mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: storing, in a database of a device, device data and device telemetry control information associated with the device data, wherein the device telemetry control information is configured to control exporting of the device data from the database, wherein the device data includes data associated with operation of the device; receive, by the device, a device telemetry control message configured to request control over the device telemetry control information; and update, at the device based on the device telemetry control message, the device telemetry control information; and exporting, by the device, the device data from the database based on the device telemetry control information. at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: storing, in a database of a device, device data and device telemetry control information associated with the device data, wherein the device telemetry control information is configured to control exporting of the device data from the database, wherein the device data includes data associated with operation of the device; receive, by the device, a device telemetry control message configured to request control over the device telemetry control information; and update, at the device based on the device telemetry control message, the device telemetry control information; and exporting, by the device, the device data from the database based on the device telemetry control information. storing, in a database of a device, device data and device telemetry control information associated with the device data, wherein the device telemetry control information is configured to control exporting of the device data from the database, wherein the device data includes data associated with operation of the device; receive, by the device, a device telemetry control message configured to request control over the device telemetry control information; and update, at the device based on the device telemetry control message, the device telemetry control information; and exporting, by the device, the device data from the database based on the device telemetry control information.
A coating layer for an anti-glare film, comprising: a binder resin, organic particulates which is one or more selected from polystyrene, polymethylmethacrylate, polymethylacrylate, polyacrylate, polyacrylate-co-styrene, polymethylacrylate-co-styrene, polymethylmethacrylate-co-styrene, polycarbonate, polyvinyl chloride, polybutyleneterephthalate, polyethyleneterephthalate, polyamides, polyimides, polysulfone, polyphenylene oxide, polyacetal, epoxy resin, phenol resin, silicon resin, melamine resin, benzoguamine, polydivinylbenzene, polydivinylbenzene-co-styrene, polydivinylbenzene-co-acrylate, polydiallylphthalate and triallylisocyanurate polymer, or two or more copolymers thereof, and inorganic particulates which is one or more selected from the group consisting of silica, silicon particle, aluminum hydroxide, magnesium hydroxide, alumina, zirconia and titania, wherein differences between refractive indexes of the binder resin and the organic particulates and between refractive indexes of the binder resin and inorganic particulates are each 0.3 or less, wherein the organic particulate has a spherical shape, and a particle diameter is in the range of 1 to 7 μm, wherein the inorganic particulates has a spherical shape, a particle diameter is in the range of 2 to 10 μm, and wherein the organic particulates and the inorganic particulates form a single particle layer without an overlapping phenomenon of the organic and the inorganic particulates. a binder resin, organic particulates which is one or more selected from polystyrene, polymethylmethacrylate, polymethylacrylate, polyacrylate, polyacrylate-co-styrene, polymethylacrylate-co-styrene, polymethylmethacrylate-co-styrene, polycarbonate, polyvinyl chloride, polybutyleneterephthalate, polyethyleneterephthalate, polyamides, polyimides, polysulfone, polyphenylene oxide, polyacetal, epoxy resin, phenol resin, silicon resin, melamine resin, benzoguamine, polydivinylbenzene, polydivinylbenzene-co-styrene, polydivinylbenzene-co-acrylate, polydiallylphthalate and triallylisocyanurate polymer, or two or more copolymers thereof, and inorganic particulates which is one or more selected from the group consisting of silica, silicon particle, aluminum hydroxide, magnesium hydroxide, alumina, zirconia and titania, wherein differences between refractive indexes of the binder resin and the organic particulates and between refractive indexes of the binder resin and inorganic particulates are each 0.3 or less, wherein the organic particulate has a spherical shape, and a particle diameter is in the range of 1 to 7 μm, wherein the inorganic particulates has a spherical shape, a particle diameter is in the range of 2 to 10 μm, and wherein the organic particulates and the inorganic particulates form a single particle layer without an overlapping phenomenon of the organic and the inorganic particulates.
Compounds of the formulae ( cis -I) and ( trans -I) in which R 1 is OR 2, R 2 is alkyl, HX is HCl, H 2 SO 4, H 3 PO 4, HCOOH, HO 2 CCO 2 H, p-toluenesulphonic acid or methanesulphonic acid. R 1 is OR 2, R 2 is alkyl, HX is HCl, H 2 SO 4, H 3 PO 4, HCOOH, HO 2 CCO 2 H, p-toluenesulphonic acid or methanesulphonic acid.
