mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a liquid container, wherein the liquid container comprises a wall which defines an interior volume of the liquid container; and an energy absorbing system positioned within the interior volume of the liquid container, characterized in that: the energy absorbing system comprises one or more energy absorbing members comprising a metal having a Brinell hardness of at least 150; and the energy absorbing system and the liquid container are configured such that if an object passes through the wall of the liquid container into the interior of the liquid container and the energy absorbing system, an amount of energy absorbed by the energy absorbing system is at least 18% greater than an amount of energy absorbed by said wall of the liquid container when passing into the interior of the liquid container. a liquid container, wherein the liquid container comprises a wall which defines an interior volume of the liquid container; and an energy absorbing system positioned within the interior volume of the liquid container, characterized in that: the energy absorbing system comprises one or more energy absorbing members comprising a metal having a Brinell hardness of at least 150; and the energy absorbing system and the liquid container are configured such that if an object passes through the wall of the liquid container into the interior of the liquid container and the energy absorbing system, an amount of energy absorbed by the energy absorbing system is at least 18% greater than an amount of energy absorbed by said wall of the liquid container when passing into the interior of the liquid container. the energy absorbing system comprises one or more energy absorbing members comprising a metal having a Brinell hardness of at least 150; and the energy absorbing system and the liquid container are configured such that if an object passes through the wall of the liquid container into the interior of the liquid container and the energy absorbing system, an amount of energy absorbed by the energy absorbing system is at least 18% greater than an amount of energy absorbed by said wall of the liquid container when passing into the interior of the liquid container.
A mass spectrometer system (200, 300) comprising: a differential mobility spectrometer (202, 302) for receiving ions from an ion source, the differential mobility spectrometer (202, 302) having an internal operating pressure, electrodes (206, 306), and at least one voltage source for providing DC and RF voltages to the electrodes (206, 306); a mass spectrometer (204, 304) at least partially sealed to, and in fluid communication with, the differential mobility spectrometer (202, 302) for receiving the ions from the differential mobility spectrometer (202, 302); a vacuum chamber (227, 327) surrounding the mass spectrometer (204, 304) for maintaining the mass spectrometer (204, 304) at a vacuum pressure lower than the internal operating pressure, the vacuum chamber (227, 327) having a vacuum chamber inlet (229, 329) and being operable to draw a gas flow including the ions through the differential mobility spectrometer (202, 302) and into the vacuum chamber (227, 327) via the vacuum chamber inlet (229, 329); and, a gas port (232, 332) and means through which a throttle gas is controllably injected into the gas port, the gas port being for modifying a gas flow rate through the differential mobility spectrometer, the gas port being located between the differential mobility spectrometer (202, 302) and the mass spectrometer (204, 304). a differential mobility spectrometer (202, 302) for receiving ions from an ion source, the differential mobility spectrometer (202, 302) having an internal operating pressure, electrodes (206, 306), and at least one voltage source for providing DC and RF voltages to the electrodes (206, 306); a mass spectrometer (204, 304) at least partially sealed to, and in fluid communication with, the differential mobility spectrometer (202, 302) for receiving the ions from the differential mobility spectrometer (202, 302); a vacuum chamber (227, 327) surrounding the mass spectrometer (204, 304) for maintaining the mass spectrometer (204, 304) at a vacuum pressure lower than the internal operating pressure, the vacuum chamber (227, 327) having a vacuum chamber inlet (229, 329) and being operable to draw a gas flow including the ions through the differential mobility spectrometer (202, 302) and into the vacuum chamber (227, 327) via the vacuum chamber inlet (229, 329); and, a gas port (232, 332) and means through which a throttle gas is controllably injected into the gas port, the gas port being for modifying a gas flow rate through the differential mobility spectrometer, the gas port being located between the differential mobility spectrometer (202, 302) and the mass spectrometer (204, 304).
