mhurhangee/ep-ind-claims huggingface dataset:
Atomizing device for obtaining droplets comprising a nozzle tip, a liquid nozzle, a housing comprising a converging air header, with an air transition cone surrounding in circular manner the liquid nozzle which is connected to a central lance tube, said lance tube being fed by an inlet, the housing further comprising at least one air inlet for supplying a gas as a co-current ring around the nozzle, characterized in that the position of the liquid nozzle which is connected to the central lance tube is adjustable in such a way that the nozzle can be moved in or out of the air transition cone.
Induction oven apparatus with an induction heating unit, which is provided to heat at least one induction oven wall and/or a food to be cooked situated in a cooking compartment, with a catalyst unit, which is provided to influence at least one chemical reaction in an exhaust air flow, with a heat transfer unit, which in at least one operating state is at least provided to transfer a thermal energy to the catalyst unit, wherein the induction heating unit is at least provided to at least partially heat the heat transfer unit in the operating state, characterised by a housing unit, which is at least provided to at least partially guide the exhaust air flow, and with which the heat transfer unit is embodied at least partially in one piece, wherein the heat transfer unit and the housing unit have at least one common component and/or at least one component of the heat transfer unit and/or the heat transfer unit is connected to and/or embodied with at least one component of the housing unit and/or the housing unit in one piece, wherein the housing unit has at least one through-opening and is provided to at least partially guide the exhaust air flow, wherein the catalyst unit has at least one catalyst element which, when viewed in a direction of the exhaust air flow, is arranged in a region of the through-opening, and wherein the housing unit has at least one further through-opening and the catalyst unit has at least one further catalyst element which, when viewed in the direction of the exhaust air current, is arranged in a region of the further through-opening.
A chromia-based brick, having chromia as a main component, comprising: 75 to 95 mass% of Cr 2 O 3; 0.5 to 14 mass% of ZrO 2; 1.5 to 3.0 mass% of P 2 O 5 derived from phosphate added as raw material; 8 or lower mass% of Al 2 O 3; and a sintering aid component and unavoidable components. 75 to 95 mass% of Cr 2 O 3; 0.5 to 14 mass% of ZrO 2; 1.5 to 3.0 mass% of P 2 O 5 derived from phosphate added as raw material; 8 or lower mass% of Al 2 O 3; and a sintering aid component and unavoidable components.
A method of manufacturing a quantum dot layer (40; 80; 80'), the method comprising: sequentially stacking a self-assembled monolayer, a sacrificial layer, and a quantum dot layer (40; 80; 80') on a source substrate; disposing a stamp on the quantum dot layer (40; 80; 80'); picking up the sacrificial layer, the quantum dot layer (40; 80; 80'), and the stamp from the SAM; and removing the sacrificial layer from the quantum dot layer (40; 80; 80') using a solution that dissolves the sacrificial layer. sequentially stacking a self-assembled monolayer, a sacrificial layer, and a quantum dot layer (40; 80; 80') on a source substrate; disposing a stamp on the quantum dot layer (40; 80; 80'); picking up the sacrificial layer, the quantum dot layer (40; 80; 80'), and the stamp from the SAM; and removing the sacrificial layer from the quantum dot layer (40; 80; 80') using a solution that dissolves the sacrificial layer.
A dishwasher, comprising: a tub defining a washing space; a door configured to open and close the washing space; a door driver configured to partially open the closed door and to close the partially opened door; a heater configured to increase a temperature inside the washing space; a first fan configured to provide outside air for the drying process to the heater for heating the provided air and to discharge the heated air into the washing space for increasing the temperature of the washing space; and a controller configured: to control the dishwasher such that in a drying process, the heater is turned on before a first time point of the drying process at which air inside the washing space is discharged to an outside of the tub; and to control the door to be closed before the first time point and to be partially opened at the first time point, such that air inside the washing space is discharged to the outside of the tub through the partially opened door, characterized in that: the controller is further configured to adjust a heating level of the heater at a time point after the first time point based on the temperature of the washing space measured at said time point after the first time point. a tub defining a washing space; a door configured to open and close the washing space; a door driver configured to partially open the closed door and to close the partially opened door; a heater configured to increase a temperature inside the washing space; a first fan configured to provide outside air for the drying process to the heater for heating the provided air and to discharge the heated air into the washing space for increasing the temperature of the washing space; and a controller configured: to control the dishwasher such that in a drying process, the heater is turned on before a first time point of the drying process at which air inside the washing space is discharged to an outside of the tub; and to control the door to be closed before the first time point and to be partially opened at the first time point, such that air inside the washing space is discharged to the outside of the tub through the partially opened door, characterized in that: the controller is further configured to adjust a heating level of the heater at a time point after the first time point based on the temperature of the washing space measured at said time point after the first time point. to control the dishwasher such that in a drying process, the heater is turned on before a first time point of the drying process at which air inside the washing space is discharged to an outside of the tub; and to control the door to be closed before the first time point and to be partially opened at the first time point, such that air inside the washing space is discharged to the outside of the tub through the partially opened door, characterized in that: the controller is further configured to adjust a heating level of the heater at a time point after the first time point based on the temperature of the washing space measured at said time point after the first time point.
