mhurhangee/ep-ind-claims huggingface dataset:
A device for use with a flow generator that generates a supply of pressurized air to be provided at an outlet to a patient for treatment, wherein the device comprises: an emitter being configured to generate a first sound signal; a sensor to receive the first sound signal generated from the emitter and a second sound signal reflected from a patient interface, wherein the patient interface is connectable to the outlet of the flow generator; and a controller that is configured to process the first sound signal and the reflected second sound signal, and being configured to detect the connection of the patient interface based on the processed reflected second sound signal, wherein the controller is configured to compare data associated with the patient interface with similar data from previously identified patient interface reflected sound signals contained in a memory or database of patient interface reflections; wherein the detection of the connection of the patient interface comprises (a) an identification of a particular model of the patient interface, or (b) a detection of a leak associated with the patient interface. an emitter being configured to generate a first sound signal; a sensor to receive the first sound signal generated from the emitter and a second sound signal reflected from a patient interface, wherein the patient interface is connectable to the outlet of the flow generator; and a controller that is configured to process the first sound signal and the reflected second sound signal, and being configured to detect the connection of the patient interface based on the processed reflected second sound signal, wherein the controller is configured to compare data associated with the patient interface with similar data from previously identified patient interface reflected sound signals contained in a memory or database of patient interface reflections; wherein the detection of the connection of the patient interface comprises (a) an identification of a particular model of the patient interface, or (b) a detection of a leak associated with the patient interface.
A method for culturing dispersed single pluripotent cells wherein said dispersed cells are separated cells that do not show joining of two or more cells via cadherin, said method comprising culturing adhered dispersed single cells under laminar flow conditions without addition of an anti-apoptotic agent.
A method for producing a colony consisting of concentric zones of different ectodermal cell lineage, comprising subjecting human pluripotent stem cells to two-dimensional culture in a serum-free medium without using feeder cells, wherein the pluripotent stem cells are cultured using a vessel coated with one or more selected from the group consisting of collagen, fibronectin, laminin or laminin fragments, vitronectin, basement membrane matrices, gelatin, hyaluronic acid, and polylysine; wherein the concentric zones of different ectodermal cell lineage are formed by autonomous differentiation of the pluripotent stem cells, and wherein the colony comprises zones of neuroectodermal lineage cells, neural crest lineage cells/optic cup lineage cells, ocular surface ectodermal lineage cells, and surface ectodermal lineage cells, respectively. wherein the concentric zones of different ectodermal cell lineage are formed by autonomous differentiation of the pluripotent stem cells, and wherein the colony comprises zones of neuroectodermal lineage cells, neural crest lineage cells/optic cup lineage cells, ocular surface ectodermal lineage cells, and surface ectodermal lineage cells, respectively.
A method for controlling a power system having at least one inverter-based resource connected to an electrical grid, the method comprising: monitoring, via at least one controller of the at least one inverter-based resource, one or more command signals issued by a system-level controller; determining, via the at least one controller of the at least one inverter-based resource, whether the one or more command signals issued by the system-level controller comprises oscillatory behavior characteristic of an instability; and in response to determining that the one or more command signals issued by the system-level controller comprises oscillatory behavior characteristic of the instability, reducing one or more gains of a volt-var regulator of the system-level controller to reduce the instability; further comprising analyzing and filtering the one or more command signals issued by the system-level controller; wherein analyzing and filtering the one or more command signals issued by the system-level controller further comprises: determining a magnitude of the filtered one or more command signals; amplifying the magnitude of the filtered one or more command signals; and comparing the amplified magnitude of the filtered one or more command signals to a magnitude threshold; wherein, when the amplified magnitude of the filtered one or more command signals exceeds the magnitude threshold, starting a counter for counting a number of times the amplified magnitude crosses zero within a certain time period. monitoring, via at least one controller of the at least one inverter-based resource, one or more command signals issued by a system-level controller; determining, via the at least one controller of the at least one inverter-based resource, whether the one or more command signals issued by the system-level controller comprises oscillatory behavior characteristic of an instability; and in response to determining that the one or more command signals issued by the system-level controller comprises oscillatory behavior characteristic of the instability, reducing one or more gains of a volt-var regulator of the system-level controller to reduce the instability; further comprising analyzing and filtering the one or more command signals issued by the system-level controller; wherein analyzing and filtering the one or more command signals issued by the system-level controller further comprises: determining a magnitude of the filtered one or more command signals; amplifying the magnitude of the filtered one or more command signals; and comparing the amplified magnitude of the filtered one or more command signals to a magnitude threshold; wherein, when the amplified magnitude of the filtered one or more command signals exceeds the magnitude threshold, starting a counter for counting a number of times the amplified magnitude crosses zero within a certain time period.
