mhurhangee/ep-ind-claims huggingface dataset:
A method of handling a communication operation for a communication device, the method comprising: performing a reception in a first subframe of a time-division duplexing, TDD, carrier from a network; and performing a transmission for responding the reception via a second subframe of an uplink, UL, carrier to the network; wherein the UL carrier is a frequency-division duplexing, FDD, UL carrier, or is another TDD carrier with a UL/downlink, DL, configuration of a TDD mode where all subframes are UL subframes; wherein the reception comprises at least one packet, and the transmission comprises a hybrid automatic repeat request, HARQ, feedback for responding the at least one packet in the reception; wherein a HARQ process number of the HARQ feedback is not greater than a maximum number of HARQ processes, M DL_HARQ, determined according to the reception and the transmission; wherein M DL_HARQ for a UL/DL configuration 4 is 8, or M DL_HARQ for a UL/DL configuration 5 is 8. performing a reception in a first subframe of a time-division duplexing, TDD, carrier from a network; and performing a transmission for responding the reception via a second subframe of an uplink, UL, carrier to the network; wherein the UL carrier is a frequency-division duplexing, FDD, UL carrier, or is another TDD carrier with a UL/downlink, DL, configuration of a TDD mode where all subframes are UL subframes; wherein the reception comprises at least one packet, and the transmission comprises a hybrid automatic repeat request, HARQ, feedback for responding the at least one packet in the reception; wherein a HARQ process number of the HARQ feedback is not greater than a maximum number of HARQ processes, M DL_HARQ, determined according to the reception and the transmission; wherein M DL_HARQ for a UL/DL configuration 4 is 8, or M DL_HARQ for a UL/DL configuration 5 is 8.
A distributed antenna system, the system comprising: a head-end unit; and a plurality of remote units communicatively coupled to the head-end unit, the head-end unit obtaining one or more key performance indicators representative of a desired level of performance for achieving one or more coverage objectives of at least one remote unit in the distributed antenna system, and the head-end unit obtaining one or more system factors representing measurements of the distributed antenna system that affect performance of the plurality of remote units at the desired level based on a configuration of the distributed antenna system; wherein the head-end unit determines a radio frequency power for the at least one remote unit to achieve the one or more key performance indicators based, at least in part, on the one or more system factors; and wherein the head-end unit configures the at least one remote unit to operate at the radio frequency power. a head-end unit; and a plurality of remote units communicatively coupled to the head-end unit, the head-end unit obtaining one or more key performance indicators representative of a desired level of performance for achieving one or more coverage objectives of at least one remote unit in the distributed antenna system, and the head-end unit obtaining one or more system factors representing measurements of the distributed antenna system that affect performance of the plurality of remote units at the desired level based on a configuration of the distributed antenna system; wherein the head-end unit determines a radio frequency power for the at least one remote unit to achieve the one or more key performance indicators based, at least in part, on the one or more system factors; and wherein the head-end unit configures the at least one remote unit to operate at the radio frequency power.
A method of forming a rechargeable battery stack, the method comprising: providing a cathode material substrate having a non-textured surface; forming a stressor layer on the non-textured surface of the cathode material substrate so that an interface between the cathode material substrate and the stressor layer is non-textured; texturing a physically exposed surface of the stressor layer to provide a first textured surface on the physically exposed surface of the stressor layer; and performing a spalling process to remove a spalled cathode material layer from the cathode material substrate, wherein the spalled cathode material layer is attached to the stressor layer and includes a second textured surface that is opposite the non-textured interface between the cathode material substrate and the stressor layer. providing a cathode material substrate having a non-textured surface; forming a stressor layer on the non-textured surface of the cathode material substrate so that an interface between the cathode material substrate and the stressor layer is non-textured; texturing a physically exposed surface of the stressor layer to provide a first textured surface on the physically exposed surface of the stressor layer; and performing a spalling process to remove a spalled cathode material layer from the cathode material substrate, wherein the spalled cathode material layer is attached to the stressor layer and includes a second textured surface that is opposite the non-textured interface between the cathode material substrate and the stressor layer.
Use of lubricating additives comprising the reaction product of at least one alkylene oxide and at least one stand oil and/or a blown native oil as lubricants for metal processing or lubricants for machines, wherein the ratio of stand oil and/or blown native oil to alkylene oxide is 30-50% by weight to 70-50% by weight.
