mhurhangee/ep-ind-claims huggingface dataset:
A method of predicting the response of a human subject having, suspected of having, or at risk of developing a renal cell carcinoma to a combination therapy comprising lenvatinib or a pharmaceutically acceptable salt thereof, preferably lenvatinib mesylate and everolimus, the method comprising measuring or having measured a baseline expression level of at least one protein selected from the group consisting of IL-18BP, ICAM-1, FGF-21 and M-CSF in a biological sample obtained from the human subject, wherein preferably the baseline expression level of the at least one protein is determined by measuring the amount of the at least one protein in the biological sample or the baseline expression level of the at least one protein is determined by measuring the amount of mRNA encoding the at least one protein in the biological sample, wherein a lower baseline expression level of the protein, as compared to a control expression level, of the at least one protein is predictive that the human subject is responsive to the combination therapy comprising lenvatinib or a pharmaceutically acceptable salt thereof, preferably lenvatinib mesylate and everolimus, wherein the control expression level is an expression level in a biological sample obtained from a subject who is not responsive to the combination therapy comprising lenvatinib or a pharmaceutically acceptable salt thereof, preferably lenvatinib mesylate and everolimus, and wherein the biological sample is a blood sample, preferably a serum sample, or a plasma sample. wherein preferably the baseline expression level of the at least one protein is determined by measuring the amount of the at least one protein in the biological sample or the baseline expression level of the at least one protein is determined by measuring the amount of mRNA encoding the at least one protein in the biological sample, wherein a lower baseline expression level of the protein, as compared to a control expression level, of the at least one protein is predictive that the human subject is responsive to the combination therapy comprising lenvatinib or a pharmaceutically acceptable salt thereof, preferably lenvatinib mesylate and everolimus, wherein the control expression level is an expression level in a biological sample obtained from a subject who is not responsive to the combination therapy comprising lenvatinib or a pharmaceutically acceptable salt thereof, preferably lenvatinib mesylate and everolimus, and wherein the biological sample is a blood sample, preferably a serum sample, or a plasma sample.
A pressure swing adsorption-type oxygen concentrator comprising an adsorption bed filled with an adsorbent capable of selectively adsorbing nitrogen relative to oxygen, a compressor for supplying air to the adsorption bed, a channel switching valve (104a, 104b) to repeat in a constant timing an adsorption step, in which air is supplied from the compressor to the adsorption bed to isolate concentrated oxygen and a desorption step, in which the adsorption bed is evacuated to regenerate the adsorbent, a product tank downstream of the adsorption bed and upstream of a flow rate setting device to temporarily store concentrated oxygen, the flow rate setting device for setting a supply flow rate of the concentrated oxygen produced, and a flow rate measuring device for determining a supply flow rate of concentrated oxygen produced, characterized in that a pulsation detection device for detecting a variation of the flow rate of concentrated oxygen supplied by the flow rate setting device, and a control device to control an amount of air supplied from the compressor based on the pulsation detection results and a predetermined value of the flow rate setting device are provided; and wherein the pulsation detection device is the flow rate measuring device with a function of determining a peak flow rate and/or bottom flow rate of the concentrated oxygen supplied and the control device is a device to control an increase or decrease of an amount of air supplied from the compressor, when the peak flow rate value or the bottom flow rate value per predetermined time which is a single sequence of adsorption-desorption exceeds a predetermined range of a threshold value which is ±5% relative to a predetermined flow rate value; and wherein the pulsation detection device is a device adapted to judge as a pulsating flow being occurred when the peak flow rate value or the bottom flow rate value detected by the flow rate measuring device exceeds the predetermined range of the threshold value within the predetermined time and to control to increase or decrease the number of rotation of an electric motor in order to increase or decrease an amount of air supplied from the compressor.
A chucking apparatus for a fastener having a rod-like shape, the chucking apparatus comprising: a chuck tool having a lower surface, wherein said lower surface of the chuck tool is a concave surface, and any point on said lower surface is higher as a distance from a central axis of the chuck tool is smaller, and wherein the chuck tool is configured to hod the fastener in a predetermined orientation, the chucking apparatus being characterized in that it further comprises, a case (3-n) including a side portion formed in a cylindrical shape and a bottom lid portion disposed at an end portion of the side portion and closing its end, wherein one end of the side portion is open, the bottom lid portion includes an inner bottom surface, the side portion has a central axis, and the side portion and the bottom lid portion are connected to a tray, and wherein said inner bottom surface of the case (3-n) is a concave surface, and any point on said inner bottom surface is lower as a distance from the central axis of the case (3-n) is smaller; the chuck tool being configured to hold the fastener in said predetermined orientation when said fastener inside the case (3-n) is sandwiched between said inner bottom surface of the case (3-n) and said lower surface of the chuck tool; a rotating mechanism configured to rotate the chuck tool about a rotation axis when the central axis of the case (3-n) coincides with the rotation axis and the fastener is sandwiched between the inner bottom surface of the case (3-n) and the lower surface of the chuck tool with a predetermined force, such that the fastener moves until an axis of the fastener coincides with the central axis of the case (3-n), which is said predetermined orientation of the fastener; and a transfer device configured to move the chuck tool from the case (3-n) while the fastener is held by the chuck tool, thereby taking out the fastener from the case (3-n).
