mhurhangee/ep-ind-claims huggingface dataset:
Method for transforming plastic parisons into plastic bottles, comprising the following steps: - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure and is preferably higher than the first pressure - applying a third pressure to the plastic parison, wherein this third pressure deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi), characterised in that during the application of at least one of the pressures (P1, Pi, P2) to the plastic parison the base part is advanced towards the plastic parison in the longitudinal direction of the plastic parison in at least two time intervals spaced apart from one another in time. - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure and is preferably higher than the first pressure - applying a third pressure to the plastic parison, wherein this third pressure deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi),
A track assembly for a sliding vehicle door comprising: a wire track extending between a track mount assembly that is configured to attach to the vehicle sliding door and a body mount component opposite said track mount assembly; said wire track comprising a plurality of interconnected links that allow said wire track to articulate in a wire track articulation plane between a door closed position and a door open position; each of said plurality of interconnected links, said body mount component, and said track mount assembly having a hollow center section cooperatively forming a wire routing cavity that extends through said wire track; a wiring harness disposed in and extending through said wire routing cavity of said wire track; and characterized by a grommet made of an elastomeric material attached to and extending from said track mount assembly, said grommet surrounding said wiring harness while permitting said wiring harness to twist and bend inside said grommet as said wire track articulates between said door closed position and said door open position, wherein said track mount assembly includes a mounting plate, an elbow rotatably coupled to said mounting plate such that said elbow is permitted to rotate relative to said mounting plate, and a collar that extends about and retains said elbow on said mounting plate, said collar being mounted on said mounting plate such that said collar remains stationary with respect to said mounting plate, and wherein said grommet is attached to said collar such that said grommet does not rotate with said elbow relative to said mounting plate. a wire track extending between a track mount assembly that is configured to attach to the vehicle sliding door and a body mount component opposite said track mount assembly; said wire track comprising a plurality of interconnected links that allow said wire track to articulate in a wire track articulation plane between a door closed position and a door open position; each of said plurality of interconnected links, said body mount component, and said track mount assembly having a hollow center section cooperatively forming a wire routing cavity that extends through said wire track; a wiring harness disposed in and extending through said wire routing cavity of said wire track; and characterized by a grommet made of an elastomeric material attached to and extending from said track mount assembly, said grommet surrounding said wiring harness while permitting said wiring harness to twist and bend inside said grommet as said wire track articulates between said door closed position and said door open position, wherein said track mount assembly includes a mounting plate, an elbow rotatably coupled to said mounting plate such that said elbow is permitted to rotate relative to said mounting plate, and a collar that extends about and retains said elbow on said mounting plate, said collar being mounted on said mounting plate such that said collar remains stationary with respect to said mounting plate, and wherein said grommet is attached to said collar such that said grommet does not rotate with said elbow relative to said mounting plate.
Local coil matrix for a magnetic resonance tomography device having low static magnetic field, wherein the local coil matrix has a first coil winding and a second coil winding and a low-noise first preamplifier and a low-noise second preamplifier, wherein the first preamplifier is electrically connected to the first coil winding, and the second preamplifier is electrically connected to the second coil winding, wherein the first coil winding features broadband matching to the first preamplifier connected thereto in a first frequency range at a Larmor frequency, wherein broadband matching is considered to be matching that for a deviation of a coil resonant frequency from the Larmor frequency by 1% causes a reduction of the signal-to-noise ratio at the preamplifier by less than 6 dB at the Larmor frequency, wherein the local coil matrix has a matching network (55, 56), which can be adjusted via a control connection and has a signal connection to the first coil winding and/or to the second coil winding, characterised in that the local coil matrix has a local-coil controller and the local-coil controller is designed to make adjustments to the matching network(s) (55, 56) so as to favour a resonant mode of the two coil windings (51, 52) having a predetermined spatial distribution. wherein the local coil matrix has a matching network (55, 56), which can be adjusted via a control connection and has a signal connection to the first coil winding and/or to the second coil winding, characterised in that the local coil matrix has a local-coil controller and the local-coil controller is designed to make adjustments to the matching network(s) (55, 56) so as to favour a resonant mode of the two coil windings (51, 52) having a predetermined spatial distribution.
