mhurhangee/ep-ind-claims huggingface dataset:
A signal transmission method in a TDD system, comprising: within a time length of a half-frame of a radio frame, a base station transmitting signals in a downlink special time slot, thereafter not transmitting signals in a guard period, GP, and then receiving signals in an uplink special time slot; all time lengths of other uplink or downlink normal time slots for transmitting signals being equal; the total time length of the downlink special time slot, the guard period and the uplink special time slot being integer times of the time length of one uplink or downlink normal time slot; wherein within the time length of the half-frame, the base station transmits signals in order in the first downlink normal time slot, in the second downlink normal time slot and in the downlink special time slot, thereafter does not transmit any signal in the GP, and then, receives signals in the uplink special time slot, and receives or transmits signals in the remaining 6 time slots according to uplink and downlink setting, and the total time length of the downlink special time slot, the GP and the uplink special time slot is 2 times of the time length of one normal time slot.
A collecting box (3, 4, 21), in particular of a heat exchanger of a motor vehicle, with a pipe bottom comprising first contact surfaces, with a box part comprising second contact surfaces, wherein the pipe bottom and the box part are soldered to one another on soldering areas, and wherein the first contact surfaces and the second contact surfaces are capable of forming the soldering areas, with means for contact stability, by means of which a critical detachment of the contact surfaces (26, 27) from each other is prevented in the soldering areas, wherein the means for contact stability are arranged on a longitudinal partition wall portion of the collecting box (3, 4, 21) and the means for contact stability are arranged within the soldering areas, wherein the means are contact stability pins of the pipe bottom and contact stability hubs of the box part which are pressed together, wherein the means for contact stability have soldering initialisation structures, wherein the contact stability pins form elevations within the first contact surfaces and the contact stability hubs form depressions within the second contact surfaces, wherein the elevations of the means for contact stability and the depressions of the means for contact stability are positively connected with one another, wherein the contact stability pins penetrate the contact stability hubs and wherein the pipe bottom has a plurality of pre-fastening flaps on its longitudinal edges.
A bromfenac organic salt, which is bromfenac diethylamine salt having the structure of Formula II, or bromfenac trometamol salt having the structure of Formula III:
A haptic actuator, comprising: an inductive coil; a first layer of a first compressible material positioned adjacent to the inductive coil and transverse to an axis of the inductive coil; a magnet positioned on the first layer of compressible material such that the magnet is movable relative to the inductive coil via compression of the first layer of the first compressible material upon application of a control signal to the inductive coil; and characterized by further comprising a second layer of a second compressible material, different from the first compressible material, disposed on the magnet on an opposite side of the magnet as the first layer. an inductive coil; a first layer of a first compressible material positioned adjacent to the inductive coil and transverse to an axis of the inductive coil; a magnet positioned on the first layer of compressible material such that the magnet is movable relative to the inductive coil via compression of the first layer of the first compressible material upon application of a control signal to the inductive coil; and characterized by further comprising a second layer of a second compressible material, different from the first compressible material, disposed on the magnet on an opposite side of the magnet as the first layer.
Laser scanner for measuring an environment, which is configured to emit laser pulses (S i,k) with a variable pulse repetition rate (PRR n) as a measuring beam that is scanned line by line at an angular velocity (ω) over the environment, in order to generate successive scan lines (Li) of scan points (P i,k) and to determine for each scan point (P i,k), by measuring the runtime of the laser pulse (S i,k) reflected thereon, a distance measurement value (d i,k) to the laser scanner, wherein the pulse repetition rate (PRR n) in at least one sub-section (An) of a current scan line (L i) depends on at least one distance measurement value (d i,k) of at least one preceding scan line (L i), characterized in that said dependency of the pulse repetition rate (PRR n) is selected such that the scan points (P i,k) in the current scan line (L i) have substantially the same distances (a i,k), and/or that the local density of the scan points (P i,k) in a plan view of the environment in the vertical direction is substantially constant at least over a number of successive scan lines (L i). that the scan points (P i,k) in the current scan line (L i) have substantially the same distances (a i,k), and/or that the local density of the scan points (P i,k) in a plan view of the environment in the vertical direction is substantially constant at least over a number of successive scan lines (L i).
