mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine comprising: a spinner supporting a plurality of blades projecting radially outward from the spinner and configured to rotate about an axis, the spinner comprising: an outer spinner housing; a power generator embedded within the spinner such that the outer spinner housing radially surrounds at least a portion of the power generator; and an electronic control unit in communication with the power generator, characterised in that: the electronic control unit is embedded within the spinner; or, the electronic control unit is positioned within a nacelle radially surrounding a fan section of the turbine engine. a spinner supporting a plurality of blades projecting radially outward from the spinner and configured to rotate about an axis, the spinner comprising: an outer spinner housing; a power generator embedded within the spinner such that the outer spinner housing radially surrounds at least a portion of the power generator; and an electronic control unit in communication with the power generator, an outer spinner housing; a power generator embedded within the spinner such that the outer spinner housing radially surrounds at least a portion of the power generator; and an electronic control unit in communication with the power generator, characterised in that: the electronic control unit is embedded within the spinner; or, the electronic control unit is positioned within a nacelle radially surrounding a fan section of the turbine engine. the electronic control unit is embedded within the spinner; or, the electronic control unit is positioned within a nacelle radially surrounding a fan section of the turbine engine.
Rotor of an electrical machine, in particular of an electric generator, wherein - the rotor comprises a plurality of circumferentially arranged permanent magnets attached to a rotor back part, - the magnets have a decreasing radial thickness at their circumferential edge portions, - adjacent permanent magnets comprise a spacing between each other, and wherein - a magnetic shield at least partially covers the spacing between two adjacent permanent magnets and at least partially covers the circumferential edge portions, such that alternative flux paths for the armature reaction field are created, - the magnetic shield is connected with the rotor back part by means of a support element, - the support element comprises a cavity or is made of a non-magnetic material. - the rotor comprises a plurality of circumferentially arranged permanent magnets attached to a rotor back part, - the magnets have a decreasing radial thickness at their circumferential edge portions, - adjacent permanent magnets comprise a spacing between each other, and wherein - a magnetic shield at least partially covers the spacing between two adjacent permanent magnets and at least partially covers the circumferential edge portions, such that alternative flux paths for the armature reaction field are created, - the magnetic shield is connected with the rotor back part by means of a support element, - the support element comprises a cavity or is made of a non-magnetic material.
A bit for drilling tool, said bit comprising a bit body having a drilling face and a face for attaching the bit to a rotor assembly of the drilling tool, said bit body delimiting a through channel for passing the fluid flow connecting the attachment face to the drilling face by opening at a circular central face opening (231A1) of the drilling face, the drilling face comprising an outer surface connecting the central face opening (231A1) to the attachment face and from which a plurality of drilling members evenly distributed on said outer surface extend, each drilling member comprising a fin, extending radially from the outer surface from the attachment face into the central face opening (231A1), and a plurality of drilling teeth extending from said fin by being disposed side-by-side between a first drilling tooth located at the end of the drilling face and a last drilling tooth located on the side of the attachment face, and each comprising a base (233B1) and a cutting element (233B2) disposed at the end of said base (233B1), the bit comprising a high-voltage electrode disposed in the through channel, in the center of the central face opening (231A1) recessed from the first drilling tooth of each drilling member, each drilling member comprising a ground electrode placed at the end of the fin, at said high-voltage electrode, so as to extend at least partially in line with the central face opening (231A1) recessed from the first drilling tooth of said drilling member.
