mhurhangee/ep-ind-claims huggingface dataset:
A method of operating of a user equipment, UE, the UE having a processor including a plurality of cores (1291, 129-2, 129-3, 129-4), the plurality of cores including a first core and remaining cores, comprising: determining a temperature of the first core of the plurality of cores, the first core processing a load; in response to determining that the temperature of the first core is greater than a pre-mitigation temperature threshold and not greater than a mitigation temperature threshold, the mitigation temperature threshold being greater than the pre-mitigation temperature threshold, determining a temperature of a second core of the remaining cores; transferring at least a portion of the load, but not all the load, of the first core to the second core in response to determining that the temperature of the second core is greater than a load-sharing temperature threshold, the load-sharing temperature threshold being less than the pre-mitigation temperature threshold; and transferring all the load of the first core to the second core in response to determining that the temperature of the second core is less than the load-sharing temperature threshold. determining a temperature of the first core of the plurality of cores, the first core processing a load; in response to determining that the temperature of the first core is greater than a pre-mitigation temperature threshold and not greater than a mitigation temperature threshold, the mitigation temperature threshold being greater than the pre-mitigation temperature threshold, determining a temperature of a second core of the remaining cores; transferring at least a portion of the load, but not all the load, of the first core to the second core in response to determining that the temperature of the second core is greater than a load-sharing temperature threshold, the load-sharing temperature threshold being less than the pre-mitigation temperature threshold; and transferring all the load of the first core to the second core in response to determining that the temperature of the second core is less than the load-sharing temperature threshold.
An anti- ceramide antibody or a biologically active fragment thereof, and an antibiotic that is effective against Gram-negative bacteria, for use in preventing or treating a disease in an animal, wherein the disease is selected from the group consisting of radiation disease and radiation GI syndrome.
Aircraft with vertical takeoff capability, having: a thrust drive for generating a drive force acting in a horizontal direction, a lift drive for generating a lift force acting in a vertical direction; an engine for providing mechanical energy for the thrust drive, a first generator for providing electrical energy for the lift drive; an exhaust-gas turbocharger for the engine, having a first turbine which is driven by an exhaust-gas stream of the engine and which is designed to provide mechanical energy for the thrust drive; a second turbine for providing mechanical energy for a third generator, wherein the third generator is designed to provide electrical energy for the lift drive; wherein drive of the second turbine is realized by means of the exhaust-gas stream (44, 44b) of the engine; a distributor unit which is designed to control a splitting of the exhaust-gas stream of the engine into a first exhaust gas fraction to be fed to the first turbine and a second exhaust-gas fraction to be fed to the second turbine such that a ratio between the first exhaust-gas fraction and the second exhaust-gas fraction is predefined or adjusted. a thrust drive for generating a drive force acting in a horizontal direction, a lift drive for generating a lift force acting in a vertical direction; an engine for providing mechanical energy for the thrust drive, a first generator for providing electrical energy for the lift drive; an exhaust-gas turbocharger for the engine, having a first turbine which is driven by an exhaust-gas stream of the engine and which is designed to provide mechanical energy for the thrust drive; a second turbine for providing mechanical energy for a third generator, wherein the third generator is designed to provide electrical energy for the lift drive; wherein drive of the second turbine is realized by means of the exhaust-gas stream (44, 44b) of the engine; a distributor unit which is designed to control a splitting of the exhaust-gas stream of the engine into a first exhaust gas fraction to be fed to the first turbine and a second exhaust-gas fraction to be fed to the second turbine such that a ratio between the first exhaust-gas fraction and the second exhaust-gas fraction is predefined or adjusted.
Exercise apparatus comprising a movable actuator (6, 7) against which a force can be exerted by a user to cause movement of the actuator, and a load system (12, 19) which provides an adjustable force to resist or assist the force exerted by the user by means of magnetic interaction between fixed and movable components (19, 12), the movable component being connected to the actuator so as to move in response to movement of the actuator, one of the fixed and movable components comprising a coil assembly which is energised by electricity from a source of electric current under the control of a microprocessor control unit so as to create a magnetic field which exerts a force on the other component; wherein the supply of electric current from the source to each coil unit is independently controllable by the control unit so that the source of electric current is connected to and disconnected from the coil units sequentially in a longitudinal direction; characterised in that the fixed component comprises the coil assembly, which includes a longitudinally arranged coaxial series of coil units; an elongate passage is defined within the series of coil units; and the movable component comprises a shuttle which is mounted for longitudinal movement within the passage; and wherein the source of electric current is connected to and disconnected from the coil units sequentially in a longitudinal direction as the shuttle moves in that longitudinal direction.