An oil supply guide for applying oil to a yarn spun out from a spinning apparatus, comprising a guide main body including a passage in which the yarn runs, a discharge port from which the oil is discharged toward the passage, and a contact surface with which the yarn running in the passage make contact, the contact surface including a first curved surface in which the discharge port is formed and a second curved surface on the downstream in a yarn running direction of the first curved surface, and the yarn starting to make contact with the contact surface at a periphery of the discharge port and being separated from the contact surface as the yarn runs in a direction of a tangent of the second curved surface at a predetermined position of the second curved surface. a guide main body including a passage in which the yarn runs, a discharge port from which the oil is discharged toward the passage, and a contact surface with which the yarn running in the passage make contact, the contact surface including a first curved surface in which the discharge port is formed and a second curved surface on the downstream in a yarn running direction of the first curved surface, and the yarn starting to make contact with the contact surface at a periphery of the discharge port and being separated from the contact surface as the yarn runs in a direction of a tangent of the second curved surface at a predetermined position of the second curved surface.
Method (100, 200) for obtaining hydrogen from a feed mixture containing hydrogen, methane and hydrocarbons with two carbon atoms and little or no other hydrocarbons, in which - fluid of the feed mixture at a first pressure level is cooled from a first temperature level to a second temperature level, wherein one or more condensates are separated from the fluid of the feed mixture while leaving a residual gas, - fluid of the residual gas is cooled further to a third temperature level and subjected to a countercurrent absorption, thereby obtaining a hydrogen- and methane-rich top gas and a bottom liquid, - fluid of the top gas is heated and subjected to a pressure swing adsorption at the first pressure level, thereby forming a hydrogen-rich and methane-poor or methane-free product stream, and - fluid of the condensate or condensates and/or of the bottom liquid is expanded from the first pressure level to a second pressure level and at the second pressure level is fed to a low-pressure demethanizer, characterized in that the countercurrent absorption is carried out at the first pressure level using fluid which is removed from the low-pressure demethanizer at the second pressure level, compressed to the first pressure level in the gaseous state and cooled to the third temperature level. - fluid of the feed mixture at a first pressure level is cooled from a first temperature level to a second temperature level, wherein one or more condensates are separated from the fluid of the feed mixture while leaving a residual gas, - fluid of the residual gas is cooled further to a third temperature level and subjected to a countercurrent absorption, thereby obtaining a hydrogen- and methane-rich top gas and a bottom liquid, - fluid of the top gas is heated and subjected to a pressure swing adsorption at the first pressure level, thereby forming a hydrogen-rich and methane-poor or methane-free product stream, and - fluid of the condensate or condensates and/or of the bottom liquid is expanded from the first pressure level to a second pressure level and at the second pressure level is fed to a low-pressure demethanizer,
A near field communication device for a heat, ventilation, and air conditioning (HVAC) system, the near field communication device comprising: a near field radio antenna configured to detect and transmit near field communication wireless signals, wherein the near field radio antenna is configured to be attached to a housing of an outdoor unit of the HVAC system; a near field transceiver configured to communicate with a mobile device through the near field radio antenna; a controller configured to be in electronic communication with an outdoor controller of the outdoor unit; and a mobile device cradle configured to be attached to the housing of the outdoor unit, the mobile device cradle being configured to support the mobile device, wherein the near field radio antenna is embedded in the mobile device cradle. a near field radio antenna configured to detect and transmit near field communication wireless signals, wherein the near field radio antenna is configured to be attached to a housing of an outdoor unit of the HVAC system; a near field transceiver configured to communicate with a mobile device through the near field radio antenna; a controller configured to be in electronic communication with an outdoor controller of the outdoor unit; and a mobile device cradle configured to be attached to the housing of the outdoor unit, the mobile device cradle being configured to support the mobile device, wherein the near field radio antenna is embedded in the mobile device cradle.
