mhurhangee/ep-ind-claims huggingface dataset:
Motor controller for driving and controlling the electrical motor (51; 51-2) of a blood pump for percutaneous insertion, the blood pump comprising an electrical motor for driving the blood pump, the electrical motor (51; 51-2) comprising at least three motor winding units (Lu, Lv, Lw), wherein each motor winding unit (Lu, Lv, Lw) is arranged and configured to be individually connected to a power supply via separate phase supply lines (Lu1, Lu2; Lv1, Lv2; Lw1, Lw2) connected to respective motor winding unit terminals (LuE1, LuE2; LvE1, LvE2; LwE1, LwE2), the motor controller comprising corresponding phase supply line driving units (DH1, DH2, DH3; DL1, DL2, DL3) for each motor winding unit (Lu, Lv, Lw) which are respectively connected through the corresponding phase supply lines (Lu1, Lu2; Lv1, Lv2; Lw1, Lw2) with one of the motor winding units (Lu, Lv, Lw), and a control unit configured to control the phase supply line driving units (DH1, DH2, DH3; DL1, DL2, DL3) to operate the electrical motor (51; 51-2), wherein the control unit is configured to detect a fault in one of the motor winding units (Lu, Lv, Lw), characterized in that the control unit is further configured, in case of a detected faulty motor winding unit, to adjust driving parameters for the faulty motor winding unit and to further operate the electrical motor (51; 51-2) by all motor winding units.
A recombinant Herpes Simplex Virus, comprising: (a) a deletion of the internal repeat (joint) region in the HSV genome comprising one copy of the ICPO, ICP34.5, LAT, and ICP4 genes and the ICP47 promoter, (b) a plurality of copies of one or more microRNA target sequences inserted into a locus of an HSV gene required for HSV replication in normal (non-cancerous) cells, wherein said target sequences are the reverse complement of microRNA miR-124, and wherein at least one of said target sequences is present within an ICP4 locus, and (c) a transgene encoding a matrix metalloproteinase. (a) a deletion of the internal repeat (joint) region in the HSV genome comprising one copy of the ICPO, ICP34.5, LAT, and ICP4 genes and the ICP47 promoter, (b) a plurality of copies of one or more microRNA target sequences inserted into a locus of an HSV gene required for HSV replication in normal (non-cancerous) cells, wherein said target sequences are the reverse complement of microRNA miR-124, and wherein at least one of said target sequences is present within an ICP4 locus, and (c) a transgene encoding a matrix metalloproteinase.
A first terminal device comprising: a communication unit configured to perform radio communication; and a control unit configured to perform control so that a response to transmission of data from a second terminal device via inter-device communication is to be transmitted to the second terminal device via the inter-device communication between the first and second terminal devices via a sidelink, wherein the control unit is configured to determine a resource to be used for transmission of the response based on a condition related to the inter-device communication, characterized in that the control unit is further configured to associate, with the response, a symbol usable for gain control in demodulation of the response, based on a predetermined condition. a communication unit configured to perform radio communication; and a control unit configured to perform control so that a response to transmission of data from a second terminal device via inter-device communication is to be transmitted to the second terminal device via the inter-device communication between the first and second terminal devices via a sidelink, wherein the control unit is configured to determine a resource to be used for transmission of the response based on a condition related to the inter-device communication, characterized in that the control unit is further configured to associate, with the response, a symbol usable for gain control in demodulation of the response, based on a predetermined condition.
A method for generating a digital record of a vehicle in a road toll system, comprising, in a roadside unit of the road toll system: capturing an image of the vehicle on a roadway by means of a camera of the roadside unit; generating a digital record; and sending the digital record from the roadside unit to a data center of the road toll system, characterized by data-compressing the image at a compression ratio depending on at least a confidence level (L i, L A) obtained from the image for one or more characters (C i) therein by means of OCR to generate the digital record capturing an image of the vehicle on a roadway by means of a camera of the roadside unit; generating a digital record; and sending the digital record from the roadside unit to a data center of the road toll system, characterized by data-compressing the image at a compression ratio depending on at least a confidence level (L i, L A) obtained from the image for one or more characters (C i) therein by means of OCR to generate the digital record
An ultrasonic transducer assembly of an ultrasonic surgical instrument, comprising: a horn; a piezoelectric stack positioned proximally of the horn and defining a longitudinal opening extending therethrough; a proximal end mass positioned proximally of the piezoelectric stack and defining a longitudinal opening extending therethrough, the proximal end mass further defining a transverse lumen in communication with the longitudinal opening of the proximal end mass; and a rod secured to the horn and extending proximally from the horn through the longitudinal opening of the piezoelectric stack and the longitudinal opening of the proximal end mass such that a portion of the rod is exposed through the transverse lumen, characterised in that the exposed portion of the rod is fused to the proximal end mass within the transverse lumen to maintain a pre-compression of the piezoelectric stack between the horn and the proximal end mass. a horn; a piezoelectric stack positioned proximally of the horn and defining a longitudinal opening extending therethrough; a proximal end mass positioned proximally of the piezoelectric stack and defining a longitudinal opening extending therethrough, the proximal end mass further defining a transverse lumen in communication with the longitudinal opening of the proximal end mass; and a rod secured to the horn and extending proximally from the horn through the longitudinal opening of the piezoelectric stack and the longitudinal opening of the proximal end mass such that a portion of the rod is exposed through the transverse lumen, characterised in that the exposed portion of the rod is fused to the proximal end mass within the transverse lumen to maintain a pre-compression of the piezoelectric stack between the horn and the proximal end mass.