A processor-implemented method, the method comprising: receiving a first floating point operand and a second floating point operand, each having an n-bit format comprising a sign field, an exponent field, and a significand field, wherein n is a natural number; normalizing a binary value obtained by performing arithmetic operations for fields corresponding to each other in the first and second floating point operands for an n-bit multiplication operation; determining whether the normalized binary value is a number that is representable in the n-bit format or an extended normal number that is not representable in the n-bit format; according to a result of the determining, encoding the normalized binary value using an extended bit format in which an extension pin identifying whether the normalized binary value is encoded using the extended bit format is added to the n-bit format; and outputting the encoded binary value using the extended bit format, as a result of the n-bit multiplication operation between the first and second floating point operands. receiving a first floating point operand and a second floating point operand, each having an n-bit format comprising a sign field, an exponent field, and a significand field, wherein n is a natural number; normalizing a binary value obtained by performing arithmetic operations for fields corresponding to each other in the first and second floating point operands for an n-bit multiplication operation; determining whether the normalized binary value is a number that is representable in the n-bit format or an extended normal number that is not representable in the n-bit format; according to a result of the determining, encoding the normalized binary value using an extended bit format in which an extension pin identifying whether the normalized binary value is encoded using the extended bit format is added to the n-bit format; and outputting the encoded binary value using the extended bit format, as a result of the n-bit multiplication operation between the first and second floating point operands.
A printing device, comprising: a cartridge including print substance; a belt; and a controller, comprising: a processing resource; and a memory resource including a non-transitory machine-readable instructions executable by the processing resource to: deposit a plurality of patches of the print substance from the cartridge onto the belt; the printing device further comprising a sensor to measure a density of the plurality of patches; wherein the memory resource further comprises instructions to: determine a cartridge density based on a density of a sub-set of patches of the plurality of patches; and characterized in that the memory resource comprises instructions to: decrease the print substance output in response to the determined cartridge density being above a predetermined density threshold. a cartridge including print substance; a belt; and a controller, comprising: a processing resource; and a memory resource including a non-transitory machine-readable instructions executable by the processing resource to: deposit a plurality of patches of the print substance from the cartridge onto the belt; a processing resource; and a memory resource including a non-transitory machine-readable instructions executable by the processing resource to: deposit a plurality of patches of the print substance from the cartridge onto the belt; the printing device further comprising a sensor to measure a density of the plurality of patches; wherein the memory resource further comprises instructions to: determine a cartridge density based on a density of a sub-set of patches of the plurality of patches; and characterized in that the memory resource comprises instructions to: decrease the print substance output in response to the determined cartridge density being above a predetermined density threshold.
A hybrid propulsive engine, comprising: at least one axial-flow jet engine configured to provide at least some first thrust associated with a working fluid passing through at least a portion of the at least one axial-flow jet engine; at least one energy extraction mechanism configured to extract energy from the working fluid passing through at least a portion of the at least one axial-flow jet engine, and at least partially convert that energy to electrical power; at least one torque conversion mechanism configured to convert at least a portion of the electrical power to torque; and at least one rotatable propeller/fan assembly including at least one independently rotatable propeller/fan, the at least one rotatable propeller/fan assembly configured to be powered for rotation at least partially responsive to the at least one torque conversion mechanism configured to convert the at least a portion of the electrical power to torque, wherein the rotation of the at least one rotatable propeller/fan assembly is arranged to produce at least some second thrust. at least one axial-flow jet engine configured to provide at least some first thrust associated with a working fluid passing through at least a portion of the at least one axial-flow jet engine; at least one energy extraction mechanism configured to extract energy from the working fluid passing through at least a portion of the at least one axial-flow jet engine, and at least partially convert that energy to electrical power; at least one torque conversion mechanism configured to convert at least a portion of the electrical power to torque; and at least one rotatable propeller/fan assembly including at least one independently rotatable propeller/fan, the at least one rotatable propeller/fan assembly configured to be powered for rotation at least partially responsive to the at least one torque conversion mechanism configured to convert the at least a portion of the electrical power to torque, wherein the rotation of the at least one rotatable propeller/fan assembly is arranged to produce at least some second thrust.
