mhurhangee/ep-ind-claims huggingface dataset:
A method of encoding a sequence of digital images into a bitstream, at least one portion of an image being encoded by motion compensation with respect to a reference image portion, the method comprising: obtaining (S502; S602, S604) for an image portion to encode an initial set of motion information predictors; testing (S512; S606) whether the number (N; N1) of motion information predictors in said initial set is lower than a target number (Nmax) and, if so, adding (S608, S610) one or more motion information predictors to said initial set to generate a set of motion information predictors different from one another so as to have controlled diversity and having a number of motion information predictors equal to the target number; and selecting a motion information predictor for encoding motion information of said image portion to encode from the generated set of motion information predictors, wherein the motion information predictors of said initial set are actual motion information predictors, having motion vectors obtained from image portions of said image being encoded or of a reference image, and potential motion information predictors for addition include one or more further such actual motion information predictors and also include one or more virtual motion information predictors not having motion vectors obtained from image portions of said image being encoded or of a reference image. characterized in that: the adding of one or more motion information predictors to said initial set comprises: performing a first adding process of adding (S608, S610) to said initial set one or more said further actual motion information predictors to obtain a second set of motion information predictors; making a second test whether the number of motion information predictors in said second set is lower than said target number (Nmax) and, if so, performing a second adding process of adding (S618-S626) one or more said virtual motion information predictors to said second set. the adding of one or more motion information predictors to said initial set comprises: performing a first adding process of adding (S608, S610) to said initial set one or more said further actual motion information predictors to obtain a second set of motion information predictors; making a second test whether the number of motion information predictors in said second set is lower than said target number (Nmax) and, if so, performing a second adding process of adding (S618-S626) one or more said virtual motion information predictors to said second set.
An oral suspension pharmaceutical composition, comprising sonidegib or a pharmaceutically acceptable salt thereof, a filler comprising microcrystalline cellulose, a glidant comprising colloidal silicon dioxide, a lubricant comprising magnesium stearate, a flavour or sweetener and an oil, wherein the oil comprises a medium chain fatty acid triglyceride comprising 55% triglycerides of C8 fatty acids and 45% triglycerides of C10 fatty acids.
A robotised cell for deburring or removing surplus material from large sized parts having at least one curved surface, which comprises a base and a robot having at least 6 axes of freedom, wherein the robot comprises connection means so as to have, in operation, a grinding tool and a scanning system installed, and wherein said grinding tool comprises in turn a control system configured to control the contact force exerted on the part to be deburred and an electro-spindle configured to incorporate and, in use, make rotate an abrasive element, in such a way that the robot is configured so that, in operation, and in respect of a previously programmed theoretical trajectory, it can adapt its trajectory on the basis of the information obtained by means of said scanning system and by means of said control system in such a way that the abrasive element attacks the part with the optimal angle and pressure predefined for each point on the surface of the part, the robotised cell being characterised in that said scanning system is configured to inspect the shape of the part to be deburred and to capture its position, and in that the robot of the robotised cell is configured to hold the grinding tool with four different alternative orientations: in a first configuration, the control system is connected to the flange of the robot by means of a first connector and the electro-spindle is connected to the rapid tool changer of the control system by means of a first connector; in a second configuration, the control system is connected to the flange of the robot by means of said first connector and the electro-spindle is connected to the rapid tool changer of the control system by means of a second connector, leaving the electro-spindle situated perpendicularly in respect of its position in the first configuration; in a third configuration, the control system is connected to the flange of the robot by means of a second connector and the electro-spindle is connected to the rapid tool changer of the control system by means of said first connector; and in a fourth configuration, the control system is connected to the flange of the robot by means of said second connector and the electro-spindle is connected to the rapid tool changer of the control system by means of said second connector, leaving the control system in the third and fourth configurations situated perpendicularly in respect of its position in the first and second configurations.
