mhurhangee/ep-ind-claims huggingface dataset:
An aerosol container having a longitudinal axis and comprising: an outer container comprising a closed end bottom and an open neck longitudinally opposed thereto, said open neck having a normally closed valve joined to said outer container in fluid tight relationship, said valve having a valve stem projecting upwardly to a valve stem distal end, a product delivery device (55, 56) joined to at least one of said valve and said outer container in fluid tight relationship, and a sheath extending upwardly to a sheath distal end, wherein said sheath projects upwardly from a sheath proximal end joined to said valve, characterized by said distal end of said sheath being at or above said valve stem distal end when said valve is in a closed rest position. an outer container comprising a closed end bottom and an open neck longitudinally opposed thereto, said open neck having a normally closed valve joined to said outer container in fluid tight relationship, said valve having a valve stem projecting upwardly to a valve stem distal end, a product delivery device (55, 56) joined to at least one of said valve and said outer container in fluid tight relationship, and a sheath extending upwardly to a sheath distal end, wherein said sheath projects upwardly from a sheath proximal end joined to said valve, characterized by said distal end of said sheath being at or above said valve stem distal end when said valve is in a closed rest position.
A method for forming porous fibers, the method comprising: supplying a bundle of fibers to a drawing system that includes at least one draw bar in contact with a fluidic medium having a temperature that is lower than the melting temperature of a matrix polymer, wherein at least a portion of the fibers are formed from a thermoplastic composition containing a continuous phase that includes the matrix polymer and a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains; and traversing the bundle of fibers over the draw bar, thereby forming a porous network in the fibers that includes a plurality of nanopores, optionally having an average cross-sectional dimension of about 800 nanometers or less; wherein the draw bar is submerged within the fluidic medium; and wherein the draw bar is provided with at least one groove that is oriented in a direction generally parallel with a longitudinal direction of the fiber bundle. supplying a bundle of fibers to a drawing system that includes at least one draw bar in contact with a fluidic medium having a temperature that is lower than the melting temperature of a matrix polymer, wherein at least a portion of the fibers are formed from a thermoplastic composition containing a continuous phase that includes the matrix polymer and a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains; and traversing the bundle of fibers over the draw bar, thereby forming a porous network in the fibers that includes a plurality of nanopores, optionally having an average cross-sectional dimension of about 800 nanometers or less; wherein the draw bar is submerged within the fluidic medium; and wherein the draw bar is provided with at least one groove that is oriented in a direction generally parallel with a longitudinal direction of the fiber bundle.
A method capable of producing frequency-modulation halftone dots in high speed, characterized in that the method comprises: a) organizing error rows in columns of an error row memory so that elements of the error rows for pixels having the same column number are arranged adjacently in the same row of the error row memory, and initializing the error row memory; b) setting an error buffer register file to store error distribution values and accumulated error values; c) obtaining a current source pixel having a source pixel value; d) reading synchronously accumulated error values corresponding to a position of the current source pixel and the position in a next row and a same column out from the error row memory; calculating a sum S of error values of the current source pixel, which come from distribution of errors generated by all of preceding pixels in the same row, in light of the error buffer register file; and obtaining a final value of the pixel by adding an original accumulated error value of the position corresponding to a current pixel, the S and the value of the current source pixel together and producing a final halftone dot by comparing the final value with a threshold; e) calculating error distribution values from the current source pixel and updating the error rows and the error buffer register file by using the calculated error distribution values from the current source pixel; f) repeating the steps (c), (d) and (e) until a current row is processed completely; and g) repeating the steps (b), (c), (d), (e) and (f) until an image is processed completely. a) organizing error rows in columns of an error row memory so that elements of the error rows for pixels having the same column number are arranged adjacently in the same row of the error row memory, and initializing the error row memory; b) setting an error buffer register file to store error distribution values and accumulated error values; c) obtaining a current source pixel having a source pixel value; d) reading synchronously accumulated error values corresponding to a position of the current source pixel and the position in a next row and a same column out from the error row memory; calculating a sum S of error values of the current source pixel, which come from distribution of errors generated by all of preceding pixels in the same row, in light of the error buffer register file; and obtaining a final value of the pixel by adding an original accumulated error value of the position corresponding to a current pixel, the S and the value of the current source pixel together and producing a final halftone dot by comparing the final value with a threshold; e) calculating error distribution values from the current source pixel and updating the error rows and the error buffer register file by using the calculated error distribution values from the current source pixel; f) repeating the steps (c), (d) and (e) until a current row is processed completely; and g) repeating the steps (b), (c), (d), (e) and (f) until an image is processed completely.