A method for generating an entrainment factor and actuating a corrective action for a flow cytometer sample, the method comprising: flowing the sample comprising a series of particles through the flow cytometer wherein each particle is associated with a signal and the particles are distributed in a fluidic stream; detecting a series of signals with an inter-arrival time relative to the previous signal with a detection system in a first time interval from the stream formed from the flow cytometer; calculating an expected frequency of inter-arrival time for a second time interval based on a characterizing distribution, wherein the second time interval is within the first time interval; measuring an observed frequency of inter-arrival time within the second time interval; while the sample is flowing through the flow cytometer, generating an entrainment factor based at least in part on a ratio of the observed frequency to the expected frequency, said entrainment factor indicating a level of the clumpiness of the sample, comparing the entrainment factor to a predetermined value and actuating a corrective action in a control system operationally connected to the flow cytometer based on a result of the comparing. flowing the sample comprising a series of particles through the flow cytometer wherein each particle is associated with a signal and the particles are distributed in a fluidic stream; detecting a series of signals with an inter-arrival time relative to the previous signal with a detection system in a first time interval from the stream formed from the flow cytometer; calculating an expected frequency of inter-arrival time for a second time interval based on a characterizing distribution, wherein the second time interval is within the first time interval; measuring an observed frequency of inter-arrival time within the second time interval; while the sample is flowing through the flow cytometer, generating an entrainment factor based at least in part on a ratio of the observed frequency to the expected frequency, said entrainment factor indicating a level of the clumpiness of the sample, comparing the entrainment factor to a predetermined value and actuating a corrective action in a control system operationally connected to the flow cytometer based on a result of the comparing.
A system comprising a drying device and a coiled electrode wound on a winding core, said coiled electrode to be dried by the drying device, wherein the drying device comprises: a heating unit for heating the coiled electrode from the winding core, characterised in that said coiled electrode comprises a plurality of radially overlapping layers. a heating unit for heating the coiled electrode from the winding core, characterised in that said coiled electrode comprises a plurality of radially overlapping layers.
Ophthalmic lens, comprising on its surface: • a central zone of yellow colour absorbing the blue light of the visible spectrum; and • a peripheral zone of red or orange colour, surrounding the yellow zone, absorbing light at wavelengths shorter than 600 nm; and characterized in that it is a progressive corrective ophthalmic lens with a far-vision optical centre and a near-vision optical centre (C'), and in that the central zone of yellow colour essentially covers the zone around the far-vision optical centre, and the zone around the near-vision optical centre, and a strip connecting these two zones and corresponding to the path followed by the eye when it passes from one to the other. • a central zone of yellow colour absorbing the blue light of the visible spectrum; and • a peripheral zone of red or orange colour, surrounding the yellow zone, absorbing light at wavelengths shorter than 600 nm;
A transmissive ionizing-radiation beam monitoring system comprising: an enclosure structure; at least one thin scintillator within the enclosure structure that is directly in an incident ionizing-radiation beam path and transmissive to the incident radiation beam; and at least one machine vision camera within the enclosure structure located out of the incident ionizing-radiation beam path and comprising a camera body and a lens; characterized in that the enclosure structure comprises an ultra-thin, dark colored or black exit window (814, 2014) to the incident ionizing-radiation beam, wherein the exit window (814, 2014) is highly transmissive, the system further comprises at least one ultraviolet illumination source (850, 1086, 1088, 1186, 1450 1550, 1750, 1751, 2050, 2051) within the enclosure structure facing the scintillator for internal system calibration; at least one UV photosensor (852, 1082, 1084, 1452, 1552, 1752, 1753, 2052, 2053) within the enclosure structure positioned to monitor and calibrate the UV illumination source (850, 1086, 1088, 1186, 1450, 1550, 1750, 1751, 2050, 2051); and the at least one machine vision camera has a projection of its optical axis oriented at an angle of incidence of 50 ± 30 degrees to a surface of the scintillator. an enclosure structure; at least one thin scintillator within the enclosure structure that is directly in an incident ionizing-radiation beam path and transmissive to the incident radiation beam; and at least one machine vision camera within the enclosure structure located out of the incident ionizing-radiation beam path and comprising a camera body and a lens; characterized in that the enclosure structure comprises an ultra-thin, dark colored or black exit window (814, 2014) to the incident ionizing-radiation beam, wherein the exit window (814, 2014) is highly transmissive, the system further comprises at least one ultraviolet illumination source (850, 1086, 1088, 1186, 1450 1550, 1750, 1751, 2050, 2051) within the enclosure structure facing the scintillator for internal system calibration; at least one UV photosensor (852, 1082, 1084, 1452, 1552, 1752, 1753, 2052, 2053) within the enclosure structure positioned to monitor and calibrate the UV illumination source (850, 1086, 1088, 1186, 1450, 1550, 1750, 1751, 2050, 2051); and the at least one machine vision camera has a projection of its optical axis oriented at an angle of incidence of 50 ± 30 degrees to a surface of the scintillator.