A vehicle seat with at least one adjusting device for the longitudinal adjustment of a vehicle seat, wherein the adjusting device (1A, 1B) comprising the following: - at least one rail for defining a longitudinal seat axis along which a seat base of the vehicle seat is adjustable, and for supporting at least one adjusting unit (2.1, 2.2) of the adjusting device (1A, 1B), and - at least one shiftably guided adjusting unit (2.1, 2.2) adjustable by means of a spindle and a spindle nut meshing therewith, to which the seat base is to be fixed in order to be adjustable along the longitudinal seat axis, and - a spindle holding member which is fixed to the rail and on which a portion of the spindle is held, characterized in that at least one adjusting unit (2.1, 2.2) is shiftably mounted on the at least one rail via at least two supporting elements (22, 25; 23, 24) and the spindle is supported on the at least two supporting elements (22, 25; 23, 24) and extending through between the at least two supporting elements (22, 25; 23, 24). - at least one rail for defining a longitudinal seat axis along which a seat base of the vehicle seat is adjustable, and for supporting at least one adjusting unit (2.1, 2.2) of the adjusting device (1A, 1B), and - at least one shiftably guided adjusting unit (2.1, 2.2) adjustable by means of a spindle and a spindle nut meshing therewith, to which the seat base is to be fixed in order to be adjustable along the longitudinal seat axis, and - a spindle holding member which is fixed to the rail and on which a portion of the spindle is held,
A method of producing an absolute pressure type pressure sensor, the method comprising: a step of arranging a relative pressure type pressure sensor, that has a reference pressure chamber therein, and a pressure guide hole whose first end communicates with said reference pressure chamber and whose second end opens to the atmosphere, inside a vacuum chamber in an atmospheric pressure state with the second end of said pressure guide hole opening upward; a step of placing a solder piece onto the second end of said pressure guide hole in the atmospheric pressure state, the second end of said pressure guide hole being arranged upward from the first end of said pressure guide hole; a step of drawing a vacuum inside said vacuum chamber in which said relative pressure type pressure sensor with said solder piece is arranged; and a step of heating said solder piece until said solder piece melts and the pressure guide hole is blocked by said solder piece, and characterized in that in the step of heating said solder piece, a heater heats said solder piece by heating said relative pressure type pressure sensor via a holder on which is mounted said relative pressure type pressure sensor, the heater being in contact with a bottom face of said holder. a step of arranging a relative pressure type pressure sensor, that has a reference pressure chamber therein, and a pressure guide hole whose first end communicates with said reference pressure chamber and whose second end opens to the atmosphere, inside a vacuum chamber in an atmospheric pressure state with the second end of said pressure guide hole opening upward; a step of placing a solder piece onto the second end of said pressure guide hole in the atmospheric pressure state, the second end of said pressure guide hole being arranged upward from the first end of said pressure guide hole; a step of drawing a vacuum inside said vacuum chamber in which said relative pressure type pressure sensor with said solder piece is arranged; and a step of heating said solder piece until said solder piece melts and the pressure guide hole is blocked by said solder piece, and characterized in that in the step of heating said solder piece, a heater heats said solder piece by heating said relative pressure type pressure sensor via a holder on which is mounted said relative pressure type pressure sensor, the heater being in contact with a bottom face of said holder.
Method for operating a longitudinally-guiding driver assistance system of a motor vehicle, wherein the speed of the motor vehicle is regulated as a function of at least one regulating data item, wherein, as additional regulating data, bend data in relation to at least one bend to be passed by the motor vehicle as the next bend are taken into account during the regulation process and wherein a comfort bend speed is determined taking into account the bend data, wherein a target speed of the motor vehicle is determined from the comfort bend speed at a certain point of the bend and is taken into account when regulating the speed, characterised in that when the comfort bend speed is less than the current speed of the motor vehicle, the comfort bend speed is selected as the target speed when the comfort bend speed differs from the current speed by less than a predetermined threshold value, and when the comfort bend speed differs from the current speed by more than a predetermined threshold value, the current speed minus the predetermined threshold value is selected or in that when the comfort bend speed is less than the current speed of the motor vehicle, the current speed minus a predetermined percentage proportion of the gap between the current speed and the comfort bend speed is selected as the target speed.
Electric conductor element comprising a carrier member, an electric conductor, and a row of openings provided in the carrier member for threading through the electric conductor, characterized in that at least one row of openings is provided in the carrier member, wherein consecutive openings are separated from one another by a predetermined distance, and wherein the electric conductor is threaded through one row of openings.
A MEMS accelerometer, comprising: one or more anchors; a proof mass within a MEMS device layer comprising a plurality of contiguous portions (372, 374) that rotate collectively about a rotational axis in response to a linear acceleration along a sense axis, wherein the plurality of contiguous portions (372, 374) of the proof mass comprises: a symmetric portion that is symmetric about a symmetry axis wherein the symmetry axis is perpendicular to the rotational axis; and an asymmetric portion that is asymmetric about the symmetry axis; wherein the MEMS accelerometer further comprises one or more springs (304, 316) within the MEMS device layer and coupling the proof mass to the one or more anchors, wherein the one or more springs (304, 316) allow for rotation of the proof mass about the rotational axis in response to the linear acceleration along the sense axis; and at least one bump stop (340, 342) located adjacent to the asymmetric portion to limit rotational motion of the proof mass in a plane of the MEMS device layer in response to a force in said plane; wherein the asymmetric portion does not extend through the symmetry axis and does not extend through the rotational axis. one or more anchors; a proof mass within a MEMS device layer comprising a plurality of contiguous portions (372, 374) that rotate collectively about a rotational axis in response to a linear acceleration along a sense axis, wherein the plurality of contiguous portions (372, 374) of the proof mass comprises: a symmetric portion that is symmetric about a symmetry axis wherein the symmetry axis is perpendicular to the rotational axis; and an asymmetric portion that is asymmetric about the symmetry axis; wherein the MEMS accelerometer further comprises a symmetric portion that is symmetric about a symmetry axis wherein the symmetry axis is perpendicular to the rotational axis; and an asymmetric portion that is asymmetric about the symmetry axis; wherein the MEMS accelerometer further comprises one or more springs (304, 316) within the MEMS device layer and coupling the proof mass to the one or more anchors, wherein the one or more springs (304, 316) allow for rotation of the proof mass about the rotational axis in response to the linear acceleration along the sense axis; and at least one bump stop (340, 342) located adjacent to the asymmetric portion to limit rotational motion of the proof mass in a plane of the MEMS device layer in response to a force in said plane; wherein the asymmetric portion does not extend through the symmetry axis and does not extend through the rotational axis.
