mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: acquiring, by a vibro-acoustic sensor, in a vicinity of a machine, vibro-acoustic signals due to an operation of the machine; analyzing the acquired vibro-acoustic signals so as to estimate at least two operational parameters of the machine, one operational parameter being a production quality factor of the machine, and at least one further operational parameter J Z selected from a group of the operational parameters consisting of an uptime factor and a production speed factor, wherein estimating the production quality factor comprises: comparing a vibro-acoustic signature of a production step against a baseline of prerecorded vibro-acoustic signatures for that step; classifying machine production quality at each compared step as being high or low based on a confidence level derived from the baseline of prerecorded vibro-acoustic signatures; and counting production events having a vibro-acoustic signature indicative of a low-quality production step; and computing an overall equipment effectiveness, OEE, of the machine comprising at least one of a minimum and a product of the at least two estimated operational parameters. comparing a vibro-acoustic signature of a production step against a baseline of prerecorded vibro-acoustic signatures for that step; classifying machine production quality at each compared step as being high or low based on a confidence level derived from the baseline of prerecorded vibro-acoustic signatures; and counting production events having a vibro-acoustic signature indicative of a low-quality production step; and computing an overall equipment effectiveness, OEE, of the machine comprising at least one of a minimum and a product of the at least two estimated operational parameters.
A catheter assembly comprising: an expandable and collapsible structure having an outer surface, the expandable and collapsible structure being adapted to expand between a contracted state and a dilated state; a coating disposed on the outer surface of the expandable and collapsible structure, the coating including a bioactive agent; and a sleeve disposed over the coating, the sleeve being adapted to expand between a compressed state and an enlarged state and to return to the compressed state, the sleeve defining a plurality of openings in the compressed state; wherein an outer diameter of the coating is less than an outer diameter of the sleeve when the expandable and collapsible structure is in the contracted state and greater than the outer diameter of the sleeve when the expandable and collapsible structure is in the dilated state. an expandable and collapsible structure having an outer surface, the expandable and collapsible structure being adapted to expand between a contracted state and a dilated state; a coating disposed on the outer surface of the expandable and collapsible structure, the coating including a bioactive agent; and a sleeve disposed over the coating, the sleeve being adapted to expand between a compressed state and an enlarged state and to return to the compressed state, the sleeve defining a plurality of openings in the compressed state; wherein an outer diameter of the coating is less than an outer diameter of the sleeve when the expandable and collapsible structure is in the contracted state and greater than the outer diameter of the sleeve when the expandable and collapsible structure is in the dilated state.
A fastener chain in which a continuous fastener element is attached to facing tape side edge portions (12, 32) of a pair of left and right woven fastener tapes (10,30), wherein: at least some of the warps (15,35) constituting the fastener tape (10, 30) comprise a flame-retardant phosphorus-copolymerized polyester fiber (17, 37), and characterized in that the wefts (16, 36) constituting the fastener tape (10, 30) comprise synthetic resin (18, 38) having a higher tensile strength than the flame-retardant polyester fiber (17,37), which is not phosphorus copolymerized, and the warps (15, 35) comprise the flame-retardant phosphorus-copolymerized polyester fiber (17, 37) at a content ratio to the fastener tape of 25% or more. wherein: at least some of warps (15, 35) constituting the fastener tape (10, 30) comprise a flame retardant phosphorus-copolymerized polyester fiber (17, 37), and characterized in that wefts (16, 36) constituting the fastener tape (10, 30) comprise a synthetic resin (18, 38) having a higher tensile strength than the flame retardant polyester fiber (17, 37), which is not phosphorus-copolymerized, and the warps (15, 35) comprise the flame retardant phosphorus-copolymerized polyester fiber (17, 37) at a content ratio to the fastener tape of 25% or more.
A method of performing preconfigured uplink resource, PUR, transmission using a PUR by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, PUR configuration information for the PUR transmission in a Radio Resource Control, RRC, connected state; and performing the PUR transmission to the base station based on the PUR configuration information in an RRC idle state; wherein the PUR configuration information includes channel information for transmitting an acknowledgement, ACK, or negative-acknowledgement, NACK, in response to a downlink feedback. receiving, from a base station, PUR configuration information for the PUR transmission in a Radio Resource Control, RRC, connected state; and performing the PUR transmission to the base station based on the PUR configuration information in an RRC idle state; wherein the PUR configuration information includes channel information for transmitting an acknowledgement, ACK, or negative-acknowledgement, NACK, in response to a downlink feedback.
