mhurhangee/ep-ind-claims huggingface dataset:
Optical distance sensor having a first light source (1; 11) in a first emission plane, a reflector, two scanning gratings (3.1, 3.2; 13.1, 13.2), embodied as transmission gratings and each with a defined grating period, a detector arrangement (4; 14) and an evaluation unit, wherein - the beams emitted by the first light source (1; 11) strike the reflector and experience a return reflection, - the return-reflected beams subsequently pass through the first and the second scanning grating (3.1, 3.2; 13.1, 13.2) and - a periodic stripe pattern with a defined stripe pattern period arises in a detection plane of the detector arrangement (4; 14) from the interaction of the beams with the passed-through scanning gratings (3.1, 3.2; 13.1, 13.2) and - the evaluation unit is embodied and configured to determine the distance between the detection plane and the reflector along a first measurement direction (z), which is oriented perpendicular to the reflector, from the ascertained stripe pattern period and further known geometry parameters (v, T1, D) of the distance sensor. - the beams emitted by the first light source (1; 11) strike the reflector and experience a return reflection, - the return-reflected beams subsequently pass through the first and the second scanning grating (3.1, 3.2; 13.1, 13.2) and - a periodic stripe pattern with a defined stripe pattern period arises in a detection plane of the detector arrangement (4; 14) from the interaction of the beams with the passed-through scanning gratings (3.1, 3.2; 13.1, 13.2) and - the evaluation unit is embodied and configured to determine the distance between the detection plane and the reflector along a first measurement direction (z), which is oriented perpendicular to the reflector, from the ascertained stripe pattern period and further known geometry parameters (v, T1, D) of the distance sensor.
A method at a base station, comprising: receiving, from a user equipment, UE, a connection request (202, 402) for downlink data; determining that a first congestion level of a first millimeter wave, mmWave, downlink channel is below a first threshold; determining that a second congestion level of a second mmWave downlink channel is below a second threshold; wherein the first mmWave downlink channel and the second mmWave downlink channel correspond to two different aggregated portions of a mmWave frequency spectrum allocated to the base station; transmitting, to the UE, an activation request (204, 406) instructing the UE to activate a first antenna corresponding to the first mmWave downlink channel and to activate a second antenna corresponding to the second mmWave downlink channel; and transmitting at least a portion of the downlink data to the UE over the first mmWave downlink channel and the second mmWave downlink channel. receiving, from a user equipment, UE, a connection request (202, 402) for downlink data; determining that a first congestion level of a first millimeter wave, mmWave, downlink channel is below a first threshold; determining that a second congestion level of a second mmWave downlink channel is below a second threshold; wherein the first mmWave downlink channel and the second mmWave downlink channel correspond to two different aggregated portions of a mmWave frequency spectrum allocated to the base station; transmitting, to the UE, an activation request (204, 406) instructing the UE to activate a first antenna corresponding to the first mmWave downlink channel and to activate a second antenna corresponding to the second mmWave downlink channel; and transmitting at least a portion of the downlink data to the UE over the first mmWave downlink channel and the second mmWave downlink channel.
A photonic crystal structure comprising: a nano structure layer; and a photonic crystal layer on the nano structure layer, the photonic crystal layer having a non-planar surface and configured to reflect light having a particular wavelength; characterised in that the nano-structure layer includes a plurality of nano particles of various sizes, the plurality of nano particles spaced apart from each other, wherein the nanostructure layer is made by reflowing a plurality of core-shell particles to provide a reflow layer formed from reflowed shell material of the plurality of core shell particles and wherein the nanoparticles are the exposed cores of the core shell particles. a nano structure layer; and a photonic crystal layer on the nano structure layer, the photonic crystal layer having a non-planar surface and configured to reflect light having a particular wavelength; characterised in that the nano-structure layer includes a plurality of nano particles of various sizes, the plurality of nano particles spaced apart from each other, wherein the nanostructure layer is made by reflowing a plurality of core-shell particles to provide a reflow layer formed from reflowed shell material of the plurality of core shell particles and wherein the nanoparticles are the exposed cores of the core shell particles.
A track cleat arrangement for a drive chain of a tracked vehicle, in particular of a snow groomer, with a track cleat and with a track guide (5, 5a, 5b) fastened to the track cleat, characterized in that the track guide (5, 5a, 5b) is fastened to the track cleat exclusively by bonding, and in that the track guide (5, 5a, 5b) is bonded to the track cleat by a contact surface which defines, with an outer contour of the track cleat, a bonding gap of U-shaped cross-section that extends over an entire length of the track guide (5, 5a, 5b) when viewed in the longitudinal direction of the track cleat.
