mhurhangee/ep-ind-claims huggingface dataset:
An endovascular prosthetic device including: a primary prosthesis with a primary lumen; a major socket comprising a major opening in the wall of the primary prosthesis, a major lumen at least a portion of which extends into the primary lumen, characterised in that the major socket also comprises at least one minor socket (130, 132) with a minor opening (116, 119) and a minor lumen at least partially within the major lumen; and where the prosthetic device also comprises a first fenestration (115, 117) in the wall of the major socket to accommodate a guide wire passing through at least the major and primary lumens and being configured to facilitate placement of the secondary prosthesis in a branch artery. a primary prosthesis with a primary lumen; a major socket comprising a major opening in the wall of the primary prosthesis, a major lumen at least a portion of which extends into the primary lumen, characterised in that the major socket also comprises at least one minor socket (130, 132) with a minor opening (116, 119) and a minor lumen at least partially within the major lumen; and where the prosthetic device also comprises a first fenestration (115, 117) in the wall of the major socket to accommodate a guide wire passing through at least the major and primary lumens and being configured to facilitate placement of the secondary prosthesis in a branch artery.
A dispenser having a plug and bobbin, wherein: the bobbin includes a coil wrapped around it, the coil and an oscillator creating an electromagnetic field at a base frequency; the plug is configured to be inserted into an open end of a rolled product, the plug comprising: a cylindrical-shaped stem; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug, wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug, and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin; wherein the set position of the metallic ring relative to the bobbin provides a unique signature that corresponds to a predetermined change in the frequency of the electromagnetic field when the plug is associated with the bobbin. the bobbin includes a coil wrapped around it, the coil and an oscillator creating an electromagnetic field at a base frequency; the plug is configured to be inserted into an open end of a rolled product, the plug comprising: a cylindrical-shaped stem; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug, wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug, and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin; a cylindrical-shaped stem; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug, wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug, and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin; wherein the set position of the metallic ring relative to the bobbin provides a unique signature that corresponds to a predetermined change in the frequency of the electromagnetic field when the plug is associated with the bobbin.
A glass panel unit comprising: a first panel including a first glass pane; a second panel including a second glass pane and arranged to face the first panel; a sealing portion formed in a frame shape and hermetically bonding respective peripheral edge portions of the first and second panels to create an evacuated, hermetically sealed space between the first panel and the second panel; an exhaust port provided for one panel selected from the group consisting of the first and second panels; a plate arranged inside the exhaust port, and a printed portion provided for the other panel selected from the group consisting of the first and second panels, the printed portion being located in an area, facing the exhaust port, of one surface of the other panel, the one surface either facing toward, or facing away from, the hermetically sealed space, the printed portion being formed in a shape of a frame having a predetermined width as measured inward from edges in a front view of the other panel and extending along the edges in their entirety, wherein, the printed portion has opacity and when the glass panel unit is viewed through the other panel, the exhaust port, the plate and the sealing portion are hidden behind the printed portion and are invisible. a first panel including a first glass pane; a second panel including a second glass pane and arranged to face the first panel; a sealing portion formed in a frame shape and hermetically bonding respective peripheral edge portions of the first and second panels to create an evacuated, hermetically sealed space between the first panel and the second panel; an exhaust port provided for one panel selected from the group consisting of the first and second panels; a plate arranged inside the exhaust port, and a printed portion provided for the other panel selected from the group consisting of the first and second panels, the printed portion being located in an area, facing the exhaust port, of one surface of the other panel, the one surface either facing toward, or facing away from, the hermetically sealed space, the printed portion being formed in a shape of a frame having a predetermined width as measured inward from edges in a front view of the other panel and extending along the edges in their entirety, wherein, the printed portion has opacity and when the glass panel unit is viewed through the other panel, the exhaust port, the plate and the sealing portion are hidden behind the printed portion and are invisible.