A method performed by a first user equipment, UE, in a wireless communication system, the method comprising: transmitting, by the first UE, a Physical Sidelink Shared Channel, PSSCH, to a second UE; receiving, by the first UE from the second UE, a physical sidelink feedback channel PSFCH, for the PSSCH in a first slot of a first slot duration; characterized in that the method further comprises: determining, by the first UE, a second slot for transmitting a physical uplink control channel, PUCCH, based on a value related to the number of slots from the PSFCH to the PUCCH; and transmitting, by the first UE to a base station, BS, feedback information based on the PSFCH through the PUCCH in the second slot, wherein, based on a slot duration of the second slot being shorter than the slot duration of the first slot, the first slot for the PSFCH overlaps in a time domain with a plurality of slots of the first UE having the same slot duration as the second slot, and wherein the value related to the number of slots is applied based on a last slot of the plurality of slots overlapped with the first slot for the PSFCH. transmitting, by the first UE, a Physical Sidelink Shared Channel, PSSCH, to a second UE; receiving, by the first UE from the second UE, a physical sidelink feedback channel PSFCH, for the PSSCH in a first slot of a first slot duration; characterized in that the method further comprises: determining, by the first UE, a second slot for transmitting a physical uplink control channel, PUCCH, based on a value related to the number of slots from the PSFCH to the PUCCH; and transmitting, by the first UE to a base station, BS, feedback information based on the PSFCH through the PUCCH in the second slot, wherein, based on a slot duration of the second slot being shorter than the slot duration of the first slot, the first slot for the PSFCH overlaps in a time domain with a plurality of slots of the first UE having the same slot duration as the second slot, and wherein the value related to the number of slots is applied based on a last slot of the plurality of slots overlapped with the first slot for the PSFCH. determining, by the first UE, a second slot for transmitting a physical uplink control channel, PUCCH, based on a value related to the number of slots from the PSFCH to the PUCCH; and transmitting, by the first UE to a base station, BS, feedback information based on the PSFCH through the PUCCH in the second slot, wherein, based on a slot duration of the second slot being shorter than the slot duration of the first slot, the first slot for the PSFCH overlaps in a time domain with a plurality of slots of the first UE having the same slot duration as the second slot, and wherein the value related to the number of slots is applied based on a last slot of the plurality of slots overlapped with the first slot for the PSFCH.
A system of patterning a multi-focal acoustic energy transmission, comprising: an input interface adapted to receive a plurality of target acoustic pressures to be applied on a plurality of focal spots of a target area in at least one cellular tissue; characterised by: a computing unit adapted to compute, using an computer generated holography algorithm, a multifocal transmission pattern of an acoustic energy source, said multifocal transmission pattern set so as to operate each of a plurality of acoustic energy elements of said acoustic energy source to apply said plurality of target acoustic pressures on a plurality of regions of interests in said target area, said multifocal transmission pattern defining a phase of a plurality of acoustic energy transmissions each for each one of a plurality of acoustic energy elements so that said plurality of acoustic energy transmissions contributes to said plurality of target acoustic pressures which are applied on said plurality of regions of interests; and a controller adapted to operate said plurality of acoustic energy elements to transmit said plurality of acoustic energy transmissions on said target area. an input interface adapted to receive a plurality of target acoustic pressures to be applied on a plurality of focal spots of a target area in at least one cellular tissue; characterised by: a computing unit adapted to compute, using an computer generated holography algorithm, a multifocal transmission pattern of an acoustic energy source, said multifocal transmission pattern set so as to operate each of a plurality of acoustic energy elements of said acoustic energy source to apply said plurality of target acoustic pressures on a plurality of regions of interests in said target area, said multifocal transmission pattern defining a phase of a plurality of acoustic energy transmissions each for each one of a plurality of acoustic energy elements so that said plurality of acoustic energy transmissions contributes to said plurality of target acoustic pressures which are applied on said plurality of regions of interests; and a controller adapted to operate said plurality of acoustic energy elements to transmit said plurality of acoustic energy transmissions on said target area. a computing unit adapted to compute, using an computer generated holography algorithm, a multifocal transmission pattern of an acoustic energy source, said multifocal transmission pattern set so as to operate each of a plurality of acoustic energy elements of said acoustic energy source to apply said plurality of target acoustic pressures on a plurality of regions of interests in said target area, said multifocal transmission pattern defining a phase of a plurality of acoustic energy transmissions each for each one of a plurality of acoustic energy elements so that said plurality of acoustic energy transmissions contributes to said plurality of target acoustic pressures which are applied on said plurality of regions of interests; and a controller adapted to operate said plurality of acoustic energy elements to transmit said plurality of acoustic energy transmissions on said target area.