An inhalation device comprising: a dosing chamber for holding a pharmaceutical; and a vibrator for interaction with the chamber to aerosolize the pharmaceutical, characterized by said device comprising: a spacer, which is substantially circular in plan, the spacer being located around a perimeter of a face of the vibrator, between the face of the vibrator and a wall of the dosing chamber such that an air space is created between the face of the vibrator and the wall of the dosing chamber. a dosing chamber for holding a pharmaceutical; and a vibrator for interaction with the chamber to aerosolize the pharmaceutical, characterized by said device comprising: a spacer, which is substantially circular in plan, the spacer being located around a perimeter of a face of the vibrator, between the face of the vibrator and a wall of the dosing chamber such that an air space is created between the face of the vibrator and the wall of the dosing chamber.
A voltage converter for charging an energy storage module from an alternating current line voltage, comprising: a first charging stage, coupled to the energy storage module, converting the line voltage to a first rectified direct current module charging voltage communicated to the energy storage module, the first rectified direct current module charging voltage greater than the line voltage, the first charging stage including an inductance (L1, L2) for communicating a first charging current to the energy storage module; a second charging stage, switchably coupled serially with the first charging stage, down-converting the alternating current line voltage to a second rectified direct current module voltage, the second rectified direct current module voltage less than the first rectified direct current module charging voltage, wherein the second charging stage produces a second charging current not greater than the first charging current; and a controller for selectably switching the second charging stage serially with the first charging stage, wherein the controller is adapted to selectably switch the second charging stage serially with the first charging stage when the line voltage has a peak value greater than a predefined relationship to a voltage of the energy storage module wherein the second charging stage communicates the second charging current to the energy storage module through the inductance (L1, L2). a first charging stage, coupled to the energy storage module, converting the line voltage to a first rectified direct current module charging voltage communicated to the energy storage module, the first rectified direct current module charging voltage greater than the line voltage, the first charging stage including an inductance (L1, L2) for communicating a first charging current to the energy storage module; a second charging stage, switchably coupled serially with the first charging stage, down-converting the alternating current line voltage to a second rectified direct current module voltage, the second rectified direct current module voltage less than the first rectified direct current module charging voltage, wherein the second charging stage produces a second charging current not greater than the first charging current; and a controller for selectably switching the second charging stage serially with the first charging stage, wherein the controller is adapted to selectably switch the second charging stage serially with the first charging stage when the line voltage has a peak value greater than a predefined relationship to a voltage of the energy storage module wherein the second charging stage communicates the second charging current to the energy storage module through the inductance (L1, L2).
A battery module (100, 300) comprising: a plurality of unit battery cells (110, 310) stacked along a first direction, an elastic frame (160, 160a, 260, 360) provided below the plurality of unit battery cells (110, 310), wherein the elastic frame (160, 160a, 260, 360) extends along the first direction and is elastically biased in a second direction different from the first direction characterized in that further comprising a pair of end plates (150, 350) disposed at both end portions of the plurality of unit battery cells (110, 310) along the first direction, wherein the elastic frame (160, 160a, 260, 360) is coupled to the pair of end plates (150, 350) via support protrusions (170, 370) and includes an elastic portion (161, 261, 361) being convex toward the plurality of unit battery cells (110, 310), and the length of the elastic frame (160, 160a, 260, 360) provided between the support protrusions (170, 370) is longer than the length of a shortest connection between the support protrusions (170, 370). a plurality of unit battery cells (110, 310) stacked along a first direction, an elastic frame (160, 160a, 260, 360) provided below the plurality of unit battery cells (110, 310), wherein the elastic frame (160, 160a, 260, 360) extends along the first direction and is elastically biased in a second direction different from the first direction characterized in that further comprising a pair of end plates (150, 350) disposed at both end portions of the plurality of unit battery cells (110, 310) along the first direction, wherein the elastic frame (160, 160a, 260, 360) is coupled to the pair of end plates (150, 350) via support protrusions (170, 370) and includes an elastic portion (161, 261, 361) being convex toward the plurality of unit battery cells (110, 310), and the length of the elastic frame (160, 160a, 260, 360) provided between the support protrusions (170, 370) is longer than the length of a shortest connection between the support protrusions (170, 370).