Circuit for the parallel connection of a first battery string to a second battery string consisting of a battery that is designed to receive and output electrical energy via the battery strings (6, 8) through an intermediate circuit capacitor as electrical consumer having an input capacitance and a resistance that is very small for the battery in the completely discharged state, wherein each battery string (6, 8) has a positive pole and a negative pole for receiving and outputting the electrical energy, characterized in that the circuit has at least a first switch and a second switch, wherein the first switch is designed to connect and disconnect two like poles of the two battery strings (6, 8), wherein the second switch is designed to connect and disconnect the remaining like poles of the battery strings (6, 8), wherein, in order to disconnect the electrical connection to the intermediate circuit capacitor, a protective switching device having a first power switch, a second power switch, a third power switch and a protective resistor is arranged between the parallel-connected battery strings (6, 8) and the intermediate circuit capacitor, wherein the battery, upon disconnection of the electrical connection to the intermediate circuit capacitor, is initially designed to open the protective switching device and then to open at least the first switch in the circuit, as a result of which the battery strings (6, 8) are at a common voltage level when the parallel circuit is opened.
Use of a recombinant adeno-associated virus capsid protein, within a recombinant AAV virion, for decreasing the immunoreactivity of the virions as compared to the corresponding wild-type virions, wherein said mutated AAV capsid protein comprises a substitution of the amino acid which occurs at a position which corresponds to position in the AAV-2 VPA capsid selected from the group consisting of amino acid 132, amino acid 365, and amino acid 571.
A method for wireless control of a controlled device, comprising the following steps, performed by the controlled device: receiving a command (Cd x) from a control device via a wireless communication: transmitting an audio signal carrying a first validation code, receiving a second validation code via the wireless communication; verifying that the second validation code comprises the first validation code and, in a positive event, executing the command (Cd x) from said control device. transmitting an audio signal carrying a first validation code, receiving a second validation code via the wireless communication; verifying that the second validation code comprises the first validation code and, in a positive event, executing the command (Cd x) from said control device.
Device for printing a plurality of containers with a digital print template, comprising: a measurement device adapted to determine at least two independent dimensions of a print area of each container to be printed of the plurality of containers; a control unit adapted to receive, for each container to be printed, the at least two independent dimensions of the print area from the measurement device, to determine a scaling factor on the basis of the received dimensions and of dimensions of the print template, characterized by a control unit which scales the print template uniformly with the determined scaling factor, wherein the scaling factor is selected such that the scaled print template corresponds in at least one dimension to a corresponding dimension of the print area and is larger in all other dimensions than the corresponding dimensions of the print area, and trimming the scaled print template such that the trimmed and scaled print template corresponds in all dimensions to the corresponding dimensions of the print area; and a printing device adapted to print the container with the trimmed and scaled print template. a measurement device adapted to determine at least two independent dimensions of a print area of each container to be printed of the plurality of containers; a control unit adapted to receive, for each container to be printed, the at least two independent dimensions of the print area from the measurement device, to determine a scaling factor on the basis of the received dimensions and of dimensions of the print template, characterized by a control unit which scales the print template uniformly with the determined scaling factor, wherein the scaling factor is selected such that the scaled print template corresponds in at least one dimension to a corresponding dimension of the print area and is larger in all other dimensions than the corresponding dimensions of the print area, and trimming the scaled print template such that the trimmed and scaled print template corresponds in all dimensions to the corresponding dimensions of the print area; and a printing device adapted to print the container with the trimmed and scaled print template.
A composition comprising a Truffle aqueous extract, comprising compounds having a molecular weight of less than 5kDa, wherein said Truffle extract is obtained from fruiting body of Tuber Melanosporum by aqueous extraction and enzymatic hydrolysis performed with enzymes selected among carbohydrases and proteases, wherein after enzymatic hydrolysis, a step of enzyme deactivation is carried out, and a physiologically acceptable medium, which is topically applied to the skin, the mucous membranes and/or superficial skin appendages, for use for protecting the skin against aggressions due to ultraviolet radiation.
A device for heating an amount of liquid in a container using steam, comprising a steam source, a conduit for the passage of steam, said conduit having an inlet end through which the steam that comes from the source enters, and an outlet end (1b, 9), through which the steam exits and flows into the amount of liquid to be heated, said second end (1b, 9) being either located outside the container or within the amount of liquid in the container, said steam conduit being coaxially arranged in a tubular element which axially extends substantially from the inlet end to the outlet end of the steam conduit from which it is radially spaced, thereby forming a first axially-extending annular gap, said first gap being closed at both respective axial ends on said tubular element, characterized in that said tubular element is coaxially arranged in a sleeve, thereby forming a second axially-extending gap, said second gap being closed at both their respective axial ends on said tubular element.