A floor cleaning system comprising: a floor cleaning machine comprising: at least one drive wheel operable to drive the floor cleaning machine across a floor surface to be cleaned; a cleaning head being configured to clean the floor surface as the floor cleaning machine is driven across the floor surface by the at least one drive wheel; a cleaning fluid reservoir; a waste fluid reservoir; and a docking station to which the floor cleaning machine is configured to dock, the docking station comprising: a platform comprising a drain, the platform being arranged to receive the floor cleaning machine in a position in which at least a portion of an underside of the floor cleaning machine is positioned over the platform; characterised in that at least one flushing orifice is arranged to deliver a device cleaning fluid to at least the cleaning head of the floor cleaning machine. a floor cleaning machine comprising: at least one drive wheel operable to drive the floor cleaning machine across a floor surface to be cleaned; a cleaning head being configured to clean the floor surface as the floor cleaning machine is driven across the floor surface by the at least one drive wheel; a cleaning fluid reservoir; a waste fluid reservoir; and at least one drive wheel operable to drive the floor cleaning machine across a floor surface to be cleaned; a cleaning head being configured to clean the floor surface as the floor cleaning machine is driven across the floor surface by the at least one drive wheel; a cleaning fluid reservoir; a waste fluid reservoir; and a docking station to which the floor cleaning machine is configured to dock, the docking station comprising: a platform comprising a drain, the platform being arranged to receive the floor cleaning machine in a position in which at least a portion of an underside of the floor cleaning machine is positioned over the platform; characterised in that at least one flushing orifice is arranged to deliver a device cleaning fluid to at least the cleaning head of the floor cleaning machine.
A receiver system, comprising: a primary front end circuit functionality (26,34,42); a backup front end circuit functionality (28,36,44) for said primary front end circuit functionality (26,34,42); a measurement circuit configured to measure a plurality of operational parameter values of the primary front end circuit functionality (26,34,42); and characterized by a fault detection circuit configured to determine a level of equivalence between the operation of the primary front end circuit functionality (26,34,42) and a reference functionality, said determined level of equivalence being based on a weighted comparison of said measured plurality of operational parameter values of the primary front end circuit functionality (26,34,42) to a corresponding plurality of reference operational parameter values for the reference functionality, said fault detection circuit being further configured to identify a fault in said primary front end circuit functionality (26,34,42) based on the determined level of equivalence and to activate the backup front end circuit functionality (28, 36, 44) in response thereto. a primary front end circuit functionality (26,34,42); a backup front end circuit functionality (28,36,44) for said primary front end circuit functionality (26,34,42); a measurement circuit configured to measure a plurality of operational parameter values of the primary front end circuit functionality (26,34,42); and characterized by a fault detection circuit configured to determine a level of equivalence between the operation of the primary front end circuit functionality (26,34,42) and a reference functionality, said determined level of equivalence being based on a weighted comparison of said measured plurality of operational parameter values of the primary front end circuit functionality (26,34,42) to a corresponding plurality of reference operational parameter values for the reference functionality, said fault detection circuit being further configured to identify a fault in said primary front end circuit functionality (26,34,42) based on the determined level of equivalence and to activate the backup front end circuit functionality (28, 36, 44) in response thereto.