An internal combustion engine including a supercharger and a turbocharger, wherein the internal combustion engine comprises a load sensor which detects the traction load or the loading load; a control device which switches between a combined supercharging performed by the supercharger and the turbocharger and a single supercharging performed only by the turbocharger, characterized in that: the control device includes: a load determining unit configured to determine whether or not the traction load or the loading load is greater than a previously defined determination value; a combined supercharging unit configured to perform the combined supercharging by the supercharger and the turbocharger on the basis of an operating state of the vehicle in a case where the traction load or the loading load is greater than the determination value; and a single supercharging unit configured to perform the single supercharging only by the turbocharger in a case where the traction load or the loading load is not more than the determination value. the control device includes: a load determining unit configured to determine whether or not the traction load or the loading load is greater than a previously defined determination value; a combined supercharging unit configured to perform the combined supercharging by the supercharger and the turbocharger on the basis of an operating state of the vehicle in a case where the traction load or the loading load is greater than the determination value; and a single supercharging unit configured to perform the single supercharging only by the turbocharger in a case where the traction load or the loading load is not more than the determination value. a load determining unit configured to determine whether or not the traction load or the loading load is greater than a previously defined determination value; a combined supercharging unit configured to perform the combined supercharging by the supercharger and the turbocharger on the basis of an operating state of the vehicle in a case where the traction load or the loading load is greater than the determination value; and a single supercharging unit configured to perform the single supercharging only by the turbocharger in a case where the traction load or the loading load is not more than the determination value.
A mattress cover border panel section comprising: a facing layer of material; one or more backing layers or fill layers of material; a tape strip (17c; 17d) on a side of the facing layer that is opposite a backing layer or fill layer, the tape strip (17c; 17d) having two longitudinally extending edges running along the length of the facing layer; characterized in that it comprises one or more intermittent series of chain stitch sequences (13e-13g; 13h-131), each securing the facing layer and each of the backing layers or fill layers together, a center stitch sequence (13f; 13j) of each of the series also securing the facing layer, each of the backing layers or fill layers, and the tape strip (17b-17d) together, wherein the center stitch sequence (13f; 13j) is located entirely within the two longitudinal edges of the tape strip (17c; 17d) and the other chain stitches (13e, 13g; 13h, 13i, 13k, 131) of each series are located outside the two longitudinal edges of the tape strip (17c; 17d), and wherein the one or more intermittent series of chain stitch sequences (13e-13g; 13h-131) form a quilting pattern. a facing layer of material; one or more backing layers or fill layers of material; a tape strip (17c; 17d) on a side of the facing layer that is opposite a backing layer or fill layer, the tape strip (17c; 17d) having two longitudinally extending edges running along the length of the facing layer; characterized in that it comprises one or more intermittent series of chain stitch sequences (13e-13g; 13h-131), each securing the facing layer and each of the backing layers or fill layers together, a center stitch sequence (13f; 13j) of each of the series also securing the facing layer, each of the backing layers or fill layers, and the tape strip (17b-17d) together, wherein the center stitch sequence (13f; 13j) is located entirely within the two longitudinal edges of the tape strip (17c; 17d) and the other chain stitches (13e, 13g; 13h, 13i, 13k, 131) of each series are located outside the two longitudinal edges of the tape strip (17c; 17d), and wherein the one or more intermittent series of chain stitch sequences (13e-13g; 13h-131) form a quilting pattern.
