mhurhangee/ep-ind-claims huggingface dataset:
A method of transmit power control in a wireless transmit/receive unit, WTRU, capable of simultaneous transmission via multiple uplink, UL, component carriers, CCs, the method comprising: comparing by the WTRU a transmit power of a first UL CC to a first UL CC-specific maximum transmit power, wherein the first UL CC has a first UL CC priority and the first UL CC carries a first channel having a first channel priority; comparing by the WTRU a transmit power of a second UL CC to a second UL CC-specific maximum transmit power, wherein the second UL CC has a second UL CC priority and the second UL CC carries a second channel having a second channel priority; comparing by the WTRU a transmit power difference between the first UL CC and the second UL CC to a maximum CC transmit power difference; raising or lowering by the WTRU a transmit power of the first UL CC or the second UL CC to keep the transmit power difference below the maximum CC transmit power difference, characterized in that the raising or lowering is based on at least one channel priority of a respective at least one channel transmitted over at least one of the first UL CC and the second UL CC and further characterized in that the raising or lowering keeps the transmit power of the first UL CC below the first UL CC-specific maximum transmit power and keeps the transmit power of the second UL CC below the second UL CC-specific maximum transmit power, wherein the first UL CC-specific maximum transmit power is different than the second UL CC-specific maximum transmit power; and simultaneously transmitting the first channel via the first UL CC and transmitting the second channel via the second UL CC. comparing by the WTRU a transmit power of a first UL CC to a first UL CC-specific maximum transmit power, wherein the first UL CC has a first UL CC priority and the first UL CC carries a first channel having a first channel priority; comparing by the WTRU a transmit power of a second UL CC to a second UL CC-specific maximum transmit power, wherein the second UL CC has a second UL CC priority and the second UL CC carries a second channel having a second channel priority; comparing by the WTRU a transmit power difference between the first UL CC and the second UL CC to a maximum CC transmit power difference; raising or lowering by the WTRU a transmit power of the first UL CC or the second UL CC to keep the transmit power difference below the maximum CC transmit power difference, characterized in that the raising or lowering is based on at least one channel priority of a respective at least one channel transmitted over at least one of the first UL CC and the second UL CC and further characterized in that the raising or lowering keeps the transmit power of the first UL CC below the first UL CC-specific maximum transmit power and keeps the transmit power of the second UL CC below the second UL CC-specific maximum transmit power, wherein the first UL CC-specific maximum transmit power is different than the second UL CC-specific maximum transmit power; and simultaneously transmitting the first channel via the first UL CC and transmitting the second channel via the second UL CC.
A photosensitive composition comprising a Fischer-type carbene ruthenium metathesis catalyst admixed or dissolved within a polymerizable material matrix comprising at least one unsaturated organic precursor, each organic precursor having at least one alkene or one alkyne bond, wherein the ruthenium carbene catalyst can be activated by irradiation by light having at least one wavelength in a range of from 150 to 800 nm.
Method for operating a redundant automation system having two subsystems (1, 2), wherein in redundant operation one of the subsystems operates as a master and assumes process control and the other subsystem operates as a reserve, wherein the master and the reserve are synchronised by way of means of communication and in the event of a loss of synchronisation, a. Process inputs of a process image of the master are compared with process inputs of a process image of the reserve, b. The communication of the reserve with additional components of the automation system is adjusted, c. If the master fails during a predefined period of time (Ts), the reserve assumes process control as the new master, characterised in that d. In the event that the master does not fail during the predefined period of time (Ts), after this period of time (Ts) the reserve initiates troubleshooting to determine the cause of the loss of synchronisation, wherein if the reserve is not faulty, after troubleshooting the master provides the reserve with relevant process control data in the context of an update, wherein after updating the reserve assumes process control as the new master and the master initiates further troubleshooting as the new reserve. a. Process inputs of a process image of the master are compared with process inputs of a process image of the reserve, b. The communication of the reserve with additional components of the automation system is adjusted, c. If the master fails during a predefined period of time (Ts), the reserve assumes process control as the new master, characterised in that d. In the event that the master does not fail during the predefined period of time (Ts), after this period of time (Ts) the reserve initiates troubleshooting to determine the cause of the loss of synchronisation, wherein if the reserve is not faulty, after troubleshooting the master provides the reserve with relevant process control data in the context of an update, wherein after updating the reserve assumes process control as the new master and the master initiates further troubleshooting as the new reserve.