A liquid crystalline polyester resin composition, comprising 0.1 to 20 parts by weight of a carbon black having a primary particle diameter of 80 to 200 nm relative to 100 parts by weight of a liquid crystalline polyester resin, wherein the carbon black is dispersed in the liquid crystalline polyester resin composition to have a maximum particle diameter of not greater than 50 μm; wherein said primary particle diameter is measured by observing the carbon black at a 20000-fold magnification with a transmission electron microscope, measuring the diameter of any fifty carbon black particles, and calculating the number-average value of those fifty carbon black particles; and wherein said maximum particle diameter is measured by observing the carbon black at a 500-fold to 1000-fold magnification with an optical microscope and taking the longest dimension to be the maximum particle diameter.
An industrial truck with a canopy, which has two columns arranged laterally on the vehicle, which support a crown equipped with one or more belts (38, 40), characterized in that the belts are connected with an assembly plate having an opening for a glass roof, wherein the glass roof is connected elastically with a circumferential profile frame, which is connected with at least one belt (38, 40) and with at least one support profile (58, 60) extending between the belts.
Actuating device for opening and closing a valve of a drain arrangement for a basin, comprising a coupling element for coupling a force-transmission element to the actuating device, an electric motor for driving a movement of the coupling element from a first working position into a second working position and a movement of the coupling element from the second working position into the first working position, a control device for controlling the motor, and a sensor device for detecting an actuation operation performed by an operator, wherein the motor, the control device, and the sensor device are arranged in a common housing, wherein the actuating device comprises a transmission unit, which converts a rotational movement produced by the motor into a linear movement of the coupling element, and wherein the coupling element is displaceably guided on the transmission unit, characterized in that the transmission unit is releasably fixable on the housing of the actuating device.
A method of fabricating a stent comprising: making PLLA polymer material with a polymerization reaction of LLA monomers, wherein the PLLA polymer material has an LLA monomer content of greater than 4 wt%; processing the PLLA polymer material to reduce the LLA monomer content to 0.01-2 wt%; and making a polymeric stent body from the processed PLLA polymer material; wherein making the PLLA polymer material with the polymerization reaction comprises: performing the polymerization reaction at a reaction temperature less than 160 °C for a first period of time followed by, performing the polymerization reaction at a temperature between 180-200°C to obtain the PLLA polymer material having the LLA monomer content of more than 4 wt%. making PLLA polymer material with a polymerization reaction of LLA monomers, wherein the PLLA polymer material has an LLA monomer content of greater than 4 wt%; processing the PLLA polymer material to reduce the LLA monomer content to 0.01-2 wt%; and making a polymeric stent body from the processed PLLA polymer material; performing the polymerization reaction at a reaction temperature less than 160 °C for a first period of time followed by, performing the polymerization reaction at a temperature between 180-200°C to obtain the PLLA polymer material having the LLA monomer content of more than 4 wt%.
Multi-layer winter sports equipment for gliding on snow, comprising a number of interconnected layers, wherein an elastic film is arranged between adjacent layers, which is bonded to the adjacent layers by means of an adhesive, wherein a film having the following is used as the elastic film: a rubber layer with a flat upper side and a flat underside, wherein the upper side and/or the underside of the rubber layer is coated with a woven fabric, a knitted fabric and/or a nonwoven fabric, characterized in that the elongation at break is at least 50% and the drum peel strength is at least 1 N / m. a number of interconnected layers, wherein an elastic film is arranged between adjacent layers, which is bonded to the adjacent layers by means of an adhesive, wherein a film having the following is used as the elastic film: a rubber layer with a flat upper side and a flat underside, wherein the upper side and/or the underside of the rubber layer is coated with a woven fabric, a knitted fabric and/or a nonwoven fabric, characterized in that the elongation at break is at least 50% and the drum peel strength is at least 1 N / m. a rubber layer with a flat upper side and a flat underside, wherein the upper side and/or the underside of the rubber layer is coated with a woven fabric, a knitted fabric and/or a nonwoven fabric, characterized in that the elongation at break is at least 50% and the drum peel strength is at least 1 N / m.