A method for reporting channel quality information in a communication system comprising the following steps performed by a transmitting entity: determining channel quality values for a channel to a receiving entity, each channel quality value corresponding to a frequency unit, partitioning the determined channel quality values, based on a number of partitions, into at least two partitions, the at least two partitions corresponding to different frequency bands in the system bandwidth, selecting channel quality values out of the channel quality values from each of the at least two partitions as signalling information on a channel quality, the signalling information including first channel quality values from a first of the partitions and second channel quality values from a second of the partitions, and transmitting, to the receiving entity the first channel quality values and the second channel quality values, as the signalling information on the channel quality, at different reporting frequencies such that the first channel quality values are sent less frequently than the second channel quality values, wherein the different reporting frequencies are based on the number of partitions. determining channel quality values for a channel to a receiving entity, each channel quality value corresponding to a frequency unit, partitioning the determined channel quality values, based on a number of partitions, into at least two partitions, the at least two partitions corresponding to different frequency bands in the system bandwidth, selecting channel quality values out of the channel quality values from each of the at least two partitions as signalling information on a channel quality, the signalling information including first channel quality values from a first of the partitions and second channel quality values from a second of the partitions, and transmitting, to the receiving entity the first channel quality values and the second channel quality values, as the signalling information on the channel quality, at different reporting frequencies such that the first channel quality values are sent less frequently than the second channel quality values, wherein the different reporting frequencies are based on the number of partitions.
A composition comprising (a) a first substance selected from the group consisting of a substantially pure culture, whole cell broth, cell fraction, and supernatant derived from Flavobacterium sp. H492 (NRRL Accession No. B-50584) fermentation, and (b) a carrier, diluent, surfactant or adjuvant. (a) a first substance selected from the group consisting of a substantially pure culture, whole cell broth, cell fraction, and supernatant derived from Flavobacterium sp. H492 (NRRL Accession No. B-50584) fermentation, and (b) a carrier, diluent, surfactant or adjuvant.
A method for capturing virus like particles of interest from a mixture comprising an extract of disrupted or homogenized cells of a plant; wherein said method comprises the steps of: (i) providing an expanded bed of adsorbent comprising a ligand; (ii) providing the mixture, which prior to contact with the adsorbent has a pH between pH 6.0 to pH 8.0; and (iii) loading the mixture onto the expanded bed of adsorbent to bind the virus like particles; (iv) optionally washing the adsorbent; and (v) eluting the virus like particles from the adsorbent, wherein the degree of expansion of the expanded bed is in the range of from 1 to 5, and wherein the extract is not pre-treated such that a virus like particle of interest can be isolated in a one step binding and elution process. (i) providing an expanded bed of adsorbent comprising a ligand; (ii) providing the mixture, which prior to contact with the adsorbent has a pH between pH 6.0 to pH 8.0; and (iii) loading the mixture onto the expanded bed of adsorbent to bind the virus like particles; (iv) optionally washing the adsorbent; and (v) eluting the virus like particles from the adsorbent,
A blast protection wall comprising - a sandwich wall panel comprising a first and second metal plate (10, 12); - a support structure (22, 24) comprising support posts, for supporting the sandwich wall panel; characterized in that - the sandwich wall panel comprises a layer of fibers between the first and second metal plate (10, 12), the layer of fibers interconnecting the first and second metal plate (10,12); the blast protection wall further comprising a mechanically plastic baffle connected between the support structure (22, 24) and the sandwich wall panel. - a sandwich wall panel comprising a first and second metal plate (10, 12); - a support structure (22, 24) comprising support posts, for supporting the sandwich wall panel; - the sandwich wall panel comprises a layer of fibers between the first and second metal plate (10, 12), the layer of fibers interconnecting the first and second metal plate (10,12); the blast protection wall further comprising a mechanically plastic baffle connected between the support structure (22, 24) and the sandwich wall panel.
