mhurhangee/ep-ind-claims huggingface dataset:
A handwriting recognition system, comprising: - an input device including a three-dimensional motion detection sensor that is configured to measure acceleration of the 3D motion of the three-dimensional motion detection sensor in X, Y and Z axial directions to generate 3D motion data in response to a 3D motion of the three-dimensional motion detection sensor; and - a recognition device, in communication with the input device, wherein the recognition device is configured to receive the 3D motion data and derive corresponding two-dimensional images for handwriting recognition, based on the 3D motion data, wherein the recognition device comprises - means for calculating sampling points in 3D coordinates relative to an origin corresponding to the acceleration data of the movement in the X, Y and Z directions in the 3D motion data and a selected sampling rate, each sampling point being used as a reference point for calculating the coordinates of a following sampling point on a 3D track, and - means for constructing corresponding 3D tracks based on the 3D coordinates; and - means for deriving the corresponding 2D images from the 3D tracks, the deriving means including - means for deriving a 2D plane as the plane to which the sum of the distance square of each sampling point is minimal, and means for mapping the 3D tracks onto the 2D plane for deriving the 2D images for handwriting recognition. - an input device including a three-dimensional motion detection sensor that is configured to measure acceleration of the 3D motion of the three-dimensional motion detection sensor in X, Y and Z axial directions to generate 3D motion data in response to a 3D motion of the three-dimensional motion detection sensor; and - a recognition device, in communication with the input device, wherein the recognition device is configured to receive the 3D motion data and derive corresponding two-dimensional images for handwriting recognition, based on the 3D motion data, wherein the recognition device comprises - means for calculating sampling points in 3D coordinates relative to an origin corresponding to the acceleration data of the movement in the X, Y and Z directions in the 3D motion data and a selected sampling rate, each sampling point being used as a reference point for calculating the coordinates of a following sampling point on a 3D track, and - means for constructing corresponding 3D tracks based on the 3D coordinates; and - means for deriving the corresponding 2D images from the 3D tracks, the deriving means including - means for deriving a 2D plane as the plane to which the sum of the distance square of each sampling point is minimal, and means for mapping the 3D tracks onto the 2D plane for deriving the 2D images for handwriting recognition.
Separating device for a potato harvesting machine or a processing machine for separating potatoes or similar harvested crops from a mixture of clods, stones and similar solid bodies, said device comprising a conveying device, which feeds the substantially dense mixture as a conveyed flow, from which conveying device the mixture, which is moved into the region of at least one drop stage and, in the process, is influenced by means of a conveying medium in the form of a stream of air, can be separated such that, in each case, at least the harvested crops and the solid bodies can be passed forward and guided out of the separating device as individual separated items, at least one retaining element, which is oriented counter to the falling separated items (E, F) and cooperates with the at least one stream of air, being provided downstream of the drop stage that causes the mixture to break up, such that, starting from this retaining element, at least the harvested crops and the solid bodies, in the form of respectively sorted individual parts, can be passed forward so as to be separated in a conveying direction (6, 7) that runs in substantially the opposite direction, the at least one stream of air flowing through the retaining element and the upper separating surface thereof as a stream of lifting air, characterised in that an additional stream of air is provided above the separating surface, and substantially in parallel with the separating surface, as a transverse stream of air.
A system adapted to control vertical glass distribution in glass containers formed from an individual section machine, the individual section machine including: a blank mold for forming a stream of parisons from a stream of gobs of glass, a blow mold for forming a stream of glass containers from the stream of parisons, a traversing pyrometer that measures a parison actual temperature of the parisons after the parisons exit the blank mold, the traversing pyrometer measuring the parison actual temperature periodically such that the parison actual temperature of less than all of the parisons that exit the blank mold is measured, and a thermal camera that takes a thermal image of each glass container after the glass container exits the blow mold, the system comprising: a vertical glass signature extraction module that extracts a vertical glass distribution signature indicative of actual vertical glass distribution of each glass container from the thermal image of each glass container; a parison temperature estimator configured to determine a parison estimated temperature for each vertical glass distribution signature obtained based on the vertical glass distribution signature, a most recently measured parison actual temperature and a parison stretch time, the parison stretch time being the amount of time each parison is permitted to stretch prior to being formed into a glass container; a parison temperature summer that compares the parison estimated temperature to a parison set point temperature to determine a parison temperature error; and a parison temperature control that controls a blank mold contact time based on the parison temperature error, the blank mold contact time being an amount of time each parison remains in contact with the blank mold. a vertical glass signature extraction module that extracts a vertical glass distribution signature indicative of actual vertical glass distribution of each glass container from the thermal image of each glass container; a parison temperature estimator configured to determine a parison estimated temperature for each vertical glass distribution signature obtained based on the vertical glass distribution signature, a most recently measured parison actual temperature and a parison stretch time, the parison stretch time being the amount of time each parison is permitted to stretch prior to being formed into a glass container; a parison temperature summer that compares the parison estimated temperature to a parison set point temperature to determine a parison temperature error; and a parison temperature control that controls a blank mold contact time based on the parison temperature error, the blank mold contact time being an amount of time each parison remains in contact with the blank mold.