A computer-implemented method for monitoring physical data, generated by a physical data generator, for anomalies, said physical data being predictable subject to predetermined information characterizing said physical data generator, the method comprising: using said predetermined information to compute a sequence of predicted data points which the physical data, given said predetermined information, can be expected to duplicate at each of a corresponding sequence of temporal sampling points;and receiving the physical data and identifying wayward points within said physical data which are incongruous with the predetermined information, characterized in that said physical data comprises data generated by a satellite, and further characterized in that said step of using said predetermined information comprises: finding periodicities of periodic, semi-periodic, multi-periodic, multiple semi-periodic or multi-periodic and multiple semi-periodic data; and fitting the data with the periodicities; and subtracting the fit from the data to generate residual data, and wherein said identifying wayward points comprises identifying abnormal points above a certain level of standard deviations in said residual data. using said predetermined information to compute a sequence of predicted data points which the physical data, given said predetermined information, can be expected to duplicate at each of a corresponding sequence of temporal sampling points;and receiving the physical data and identifying wayward points within said physical data which are incongruous with the predetermined information, characterized in that said physical data comprises data generated by a satellite, and further characterized in that said step of using said predetermined information comprises: finding periodicities of periodic, semi-periodic, multi-periodic, multiple semi-periodic or multi-periodic and multiple semi-periodic data; and fitting the data with the periodicities; and subtracting the fit from the data to generate residual data, and finding periodicities of periodic, semi-periodic, multi-periodic, multiple semi-periodic or multi-periodic and multiple semi-periodic data; and fitting the data with the periodicities; and subtracting the fit from the data to generate residual data, and wherein said identifying wayward points comprises identifying abnormal points above a certain level of standard deviations in said residual data.
A tissue product comprising a first tissue ply and a second tissue ply superposed over the first tissue ply, the first tissue ply and second tissue ply connected together via first embossments and second embossments, the tissue product having a first side and a second side, wherein the first embossments define a series of first depressions on the first side and a series of protuberances on the second side, wherein the second embossments define a series of second depressions on the first side, the second embossments comprising no protuberances on the second side; the tissue product characterised in that the first embossments and the second embossments together define a total number of embossments, wherein the first embossments comprise less than 20% of the total number of embossments.
Anhydrous form D of 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxotax-11-en-13α-yl (2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3-phenylpropionate, characterized by a PXRD diagram exhibiting characteristic lines located at 3.9, 7.7, 7.8, 7.9, 8.6, 9.7, 10.6, 10.8, 11.1 and 12.3 ± 0.2 degrees 2-Theta.
An alkylaromatic compound dehydrogenation catalyst, comprising iron (Fe), potassium and cerium (Ce), and at least one rare earth element other than cerium, wherein the rare earth element is selected from the group consisting of yttrium, dysprosium (Dy) and a mixture thereof, wherein iron is in an amount of 30 to 90% by weight calculated as Fe 2 O 3, potassium is in an amount of 1 to 50% by weight calculated as K 2 O, cerium in an amount of 1 to 50% by weight calculated as CeO 2 and the rare earth element in an amount of 0.01 to 1% by weight calculated as an oxide of the rare earth, relative to 100% by weight of the total amount of the catalyst.
A method for separating meat from bone parts, comprising the successive method steps of: A) placing the bone parts in a pressure chamber of a bone press (1, 20, 50, 60, 70, 80); B) exerting a pressure on the bone parts in the pressure chamber (2, 22, 61) of 10 - 500 bar so that meat is separated from the bones (6, 30) and leaves the pressure chamber; C) re-orienting at least a selection of the bone parts by changing the shape of the pressure chamber (2, 22, 61); and D) exerting a pressure on the re-oriented bone parts in the pressure chamber (2, 22, 61) of 10 - 500 bar so that further meat is separated from the bones and leaves the pressure chamber (2, 22, 61). A) placing the bone parts in a pressure chamber of a bone press (1, 20, 50, 60, 70, 80); B) exerting a pressure on the bone parts in the pressure chamber (2, 22, 61) of 10 - 500 bar so that meat is separated from the bones (6, 30) and leaves the pressure chamber; C) re-orienting at least a selection of the bone parts by changing the shape of the pressure chamber (2, 22, 61); and D) exerting a pressure on the re-oriented bone parts in the pressure chamber (2, 22, 61) of 10 - 500 bar so that further meat is separated from the bones and leaves the pressure chamber (2, 22, 61).
An exhaust aftertreatment unit (20, 120) for cleaning exhaust gases, the exhaust aftertreatment unit comprising: - an emission reducing module (30, 130) being a diesel particulate filter, DPF, and/or a diesel oxidation catalyst, DOC, - a selective catalyst reduction, SCR, catalyst (32, 132), - an electrical heating element (38, 138) arranged upstream of the SCR catalyst, - a casing (40, 140) housing at least the emission reducing module, and - a service lid (44, 144) removably arranged to cover a service opening (42, 142) of the casing through which the emission reducing module may be accessed, characterized in that the electrical heating element is removably arranged relative the casing and is arranged accessible upon removal of the service lid by that the electrical heating element is arranged inside the casing, and is removed relative the casing by being passed through the service opening, or is arranged inside the service lid, and is removed relative the casing by removing the service lid. - an emission reducing module (30, 130) being a diesel particulate filter, DPF, and/or a diesel oxidation catalyst, DOC, - a selective catalyst reduction, SCR, catalyst (32, 132), - an electrical heating element (38, 138) arranged upstream of the SCR catalyst, - a casing (40, 140) housing at least the emission reducing module, and - a service lid (44, 144) removably arranged to cover a service opening (42, 142) of the casing through which the emission reducing module may be accessed,
A method of manufacturing a porous structure for a fuel cell comprising: providing a porous structure; and processing the porous structure to selectively produce a non-porous region on the porous structure, wherein the processing includes treating at least one surface of the porous structure to produce the non-porous region, next, performed subsequent to the treating step, channels for a flow field are machined into the at least one surface to expose the porous structure, the non-porous region including a recess receiving a seal and preventing migration of adhesive associated with the seal, which can contaminate the porous structure.
