mhurhangee/ep-ind-claims huggingface dataset:
A resolver stator comprising: a stator core including a yoke having an annular shape, and a plurality of teeth projecting inward in a radial direction from the yoke; a plurality of coils wound around the plurality of teeth, respectively; a connecting wire that electrically connects the plurality of coils to each other; and a guide hook that guides the connecting wire, wherein the resolver stator has a first axial direction parallel to a rotation axis of the resolver stator, and a second axial direction opposite to the first axial direction, the plurality of coils include a first coil and a second coil, the first coil and the second coil being adjacent to each other in a circumferential direction, at least a part of the connecting wire extends from a first coil outside space to a second coil outside space, the first coil outside space being located outward in the radial direction relative to the first coil and located on the first axial direction side relative to the stator core, the second coil outside space being located outward in the radial direction relative to the second coil and located on the first axial direction side relative to the stator core, the connecting wire is hooked to the guide hook so as to be curved in a convex shape projecting in the second axial direction while extending from the first coil outside space to the second coil outside space, and the guide hook projects inward in the radial direction and faces the connecting wire in the radial direction, characterized in that the guide hook projects in the second axial direction. a stator core including a yoke having an annular shape, and a plurality of teeth projecting inward in a radial direction from the yoke; a plurality of coils wound around the plurality of teeth, respectively; a connecting wire that electrically connects the plurality of coils to each other; and a guide hook that guides the connecting wire, wherein the resolver stator has a first axial direction parallel to a rotation axis of the resolver stator, and a second axial direction opposite to the first axial direction, the plurality of coils include a first coil and a second coil, the first coil and the second coil being adjacent to each other in a circumferential direction, at least a part of the connecting wire extends from a first coil outside space to a second coil outside space, the first coil outside space being located outward in the radial direction relative to the first coil and located on the first axial direction side relative to the stator core, the second coil outside space being located outward in the radial direction relative to the second coil and located on the first axial direction side relative to the stator core, the connecting wire is hooked to the guide hook so as to be curved in a convex shape projecting in the second axial direction while extending from the first coil outside space to the second coil outside space, and the guide hook projects inward in the radial direction and faces the connecting wire in the radial direction,
Multiple-piece rotor shaft for an electric machine, the multiple-piece rotor shaft comprising: - a first shaft journal with a first end flange and with an axial through bore, - a second shaft journal with a second end flange, - a hollow carrier for a rotor laminated core, - a line element for conducting a cooling medium, and - a dividing element, - the carrier for the rotor laminated core being arranged between the first shaft journal and the second shaft journal, - the carrier, the first end flange and the second end flange delimiting a cavity between them, - the line element forming a cooling duct within the cavity, the cooling duct being connected to the first axial through bore, extending between the first shaft journal and the second shaft journal, and being connected to an outer part of the cavity which is formed between the carrier and the line element, - the dividing element dividing the outer part of the cavity into a first part cavity on the side of the first shaft journal and into a second part cavity on the side of the second shaft journal, the first part cavity being connected to the cooling duct via at least one first bore of the line element, and the second part cavity being connected to the cooling duct via at least one second bore of the line element, and - the first end flange having at least one first opening for the discharge of cooling medium from the first part cavity, and the second end flange having at least one second opening for the discharge of cooling medium from the second part cavity. - a first shaft journal with a first end flange and with an axial through bore, - a second shaft journal with a second end flange, - a hollow carrier for a rotor laminated core, - a line element for conducting a cooling medium, and - a dividing element, - the carrier for the rotor laminated core being arranged between the first shaft journal and the second shaft journal, - the carrier, the first end flange and the second end flange delimiting a cavity between them, - the line element forming a cooling duct within the cavity, the cooling duct being connected to the first axial through bore, extending between the first shaft journal and the second shaft journal, and being connected to an outer part of the cavity which is formed between the carrier and the line element, - the dividing element dividing the outer part of the cavity into a first part cavity on the side of the first shaft journal and into a second part cavity on the side of the second shaft journal, the first part cavity being connected to the cooling duct via at least one first bore of the line element, and the second part cavity being connected to the cooling duct via at least one second bore of the line element, and - the first end flange having at least one first opening for the discharge of cooling medium from the first part cavity, and the second end flange having at least one second opening for the discharge of cooling medium from the second part cavity.
