mhurhangee/ep-ind-claims huggingface dataset:
The rotor for a brushless electric motor, suitable for being supported by bearings in the stator cavity coaxially with the stator, where the stator is seated in the inner cavity of the housing and where the outer surface of the rotor carrier body adjoins the magnetic part, shaped like a ring inserted on the carrier body, between the rotor inlet end area and the rotor outlet end area where this magnetic part is fitted with at least two evenly distributed permanent magnets on its outer circumference, wherein the rotor is formed by a hollow cylindrical carrier body with a coaxial cylindrical rotor cavity with the carrier body distributed evenly around the rotor rotational axis, the cavity is open towards the rotor inlet end area into the external area through the inlet opening, which has the same diameter as the inside diameter of the rotor cavity characterized in that at least two axially oriented longitudinal recess-shaped draining channels are formed in the inner surface of the rotor cavity in the part facing the rotor outlet end area, wherein the circle circumscribed by the outer contour of the cross-section thereof has a diameter greater than the diameter of the rotor cavity, while the draining channels are directed into the outlet vents which are provided in the outlet end area of the rotor in the axial direction evenly around the rotor rotation axis and are guided from the rotor cavity to the exterior and further the projection of the cross-section of the outlet vents to a plane perpendicular to the rotational axis of the rotor includes on the one hand, a projection of the cross-section of the draining channels in that plane and, secondly, extends to the projection of the cross-section of the rotor cavity in the same plane.
A method for the production of laminated glass composites with electrically conductive structures by bonding two transparent panes with at least one film A and at least one film B, characterized in that the films A and B are positioned between the two transparent panes and bond them to each other, wherein film A comprises a polyvinyl acetal PA and 0 to 16% by weight of at least one plasticizer WA as well as discrete electrically conductive structures, and film B comprises a polyvinyl acetal PB and at least 16% by weight of at least one plasticizer WB.
A patient monitoring system comprising: a capacitive electrode connectable to a patient to detect an output signal; a signal generator unit arranged to transmit a carrier signal to the capacitive electrode, the carrier signal having a carrier frequency and a carrier amplitude; an amplifier unit arranged to amplify the output signal detected by the capacitive electrode to generate an amplified output signal; a gain determination module arranged to: determine an output amplitude of a carrier frequency portion of the amplified output signal; determine a system gain based on a comparison between the output amplitude and the original carrier amplitude; a voltage determination module arranged to: filter the output signal to isolate a physiological signal detected from the patient; and determine a voltage of the physiological signal based on the system gain. a capacitive electrode connectable to a patient to detect an output signal; a signal generator unit arranged to transmit a carrier signal to the capacitive electrode, the carrier signal having a carrier frequency and a carrier amplitude; an amplifier unit arranged to amplify the output signal detected by the capacitive electrode to generate an amplified output signal; a gain determination module arranged to: determine an output amplitude of a carrier frequency portion of the amplified output signal; determine a system gain based on a comparison between the output amplitude and the original carrier amplitude; determine an output amplitude of a carrier frequency portion of the amplified output signal; determine a system gain based on a comparison between the output amplitude and the original carrier amplitude; a voltage determination module arranged to: filter the output signal to isolate a physiological signal detected from the patient; and determine a voltage of the physiological signal based on the system gain. filter the output signal to isolate a physiological signal detected from the patient; and determine a voltage of the physiological signal based on the system gain.
A keyed containing system, comprising: a container cap, comprising: a cap body comprising a septum, a first side, and a second side opposite the first side, wherein: the first side of the cap body comprises a container coupling element; and the second side of the cap body comprises a keying element comprising at least one annular ring protruding from the second side of the cap body and defining a first space between the annular ring and the septum, and a second space between the annular ring and an outer perimeter of the cap body, wherein the at least one annular ring is disposed concentrically around the septum; and a device comprising a keying element comprising at least one annular groove or well adapted to mate with the at least one annular ring protruding from the second side of the cap body. a container cap, comprising: a cap body comprising a septum, a first side, and a second side opposite the first side, wherein: the first side of the cap body comprises a container coupling element; and a cap body comprising a septum, a first side, and a second side opposite the first side, wherein: the first side of the cap body comprises a container coupling element; and the second side of the cap body comprises a keying element comprising at least one annular ring protruding from the second side of the cap body and defining a first space between the annular ring and the septum, and a second space between the annular ring and an outer perimeter of the cap body, wherein the at least one annular ring is disposed concentrically around the septum; and a device comprising a keying element comprising at least one annular groove or well adapted to mate with the at least one annular ring protruding from the second side of the cap body.