A method of decoding video data in accordance with a High Efficiency Video Coding (HEVC) standard, a multiview extension thereof, or a scalable extension thereof, the method comprising: decoding a value for vps_num_hrd_parameters; decoding, from a video parameter set of a bitstream, a value for a vps_num_add_hrd_params; decoding, from said VPS, data that indicates a maximum number of sub-layers included in the bitstream, wherein each of the sub-layers of the bitstream corresponds to a playback frame rate of the video data, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; decoding a value for a syntax element that indicates a number of sub-layers of the bitstream for which hypothetical reference decoder parameters are coded, wherein the value indicates that the number of sub-layers for which the HRD parameters are coded is less than the maximum number of sub-layers indicated by the VPS of the bitstream; for each integer value from the value for vps _num_hrd_params up to but not including a value equal to the value for vps_num_hrd_params added to the value for vps_num_add_hrd_params, decoding HRD parameters for the number of sub-layers as indicated by the value for the syntax element; and processing the bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters. decoding a value for vps_num_hrd_parameters; decoding, from a video parameter set of a bitstream, a value for a vps_num_add_hrd_params; decoding, from said VPS, data that indicates a maximum number of sub-layers included in the bitstream, wherein each of the sub-layers of the bitstream corresponds to a playback frame rate of the video data, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; decoding a value for a syntax element that indicates a number of sub-layers of the bitstream for which hypothetical reference decoder parameters are coded, wherein the value indicates that the number of sub-layers for which the HRD parameters are coded is less than the maximum number of sub-layers indicated by the VPS of the bitstream; for each integer value from the value for vps _num_hrd_params up to but not including a value equal to the value for vps_num_hrd_params added to the value for vps_num_add_hrd_params, decoding HRD parameters for the number of sub-layers as indicated by the value for the syntax element; and processing the bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters. decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters.
A method for wireless communication by a user-equipment, UE, comprising: monitoring for a data transmission from another UE; receiving an indication of a first zone identifier, ID; determining a nearest zone to the UE of multiple zones, wherein the multiple zones are determined based at least in part on the indication of the first zone ID; determining a distance between the UE and the other UE based on the first zone ID, wherein the determined distance comprises a distance between the UE and the nearest zone; and transmitting hybrid automatic repeat request, HARQ, feedback for the data transmission based at least on the distance. monitoring for a data transmission from another UE; receiving an indication of a first zone identifier, ID; determining a nearest zone to the UE of multiple zones, wherein the multiple zones are determined based at least in part on the indication of the first zone ID; determining a distance between the UE and the other UE based on the first zone ID, wherein the determined distance comprises a distance between the UE and the nearest zone; and transmitting hybrid automatic repeat request, HARQ, feedback for the data transmission based at least on the distance.
An isolated, modified human kynureninase enzyme, said modified enzyme having substitutions relative to native human kynureninase (see SEQ ID NO: 8), wherein the substitutions are at positions: A99, F306, and A436; or A99, G112, F306, V339, 1405, and S408; or A99, 1131, F249, E259, and F306; or A99 and F306; or A99, T138, F306, and A436; or A99, G112, F306, L337, 1405, and S408; or A99, G112, F306, L337, V339, 1405, and S408; or A99, G112, F306, V339, 1405, and S408. A99, F306, and A436; or A99, G112, F306, V339, 1405, and S408; or A99, 1131, F249, E259, and F306; or A99 and F306; or A99, T138, F306, and A436; or A99, G112, F306, L337, 1405, and S408; or A99, G112, F306, L337, V339, 1405, and S408; or A99, G112, F306, V339, 1405, and S408.