A laser light source unit that sequentially emits a plurality of pulse laser beams in a predetermined wavelength sequence including at least two different wavelengths, the laser light source unit comprising: a laser rod; an excitation light source that irradiates the laser rod with excitation light; an optical resonator including a pair of mirrors (53, 54) facing each other with the laser rod interposed therebetween; a Q switch which is inserted into the optical resonator; a birefringent filter which is inserted into the optical resonator and is configured to change an oscillation wavelength of the optical resonator in association with rotational displacement of said birefringent filter; a rotation control unit that is configured to rotate the birefringent filter at a predetermined rotation speed depending on the number of wavelengths included in the wavelength sequence; and an emission control unit that is configured to irradiates the laser rod with excitation light from the excitation light source and is configured to turn on the Q switch, at a timing when a rotational displacement position of the birefringent filter is set to a position corresponding to the wavelength of the pulse laser beam to be emitted, to cause the pulse laser beam to be emitted. a laser rod; an excitation light source that irradiates the laser rod with excitation light; an optical resonator including a pair of mirrors (53, 54) facing each other with the laser rod interposed therebetween; a Q switch which is inserted into the optical resonator; a birefringent filter which is inserted into the optical resonator and is configured to change an oscillation wavelength of the optical resonator in association with rotational displacement of said birefringent filter; a rotation control unit that is configured to rotate the birefringent filter at a predetermined rotation speed depending on the number of wavelengths included in the wavelength sequence; and an emission control unit that is configured to irradiates the laser rod with excitation light from the excitation light source and is configured to turn on the Q switch, at a timing when a rotational displacement position of the birefringent filter is set to a position corresponding to the wavelength of the pulse laser beam to be emitted, to cause the pulse laser beam to be emitted.
A method for compressing a high dynamic range texture, comprising: transforming a first block of texels of the HDR texture in a red-green-blue space to a second block of texels in a luminance-chrominance space, the first block having red values, green values and blue values and the second block having luminance values and chrominance values, the chrominance values being based on a sum of the red values, a sum of the green values and a sum of the blue values, wherein transforming the first block of texels comprises: selecting two channels from the RGB space corresponding to the two lowest sums from the sum of the red values, the sum of the green values and the sum of the blue values; and determining the chrominance values based on the values of the selected two channels; converting the luminance values and the chrominance values to an 8-bit integer format; modifying the luminance values to restore a local linearity property to the second block, said modifying comprising shifting the texels of the second block in the luminance-chrominance space such that each texel is positioned close to a single line segment in the luminance-chrominance space; and compressing the second block. transforming a first block of texels of the HDR texture in a red-green-blue space to a second block of texels in a luminance-chrominance space, the first block having red values, green values and blue values and the second block having luminance values and chrominance values, the chrominance values being based on a sum of the red values, a sum of the green values and a sum of the blue values, wherein transforming the first block of texels comprises: selecting two channels from the RGB space corresponding to the two lowest sums from the sum of the red values, the sum of the green values and the sum of the blue values; and determining the chrominance values based on the values of the selected two channels; selecting two channels from the RGB space corresponding to the two lowest sums from the sum of the red values, the sum of the green values and the sum of the blue values; and determining the chrominance values based on the values of the selected two channels; converting the luminance values and the chrominance values to an 8-bit integer format; modifying the luminance values to restore a local linearity property to the second block, said modifying comprising shifting the texels of the second block in the luminance-chrominance space such that each texel is positioned close to a single line segment in the luminance-chrominance space; and compressing the second block.