A method for detecting inrush and saturation in a current transformer with an intelligent electronic device, wherein the IED is coupled to the current transformer and the current transformer is connected for measurement of current in a circuit having an electrical equipment protected by the IED, the method steps being performed in the IED, the method comprising: acquiring a current signal from the current transformer and converting the current signal into sampled values; computing an estimated sampled value of the current signal at a first time instance using the sampled values of the current signal; determining an error by obtaining difference between the estimated sampled value of the current signal at the first time instance and a sampled value of current signal at the first time instance from the sampled values; comparing the error to a first threshold value to identify a deviation in the sampled value of the current signal and a second time instance corresponding to an inception of the deviation; applying wavelet filtering on the sampled values occurring after the second time instance to obtain one or more frequency contents occurring in the sampled value occurring after the inception of deviation; comparing the one or more obtained frequency contents with a second threshold to detect an inrush condition at a third time instance; computing rate of change in the sampled values occurring between the inception of deviation and the detected inrush condition; and detecting a saturation in the current transformer on exceeding a predefined third threshold value by the computed rate of change in the sampled values. acquiring a current signal from the current transformer and converting the current signal into sampled values; computing an estimated sampled value of the current signal at a first time instance using the sampled values of the current signal; determining an error by obtaining difference between the estimated sampled value of the current signal at the first time instance and a sampled value of current signal at the first time instance from the sampled values; comparing the error to a first threshold value to identify a deviation in the sampled value of the current signal and a second time instance corresponding to an inception of the deviation; applying wavelet filtering on the sampled values occurring after the second time instance to obtain one or more frequency contents occurring in the sampled value occurring after the inception of deviation; comparing the one or more obtained frequency contents with a second threshold to detect an inrush condition at a third time instance; computing rate of change in the sampled values occurring between the inception of deviation and the detected inrush condition; and detecting a saturation in the current transformer on exceeding a predefined third threshold value by the computed rate of change in the sampled values.
Method for automatically operating a car park (303, 401), - wherein a route to a target position within the car park (303, 401) is determined for autonomous travel of a vehicle in the car park (303, 401) to the target position, and - wherein at least part of the route is blocked to all further vehicles, that is to say also to non-autonomously driving vehicles, before the vehicle drives through the part, so that the vehicle can drive autonomously through the blocked part of the route. - wherein a route to a target position within the car park (303, 401) is determined for autonomous travel of a vehicle in the car park (303, 401) to the target position, and - wherein at least part of the route is blocked to all further vehicles, that is to say also to non-autonomously driving vehicles, before the vehicle drives through the part, so that the vehicle can drive autonomously through the blocked part of the route.
A method of communication, comprising: receiving signals on a specified frequency at an access terminal; maintaining, based on the received signals, a virtual active set for the specified frequency that only includes cells present in a CELL_INFO_CSG_LIST that is dedicated for small-coverage access points; receiving other signals on the specified frequency; and maintaining another virtual active set for the specified frequency for at least one other cell based on the received other signals, wherein the other virtual active set only includes cells present in a CELL_INFO_LIST that is dedicated for non-small-coverage access points. receiving signals on a specified frequency at an access terminal; maintaining, based on the received signals, a virtual active set for the specified frequency that only includes cells present in a CELL_INFO_CSG_LIST that is dedicated for small-coverage access points; receiving other signals on the specified frequency; and maintaining another virtual active set for the specified frequency for at least one other cell based on the received other signals, wherein the other virtual active set only includes cells present in a CELL_INFO_LIST that is dedicated for non-small-coverage access points.