A control method of a continuously variable transmission mounted on a vehicle, comprising: performing advance compensation of a feedback command value of speed ratio control of the continuously variable transmission in a speed ratio control system of the continuously variable transmission; and making an advance amount according to a vibration frequency of torsional vibration of an input shaft of the continuously variable transmission which is the advance amount of the advance compensation variable in accordance with a first operation state of the vehicle, the first operation state of the vehicle being an operation state of the vehicle as to the advance amount, wherein a feedback gain (G_FB) of the speed ratio control of the continuously variable transmission performed in the speed ratio control system is variable in accordance with a second operation state of the vehicle, the second operation state of the vehicle being an operation state of the vehicle as to the feedback gain (G_FB); and when the advance amount is made variable, the advance amount is made variable in accordance with the feedback gain (G_FB). performing advance compensation of a feedback command value of speed ratio control of the continuously variable transmission in a speed ratio control system of the continuously variable transmission; and making an advance amount according to a vibration frequency of torsional vibration of an input shaft of the continuously variable transmission which is the advance amount of the advance compensation variable in accordance with a first operation state of the vehicle, the first operation state of the vehicle being an operation state of the vehicle as to the advance amount, wherein a feedback gain (G_FB) of the speed ratio control of the continuously variable transmission performed in the speed ratio control system is variable in accordance with a second operation state of the vehicle, the second operation state of the vehicle being an operation state of the vehicle as to the feedback gain (G_FB); and when the advance amount is made variable, the advance amount is made variable in accordance with the feedback gain (G_FB).
A method, comprising: releasing hydrogen from water at a first location using energy from a first energy source, preferably a renewable energy source, more preferably a renewable energy source selected from wind, hydroelectric, geothermal, ocean power, solar, and combinations of these; storing the released hydrogen, preferably at said first location, in a metal hydride slurry, the slurry comprising an organic carrier liquid, the slurry preferably comprising magnesium, magnesium hydride, and mineral oil, optionally together with a dispersant; and transporting the metal hydride slurry to a second location remote from the first location, preferably via a carrier selected from a rail car, a truck, a tanker, a pipe, a barge, and any combination of these; and releasing the hydrogen from the metal hydride slurry by heating under conditions designed to exclude air and water to form hydrogen, preferably for utilization as an energy source, and a metal hydride slurry that is at least partially depleted. releasing hydrogen from water at a first location using energy from a first energy source, preferably a renewable energy source, more preferably a renewable energy source selected from wind, hydroelectric, geothermal, ocean power, solar, and combinations of these; storing the released hydrogen, preferably at said first location, in a metal hydride slurry, the slurry comprising an organic carrier liquid, the slurry preferably comprising magnesium, magnesium hydride, and mineral oil, optionally together with a dispersant; and transporting the metal hydride slurry to a second location remote from the first location, preferably via a carrier selected from a rail car, a truck, a tanker, a pipe, a barge, and any combination of these; and
Method for the high-pressure filling of a pressure vessel with a gas, in which the pressure vessel is cooled and filled with at least one gas at a temperature above the boiling point of the gas, is closed in the cooled state and a pressure is produced in the filled and closed pressure vessel by warming, characterized in that the gas is a gas mixture and in that the pressure vessel is filled with a gas mixture by successive filling with the gas components of the gas mixture that is to be produced.
A baffle (1, 170) for a shell-and-tube heat exchanger comprising a planar assembly of a plurality of annular structures interconnected with bridging structures, said baffle particularly made of metal, more particularly made of steel or stainless steel, wherein said annular structures are designed for receiving a plurality of straight tubes of the shell-and-tube heat exchanger, wherein the outer diameter of an annular structure is less than 130% of the inner diameter of the annular structure, wherein said annular structures are positioned in at least two rows, wherein a row is staggered with respect to its adjacent row(s), characterised in that each annular structure is connected with all its adjacent annular structures by a bridging structure oriented along a line between the centers of two adjacent annular structures, thereby forming a plurality of openings, with the annular structures positioned on the corners of the opening. wherein said annular structures are designed for receiving a plurality of straight tubes of the shell-and-tube heat exchanger, wherein the outer diameter of an annular structure is less than 130% of the inner diameter of the annular structure, wherein said annular structures are positioned in at least two rows, wherein a row is staggered with respect to its adjacent row(s), characterised in that each annular structure is connected with all its adjacent annular structures by a bridging structure oriented along a line between the centers of two adjacent annular structures, thereby forming a plurality of openings, with the annular structures positioned on the corners of the opening.