mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a display that includes: a first polymer layer having first and second opposing surfaces, a layer of organic light-emitting material on the first surface of the first polymer layer , an encapsulation layer formed over the layer of organic light-emitting material , a second polymer layer having first and second opposing surfaces, wherein the first surface of the second polymer layer is attached to the second surface of the first polymer layer , and at least one microvia that passes through the first polymer layer and the second polymer layer , wherein the at least one microvia is located in a portion of the first polymer layer that is uncovered by the encapsulation layer ; and additional circuitry coupled to the second surface of the second polymer layer through at least one microvia , wherein the additional circuitry is behind the second polymer layer and separated from the second polymer layer by a gap and wherein the additional circuitry comprises a flexible printed circuit. a display that includes: a first polymer layer having first and second opposing surfaces, a layer of organic light-emitting material on the first surface of the first polymer layer , an encapsulation layer formed over the layer of organic light-emitting material , a second polymer layer having first and second opposing surfaces, wherein the first surface of the second polymer layer is attached to the second surface of the first polymer layer , and at least one microvia that passes through the first polymer layer and the second polymer layer , wherein the at least one microvia is located in a portion of the first polymer layer that is uncovered by the encapsulation layer ; and a first polymer layer having first and second opposing surfaces, a layer of organic light-emitting material on the first surface of the first polymer layer , an encapsulation layer formed over the layer of organic light-emitting material , a second polymer layer having first and second opposing surfaces, wherein the first surface of the second polymer layer is attached to the second surface of the first polymer layer , and at least one microvia that passes through the first polymer layer and the second polymer layer , wherein the at least one microvia is located in a portion of the first polymer layer that is uncovered by the encapsulation layer ; and additional circuitry coupled to the second surface of the second polymer layer through at least one microvia , wherein the additional circuitry is behind the second polymer layer and separated from the second polymer layer by a gap and wherein the additional circuitry comprises a flexible printed circuit.
A composition comprising: a multi-stage flexible acrylic resin; and a branched polymer which is a reaction product of reactants comprising one or more monoethylenically unsaturated ester monomers, a chain transfer agent in an amount of 0.1 to 15 weight percent, and a crosslinker in an amount of 0.1 to 15 weight percent of a crosslinker, wherein weight percent is based on total amount of reactants, provided the amount of crosslinker is within +/- 5 weight percent of the amount of chain transfer agent, wherein the crosslinker comprises at least two carbon-carbon double bonds having different reactivity. a multi-stage flexible acrylic resin; and a branched polymer which is a reaction product of reactants comprising one or more monoethylenically unsaturated ester monomers, a chain transfer agent in an amount of 0.1 to 15 weight percent, and a crosslinker in an amount of 0.1 to 15 weight percent of a crosslinker, wherein weight percent is based on total amount of reactants, provided the amount of crosslinker is within +/- 5 weight percent of the amount of chain transfer agent, wherein the crosslinker comprises at least two carbon-carbon double bonds having different reactivity.
A method for operating an appliance , comprising: receiving, by the appliance, prediction information indicating a predicted failure of the appliance ; receiving, by the appliance, a schedule of availability of a repair service for repairing the predicted failure of the appliance; transmitting, by the appliance, a signal for requesting maintenance information for use in delaying the predicted failure and maintaining a normal operation of the appliance if a time point of availability of the repair service, determined from the received schedule, is after a predicted failure time point indicated by the prediction information; receiving, by the appliance, the maintenance information; and operating, by the appliance, based on the maintenance information to delay the predicted failure. receiving, by the appliance, prediction information indicating a predicted failure of the appliance ; receiving, by the appliance, a schedule of availability of a repair service for repairing the predicted failure of the appliance; transmitting, by the appliance, a signal for requesting maintenance information for use in delaying the predicted failure and maintaining a normal operation of the appliance if a time point of availability of the repair service, determined from the received schedule, is after a predicted failure time point indicated by the prediction information; receiving, by the appliance, the maintenance information; and operating, by the appliance, based on the maintenance information to delay the predicted failure.