A trampoline comprising a support frame and a jumping mat, the jumping mat having a configuration comprising agenerally flat base portion at a position lower than the periphery of the jumping mat for a user to bounce on, and a side portion around the entire periphery of the base portion and extending to the periphery of the jumping mat, the jumping mat being connected to the frame by at least two connectors (104, 105) that place the jumping mat in said configuration with the jumping mat supported under tension at a position above ground or flooring; the trampoline being characterised in that the jumping mat is formed as a single piece of woven material so that the side portion, against which a user may also bounce, is integral with and continuous with the base portion, and in that the connectors comprise elastic biasing connectors (104, 105) placing the jumping mat under tension and providing tension between the jumping mat and the support frame.
A method for characterizing petroleum or other hydrocarbon compositions, comprising: separating a first plurality of compounds in a first hydrocarbon sample using a first gas chromatography separation; determining a composition and a first weight for each of the separated first plurality of compounds using mass spectrometry, the ions for mass spectrometry being formed by a soft ionization method; separating a second plurality of compounds in a second hydrocarbon sample using a second gas chromatography separation, the second gas chromatography separation including at least a first separation stage and a second separation stage, the second hydrocarbon sample being derived from the same hydrocarbon source as the first hydrocarbon sample; determining a second weight for each of the separated second plurality of compounds; assigning the separated second plurality of compounds to a plurality of compound classes; determining a relative weight for each of the separated second plurality of compound classes based on the second weights of the assigned compounds for each compound class; normalizing the first weight for each of at least a portion of the separated first plurality of compounds, based on the determined relative weights for the plurality of compound classes, to generate a normalized weight for each compound, the normalizing of a first weight for a compound being based on at least a compound class corresponding to a determined composition for the compound; and developing a model of composition for the hydrocarbon source based on at least the normalized weights for the separated first plurality of compounds. separating a first plurality of compounds in a first hydrocarbon sample using a first gas chromatography separation; determining a composition and a first weight for each of the separated first plurality of compounds using mass spectrometry, the ions for mass spectrometry being formed by a soft ionization method; separating a second plurality of compounds in a second hydrocarbon sample using a second gas chromatography separation, the second gas chromatography separation including at least a first separation stage and a second separation stage, the second hydrocarbon sample being derived from the same hydrocarbon source as the first hydrocarbon sample; determining a second weight for each of the separated second plurality of compounds; assigning the separated second plurality of compounds to a plurality of compound classes; determining a relative weight for each of the separated second plurality of compound classes based on the second weights of the assigned compounds for each compound class; normalizing the first weight for each of at least a portion of the separated first plurality of compounds, based on the determined relative weights for the plurality of compound classes, to generate a normalized weight for each compound, the normalizing of a first weight for a compound being based on at least a compound class corresponding to a determined composition for the compound; and developing a model of composition for the hydrocarbon source based on at least the normalized weights for the separated first plurality of compounds.