A sortation system for use in an environment that includes an input area containing objects to be processed, and destination locations at which processed objects are to be placed, said sortation system comprising: a programmable motion device; a perception system for providing data representative of an image of at least a portion of the input area containing objects to be processed; an end effector for engaging objects in the input area; said sortation system characterised by: a grasp location selection system for determining a grasp location for grasping an object in the input area containing objects to be processed wherein said grasp location selection system determines a grasp location for the object responsive to a detection of any of a bar code, a QR code, UPC code, or other product code, and wherein said grasp location is selected to be the location of the bar code, QR code, UPC code or other product code; and a grasp direction selection system for determining a grasp direction from which to grasp the object in the input area containing objects to be processed. a programmable motion device; a perception system for providing data representative of an image of at least a portion of the input area containing objects to be processed; an end effector for engaging objects in the input area;
Device (16, 16') for filtering cut-off gases for an electrical current cut-off apparatus, the filtering device comprising: - a central porous body including longitudinal channels (44, 44') and transverse channels (46, 46') which place the longitudinal channels in fluidic communication with one another, the longitudinal channels (44, 44') having a curved shape; and - an impermeable outer skin which surrounds the central body and which has inlet orifices and outlet orifices, each longitudinal channel (44, 44') extending between an inlet orifice and an outlet orifice, the outer skin and the central body forming a rigid part in one piece which is made of metallic material. - a central porous body including longitudinal channels (44, 44') and transverse channels (46, 46') which place the longitudinal channels in fluidic communication with one another, the longitudinal channels (44, 44') having a curved shape; and - an impermeable outer skin which surrounds the central body and which has inlet orifices and outlet orifices, each longitudinal channel (44, 44') extending between an inlet orifice and an outlet orifice, the outer skin and the central body forming a rigid part in one piece which is made of metallic material.
A device (100, 300) comprising: a display configured to display first application data; a processor configured to communicate with a further device, the processor being further configured to: receive second application data from the further device, wherein the second application data comprises data associated with one or more applications that previously failed to execute on the further device; detect an event associated with the further device and generate, in response to the detected event, first application data pertaining to a display of the received second application data associated with one or more applications that previously failed to execute on the further device, wherein the first application data comprises a list of one or more items associated with the received second application data; and output the first application data to the display. a display configured to display first application data; a processor configured to communicate with a further device, the processor being further configured to: receive second application data from the further device, wherein the second application data comprises data associated with one or more applications that previously failed to execute on the further device; detect an event associated with the further device and generate, in response to the detected event, first application data pertaining to a display of the received second application data associated with one or more applications that previously failed to execute on the further device, wherein the first application data comprises a list of one or more items associated with the received second application data; and output the first application data to the display. receive second application data from the further device, wherein the second application data comprises data associated with one or more applications that previously failed to execute on the further device; detect an event associated with the further device and generate, in response to the detected event, first application data pertaining to a display of the received second application data associated with one or more applications that previously failed to execute on the further device, wherein the first application data comprises a list of one or more items associated with the received second application data; and output the first application data to the display.
A laundry dryer with heat pump comprising a drum in which the laundry items desired to be dried are placed, an air circulation line enabling recirculated air to circulate in a closed cycle, an evaporator enabling dehumidifying humid process air discharged from the drum, a condenser enabling heating the dehumidified process air, a compressor and an expansion valve enabling coolant flow, and a pump enabling discharging condensed water, characterized by a first detection means measuring a coolant temperature, a second detection means measuring a process air temperature, and by a control unit controlling operation of the pump according to data received from the first detection means and the second detection means.