A color filter array comprising: a plurality of tiled minimal repeating units, each minimal repeating unit comprising an M × N set of individual filters, and each individual filter in the set having a photoresponse selected from among four different photoresponses, wherein each minimal repeating unit includes: a checkerboard pattern of filters of the first photoresponse, wherein filters of the checkerboard pattern have the same photoresponse, and filters of the second, third, and fourth photoresponses distributed among the checkerboard pattern characterized in that all the filters of the second, third, and fourth photoresponses are sequentially symmetric about one or both of a pair of orthogonal axes of the minimal repeating unit, wherein sequentially symmetric means that the sequence of the filters having different photoresponse types is in the same order when moving away from either side of an axis. a plurality of tiled minimal repeating units, each minimal repeating unit comprising an M × N set of individual filters, and each individual filter in the set having a photoresponse selected from among four different photoresponses, wherein each minimal repeating unit includes: a checkerboard pattern of filters of the first photoresponse, wherein filters of the checkerboard pattern have the same photoresponse, and filters of the second, third, and fourth photoresponses distributed among the checkerboard pattern characterized in that all the filters of the second, third, a checkerboard pattern of filters of the first photoresponse, wherein filters of the checkerboard pattern have the same photoresponse, and filters of the second, third, and fourth photoresponses distributed among the checkerboard pattern characterized in that all the filters of the second, third, and fourth photoresponses are sequentially symmetric about one or both of a pair of orthogonal axes of the minimal repeating unit, wherein sequentially symmetric means that the sequence of the filters having different photoresponse types is in the same order when moving away from either side of an axis.
A semiconductor device comprising: - a MOSFET die, - a first GaN die and a second GaN die, wherein the first GaN die and the second GaN die are arranged in a cascode arrangement, wherein the second GaN die is positioned in an inverted orientation, wherein the MOSFET die controls the first GaN die and the second GaN die. - a MOSFET die, - a first GaN die and a second GaN die, wherein the first GaN die and the second GaN die are arranged in a cascode arrangement, wherein the second GaN die is positioned in an inverted orientation, wherein the MOSFET die controls the first GaN die and the second GaN die.
A method comprising: receiving (304, 244), at a long term evolution wireless local area networks radio level integration with internet protocol security tunnel, LWIP, controller in a first communication network, first instrumentation for a user equipment, UE, for the first communication network; receiving (302, 242), at the LWIP controller and from a second communication network, second instrumentation for the UE for the second communication network; determining (308, 248), using the LWIP controller and the first instrumentation, a first routing metric associated with the first communication network, wherein the first routing metric identifies a capability of the first communication network to handle an Internet Protocol flow for the UE; determining (306, 248), using the LWIP controller and the second instrumentation, a second routing metric associated with the second communication network, wherein the second routing metric identifies a capability of the second communication network to handle the IP flow for the UE and wherein the second routing metric is different from the first routing metric; and routing the IP flow for the UE using the first communication network or the second communication network based, at least in part, on the first routing metric and the second routing metric, wherein first instrumentation and second instrumentation each refer to reports, measurements, calculations, or combinations thereof. receiving (304, 244), at a long term evolution wireless local area networks radio level integration with internet protocol security tunnel, LWIP, controller in a first communication network, first instrumentation for a user equipment, UE, for the first communication network; receiving (302, 242), at the LWIP controller and from a second communication network, second instrumentation for the UE for the second communication network; determining (308, 248), using the LWIP controller and the first instrumentation, a first routing metric associated with the first communication network, wherein the first routing metric identifies a capability of the first communication network to handle an Internet Protocol flow for the UE; determining (306, 248), using the LWIP controller and the second instrumentation, a second routing metric associated with the second communication network, wherein the second routing metric identifies a capability of the second communication network to handle the IP flow for the UE and wherein the second routing metric is different from the first routing metric; and routing the IP flow for the UE using the first communication network or the second communication network based, at least in part, on the first routing metric and the second routing metric, wherein first instrumentation and second instrumentation each refer to reports, measurements, calculations, or combinations thereof.