A roller conveyor furnace for the thermal treatment of an object to be fired, comprising a) a heating chamber which comprises at least one heat source; b) at least one roller for transporting an object to be fired through the heating chamber, wherein the roller has a middle region which is located within the heating chamber and has a first and a second end region, wherein the first and second end regions are located outside the heating chamber at points of the heating chamber which lie opposite one another; c) at least two spacer rings, which are arranged on the at least one roller; d) at least three spacer sleeves, which are arranged on the at least one roller, wherein the at least three spacer sleeves have a greater linear extent along the axis of rotation of the roller and a smaller linear extent perpendicularly to the axis of rotation of the roller than the at least two spacer rings, and wherein the at least three spacer sleeves in each case contact at least one spacer ring; e) at least one clamping flange and at least one counter-piece, wherein the at least one clamping flange is arranged in the first end region of the at least one roller and contacts at least one of the spacer sleeves, and the at least one counter-piece is arranged in the second end region of the roller and contacts at least one of the spacer sleeves; characterised in that the spacer rings and spacer sleeves are arranged on the at least one roller without a connection by a material bond with the at least one roller, and the at least one clamping flange fixes the at least two spacer rings and at least three spacer sleeves to each other and to the roller by way of a clamping connection. a) a heating chamber which comprises at least one heat source; b) at least one roller for transporting an object to be fired through the heating chamber, wherein the roller has a middle region which is located within the heating chamber and has a first and a second end region, wherein the first and second end regions are located outside the heating chamber at points of the heating chamber which lie opposite one another; c) at least two spacer rings, which are arranged on the at least one roller; d) at least three spacer sleeves, which are arranged on the at least one roller, wherein the at least three spacer sleeves have a greater linear extent along the axis of rotation of the roller and a smaller linear extent perpendicularly to the axis of rotation of the roller than the at least two spacer rings, and wherein the at least three spacer sleeves in each case contact at least one spacer ring; e) at least one clamping flange and at least one counter-piece, wherein the at least one clamping flange is arranged in the first end region of the at least one roller and contacts at least one of the spacer sleeves, and the at least one counter-piece is arranged in the second end region of the roller and contacts at least one of the spacer sleeves;
A method performed by a terminal device, the method comprising: obtaining a first configuration indicating Type 1 common search space, C-SS, for a first physical downlink control channel, PDCCH; transmitting a message A for requesting a random access, RA, wherein the message A includes a random access channel, RACH, preamble and a physical uplink shared channel, PUSCH; monitoring the first PDCCH, based on the Type 1 C-SS; receiving a message B on a physical downlink shared channel, PDSCH, based on information in the first PDCCH obtained during the monitoring; obtaining a second different configuration for a second physical downlink control channel, PDCCH; monitoring the second PDCCH, based on the second different configuration; and receiving a random access response, RAR on a physical downlink shared channel, PDSCH, based on information in the second PDCCH, when the first PDCCH is not obtained and the second PDCCH is obtained during the monitoring; wherein the RAR is for a four-step random access procedure. obtaining a first configuration indicating Type 1 common search space, C-SS, for a first physical downlink control channel, PDCCH; transmitting a message A for requesting a random access, RA, wherein the message A includes a random access channel, RACH, preamble and a physical uplink shared channel, PUSCH; monitoring the first PDCCH, based on the Type 1 C-SS; receiving a message B on a physical downlink shared channel, PDSCH, based on information in the first PDCCH obtained during the monitoring; obtaining a second different configuration for a second physical downlink control channel, PDCCH; monitoring the second PDCCH, based on the second different configuration; and receiving a random access response, RAR on a physical downlink shared channel, PDSCH, based on information in the second PDCCH, when the first PDCCH is not obtained and the second PDCCH is obtained during the monitoring; wherein the RAR is for a four-step random access procedure.
A computer-implemented method for producing a desired metal workpiece from a flat metal product, the flat metal product being coiled strip, the method comprising: - providing a computer model for producing the desired metal workpiece from the flat metal product in a processing process (180, 182), wherein the computer model has an input and an output, and wherein the processing process (180, 182) comprises a processing step on the flat metal product by a processing means; - receiving a technical data record characterizing the flat metal product, wherein at least some of the data of the technical data record was detected during the production of the flat metal product; - transferring the technical data record to the input of the computer model; - based on the transfer of the technical data record, receiving a model value for an operating parameter of the processing means from the output of the computer model; and - producing the desired metal workpiece by controlling the processing process (180, 182), wherein the control of the processing process (180, 182) comprises controlling the processing means for carrying out the processing step on the flat metal product using the operating parameter set to the model value, the flat metal product being logically divided into a plurality of segments, and the technical data record, for each of the segments, comprising technical data characterizing the segment. - providing a computer model for producing the desired metal workpiece from the flat metal product in a processing process (180, 182), wherein the computer model has an input and an output, and wherein the processing process (180, 182) comprises a processing step on the flat metal product by a processing means; - receiving a technical data record characterizing the flat metal product, wherein at least some of the data of the technical data record was detected during the production of the flat metal product; - transferring the technical data record to the input of the computer model; - based on the transfer of the technical data record, receiving a model value for an operating parameter of the processing means from the output of the computer model; and - producing the desired metal workpiece by controlling the processing process (180, 182), wherein the control of the processing process (180, 182) comprises controlling the processing means for carrying out the processing step on the flat metal product using the operating parameter set to the model value,
Nozzle row arrangement for installation in a roller gap between two strip guide rollers, which are adjacent in a casting direction, in a strip guide of a continuous casting plant, comprising at least one single-substance nozzle, which has a first regulating ratio, arranged in a centre region of the roller gap, and at least one respective further nozzle arranged in the roller gap on each of the right and left of the centre region as seen in casting direction; wherein the at least one single-substance nozzle and the further nozzles are constructed for application of coolant (M1, M2) to a cast strip guided by the strip guide rollers; characterised in that the further nozzles are constructed as multi-substance nozzles each with a second regulating ratio; and the first regulating ratio is smaller than the second regulating ratio.