A method of identifying gesture event types on a textile touch pad sensor, the textile touch pad sensor comprising a plurality of non-conductive yarns interwoven with conductive yarns forming a conductive grid, the method comprising the steps of: - memorize raw touch data generated by the conductive grid during a predefined interval of time in which a gesture event is performed on the textile touch pad sensor; - estimating the type of a gesture event performed on the textile touch pad sensor by analyzing the raw touch data generated by the conductive grid; - measuring the total time (eventLenght) of the gesture event performed on the textile touch pad sensor; - memorizing the longest time ( longestX, longestY) during which a conductive yarn of the conductive grid has been touched during the gesture event; - correcting the estimation of the gesture type, if the longest time ( longestX, longestY) during which a conductive yarn of the conductive grid has been touched is greater than a quantity that is a function of the total time (eventLenght) of the gesture event. - memorize raw touch data generated by the conductive grid during a predefined interval of time in which a gesture event is performed on the textile touch pad sensor; - estimating the type of a gesture event performed on the textile touch pad sensor by analyzing the raw touch data generated by the conductive grid; - measuring the total time (eventLenght) of the gesture event performed on the textile touch pad sensor; - memorizing the longest time ( longestX, longestY) during which a conductive yarn of the conductive grid has been touched during the gesture event; - correcting the estimation of the gesture type, if the longest time ( longestX, longestY) during which a conductive yarn of the conductive grid has been touched is greater than a quantity that is a function of the total time (eventLenght) of the gesture event.
A system comprising: a compressor configured to compress air; an air dryer configured to dry the air compressed by the compressor and to supply the dried compressed air; and an oil separator; which comprises a housing and an impingement member located in the housing, wherein the oil separator is configured to introduce air compressed by the compressor and containing oil into the housing and to cause the introduced compressed air to strike the impingement member to separate oil from the introduced compressed air, thereby recovering the oil; and characterised in that the oil separated from the introduced compressed air is supplied to an oil pan of an engine to be used as lubricant for the engine. a compressor configured to compress air; an air dryer configured to dry the air compressed by the compressor and to supply the dried compressed air; and an oil separator; which comprises a housing and an impingement member located in the housing, wherein the oil separator is configured to introduce air compressed by the compressor and containing oil into the housing and to cause the introduced compressed air to strike the impingement member to separate oil from the introduced compressed air, thereby recovering the oil; and characterised in that the oil separated from the introduced compressed air is supplied to an oil pan of an engine to be used as lubricant for the engine.
A method performed by one or more data processing apparatus using one or more components of an audio to spikes conversion pipeline, the method comprising: obtaining audio data; generating frequency domain audio signals that represent the audio data by converting the audio data into a frequency domain; mapping the frequency domain audio signals into a set of Mel-frequency bands to obtain Mel-scale frequency audio signals; performing a log transformation on the Mel-scale frequency audio signals to obtain log-Mel signals; generating spike input comprising a series of spikes for input to a spiking neural network, SNN, model by converting the log-Mel signals to the series of spikes, wherein converting the log-Mel signals to spike input comprises: determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold (434, 444) in either a positive or negative direction; and the method further comprising generating a spike (426, 428, 436, 446) of a corresponding polarity; and providing the spike input as an input to the SNN model. obtaining audio data; generating frequency domain audio signals that represent the audio data by converting the audio data into a frequency domain; mapping the frequency domain audio signals into a set of Mel-frequency bands to obtain Mel-scale frequency audio signals; performing a log transformation on the Mel-scale frequency audio signals to obtain log-Mel signals; generating spike input comprising a series of spikes for input to a spiking neural network, SNN, model by converting the log-Mel signals to the series of spikes, wherein converting the log-Mel signals to spike input comprises: determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold (434, 444) in either a positive or negative direction; and the method further comprising generating a spike (426, 428, 436, 446) of a corresponding polarity; and determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold (434, 444) in either a positive or negative direction; and the method further comprising generating a spike (426, 428, 436, 446) of a corresponding polarity; and providing the spike input as an input to the SNN model.