(Amended) A preparation method of a lithium-titanium complex oxide, the preparation method comprising the steps of: preparing a slurry mixture in which a titanium oxide, lithium compound and zirconium compound are mixed; wet-milling the mixture using beads having a size of 0.10 to 0.30 mm to obtain a wet-milled mixture; spray drying the wet-milled mixture to obtain a spray dried mixture; and calcining the spray dried mixture, wherein the wet-milling comprises wet-milling the slurry mixture for 2 to 7 hours to the slurry mixture having a particle size D50 of 0.10 μ m. preparing a slurry mixture in which a titanium oxide, lithium compound and zirconium compound are mixed; wet-milling the mixture using beads having a size of 0.10 to 0.30 mm to obtain a wet-milled mixture; spray drying the wet-milled mixture to obtain a spray dried mixture; and calcining the spray dried mixture, wherein the wet-milling comprises wet-milling the slurry mixture for 2 to 7 hours to the slurry mixture having a particle size D50 of 0.10 μ m.
A system for preheating batch materials prior to delivery to a glass melting furnace, comprising: a preheater configured to receive unheated batch materials and to deliver heated batch materials, the preheater including a primary outlet configured to exhaust fluid from the preheater and a primary inlet configured to receive exhaust fluids from the glass melting furnace and exhaust fluids recirculated from the primary outlet of the preheater; a cyclonic separator having an inlet in fluid communication with the primary outlet of the preheater and an outlet configured to exhaust fluids from the cyclonic separator; a fan in fluid communication with the outlet of the cyclonic separator; a pressure sensor configured to generate a pressure signal indicative of a drop in pressure between the inlet and the outlet of the cyclonic separator; a temperature sensor configured to generate a temperature signal indicative of a temperature at the outlet of the cyclonic separator; and, a cyclonic flow controller configured to control a speed of the fan responsive to the pressure signal of the pressure sensor indicative of the pressure drop between the inlet and the outlet of the cyclonic separator and responsive to the temperature signal of the temperature sensor indicative of the temperature at the outlet of the cyclonic separator, for efficient transfer of energy from the exhaust fluid to the batch materials in the preheater while protecting ductwork leading to and from the preheater, wherein the cyclonic flow controller is configured to generate an output signal used to control the fan. a preheater configured to receive unheated batch materials and to deliver heated batch materials, the preheater including a primary outlet configured to exhaust fluid from the preheater and a primary inlet configured to receive exhaust fluids from the glass melting furnace and exhaust fluids recirculated from the primary outlet of the preheater; a cyclonic separator having an inlet in fluid communication with the primary outlet of the preheater and an outlet configured to exhaust fluids from the cyclonic separator; a fan in fluid communication with the outlet of the cyclonic separator; a pressure sensor configured to generate a pressure signal indicative of a drop in pressure between the inlet and the outlet of the cyclonic separator; a temperature sensor configured to generate a temperature signal indicative of a temperature at the outlet of the cyclonic separator; and, a cyclonic flow controller configured to control a speed of the fan responsive to the pressure signal of the pressure sensor indicative of the pressure drop between the inlet and the outlet of the cyclonic separator and responsive to the temperature signal of the temperature sensor indicative of the temperature at the outlet of the cyclonic separator, for efficient transfer of energy from the exhaust fluid to the batch materials in the preheater while protecting ductwork leading to and from the preheater, wherein the cyclonic flow controller is configured to generate an output signal used to control the fan.
A computer-implemented method to model downhole events, the method comprising: extracting a dataset from a database, the dataset comprising normal wellbore data and outlier wellbore data; clustering a plurality of the outlier data into a plurality of clusters, characterized in that segregating the plurality of clusters into a high density cluster, having a higher number of data points, and a low density cluster, having a lower number of data points; flagging those high density clusters as a rimlier; analyzing the rimlier to determine those data variables within the rimlier that indicate a downhole event; and modeling the downhole event based upon the analysis of the rimlier. extracting a dataset from a database, the dataset comprising normal wellbore data and outlier wellbore data; clustering a plurality of the outlier data into a plurality of clusters, characterized in that segregating the plurality of clusters into a high density cluster, having a higher number of data points, and a low density cluster, having a lower number of data points; flagging those high density clusters as a rimlier; analyzing the rimlier to determine those data variables within the rimlier that indicate a downhole event; and modeling the downhole event based upon the analysis of the rimlier.