A process for recovering refolded Ranibizumab, the process comprising the steps of; a) isolating inclusion bodies comprising a light chain and heavy chain of Ranibizumab from the bacterial host cell; b) solubilizing said inclusion bodies comprising a light chain and/or heavy chain of Ranibizumab in a first buffered solution comprising 10 mM to 60 mM Tris-Cl, 6M to 8M Urea and DTT at a pH in the range of 8.5 to 10; c) refolding the solubilized light chain and heavy chain of Ranibizumab in a second buffer solution comprising 0.1M to 1M Arginine, 1% to 8% sorbitol and 10 mM to 60 mM Tris_having a pH in the range of 10 to 11 and temperature in the range of 4°C to 12°C for a first incubation period of 1 to 25 hours and then shifting the pH and temperature of first incubation period to a pH in the range of 8 to 9 and a temperature in the range of 20°C to 30°C for a second incubation period of 1 to 25 hours; and d) recovering said refolded Ranibizumab. a) isolating inclusion bodies comprising a light chain and heavy chain of Ranibizumab from the bacterial host cell; b) solubilizing said inclusion bodies comprising a light chain and/or heavy chain of Ranibizumab in a first buffered solution comprising 10 mM to 60 mM Tris-Cl, 6M to 8M Urea and DTT at a pH in the range of 8.5 to 10; c) refolding the solubilized light chain and heavy chain of Ranibizumab in a second buffer solution comprising 0.1M to 1M Arginine, 1% to 8% sorbitol and 10 mM to 60 mM Tris_having a pH in the range of 10 to 11 and temperature in the range of 4°C to 12°C for a first incubation period of 1 to 25 hours and then shifting the pH and temperature of first incubation period to a pH in the range of 8 to 9 and a temperature in the range of 20°C to 30°C for a second incubation period of 1 to 25 hours; and d) recovering said refolded Ranibizumab.
A method in a second node, comprising: receiving, from a first node, a first message, wherein said first message is a request for a subscription; sending, to said first node, a second message, wherein said second message comprises a subscription ID for the subscription, wherein said second message comprises an initial subscription validity time; and receiving, from said first node, a third message, wherein said third message comprises a new subscription validity time for said subscription, further comprising: sending, in response to said third message, a fourth message indicating that the second node accepts an extension of a lifetime of the subscription, wherein the fourth message is an HTTP 204 No Content message with an empty response body and indicates accepting the new subscription validity time for said subscription, and wherein said second node is a Network Repository Function, NRF, and said first node is a NF Service Consumer. receiving, from a first node, a first message, wherein said first message is a request for a subscription; sending, to said first node, a second message, wherein said second message comprises a subscription ID for the subscription, wherein said second message comprises an initial subscription validity time; and receiving, from said first node, a third message, wherein said third message comprises a new subscription validity time for said subscription, further comprising: sending, in response to said third message, a fourth message indicating that the second node accepts an extension of a lifetime of the subscription, wherein the fourth message is an HTTP 204 No Content message with an empty response body and indicates accepting the new subscription validity time for said subscription, and wherein said second node is a Network Repository Function, NRF, and said first node is a NF Service Consumer.