Visor arrangement, in particular for a safety helmet, comprising a) at least one protective panel element for at least partially protecting a face of a wearer, and b) at least one additional protective grid element which can be secured locally to the at least one protective panel element in order to protect the at least one protective panel element, i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element, ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element, characterized in that c) the at least one additional protective grid element comprises at least one magnet securing device for locally magnetically securing the at least one additional protective grid element to the at least one protective panel element. a) at least one protective panel element for at least partially protecting a face of a wearer, and b) at least one additional protective grid element which can be secured locally to the at least one protective panel element in order to protect the at least one protective panel element, i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element, ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element, i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element, ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element, c) the at least one additional protective grid element comprises at least one magnet securing device for locally magnetically securing the at least one additional protective grid element to the at least one protective panel element.
Trailer coupling with a coupling housing, a pivotable coupling lever and a display for the wear of the coupling, wherein the coupling lever projecting through a housing opening on the upper side of the coupling housing makes contact with a coupling shell and, by acting upon the latter, opens and closes the trailer coupling, characterized in that the display has a display carrier which is connected to the coupling lever and moves together with the pivoting movements thereof and is arranged in the region of the housing opening, wherein the display carrier is designed as a curved piece which is arranged on the rear side of a lever shaft in the region of the axis of the coupling lever.
Nail for inserting objects, substances or the like into a body having a nail body comprising a shank and a tip formed at one end of the shank, wherein the nail body has at least one, in particular exactly one, cavity for accommodating at least one RFID transponder and/or at least one sensor, wherein the nail body consists predominantly or entirely of lignified plant material and is designed in such a way that it is suitable for driving into a body by means of a setting device, in particular a pneumatic nailer characterized in that a sensor for detecting state variables, in particular a temperature sensor and/or moisture sensor and/or pressure sensor, is accommodated in the cavity of the nail body. a nail body comprising a shank and a tip formed at one end of the shank, wherein the nail body has at least one, in particular exactly one, cavity for accommodating at least one RFID transponder and/or at least one sensor, wherein the nail body consists predominantly or entirely of lignified plant material and is designed in such a way that it is suitable for driving into a body by means of a setting device, in particular a pneumatic nailer characterized in that a sensor for detecting state variables, in particular a temperature sensor and/or moisture sensor and/or pressure sensor, is accommodated in the cavity of the nail body.
A ballast comprising: a buck converter to generate a direct current buck voltage output, the buck converter having a particular peak DC buck voltage value associated therewith; an inverter connected to the buck converter to receive a start up signal and, in response, to generate an oscillating voltage signal to energize a lamp; a switching component connected between the buck converter and the inverter to provide the start up signal to the inverter, the switching component having a predetermined breakover voltage value, wherein the switching component is configured to provide the start up signal to the inverter when voltage at the switching component increases to the predetermined breakover voltage value; a sensing circuit configured to sense the voltage at the switching component; and a control circuit connected to the buck converter and the sensing circuit to drive the buck converter, the control circuit configured to monitor the sensed voltage from the sensing circuit while the voltage at the switching component increases to the predetermined breakover voltage and to drive the buck converter to generate a voltage pulse having the particular peak DC buck voltage value when the sensed voltage reaches a predetermined voltage that is less than the breakover voltage of the switching component. a buck converter to generate a direct current buck voltage output, the buck converter having a particular peak DC buck voltage value associated therewith; an inverter connected to the buck converter to receive a start up signal and, in response, to generate an oscillating voltage signal to energize a lamp; a switching component connected between the buck converter and the inverter to provide the start up signal to the inverter, the switching component having a predetermined breakover voltage value, wherein the switching component is configured to provide the start up signal to the inverter when voltage at the switching component increases to the predetermined breakover voltage value; a sensing circuit configured to sense the voltage at the switching component; and a control circuit connected to the buck converter and the sensing circuit to drive the buck converter, the control circuit configured to monitor the sensed voltage from the sensing circuit while the voltage at the switching component increases to the predetermined breakover voltage and to drive the buck converter to generate a voltage pulse having the particular peak DC buck voltage value when the sensed voltage reaches a predetermined voltage that is less than the breakover voltage of the switching component.
