mhurhangee/patent-ind-claim-en huggingface dataset:
A method of estimating an amount of ink consumed when an inkjet printing apparatus performs printing, the method comprising: a print job reading step (S10) of reading a print job including image data (D1) to be printed and job information (DJ; an adjustment data obtaining step (S20) of obtaining adjustment data (DA) according to the job information (DJ), the adjustment data (DA) being for adjusting, for each inkjet printing apparatus used for printing, an amount of ink discharged when printing is performed; an image data correcting step (S40) of correcting the image data (D1) using the adjustment data (DA); and an amount-of-ink-consumed calculating step (S50) of calculating, as an amount of ink consumed, an amount of ink required to print an image represented by the image data (D2) corrected by the image data correcting step (S40). a print job reading step (S10) of reading a print job including image data (D1) to be printed and job information (DJ; an adjustment data obtaining step (S20) of obtaining adjustment data (DA) according to the job information (DJ), the adjustment data (DA) being for adjusting, for each inkjet printing apparatus used for printing, an amount of ink discharged when printing is performed; an image data correcting step (S40) of correcting the image data (D1) using the adjustment data (DA); and an amount-of-ink-consumed calculating step (S50) of calculating, as an amount of ink consumed, an amount of ink required to print an image represented by the image data (D2) corrected by the image data correcting step (S40).
A computer-implemented method for processing an image of an object, comprising: receiving an image classification from a trained convolutional neural network (CNN) for an input image of the object or for each patch of the input image , wherein the image classification is either a positive classification (P) that corresponds to detection of an anomaly in the input image or in one of the patches or a negative classification (N) that corresponds to absence of an anomaly in the input image or in one of the patches ; performing a backward propagation analysis of the input image or of one of the patches in response of detecting a positive classification (P) for this patch for each layer of the CNN to generate an attention mapping , wherein the attention mapping includes a positive attention map generated from a positive signal in the backward propagation and a negative attention map generated from a negative signal in the backward propagation , the positive and negative signal in the backward propagation being set by setting positive and negative nodes in a fully connected layer in the CNN; generating a positive mask based on intensity thresholds (T1, T2) of the positive attention map and a negative mask based on intensity thresholds (T1', T2') of the negative attention map , both maps including pixels considered to be uncertain ; generating an aggregated mask by aggregating the positive mask and the negative mask ; and determining an image of segmented anomalous pixels based on the aggregated mask using a graph-cut color segmentation technique. receiving an image classification from a trained convolutional neural network (CNN) for an input image of the object or for each patch of the input image , wherein the image classification is either a positive classification (P) that corresponds to detection of an anomaly in the input image or in one of the patches or a negative classification (N) that corresponds to absence of an anomaly in the input image or in one of the patches ; performing a backward propagation analysis of the input image or of one of the patches in response of detecting a positive classification (P) for this patch for each layer of the CNN to generate an attention mapping , wherein the attention mapping includes a positive attention map generated from a positive signal in the backward propagation and a negative attention map generated from a negative signal in the backward propagation , the positive and negative signal in the backward propagation being set by setting positive and negative nodes in a fully connected layer in the CNN; generating a positive mask based on intensity thresholds (T1, T2) of the positive attention map and a negative mask based on intensity thresholds (T1', T2') of the negative attention map , both maps including pixels considered to be uncertain ; generating an aggregated mask by aggregating the positive mask and the negative mask ; and determining an image of segmented anomalous pixels based on the aggregated mask using a graph-cut color segmentation technique.
A compound of formula (I) or a pharmaceutically acceptable salt, tautomer(s), stereo-isomeric form, solvate or polymorph thereof, for use in treating viral infections, wherein R 1 is selected from hydrogen, halogen, -CH 3 or -CF 3 , R 2 is selected from hydrogen, halogen, C 1-6 alkyl or C 3-6 cycloalkyl, R 3 is C 1-8 alkyl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, hydroxyl, alkylamino, dialkylamino, C 1 - 6 alkenyl, C 1 - 6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, acyl sulfonamide, or R 3 is an alkylaryl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, alkylamino, dialkylamino, C 1-6 alkyl, C 1-6 alkenyl, C 1-6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, or acyl sulfonamide. R 1 is selected from hydrogen, halogen, -CH 3 or -CF 3 , R 2 is selected from hydrogen, halogen, C 1-6 alkyl or C 3-6 cycloalkyl, R 3 is C 1-8 alkyl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, hydroxyl, alkylamino, dialkylamino, C 1 - 6 alkenyl, C 1 - 6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, acyl sulfonamide, or R 3 is an alkylaryl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, alkylamino, dialkylamino, C 1-6 alkyl, C 1-6 alkenyl, C 1-6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, or acyl sulfonamide.