A method for periodically transmitting a protocol packet by a network device, comprising: identifying one or more physical ports of the network device; identifying one or more instances, under each physical port, which need to periodically transmit the protocol packet; performing delay processing on packet transmission start-up time of a plurality of instances when the plurality of instances request a processor to transmit protocol packets at the same time, so as to form a sequence of packet transmission start-up delay time corresponding to the plurality of instances; and the processor periodically transmitting each protocol packet of the corresponding instance according to the sequence of the packet transmission start-up delay time; characterized by: comparing packet transmission cycles of the plurality of instances, obtaining a minimum packet transmission cycle, and taking the minimum packet transmission cycle as a packet transmission cycle T of the network device; wherein the step of the delay processing comprises: determining a packet transmission start-up delay time of the physical port according to an identification of the physical port and the packet transmission cycle T of the network device, and determining a packet transmission start-up delay time of an instance with the corresponding identification under each physical port according to the packet transmission start-up delay time of the physical port and instance identification(s) under the physical port, and obtaining the sequence of the packet transmission start-up delay time corresponding to the plurality of instances. identifying one or more physical ports of the network device; identifying one or more instances, under each physical port, which need to periodically transmit the protocol packet; performing delay processing on packet transmission start-up time of a plurality of instances when the plurality of instances request a processor to transmit protocol packets at the same time, so as to form a sequence of packet transmission start-up delay time corresponding to the plurality of instances; and the processor periodically transmitting each protocol packet of the corresponding instance according to the sequence of the packet transmission start-up delay time; comparing packet transmission cycles of the plurality of instances, obtaining a minimum packet transmission cycle, and taking the minimum packet transmission cycle as a packet transmission cycle T of the network device; determining a packet transmission start-up delay time of the physical port according to an identification of the physical port and the packet transmission cycle T of the network device, and determining a packet transmission start-up delay time of an instance with the corresponding identification under each physical port according to the packet transmission start-up delay time of the physical port and instance identification(s) under the physical port, and obtaining the sequence of the packet transmission start-up delay time corresponding to the plurality of instances.
System for a motor vehicle, comprising: a first electric parking brake actuation unit which is assigned to a first vehicle wheel; a second electric parking brake actuation unit which is assigned to a second vehicle wheel; a first control unit (ECU-1) having at least a first microprocessor (μP), wherein the first control unit (ECU-1) is configured to actuate the first electric parking brake actuation unit and does not permit actuation of the second electric parking brake actuation unit; and a second control unit (ECU-2; ECU-3) with at least a second microprocessor (μP), wherein the second control unit (ECU-2; ECU-3) is configured to actuate the second electric parking brake actuation unit and does not permit actuation of the first electric parking brake actuation unit; characterized by a third control unit (ECU-3) with at least a third microprocessor (μP-3) which is configured to actuate an automatic transmission (SYS-3) which is embodied without a mechanical gearshift interlock, wherein the third control unit (ECU-3) is configured, in a gearshift interlock mode, to communicate with the first control unit (ECU-1) via a communication link (BUS-3), in order to make said control unit (ECU-1) actuate the first electric parking brake actuation unit on the basis of a transmission lock instruction. a first electric parking brake actuation unit which is assigned to a first vehicle wheel; a second electric parking brake actuation unit which is assigned to a second vehicle wheel; a first control unit (ECU-1) having at least a first microprocessor (μP), wherein the first control unit (ECU-1) is configured to actuate the first electric parking brake actuation unit and does not permit actuation of the second electric parking brake actuation unit; and a second control unit (ECU-2; ECU-3) with at least a second microprocessor (μP), wherein the second control unit (ECU-2; ECU-3) is configured to actuate the second electric parking brake actuation unit and does not permit actuation of the first electric parking brake actuation unit; characterized by a third control unit (ECU-3) with at least a third microprocessor (μP-3) which is configured to actuate an automatic transmission (SYS-3) which is embodied without a mechanical gearshift interlock, wherein the third control unit (ECU-3) is configured, in a gearshift interlock mode, to communicate with the first control unit (ECU-1) via a communication link (BUS-3), in order to make said control unit (ECU-1) actuate the first electric parking brake actuation unit on the basis of a transmission lock instruction.