A crystalline form of a compound of formula: wherein the crystalline form is form A having: a) an X-ray powder diffraction pattern comprising peaks, in terms of 2θ, at about 8.29°, about 9.53°, about 11.11°, about 16.99°, about 18.75° and about 23.66°; or b) an X-ray powder diffraction pattern comprising peaks, in terms of 2θ, at 8.29° ± 0.2°, 9.53° ± 0.2°, 11.11° ± 0.2°, 16.99° ± 0.2°, 18.75° ± 0.2° and 23.66° ± 0.2°; or c) unit cell parameters substantially equal to the following: (i) unit cell dimensions: a = 8.7430 Å, b = 12.8275 Å, c = 16.1281 Å, α = 96.689°, β = 95.737°, γ = 99.649°; (ii) space group: P-1; (iii) volume: 1757.82 Å 3; (iv) Z: 2; and (v) calculated density: 1.377 g/cm 3. a) an X-ray powder diffraction pattern comprising peaks, in terms of 2θ, at about 8.29°, about 9.53°, about 11.11°, about 16.99°, about 18.75° and about 23.66°; or b) an X-ray powder diffraction pattern comprising peaks, in terms of 2θ, at 8.29° ± 0.2°, 9.53° ± 0.2°, 11.11° ± 0.2°, 16.99° ± 0.2°, 18.75° ± 0.2° and 23.66° ± 0.2°; or c) unit cell parameters substantially equal to the following: (i) unit cell dimensions: a = 8.7430 Å, b = 12.8275 Å, c = 16.1281 Å, α = 96.689°, β = 95.737°, γ = 99.649°; (ii) space group: P-1; (iii) volume: 1757.82 Å 3; (iv) Z: 2; and (v) calculated density: 1.377 g/cm 3. (i) unit cell dimensions: a = 8.7430 Å, b = 12.8275 Å, c = 16.1281 Å, α = 96.689°, β = 95.737°, γ = 99.649°; (ii) space group: P-1; (iii) volume: 1757.82 Å 3; (iv) Z: 2; and (v) calculated density: 1.377 g/cm 3.
A method in a computer system having an operating system providing isolation between software processes executable in the operating system such that a first process executing in the operating system is prevented from accessing resources of a second process executing in the operating system, the method comprising: receiving a software component for execution as an isolated process in the operating system; receiving a baseline profile for the software component defining one or more characteristics of the software component at a runtime for identifying performance of the software component; generating a runtime profile of the software component in execution in the operating system defining characteristics of the component in execution; flagging the software component in execution based on a comparison of the baseline profile and the runtime profile so as to identify an undesirabe performance of the software component; suspending or terminating execution of the flagged software component; and transitioning execution of the flagged software component to an alternative computer system, wherein the baseline profile is generated based on profiling of one or more executions of the software component, and wherein the baseline profile is learned by a machine learning algorithm from multiple executions of the software component. receiving a software component for execution as an isolated process in the operating system; receiving a baseline profile for the software component defining one or more characteristics of the software component at a runtime for identifying performance of the software component; generating a runtime profile of the software component in execution in the operating system defining characteristics of the component in execution; flagging the software component in execution based on a comparison of the baseline profile and the runtime profile so as to identify an undesirabe performance of the software component; suspending or terminating execution of the flagged software component; and transitioning execution of the flagged software component to an alternative computer system, wherein the baseline profile is generated based on profiling of one or more executions of the software component, and wherein the baseline profile is learned by a machine learning algorithm from multiple executions of the software component.
Carbonate apatite particles for use in a therapeutic method of treating cancer wherein - the carbonate apatite particles are administered with an anticancer agent, - the anticancer agent is not contained in the carbonate apatite particles, and - the therapeutic method is a method of enhancing accumulation of the anticancer agent in tumor tissue. - the carbonate apatite particles are administered with an anticancer agent, - the anticancer agent is not contained in the carbonate apatite particles, and - the therapeutic method is a method of enhancing accumulation of the anticancer agent in tumor tissue.