A method for lubricating the passage of a container along a conveyor, comprising: applying a lubricating emulsion to at least a portion of a container-contacting surface of the conveyor or to at least a portion of a conveyor-contacting surface of the container, the lubricating emulsion comprising: (a) 0.01 to 0.35 wt. %.of a water insoluble oil with viscosity greater than 0.3 Pa s (300 centipoise) when measured at 25°C with a parallel plate rheometer with 20 mm plate diameter and 0.25 mm plate separation at an integrated average shear rate of 5.9 sec -1; (b) 0 to 0.35 wt-% emulsifier; and (c) 99.3 to 99.99 wt-% water, inclusive of any hydrophilic diluents; wherein the lubricating emulsion is applied for a period of 5 seconds to 6 minutes and not applied for a period of 2 to 12 minutes and the ratio of not applied: applied time is between 2:1 and 32:1. applying a lubricating emulsion to at least a portion of a container-contacting surface of the conveyor or to at least a portion of a conveyor-contacting surface of the container, the lubricating emulsion comprising: (a) 0.01 to 0.35 wt. %.of a water insoluble oil with viscosity greater than 0.3 Pa s (300 centipoise) when measured at 25°C with a parallel plate rheometer with 20 mm plate diameter and 0.25 mm plate separation at an integrated average shear rate of 5.9 sec -1; (b) 0 to 0.35 wt-% emulsifier; and (c) 99.3 to 99.99 wt-% water, inclusive of any hydrophilic diluents; (a) 0.01 to 0.35 wt. %.of a water insoluble oil with viscosity greater than 0.3 Pa s (300 centipoise) when measured at 25°C with a parallel plate rheometer with 20 mm plate diameter and 0.25 mm plate separation at an integrated average shear rate of 5.9 sec -1; (b) 0 to 0.35 wt-% emulsifier; and (c) 99.3 to 99.99 wt-% water, inclusive of any hydrophilic diluents; wherein the lubricating emulsion is applied for a period of 5 seconds to 6 minutes and not applied for a period of 2 to 12 minutes and the ratio of not applied: applied time is between 2:1 and 32:1.
A high-pressure fuel pump device comprising: a plunger-type high-pressure pump unit including a plunger driven by a drive source, the high-pressure pump unit being configured to pressurize fuel and discharge the pressurized fuel as the plunger makes reciprocating motion; a diaphragm-type supply pump unit including a diaphragm capable of oscillating in conjunction with the reciprocating motion of the plunger, the supply pump unit being configured to suck in fuel in a fuel tank and supply the fuel to the high-pressure pump unit as the diaphragm oscillates; and a fuel return unit provided in the supply pump unit and configured such that, out of the fuel supplied to the high-pressure pump unit, surplus fuel that is not sucked into the high-pressure pump unit is returned to the fuel tank by the fuel return unit. a plunger-type high-pressure pump unit including a plunger driven by a drive source, the high-pressure pump unit being configured to pressurize fuel and discharge the pressurized fuel as the plunger makes reciprocating motion; a diaphragm-type supply pump unit including a diaphragm capable of oscillating in conjunction with the reciprocating motion of the plunger, the supply pump unit being configured to suck in fuel in a fuel tank and supply the fuel to the high-pressure pump unit as the diaphragm oscillates; and a fuel return unit provided in the supply pump unit and configured such that, out of the fuel supplied to the high-pressure pump unit, surplus fuel that is not sucked into the high-pressure pump unit is returned to the fuel tank by the fuel return unit.