Arrangement for determining the magnitude of a current (I S) flowing through a busbar, with - a busbar, - a measurement conductor which is electrically connected to the busbar at a first contact point and which extends from the first contact point to a second contact point, - a third contact point which is arranged at the busbar spaced apart from the first contact point, - a voltage measurement device which is set up for measuring a voltage which occurs between the second contact point and the third contact point, and - a controlled current source which is set up for introducing a measurement current (I L) into the measurement conductor, characterized in that - the magnitude of the measurement current (I L) is controlled in such a way that the voltage which occurs between the second contact point and the third contact point assumes a preselected value, in particular the value zero, and - the arrangement has an evaluation device which determines the magnitude of the current (I S) flowing through the busbar from the magnitude of the measurement current (I L), the cross-sectional area of the measurement conductor which is effective for the current line and the cross-sectional area of the busbar which is effective for the current line. - a busbar, - a measurement conductor which is electrically connected to the busbar at a first contact point and which extends from the first contact point to a second contact point, - a third contact point which is arranged at the busbar spaced apart from the first contact point, - a voltage measurement device which is set up for measuring a voltage which occurs between the second contact point and the third contact point, and - a controlled current source which is set up for introducing a measurement current (I L) into the measurement conductor, - the magnitude of the measurement current (I L) is controlled in such a way that the voltage which occurs between the second contact point and the third contact point assumes a preselected value, in particular the value zero, and - the arrangement has an evaluation device which determines the magnitude of the current (I S) flowing through the busbar from the magnitude of the measurement current (I L), the cross-sectional area of the measurement conductor which is effective for the current line and the cross-sectional area of the busbar which is effective for the current line.
A laminated battery formed by laminating a plurality of flat cells each having an electrode tab (12,13), comprising: an insulating member disposed to prevent the electrode tab (12,13) from a short-circuit; and a terminal (22,24) connected to the electrode tab (12,13), the laminated battery being characterized in that a tip end side of the terminal (22,24) is supported by a support member (23,25) provided on the insulating member, the support member (23,25) is held by the insulating member, the terminal (22,24) comprises a joint portion (225, 241) in which the electrode tab (12,13) is joined to the base end side of the joint portion (225, 241), and the joint portion (225, 241) is held by the insulating member. an insulating member disposed to prevent the electrode tab (12,13) from a short-circuit; and a terminal (22,24) connected to the electrode tab (12,13), a tip end side of the terminal (22,24) is supported by a support member (23,25) provided on the insulating member, the support member (23,25) is held by the insulating member, the terminal (22,24) comprises a joint portion (225, 241) in which the electrode tab (12,13) is joined to the base end side of the joint portion (225, 241), and the joint portion (225, 241) is held by the insulating member.
A file generation apparatus comprising: a file generation unit configured to generate a Media Presentation Description file of MPEG-DASH for describing a quality file, wherein the quality file is storing quality information representative of qualities of a plurality of depth-related images, the quality information being divided into a plurality of tracks or subsamples; the quality file further is storing information that associates each of the plurality of tracks or subsamples with a level; the depth-related images comprise depth images or occlusion images; and the Media Presentation Description file comprises an adaptation set describing the quality file and a correspondence relationship between the levels and representations of the depth-related images. a file generation unit configured to generate a Media Presentation Description file of MPEG-DASH for describing a quality file, wherein the quality file is storing quality information representative of qualities of a plurality of depth-related images, the quality information being divided into a plurality of tracks or subsamples; the quality file further is storing information that associates each of the plurality of tracks or subsamples with a level; the depth-related images comprise depth images or occlusion images; and the Media Presentation Description file comprises an adaptation set describing the quality file and a correspondence relationship between the levels and representations of the depth-related images.
An antibody for use in the treatment of a food allergy in a subject in need thereof, said antibody comprising: a. a heavy chain having SEQ ID NO: 42; and b. a light chain heaving SEQ ID NO: 40. a. a heavy chain having SEQ ID NO: 42; and b. a light chain heaving SEQ ID NO: 40.