A quick-change tool holder for the attachment of a roller tool to a compaction roller of a soil compactor comprising a quick-change tool holder body having a central region wherein a holder opening for receiving a holder shaft of a roller tool is provided in the central region and two leg portions (16, 18) originating at the central region for firmly connecting the quick-change tool holder body to the outer periphery of the compaction roller, the central region and the leg portions (16, 18) surrounding an inner space of the quick-change tool holder open over at least one side opening (84, 86), characterized in that in association to at least one side opening (84, 86) a closing element (90, 92) is provided, which can be inserted into the latter, that on at least one closing element (90, 92) a locking region for a locking interaction with a counter-locking region of a roller tool to be locked onto the quick-change tool holder body is provided and in that the locking region comprises a locking engagement region (108, 110) to engage in a locking recess of the counter-locking region provided on the holder shaft of a roller tool.
A vehicle power transfer unit housing, comprising: at least one wall defining at least part of an interior; an oil feed passage extending through said at least one wall, said oil feed passage having an inlet open to said interior at a first location and having an outlet open to said interior at a second location situated above an oil bath held in the power transfer unit housing, wherein, upon operation of a gear assembly in said interior, oil of said oil bath is urged through said oil feed passage from said inlet to said outlet and to said second location; and an oil feed lead-in formation in said at least one wall, the oil feed lead-in formation being a depression in said at least one wall with the depression being located adjacent said inlet of said oil feed passage, said oil feed lead-in formation shaped and oriented relative to the oil bath in order to guide oil into said oil feed passage upon operation of the gear assembly in said interior, characterized in that: said second location is situated above said first location. at least one wall defining at least part of an interior; an oil feed passage extending through said at least one wall, said oil feed passage having an inlet open to said interior at a first location and having an outlet open to said interior at a second location situated above an oil bath held in the power transfer unit housing, wherein, upon operation of a gear assembly in said interior, oil of said oil bath is urged through said oil feed passage from said inlet to said outlet and to said second location; and an oil feed lead-in formation in said at least one wall, the oil feed lead-in formation being a depression in said at least one wall with the depression being located adjacent said inlet of said oil feed passage, said oil feed lead-in formation shaped and oriented relative to the oil bath in order to guide oil into said oil feed passage upon operation of the gear assembly in said interior, characterized in that: said second location is situated above said first location.
An air conditioner, including an indoor unit having one or more outlets (22a, 22b, 22c) and an outdoor unit connected to the indoor unit, in which conditioner a flammable refrigerant or a mildly flammable refrigerant is used, comprising a refrigerant gas sensor disposed in the indoor unit, wherein when the refrigerant gas sensor detects refrigerant gas, a control is performed such that air is blown from the one or more outlets at a minimum air speed or higher, and characterised in that: the minimum air speed is preset in accordance with a rated cooling capacity of the air conditioner, and an air blowout mode from the one or more outlets of the indoor unit, at a time of detecting the refrigerant gas by the refrigerant gas sensor, is at least one of an upper outblow, a lower outblow, an upper/lower outblow (22a, 22b), and a left/right outblow, and wherein the indoor unit is capable of taking at least two of the upper outblow, the lower outblow, the upper/lower outblow, and the left/right outblow, as the air blowout mode from the one or more outlets at the minimum air speed at a time of detecting the refrigerant gas by the refrigerant gas sensor, and the minimum air speed is determined in advance for each of the air blowout modes from the one or more outlets. the minimum air speed is preset in accordance with a rated cooling capacity of the air conditioner, and an air blowout mode from the one or more outlets of the indoor unit, at a time of detecting the refrigerant gas by the refrigerant gas sensor, is at least one of an upper outblow, a lower outblow, an upper/lower outblow (22a, 22b), and a left/right outblow, and wherein the indoor unit is capable of taking at least two of the upper outblow, the lower outblow, the upper/lower outblow, and the left/right outblow, as the air blowout mode from the one or more outlets at the minimum air speed at a time of detecting the refrigerant gas by the refrigerant gas sensor, and the minimum air speed is determined in advance for each of the air blowout modes from the one or more outlets.