A production installation (21, 111, 211, 311, 411) for book blocks in parallel from digital prints on basic sheets, in which each book block has a given number "n" of book sheets and each basic sheet has a number "m" of book sheets equal to the number "m" of the book blocks to be produced and in which said installation comprises a stacking group (52, 122, 218, 317, 417) for the basic sheets, a separation group (53, 123) for the book blocks, and an electronic control unit (56, 112, 212, 312) for the stacking group and the separation group, the book sheets are distributed on the basic sheets by aligning through aligning rows and aligning columns and separation areas adjacent to the book sheets; and the stacking group (52, 122, 218, 317, 417) is actuatable for stacking the basic sheets and forming a basic block; and wherein the electronic control unit (56, 112, 212, 312, 419) actuates the separation group (53, 123) for cutting the book blocks from the basic block along the aligning rows and the aligning columns of the book sheets and separating the book blocks for following treatments; the said production installation being characterized in that the electronic control unit (56, 112, 212, 312, 419) responds to data associated to the book blocks and the basic sheets derived from machine-readable basic codes associated with the basic sheets, said production installation further comprising a bonding station including a point bonding group (51, 121, 217, 318, 422) and code detectors for the reading of the basic codes, wherein: the point bonding group (51, 121, 217, 318, 422) is provided for dispensing adhesive strokes on the basic sheets across the aligning rows and/or the aligning columns, in correspondence of the separation areas, while the stacking group (52, 122, 218, 317, 417) stacks the basic sheets, without sliding, forming said basic block in which the book sheets are aligned and stabilized by the adhesive strokes; and wherein the electronic control unit (56, 112, 212, 312, 419) responds to signals from the said code detectors for actuating the point bonding group, the stacking group (52, 122, 218, 317, 417) and the separation group (53, 123) on the basis of information from the said basic codes. the point bonding group (51, 121, 217, 318, 422) is provided for dispensing adhesive strokes on the basic sheets across the aligning rows and/or the aligning columns, in correspondence of the separation areas, while the stacking group (52, 122, 218, 317, 417) stacks the basic sheets, without sliding, forming said basic block in which the book sheets are aligned and stabilized by the adhesive strokes; and wherein the electronic control unit (56, 112, 212, 312, 419) responds to signals from the said code detectors for actuating the point bonding group, the stacking group (52, 122, 218, 317, 417) and the separation group (53, 123) on the basis of information from the said basic codes.
A computer-implemented method for training a multi-task neural network to detect features of images captured by a camera, comprising: providing at least a first dataset containing a first set of annotated images of said captured images for a first task, and a second dataset containing a second set of annotated images of said captured images for a second task; providing a first batch miner for mining annotated images from the first dataset, and a second batch miner for mining annotated images from the second dataset; determining a first loss value for completing the first task by the neural network, using a first annotated image mined by the first batch miner from the first dataset; determining a second loss value for completing the second task by the neural network, using a second annotated image mined by the second batch miner from the second data set; if the first loss value falls within a range delimited by a first lower threshold loss value and a first upper threshold loss value, adding the first annotated image to a first batch; if the second loss value falls within a range delimited by a second lower threshold loss value and a second upper threshold loss value, adding the second annotated image to a second batch; in response to reaching a termination condition for either the first batch or the second batch, using the first batch or the second batch to train the neural network. providing at least a first dataset containing a first set of annotated images of said captured images for a first task, and a second dataset containing a second set of annotated images of said captured images for a second task; providing a first batch miner for mining annotated images from the first dataset, and a second batch miner for mining annotated images from the second dataset; determining a first loss value for completing the first task by the neural network, using a first annotated image mined by the first batch miner from the first dataset; determining a second loss value for completing the second task by the neural network, using a second annotated image mined by the second batch miner from the second data set; if the first loss value falls within a range delimited by a first lower threshold loss value and a first upper threshold loss value, adding the first annotated image to a first batch; if the second loss value falls within a range delimited by a second lower threshold loss value and a second upper threshold loss value, adding the second annotated image to a second batch; in response to reaching a termination condition for either the first batch or the second batch, using the first batch or the second batch to train the neural network.
