layer, rendering the first layer, and buffering the rendered first layer in an SF buffer queue; and finishing drawing, by the electronic device, the first layer before a first time, and before the first time, starting drawing, by the electronic device, a second layer comprising either: finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue, wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time. drawing, by the electronic device, a first layer, rendering the first layer, and buffering the rendered first layer in an SF buffer queue; and finishing drawing, by the electronic device, the first layer before a first time, and before the first time, starting drawing, by the electronic device, a second layer comprising either: finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue, wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time. finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue, wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time.
A method for determining threshold compactness features of cells useful for classifying cell phenotype, said features determined from one or more images of the cells, the method comprising the steps of: (a) automatically detecting an object depicted in an input image, thereby defining a masked portion of the input image corresponding to the object; (b) identifying a plurality of provisional objects within the masked portion of the input image using a threshold intensity; (c) computing a threshold compactness for the object, wherein the threshold compactness is a function of total area, S, equal to a sum of areas of the plurality of provisional objects and total border length, P, equal to a sum of border lengths of the plurality of provisional objects; (d) classifying cell phenotype using the computed threshold compactness. (a) automatically detecting an object depicted in an input image, thereby defining a masked portion of the input image corresponding to the object; (b) identifying a plurality of provisional objects within the masked portion of the input image using a threshold intensity; (c) computing a threshold compactness for the object, wherein the threshold compactness is a function of total area, S, equal to a sum of areas of the plurality of provisional objects and total border length, P, equal to a sum of border lengths of the plurality of provisional objects; (d) classifying cell phenotype using the computed threshold compactness.
A MEMS scanning force sensor for the simultaneous measurement of force and deformation of a sample comprising: - a position sensing capacitive comb drive for measuring the deformation of the sample; - a force sensing capacitive comb drive for measuring the force applied to the sample; - a microactuator (6, 10) for applying a mechanical load onto the sample; - an outer movable body suspended by multiple outer flexures and an inner movable body suspended by multiple inner flexures; characterized by - said microactuator (6, 10) being mechanically connected to the outer movable body to generate a relative motion between the outer movable body and a fixed body; - said position sensing capacitive comb drive being configured to measure the relative motion between the inner movable body and the fixed body; and - said force sensing capacitive comb drive being configured to measure the relative motion between the inner movable body and the outer movable body. - a position sensing capacitive comb drive for measuring the deformation of the sample; - a force sensing capacitive comb drive for measuring the force applied to the sample; - a microactuator (6, 10) for applying a mechanical load onto the sample; - an outer movable body suspended by multiple outer flexures and an inner movable body suspended by multiple inner flexures; - said microactuator (6, 10) being mechanically connected to the outer movable body to generate a relative motion between the outer movable body and a fixed body; - said position sensing capacitive comb drive being configured to measure the relative motion between the inner movable body and the fixed body; and - said force sensing capacitive comb drive being configured to measure the relative motion between the inner movable body and the outer movable body.
A method for a user equipment, UE, operating in a wireless communication system comprising a first base station, BS, and a second BS, the method comprising: configuring a first medium access control, MAC, entity mapping a first logical channel set transmitting a first data to the first BS and a second MAC entity mapping a second logical channel set transmitting a second data to the second BS, wherein the first logical channel set comprises one or more logical channels and the second logical channel set comprises one or more logical channels; if the first data belongs to a logical channel with a higher priority than priorities of logical channels for which data are already available for transmission in the first logical channel set, triggering, by the first MAC entity, a first buffer status report to the first BS regardless of priorities of logical channels of the second logical channel set; and if the second data belongs to a logical channel with a higher priority than priorities of logical channels for which data are already available for transmission in the second logical channel set, triggering, by the second MAC entity, a second buffer status report to the second BS regardless of priorities of logical channels of the first logical channel set. configuring a first medium access control, MAC, entity mapping a first logical channel set transmitting a first data to the first BS and a second MAC entity mapping a second logical channel set transmitting a second data to the second BS, wherein the first logical channel set comprises one or more logical channels and the second logical channel set comprises one or more logical channels; if the first data belongs to a logical channel with a higher priority than priorities of logical channels for which data are already available for transmission in the first logical channel set, triggering, by the first MAC entity, a first buffer status report to the first BS regardless of priorities of logical channels of the second logical channel set; and if the second data belongs to a logical channel with a higher priority than priorities of logical channels for which data are already available for transmission in the second logical channel set, triggering, by the second MAC entity, a second buffer status report to the second BS regardless of priorities of logical channels of the first logical channel set.
A process for the production of a thermoplastic elastomer containing hard segments (a) of a polyester and soft segments (b) containing repeating units derived from an aliphatic carbonate, characterized in that in the process a precursor thermoplastic elastomer is subjected to solid state post-reaction at a temperature between 140 and 170 °C until the thermoplastic elastomer has a melt flow index measured at 230 °C under a load of 10 kg (MFI 230 °C /10kg), according to ISO1133 of at most 40 g / 10min.