A method for controlling an internal combustion engine with a plurality of cylinders, each comprising at least one intake valve (20, 22), wherein the intake valves (20, 22) can be actuated in a cylinder-selective manner, comprising: detecting at least one operating parameter of the internal combustion engine, comprising an operating parameter of a turbocharger of the internal combustion engine; determining a selected number of cylinders in which it is desired to advance a closing time before reaching a bottom dead centre of a piston movement in the intake stroke, in particular a Miller control time, of the respective at least one intake valve (20, 22), based on the at least one detected operating parameter; and operating the internal combustion engine with the selected number of cylinders with an advanced closing time of the respective at least one intake valve (20, 22), characterised in that in a predetermined operating range of the turbocharger, the number of selected cylinders is less than a total number of the plurality of cylinders and/or greater than zero; and/or the selected number of cylinders in a predetermined operating range of the turbocharger changes as the operating point of the turbocharger changes. detecting at least one operating parameter of the internal combustion engine, comprising an operating parameter of a turbocharger of the internal combustion engine; determining a selected number of cylinders in which it is desired to advance a closing time before reaching a bottom dead centre of a piston movement in the intake stroke, in particular a Miller control time, of the respective at least one intake valve (20, 22), based on the at least one detected operating parameter; and operating the internal combustion engine with the selected number of cylinders with an advanced closing time of the respective at least one intake valve (20, 22), characterised in that in a predetermined operating range of the turbocharger, the number of selected cylinders is less than a total number of the plurality of cylinders and/or greater than zero; and/or the selected number of cylinders in a predetermined operating range of the turbocharger changes as the operating point of the turbocharger changes.
A retaining clamp of a quick release fastening device, which is latchable in a component opening and in which a fastening bolt is lockable, comprising the following features: a. two spring legs arranged opposite to each other in a V-shape, the arrangement of which comprises a tapered open end at which the V-shaped arranged spring legs are not connected to each other, and the arrangement of which comprises a widened end at which the V-shaped arranged spring legs are connected to each other via a connection web with a central passage opening, and b. each of the two spring legs arranged in a V-shape comprises a window with a spring web arranged therein, which is fastened on one side and is angled at least twice in its course in the direction of the widened end, wherein c. at least a first peak extends beyond an outer surface of the spring legs and a second peak extends beyond an inner side of the respective spring leg towards the opposite spring leg. a. two spring legs arranged opposite to each other in a V-shape, the arrangement of which comprises a tapered open end at which the V-shaped arranged spring legs are not connected to each other, and the arrangement of which comprises a widened end at which the V-shaped arranged spring legs are connected to each other via a connection web with a central passage opening, and b. each of the two spring legs arranged in a V-shape comprises a window with a spring web arranged therein, which is fastened on one side and is angled at least twice in its course in the direction of the widened end, wherein c. at least a first peak extends beyond an outer surface of the spring legs and a second peak extends beyond an inner side of the respective spring leg towards the opposite spring leg.
A data carrier card, in particular a chip card and/or magnetic strip card, comprising a card body (1, 101, 201, 301, 401) of at least two foils (2, 3, 4) that are produced in one step by coextrusion and form a layer structure, wherein at least one of the foils comprises at least two surface regions (2a, 2b) with different material properties disposed flatly in the horizontal direction, in horizontally neighboring fashion, adjacent to each other and at least one further simultaneously produced foil (3, 4) is formed in the direction of the thickness of the layer structure.