Colour changer (10, 50), comprising • a first tubular hollow body (12, 52) having a plurality of colour supply channels (14, 16, 18, 20, 22, 56, 58), which are led through the wall of the first hollow body (12, 52) to an inner central channel and which, at their end facing away from the central channel, are provided to be connected to a colour supply system (26, 28, 30, 32, 34, 60), • a second tubular hollow body (36, 54) with an external cross section matched exactly to the internal cross section of the central channel, and an inlet channel (38, 62) with a cross section matched approximately to the cross section of the colour supply channels (14, 16, 18, 20, 22, 56, 58), which inlet channel is led through the wall of the second hollow body (36, 54) into the channel-like interior (40, 76) of the latter, one end of which can be or is sealed hermetically and at the other end of which connecting means are provided, the second hollow body (36, 54) being at least partly arranged within the central channel of the first hollow body (12, 54) such that it can be moved (42, 44, 48), so that, depending on the relative position of the two hollow bodies in relation to each other, the inlet channel (38, 62) is optionally connected to one of the colour supply channels (14, 16, 18, 20, 22, 56, 58), characterized in that the second hollow body (36, 54) can be moved along the axial extent of the central channel. • a first tubular hollow body (12, 52) having a plurality of colour supply channels (14, 16, 18, 20, 22, 56, 58), which are led through the wall of the first hollow body (12, 52) to an inner central channel and which, at their end facing away from the central channel, are provided to be connected to a colour supply system (26, 28, 30, 32, 34, 60), • a second tubular hollow body (36, 54) with an external cross section matched exactly to the internal cross section of the central channel, and an inlet channel (38, 62) with a cross section matched approximately to the cross section of the colour supply channels (14, 16, 18, 20, 22, 56, 58), which inlet channel is led through the wall of the second hollow body (36, 54) into the channel-like interior (40, 76) of the latter, one end of which can be or is sealed hermetically and at the other end of which connecting means are provided,
Electrical and mechanical assembly of a wire conductor and a flat conductor, the flat conductor lying at least partly in a median plane, the flat conductor being pierced by a slot and the wire conductor being made of a single wire, characterised in that the wire conductor is riveted to the flat conductor by the pressing of this wire conductor through the slot of the flat conductor.
A ventilation system for ventilating an accommodation space, the ventilation system being operable in a passive ventilation mode and an active ventilation mode, the system comprising: a housing having an air inlet and an air outlet; a damper arrangement contained within the housing; a sensor for outputting a signal indicative of an actual air flow rate in the system; a controller for automatically turning on a ventilation fan to switch the system to the active ventilation mode if the actual air flow rate indicated by the sensor signal when the system is in the passive ventilation mode is unable to meet a target air flow rate, and wherein, in the passive ventilation mode and/or the active ventilation mode, the controller controls the damper arrangement to modulates the actual air flow rate in dependence upon the sensor's signal to attempt to make the actual air flow rate meet the target air flow rate, characterised in that: the damper arrangement comprises a first damper plate that defines an aperture through which air flowing through the housing can flow and a second damper plate opposing the first damper plate and means for causing relative linear movement between the damper plates (17, 18) to vary the size of the area of the housing through which air flows. a housing having an air inlet and an air outlet; a damper arrangement contained within the housing; a sensor for outputting a signal indicative of an actual air flow rate in the system; a controller for automatically turning on a ventilation fan to switch the system to the active ventilation mode if the actual air flow rate indicated by the sensor signal when the system is in the passive ventilation mode is unable to meet a target air flow rate, and wherein, in the passive ventilation mode and/or the active ventilation mode, the controller controls the damper arrangement to modulates the actual air flow rate in dependence upon the sensor's signal to attempt to make the actual air flow rate meet the target air flow rate, characterised in that: the damper arrangement comprises a first damper plate that defines an aperture through which air flowing through the housing can flow and a second damper plate opposing the first damper plate and means for causing relative linear movement between the damper plates (17, 18) to vary the size of the area of the housing through which air flows. the damper arrangement comprises a first damper plate that defines an aperture through which air flowing through the housing can flow and a second damper plate opposing the first damper plate and means for causing relative linear movement between the damper plates (17, 18) to vary the size of the area of the housing through which air flows.
