mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing a pressure sensitive adhesive tape having a pressure sensitive adhesive based on block copolymers of the general type P(A/C)-P -P(A/C), each block copolymer being composed of one middle copolymer block P and two end polymer blocks P(A/C), wherein • P represents a (co)polymer block obtainable from a component B which is composed of at least one monomer B1, the glass transition temperature of the (co)polymer block P being not higher than 0°C, • P(A/C) represents a copolymer block obtainable from a component A/C which is composed of at least two monomers A1 and C1, the copolymer block P(A/C) possessing a glass transition temperature of from 20°C to 175°C, and at least one monomer C1 contains at least one functional group which is capable of crosslinking, • the (co)polymer block P is insoluble in the copolymer block P(A/C), the (co)polymer blocks P(A/C) and P are immiscible, characterized in that • the block copolymers are prepared by polymerization via the Reversible Addition-Fragmentation Chain Transfer (RAFT) mechanism, and • resins that are soluble in polyacrylates are admixed to the block copolymers; • the pressure sensitive adhesive is applied to a backing. • P represents a (co)polymer block obtainable from a component B which is composed of at least one monomer B1, the glass transition temperature of the (co)polymer block P being not higher than 0°C, • P(A/C) represents a copolymer block obtainable from a component A/C which is composed of at least two monomers A1 and C1, the copolymer block P(A/C) possessing a glass transition temperature of from 20°C to 175°C, and at least one monomer C1 contains at least one functional group which is capable of crosslinking, • the (co)polymer block P is insoluble in the copolymer block P(A/C), the (co)polymer blocks P(A/C) and P are immiscible, characterized in that • the block copolymers are prepared by polymerization via the Reversible Addition-Fragmentation Chain Transfer (RAFT) mechanism, and • resins that are soluble in polyacrylates are admixed to the block copolymers; • the pressure sensitive adhesive is applied to a backing.
Label cartridge for a labeling device, wherein the label cartridge is equipped with at least two clamping elements, each comprising a clamp with a passage opening over an entire height of the clamp, wherein the clamp is respectively configured to be brought with a stud of the labeling device by displacement of the label cartridge, especially in a plane perpendicular to a longitudinal axis of the stud, into engagement with the stud by insertion of the stud through the passage opening of the clamp or out of engagement with the corresponding stud by ejection of the stud through the passage opening of the clamp, characterized in that at least two clamping elements respectively comprise a clamp piece and a clamp lever, wherein the clamp lever further comprises an eccentric which is configured to press onto the clamp piece upon locking of the clamp lever and not to press onto the clamp piece upon release of the clamp lever.
A ceramic heater comprising: a rod-shaped support extending in an axial direction, and comprising an insulative ceramic; and a resistor member including a heating portion embedded in a tip end part of said support, and a pair of lead portions extending from said heating portion toward a rear end side of said support, wherein said heating portion and said lead portions comprise a same conductive ceramic, and said ceramic heater has, in a part of said heating portion, a flat part in which a width w of said heating portion in a section of said heating portion is larger than a thickness h of said heating portion perpendicular to the width, characterized in that said flat part has a projection which is formed by projecting a part of said heating portion; wherein when said heater is cut by a section passing center axes (2,3) of said lead portions, said projection is disposed inside said heating portion.
A method for signal processing performed by a mobile device comprising: Initiating, by a processor of the mobile device, a timer for a time period when a mobile device transitions to idle mode; monitoring, by the processor, a signal quality metric associated with a received wireless signal; determining, by the processor, that the signal quality metric exceeds a threshold quality level for the time period; the threshold quality level comprising a first threshold quality level when a mobile device is in an idle mode, and a second threshold quality level, of higher quality than the first threshold quality level, when the mobile device is in a connected mode; and de-activating a subset of signal processing functionality responsive to the determination. Initiating, by a processor of the mobile device, a timer for a time period when a mobile device transitions to idle mode; monitoring, by the processor, a signal quality metric associated with a received wireless signal; determining, by the processor, that the signal quality metric exceeds a threshold quality level for the time period; the threshold quality level comprising a first threshold quality level when a mobile device is in an idle mode, and a second threshold quality level, of higher quality than the first threshold quality level, when the mobile device is in a connected mode; and de-activating a subset of signal processing functionality responsive to the determination.