A thread or textile surface comprising fibres, wherein the fibres comprise a polymer composition containing a polymer and at least one agent selected from the group consisting of petrolatum, an oil or a fat, wherein the oil or the fat contains at least 25 wt% oleic acid, a non-saponifiable lipid from an oil, wherein the oil contains at least 25 wt% oleic acid, and mixtures thereof, characterized in that the polymer composition contains another agent selected from the group consisting of dicaprylyl carbonate, cetyl isononanoate, cetearyl isononanoate, isopropyl isostearate, isostearyl isostearate, isopropyl palmitate, and mixtures thereof.
A crystalline polymorph of anhydrous sodium 4-[(4-chloro-2-hydroxybenzoyl)-amino]butanoate of Form I exhibiting an X-ray powder diffraction pattern having peaks in degrees 2Θ ± 0.2° 2Θ at 5.2, 11.2, 15.7, 18.5, 20.1, 21.8, 23.4, 23.8, 26.9 and 29.8.
A method for manufacturing a supercharger compressor housing, comprising steps of: heating a heating target region locally, the heating target region being a circumferentially continuous region of a ring-shaped abradable seal, through use of a local heating apparatus configured to selectively heat the heating target region; and mounting and fixing the abradable seal onto a mounting and fixing surface of a compressor housing main body portion, wherein, on mounting and fixing, the heating target region having been heated locally is inserted into a groove portion formed in the mounting and fixing surface while being deformed; and wherein the heating target region is in the form of a projecting portion; the method characterized in that: the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing, and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp. heating a heating target region locally, the heating target region being a circumferentially continuous region of a ring-shaped abradable seal, through use of a local heating apparatus configured to selectively heat the heating target region; and mounting and fixing the abradable seal onto a mounting and fixing surface of a compressor housing main body portion, wherein, on mounting and fixing, the heating target region having been heated locally is inserted into a groove portion formed in the mounting and fixing surface while being deformed; and wherein the heating target region is in the form of a projecting portion; the method characterized in that: the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing, and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp. the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing, and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp.
A method, performed by a user equipment, UE,, comprising: receiving, in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals, the first subset corresponding to a first frequency or first localized range of frequencies; and performing radio link monitoring, RLM, using a second subset of the received beam-formed reference signals, the second subset at least partly differing from the first subset and including beam-formed reference signals corresponding to a second frequency or second localized range of frequencies, the second frequency or second localized range of frequencies being spaced apart from and differing from the first frequency or first localized range of frequencies. receiving, in a downlink signal having a series of subframes, a beam-formed reference signal in each of a plurality of subframes, wherein the beam-formed reference signals are received in fewer than all of the subframes of the downlink signal; performing mobility management measurements using at least a first subset of the received beam-formed reference signals, the first subset corresponding to a first frequency or first localized range of frequencies; and performing radio link monitoring, RLM, using a second subset of the received beam-formed reference signals, the second subset at least partly differing from the first subset and including beam-formed reference signals corresponding to a second frequency or second localized range of frequencies, the second frequency or second localized range of frequencies being spaced apart from and differing from the first frequency or first localized range of frequencies.