A control circuit (202, 302, 402) comprising: a plurality of driving terminals (212,216) that are configured to provide driving signals to control a status of a switch circuit to enable charging or discharging of a battery pack; detection circuitry, coupled to said driving terminals, that is configured to receive voltages at a plurality of terminals of said switch circuit, and to detect a status of an interface of said battery pack according to said status of said switch circuit and a difference between said voltages, said interface operable for receiving power to charge said battery pack in a charge mode and providing power from said battery pack to a load in a discharge mode; wherein said driving signals comprise a signal that is configured to selectively turn on a charge switch (Q CHG) in said switch circuit to deliver a charging current of said battery pack from a charge input terminal to a charge output terminal; and characterised in that when said charge switch (Q CHG) is off, said detection circuitry is configured to receive a first voltage at said charge input terminal and a second voltage at said charge output terminal, to compare a difference between said first and second voltages with a first voltage reference, and to detect whether a charger is connected to said interface according to a result of the comparison. a plurality of driving terminals (212,216) that are configured to provide driving signals to control a status of a switch circuit to enable charging or discharging of a battery pack; detection circuitry, coupled to said driving terminals, that is configured to receive voltages at a plurality of terminals of said switch circuit, and to detect a status of an interface of said battery pack according to said status of said switch circuit and a difference between said voltages, said interface operable for receiving power to charge said battery pack in a charge mode and providing power from said battery pack to a load in a discharge mode; wherein said driving signals comprise a signal that is configured to selectively turn on a charge switch (Q CHG) in said switch circuit to deliver a charging current of said battery pack from a charge input terminal to a charge output terminal; and characterised in that when said charge switch (Q CHG) is off, said detection circuitry is configured to receive a first voltage at said charge input terminal and a second voltage at said charge output terminal, to compare a difference between said first and second voltages with a first voltage reference, and to detect whether a charger is connected to said interface according to a result of the comparison.
A quick release assembly, comprising: a pinching structure having at least two pronged portions; a pinched structure having at least one bushing defining a bushing bore; and a locking pin (32, 34) disposed on each of the at least two pronged portions, the locking pin (32, 34) including a spring (66, 66a), characterized in that the locking pin (32, 34) includes a handle portion, a stationary cap fixed to the pronged portion and having a stationary cap bore, and a slider tube that slides inside the stationary cap and together with the handle portion between an engaged position and a disengaged position, wherein the spring (66, 66a) biasing the slider tube toward the engaged position; and wherein bore sizes of the stationary cap bore of the stationary cap of the pinching structure and the bushing bore of the at least one bushing of the pinched structure are substantially the same size, and a section area of a connecting side of the slider tube is slightly smaller than the bore size of the stationary cap of the pinching structure and the bushing of the pinched structure. a pinching structure having at least two pronged portions; a pinched structure having at least one bushing defining a bushing bore; and a locking pin (32, 34) disposed on each of the at least two pronged portions, the locking pin (32, 34) including a spring (66, 66a),
Packaging method for packaging wiper blades, wherein, in at least one method step (62a, 64a, 72a, 74a, 76a; 62b, 64b, 72b, 74b, 76b; 62c, 64c, 72c, 74c, 76c), at least one identical packaging component (14a, 16a, 18a; 14b, 16b, 18b; 14c, 16c, 18c) is used for a packaging (10a, 10b; 10c) for an individual item and for a packaging (12a; 12b; 12c) for a set of items, wherein, in at least one method step (72a; 72b; 72c), the rear walls (28a; 28b; 28c) of two packaging components (16a; 16b; 16c), which are in the form of wiper blade packaging components, of the packaging (12a; 12b; 12c) for a set of items are made to face one another, characterized in that, in at least one method step (76a; 76b; 76c; 62b; 62c), at least one packaging component (18a; 18b; 18c) that is in the form of a cover component at least partially covers at least two packaging components (16a; 16b; 16c), which are in the form of wiper blade packaging components, of the packaging (12a; 12b; 12c) for a set of items on at least one side, wherein the packaging component (18a; 18b; 18c) that is in the form of a cover component is connected to the side of the packaging components (16a; 16b; 16c) that are in the form of wiper blade packaging components at least in a force-fitting and/or form-fitting or integrally bonded manner.