Use of a polymeric material comprising: 20 to 100% by weight of at least one polyetherketoneketone (PEKK); 0 to 80% by weight of one or more fillers; and 0 to 20% by weight of one or more additives for reducing wear at temperatures between 130° C and 180° C.
A polymerizable composition comprising a polymerizable component, and a redox initiation system comprising: a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent a photolabile reducing agent of the formula: wherein R 1 , R 2 and R 3 are each independently H, C 1-18 hydrocarbyl; and a) R Photo is a photolabile group; and optionally a quaternary ammonium halide. a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent a photolabile reducing agent of the formula: wherein R 1 , R 2 and R 3 are each independently H, C 1-18 hydrocarbyl; and a) R Photo is a photolabile group; and optionally a quaternary ammonium halide. a) R Photo is a photolabile group; and optionally a quaternary ammonium halide.
An anvil assembly comprising: an anvil shaft defining a longitudinal axis (SH), the anvil shaft supporting a first spline , a second spline and a third spline , each of the first, second, and third splines including a pair of tapered camming surfaces that meet at a proximal end of the respective spline to define an apex , wherein each of the first, second, and third splines defines a longitudinal axis (Z) that is parallel to the longitudinal axis (SH) of the anvil shaft, the apex of the first spline being aligned with the longitudinal axis of the first spline; and an anvil head assembly supported on a distal end portion of the anvil shaft, the anvil head assembly supporting an anvil that defines a plurality of staple deforming recesses, wherein the apex of the first spline is positioned on the anvil shaft at a location proximal of the apex of the second spline , and the apex of the second spline is positioned on the anvil shaft at a location proximal of the apex of the third spline ; and the apex of the second spline is laterally offset from the longitudinal axis (Z) of the second spline by a first offset distance (D) and the apex of the third spline is laterally offset from the longitudinal axis (Z) of the third spline by a second offset distance (E). an anvil shaft defining a longitudinal axis (SH), the anvil shaft supporting a first spline , a second spline and a third spline , each of the first, second, and third splines including a pair of tapered camming surfaces that meet at a proximal end of the respective spline to define an apex , wherein each of the first, second, and third splines defines a longitudinal axis (Z) that is parallel to the longitudinal axis (SH) of the anvil shaft, the apex of the first spline being aligned with the longitudinal axis of the first spline; and an anvil head assembly supported on a distal end portion of the anvil shaft, the anvil head assembly supporting an anvil that defines a plurality of staple deforming recesses, wherein the apex of the first spline is positioned on the anvil shaft at a location proximal of the apex of the second spline , and the apex of the second spline is positioned on the anvil shaft at a location proximal of the apex of the third spline ; and the apex of the second spline is laterally offset from the longitudinal axis (Z) of the second spline by a first offset distance (D) and the apex of the third spline is laterally offset from the longitudinal axis (Z) of the third spline by a second offset distance (E).
A method for applying a wet film to a substrate , comprising: applying a coating material from a discharge end of a slot die onto said substrate to form said wet film on said substrate ; controlling a thickness of said wet film relative to said substrate by adjusting a pressure differential existing between an upstream side of said slot die and a downstream side of said slot die; and maintaining a constant coating gap between said discharge end of said slot die and said substrate while controlling said thickness of said wet film wherein said coating material includes a reagent for producing an optical or electrochemical signal in the presence of a test analyte.
Step plate unit for vehicles, comprising at least one step plate and at least two side plates , wherein the side plates comprise elastic sections made of an elastomer, such as a flexible plastic or rubber, and at least one elastic section comprising at least one reinforcing element which is at least partially sheathed by said elastomer, characterised in that the sections comprise at least one vibrating area which is not reinforced by reinforcing elements and which extends over the entire width of the section .