An induction weldable pipe connector (100; 120; 130; 140; 150; 160) for electromagnetic induction welding to a plastic pipe (10A, 10B) having a pipe end with an external diameter D1, the induction weldable pipe connector comprising at least one induction weldable pipe socket (102A, 102B; 141, 142; 151; 161), each said induction weldable pipe socket having a longitudinal axis and including: i) a plastic solder lining having an external solder lining surface, an internal solder lining surface and at least one solder lining end face, said internal solder lining surface having an internal diameter D2, and ii) a solid metal susceptor sleeve entirely peripherally enveloping said plastic solder lining, said susceptor sleeve having an external susceptor sleeve surface, an internal susceptor sleeve surface and at least one susceptor sleeve end face, whereupon on inducing electromagnetic induction in said pipe socket, said susceptor sleeve absorbs electromagnetic energy for melting said solder lining for welding said pipe socket to the pipe end, characterised in that the external solder lining surface is a patterned external solder lining surface, and the internal susceptor sleeve surface is a patterned internal susceptor sleeve surface being in intimate complementary interlocking contact with said patterned external solder lining surface, said solder lining end face is an exposed end face transverse to the longitudinal axis, and wherein D1>D2 thereby requiring forced sliding insertion of the pipe end into said pipe socket for preloading same, wherein said preloading and interlocking cause said melted solder lining to exude along the longitudinal axis beyond said susceptor sleeve end face to form an annular plastic extrusion. i) a plastic solder lining having an external solder lining surface, an internal solder lining surface and at least one solder lining end face, said internal solder lining surface having an internal diameter D2, and ii) a solid metal susceptor sleeve entirely peripherally enveloping said plastic solder lining, said susceptor sleeve having an external susceptor sleeve surface, an internal susceptor sleeve surface and at least one susceptor sleeve end face,
A fiber optic module housing, comprising: a main body having a base side, top and bottom sides (106, 108) and a rear panel, the main body defining an internal chamber therein configured to support one or more fiber optic components, the rear panel having fiber optic component openings; a front panel having one or more fiber optic component openings; characterized in that a living hinge is disposed between the base side of the main body and the front panel, wherein the front panel is configured to open from and close against or substantially against a front side of the main body about the living hinge, a living hinge is disposed between the bottom side of the main body and the rear panel, wherein the rear panel is configured to open from and close against or substantially against a rear side of the main body about the living hinge, wherein the living hinge that is disposed between the bottom side of the main body and the rear panel is formed from an injection molding operation that creates the main body, the rear panel and said living hinge at one time as a single part, the rear panel being non planar comprises panel sections (90A-90C) providing non coplanar surfaces with living hinges (88A, 88B) disposed in the rear panel that allow the panel sections (90A-90C) to bend with respect to each other about the living hinges (88A, 88B), wherein the base side and the top and bottom sides (106, 108) of main body are also formed from the injection molding operation as part of the single part with the rear panel and the living hinge. a main body having a base side, top and bottom sides (106, 108) and a rear panel, the main body defining an internal chamber therein configured to support one or more fiber optic components, the rear panel having fiber optic component openings; a front panel having one or more fiber optic component openings; characterized in that a living hinge is disposed between the base side of the main body and the front panel, wherein the front panel is configured to open from and close against or substantially against a front side of the main body about the living hinge, a living hinge is disposed between the bottom side of the main body and the rear panel, wherein the rear panel is configured to open from and close against or substantially against a rear side of the main body about the living hinge, wherein the living hinge that is disposed between the bottom side of the main body and the rear panel is formed from an injection molding operation that creates the main body, the rear panel and said living hinge at one time as a single part, the rear panel being non planar comprises panel sections (90A-90C) providing non coplanar surfaces with living hinges (88A, 88B) disposed in the rear panel that allow the panel sections (90A-90C) to bend with respect to each other about the living hinges (88A, 88B), wherein the base side and the top and bottom sides (106, 108) of main body are also formed from the injection molding operation as part of the single part with the rear panel and the living hinge.
A conductive backsheet for interconnecting rear-contact solar cells (145,147) upon removal of connecting tabs from a conductive foil, the conductive backsheet comprising an interconnect circuit, the interconnect circuit comprising: an insulating layer; and a patterned conductive foil comprising sets of interdigitated contact fingers, wherein the interdigitated contact fingers of each set of interdigitated contact fingers are defined by a pattern of discontinuous openings and connecting tabs separating the discontinuous openings, wherein, upon removal of the connecting tabs from the conductive foil, the sets of interdigitated contact fingers are electrically isolated from each other and are configured to overlap with contacts of the rear-contact solar cells (145,147), wherein the patterned conductive foil is attached to and is mechanically supported by the insulating layer thereby maintaining electrical isolation between the sets of interdigitated fingers of the patterned conductive foil, wherein the insulating layer comprises openings that are patterned to allow electrical connections between the sets of interdigitated fingers and the contacts of the rear-contact solar cells (145,147), wherein the patterned conductive foil comprises a front surface and a rear surface, wherein the front surface of the patterned conductive foil is laminated to the insulating layer, wherein the rear surface of the patterned conductive foil forms the rear surface of the interconnect circuit. an insulating layer; and a patterned conductive foil comprising sets of interdigitated contact fingers, wherein the interdigitated contact fingers of each set of interdigitated contact fingers are defined by a pattern of discontinuous openings and connecting tabs separating the discontinuous openings, wherein, upon removal of the connecting tabs from the conductive foil, the sets of interdigitated contact fingers are electrically isolated from each other and are configured to overlap with contacts of the rear-contact solar cells (145,147), wherein the patterned conductive foil is attached to and is mechanically supported by the insulating layer thereby maintaining electrical isolation between the sets of interdigitated fingers of the patterned conductive foil, wherein the insulating layer comprises openings that are patterned to allow electrical connections between the sets of interdigitated fingers and the contacts of the rear-contact solar cells (145,147), wherein the patterned conductive foil comprises a front surface and a rear surface, wherein the front surface of the patterned conductive foil is laminated to the insulating layer, wherein the rear surface of the patterned conductive foil forms the rear surface of the interconnect circuit.