Ophthalmological laser therapy system comprising: - an equipment base, - an equipment head, - a laser device that contains a laser source, a first laser therapy optical unit and a laser pivot arm with a second laser therapy optical unit and a laser exit aperture, wherein - the equipment head is displaceable on the equipment base in an xy-plane by means of a translational movement and - the laser pivot arm is fastened to the equipment head in a manner pivotable about a first axis, preferably a horizontal first axis, - an examination pivot arm with an examination device, which defines an examination volume, is fastened to the equipment head in a manner pivotable about a second axis, - characterized in that both the laser pivot arm and the examination pivot arm are pivotable between a rest position and a work position, - and both axes (4, 16) are arranged relative to one another in terms of their relative position such that a work volume of a laser beam, when the laser pivot arm is in the work position, is a partial volume of the examination volume of the examination device on the examination pivot arm, when the latter is in the work position, while the laser pivot arm and the examination pivot arm are not arranged in the pivot region of the respective other pivot arm (3, 15) in their respective rest position, - wherein the second axis of the examination pivot arm extends in a non-parallel fashion relative to the first axis of the laser pivot arm. - an equipment base, - an equipment head, - a laser device that contains a laser source, a first laser therapy optical unit and a laser pivot arm with a second laser therapy optical unit and a laser exit aperture, wherein - the equipment head is displaceable on the equipment base in an xy-plane by means of a translational movement and - the laser pivot arm is fastened to the equipment head in a manner pivotable about a first axis, preferably a horizontal first axis, - an examination pivot arm with an examination device, which defines an examination volume, is fastened to the equipment head in a manner pivotable about a second axis, - characterized in that both the laser pivot arm and the examination pivot arm are pivotable between a rest position and a work position, - and both axes (4, 16) are arranged relative to one another in terms of their relative position such that a work volume of a laser beam, when the laser pivot arm is in the work position, is a partial volume of the examination volume of the examination device on the examination pivot arm, when the latter is in the work position, while the laser pivot arm and the examination pivot arm are not arranged in the pivot region of the respective other pivot arm (3, 15) in their respective rest position, - wherein the second axis of the examination pivot arm extends in a non-parallel fashion relative to the first axis of the laser pivot arm.
A planetary gear system comprising: a sun gear having external teeth; a plurality of planet gears having external teeth, each planet gear meshing with the sun gear; a ring gear having internal teeth, the ring gear meshing with the planet gears; and a baffle unit disposed between the planet gears which are adjacent to each other, the baffle unit having side faces (37F, 37R) positioned near outer peripheries of the respective planet gears, characterized in that the baffle unit has: oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil to mesh positions (43, 45) between the sun gear and the planet gears; and a collection opening which is formed in at least one of the side faces (37F, 37R) and through which the lubricating oil that has been jetted out is collected into the baffle unit. a sun gear having external teeth; a plurality of planet gears having external teeth, each planet gear meshing with the sun gear; a ring gear having internal teeth, the ring gear meshing with the planet gears; and a baffle unit disposed between the planet gears which are adjacent to each other, the baffle unit having side faces (37F, 37R) positioned near outer peripheries of the respective planet gears, characterized in that the baffle unit has: oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil to mesh positions (43, 45) between the sun gear and the planet gears; and a collection opening which is formed in at least one of the side faces (37F, 37R) and through which the lubricating oil that has been jetted out is collected into the baffle unit. oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil to mesh positions (43, 45) between the sun gear and the planet gears; and a collection opening which is formed in at least one of the side faces (37F, 37R) and through which the lubricating oil that has been jetted out is collected into the baffle unit.
Method for the preparation of amorphous docetaxel, comprising the following steps: a) dissolving a docetaxel-containing matter or docetaxel in a polar solvent; b) adding to a nonpolar solvent the in step a) obtained solution to produce precipitates; and c) filtrating and drying the in step b) produced precipitate to obtain amorphous docetaxel, wherein: - the polar solvent is selected from the group consisting of halogenated alkane, ketone and combinations thereof; and - the nonpolar solvent is selected from the group consisting of dialkyl ether, alkane, cycloalkane and combinations thereof. a) dissolving a docetaxel-containing matter or docetaxel in a polar solvent; b) adding to a nonpolar solvent the in step a) obtained solution to produce precipitates; and c) filtrating and drying the in step b) produced precipitate to obtain amorphous docetaxel, - the polar solvent is selected from the group consisting of halogenated alkane, ketone and combinations thereof; and - the nonpolar solvent is selected from the group consisting of dialkyl ether, alkane, cycloalkane and combinations thereof.
