mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining, by a base station, an uplink data channel power control parameter set for an uplink data channel beam pair; determining, by the base station, a sounding reference signal beam pair for a sounding reference signal resource, the sounding reference signal beam pair including a base station receive beam and a user device transmit beam; selecting and sending, by the base station, the uplink data channel power control parameter set to be used by a user device (131,..., 135) to adjust a sounding reference signal transmission power, the selecting being performed based on the uplink data channel beam pair matching the sounding reference signal beam pair; and receiving, by the base station from the user device (131,..., 135) via the sounding reference signal resource and the sounding reference signal beam pair, a sounding reference signal with the sounding reference signal transmission power adjusted based on the uplink data channel power control parameter set. determining, by a base station, an uplink data channel power control parameter set for an uplink data channel beam pair; determining, by the base station, a sounding reference signal beam pair for a sounding reference signal resource, the sounding reference signal beam pair including a base station receive beam and a user device transmit beam; selecting and sending, by the base station, the uplink data channel power control parameter set to be used by a user device (131,..., 135) to adjust a sounding reference signal transmission power, the selecting being performed based on the uplink data channel beam pair matching the sounding reference signal beam pair; and receiving, by the base station from the user device (131,..., 135) via the sounding reference signal resource and the sounding reference signal beam pair, a sounding reference signal with the sounding reference signal transmission power adjusted based on the uplink data channel power control parameter set.
A lighting device element comprising (i) at least one shaped element selected from the group consisting of a pipe-like shaped element (120,119) and a rod-like shaped element (120,129), (ii) one or more functional elements selected from the group consisting of a light source, electronics for a light source, a heat sink and optics for a light source, and (iii) a support for the one or more functional elements, wherein the lighting device element comprises at least said optics as functional element, wherein the lighting device element comprises at least two monolithic bodies, each monolithic body comprising at least part of the support and at least part of the optics, with said at least two monolithic bodies providing thereby said support and said optics, wherein at least part of the support and at least part of the one or more functional elements are accommodated within and/or around the shaped element; wherein the support and the one or more functional elements are coupled; wherein the support comprises at least part of a fastening material and/or a support assist, at least partly configured within and/or around the shaped element, comprises at least part of the fastening material and the support assist comprises a receptor opening hosting at least part of the support; wherein adjacent to a shaped element wall of the shaped element the fastening material comprises an indentation and part of the fastening material is in pressed physical contact with said shaped element wall and/or protruding into said shaped element wall via which the support is locally fixed to the shaped element, wherein at least one of the monolithic bodies is in contact with another of the monolithic bodies and in assembled position the optics is formed by the at least two monolithic bodies.
A distribution transformer adapted for outdoor use, the distribution transformer comprising: a ferromagnetic core coated with one or more protective coatings; one or more winding assemblies mounted to the core, each winding assembly comprising a low voltage winding and a high voltage winding encapsulated in an encasement, each encasement comprising an insulating resin and including: a main body having a central passage extending therethrough; and high voltage bushings (40, 42) and low voltage bushings (64, 66) extending outwardly from the main body, wherein in each winding assembly there are no cooling spaces or ducts between any of the conductor layers of the low voltage and high voltage windings, characterized in that each encasement includes a pair of said high voltage bushings (40, 42) and a pair of said low voltage bushings (64, 66); wherein the ends of each encasement are solid, with no openings or passages except for the central passage; wherein the main body comprises a high voltage dome and a low voltage dome integrally formed with the main body; wherein the high voltage bushings (40, 42) extend from the high voltage dome and include bodies (44, 46) integrally formed with the high voltage dome; wherein the low voltage bushings (64, 66) extend from the low voltage dome and include bodies (70, 72) integrally formed with the low voltage dome. a ferromagnetic core coated with one or more protective coatings; one or more winding assemblies mounted to the core, each winding assembly comprising a low voltage winding and a high voltage winding encapsulated in an encasement, each encasement comprising an insulating resin and including: a main body having a central passage extending therethrough; and high voltage bushings (40, 42) and low voltage bushings (64, 66) extending outwardly from the main body, a main body having a central passage extending therethrough; and high voltage bushings (40, 42) and low voltage bushings (64, 66) extending outwardly from the main body, wherein in each winding assembly there are no cooling spaces or ducts between any of the conductor layers of the low voltage and high voltage windings, characterized in that each encasement includes a pair of said high voltage bushings (40, 42) and a pair of said low voltage bushings (64, 66); wherein the ends of each encasement are solid, with no openings or passages except for the central passage; wherein the main body comprises a high voltage dome and a low voltage dome integrally formed with the main body; wherein the high voltage bushings (40, 42) extend from the high voltage dome and include bodies (44, 46) integrally formed with the high voltage dome; wherein the low voltage bushings (64, 66) extend from the low voltage dome and include bodies (70, 72) integrally formed with the low voltage dome.