Agricultural crop carriage having a loading space, an unloading conveyor for unloading crop from the loading space, as well as a width-distribution device for influencing the width of the crop mat to be unloaded, wherein said width distribution device during the unloading operation has variably adjustable active distribution means (21, 52) including at least one transverse conveyor provided on a lower end portion of an unloading flap of the crop carriage und/or on an end portion of a loading space floor in the area of the unloading opening of the loading space and which is configured adjustably in its transverse conveying speed, characterized by an unloading control device which is configured for the automated control of relevant width-distribution parameters of the width distribution device including at least the transverse conveying speed of the transverse conveyor depending on a pre-selectable target value for the width of the crop mat to be unloaded.
Packing made from a stack of leaves (1, 2) having been shaped to form corrugations in the leaf and assembled to form a pack of packing for a mass and/or heat transfer application, the material of the packing leaves being a metal foam, characterized in that the leaves are assembled to form a cross-corrugated pack of packing, the material of the packing leaves is an open-pore metal foam, in that the specific surface area of the packing is greater than 500 m 2 /m 3, and in that the thickness (e) of the leaf is less than 2 mm before the shaping operation.
A computer-implemented method for detecting the presence of a test pad on a test strip, the method comprising: receiving a test strip having at least one test pad, each test pad having a pad width with ink disposed on two ink zones at two opposing sides of the width of the pad; illuminating the at least one test pad with a light source; detecting reflected signals from the test pad; generating a color image comprising of pixels of the two ink zones based on the reflected signals; detecting the presence of each of the ink zones within the image by comparing the number of consecutive pixels corresponding to each ink zone against a predetermined threshold, wherein the consecutive pixels are pixels having similar or same color characteristics; and determining the presence of the test pad on the test strip if two ink zones are detected within the pad width. receiving a test strip having at least one test pad, each test pad having a pad width with ink disposed on two ink zones at two opposing sides of the width of the pad; illuminating the at least one test pad with a light source; detecting reflected signals from the test pad; generating a color image comprising of pixels of the two ink zones based on the reflected signals; detecting the presence of each of the ink zones within the image by comparing the number of consecutive pixels corresponding to each ink zone against a predetermined threshold, wherein the consecutive pixels are pixels having similar or same color characteristics; and determining the presence of the test pad on the test strip if two ink zones are detected within the pad width.
A preparation method of PCI-32765 crystalline Form A comprising the following 2 theta values measured using CuKα radiation: 5.2°±0.2°, 17.6°±0.2°, 22.1°±0.2°, 19.3°±0.2°, 22.4°±0.2°, and 20.8°±0.2°, wherein PCI-32765 is 1-[ -3-[4-amino-3-(4-phenoxyphenyl)-IH-pyrazolo[3,4-D]pyrimidin-1-yl]-1-piperidi nyl]-2-propen-1-one, the preparation method comprises the following steps: 1) Preparing a PCI-32765 free base solution by dissolving the free base solid of PCI-32765 in a solvent, the solvent being methanol or a mixed solvent containing methanol; 2) Adding dropwise the solution prepared by step 1) into an anti-solvent, the anti-solvent being pure water, then stirring at a temperature of 0∼20 °C and adding seed crystals of PCI-32765 Form A; Or adding dropwise the solution prepared by step 1) into a suspension containing seed crystals of PCI-32765 Form A at a temperature of 0∼20 °C; 3) Continuously stirring the solution obtained by step 2) and aging the solution until crystal transformation is completed, then a crystal slurry is obtained; 4) Filtering the crystal slurry of step 3) to obtain a filter cake, then washing and drying the filter cake to obtain a powder of PCI-32765 Form A. 1) Preparing a PCI-32765 free base solution by dissolving the free base solid of PCI-32765 in a solvent, the solvent being methanol or a mixed solvent containing methanol; 2) Adding dropwise the solution prepared by step 1) into an anti-solvent, the anti-solvent being pure water, then stirring at a temperature of 0∼20 °C and adding seed crystals of PCI-32765 Form A; Or adding dropwise the solution prepared by step 1) into a suspension containing seed crystals of PCI-32765 Form A at a temperature of 0∼20 °C; 3) Continuously stirring the solution obtained by step 2) and aging the solution until crystal transformation is completed, then a crystal slurry is obtained; 4) Filtering the crystal slurry of step 3) to obtain a filter cake, then washing and drying the filter cake to obtain a powder of PCI-32765 Form A.