A communications device, comprising: a housing; a wireless transceiver and processor carried by the housing and operative with each other; an input screen carried by the housing and comprising a plurality of spaced transceivers (54a-54d) positioned at the input screen and connected to the processor and each configured to transmit a millimeter wave RF signal comprising a multi-phased ramp signal and receive reflected signals from an object positioned close to the input screen; wherein said processor is configured to determine the location of the object relative to the input screen based on the reflected signals received at each transceiver and wherein each transceiver (54a-54d) is configured to transmit about a 60 GHz RF signal within a several hundred MHz tuning range, wherein each transceiver (54a-54d) is configured to transmit the RF signal at a different carrier frequency and detected intermediate frequencies received signals are processed to determine the object's location through their Intermediate Frequency offset. a housing; a wireless transceiver and processor carried by the housing and operative with each other; an input screen carried by the housing and comprising a plurality of spaced transceivers (54a-54d) positioned at the input screen and connected to the processor and each configured to transmit a millimeter wave RF signal comprising a multi-phased ramp signal and receive reflected signals from an object positioned close to the input screen; wherein said processor is configured to determine the location of the object relative to the input screen based on the reflected signals received at each transceiver and wherein each transceiver (54a-54d) is configured to transmit about a 60 GHz RF signal within a several hundred MHz tuning range, wherein each transceiver (54a-54d) is configured to transmit the RF signal at a different carrier frequency and detected intermediate frequencies received signals are processed to determine the object's location through their Intermediate Frequency offset.
A method for operating a base station, BS, in a wireless communication system, the method comprising: Receiving a plurality of signals including information for beamforming to a plurality of user equipments, UEs, using a full-dimensional multiple-input multiple-output, FD-MIMO, beamforming scheme through at least one time resource and at least one frequency resource that are co-scheduled to the plurality of UEs; performing (506, 1700, 2003) a calibration for generating a precoder based on the received plurality of signals, wherein the performing the calibration comprises: detecting a sample level mismatch for a plurality of common public radio interface, CPRI, connections associated with at least one antenna array; compensating for the detected sample level mismatch for the plurality of CPRI connections; detecting delay differences across a plurality of channels after the detected sample level mismatch is compensated; compensating for the detected delay differences across the plurality of channels; and adjusting phases of the plurality of channels to be in-phase after the detected delay differences are compensated; and performing the beamforming on signals to the plurality of UEs based on a precoder obtained from a result of the calibration. Receiving a plurality of signals including information for beamforming to a plurality of user equipments, UEs, using a full-dimensional multiple-input multiple-output, FD-MIMO, beamforming scheme through at least one time resource and at least one frequency resource that are co-scheduled to the plurality of UEs; performing (506, 1700, 2003) a calibration for generating a precoder based on the received plurality of signals, wherein the performing the calibration comprises: detecting a sample level mismatch for a plurality of common public radio interface, CPRI, connections associated with at least one antenna array; compensating for the detected sample level mismatch for the plurality of CPRI connections; detecting delay differences across a plurality of channels after the detected sample level mismatch is compensated; compensating for the detected delay differences across the plurality of channels; and adjusting phases of the plurality of channels to be in-phase after the detected delay differences are compensated; and performing the beamforming on signals to the plurality of UEs based on a precoder obtained from a result of the calibration. detecting a sample level mismatch for a plurality of common public radio interface, CPRI, connections associated with at least one antenna array; compensating for the detected sample level mismatch for the plurality of CPRI connections; detecting delay differences across a plurality of channels after the detected sample level mismatch is compensated; compensating for the detected delay differences across the plurality of channels; and adjusting phases of the plurality of channels to be in-phase after the detected delay differences are compensated; and performing the beamforming on signals to the plurality of UEs based on a precoder obtained from a result of the calibration.