A battery system comprising: at least one first cell, the at least one first cell having a first battery chemistry and exhibiting a first open circuit potential curve; and at least one second cell (104, 106, 108, 110, 112, 114) in series connection with the at least one first cell, the at least one second cell having a second battery chemistry and exhibiting a second open circuit potential, wherein the at least one first cell exhibits an open circuit potential curve with a slope that is greater than the slope of the open circuit potential curve exhibited by the at least one second cell over a range of about 40 percent state of charge to about 60 percent state of charge, a voltmeter in parallel connection with the at least one first cell. characterized by further comprising a coulomb counter in parallel connection with the series connected at least one first cell and at least one second cell, the system configured such that an output of the voltmeter while the at least one first cell is in an open circuit and an output of the coulomb counter is combined to provide a SOC determination. at least one first cell, the at least one first cell having a first battery chemistry and exhibiting a first open circuit potential curve; and at least one second cell (104, 106, 108, 110, 112, 114) in series connection with the at least one first cell, the at least one second cell having a second battery chemistry and exhibiting a second open circuit potential, wherein the at least one first cell exhibits an open circuit potential curve with a slope that is greater than the slope of the open circuit potential curve exhibited by the at least one second cell over a range of about 40 percent state of charge to about 60 percent state of charge, a voltmeter in parallel connection with the at least one first cell. characterized by further comprising a coulomb counter in parallel connection with the series connected at least one first cell and at least one second cell, the system configured such that an output of the voltmeter while the at least one first cell is in an open circuit and an output of the coulomb counter is combined to provide a SOC determination.
A non-pulsatile 24 hours prolonged-release oral solid composition comprising an amount of betahistine, or of a pharmaceutically acceptable salt thereof, equivalent to 48 mg of betahistine dihydrochloride, together with one or more pharmaceutically acceptable excipients or carriers, wherein the composition exhibits a dissolution profile according to which: up to 30% by weight of betahistine is dissolved in 1 hour; from 35% to 45% by weight of betahistine is dissolved in 2 hours; from 46% to 60% by weight of betahistine is dissolved in 4 hours; from 61% to 80% by weight of betahistine is dissolved in 8 hours; from 81% to 97% by weight of betahistine is dissolved in 16 hours; and from 98% to 100% by weight of betahistine is dissolved in 24 hours wherein: the dissolution profile is measured using a USP type I apparatus (basket), placing the composition in 900mL of phosphate buffer having pH 6.8, at 37°C and 100 rpm; the pharmaceutically acceptable excipients or carriers comprise one or more hydrophilic matrix forming agents; and the hydrophilic matrix forming agent is a mixture of hydroxypropylmethylcellulose and carrageenan. up to 30% by weight of betahistine is dissolved in 1 hour; from 35% to 45% by weight of betahistine is dissolved in 2 hours; from 46% to 60% by weight of betahistine is dissolved in 4 hours; from 61% to 80% by weight of betahistine is dissolved in 8 hours; from 81% to 97% by weight of betahistine is dissolved in 16 hours; and from 98% to 100% by weight of betahistine is dissolved in 24 hours wherein: the dissolution profile is measured using a USP type I apparatus (basket), placing the composition in 900mL of phosphate buffer having pH 6.8, at 37°C and 100 rpm; the pharmaceutically acceptable excipients or carriers comprise one or more hydrophilic matrix forming agents; and the hydrophilic matrix forming agent is a mixture of hydroxypropylmethylcellulose and carrageenan. the dissolution profile is measured using a USP type I apparatus (basket), placing the composition in 900mL of phosphate buffer having pH 6.8, at 37°C and 100 rpm; the pharmaceutically acceptable excipients or carriers comprise one or more hydrophilic matrix forming agents; and the hydrophilic matrix forming agent is a mixture of hydroxypropylmethylcellulose and carrageenan.
Method for anchoring a fastening element, comprising the steps: drilling a borehole in a building component by means of a percussively and rotationally driven hollow drill; aspirating drillings and drilling dust produced between an outer side of the hollow drill and a wall of the borehole by means of a vacuum source during the drilling of the borehole; introducing a self-hardening mortar directly through the suction-cleaned borehole and inserting the fastening element into the self-hardening mortar, characterised in that during the drilling of the borehole air is additionally blown through the hollow drill into the borehole and the self-hardening mortar is introduced into the borehole without further cleaning of the borehole. drilling a borehole in a building component by means of a percussively and rotationally driven hollow drill; aspirating drillings and drilling dust produced between an outer side of the hollow drill and a wall of the borehole by means of a vacuum source during the drilling of the borehole; introducing a self-hardening mortar directly through the suction-cleaned borehole and inserting the fastening element into the self-hardening mortar, characterised in that during the drilling of the borehole air is additionally blown through the hollow drill into the borehole and the self-hardening mortar is introduced into the borehole without further cleaning of the borehole.