A system for a turbine engine, comprising: a rotating assembly; a bearing configured with the rotating assembly; and a lubrication system configured to lubricate the bearing, the lubrication system comprising a lubricant pump and a lubricant reservoir; wherein the lubricant pump is mechanically coupled with and driven by the rotating assembly, and wherein the lubricant pump is configured with the lubricant reservoir so as to be at least partially submersed in lubricant contained within the lubricant reservoir, wherein the rotating assembly includes a fan rotor, a compressor rotor (29, 30) and a turbine rotor (31, 32), characterised in that the lubrication system is configured to lubricate the bearing as the rotating assembly rotates in a first rotational direction and a second rotational direction; and the lubrication system further includes a clutch configured to: mechanically couple the lubricant pump to the rotating assembly where the rotating assembly rotates at or below a threshold rotational velocity; and mechanically decouple the lubricant pump from the rotating assembly where the rotating assembly rotates above the threshold rotational velocity. a rotating assembly; a bearing configured with the rotating assembly; and a lubrication system configured to lubricate the bearing, the lubrication system comprising a lubricant pump and a lubricant reservoir; wherein the lubricant pump is mechanically coupled with and driven by the rotating assembly, and wherein the lubricant pump is configured with the lubricant reservoir so as to be at least partially submersed in lubricant contained within the lubricant reservoir, wherein the rotating assembly includes a fan rotor, a compressor rotor (29, 30) and a turbine rotor (31, 32), characterised in that the lubrication system is configured to lubricate the bearing as the rotating assembly rotates in a first rotational direction and a second rotational direction; and the lubrication system further includes a clutch configured to: mechanically couple the lubricant pump to the rotating assembly where the rotating assembly rotates at or below a threshold rotational velocity; and mechanically decouple the lubricant pump from the rotating assembly where the rotating assembly rotates above the threshold rotational velocity. mechanically couple the lubricant pump to the rotating assembly where the rotating assembly rotates at or below a threshold rotational velocity; and mechanically decouple the lubricant pump from the rotating assembly where the rotating assembly rotates above the threshold rotational velocity.
A connection detection apparatus, comprising: an acquisition unit configured to acquire a setting relating to a connection mode of a speaker to be connected to a sound processing apparatus, the connection mode including a position of the speaker; a detection unit configured to detect: an actual connection mode of a channel and the speaker actually connected to the sound processing apparatus, and a position of the speaker as part of the actual connection mode by outputting an audio signal of a test sound to the speaker and picking up the test sound by using a plurality of microphones (107, 107A, 107X, 107Y); and a determination unit configured to determine a difference between the actual connection mode detected by the detection unit and the connection mode indicated by the setting acquired by the acquisition unit, wherein the connection mode comprises a mode of a connection between the sound processing apparatus and the speaker. an acquisition unit configured to acquire a setting relating to a connection mode of a speaker to be connected to a sound processing apparatus, the connection mode including a position of the speaker; a detection unit configured to detect: an actual connection mode of a channel and the speaker actually connected to the sound processing apparatus, and a position of the speaker as part of the actual connection mode an actual connection mode of a channel and the speaker actually connected to the sound processing apparatus, and a position of the speaker as part of the actual connection mode by outputting an audio signal of a test sound to the speaker and picking up the test sound by using a plurality of microphones (107, 107A, 107X, 107Y); and a determination unit configured to determine a difference between the actual connection mode detected by the detection unit and the connection mode indicated by the setting acquired by the acquisition unit, wherein the connection mode comprises a mode of a connection between the sound processing apparatus and the speaker.