A single chip referenced bridge type magnetic field sensor for a high-intensity magnetic field comprising: a substrate; at least one reference arm deposited on the substrate, the reference arm comprising at least one row/column of reference element strings which comprise one or at least two identical electrically interconnected magnetoresistive sense elements; at least one sense arm deposited on the substrate, the sense arm comprising at least one row/column of sense element strings which comprise one or at least two identical electrically interconnected magnetoresistive sense elements; wherein, the reference arm and the sense arm are connected to form a bridge; the reference element strings and the sense element strings are the same in number of rows/columns and are mutually interleaved in a spaced manner along a longitudinal or transverse direction; a gain coefficient of a magnetic field at the position of the sense element strings is greater than a gain coefficient of a magnetic field at the position of the reference element strings; characterized by the sensor comprising at least one attenuator and at least two shielding structures, the attenuator and the shielding structures being mutually interleaved in a spaced manner, the shapes of the shielding structures and the attenuators are arrays of long bars which extend along a transverse/longitudinal direction, and width and area of the shielding structures being respectively greater than width and area of the attenuator; and each reference element string is located below or above a shielding structure, and each sense element string is located below or above an attenuator. a substrate; at least one reference arm deposited on the substrate, the reference arm comprising at least one row/column of reference element strings which comprise one or at least two identical electrically interconnected magnetoresistive sense elements; at least one sense arm deposited on the substrate, the sense arm comprising at least one row/column of sense element strings which comprise one or at least two identical electrically interconnected magnetoresistive sense elements; wherein, the reference arm and the sense arm are connected to form a bridge; the reference element strings and the sense element strings are the same in number of rows/columns and are mutually interleaved in a spaced manner along a longitudinal or transverse direction; a gain coefficient of a magnetic field at the position of the sense element strings is greater than a gain coefficient of a magnetic field at the position of the reference element strings; characterized by the sensor comprising at least one attenuator and at least two shielding structures, the attenuator and the shielding structures being mutually interleaved in a spaced manner, the shapes of the shielding structures and the attenuators are arrays of long bars which extend along a transverse/longitudinal direction, and width and area of the shielding structures being respectively greater than width and area of the attenuator; and each reference element string is located below or above a shielding structure, and each sense element string is located below or above an attenuator.
An inner bowl of a working head of a nursing machine, comprising a bowl body, a baffle and characterized by a drying device, wherein a wedge-shaped bowl mouth is provided at a front portion of the bowl body, a top surface of the bowl mouth is a horizontally arranged drain port, and a bottom surface of the bowl mouth is an obliquely arranged U-shaped arc bottom, both sides of the U-shaped arc bottom of the bowl mouth are provided with reflective infrared feces sensors, an outer bottom surface of the bowl body is provided with a urine sensor; the baffle is vertically arranged on the bowl body and connected to the drain port, being integrally disposed, the drying device is provided at a rear side of the bowl body, and an air outlet (33, 131) of the drying device is located on a rear sidewall of the bowl body below the baffle.
Device for treating and distributing drinks, particularly water, comprising a carbonator into which a given body of water and a given quantity of gas are introduced through suitable supply and pumping means (4, 5, 6, 6') so as to form a cushion of pressurized gas between the upper wall of the said carbonator and the said body of water; said carbonator being provided with suitable pipes (22, 25, 26) for transferring the treated water to a set of delivery valves (8, 9, 10) communicating with a terminal for the final distribution of the treated water, said carbonator comprising a pressure switch electrically connected to the water pumping means, the said pressure switch being capable of detecting the pressure in the said gas cushion and causing the starting or stopping of the said water pumping means if the pressure detected in the said gas cushion falls below a certain predetermined value because of the discharge of treated water from the said distribution terminal, or if it exceeds the said predetermined value because of the excessive compression of the said gas cushion due to the entry of water into the carbonator, characterized in that said carbonator interacts with a refrigerating system for cooling the said body of water and in that the said set of delivery valves (8, 9, 10), communicating with the final distribution terminal, is integrated directly into one of the walls of the carbonator positioned near the final treated water distribution terminal, particularly the said set of delivery valves (8, 9, 10) is housed inside a mounting, which is formed on or fixed to the upper part of the said carbonator and comprises an internal chamber, which communicates with the said final distribution terminal.
Stop point for insertion into an undercut opening, wherein the stop point has a stop region for stopping a lashing, lifting or stopping means, a shaft extending along a longitudinal axis of the shaft, away from the stop region, for insertion into the opening and, at that end of the shaft facing away from the stop region, a holding protrusion that projects crosswise to the longitudinal axis of the shaft, wherein the holding protrusion is immovably connected to the shaft, wherein the stop point has at least one support element between the holding protrusion and the stop region, and wherein the holding protrusion and the at least one support element can be moved relative to one another, characterised in that the at least one support element is designed to be movable relative to the shaft, crosswise to the longitudinal axis of the shaft.