A filtration medium in the form of a thermally bonded nonwoven structure, the medium comprising of bicomponent fiber blended with glass fiber, characterised in that the glass fiber is selected from the sources comprising an average fiber diameter of about 0.1 to 1 micrometer, 0.3 to 2 micrometers, 0.5 to 5 micrometers, 0.75 to 7 micrometers, 1 to 10 micrometers, 3 to 30 micrometers in a combination of two or more sources thereof, and in that said selected sources include the source which comprises an average fiber diameter of 3 to 30 micrometers.
A piezoelectric thin film that is formed through sputtering and consists essentially of scandium aluminum nitride, characterised in that the piezoelectric thin film has a carbon atomic content between 0.1 at% and 2.5 at%.
A wireless power transmission apparatus comprising: a power provision circuit configured to provide DC power; a first conductive pattern; a second conductive pattern; multiple first switches (702, 703) connected to one end of the first conductive pattern and to one end of the second conductive pattern; multiple second switches (704, 705) connected to the other end of the first conductive pattern; multiple third switches connected to the other end of the second conductive pattern; and a control circuit, wherein the control circuit is configured to control the multiple first switches (702, 703) and the multiple second switches (704, 705) so as to convert the DC power into first AC power and to apply the first AC power to the first conductive pattern, and the control circuit is configured to control the multiple first switches (702, 703) and the multiple third switches (704, 705) so as to convert the DC power into second AC power and to apply the second AC power to the second conductive pattern. a power provision circuit configured to provide DC power; a first conductive pattern; a second conductive pattern; multiple first switches (702, 703) connected to one end of the first conductive pattern and to one end of the second conductive pattern; multiple second switches (704, 705) connected to the other end of the first conductive pattern; multiple third switches connected to the other end of the second conductive pattern; and a control circuit, wherein the control circuit is configured to control the multiple first switches (702, 703) and the multiple second switches (704, 705) so as to convert the DC power into first AC power and to apply the first AC power to the first conductive pattern, and the control circuit is configured to control the multiple first switches (702, 703) and the multiple third switches (704, 705) so as to convert the DC power into second AC power and to apply the second AC power to the second conductive pattern.
A fixing device comprising: a fixing-side rotating member and a pressing-side rotating member which are in contact with each other to fix toner on a recording material while conveying the recording material; and a heating section for heating the fixing-side rotating member, wherein the pressing-side rotating member has at least a core metal and a metal layer provided radially outside the core metal, wherein the pressing-side rotating member has a mold releasing layer radially outside the metal layer, wherein the pressing-side rotating member has a first elastic layer between the core metal and the metal layer, and wherein the pressing-side rotating member has a second elastic layer between the metal layer and the mold releasing layer, characterized in that: the first elastic layer is a low thermal-conduction elastic layer and the second elastic layer is a high thermal-conduction elastic layer, and in that the high thermal-conduction elastic layer is larger in thermal conductivity than the low thermal-conduction elastic layer, in that: the high thermal-conduction elastic layer is 150 to 300 μm thick and the low thermal-conduction elastic layer is 1 mm or more thick, and in that: the low thermal-conduction layer is formed of silicone rubber or silicone sponge. a fixing-side rotating member and a pressing-side rotating member which are in contact with each other to fix toner on a recording material while conveying the recording material; and a heating section for heating the fixing-side rotating member, wherein the pressing-side rotating member has at least a core metal and a metal layer provided radially outside the core metal, wherein the pressing-side rotating member has a mold releasing layer radially outside the metal layer, wherein the pressing-side rotating member has a first elastic layer between the core metal and the metal layer, and
A unit for use in an attachment assembly for attaching a second object to a first object, said unit comprising - a thread-cutting or a thread-forming screw, said screw having a head and a shaft, at least a portion of said shaft comprising a thread, - a retaining element positioned at a perimeter of said shaft of said screw, said retaining element being fixedly attached to said screw at or adjacent to an end of said shaft of said screw, said retaining element being an end cap, characterized in that said retaining element has a flat outer surface as seen along the axial direction without any flange or thread. - a thread-cutting or a thread-forming screw, said screw having a head and a shaft, at least a portion of said shaft comprising a thread, - a retaining element positioned at a perimeter of said shaft of said screw, said retaining element being fixedly attached to said screw at or adjacent to an end of said shaft of said screw,