Sanding assembly comprising a sanding device comprising a plate for supporting a sanding disk and motor-driven means suitable for moving the supporting plate, characterised by the fact that the supporting plate comprises two notches (114, 116) distributed angularly along the periphery thereof, a first notch for engaging with a positioning module and a second notch for engaging with a pulling jaw and a module for verifying the presence of the sanding disk, and characterised in that the assembly comprises 6 sub-assemblies: a system for indexing the plate, a lift system for pulling, a system for pulling the disk, a system for verifying the presence of a disc, a system of a magazine of new disks, a lift system for the magazine of new disks.
A vacuum cleaner comprising: a housing; a motor fan assembly mounted in the housing, the motor fan assembly arranged to generate an air flow; a removable dirt container mountable on the housing and in fluid communication with a dirty air inlet and the motor fan assembly; and a moveable dirt compactor mounted in the dirt container and moveable between a stowed position and a dirt compacting position wherein the moveable dirt compactor is closer to one end of the dirt container in the dirt compacting position than in the stowed position; wherein the dirt container comprises a primary handle for actuating the moveable dirt compactor with a first hand and a first auxiliary handle for allowing the user to grip with a second hand, characterised in that the primary handle is moveably mounted on a front surface of the dirt container. a housing; a motor fan assembly mounted in the housing, the motor fan assembly arranged to generate an air flow; a removable dirt container mountable on the housing and in fluid communication with a dirty air inlet and the motor fan assembly; and a moveable dirt compactor mounted in the dirt container and moveable between a stowed position and a dirt compacting position wherein the moveable dirt compactor is closer to one end of the dirt container in the dirt compacting position than in the stowed position; wherein the dirt container comprises a primary handle for actuating the moveable dirt compactor with a first hand and a first auxiliary handle for allowing the user to grip with a second hand, characterised in that the primary handle is moveably mounted on a front surface of the dirt container.
A method for determining the shell phenotype of an E. oleifera or E. guineensis palm plant or seed, the method comprising, providing a sample from the plant or seed; and determining from the sample the genotype of at least one polymorphic marker, characterized in that: the genotype of at least one polymorphic marker is in the genomic region corresponding to SEQ ID NO: 8219; or the at least one polymorphic marker is selected from the group consisting of the polymorphisms corresponding to SEQ ID NOs: 922 - 2194; and wherein heterozygosity within the region indicates the presence of the tenera shell phenotype. the genotype of at least one polymorphic marker is in the genomic region corresponding to SEQ ID NO: 8219; or the at least one polymorphic marker is selected from the group consisting of the polymorphisms corresponding to SEQ ID NOs: 922 - 2194; and wherein heterozygosity within the region indicates the presence of the tenera shell phenotype.
An anti-bacterial preparation comprising a solid component comprising a lithium compound and a calcium compound, wherein the solid component is a powder component, a block, or granules or pieces obtained by breaking up said block, wherein when the solid component is the powder component, the calcium compound is selected from the group consisting of a calcium phosphate, calcium sulfate, calcium oxide, calcium carbonate, calcium hydroxide, calcium magnesium phosphate, calcium nitrate, calcium citrate, calcium chloride and a mixture thereof; and when the solid component is the block, or the granules or pieces obtained by breaking up said block, the calcium compound is selected from the group consisting of calcium phosphate, calcium sulfate, calcium oxide, calcium carbonate, calcium hydroxide, calcium magnesium phosphate, hydroxyapatite, and a mixture thereof.