A method for manufacturing a resin gear with a core metal composed of a metallic sleeve as the core metal and a synthetic resin annular tooth part covering the outer periphery of the metallic sleeve, comprising:a primary molding step of setting the tooth part as an annular inner member and an annular outer member of different materials and forming the inner member by injection molding in a first cavity molding die with the metallic sleeve as an insert; anda secondary molding step of putting a primary molded article formed at the primary molding step into a second cavity molding die and forming the outer member by injection molding, whereingates for injecting a molten resin into the first cavity molding die at the primary molding step and gates for injecting a molten resin into the secondary cavity molding die at the secondary molding step are pin gates, tunnel gates, or side gates, the number of the gates at the primary molding step and the number of the gates at the secondary molding step are plural and identical and the gates are arranged circumferentially, and gate positions at the secondary molding step are circumferentially intermediate or nearly circumferentially intermediate between gate positions and weld positions adjacent to the gate positions in the primary molded article.
Method for detecting employing an automated function comprising: detecting the execution of an automated function within a node of a communication network; determining a type of the automated function; writing information representing the type of the automated function in a predefined storage area of a record carrier, wherein the record carrier comprises several predefined storage areas, characterized in that each storage area is addressed by a parameter name, wherein one of these parameter names represents a sourceIndicator parameter indicating the type of the automated function, the sourceIndicator parameter present in a notifyObjectCreation method, or a notifyObjectDeletion method or a notifyAttributeValueChange method. detecting the execution of an automated function within a node of a communication network; determining a type of the automated function; writing information representing the type of the automated function in a predefined storage area of a record carrier, wherein the record carrier comprises several predefined storage areas, characterized in that each storage area is addressed by a parameter name, wherein one of these parameter names represents a sourceIndicator parameter indicating the type of the automated function, the sourceIndicator parameter present in a notifyObjectCreation method, or a notifyObjectDeletion method or a notifyAttributeValueChange method.
A system for controlling an aircraft engine (112;412) attached to an airframe (114;414), the system comprising: a plurality of airframe sensors (126;426) to be attached to the airframe to produce airframe sensor signals; an airframe data concentrator (118;418) to be attached to the airframe and electrically connected to the plurality of airframe sensors to convert the airframe sensor signals to airframe sensor digital data; a fuel metering unit (128;228;428) comprising: an effector (132;232;432); an electronic engine controller (120;420); and a single housing containing the effector and the EEC; wherein the effector is electrically connected to the EEC to adjust one of a rate of fuel flowing into the engine, a stator vane position, and a rate of bleed air flowing from an engine compressor in response to a control signal sent from the EEC; an engine sensor (130;430); and a digital bus (122;422) connecting the ADC to the EEC; wherein the engine sensor is electrically connected to the EEC to provide the engine sensor signal to the EEC; and wherein the control signal sent from the EEC is responsive to the airframe sensor digital data sent by the ADC over the digital bus and the engine sensor signal. a plurality of airframe sensors (126;426) to be attached to the airframe to produce airframe sensor signals; an airframe data concentrator (118;418) to be attached to the airframe and electrically connected to the plurality of airframe sensors to convert the airframe sensor signals to airframe sensor digital data; a fuel metering unit (128;228;428) comprising: an effector (132;232;432); an electronic engine controller (120;420); and a single housing containing the effector and the EEC; wherein the effector is electrically connected to the EEC to adjust one of a rate of fuel flowing into the engine, a stator vane position, and a rate of bleed air flowing from an engine compressor in response to a control signal sent from the EEC; an effector (132;232;432); an electronic engine controller (120;420); and a single housing containing the effector and the EEC; an engine sensor (130;430); and a digital bus (122;422) connecting the ADC to the EEC;
A meltable smokeless tobacco composition configured for insertion into the mouth of a user and capable of liquefying in the mouth, the tobacco composition comprising a tobacco extract and at least about 30 dry weight percent of a lipid having a melting point of about 29°C to about 49°C.
A personal cleansing composition comprising: (a) a premix, the premix comprising from 0.001% to 10%, by weight of the personal cleansing composition, of an anionic charged polyacrylate microcapsule and from 0.01% to 2%, by weight of the personal cleansing composition, of a cationic deposition polymer; (b) from 2% to 50%, by weight of the personal cleansing composition, of a detersive surfactant; and (c) a carrier. (a) a premix, the premix comprising from 0.001% to 10%, by weight of the personal cleansing composition, of an anionic charged polyacrylate microcapsule and from 0.01% to 2%, by weight of the personal cleansing composition, of a cationic deposition polymer; (b) from 2% to 50%, by weight of the personal cleansing composition, of a detersive surfactant; and (c) a carrier.
Clamping device for clamping together of at least two concrete formwork elements arranged next to one another and which has at least one mounting for attaching an anchor nut into which an anchor rod provided with a thread can be screwed so that opposing formwork elements can be anchored by means of the anchor rod screwed into the anchor nut, wherein the clamping device has claws, by means of which concrete formwork elements arranged next to one another can be clamped to one another.