A coating composition for applying on polyester film capable of printing on all types of electrostatic printers comprising: a combination of (i) a polyethylene carboxylic acid polymer dispersion, and (ii) a homopolymer or copolymer of polyacrylate polymer dispersion and/or a homopolymer or copolymer of polyvinyl acetate polymer dispersion; wherein the polyacrylate polymer content and/or the polyvinyl acetate polymer content is in the range of 1 to 50 wt% of polyethylene carboxylic acid polymer content in the polymer dispersion; and wherein the polyacrylate is a homopolymer or copolymer of methylacrylate, ethylacrylate, methylmethacrylate, ethylethacrylate, n-butyl acrylate, butyl methacrylate, hexyl acrylate, hexyl methacrylate or higher acrylates having carbon chain length up to 15 carbon atoms or a combination thereof. a combination of (i) a polyethylene carboxylic acid polymer dispersion, and (ii) a homopolymer or copolymer of polyacrylate polymer dispersion and/or a homopolymer or copolymer of polyvinyl acetate polymer dispersion; (i) a polyethylene carboxylic acid polymer dispersion, and (ii) a homopolymer or copolymer of polyacrylate polymer dispersion and/or a homopolymer or copolymer of polyvinyl acetate polymer dispersion; wherein the polyacrylate polymer content and/or the polyvinyl acetate polymer content is in the range of 1 to 50 wt% of polyethylene carboxylic acid polymer content in the polymer dispersion; and wherein the polyacrylate is a homopolymer or copolymer of methylacrylate, ethylacrylate, methylmethacrylate, ethylethacrylate, n-butyl acrylate, butyl methacrylate, hexyl acrylate, hexyl methacrylate or higher acrylates having carbon chain length up to 15 carbon atoms or a combination thereof.
A supply unit in which a liquid container including a coupling portion is detachably mounted, the supply unit comprising: a liquid introducing portion to which the coupling portion of the liquid container is coupled; a pressing member configured to press the liquid container in an uncoupling direction (Do) being a direction opposite to a coupling direction (Dc) when a direction in which the liquid container is coupled to the liquid introducing portion is defined as the coupling direction; an engaging portion configured to engage with the liquid container when the liquid container is coupled to the liquid introducing portion; a moving unit including a rotating body configured to rotate in an intersecting direction (Di) intersecting the uncoupling direction (Do); and a speed reduction portion configured to reduce, when engagement of the engaging portion with the liquid container is released, a moving speed of the liquid container moving in the uncoupling direction, characterized in that at least a part of the moving unit is configured to move in the intersecting direction (Di) with the movement of the liquid container in the uncoupling direction (Do), and the speed reduction portion is configured to reduce the moving speed of the liquid container by reducing a moving speed of the moving unit in the intersecting direction (Di). a liquid introducing portion to which the coupling portion of the liquid container is coupled; a pressing member configured to press the liquid container in an uncoupling direction (Do) being a direction opposite to a coupling direction (Dc) when a direction in which the liquid container is coupled to the liquid introducing portion is defined as the coupling direction; an engaging portion configured to engage with the liquid container when the liquid container is coupled to the liquid introducing portion; a moving unit including a rotating body configured to rotate in an intersecting direction (Di) intersecting the uncoupling direction (Do); and a speed reduction portion configured to reduce, when engagement of the engaging portion with the liquid container is released, a moving speed of the liquid container moving in the uncoupling direction, characterized in that at least a part of the moving unit is configured to move in the intersecting direction (Di) with the movement of the liquid container in the uncoupling direction (Do), and the speed reduction portion is configured to reduce the moving speed of the liquid container by reducing a moving speed of the moving unit in the intersecting direction (Di).
Frozen aerated food product comprising at least 0.5 wt.% of fat, no hydrogenated fat and at least 30 wt.% of water, said fat being characterised by the following solid fat profile: • 30% < N 10 < 80%; • 3% < N 20 < 55%; • N 10 - N 30 ≥ 30%; said fat further being characterised by the following fatty acid composition: • less than 56% saturated fatty acids; • not more than 60% unsaturated fatty acids; • at least 1.5% C 12 -C 14 fatty acids; • at least 35% palmitic acid; • ≤ 1.5.% ω-3 unsaturated fatty acids; • ≤ 25% saturated C 12 -C 14 fatty acids; and • ≤ 5% C 4 -C 10 fatty acids; all percentages being calculated by weight of the total amount of fatty acids. • 30% < N 10 < 80%; • 3% < N 20 < 55%; • N 10 - N 30 ≥ 30%; • less than 56% saturated fatty acids; • not more than 60% unsaturated fatty acids; • at least 1.5% C 12 -C 14 fatty acids; • at least 35% palmitic acid; • ≤ 1.5.% ω-3 unsaturated fatty acids; • ≤ 25% saturated C 12 -C 14 fatty acids; and • ≤ 5% C 4 -C 10 fatty acids;
A detection system for determining whether a light contribution of a light source of an illumination system is present within a first part of a scene, wherein the light contribution of the light source includes a first embedded code comprising a repeating first sequence of N symbols, the detection system comprising: a camera configured to acquire a series of images of the scene, wherein: each acquired image includes a plurality of pixels, each pixel representing an intensity of a total light output of the illumination system at a different physical position within the scene and the total light output of the illumination system comprising at least the light contribution of the light source, and the series comprises at least N different images, characterized in that: each image of the at least N different images is acquired with a total exposure time comprising one or more exposure instances at different temporal positions within the repeating first sequence of N symbols; and the detection system further comprising a processing unit configured to process the acquired series of images to determine that the light contribution of the light source is present within the first part of the scene. a camera configured to acquire a series of images of the scene, wherein: each acquired image includes a plurality of pixels, each pixel representing an intensity of a total light output of the illumination system at a different physical position within the scene and the total light output of the illumination system comprising at least the light contribution of the light source, and the series comprises at least N different images, characterized in that: each image of the at least N different images is acquired with a total exposure time comprising one or more exposure instances at different temporal positions within the repeating first sequence of N symbols; and each acquired image includes a plurality of pixels, each pixel representing an intensity of a total light output of the illumination system at a different physical position within the scene and the total light output of the illumination system comprising at least the light contribution of the light source, and the series comprises at least N different images, each image of the at least N different images is acquired with a total exposure time comprising one or more exposure instances at different temporal positions within the repeating first sequence of N symbols; and the detection system further comprising a processing unit configured to process the acquired series of images to determine that the light contribution of the light source is present within the first part of the scene.