A laminate comprising: a first polarization rotation layer; a second polarization rotation layer; and a positive C plate provided between the first polarization rotation layer and the second polarization rotation layer, wherein the first polarization rotation layer comprises a first half wave plate and a first quarter wave plate, and the second polarization rotation layer comprises a second half wave plate and a second quarter wave plate, and wherein a thickness-direction retardation value Rth of the positive C plate represented by Equation 1 below, for light with a wavelength of 550 nm, is in the range of 50 nm to 200 nm and a front retardation value Ro represented by Equation 2 below, for light with a wavelength of 550 nm, is in the range of -5 nm to 5 nm: Rth = nz − nx + ny / 2 × d Ro = nx − ny × d wherein in Equations 1 and 2 above, nx represents a refractive index in a direction in which the in-plane refractive index of the positive C plate becomes maximum, ny represents a refractive index in a direction perpendicular to the nx direction in the plane of the positive C plate, nz represents the thickness-direction refractive index of the positive C plate, and d represents a thickness of the positive C plate. a first polarization rotation layer; a second polarization rotation layer; and a positive C plate provided between the first polarization rotation layer and the second polarization rotation layer, wherein the first polarization rotation layer comprises a first half wave plate and a first quarter wave plate, and the second polarization rotation layer comprises a second half wave plate and a second quarter wave plate, and wherein a thickness-direction retardation value Rth of the positive C plate represented by Equation 1 below, for light with a wavelength of 550 nm, is in the range of 50 nm to 200 nm and a front retardation value Ro represented by Equation 2 below, for light with a wavelength of 550 nm, is in the range of -5 nm to 5 nm: Rth = nz − nx + ny / 2 × d Ro = nx − ny × d wherein in Equations 1 and 2 above, nx represents a refractive index in a direction in which the in-plane refractive index of the positive C plate becomes maximum, ny represents a refractive index in a direction perpendicular to the nx direction in the plane of the positive C plate, nz represents the thickness-direction refractive index of the positive C plate, and d represents a thickness of the positive C plate. nx represents a refractive index in a direction in which the in-plane refractive index of the positive C plate becomes maximum, ny represents a refractive index in a direction perpendicular to the nx direction in the plane of the positive C plate, nz represents the thickness-direction refractive index of the positive C plate, and d represents a thickness of the positive C plate.
A method of forming a retaining device with hooks, wherein: · a molding strip is provided that presents an inside face and an outside face, and that has a plurality of cavities, each cavity defining a stem extending from the outside face towards the inside face and including an end forming a head that extends from the stem towards the inside face of the molding strip; · the molding strip is positioned on rotary drive means, the inside face of the molding strip being arranged to bear against the drive means; · molding material is dispensed against the outside face of the molding strip by material dispenser means arranged facing the molding strip in such a manner as to define a gap between the material dispenser means and the molding strip, the step of dispensing the molding material being performed in such a manner as to fill said gap and the cavities with molding material so as to form a tape comprising a base of thickness that is defined by the gap, and first preforms projecting from said base each comprising a stem and a head, the first preforms being formed by the plastics material in the cavities of the molding strip; · the tape is unmolded; and · the unmolded tape is inserted in a forming device so as to modify the shapes of the heads of the preforms by forming, characterized in that the forming device comprises at least two rotary elements (72, 73), each of said rotary elements having a speed that is different from the drive speed of the tape. · a molding strip is provided that presents an inside face and an outside face, and that has a plurality of cavities, each cavity defining a stem extending from the outside face towards the inside face and including an end forming a head that extends from the stem towards the inside face of the molding strip; · the molding strip is positioned on rotary drive means, the inside face of the molding strip being arranged to bear against the drive means; · molding material is dispensed against the outside face of the molding strip by material dispenser means arranged facing the molding strip in such a manner as to define a gap between the material dispenser means and the molding strip, the step of dispensing the molding material being performed in such a manner as to fill said gap and the cavities with molding material so as to form a tape comprising a base of thickness that is defined by the gap, and first preforms projecting from said base each comprising a stem and a head, the first preforms being formed by the plastics material in the cavities of the molding strip; · the tape is unmolded; and · the unmolded tape is inserted in a forming device so as to modify the shapes of the heads of the preforms by forming,
A method for filtering, said method being performed by a data processing device and comprising the steps of: receiving a time-dependent measurement signal ( d(n)) obtained from a pressure sensor (4a-4c) in a fluid containing system associated with a first pulse generator and a second pulse generator, the pressure sensor (4a-4c) being arranged in the fluid containing system to detect a first pulse originating from the first pulse generator and a second pulse originating from the second pulse generator, obtaining a first pulse profile ( u(n)), and filtering the measurement signal ( d(n)) in the time-domain, using the first pulse profile ( u(n)) and an adaptive filter structure, to essentially eliminate the first pulse while retaining the second pulse, characterized in that the first pulse profile ( u(n)) is obtained so as to be a predicted temporal signal profile of the first pulse, and the step of filtering the measurement signal ( d(n)) comprises supplying the measurement signal ( d(n)) and the first pulse profile ( u(n)) as input to an adaptive filter structure configured to output an error signal ( e(n)) in which the first pulse is essentially eliminated while the second pulse is retained. receiving a time-dependent measurement signal ( d(n)) obtained from a pressure sensor (4a-4c) in a fluid containing system associated with a first pulse generator and a second pulse generator, the pressure sensor (4a-4c) being arranged in the fluid containing system to detect a first pulse originating from the first pulse generator and a second pulse originating from the second pulse generator, obtaining a first pulse profile ( u(n)), and filtering the measurement signal ( d(n)) in the time-domain, using the first pulse profile ( u(n)) and an adaptive filter structure, to essentially eliminate the first pulse while retaining the second pulse, characterized in that the first pulse profile ( u(n)) is obtained so as to be a predicted temporal signal profile of the first pulse, and the step of filtering the measurement signal ( d(n)) comprises supplying the measurement signal ( d(n)) and the first pulse profile ( u(n)) as input to an adaptive filter structure configured to output an error signal ( e(n)) in which the first pulse is essentially eliminated while the second pulse is retained.