A delta-sigma modulator comprising: a plurality of input ports including a first input port configured to receive a first input signal (U 1 (z)) as an input and a second input port configured to receive a second input signal (U 2 (z)) as an input; the first input signal (U 1 (z)) having a first carrier frequency; the second input signal (U 2 (z)) having a second carrier frequency; the second carrier frequency being different from the first carrier frequency; a plurality of loop filters including a first loop filter and a second loop filter; an adder configured to add outputs of the plurality of loop filters; and a quantizer configured to quantize an output of the adder, wherein the first loop filter is provided to receive the first input signal (U 1 (z)) and a feedback signal (V(z)) of an output of the quantizer; the second loop filter is provided to receive the second input signal (U 2 (z)) and the feedback signal (V(z)); and the noise transfer function of the first loop filter has a first noise stop band including the first carrier frequency; the noise transfer function of the second loop filter has a second noise stop band including the second carrier frequency; the second noise stop band is different from the first noise stop band. a plurality of input ports including a first input port configured to receive a first input signal (U 1 (z)) as an input and a second input port configured to receive a second input signal (U 2 (z)) as an input; the first input signal (U 1 (z)) having a first carrier frequency; the second input signal (U 2 (z)) having a second carrier frequency; the second carrier frequency being different from the first carrier frequency; a plurality of loop filters including a first loop filter and a second loop filter; an adder configured to add outputs of the plurality of loop filters; and a quantizer configured to quantize an output of the adder, wherein the first loop filter is provided to receive the first input signal (U 1 (z)) and a feedback signal (V(z)) of an output of the quantizer; the second loop filter is provided to receive the second input signal (U 2 (z)) and the feedback signal (V(z)); and the noise transfer function of the first loop filter has a first noise stop band including the first carrier frequency; the noise transfer function of the second loop filter has a second noise stop band including the second carrier frequency; the second noise stop band is different from the first noise stop band.
A process for reducing in a gas stream the concentration of carbon dioxide and for reducing in an aqueous stream the concentration of sodium chloride, which process comprises contacting a feed gas comprising greater than or equal to 0.1% by volume carbon dioxide with an aqueous feed comprising: (a) sodium chloride; and (b) calcium oxide and/or calcium hydroxide, wherein the pH of the aqueous feed is greater than or equal to 10.0 characterised in that: the aqueous feed comprises the calcium oxide and/or calcium hydroxide at a total concentration of greater than or equal to 0.5% by weight; solid sodium bicarbonate is produced as a result of contacting the feed gas with the aqueous feed; and the molar ratio of (calcium hydroxide):(sodium chloride) in the aqueous feed is from 0.05:1.0 to 1.0:1.0. which process comprises contacting a feed gas comprising greater than or equal to 0.1% by volume carbon dioxide with an aqueous feed comprising: (a) sodium chloride; and (b) calcium oxide and/or calcium hydroxide, (a) sodium chloride; and (b) calcium oxide and/or calcium hydroxide, wherein the pH of the aqueous feed is greater than or equal to 10.0 characterised in that: the aqueous feed comprises the calcium oxide and/or calcium hydroxide at a total concentration of greater than or equal to 0.5% by weight; solid sodium bicarbonate is produced as a result of contacting the feed gas with the aqueous feed; and the molar ratio of (calcium hydroxide):(sodium chloride) in the aqueous feed is from 0.05:1.0 to 1.0:1.0. the aqueous feed comprises the calcium oxide and/or calcium hydroxide at a total concentration of greater than or equal to 0.5% by weight; solid sodium bicarbonate is produced as a result of contacting the feed gas with the aqueous feed; and the molar ratio of (calcium hydroxide):(sodium chloride) in the aqueous feed is from 0.05:1.0 to 1.0:1.0.