A security system comprising: a plurality of sensors (14, 16), wherein each of the plurality of sensors (14, 16) is positioned within a secured geographic area; a plurality of Bluetooth low energy devices (BLEs) (30, 32), wherein each of the plurality of BLEs (30, 32) is positioned within the secured geographic area and transmits a respective radio frequency signal containing respective location information; a plurality of portable wireless devices (26, 28) within the secured geographic area, wherein each of the plurality of portable wireless devices (26, 28) receives the respective location information via the respective radio frequency signal from a respective one of the plurality of BLEs (30, 32); and a control panel of the secured geographic area that detects a security breach via an activated one of the plurality of sensors (14, 16), retrieves the respective location information from each of the plurality of portable wireless devices (26, 28), identifies one of the plurality of portable wireless devices (26, 28) relatively closest the activated one of the plurality of sensors(14, 16), and sends instructions to a user of the one of the plurality of portable wireless devices (26, 28) to investigate the activated one of the plurality of sensors (14, 16). a plurality of sensors (14, 16), wherein each of the plurality of sensors (14, 16) is positioned within a secured geographic area; a plurality of Bluetooth low energy devices (BLEs) (30, 32), wherein each of the plurality of BLEs (30, 32) is positioned within the secured geographic area and transmits a respective radio frequency signal containing respective location information; a plurality of portable wireless devices (26, 28) within the secured geographic area, wherein each of the plurality of portable wireless devices (26, 28) receives the respective location information via the respective radio frequency signal from a respective one of the plurality of BLEs (30, 32); and a control panel of the secured geographic area that detects a security breach via an activated one of the plurality of sensors (14, 16), retrieves the respective location information from each of the plurality of portable wireless devices (26, 28), identifies one of the plurality of portable wireless devices (26, 28) relatively closest the activated one of the plurality of sensors(14, 16), and sends instructions to a user of the one of the plurality of portable wireless devices (26, 28) to investigate the activated one of the plurality of sensors (14, 16).
An exhaust gas turbocharger for an internal combustion engine, with - a housing, and a housing interior which is at least partially enclosed by the housing, - an impeller arranged in the housing interior, which is mounted rotatably in a bearing block with an impeller shaft, wherein the housing comprises at least one flow channel for supplying or discharging a fluid to or from the impeller, wherein an intermediate element between the impeller and bearing block is arranged coaxially to the impeller shaft and at least in portions forms a wall which is configured, at least in portions, to delimit at least one of the flow channels, wherein the impeller is a turbine impeller, and the intermediate element forms a shielding element for protecting the bearing block, which element is arranged between the impeller and bearing block, wherein the intermediate element has a disc-shaped extension extended substantially radially to the impeller shaft, characterised in that the disc-shaped extension forms the wall which delimits the at least one flow channel at least in portions, and the disc-shaped extension has an external diameter which is greater than an external diameter of the impeller, and the disc-shaped extension comprising on its periphery a seal, especially a sealing ring which runs in the peripheral direction, for sealing off the intermediate element from the housing. - a housing, and a housing interior which is at least partially enclosed by the housing, - an impeller arranged in the housing interior, which is mounted rotatably in a bearing block with an impeller shaft,