A compound comprising iloperidone or 1-[4-[3-[4-(6-Fluoro-1,2-benzisoxazol-3-yl)-1-piperidinyl]propoxy]-3-methoxyphenyl]ethanol for use in the treatment of a disorder known to be ameliorated by the compound in an individual whose ABCC2 genotype is determined, and whose ABCC2 genotype is associated with an increased risk of QT prolongation, wherein the quantity of the compound administered to the individual is less than would be administered to an individual having a ABCC2 genotype not associated with an increased risk of QT prolongation, wherein the ABCC2 genotype associated with an increased risk of QT prolongation is GG at the rs7067971 locus, wherein the method of treatment comprises the step of determining whether or not the individual has genotype GG at the rs7067971 locus.
- Device for distributing air-conditioning air for a turret of a vehicle that is rotatably mounted relative to a chassis of the vehicle, the device comprising a rotating joint intended for electrically connecting the turret and the chassis of the vehicle and to be coaxial with the turret, the rotating joint including a stator intended to be secured to the chassis and a rotor intended to be secured to the turret, wherein the device is characterized in that it includes a cover that forms a chamber delimiting a volume in which the rotor is housed and that is perforated by at least one air outlet, wherein the cover is secured in an airtight fashion to the rotor, wherein the cover is located at the center of a first disc to which the edges of the side walls of the cover are secured, the device includes a second disc which is pressed against the first disc with a sealing means interposed therebetween, wherein the second disc has substantially the same diameter as the first disc, is coaxial with it and is secured to the stator, and can thus rotate in an airtight fashion relative to the first disc and seals the chamber delimited by the cover, wherein the second disc includes an air inlet provided near the stator, wherein the side walls of the cover are located at such a distance from the rotor that the air inlet provided in the second disc is always at least partly open into the volume of the chamber in all angular orientations of the rotor relative to the stator.
Packaging device for packaging a two-wheeler comprising a frame and at least one wheel mounted thereon, in particular a bicycle, the device comprising a base, a casing, which at least partially encloses a receiving space for the two-wheeler, and an insertion opening for the two-wheeler, which is arranged on a side facing away from the base, wherein the packaging device comprises longitudinal side walls (36, 38) and transverse side walls (40, 42) which define a longitudinal direction and a transverse direction oriented transversely and in particular perpendicularly thereto, wherein the packaging device comprises a first support element, which projects from the base into the receiving space, and a second support element, which is arranged at a distance from the base and, preferably in the longitudinal direction, at a distance from the first support element, and a wheel receptacle is formed between the support elements (78, 118), wherein the support elements (78, 118) are placeable on opposite sides of the wheel, characterized in that the second support element is held on a transverse side wall or on a longitudinal side wall (36, 38) of the casing and is foldably connected to the transverse side wall or the longitudinal side wall (36, 38), so that the support elements (78, 118) are movable relative to one another to expand the wheel receptacle. wherein the packaging device comprises longitudinal side walls (36, 38) and transverse side walls (40, 42) which define a longitudinal direction and a transverse direction oriented transversely and in particular perpendicularly thereto, wherein the packaging device comprises a first support element, which projects from the base into the receiving space, and a second support element, which is arranged at a distance from the base and, preferably in the longitudinal direction, at a distance from the first support element, and a wheel receptacle is formed between the support elements (78, 118), wherein the support elements (78, 118) are placeable on opposite sides of the wheel, characterized in that the second support element is held on a transverse side wall or on a longitudinal side wall (36, 38) of the casing and is foldably connected to the transverse side wall or the longitudinal side wall (36, 38), so that the support elements (78, 118) are movable relative to one another to expand the wheel receptacle.