A method for manufacturing a grain-oriented electrical steel sheet having excellent magnetic properties, the method comprising: heating a slab comprising 2.0-4.5 wt% of Si, 0.001-0.10 wt% of C, 0.010 wt% or less of Al, 0.08 wt% or less of Mn, 0.005 wt% or less of N, 0.005-0.050 wt% of S, and the balance of Fe and unavoidable impurities; hot-rolling the heated slab; subjecting the hot-rolled steel sheet to one cold rolling or two or more cold rollings with intermediate annealing therebetween; subjecting the cold-rolled steel sheet to decarburization and recrystallization annealing; and subjecting the annealed steel sheet to secondary recrystallization annealing, wherein the secondary recrystallization is influenced by inhibiting grain growth using at least elementary S, which segregates to grain boundaries, or an FeS precipitates, in the secondary recrystallization annealing, wherein the density of Al oxide in the thickness-directional cross-section of the secondary recrystallized steel sheet is 0.1-500/mm 2, wherein the secondary recrystallization annealing is performed by heating the decarburized and recrystallized steel sheet to a temperature of 1,000∼1,200°C to cause secondary recrystallization of the steel sheet, subjecting the secondary recrystallized steel to homogenization heat treatment at a temperature of 1,000∼1,200°C within 1 hour, and cooling the homogenization heat-treated steel sheet. heating a slab comprising 2.0-4.5 wt% of Si, 0.001-0.10 wt% of C, 0.010 wt% or less of Al, 0.08 wt% or less of Mn, 0.005 wt% or less of N, 0.005-0.050 wt% of S, and the balance of Fe and unavoidable impurities; hot-rolling the heated slab; subjecting the hot-rolled steel sheet to one cold rolling or two or more cold rollings with intermediate annealing therebetween; subjecting the cold-rolled steel sheet to decarburization and recrystallization annealing; and subjecting the annealed steel sheet to secondary recrystallization annealing, wherein the secondary recrystallization is influenced by inhibiting grain growth using at least elementary S, which segregates to grain boundaries, or an FeS precipitates, in the secondary recrystallization annealing, wherein the density of Al oxide in the thickness-directional cross-section of the secondary recrystallized steel sheet is 0.1-500/mm 2, wherein the secondary recrystallization annealing is performed by heating the decarburized and recrystallized steel sheet to a temperature of 1,000∼1,200°C to cause secondary recrystallization of the steel sheet, subjecting the secondary recrystallized steel to homogenization heat treatment at a temperature of 1,000∼1,200°C within 1 hour, and cooling the homogenization heat-treated steel sheet.
A method to prevent a motor to rotate due to the rotation of the motor axis within a motor housing of a pool cleaning robot, the method comprising: securing a locking unit to an external portion of the motor 1 housing, characterized in that the securing comprises meshing first securing elements of the locking unit to second securing elements of the external portion of the motor housing thereby preventing a rotational movement between the first securing elements and the second securing elements; wherein the method further comprises securing the locking unit to a thread that is mechanically coupled to the motor, wherein the thread and the locking unit are coaxial. securing a locking unit to an external portion of the motor 1 housing, characterized in that the securing comprises meshing first securing elements of the locking unit to second securing elements of the external portion of the motor housing thereby preventing a rotational movement between the first securing elements and the second securing elements; wherein the method further comprises securing the locking unit to a thread that is mechanically coupled to the motor, wherein the thread and the locking unit are coaxial.
An antenna feed chain, comprising: a lens horn comprising a rotationally-symmetric feed horn and a lens coupled to the feed horn, the lens horn having a first cross-polarization performance over a solid angle of interest and a frequency band of interest; and a polarizer having a second cross-polarization performance over the frequency band of interest, the polarizer coupled to the feed horn, characterized in that the first cross-polarization performance of the lens horn is configured to compensate for the second cross-polarization performance of the polarizer over the solid angle of interest and the frequency band of interest such that the cross-polarization performance of the full antenna feed chain is collectively maximized by leveling out the cross-polarization performance, wherein the compensation is due to: the shapes of the lens surfaces of the lens coupled to the feed horn; the position of the lens; and/or all, or a subset of, dimensions of the feed horn. a lens horn comprising a rotationally-symmetric feed horn and a lens coupled to the feed horn, the lens horn having a first cross-polarization performance over a solid angle of interest and a frequency band of interest; and a polarizer having a second cross-polarization performance over the frequency band of interest, the polarizer coupled to the feed horn, characterized in that the first cross-polarization performance of the lens horn is configured to compensate for the second cross-polarization performance of the polarizer over the solid angle of interest and the frequency band of interest such that the cross-polarization performance of the full antenna feed chain is collectively maximized by leveling out the cross-polarization performance, wherein the compensation is due to: the shapes of the lens surfaces of the lens coupled to the feed horn; the position of the lens; and/or all, or a subset of, dimensions of the feed horn. the shapes of the lens surfaces of the lens coupled to the feed horn; the position of the lens; and/or all, or a subset of, dimensions of the feed horn.