A polymer for forming a hydrogel, the polymer including: a first water-binding monomer wherein the first monomer is a polyether selected from polyethylene glycol, oligo(ethylene glycol), polyethylene oxide, polyethylene oxide-co-propylene oxide, co-polyethylene oxide block or random copolymers and polyvinyl alcohol; a second monomer for imparting mechanical properties to a hydrogel wherein the second monomer is a methacrylate or a polyester selected from hydroxyethyl methacrylate (HEMA), poly(lactic acid), poly(caprolactone), poly(glycolide), poly(glycolide-co-lactide), poly(glycolide-co-caprolactone), and random co-polymers thereof; and a third monomer for binding to an extra-cellular matrix protein, wherein the third monomer has electrophilic functional groups for binding to an extra-cellular matrix protein selected from N-hydroxysuccinimides, N-hydroxysulfosuccinimide (SNHS), N-hydroxyethoxylated succinimide (ENHS) and N-acryloxysuccinimide. a first water-binding monomer wherein the first monomer is a polyether selected from polyethylene glycol, oligo(ethylene glycol), polyethylene oxide, polyethylene oxide-co-propylene oxide, co-polyethylene oxide block or random copolymers and polyvinyl alcohol; a second monomer for imparting mechanical properties to a hydrogel wherein the second monomer is a methacrylate or a polyester selected from hydroxyethyl methacrylate (HEMA), poly(lactic acid), poly(caprolactone), poly(glycolide), poly(glycolide-co-lactide), poly(glycolide-co-caprolactone), and random co-polymers thereof; and a third monomer for binding to an extra-cellular matrix protein, wherein the third monomer has electrophilic functional groups for binding to an extra-cellular matrix protein selected from N-hydroxysuccinimides, N-hydroxysulfosuccinimide (SNHS), N-hydroxyethoxylated succinimide (ENHS) and N-acryloxysuccinimide.
A method for providing personalized audio content (272 (x)), the method comprising: determining, via one or more processors, a first emotional state (252) associated with a first user based on sensor data from one or more sensors (232, 234, 236, 238); determining that a first version of a first song is targeted for output to the first user; acquiring a second version of the first song, wherein the second version of the first song comprises a multi-track version of the first song or a Musical Instrument Digital Interface, MIDI, version of the first song; performing one or more audio operations on the second version of the first song based on the first emotional state (252) to generate first personalized audio content (272); causing a first audio device associated with the first user to output the first personalized audio content (272); acquiring a second personalized audio content (272), wherein the second personalized audio content (272) is based on a second emotional state (252) associated with a second user that is co-located with the first user, wherein the first user and the second user are occupants of a vehicle; and causing a second audio device associated with the second user to output the second personalized audio content (272) while the first audio device outputs the first personalized audio content (272), wherein the second personalized audio content (272) is different from the first personalized audio content (272). determining, via one or more processors, a first emotional state (252) associated with a first user based on sensor data from one or more sensors (232, 234, 236, 238); determining that a first version of a first song is targeted for output to the first user; acquiring a second version of the first song, wherein the second version of the first song comprises a multi-track version of the first song or a Musical Instrument Digital Interface, MIDI, version of the first song; performing one or more audio operations on the second version of the first song based on the first emotional state (252) to generate first personalized audio content (272); causing a first audio device associated with the first user to output the first personalized audio content (272); acquiring a second personalized audio content (272), wherein the second personalized audio content (272) is based on a second emotional state (252) associated with a second user that is co-located with the first user, wherein the first user and the second user are occupants of a vehicle; and causing a second audio device associated with the second user to output the second personalized audio content (272) while the first audio device outputs the first personalized audio content (272), wherein the second personalized audio content (272) is different from the first personalized audio content (272).
A door lock including a door lock housing for accommodating a lock mechanism, which cooperates with a locking cylinder, wherein the locking cylinder includes a locking bit, which is in operative connection with a micro-switch of the door lock by means of an actuating element of the door lock, characterized in that the actuating element is configured as an integral spring element, wherein the spring element includes a first branch for generating a pretension, includes a second branch, which cooperates with the locking bit, and includes a third branch for actuating the micro-switch, wherein the first branch bears against a locating means and pretensions the spring element.
Method for freezing a soil mass, in which a cold medium is cooled by means of liquid nitrogen, a cold transfer medium is cooled by means of the cold medium and the cold transfer medium extracts heat from the soil mass via transfer of heat with the latter.
A method for operating a variable speed wind turbine being connectable to a grid, the wind turbine comprising a variable speed rotor, a torque controller, a blade pitch controller and a main converter, wherein connecting the wind turbine to the grid is performed by connecting the main converter to the grid, and wherein prior to connecting the wind turbine to the grid, the rotor speed is controlled by varying the blade pitch angle, characterized in that a constant, minimum blade pitch angle Φ start is provided which is larger than a blade pitch angle optimized for the partial load operation, and when starting up the wind turbine, the blade pitch angle is decreased continuously starting from a maximum blade pitch angle Φ max without falling below the minimum blade pitch angle Φ start prior to connecting to the grid.