Liquid-crystalline medium, characterised in that it comprises at least one compound of the formula IA, IB, IC, ID and/or IE, in which Z 1 denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO- or -CH 2 CF 2 O-, one or more compounds selected from the group of the compounds of the formulae IIA, IIB and IIC, in which R 2A, R 2B and R 2C each, independently of one another, denote H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, L 1-4 each denote F or Cl, Z 2 and Z 2' each, independently of one another, denote a single bond or -CH 2 O-, p denotes 0, 1 or 2, q denotes 0 or 1, and v denotes 1 to 6, and one or more compounds of the formula 0-17, in which R 1 and R 2 each, independently of one another, have the meanings indicated for R 2A, and optionally other constituents, where the concentration of the said other, optional constituents in the mixture as a whole is up to 10% and the liquid-crystal mixtures of the following compositions Compound Conc. / % CC-3-V 17.00 CC-V-V 20.00 CC-3-V1 8.00 CCY-3-O1 6.00 CCY-3-O2 10.00 CCY-4-O2 2.50 CPY-2-O2 5.50 CPY-3-O2 11.50 PY-3-O2 8.50 PYP-2-3 5.00 PP-1-2V1 3.00 B-3O-O5 3.00 Compound Conc. / % CC-3-V 20.50 CC-V-V 20.00 CCY-3-O1 8.00 CCY-3-O2 11.50 CCY-4-O2 4.00 CPY-2-O2 6.00 CPY-3-O2 11.00 CY-3-O2 13.50 B-2O-O5 3.00 B -2O-O5 2.50 Compound Conc. / % CC-3-V 19.50 CC-V-V 23.00 CCP-3-1 5.50 CCY-3-O1 8.00 CCY-3-O2 11.00 CCY-4-O2 4.00 CPY-3-O2 12.00 PY-3-O2 13.00 B-2O-O5 4.00 Compound Conc. / % CC-3-V 23.00 CC-V-V 20.00 CCP-3-1 5.00 CCY-3-O1 7.50 CCY-3-O2 11.00 CCY-4-O2 5.00 CPY-3-O2 11.00 PY-3-O2 13.50 B-2O-O5 4.00 are excluded. Z 1 denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO- or -CH 2 CF 2 O-, R 2A, R 2B and R 2C each, independently of one another, denote H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, L 1-4 each denote F or Cl, Z 2 and Z 2' each, independently of one another, denote a single bond or -CH 2 O-, p denotes 0, 1 or 2, q denotes 0 or 1, and v denotes 1 to 6,
An impregnation mandrel for making a gas turbine casing made of composite material, comprising: an impregnation mandrel on which a fibrous reinforcement is intended to be held, formed by superposed layers of a fibrous texture, the mandrel comprising a central annular wall whereof the profile corresponds to that of the casing to be manufactured and two lateral flanges (104a, 104b) the profiles of which correspond to those of external flanges of the casing to be manufactured; compaction bars (106a, 106b) each comprising a corner (108a, 108b) intended to be supported against the part of the fibrous reinforcement covering the angles formed between the central wall and the flanges of the mandrel, and a coupling flange (110a, 110b) intended to be fixed on the corresponding flange of the mandrel; a supple envelope forming a vacuum liner intended to be applied at least on that part of the fibrous reinforcement covering the central wall of the mandrel; characterized in that the mandrel further comprises means (120, 124) for injecting resin into a space delimited between the vacuum liner and the mandrel at a longitudinal end of the fibrous reinforcement and for extracting it at an opposite end. an impregnation mandrel on which a fibrous reinforcement is intended to be held, formed by superposed layers of a fibrous texture, the mandrel comprising a central annular wall whereof the profile corresponds to that of the casing to be manufactured and two lateral flanges (104a, 104b) the profiles of which correspond to those of external flanges of the casing to be manufactured; compaction bars (106a, 106b) each comprising a corner (108a, 108b) intended to be supported against the part of the fibrous reinforcement covering the angles formed between the central wall and the flanges of the mandrel, and a coupling flange (110a, 110b) intended to be fixed on the corresponding flange of the mandrel; a supple envelope forming a vacuum liner intended to be applied at least on that part of the fibrous reinforcement covering the central wall of the mandrel; characterized in that the mandrel further comprises means (120, 124) for injecting resin into a space delimited between the vacuum liner and the mandrel at a longitudinal end of the fibrous reinforcement and for extracting it at an opposite end.