An image data processing method for spatially registering two image data sets, comprising: obtaining two different four-dimensional image data sets, each comprising image data representative of a time series of three dimensional image frames of a common anatomical region; identifying for each four-dimensional image data set a respective three-dimensional motion vector indicative of motion of an identified three-dimensional sub-region which exhibits maximal spatial displacement through the course of at least a part of the respective time series of three dimensional image frames comprised in the four-dimensional image data set; performing a rotation and translation of one or both of the four-dimensional image data sets such as to bring their respective three-dimensional motion vectors into alignment; and performing a further transformation of one or both of the image data sets having aligned three-dimensional motion vectors, based on an image registration procedure, such as to bring the two image data sets into spatial registration. obtaining two different four-dimensional image data sets, each comprising image data representative of a time series of three dimensional image frames of a common anatomical region; identifying for each four-dimensional image data set a respective three-dimensional motion vector indicative of motion of an identified three-dimensional sub-region which exhibits maximal spatial displacement through the course of at least a part of the respective time series of three dimensional image frames comprised in the four-dimensional image data set; performing a rotation and translation of one or both of the four-dimensional image data sets such as to bring their respective three-dimensional motion vectors into alignment; and performing a further transformation of one or both of the image data sets having aligned three-dimensional motion vectors, based on an image registration procedure, such as to bring the two image data sets into spatial registration.
A packaging substrate having an embedded interposer , comprising: a carrier having opposite top and bottom surfaces, wherein a recess is formed on the top surface of the carrier and a plurality of first conductive terminals are formed on the exposed surface of the carrier within the recess , and a plurality of second conductive terminals are disposed on the bottom surface of the carrier for electrically connecting the carrier and an external electronic device; and an interposer disposed in the recess and having opposite first and second surfaces and a plurality of conductive through vias penetrating the first and second surfaces , wherein a first conductive pad is formed on an end of each of the conductive through vias exposed from the first surface so as for a semiconductor chip to be mounted thereon and electrically connected thereto, and a second conductive pad is formed on the other end of each of the conductive through vias exposed from the second surface and is electrically connected to a corresponding one of the first conductive terminals , and wherein a stress relief gap is formed between the interposer and the sidewall of the recess , and the stress relief gap is unfilled. a carrier having opposite top and bottom surfaces, wherein a recess is formed on the top surface of the carrier and a plurality of first conductive terminals are formed on the exposed surface of the carrier within the recess , and a plurality of second conductive terminals are disposed on the bottom surface of the carrier for electrically connecting the carrier and an external electronic device; and an interposer disposed in the recess and having opposite first and second surfaces and a plurality of conductive through vias penetrating the first and second surfaces , wherein a first conductive pad is formed on an end of each of the conductive through vias exposed from the first surface so as for a semiconductor chip to be mounted thereon and electrically connected thereto, and a second conductive pad is formed on the other end of each of the conductive through vias exposed from the second surface and is electrically connected to a corresponding one of the first conductive terminals , and wherein a stress relief gap is formed between the interposer and the sidewall of the recess , and the stress relief gap is unfilled.
A belt-shaped rope of an elevator having opposite lateral sides (S1, S2) facing in thickness direction (t) of the rope , at least one of the lateral sides (S1, S2) being shaped to have elongated ribs that are disposed adjacent each other in width direction (w) of the rope and extend parallel with the longitudinal direction (l) of the rope , each said rib having a first flank face for contacting a flank face of a rib of a rope wheel , and a second flank face for contacting a flank face of a rib of a rope wheel , characterized in that each said first and second flank face is shaped to have an arcuate cross-sectional profile, and said flank faces are shaped to arc to such steepness that the angle (alfa) defined between their tangents (Ta, Tb) is acute, and the surface material of said flank faces has shore A hardness more than 85 and less than 100, wherein the point of tangency (p) of each said tangent (Ta, Tb) is within the central third (h1) of the height (h2) of the rib as measured in thickness direction (t) of the rope .