A mold-releasing agent comprising, as active ingredients: a graft copolymer in which a polyalkylene glycol or an alkyl ether thereof is graft-copolymerized with a polyfluoro-1-alkene represented by the general formula: C n F 2n+1 (CH 2 CF 2) a (CF 2 CF 2) b CH=CH 2 wherein n is an integer of 1 to 6, a is an integer of 1 to 4, and b is an integer of 1 to 3, and wherein the polyalkylene glycol or alkyl ether thereof is a polyethylene glycol, polypropylene glycol, polybutylene glycol, polyhexylene glycol or a monoalkyl or dialkyl ether thereof, having a number average molecular weight (Mn) of 200 to 4,000; and a polyfluoroalkylphosphonic acid represented by the general formula: C n F2 n+1 (CH 2 CF 2) a (CF 2 CF 2) b (CH 2 CH 2) c P 2 wherein n is an integer of 1 to 6, a is an integer of 1 to 4, and b is an integer of 1 to 3, and c is an integer of 1 to 3, or a salt thereof. a graft copolymer in which a polyalkylene glycol or an alkyl ether thereof is graft-copolymerized with a polyfluoro-1-alkene represented by the general formula: C n F 2n+1 (CH 2 CF 2) a (CF 2 CF 2) b CH=CH 2 wherein n is an integer of 1 to 6, a is an integer of 1 to 4, and b is an integer of 1 to 3, and wherein the polyalkylene glycol or alkyl ether thereof is a polyethylene glycol, polypropylene glycol, polybutylene glycol, polyhexylene glycol or a monoalkyl or dialkyl ether thereof, having a number average molecular weight (Mn) of 200 to 4,000; and a polyfluoroalkylphosphonic acid represented by the general formula: C n F2 n+1 (CH 2 CF 2) a (CF 2 CF 2) b (CH 2 CH 2) c P 2 wherein n is an integer of 1 to 6, a is an integer of 1 to 4, and b is an integer of 1 to 3, and c is an integer of 1 to 3, or a salt thereof.
A method of producing a biomatrix scaffold from a biological tissue selected from the group consisting of lung, thyroid, skin, pancreas, blood vessels, bladder, kidneys, brain, biliary tree, duodenum, abdominal aorta, iliac vein, heart and intestines, comprising: a) perfusing or homogenizing the biological tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the biological tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the biological tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the biological tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg, thereby producing an intact or homogenized biomatrix scaffold from the biological tissue, said biomatrix scaffold retaining at least 95% of its original collagens and most collagen-associated matrix components and matrix bound growth factors, hormones and cytokines of the biological tissue. a) perfusing or homogenizing the biological tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the biological tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the biological tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the biological tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg,
A dunnage conversion system comprising: a fastening mechanism for mechanically fastening a leading portion (142, 212) of a succeeding supply of stock material to a trailing portion (144, 214) of a preceding supply of stock material, and a conversion mechanism downstream of the fastening mechanism for converting the stock material into a relatively less dense dunnage product; characterised in that the fastening mechanism comprises a stapler for providing one or more staples that mechanically interlock the leading and trailing portions (142 and 144) and for applying the staples to the leading portion and the trailing portion to effect a connection therebetween. a fastening mechanism for mechanically fastening a leading portion (142, 212) of a succeeding supply of stock material to a trailing portion (144, 214) of a preceding supply of stock material, and a conversion mechanism downstream of the fastening mechanism for converting the stock material into a relatively less dense dunnage product; characterised in that the fastening mechanism comprises a stapler for providing one or more staples that mechanically interlock the leading and trailing portions (142 and 144) and for applying the staples to the leading portion and the trailing portion to effect a connection therebetween.
A method of making a semiconductor device having a closed cavity with a controlled atmosphere, comprising providing a semiconductor substrate; providing a template on a localized area of the substrate, the template defining the interior shape of said cavity and the shape of a channel (16; 91) extending laterally to a point displaced from the cavity; depositing a material film over the entire substrate; making at least one hole through the material film down to the template for the channel; performing selective etching through said at least one hole to remove the template whereby said cavity and said channel (16; 91) is provided; providing sealing material around the hole without blocking the hole; allowing an atmosphere comprising a selected gas at a controlled pressure to enter into the cavity through said hole; and subjecting the sealing material to selected conditions such that the material is caused to enter the hole so as to seal the cavity. providing a semiconductor substrate; providing a template on a localized area of the substrate, the template defining the interior shape of said cavity and the shape of a channel (16; 91) extending laterally to a point displaced from the cavity; depositing a material film over the entire substrate; making at least one hole through the material film down to the template for the channel; performing selective etching through said at least one hole to remove the template whereby said cavity and said channel (16; 91) is provided; providing sealing material around the hole without blocking the hole; allowing an atmosphere comprising a selected gas at a controlled pressure to enter into the cavity through said hole; and subjecting the sealing material to selected conditions such that the material is caused to enter the hole so as to seal the cavity.