A work machine comprising: a vehicular body; a running wheel (4a, 4b) rotatably attached to the vehicular body; a work implement operable with respect to the vehicular body; an operation apparatus (49, 51, 52, 54, 58) for operating the running wheel and the work implement; and a controller that controls an operation by the work machine, characterised in that the controller is configured to determine that an ineffective operation in which the work implement does not work is being performed during an excavation work based on an operation command value output from the operation apparatus, and configured to notify an operator of occurrence of the ineffective operation. a vehicular body; a running wheel (4a, 4b) rotatably attached to the vehicular body; a work implement operable with respect to the vehicular body; an operation apparatus (49, 51, 52, 54, 58) for operating the running wheel and the work implement; and a controller that controls an operation by the work machine, characterised in that the controller is configured to determine that an ineffective operation in which the work implement does not work is being performed during an excavation work based on an operation command value output from the operation apparatus, and configured to notify an operator of occurrence of the ineffective operation.
A method of differential detection of target sequences in a mixture of maternal and fetal genetic material, wherein the mixture of maternal and fetal genetic material is a mixture of maternal and fetal genomic DNA obtained from maternal blood plasma, comprising the steps of: a) distributing the genetic material into discrete samples so that the measuring of a target sequence may be quantified as binary or simple multiples; b) measuring the presence of different target sequences in discrete samples using sequence specific reactants, wherein one of the different target sequences is on a chromosome which is diploid in the maternal genetic material and possibly aneuploid in the fetal genetic material and another of the different target sequences is on a chromosome which is diploid or presumed diploid in both the maternal and fetal genetic material; c) analyzing a number of the discrete samples sufficient to obtain results distinguishing the target sequence which is on a chromosome which is diploid in the maternal genetic material and possibly aneuploid in the fetal genetic material from the target sequence which is on a chromosome which is diploid or presumed diploid in both the maternal and fetal genetic material; and d) detecting a fetal aneuploidy by statistical analysis of the results. a) distributing the genetic material into discrete samples so that the measuring of a target sequence may be quantified as binary or simple multiples; b) measuring the presence of different target sequences in discrete samples using sequence specific reactants, wherein one of the different target sequences is on a chromosome which is diploid in the maternal genetic material and possibly aneuploid in the fetal genetic material and another of the different target sequences is on a chromosome which is diploid or presumed diploid in both the maternal and fetal genetic material; c) analyzing a number of the discrete samples sufficient to obtain results distinguishing the target sequence which is on a chromosome which is diploid in the maternal genetic material and possibly aneuploid in the fetal genetic material from the target sequence which is on a chromosome which is diploid or presumed diploid in both the maternal and fetal genetic material; and d) detecting a fetal aneuploidy by statistical analysis of the results.
A wireless communication device devioecomprising a processor and a memory (130,132), the processor configured to: receive control resource set, CORESET, configuration information; determine a control channel element,CCE, -to-resource element group,REG, mapping for a CORESET based on the CORESET configuration information, wherein, on a condition that the CORESET configuration information indicates that the CCE-to-REG mapping is interleaved, CCE-to-REG mapping is determined based on a modulo operation that uses a modulo base, wherein the modulo base is a number of REG bundles in the CORESET; and attempt to decode a physical downlink control channel, PDCCH, candidate associated with the CORESET based on the determined CCE-to-REG mapping. receive control resource set, CORESET, configuration information; determine a control channel element,CCE, -to-resource element group,REG, mapping for a CORESET based on the CORESET configuration information, wherein, on a condition that the CORESET configuration information indicates that the CCE-to-REG mapping is interleaved, CCE-to-REG mapping is determined based on a modulo operation that uses a modulo base, wherein the modulo base is a number of REG bundles in the CORESET; and attempt to decode a physical downlink control channel, PDCCH, candidate associated with the CORESET based on the determined CCE-to-REG mapping.