A cable actuator comprising: a housing; and a cam disposed in the housing and including a first cable retaining portion and a second cable retaining portion, the cam being movable between a first position in which the first cable retaining portion is in an actuated position and the second cable retaining portion is in a return position, and a second position in which the first cable retaining portion is in a return position and the second cable retaining portion is in an actuated position; wherein the cam comprises a cam body defining a first track receiving a first projection connected with the first cable retaining portion and a second track receiving a second projection connected with the second cable retaining portion, wherein the first track is contoured to move the first cable retaining portion to the actuated position when the cam is moved to the first position, and the second track is contoured to move the second cable retaining portion to the actuated position when the cam is moved to the second position; the first projection is disposed on a first slide member defining the first cable retaining portion, and the second projection is disposed on a second slide member defining the second cable retaining portion; characterized in that the first slide member further defines a third cable retaining portion movable from an actuated position to a return position when the cam is moved from the first position to the second position. a housing; and a cam disposed in the housing and including a first cable retaining portion and a second cable retaining portion, the cam being movable between a first position in which the first cable retaining portion is in an actuated position and the second cable retaining portion is in a return position, and a second position in which the first cable retaining portion is in a return position and the second cable retaining portion is in an actuated position; wherein the cam comprises a cam body defining a first track receiving a first projection connected with the first cable retaining portion and a second track receiving a second projection connected with the second cable retaining portion, wherein the first track is contoured to move the first cable retaining portion to the actuated position when the cam is moved to the first position, and the second track is contoured to move the second cable retaining portion to the actuated position when the cam is moved to the second position; the first projection is disposed on a first slide member defining the first cable retaining portion, and the second projection is disposed on a second slide member defining the second cable retaining portion; characterized in that the first slide member further defines a third cable retaining portion movable from an actuated position to a return position when the cam is moved from the first position to the second position.
A method for producing a glycolide by depolymerizing a polyglycolic acid, the method comprising: a heating step of heating a mixture either under normal pressure or reduced pressure at a temperature at which a polyglycolic acid undergoes depolymerization, the mixture containing the polyglycolic acid and a polyethylene glycol ether which is represented by the following formula: X-O-(-CH 2 CH 2 -O-) p -Y (wherein X and Y are each independently an alkyl group or an aryl group having from 2 to 20 carbon atoms, and p is an integer from 1 to 5) and which has a molecular weight of from 150 to 450 and a boiling point of from 130 to 220°C at a pressure of 3 kPa; a solution-forming step in which the mixture is rendered in a solution state in which a melt phase of the polyglycolic acid and a liquid phase consisting of the polyethylene glycol ether essentially form a uniform phase; a glycolide production step in which a glycolide is produced by a depolymerization reaction of the polyglycolic acid by continuing to heat the mixture in the solution state; a distillation step of distilling off the produced glycolide together with the polyethylene glycol ether from the depolymerization reaction system; and a recovery step of recovering the glycolide from the distillate; wherein the glycolide production step and the distillation step are performed at a temperature of 200 to 232°C and a pressure from 3 to 10 kPa. a heating step of heating a mixture either under normal pressure or reduced pressure at a temperature at which a polyglycolic acid undergoes depolymerization, the mixture containing the polyglycolic acid and a polyethylene glycol ether which is represented by the following formula: X-O-(-CH 2 CH 2 -O-) p -Y (wherein X and Y are each independently an alkyl group or an aryl group having from 2 to 20 carbon atoms, and p is an integer from 1 to 5) and which has a molecular weight of from 150 to 450 and a boiling point of from 130 to 220°C at a pressure of 3 kPa; (wherein X and Y are each independently an alkyl group or an aryl group having from 2 to 20 carbon atoms, and p is an integer from 1 to 5) and which has a molecular weight of from 150 to 450 and a boiling point of from 130 to 220°C at a pressure of 3 kPa; a solution-forming step in which the mixture is rendered in a solution state in which a melt phase of the polyglycolic acid and a liquid phase consisting of the polyethylene glycol ether essentially form a uniform phase; a glycolide production step in which a glycolide is produced by a depolymerization reaction of the polyglycolic acid by continuing to heat the mixture in the solution state; a distillation step of distilling off the produced glycolide together with the polyethylene glycol ether from the depolymerization reaction system; and a recovery step of recovering the glycolide from the distillate;