A method for performing wireless communication by a first device, the method comprising: obtaining information related to a resource reservation period configured for a resource pool; determining (S1110, S1410) at least one candidate slot for selecting a sidelink, SL, resource; performing (S1120, S1420) sensing for at least one sensing slot related to the at least one candidate slot; selecting (S1130, S1430) a resource within the at least one candidate slot based on the sensing; and performing (S1140, S1440) SL communication with a second device based on the selected resource, the method being characterized in that: each of the at least one sensing slot is determined based on a value for deriving a location of the at least one sensing slot, and the value for deriving the location of the at least one sensing slot represents in which resource reservation period the at least one sensing slot is located. obtaining information related to a resource reservation period configured for a resource pool; determining (S1110, S1410) at least one candidate slot for selecting a sidelink, SL, resource; performing (S1120, S1420) sensing for at least one sensing slot related to the at least one candidate slot; selecting (S1130, S1430) a resource within the at least one candidate slot based on the sensing; and performing (S1140, S1440) SL communication with a second device based on the selected resource, the method being characterized in that: each of the at least one sensing slot is determined based on a value for deriving a location of the at least one sensing slot, and the value for deriving the location of the at least one sensing slot represents in which resource reservation period the at least one sensing slot is located.
A method for inserting two or more fasteners of different types into a workpiece, comprising using a control apparatus to select a first upsetting volume of an upsetting die according to the dimensions and/or hardness of a first fastener of a first type, using a punch to push the first fastener into a workpiece and using the upsetting die to upset the first fastener, then using the control apparatus to select a second upsetting volume of the upsetting die according to the dimensions and/or hardness of a second fastener of a second type, using the punch to push the second fastener into a workpiece and using the upsetting die to upset the second fastener, wherein the first fastener and the second fastener have different dimensions and/or hardnesses.
A drive device (10, 110, 210) for a vertical roller mill, said device comprising: - a main casing (12, 112, 212) defining an internal space; - a rotary plate movable in rotation with respect to the main casing, about a first vertical axis; said rotary plate being attached or able to be attached to a rotary grinding table of the vertical roller mill; - an axial bearing secured to the main casing, the rotary plate being disposed in vertical support on said axial bearing; - an output ring gear, secured to the rotary plate; - at least one drive pinion meshing or capable of meshing with the output ring gear, the at least one drive pinion being rotatable about a second axis; - at least one drive unit, able to rotate the at least one drive pinion; and - a first lubrication unit, capable of injecting a first lubricating product under pressure between the rotary plate and the axial bearing; the drive device being characterized in that the internal space of the main casing comprises a first compartment (70, 170, 270) disposed under the axial bearing, said first compartment being configured to receive, by gravity, the first lubricant product injected by the first lubrication unit between the rotary plate and the axial bearing. - a main casing (12, 112, 212) defining an internal space; - a rotary plate movable in rotation with respect to the main casing, about a first vertical axis; said rotary plate being attached or able to be attached to a rotary grinding table of the vertical roller mill; - an axial bearing secured to the main casing, the rotary plate being disposed in vertical support on said axial bearing; - an output ring gear, secured to the rotary plate; - at least one drive pinion meshing or capable of meshing with the output ring gear, the at least one drive pinion being rotatable about a second axis; - at least one drive unit, able to rotate the at least one drive pinion; and - a first lubrication unit, capable of injecting a first lubricating product under pressure between the rotary plate and the axial bearing;
A photopolymerizable inkjet ink comprising: at least one selected from the group consisting of (meth)acrylic acid esters negative for skin sensitization and (meth)acrylamides negative for skin sensitization; and at least one selected from the group consisting of vinyl ethers negative for skin sensitization, t-butyl methacrylate negative for skin sensitization, n-pentyl methacrylate negative for skin sensitization, and n-hexyl methacrylate negative for skin sensitization, wherein the amount of the at least one of the (meth)acrylic acid ester negative for skin sensitization or the (meth)acryl amide negative for skin sensitization is 10% by mass to 90% by mass relative to the total amount of monomers, and a compound is negative for skin sensitization if it has a Stimulation Index of less than 3, where the Stimulation Index indicates the extent of sensitization as measured by a skin sensitization test based on the Local Lymph Node Assay as described herein. at least one selected from the group consisting of (meth)acrylic acid esters negative for skin sensitization and (meth)acrylamides negative for skin sensitization; and at least one selected from the group consisting of vinyl ethers negative for skin sensitization, t-butyl methacrylate negative for skin sensitization, n-pentyl methacrylate negative for skin sensitization, and n-hexyl methacrylate negative for skin sensitization, wherein the amount of the at least one of the (meth)acrylic acid ester negative for skin sensitization or the (meth)acryl amide negative for skin sensitization is 10% by mass to 90% by mass relative to the total amount of monomers, and a compound is negative for skin sensitization if it has a Stimulation Index of less than 3, where the Stimulation Index indicates the extent of sensitization as measured by a skin sensitization test based on the Local Lymph Node Assay as described herein.