A robotic tool apparatus comprising: an actuator housing; an elongate tool manipulator extending outwardly from the actuator housing and having a plurality of control links extending along a length of the tool manipulator, the control links being operable to cause movement of a distal end of the tool manipulator in response to movement of the control links in an actuating direction generally aligned with the length of the tool manipulator; a plurality of actuators, each actuator being associated with at least one of the control links and being mounted in the actuator housing to travel in a transverse direction substantially orthogonal to the actuating direction; and a plurality of linkages, each linkage being associated with one of the control links and extending between the control link and the respective actuator and being operable to transmit drive forces between the actuator and the control link, wherein the actuator housing comprises a drive face and each actuator comprises at least one drive engaging portion for receiving a drive force for moving the actuator, the at least one drive engaging portion being exposed on the drive face to facilitate coupling the actuator to a drive apparatus operable to provide the drive force, and wherein the drive face comprises a first drive face on a side of the actuator housing and further comprises a second drive face disposed on an opposite side of the actuator housing, characterized in that each actuator comprises a first drive engaging portion exposed on the first drive face and a second drive engaging portion exposed on the second drive face, the first and second drive faces (192, 230) being operable to permit coupling of the tool apparatus to a drive apparatus from either side of the actuator housing. an actuator housing; an elongate tool manipulator extending outwardly from the actuator housing and having a plurality of control links extending along a length of the tool manipulator, the control links being operable to cause movement of a distal end of the tool manipulator in response to movement of the control links in an actuating direction generally aligned with the length of the tool manipulator; a plurality of actuators, each actuator being associated with at least one of the control links and being mounted in the actuator housing to travel in a transverse direction substantially orthogonal to the actuating direction; and a plurality of linkages, each linkage being associated with one of the control links and extending between the control link and the respective actuator and being operable to transmit drive forces between the actuator and the control link,
Method for cooling a synthesis gas which has been produced by catalytic steam reforming of a hydrocarbon-containing feed gas and has been cooled by heat exchange with boiler feed water for the conversion of the latter into steam, with removal of the aqueous condensate formed, and treated in a plant for the catalytic conversion of carbon monoxide by means of steam into hydrogen and carbon dioxide, where the cooling is carried out by the gas passing through a plurality of cooling stages connected in series and comprises heat exchange with the feed gas, with degassed and undegassed boiler feed water for production of the steam required for steam reforming and with ambient air and where cooled condensate formed after the last cooling stage is separated off from the gas and the gas is discharged for the further treatment, characterized in that at least after a further cooling stage preceding the last cooling stage, a further hot aqueous condensate is separated from the gas.
A method for manufacturing a display, comprising: depositing a non-conductive underfill or non-conductive layer, on a thin film transistor layer of a substrate of the display; placing a first light emitting diode on the non-conductive underfill or non-conductive layer; heating the non-conductive underfill or non-conductive layer at a first temperature to adhere the first LED to the non-conductive underfill or non-conductive layer and/or to the TFT layer and/or to allow metal to metal contact to occur; and heating the non-conductive underfill or non-conductive layer at a second temperature to bond contacts of the first LED to the TFT layer, the second temperature being higher than the first temperature. depositing a non-conductive underfill or non-conductive layer, on a thin film transistor layer of a substrate of the display; placing a first light emitting diode on the non-conductive underfill or non-conductive layer; heating the non-conductive underfill or non-conductive layer at a first temperature to adhere the first LED to the non-conductive underfill or non-conductive layer and/or to the TFT layer and/or to allow metal to metal contact to occur; and heating the non-conductive underfill or non-conductive layer at a second temperature to bond contacts of the first LED to the TFT layer, the second temperature being higher than the first temperature.
cis-4-{2-[9-(3-fluorobenzyl)-5,6,8,9-tetrahydro-7H-pyrido[4',3':4,5]pyrrolo[2,3-b]pyridin-7-yl]-2-oxoethyl}cyclohexanecarboxylic acid or a salt thereof or a solvate thereof.