A combustor control method for controlling combustion in a combustor equipped with a diffusive combustion unit and a plurality of premixed combustion units (F21 - F24), the combustor control method being used for multi-shafts gas turbine made up of: a gas generator turbine on a first shaft including a compressor which supplies compressing air, the combustor which is supplied with fuel and the compressed air discharged from the compressors, and high pressure turbine, which is supplied with combustion gas combusted in the combustor, for driving the compressor; and a power turbine including a low pressure turbine on a second shaft separated from the first shaft is driven by the combustion gas discharged from the gas generator turbine, characterized in that the combustor control method comprises the following steps executed using an ignition/extinction control unit of a combustor controller: calculating combustion air flow supplied to the combustor based on an open position of compressor inlet guide vanes attached to the gas generator turbine, revolution speed of the gas generator turbine and atmospheric temperature; calculating a flow of the fuel supplied to the combustor based on revolution speed of the power turbine; and calculating a fuel-air ratio in real time as flame reference based on the calculated combustion air flow and fuel flow. a gas generator turbine on a first shaft including a compressor which supplies compressing air, the combustor which is supplied with fuel and the compressed air discharged from the compressors, and high pressure turbine, which is supplied with combustion gas combusted in the combustor, for driving the compressor; and a power turbine including a low pressure turbine on a second shaft separated from the first shaft is driven by the combustion gas discharged from the gas generator turbine, characterized in that the combustor control method comprises the following steps executed using an ignition/extinction control unit of a combustor controller: calculating combustion air flow supplied to the combustor based on an open position of compressor inlet guide vanes attached to the gas generator turbine, revolution speed of the gas generator turbine and atmospheric temperature; calculating a flow of the fuel supplied to the combustor based on revolution speed of the power turbine; and calculating a fuel-air ratio in real time as flame reference based on the calculated combustion air flow and fuel flow. calculating combustion air flow supplied to the combustor based on an open position of compressor inlet guide vanes attached to the gas generator turbine, revolution speed of the gas generator turbine and atmospheric temperature; calculating a flow of the fuel supplied to the combustor based on revolution speed of the power turbine; and calculating a fuel-air ratio in real time as flame reference based on the calculated combustion air flow and fuel flow.
An apparatus comprising: a thick waveguide comprising a first adiabatic tapering from a first location to a second location, wherein the first adiabatic tapering is wider at the first location than at the second location; a thin slab waveguide comprising: a second adiabatic tapering from the first location to the second location, wherein the second adiabatic tapering is wider at the second location than at the first location; and a third adiabatic tapering from the second location to a third location, wherein the third adiabatic tapering is wider at the second location than at the third location, and a low-index waveguide coupled to the thin slab waveguide at the third adiabatic tapering and optionally a cladding coupled to the thin slab waveguide at the third adiabatic tapering and disposed between the thin slab waveguide and the low-index waveguide; wherein the height of the thin slab waveguide is about 10% to 90% of the height of the thick waveguide, and the thin slab waveguide is coupled to an optical fiber at the third location, wherein at least a portion of the first adiabatic tapering is adjacent to the second adiabatic tapering, wherein the first adiabatic tapering and the second adiabatic tapering are separated from each other by a constant gap. a thick waveguide comprising a first adiabatic tapering from a first location to a second location, wherein the first adiabatic tapering is wider at the first location than at the second location; a thin slab waveguide comprising: a second adiabatic tapering from the first location to the second location, wherein the second adiabatic tapering is wider at the second location than at the first location; and a third adiabatic tapering from the second location to a third location, wherein the third adiabatic tapering is wider at the second location than at the third location, and a second adiabatic tapering from the first location to the second location, wherein the second adiabatic tapering is wider at the second location than at the first location; and a third adiabatic tapering from the second location to a third location, wherein the third adiabatic tapering is wider at the second location than at the third location, and a low-index waveguide coupled to the thin slab waveguide at the third adiabatic tapering and optionally a cladding coupled to the thin slab waveguide at the third adiabatic tapering and disposed between the thin slab waveguide and the low-index waveguide; wherein the height of the thin slab waveguide is about 10% to 90% of the height of the thick waveguide, and the thin slab waveguide is coupled to an optical fiber at the third location, wherein at least a portion of the first adiabatic tapering is adjacent to the second adiabatic tapering, wherein the first adiabatic tapering and the second adiabatic tapering are separated from each other by a constant gap.