A method for preparing a hydrogel comprising the steps: (i) mixing a solution of a polymer with a photoinitiator, where the polymer comprises multiple subunits each having a non-aromatic unsaturated functional group; and (ii) irradiating the mixture with visible light to produce the hydrogel; wherein the photoinitiator comprises a ruthenium(II) compound and sodium persulfate, ammonium persulfate, or potassium persulfate, wherein the hydrogel forms by cross-linking of the non-aromatic unsaturated functional groups either by a chain-growth polymerisation process or by a step-growth polymerisation process. (i) mixing a solution of a polymer with a photoinitiator, where the polymer comprises multiple subunits each having a non-aromatic unsaturated functional group; and (ii) irradiating the mixture with visible light to produce the hydrogel;
A method for detecting NDM1 nucleic acids in a sample, comprising: (a) contacting a sample suspected of containing NDM1 nucleic acids with: (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (b) incubating the reaction mixture of step (a) under conditions sufficient to amplify the NDM1 nucleic acids, thereby generating amplified nucleic acids; and (c) detecting the amplified nucleic acids using a fluorescence-generating probe comprising at least the following full-length sequence: SEQ ID N° 17. (a) contacting a sample suspected of containing NDM1 nucleic acids with: (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (b) incubating the reaction mixture of step (a) under conditions sufficient to amplify the NDM1 nucleic acids, thereby generating amplified nucleic acids; and (c) detecting the amplified nucleic acids using a fluorescence-generating probe comprising at least the following full-length sequence: SEQ ID N° 17.
A method for separating a workpiece using a punch , characterized in that retraction forces, which act on the punch during retraction to an initial position after a separation process, are measured as a function of a punch position, wherein, by comparison with known data, when the punch is to be reworked or, if necessary, replaced is predicted.
A method for producing a surface-treated steel sheet, comprising: forming a phosphate compound layer on a tin-plated steel sheet by means of cathode electrolytic treatment, wherein the tin-plated steel sheet is obtained by tin-plating a steel sheet; and forming an aluminum-oxygen compound layer on the phosphate compound layer by means of electrolytic treatment using an electrolytic treatment liquid containing aluminum, characterized in that the phosphate compound layer is formed on the tin-plated steel sheet by means of the cathode electrolytic treatment after anode electrolytic treatment is conducted. forming a phosphate compound layer on a tin-plated steel sheet by means of cathode electrolytic treatment, wherein the tin-plated steel sheet is obtained by tin-plating a steel sheet; and forming an aluminum-oxygen compound layer on the phosphate compound layer by means of electrolytic treatment using an electrolytic treatment liquid containing aluminum, characterized in that the phosphate compound layer is formed on the tin-plated steel sheet by means of the cathode electrolytic treatment after anode electrolytic treatment is conducted.
An inlet guide vane , comprising: a strut and a flap having a radial length in a radial direction, the flap comprising a radially inner portion having a first angular orientation with respect to the strut , a radially outer portion having a second angular orientation with respect to the strut , and a transition portion intermediate the radially inner portion and the radially outer portion, where the first angular orientation transitions to the second angular orientation along a portion of the radial length, characterised in that the flap comprises a radially outer flap and a radially inner flap separated by a split and wherein the radially outer flap is configured to pivot with respect to the strut independent from the radially inner flap . a strut and a flap having a radial length in a radial direction, the flap comprising a radially inner portion having a first angular orientation with respect to the strut , a radially outer portion having a second angular orientation with respect to the strut , and a transition portion intermediate the radially inner portion and the radially outer portion, where the first angular orientation transitions to the second angular orientation along a portion of the radial length, characterised in that the flap comprises a radially outer flap and a radially inner flap separated by a split and wherein the radially outer flap is configured to pivot with respect to the strut independent from the radially inner flap .