A shell structured to be affixed to a container, the shell comprising: a center panel; a circumferential chuck wall; an annular countersink between the center panel and the circumferential chuck wall; a crown connected to, and extending about, the chuck wall; and a curl extending radially outwardly from the crown; the shell being characterized in that the material of at least one predetermined portion of the shell between the countersink and the crown is selectively stretched relative to at least one other portion of the shell, thereby providing a corresponding stretched and thinned portion. a center panel; a circumferential chuck wall; an annular countersink between the center panel and the circumferential chuck wall; a crown connected to, and extending about, the chuck wall; and a curl extending radially outwardly from the crown; the shell being characterized in that the material of at least one predetermined portion of the shell between the countersink and the crown is selectively stretched relative to at least one other portion of the shell, thereby providing a corresponding stretched and thinned portion.
A method for processing data for a user terminal for use in a wireless communication system, the method comprising: attaching a Coded Composite Transport Channel, CCTrCH, configuration header containing configuration data to data to be processed to provide CCTrCH data blocks for processing in a plurality of processing stages, wherein each processing stage comprises: interrogating the CCTrCH configuration header from the CCTrCH data block in order to obtain the configuration data for the processing stage, re-attaching the CCTrCH configuration header to output data from the processing stage to provide a CCTrCH data block, adding extra configuration data to the CCTrCH configuration header, passing the CCTrCH data block comprising the re-attached CCTrCH configuration header with extra configuration data added to a subsequent processing stage, and repeating the steps of interrogating, re-attaching and adding to the CCTrCH configuration header by the subsequent processing stage. attaching a Coded Composite Transport Channel, CCTrCH, configuration header containing configuration data to data to be processed to provide CCTrCH data blocks for processing in a plurality of processing stages, wherein each processing stage comprises: interrogating the CCTrCH configuration header from the CCTrCH data block in order to obtain the configuration data for the processing stage, re-attaching the CCTrCH configuration header to output data from the processing stage to provide a CCTrCH data block, adding extra configuration data to the CCTrCH configuration header, passing the CCTrCH data block comprising the re-attached CCTrCH configuration header with extra configuration data added to a subsequent processing stage, and repeating the steps of interrogating, re-attaching and adding to the CCTrCH configuration header by the subsequent processing stage.
A flame-retardant biaxially oriented polyester film, containing, based on the weight of the polyester film, 70 to 99.5% by weight of polyethylene terephthalate or polyethylene naphthalate, and 0.5 to 30% by weight of flame retardant particles having an average particle diameter of 0.5 to 3.0 μm and being represented by the following formula or formula: wherein each of R 1 and R 2 represents hydrogen, an alkyl group having 1 to 6 carbon atoms and/or an aryl group, M represents a metal, and m represents a valence of M, wherein each of R 3 and R 4 represents hydrogen, an alkyl group having 1 to 6 carbon atoms and/or an aryl group, R 5 represents an alkylene group having 1 to 6 carbon atoms or an arylene group, alkylarylene group, or arylalkylene group having 6 to 10 carbon atoms, M represents a metal, and n represents a valence of M, characterized in that the number of coarse particles having a maximum length of 10 μm or more contained in the polyester film is 10/m 2 or less, and in that the flame-retardant biaxially oriented polyester film has a surface roughness Rmax of less than 3 μm.
Drive train of a motor vehicle, having a hybrid drive which has an internal combustion engine and an electric machine, and an automated group transmission, the automated group transmission having at least one main transmission and a rear-mounted group which is connected downstream of the main transmission in drive terms and is configured, in particular, as a range group, an input shaft (W GE) of the automated group transmission being connected via a controllable start-up clutch to the internal combustion engine of the hybrid drive and an output shaft (W GA) of the automated group transmission being connected to an axle drive, it being possible for the electric machine of the hybrid drive to be connected to the power flow or torque flow of the drive train between the main transmission and the rear-mounted group and/or between the rear-mounted group and the axle drive, characterized in that, in a manner which is dependent on the shifting position of at least two shifting elements (S1, S2), the electric machine of the hybrid drive is either coupled to the power flow or torque flow of the drive train exclusively between the main transmission and the rear-mounted group or exclusively between the rear-mounted group and the axle drive or both between the main transmission and the rear-mounted group and between the rear-mounted group and the axle drive or is decoupled completely from the power flow or torque flow of the drive train.