Machine tool for multi-axis machining of a workpiece in one clamping, comprising a machine column, a workpiece table which is arranged on the machine column and on the table plane of which a workpiece to be machined can be fastened, and a tool head holder which is fastened to the machine column, which is designed for the use of a tool rotating about a machining axis of the tool head holder, wherein the tool head holder is controllably movable in a relative movement with respect to the workpiece table in three directions extending perpendicular to one another, wherein an angular housing is attached to the machine column, wherein at one end of the angular housing the tool head holder is fastened to the angular housing so as to be rotatable about an adjustment axis, wherein the angular housing is fastened to the machine column so as to be rotatable about an angular housing axis, wherein the angular housing axis is oriented at an inclined fastening angle of between 10 and 80 degrees deviating from the table plane, and wherein the angular housing axis and the adjustment axis of the angular housing are at an angle other than 0 degrees to each other, characterised in that the angle between the angular housing axis and the adjustment axis is equal to the angle between the adjustment axis and the tool rotation axis.
A system for planning the minimally invasive robotic insertion of an intervertebral rod into rod clamping vertebral screws attached to the vertebrae of a subject according to a preoperative surgical plan, said system comprising: a control system adapted to: i) receive from said preoperative surgical plan information about a) the planned three-dimensional position of heads of the rod clamping vertebral screws (13,33,41), and b) the calculated shape of a rod (11,32,46,56) planned to pass between said heads (12,43), and ii) utilize a path planning algorithm to determine whether robotically manipulating a proximal end of said rod having said calculated shape, would enable the distal end of said rod to be passed sequentially through said heads of said screws; wherein if said distal end of said rod could be passed through said planned three-dimensional positions of said screw heads, said control system is configured to provide instruction to: a) insert said screws in said defined three-dimensional positions, and b) instruct a robot to insert said rod by at least one of lateral deflections, rotations, and longitudinal manipulation of said rod from its proximal end. a control system adapted to: i) receive from said preoperative surgical plan information about a) the planned three-dimensional position of heads of the rod clamping vertebral screws (13,33,41), and b) the calculated shape of a rod (11,32,46,56) planned to pass between said heads (12,43), and ii) utilize a path planning algorithm to determine whether robotically manipulating a proximal end of said rod having said calculated shape, would enable the distal end of said rod to be passed sequentially through said heads of said screws; i) receive from said preoperative surgical plan information about a) the planned three-dimensional position of heads of the rod clamping vertebral screws (13,33,41), and b) the calculated shape of a rod (11,32,46,56) planned to pass between said heads (12,43), and a) the planned three-dimensional position of heads of the rod clamping vertebral screws (13,33,41), and b) the calculated shape of a rod (11,32,46,56) planned to pass between said heads (12,43), and ii) utilize a path planning algorithm to determine whether robotically manipulating a proximal end of said rod having said calculated shape, would enable the distal end of said rod to be passed sequentially through said heads of said screws; wherein if said distal end of said rod could be passed through said planned three-dimensional positions of said screw heads, said control system is configured to provide instruction to: a) insert said screws in said defined three-dimensional positions, and b) instruct a robot to insert said rod by at least one of lateral deflections, rotations, and longitudinal manipulation of said rod from its proximal end. a) insert said screws in said defined three-dimensional positions, and b) instruct a robot to insert said rod by at least one of lateral deflections, rotations, and longitudinal manipulation of said rod from its proximal end.
A dryer, comprising: a condensing unit to change water vapor evaporated from a drying object into condensate water by cooling; a condensate water collector in which the condensate water is collected; a condensate water storage container in which the condensate water is stored; a pump to move the condensate water collected in the condensate water collector to the condensate water storage container; and a water level sensing device (240, 250, 260, 270) to detect a level of the stored condensate water; characterized by a microcomputer to calculate a change rate of the condensate water based on the detected water level and to determine a value of dryness of the drying object. a condensing unit to change water vapor evaporated from a drying object into condensate water by cooling; a condensate water collector in which the condensate water is collected; a condensate water storage container in which the condensate water is stored; a pump to move the condensate water collected in the condensate water collector to the condensate water storage container; and a water level sensing device (240, 250, 260, 270) to detect a level of the stored condensate water; characterized by a microcomputer to calculate a change rate of the condensate water based on the detected water level and to determine a value of dryness of the drying object.
Hob device comprising at least one hob that comprises a plurality of induction coils, which are substantially uniformly distributed over the hob, at least one detection device being provided that comprises at least one analysis device and at least one signal device, it being possible for the signal device to output a signal as a notification to the user, characterised in that the analysis device is suitable for and designed to detect pot positions (7, 8, 9, 10, 11) on the hob and to output a signal by means of the signal device if at least one predetermined minimum distance between at least two pot positions (7, 8, 9, 10, 11) is not reached, the signal notifying the user that the positioning of a plurality of pots can be optimised and the two pot positions continue to be operated at different powers.