An inspection method for a flat film covered battery, the film covered battery being in flat form and comprising: a battery element having a positive electrode plate and a negative electrode plate stacked together via a separator; and an outer cover member formed of a laminate film and sealed to accommodate therein the battery element together with an electrolytic solution with a terminal of the battery element being led out from the outer cover member, the laminated film having a synthetic resin layer and a metal layer laminated on at least an inner surface of the synthetic resin layer, the inspection method comprising: performing an insulation failure inspection to inspect an insulation failure between the terminal and the metal layer under a pressurized condition where pressure is externally applied to the outer cover member in a stacking direction of the battery element. a battery element having a positive electrode plate and a negative electrode plate stacked together via a separator; and an outer cover member formed of a laminate film and sealed to accommodate therein the battery element together with an electrolytic solution with a terminal of the battery element being led out from the outer cover member, the laminated film having a synthetic resin layer and a metal layer laminated on at least an inner surface of the synthetic resin layer, the inspection method comprising: performing an insulation failure inspection to inspect an insulation failure between the terminal and the metal layer under a pressurized condition where pressure is externally applied to the outer cover member in a stacking direction of the battery element. performing an insulation failure inspection to inspect an insulation failure between the terminal and the metal layer under a pressurized condition where pressure is externally applied to the outer cover member in a stacking direction of the battery element.
An apparatus for practising the application of eyelash extensions comprising: a head (1, 2) with a face section and a base for supporting the head, the face section has a plurality of eye zones; characterised in that the eye zones include a plurality of displaceable parts including: an upper eyelid with a ratchet closure mechanism that allows the upper eyelid to be displaced to any one of a plurality of discrete positions between a first open eye position and a second closed eye position, and a lower eyelid having a closure mechanism; and each of the upper eyelid and of the lower eyelid having a plurality of indentations for receiving a replaceable eyelash clip that has a plurality of protrusions for mating with the plurality of indentations of the upper eyelid and/or lower eyelid when the replaceable eyelash clip is mounted to the upper eyelid and/or lower eyelid. a head (1, 2) with a face section and a base for supporting the head, the face section has a plurality of eye zones; characterised in that the eye zones include a plurality of displaceable parts including: an upper eyelid with a ratchet closure mechanism that allows the upper eyelid to be displaced to any one of a plurality of discrete positions between a first open eye position and a second closed eye position, and a lower eyelid having a closure mechanism; and each of the upper eyelid and of the lower eyelid having a plurality of indentations for receiving a replaceable eyelash clip that has a plurality of protrusions for mating with the plurality of indentations of the upper eyelid and/or lower eyelid when the replaceable eyelash clip is mounted to the upper eyelid and/or lower eyelid.
A method for reducing flow losses of a current flowing along a surface, wherein a multitude of stationary additive flows are blown out laterally from the surface and namely from exhaust openings which are each arranged on the border area of depressions (6, 8 10) introduced into the surface, characterized in that the exhaust openings each are arranged on the border area upstream of the depressions (6, 8 10), so that a cyclic field is formed by the additive flows with a multitude of surface-side local carrier swirls (22, 24, 26), by means of which the current is spaced away from the surface in the cyclic field area.