Process for precipitating a mixed carbonate or mixed (oxy)hydroxide comprising nickel from an aqueous solution comprising a nickel salt and at least one more transition metal selected from manganese and cobalt salts, wherein such process is carried out in a vessel comprising a vessel body, one or more elements selected from draft tubes and guide vanes, at least one stirrer whose pressure zone is in or between element(s), and wherein the process comprises the step of simultaneously adding said solution comprising a nickel salt in or between element(s) and a solution of alkali metal carbonate or hydroxide in or between or outside element(s). a vessel body, one or more elements selected from draft tubes and guide vanes, at least one stirrer whose pressure zone is in or between element(s),
A communication method, comprising: sending, by a source access network element, a handover request to a target access network element, wherein the handover request comprises information of a unicast quality of service, QoS, flow of a protocol data unit, PDU, session, and the unicast QoS flow corresponds to a multicast QoS flow of a multicast broadcast service, MBS; receiving, by the source access network element, a handover response from the target access network element, wherein the handover response comprises configuration information of a radio resource corresponding to the unicast QoS flow; and sending, by the source access network element, the configuration information of the radio resource to a terminal device, wherein the configuration information of the radio resource is used for the terminal device accessing the target access network element on the radio resource. sending, by a source access network element, a handover request to a target access network element, wherein the handover request comprises information of a unicast quality of service, QoS, flow of a protocol data unit, PDU, session, and the unicast QoS flow corresponds to a multicast QoS flow of a multicast broadcast service, MBS; receiving, by the source access network element, a handover response from the target access network element, wherein the handover response comprises configuration information of a radio resource corresponding to the unicast QoS flow; and sending, by the source access network element, the configuration information of the radio resource to a terminal device, wherein the configuration information of the radio resource is used for the terminal device accessing the target access network element on the radio resource.
A method of manufacturing a Group-III nitride semiconductor light-emitting device, comprising: activating a gas including a Group-V element and a metal material with plasma, thereby reacting the gas with the metal material, to form, on a substrate, an intermediate layer that is made of a Group-III nitride compound; and stacking n-type semiconductor layer that is made of a Group-III nitride semiconductor, a light-emitting layer, and a p-type semiconductor layer, sequentially on the intermediate layer, said n-type semiconductor layer comprises an undercoat layer, an n-type contact layer and an n-type clad layer, said stacking comprises forming the undercoat layer in an undoped state without supplying a doping element, stacking the undercoat layer on the intermediate layer and stacking the n-type contact layer on the undercoat layer, the n-type contact layer having the same composition as that of the undercoat layer except that the n-type contact layer is doped with an n-type impurity, wherein the Group-V element is nitrogen, the gas fraction of nitrogen in the gas is controlled within a range of more than 20 % to less than 99 % during forming of the intermediate layer, and the intermediate layer is formed into a single crystal structure. activating a gas including a Group-V element and a metal material with plasma, thereby reacting the gas with the metal material, to form, on a substrate, an intermediate layer that is made of a Group-III nitride compound; and stacking n-type semiconductor layer that is made of a Group-III nitride semiconductor, a light-emitting layer, and a p-type semiconductor layer, sequentially on the intermediate layer, said n-type semiconductor layer comprises an undercoat layer, an n-type contact layer and an n-type clad layer, said stacking comprises forming the undercoat layer in an undoped state without supplying a doping element, stacking the undercoat layer on the intermediate layer and stacking the n-type contact layer on the undercoat layer, the n-type contact layer having the same composition as that of the undercoat layer except that the n-type contact layer is doped with an n-type impurity, wherein the Group-V element is nitrogen, the gas fraction of nitrogen in the gas is controlled within a range of more than 20 % to less than 99 % during forming of the intermediate layer, and the intermediate layer is formed into a single crystal structure.
Vane cell pump or roller cell pump with a double-stroke delivery contour, wherein the delivery contour has at least one rise region which constitutes a suction region, at least one large circle region which constitutes a first separating region, at least one fall region which constitutes a pressure region, and at least one small circle region which constitutes a further separating region, and the pump has, within the delivery contour, a rotor with radially displaceable vanes or rollers in radial slots, characterized in that the angular range of the large circle of the delivery contour is larger than the angular range of the fall region, and in that the angular range of the rise region, the so-called suction region, is larger than the angular range of the fall region.
Makeup and/or care composition for the lips in the form of a liquid water-in-oil emulsion comprising: a. at least one film-forming polymer chosen from vinyl polymers comprising at least one carbosiloxane dendrimer-based unit, b. at least one hydrocarbon-based or silicone-based compound that is pasty at 23°C, c. water, d. at least one non-volatile oil. a. at least one film-forming polymer chosen from vinyl polymers comprising at least one carbosiloxane dendrimer-based unit, b. at least one hydrocarbon-based or silicone-based compound that is pasty at 23°C, c. water, d. at least one non-volatile oil.