A method for preparing a molded polymeric article, the method comprising: (a) providing a polymerizable composition; (b) introducing the polymerizable composition into a mold cavity of a mold ; (c) sealing the polymerizable composition within the mold cavity using a sealing means; (d) placing the mold of (c) into a cure oven ; (e) subjecting the polymerizable composition within the mold cavity to a cure cycle sufficient to at least partially cure the polymerizable composition, thereby forming an at least partially cured polymeric article within the mold cavity; (f) extracting the mold from the cure oven ; (g) optionally, removing the sealing means from the mold ; (h) placing the mold of (g) into an auxiliary curing chamber which is then placed into the cure oven , or placing the mold of (g) into an auxiliary curing chamber which is disposed within the cure oven ; (i) subjecting the at least partially cured polymerizable composition within the mold cavity to a further cure cycle sufficient to complete polymerization of the polymerizable composition, thereby forming a cured polymeric article within the mold cavity; and (j) removing the cured polymeric article from the mold . (a) providing a polymerizable composition; (b) introducing the polymerizable composition into a mold cavity of a mold ; (c) sealing the polymerizable composition within the mold cavity using a sealing means; (d) placing the mold of (c) into a cure oven ; (e) subjecting the polymerizable composition within the mold cavity to a cure cycle sufficient to at least partially cure the polymerizable composition, thereby forming an at least partially cured polymeric article within the mold cavity; (f) extracting the mold from the cure oven ; (g) optionally, removing the sealing means from the mold ; (h) placing the mold of (g) into an auxiliary curing chamber which is then placed into the cure oven , or placing the mold of (g) into an auxiliary curing chamber which is disposed within the cure oven ; (i) subjecting the at least partially cured polymerizable composition within the mold cavity to a further cure cycle sufficient to complete polymerization of the polymerizable composition, thereby forming a cured polymeric article within the mold cavity; and (j) removing the cured polymeric article from the mold .
An intraoral sensor comprising: a scintillator including a first surface and a second surface; a fiber optical plate disposed on the second surface side of the scintillator ; an image sensor disposed on an opposite side of the fiber optical plate from the scintillator ; and a wiring board disposed on an opposite side of the image sensor from the fiber optical plate , wherein, when viewed from a direction perpendicular to the first surface of the scintillator , an outline of the scintillator , an outline of the fiber optical plate , an outline of the image sensor , and an outline of the wiring board are substantially aligned, characterized in that the image sensor is a back-surface irradiation type image sensor, and the intraoral sensor further comprises a supporting substrate configured to support the image sensor between the image sensor and the wiring board . a scintillator including a first surface and a second surface; a fiber optical plate disposed on the second surface side of the scintillator ; an image sensor disposed on an opposite side of the fiber optical plate from the scintillator ; and a wiring board disposed on an opposite side of the image sensor from the fiber optical plate , wherein, when viewed from a direction perpendicular to the first surface of the scintillator , an outline of the scintillator , an outline of the fiber optical plate , an outline of the image sensor , and an outline of the wiring board are substantially aligned, characterized in that the image sensor is a back-surface irradiation type image sensor, and the intraoral sensor further comprises a supporting substrate configured to support the image sensor between the image sensor and the wiring board .
A system comprising: a ventricular intracardiac pacemaker comprising: a first pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via a first plurality of electrodes coupled to the ventricular intracardiac pacemaker; a first sensing circuit configured to produce physiological atrial event signals; a receiving circuit configured to receive broadcast atrial event signals from a second implantable medical device; a first control circuit coupled to the pulse generator, the first sensing circuit, and the receiving circuit, the first control circuit configured to: select a first atrial event input as the physiological atrial event signals; detect first atrial events from the selected first atrial event input; determine if input switching criteria are met; switch from the first atrial event input to a second atrial event input in response to the input switching criteria being met, the second atrial event input being the broadcast atrial event signals; detect second atrial events from the second atrial event input; and set an atrioventricular (AV) pacing interval in response to detecting each of the first atrial events and the second atrial events for controlling the first pulse generator to deliver the ventricular pacing pulses. a first pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via a first plurality of electrodes coupled to the ventricular intracardiac pacemaker; a first sensing circuit configured to produce physiological atrial event signals; a receiving circuit configured to receive broadcast atrial event signals from a second implantable medical device; a first control circuit coupled to the pulse generator, the first sensing circuit, and the receiving circuit, the first control circuit configured to: select a first atrial event input as the physiological atrial event signals; detect first atrial events from the selected first atrial event input; determine if input switching criteria are met; switch from the first atrial event input to a second atrial event input in response to the input switching criteria being met, the second atrial event input being the broadcast atrial event signals; detect second atrial events from the second atrial event input; and set an atrioventricular (AV) pacing interval in response to detecting each of the first atrial events and the second atrial events for controlling the first pulse generator to deliver the ventricular pacing pulses. select a first atrial event input as the physiological atrial event signals; detect first atrial events from the selected first atrial event input; determine if input switching criteria are met; switch from the first atrial event input to a second atrial event input in response to the input switching criteria being met, the second atrial event input being the broadcast atrial event signals; detect second atrial events from the second atrial event input; and set an atrioventricular (AV) pacing interval in response to detecting each of the first atrial events and the second atrial events for controlling the first pulse generator to deliver the ventricular pacing pulses.