A system for a theatre comprising a display device for a visual presentation, said system comprising: a sensor positionable at a remote location that is different than a target location, the sensor being configured to capture (102, 202, 302, 802), at the remote location, displayed image data; a system characteristic and parameter processor configured for: computing (106, 206, 306, 806) an initial normalized system characteristic by normalizing a system characteristic measured at a target location with respect to a system parameter of the system characteristic measured at the remote location; and subsequent to computing the initial normalized system characteristic, computing (110, 210, 310, 810) a subsequent system characteristic for the target location using the initial normalized system characteristic and a subsequent system parameter that is determined from a subsequent measurement of the displayed image data captured by the sensor at the remote location; and an input image normalization module configured to modify (122, 222, 322, 822) input image data using the subsequent system characteristic to produce normalized input image data (405a, 405b, 405c, 405d) for system function processing that is usable to output enhanced image data for display. a sensor positionable at a remote location that is different than a target location, the sensor being configured to capture (102, 202, 302, 802), at the remote location, displayed image data; a system characteristic and parameter processor configured for: computing (106, 206, 306, 806) an initial normalized system characteristic by normalizing a system characteristic measured at a target location with respect to a system parameter of the system characteristic measured at the remote location; and subsequent to computing the initial normalized system characteristic, computing (110, 210, 310, 810) a subsequent system characteristic for the target location using the initial normalized system characteristic and a subsequent system parameter that is determined from a subsequent measurement of the displayed image data captured by the sensor at the remote location; and computing (106, 206, 306, 806) an initial normalized system characteristic by normalizing a system characteristic measured at a target location with respect to a system parameter of the system characteristic measured at the remote location; and subsequent to computing the initial normalized system characteristic, computing (110, 210, 310, 810) a subsequent system characteristic for the target location using the initial normalized system characteristic and a subsequent system parameter that is determined from a subsequent measurement of the displayed image data captured by the sensor at the remote location; and an input image normalization module configured to modify (122, 222, 322, 822) input image data using the subsequent system characteristic to produce normalized input image data (405a, 405b, 405c, 405d) for system function processing that is usable to output enhanced image data for display.
A fluid sensor for measuring the composition and/or flow rate of mixtures of water, oil and gas comprising: a core defining a fluid flow path; a confinement member located externally of the core, the core being configured to permit transmission of electromagnetic radiation at a frequency of the electromagnetic field; and a patch antenna located between the fluid flow path and the confinement member, wherein the confinement member is configured to confine an electromagnetic field which extends into the fluid flow path and the patch antenna is configured to couple an electrical signal to and/or from the electromagnetic field wherein the confinement member comprises a composite material having one or more electrically conductive reinforcing elements embedded within a matrix and wherein the one or more reinforcing elements comprise carbon fibres. a core defining a fluid flow path; a confinement member located externally of the core, the core being configured to permit transmission of electromagnetic radiation at a frequency of the electromagnetic field; and a patch antenna located between the fluid flow path and the confinement member, wherein the confinement member is configured to confine an electromagnetic field which extends into the fluid flow path and the patch antenna is configured to couple an electrical signal to and/or from the electromagnetic field wherein the confinement member comprises a composite material having one or more electrically conductive reinforcing elements embedded within a matrix and wherein the one or more reinforcing elements comprise carbon fibres.
A breastpump comprising: a breastshield having a portion defining a chamber within which at least part of a woman's breast can be received; a device detecting actual pressure within said breastshield chamber and generating signals indicative of said detected pressure, and a controller, said controller operating said breastpump in response to signals from said device according to a determined program, wherein the breastpump does automatically transition to different operating conditions by preset instructions or by user input characterized in that the breastpump comprises the ability to regulate pressure changes within the breastshield chamber so as to control pressure during a pumping cycle through a plurality of desired set points. a breastshield having a portion defining a chamber within which at least part of a woman's breast can be received; a device detecting actual pressure within said breastshield chamber and generating signals indicative of said detected pressure, and a controller, said controller operating said breastpump in response to signals from said device according to a determined program, wherein the breastpump does automatically transition to different operating conditions by preset instructions or by user input characterized in that the breastpump comprises the ability to regulate pressure changes within the breastshield chamber so as to control pressure during a pumping cycle through a plurality of desired set points.