An electro-optic display, comprising: a driver chip; and a backplane comprising a substrate, the substrate having a front side bearing an array of pixel electrodes arranged in pixel rows and pixel columns, each of the pixel rows having a row line running parallel to the pixel row, each row line being coupled to a back side wire, the back side wire also being coupled to the driver chip, wherein each back side wire runs along the back side of the substrate in a direction substantially perpendicular to its associated row line, and each back side wire transitions to the front side of the substrate through a via, wherein multiple back side wires run adjacent to each pixel column, each via for each back side wire has a nearest neighbor via, and the via and the nearest neighbor via are not aligned with the same pixel column. a driver chip; and a backplane comprising a substrate, the substrate having a front side bearing an array of pixel electrodes arranged in pixel rows and pixel columns, each of the pixel rows having a row line running parallel to the pixel row, each row line being coupled to a back side wire, the back side wire also being coupled to the driver chip, wherein each back side wire runs along the back side of the substrate in a direction substantially perpendicular to its associated row line, and each back side wire transitions to the front side of the substrate through a via, wherein multiple back side wires run adjacent to each pixel column, each via for each back side wire has a nearest neighbor via, and the via and the nearest neighbor via are not aligned with the same pixel column.
An aircraft system, comprising: a traffic awareness computer comprising a Traffic Collision and Avoidance System, TCAS, computer; an aircraft interface device; and a data bus configured to convey data from the TCAS computer to the aircraft interface device, the data bus comprising one of an A735B STIF, A739 and A735B DTIF bus interface, wherein the aircraft interface device is configured to transmit the data to a tablet computer; wherein the data conveyed is configured to display, on the tablet computer, display information identical to display information provided on one or more displays of a cockpit of the aircraft; and the aircraft interface device is configured to provide authentication with the tablet computer to ensure that only authorised users access the aircraft interface device. a traffic awareness computer comprising a Traffic Collision and Avoidance System, TCAS, computer; an aircraft interface device; and a data bus configured to convey data from the TCAS computer to the aircraft interface device, the data bus comprising one of an A735B STIF, A739 and A735B DTIF bus interface, wherein the aircraft interface device is configured to transmit the data to a tablet computer; wherein the data conveyed is configured to display, on the tablet computer, display information identical to display information provided on one or more displays of a cockpit of the aircraft; and the aircraft interface device is configured to provide authentication with the tablet computer to ensure that only authorised users access the aircraft interface device.
An Fc-binding polypeptide with improved alkaline stability over a parental domain or polypeptide, which polypeptide comprises a mutant of a parental B or C domain of Staphylococcus Protein A (SpA), as specified by SEQ ID NO 1 or SEQ ID NO 2, or of parental Protein Z, as specified by SEQ ID NO 3, wherein at least the glutamic acid residue at position 15 has been mutated to an amino acid other than asparagine, glutamine, proline or cysteine and wherein the glutamine residue at position 9 has been mutated to an alanine.
A method for wireless communication, comprising: identifying a first station causing high interference to a second station in a heterogeneous network comprising base stations (110, 112, 114, 116, 118) of at least two different transmit power levels, wherein the first station causing high interference is a base station (110, 112, 114, 116, 118) or a relay station and the second station is a user equipment (122, 124, 128); and mitigating interference due to a first reference signal from the first station causing high interference by canceling the interference at the second station, wherein the canceling the interference comprises: estimating the interference due to the first reference signal at the second station, subtracting the estimated interference from a received signal at the second station to obtain an interference-canceled signal and processing the interference-canceled signal to obtain a channel estimate for a further base station or a further relay station with which the second station is in communication or to obtain data sent by the further base station or further relay station to the second station. identifying a first station causing high interference to a second station in a heterogeneous network comprising base stations (110, 112, 114, 116, 118) of at least two different transmit power levels, wherein the first station causing high interference is a base station (110, 112, 114, 116, 118) or a relay station and the second station is a user equipment (122, 124, 128); and mitigating interference due to a first reference signal from the first station causing high interference by canceling the interference at the second station, wherein the canceling the interference comprises: estimating the interference due to the first reference signal at the second station, subtracting the estimated interference from a received signal at the second station to obtain an interference-canceled signal and processing the interference-canceled signal to obtain a channel estimate for a further base station or a further relay station with which the second station is in communication or to obtain data sent by the further base station or further relay station to the second station. estimating the interference due to the first reference signal at the second station, subtracting the estimated interference from a received signal at the second station to obtain an interference-canceled signal and processing the interference-canceled signal to obtain a channel estimate for a further base station or a further relay station with which the second station is in communication or to obtain data sent by the further base station or further relay station to the second station.