A method of operating a client device in a Push-to-talk network, the method comprising: monitoring, by the client device, radio conditions of the PTT network; generating a radio condition parameter by the client device, wherein the radio condition parameter is a Reference Signal Received Quality (RSRQ) of the PTT network; calculating, by the client device, an estimate of Channel Quality Indicator wherein the calculating comprises calculating the estimate of CQI using a linear equation CQI e = m + n × RSRQ, wherein CQI e is the estimate of CQI, and m and n are coefficients of the linear equation, wherein m and n are updated by the PTT network when the client device enters a new area; and determining, by the client device, a first Modulation and Coding Scheme in accordance with the estimate of CQI, wherein the determining the first MCS comprises: comparing the estimate of CQI with a pre-determined set of ranges for CQI, wherein the each of the pre-determined set of ranges corresponds to a pre-determined MCS; identifying, among the pre-determined set of ranges, a first range to which the estimate of CQI belongs; and returning the pre-determined MCS corresponding to the first range as the first MCS; wherein mapping between CQI and MCS is given by: CQI MCS Range 1 m1 Range 2 m2 Range 3 m3 monitoring, by the client device, radio conditions of the PTT network; generating a radio condition parameter by the client device, wherein the radio condition parameter is a Reference Signal Received Quality (RSRQ) of the PTT network; calculating, by the client device, an estimate of Channel Quality Indicator wherein the calculating comprises calculating the estimate of CQI using a linear equation CQI e = m + n × RSRQ, wherein CQI e is the estimate of CQI, and m and n are coefficients of the linear equation, wherein m and n are updated by the PTT network when the client device enters a new area; and determining, by the client device, a first Modulation and Coding Scheme in accordance with the estimate of CQI, wherein the determining the first MCS comprises: comparing the estimate of CQI with a pre-determined set of ranges for CQI, wherein the each of the pre-determined set of ranges corresponds to a pre-determined MCS; identifying, among the pre-determined set of ranges, a first range to which the estimate of CQI belongs; and returning the pre-determined MCS corresponding to the first range as the first MCS; wherein mapping between CQI and MCS is given by: CQI MCS Range 1 m1 Range 2 m2 Range 3 m3 comparing the estimate of CQI with a pre-determined set of ranges for CQI, wherein the each of the pre-determined set of ranges corresponds to a pre-determined MCS; identifying, among the pre-determined set of ranges, a first range to which the estimate of CQI belongs; and returning the pre-determined MCS corresponding to the first range as the first MCS; wherein mapping between CQI and MCS is given by: CQI MCS Range 1 m1 Range 2 m2 Range 3 m3
A DNA marker that is linked to a monogenic and semi-dominant Albugo candida resistance locus on chromosome 2 in Brassica oleracea and can be identified in a PCR reaction by amplification of a DNA fragment with a pair of PCR oligonucleotide primers represented by a forward primer of SEQ ID N°1 and a reverse primer of SEQ ID N°2, said DNA fragment comprises at least one SNP marker selected within the group comprising: i. a SNP A represented by a T to C nucleotide exchange at position 134 in the PCR amplified product, ii. a SNP B represented by a C to T nucleotide exchange at position 108 in the PCR amplified product, iii. a SNP C represented by a T to C nucleotide exchange at position 366 in the PCR amplified product. i. a SNP A represented by a T to C nucleotide exchange at position 134 in the PCR amplified product, ii. a SNP B represented by a C to T nucleotide exchange at position 108 in the PCR amplified product, iii. a SNP C represented by a T to C nucleotide exchange at position 366 in the PCR amplified product.
A method of producing a high-purity copper-manganese-alloy sputtering target comprising 0.05 to 20 wt.% of Mn, 2 wt ppm or less of C, the remainder being Cu and inevitable impurities including Si and Mg, wherein the copper has a purity of 99.9999 wt% or more and the manganese has a purity of 99.999 wt% or more; or the copper has a purity of 99.9999 wt% or more and is melted in advance and the manganese has a purity of 99.99 wt% or more and is added to the molten copper, comprising: melting copper and manganese in a carbon crucible at 1000°C to 1400°C for 10 to 30 minutes to form a copper-manganese-alloy; casting the alloy to form an ingot; hot-forging the ingot at 500°C to 900°C; then cold-rolling the ingot and/or hot-rolling the ingot at 500°C to 900°C to provide a rolled sheet; and then heat-treating the cold rolled sheet at 300°C to 600°C or heat-treating the hot rolled sheet at 500°C to 800°C; bonding to a backing plate; and finishing processing to obtain the target. melting copper and manganese in a carbon crucible at 1000°C to 1400°C for 10 to 30 minutes to form a copper-manganese-alloy; casting the alloy to form an ingot; hot-forging the ingot at 500°C to 900°C; then cold-rolling the ingot and/or hot-rolling the ingot at 500°C to 900°C to provide a rolled sheet; and then heat-treating the cold rolled sheet at 300°C to 600°C or heat-treating the hot rolled sheet at 500°C to 800°C; bonding to a backing plate; and finishing processing to obtain the target.
A composition comprising methylsulfonylmethane, at least one extract of a plant belonging to the genus Salvia, and an extract of Mangifera indica (mango), for use in the prevention and/or therapeutic treatment of osteoarthritis.