A computer-implemented method to generate alpha masks for digital matting of video frames in a video comprising a plurality of video frames including a first video frame and a second video frame following the first video frame , the method comprising: - obtaining a first alpha mask of the first video frame ; - providing a first downscaled video frame, wherein the first downscaled video frame is a lower resolution version of the first video frame ; - providing a first downscaled alpha mask of the first alpha mask ; - estimating a first primary coefficient and a first secondary coefficient based on the first downscaled video frame and the first downscaled alpha mask, wherein the first downscaled alpha mask is, within a window of the first downscaled video frame, a linear function of the first downscaled video frame and wherein the first primary coefficient and the first secondary coefficient are coefficients of the linear function; - generating a second alpha mask for the second video frame based on the first primary coefficient and the first secondary coefficient . - obtaining a first alpha mask of the first video frame ; - providing a first downscaled video frame, wherein the first downscaled video frame is a lower resolution version of the first video frame ; - providing a first downscaled alpha mask of the first alpha mask ; - estimating a first primary coefficient and a first secondary coefficient based on the first downscaled video frame and the first downscaled alpha mask, wherein the first downscaled alpha mask is, within a window of the first downscaled video frame, a linear function of the first downscaled video frame and wherein the first primary coefficient and the first secondary coefficient are coefficients of the linear function; - generating a second alpha mask for the second video frame based on the first primary coefficient and the first secondary coefficient .
An electrolyte composition in the form of a slurry, comprising: one or two or more polymers; oxide particles; at least one electrolyte salt selected from the group consisting of a lithium salt, a sodium salt, a calcium salt, and a magnesium salt; and a solvent, wherein structural units constituting the one or two or more polymers comprise a first structural unit selected from the group consisting of tetrafluoroethylene and vinylidene fluoride, and a second structural unit selected from the group consisting of hexafluoropropylene, acrylic acid, maleic acid, ethyl methacrylate, and methyl methacrylate, a content of the one or two or more polymers is more than 90% by mass based on a total amount of polymers in the electrolyte composition, and a mass ratio of a content of the first structural unit to a content of the second structural unit in the one or two or more polymers is 50/50 or more. one or two or more polymers; oxide particles; at least one electrolyte salt selected from the group consisting of a lithium salt, a sodium salt, a calcium salt, and a magnesium salt; and a solvent, wherein structural units constituting the one or two or more polymers comprise a first structural unit selected from the group consisting of tetrafluoroethylene and vinylidene fluoride, and a second structural unit selected from the group consisting of hexafluoropropylene, acrylic acid, maleic acid, ethyl methacrylate, and methyl methacrylate, a content of the one or two or more polymers is more than 90% by mass based on a total amount of polymers in the electrolyte composition, and a mass ratio of a content of the first structural unit to a content of the second structural unit in the one or two or more polymers is 50/50 or more.
A visual processing device comprising: a spatial signal processing unit operable to output an unsharp signal (US) generated by performing a predetermined processing on an input image signal (IS) based on information from a plurality of pixels surrounding a target pixel of the input image signal; and a visual processing unit operable to perform visual processing on the input image signal (IS) and operable to output an output signal (OS) as a result of the visual processing, the visual processing being performed using the input image signal (IS) and the unsharp signal (US) output by the spatial signal processing unit , characterized in that the visual processing unit includes an enhancing portion and a dynamic range compression portion , wherein the enhancing portion uses a power function (F5) to output an enhanced signal (TS) that enhances a divided signal (RS) obtained by dividing the input image signal (IS) by the unsharp signal (US), the dynamic range compression portion compresses a dynamic range of the input image signal (IS) using a dynamic range compression function (F4) to output a dynamic range compressed signal (DRS), and the dynamic range compressed signal (DRS) is multiplied by the enhanced signal to produce the output signal (OS). a spatial signal processing unit operable to output an unsharp signal (US) generated by performing a predetermined processing on an input image signal (IS) based on information from a plurality of pixels surrounding a target pixel of the input image signal; and a visual processing unit operable to perform visual processing on the input image signal (IS) and operable to output an output signal (OS) as a result of the visual processing, the visual processing being performed using the input image signal (IS) and the unsharp signal (US) output by the spatial signal processing unit , characterized in that the visual processing unit includes an enhancing portion and a dynamic range compression portion , wherein the enhancing portion uses a power function (F5) to output an enhanced signal (TS) that enhances a divided signal (RS) obtained by dividing the input image signal (IS) by the unsharp signal (US), the dynamic range compression portion compresses a dynamic range of the input image signal (IS) using a dynamic range compression function (F4) to output a dynamic range compressed signal (DRS), and the dynamic range compressed signal (DRS) is multiplied by the enhanced signal to produce the output signal (OS).