An apparatus comprising a signal interface for receiving a first signal indicative of electromagnetic phenomena related to cardiac activity and a second signal indicative of cardiovascular motion, and a processing device coupled to the signal interface and configured to: - extract from the first signal a first wave pattern repeating on a heart-beat rate and from the second signal a second wave pattern repeating on the heart-beat rate, characterized in that the processing device is further configured to: - form timing data, each timing value of which being indicative of a time period from a reference point of the first wave pattern belonging to one heart-beat period to a reference point of the second wave pattern belonging to the same heart-beat period, and - determine correlation between the timing data and pacing data indicative of the heart-beat rate, the correlation being indicative of cardiac malfunction and abnormality. - extract from the first signal a first wave pattern repeating on a heart-beat rate and from the second signal a second wave pattern repeating on the heart-beat rate, - form timing data, each timing value of which being indicative of a time period from a reference point of the first wave pattern belonging to one heart-beat period to a reference point of the second wave pattern belonging to the same heart-beat period, and - determine correlation between the timing data and pacing data indicative of the heart-beat rate, the correlation being indicative of cardiac malfunction and abnormality.
A medical device for detecting a cardiac event, comprising: a plurality of electrodes (18, 20, 22, 25) sensing cardiac signals from a plurality of electrodes, the plurality of electrodes forming a first sensing vector sensing a first interval of the cardiac signal comprising a plurality of beats during a predetermined time period and a second sensing vector simultaneously sensing a second interval of the cardiac signal comprising a plurality of beats during the predetermined time period; and a processor programmed to determine, for each of the first interval and the second interval, whether each beat of the plurality of beats is one of a match beat and a non-match beat, determine whether each beat of the plurality of beats is one of a high confidence beat and a low confidence beat, and characterized by the processor being further programmed to determine, for each of the first interval and the second interval, the number of beats determined to be both a non-match beat and a high confidence beat is greater than a non-match threshold, identify each of the first interval and the second interval as being one of shockable and not shockable in response to the number of beats identified as being both a non-match beat and a high confidence beat, and determine whether to deliver therapy for the cardiac event in response to identifying of each of the first interval and the second interval as being one of shockable and not shockable. a plurality of electrodes (18, 20, 22, 25) sensing cardiac signals from a plurality of electrodes, the plurality of electrodes forming a first sensing vector sensing a first interval of the cardiac signal comprising a plurality of beats during a predetermined time period and a second sensing vector simultaneously sensing a second interval of the cardiac signal comprising a plurality of beats during the predetermined time period; and a processor programmed to determine, for each of the first interval and the second interval, whether each beat of the plurality of beats is one of a match beat and a non-match beat, determine whether each beat of the plurality of beats is one of a high confidence beat and a low confidence beat, and characterized by the processor being further programmed to determine, for each of the first interval and the second interval, the number of beats determined to be both a non-match beat and a high confidence beat is greater than a non-match threshold, identify each of the first interval and the second interval as being one of shockable and not shockable in response to the number of beats identified as being both a non-match beat and a high confidence beat, and determine whether to deliver therapy for the cardiac event in response to identifying of each of the first interval and the second interval as being one of shockable and not shockable.
A surge protection device for installation on a busbar system, including a housing having a bottom-side coupling region for mechanical and electrical contacting to busbars, surge arresters for protecting low-voltage supply systems, which are electrically connected inside the housing, and a housing recess which is formed on a housing longitudinal side and extends substantially perpendicularly to the busbar system and in the region of a housing dome, wherein an electrical component can be arranged in the housing recess, characterized in that connecting terminals are formed within the housing, adjacent to the housing dome and reaching as far as the housing recess, which allow an electrical contacting of the electrical component, wherein grooves that are accessible from the upper side of the dome are provided on the side of the housing dome facing the housing recess, in order to fix a tamper protection cover for an electrical component which can be arranged in the housing recess or a reactive component which fills the housing recess.
A diagnosis imaging apparatus comprising: an image processing apparatus for acquiring a first image including a first contour of a heart wall based on first image data of a heart of a subject acquired when the subject is subjected to a first stress intensity level, acquiring a second image including a second contour of the heart wall based on second image data of the heart of the subject acquired when the subject is subjected to a second stress intensity level, and acquiring a third image representing overlapping of the first contour included in the first image with the second contour included in the second image; and a display apparatus for displaying the third image, characterised in that the second stress intensity level is different from the first stress intensity level. an image processing apparatus for acquiring a first image including a first contour of a heart wall based on first image data of a heart of a subject acquired when the subject is subjected to a first stress intensity level, acquiring a second image including a second contour of the heart wall based on second image data of the heart of the subject acquired when the subject is subjected to a second stress intensity level, and acquiring a third image representing overlapping of the first contour included in the first image with the second contour included in the second image; and a display apparatus for displaying the third image,
A freeze-dried composition comprising (i) an amphiphilic material comprising a phospholipid and (ii) a polyethylene glycol having a molecular weight comprised between 2000 and 10000 g/mol which, upon reconstitution with a pharmaceutically acceptable solution in the presence of a biocompatible gas, provides a suspension of calibrated gas-filled microvesicles, wherein said reconstituted suspension of microvesicles has a geometric standard deviation value of at least 1.22 or lower and wherein said polyethylene glycol has a concentration between 12 and 25% (w/v%).