(Meth)acrylate-based reactive resin, characterized in that the reactive resin has the following ingredients: a) 0.5% to 30% by weight of crosslinker(s), b) 5% to 99.5% by weight of an ester of (meth)acrylic acid with an alcohol having a cyclic radical containing at least two oxygen atoms, c) 0% to 90% by weight of other (meth)acrylates and/or components copolymerizable with (meth)acrylates, d) 0% to 5% by weight of accelerator or initiator and optionally other auxiliaries. a) 0.5% to 30% by weight of crosslinker(s), b) 5% to 99.5% by weight of an ester of (meth)acrylic acid with an alcohol having a cyclic radical containing at least two oxygen atoms, c) 0% to 90% by weight of other (meth)acrylates and/or components copolymerizable with (meth)acrylates, d) 0% to 5% by weight of accelerator or initiator and
A botulinum neurotoxin, wherein the botulinum neurotoxin comprises a variant of SEQ ID NO:1 wherein said variant is characterized by a dual thrombin cleavage site in SEQ ID NO:1, namely a first thrombin cleavage site, wherein the amino acids VPRGS have been inserted after the amino acid L at position 881 of SEQ ID NO: 1, and the cleavage site thus consists of SEQ ID NO:114 and a second thrombin cleavage site wherein the amino acids VPRG have been inserted after the L at position 891 of SEQ ID NO:1, wherein the variant has botulinum neurotoxin activity.
Method of producing sinoatrial node cells from stem cells, especially pluripotent stem cells, in which a nucleic acid is introduced into stem cells, as a result of which these express a TBX3 transcription factor, or a TBX3 protein is introduced into the stem cells, characterized in that a construct for expression of an antibiotic resistance gene which is controlled by an alpha-MHC promoter is additionally introduced and the resulting stem cells are differentiated in the presence of the antibiotic.
Ratchet tightener for tensioning chains, straps and suchlike, comprising two end pieces (3, 4) between which a threaded spindle screwed thereto is arranged, wherein, - the axial distance between the end pieces (3, 4) is adjustable through turning the threaded spindle by means of a rachet, wherein, in addition - at both ends of the threaded spindle opposite threaded sections (5, 6) are provided, one configured as a right-hand thread and the other as a left-hand thread, wherein, still further - threaded rods (7, 8) of the end pieces (3, 4) are borne in the threaded sections (5, 6) and wherein - the one, first, threaded rod is designed as a tube into which the other, second, threaded rod can be inserted, characterised in that - as an end stop, at the end of the second threaded rod a circlip is applied which is greater in diameter than the thread diameter of the appurtenant threaded section. - the axial distance between the end pieces (3, 4) is adjustable through turning the threaded spindle by means of a rachet, wherein, in addition - at both ends of the threaded spindle opposite threaded sections (5, 6) are provided, one configured as a right-hand thread and the other as a left-hand thread, wherein, still further - threaded rods (7, 8) of the end pieces (3, 4) are borne in the threaded sections (5, 6) and wherein - the one, first, threaded rod is designed as a tube into which the other, second, threaded rod can be inserted, characterised in that - as an end stop, at the end of the second threaded rod a circlip is applied which is greater in diameter than the thread diameter of the appurtenant threaded section.
Gripping device for use with a robot, wherein the gripping device comprises a basic body which is fastenable to the robot, wherein at least two gripping jaws are provided, wherein at least one gripping jaw is movable relative to the basic body such that a workpiece can be gripped with the at least two gripping jaws, wherein the gripping device comprises a process device, wherein the process device is linearly movable relative to the basic body between a first and a second end position (21; 22), characterized in that, in the first end position, the process device at least partially surrounds the gripped workpiece, wherein, in the second end position, the process device is arranged away from the gripped workpiece in such a manner that the workpiece can be gripped by a substrate or can be deposited on the substrate, wherein the process device is designed to process the gripped workpiece while the gripping device is moved together with the workpiece by the robot. wherein the gripping device comprises a process device, wherein the process device is linearly movable relative to the basic body between a first and a second end position (21; 22), characterized in that, in the first end position, the process device at least partially surrounds the gripped workpiece, wherein, in the second end position, the process device is arranged away from the gripped workpiece in such a manner that the workpiece can be gripped by a substrate or can be deposited on the substrate, wherein the process device is designed to process the gripped workpiece while the gripping device is moved together with the workpiece by the robot.