A grasping system for placing an insert sheet between rows of folding boxes in a receptacle, the grasping system comprising a grasping head configured to grasp and pick up the insert sheet from a loading location, displace and position the insert sheet on a depositing surface (13, 14) in the receptacle, the grasping head having a support frame and a plurality of gripping elements (17, 18), configured to adhere to the upper surface of the insert sheet, the gripping elements being connected to the support frame via a plurality of holding elements, which are movably mounted to the support frame, and wherein the holding elements and the gripping elements are movable in the vertical direction in relation to the support frame when the gripping elements contact the insert sheet or the depositing surface (13, 14) in the receptacle, and wherein the grasping system further comprises a control unit and sensing arrangement, the sensing arrangement being configured to sense a vertical displacement of the holding elements with respect to the support frame, and wherein the control unit is configured to receive information from the sensing arrangement and determine when the grasping head is brought into contact with an insert sheet or a depositing surface. the grasping head having a support frame and a plurality of gripping elements (17, 18), configured to adhere to the upper surface of the insert sheet, the gripping elements being connected to the support frame via a plurality of holding elements, which are movably mounted to the support frame, and wherein the holding elements and the gripping elements are movable in the vertical direction in relation to the support frame when the gripping elements contact the insert sheet or the depositing surface (13, 14) in the receptacle, and wherein the grasping system further comprises a control unit and sensing arrangement, the sensing arrangement being configured to sense a vertical displacement of the holding elements with respect to the support frame, and wherein the control unit is configured to receive information from the sensing arrangement and determine when the grasping head is brought into contact with an insert sheet or a depositing surface.
A tool, intended for a friction stir welding station, the tool being capable of being rotated and comprising: - a body, defining a transverse surface, forming a shoulder; - a pin, extending, from the shoulder, along a longitudinal axis, to an end, the pin becoming slimmer between the shoulder and the end, the distance between the end and the shoulder corresponding to a height of the pin (h); the pin including: - a proximal portion, adjacent to the shoulder and extending, from the shoulder, to the end, over at least 20% of the height of the pin (h); - a distal portion, adjacent to the end and extending, from the end, to the shoulder, over at least 1% of the height of the pin (h), the distal portion being inscribed in a cone frustum, the cone frustum defining a surface, called the extension surface, extending the cone frustum to the shoulder, the extension surface delimiting a frustoconical volume; - in the proximal portion, the pin extends to the outside of the frustoconical volume delimited by the extension surface, the pin describes an outer surface inscribed in an envelope describing, in a plane parallel to the longitudinal axis and passing through the latter, characterised in that - in the proximal portion, a profile following a curve and such that the curve is tangent to the extension surface - and the transverse surface is flat or curved in shape relative to a transverse plane and the curve is a portion of an ellipse or a hyperbola or a parabola. - a body, defining a transverse surface, forming a shoulder; - a pin, extending, from the shoulder, along a longitudinal axis, to an end, the pin becoming slimmer between the shoulder and the end, the distance between the end and the shoulder corresponding to a height of the pin (h); - a proximal portion, adjacent to the shoulder and extending, from the shoulder, to the end, over at least 20% of the height of the pin (h); - a distal portion, adjacent to the end and extending, from the end, to the shoulder, over at least 1% of the height of the pin (h), the distal portion being inscribed in a cone frustum, the cone frustum defining a surface, called the extension surface, extending the cone frustum to the shoulder, the extension surface delimiting a frustoconical volume; - in the proximal portion, the pin extends to the outside of the frustoconical volume delimited by the extension surface, the pin describes an outer surface inscribed in an envelope describing, in a plane parallel to the longitudinal axis and passing through the latter, - in the proximal portion, a profile following a curve and such that the curve is tangent to the extension surface - and the transverse surface is flat or curved in shape relative to a transverse plane and the curve is a portion of an ellipse or a hyperbola or a parabola.