A nodally mounted spring arrangement for a drive train used in an electronic toothbrush having a housing, comprising: - a V shaped torsion spring member secured at both ends thereof, the V shaped torsion spring member having a node point along the length thereof, approximately midway of the V-shaped torsion spring member, wherein in operation the V shaped torsion spring member is excited in an out of phase torsion mode; and - a mounting plate member fixedly connected to the node point of the V shaped torsion spring member by welding or similar fixed connection and fixedly connected to the housing of the toothbrush, such that rotation of a proximal half of the V shaped torsion spring member in one direction results in a rotation of a distal half of the V shaped torsion spring member in the opposite direction. - a V shaped torsion spring member secured at both ends thereof, the V shaped torsion spring member having a node point along the length thereof, approximately midway of the V-shaped torsion spring member, wherein in operation the V shaped torsion spring member is excited in an out of phase torsion mode; and - a mounting plate member fixedly connected to the node point of the V shaped torsion spring member by welding or similar fixed connection and fixedly connected to the housing of the toothbrush, such that rotation of a proximal half of the V shaped torsion spring member in one direction results in a rotation of a distal half of the V shaped torsion spring member in the opposite direction.
A model-based, halftone independent method for characterizing a high-addressability four-color printer equipped with a plurality of halftone screens, comprising: printing a target set of basic patches, for example using 2x2 spatial dot arrangements, said target set including patches having at least two resolutions and comprised of a fundamental binary pattern independent of a halftone screen; measuring printer response from all of the patches in the target set including patches having at least two different resolutions; modeling a halftone independent characterization of the printer with a mathematical transformation using the measured response including patches having at least two resolutions; using a 2x2 model, modeling a first halftone dependent characterization of the printer with the mathematical transformation to generate a first predicted result using a halftone screen; comparing, for at least two different resolutions, a measured response of the printer using this halftone screen with the predicted result to define a correction factor corresponding to the halftone screen; and using the 2x2 model, modeling a second halftone dependent characterization of the printer using a predicted response of the fundamental binary pattern and the correction factor and estimating the printer response at a subsequent time. printing a target set of basic patches, for example using 2x2 spatial dot arrangements, said target set including patches having at least two resolutions and comprised of a fundamental binary pattern independent of a halftone screen; measuring printer response from all of the patches in the target set including patches having at least two different resolutions; modeling a halftone independent characterization of the printer with a mathematical transformation using the measured response including patches having at least two resolutions; using a 2x2 model, modeling a first halftone dependent characterization of the printer with the mathematical transformation to generate a first predicted result using a halftone screen; comparing, for at least two different resolutions, a measured response of the printer using this halftone screen with the predicted result to define a correction factor corresponding to the halftone screen; and using the 2x2 model, modeling a second halftone dependent characterization of the printer using a predicted response of the fundamental binary pattern and the correction factor and estimating the printer response at a subsequent time.
System for sterilizing medical instruments, comprising: - a testing station for checking delivered instruments; - an instrument storage area for temporary storage of tested instruments; - a packing station for equipping instrument carriers with instruments from the instrument storage area; - at least one robot for transporting instruments from the testing station to the instrument storage area and/or for equipping instrument carriers at the packing station with instruments from the instrument storage area, in particular on the basis of an operation-specific predetermined packing pattern; and - a sterilizing apparatus (91, 92) for sterilizing instrument carriers equipped with instruments from the packing station, characterized in that the instrument storage area comprises: - an input region and, in particular at a distance therefrom, an output region for the selective output of different instruments; - a storage system for placing an instrument at different storage locations; and - an instrument recognition means for detecting instruments in the output region, in particular for picking up instruments with the at least one robot and/or examining the instruments. - a testing station for checking delivered instruments; - an instrument storage area for temporary storage of tested instruments; - a packing station for equipping instrument carriers with instruments from the instrument storage area; - at least one robot for transporting instruments from the testing station to the instrument storage area and/or for equipping instrument carriers at the packing station with instruments from the instrument storage area, in particular on the basis of an operation-specific predetermined packing pattern; and - a sterilizing apparatus (91, 92) for sterilizing instrument carriers equipped with instruments from the packing station, - an input region and, in particular at a distance therefrom, an output region for the selective output of different instruments; - a storage system for placing an instrument at different storage locations; and - an instrument recognition means for detecting instruments in the output region, in particular for picking up instruments with the at least one robot and/or examining the instruments.