A method of operating an iron- or steelmaking plant comprising an ironmaking furnace set consisting of one or more furnaces in which iron ore is transformed into liquid hot metal by means of a process which includes iron ore reduction, melting and off-gas generation, the iron- or steelmaking plant optionally comprising a converter downstream of the ironmaking furnace set , the method including the steps of: a. charging the ironmaking furnace set with iron ore and coke, b. injecting oxidizing gas into the ironmaking furnace set , c. decarbonating of the off-gas downstream of the ironmaking furnace set so as to obtain a CO 2 -enriched tail gas stream and a decarbonated off-gas stream containing not more than 10%vol CO 2 , and preferably not more than 3% vol CO 2 , d. injecting at least 50% of the decarbonated off-gas stream back into the ironmaking furnace set as a reducing gas recycle stream, the method being characterized in that it comprises the steps of: e. generating hydrogen and oxygen by means of water decomposition, f. injecting at least part of the hydrogen generated in step (e) into the ironmaking furnace set , and g. injecting at least part of the generated oxygen into the ironmaking furnace set and/or the converter as oxidizing gas. a. charging the ironmaking furnace set with iron ore and coke, b. injecting oxidizing gas into the ironmaking furnace set , c. decarbonating of the off-gas downstream of the ironmaking furnace set so as to obtain a CO 2 -enriched tail gas stream and a decarbonated off-gas stream containing not more than 10%vol CO 2 , and preferably not more than 3% vol CO 2 , d. injecting at least 50% of the decarbonated off-gas stream back into the ironmaking furnace set as a reducing gas recycle stream, e. generating hydrogen and oxygen by means of water decomposition, f. injecting at least part of the hydrogen generated in step (e) into the ironmaking furnace set , and g. injecting at least part of the generated oxygen into the ironmaking furnace set and/or the converter as oxidizing gas.
A process for detaching a component from an electronic assembly, comprising the steps of: (a) providing an apparatus for generating electromagnetic radiation, wherein an array of light emitting diodes is used for the generation of electromagnetic radiation, wherein the wavelength of the electromagnetic radiation is from 420 nm to 650 nm and wherein the intensity of the electromagnetic radiation is from 0.05 W/cm2 to 5 W/cm2, preferably from 0.1 W/cm2 to 3 W/cm2; (b) transmitting an electromagnetic radiation from the apparatus through an outer component bonded with an inner component by an adhesive wherein the duration of the electromagnetic radiation is from 10 seconds to 60 seconds; (c) heating the adhesive by the electromagnetic radiation via absorption of the electromagnetic radiation, and increasing the temperature of the adhesive to from 50°C to 100°C, preferably from 50°C to 80°C ; and (d) detaching the components from the electronic assembly. (a) providing an apparatus for generating electromagnetic radiation, wherein an array of light emitting diodes is used for the generation of electromagnetic radiation, wherein the wavelength of the electromagnetic radiation is from 420 nm to 650 nm and wherein the intensity of the electromagnetic radiation is from 0.05 W/cm2 to 5 W/cm2, preferably from 0.1 W/cm2 to 3 W/cm2; (b) transmitting an electromagnetic radiation from the apparatus through an outer component bonded with an inner component by an adhesive wherein the duration of the electromagnetic radiation is from 10 seconds to 60 seconds; (c) heating the adhesive by the electromagnetic radiation via absorption of the electromagnetic radiation, and increasing the temperature of the adhesive to from 50°C to 100°C, preferably from 50°C to 80°C ; and (d) detaching the components from the electronic assembly.
A digital camera system for super resolution image processing, comprising: a resolution enhancement module configured to receive at least a portion of an image, to smooth at least one edge of the portion by shortening the transitions between color and/or brightness changes by reducing the amount of transition pixels, to increase the resolution of the smoothed portion via interpolation, and to output a resolution enhanced image; an edge enhancement module configured to receive the resolution enhanced image and comprising an edge extraction module configured to receive the resolution enhanced image, to extract at least one edge of the resolution enhanced image, and to output the extracted at least one edge of the resolution enhanced image; and wherein the edge enhancement module is configured to combine the extracted at least one edge with the resolution enhanced image. a resolution enhancement module configured to receive at least a portion of an image, to smooth at least one edge of the portion by shortening the transitions between color and/or brightness changes by reducing the amount of transition pixels, to increase the resolution of the smoothed portion via interpolation, and to output a resolution enhanced image; an edge enhancement module configured to receive the resolution enhanced image and comprising an edge extraction module configured to receive the resolution enhanced image, to extract at least one edge of the resolution enhanced image, and to output the extracted at least one edge of the resolution enhanced image; and wherein the edge enhancement module is configured to combine the extracted at least one edge with the resolution enhanced image.