Ventilation device for ventilating a motor vehicle tank, comprising a filler pipe, a ventilation line, which, at a first end, can be fluidically connected to the motor vehicle tank and, at a second end opposite the first end, is fluidically connected to the filler pipe via a ventilation inflow lying, wherein the ventilation inflow on the filler pipe is configured in the installation position at the top of the filler pipe, so that the fuel vapour mixture can fall into the filler pipe and a degassing line, which, at a first end, is fluidically connected to the filler pipe via a degassing outflow lying, in the installation position, at the top of the filler pipe, further comprising a guide arc, which is disposed in the filler pipe and is arranged and shaped such that a vapour passing through the ventilation inflow into the filler pipe is guided between the inner wall of the filler pipe and the guide arc along the periphery of the filler pipe, so that a gas component of the entering vapour escapes through the degassing outflow and a liquid component of the entering vapour flows off through the filler pipe characterized in that the ventilation inflow and the degassing outflow are configured on a common connecting nipple on the filler pipe, wherein the guide arc is configured on the common connecting nipple.
A shading device having at least one awning and having at least one winding device, which is provided for winding and unwinding the awning and which has a rigging that is stretched taut along a side (9.1) or a diagonal (9.2) of the awning, which rigging is rotationally coupled to the windable and unwindable awning, characterized in that the rigging is embodied as torsionally rigid or low-torsion and is rotationally coupled to the awning over the entire length of the side (9.1) or diagonal (9.2) of the awning.
A method for transmitting data in a wireless communication system, the method comprising: generating: a first set of space-time streams for a first station, STA; and a second set of space-time streams for a second STA; generating: a first set of long training fields for the first STA, wherein the first set of long training fields includes at least two more long training fields than space-time streams in the first set of space-time streams; and a second set of long training fields for the second STA, wherein the second set of space-time streams includes more space-time streams than the first set of space-time streams, wherein the second set of long training fields includes the same number of long training fields as the first set of long training fields; and transmitting the first set of long training fields and the first set of space-time streams to the first STA; and the second set of long training fields and the second set of space-time streams to the second STA, wherein the first set of long training fields and the second set of long training fields are transported in orthogonal frequency division multiple access, OFDMA, long training field sections that are aligned in the time domain. generating: a first set of space-time streams for a first station, STA; and a second set of space-time streams for a second STA; generating: a first set of long training fields for the first STA, wherein the first set of long training fields includes at least two more long training fields than space-time streams in the first set of space-time streams; and a second set of long training fields for the second STA, wherein the second set of space-time streams includes more space-time streams than the first set of space-time streams, wherein the second set of long training fields includes the same number of long training fields as the first set of long training fields; and transmitting the first set of long training fields and the first set of space-time streams to the first STA; and the second set of long training fields and the second set of space-time streams to the second STA, wherein the first set of long training fields and the second set of long training fields are transported in orthogonal frequency division multiple access, OFDMA, long training field sections that are aligned in the time domain.
An electric motor for industrial and model-making applications having a rotary casing comprising front face, magnetic ring and rear face, wherein there is a system of output cooling ducts in its rotary casing, namely in the magnet ring between magnets, the said output cooling ducts are passing through magnet ring, and wherein this electric motor also contains at least one cooling fluid input in its middle load-bearing part and that this middle load-bearing part contains a cavity and a cooling fluid passage leading into the intermediate space between the parts of the rotary casing and the static parts of the electric motor, and the rotary casing being fitted on the middle load-bearing part using at least one bearing so that the casing can rotate.
A waste to energy incineration plant comprising a fluid heating heat exchanger, said incineration plant in operation producing a flue gas, said heat exchanger comprising at least one heat exchanger component comprising a wall having a first side in contact with said fluid, and a second side in contact with said flue gas, said second side being provided with a protective coating for protecting said heat exchanger component against corrosion caused by corrosive compounds entrained or comprised by said flue gas, characterized in that said protective oxide comprises predominantly α-Al 2 O 3, in that said protective oxide is a scale being up to 10 μm thick, and in that said heat exchanger component (40 I) comprises a base material (44 I) coated by a precursor material forming said scale upon oxidation.