mhurhangee/ep-ind-claims huggingface dataset:
A pressure plate unit for a brush making device for thermally pressing at least one bristle in an anchoring opening of a bristle carrier, the brush making device including a receptacle for the bristle carrier between the pressure plate unit and a counter plate, and the pressure plate unit and the counter plate being adapted to be moved towards and away from each other, the pressure plate unit including a heatable pressure plate having a front side that is opposite the counter plate and an opposite rear side and at least one receiving opening for the at least one bristle, and a funnel plate which is provided at the rear side of the pressure plate and has an insertion opening for the at least one bristle in alignment with the at least one receiving opening, and a means for reducing the temperature of the funnel plate being provided between the pressure plate and the funnel plate.
A method of operating a circuit quantum electrodynamics system that includes a physical qubit dispersively coupled to a quantum mechanical oscillator, the method comprising: applying a first electromagnetic pulse to the physical qubit, wherein a first frequency of the first electromagnetic pulse is selected based on a target Fock state of the quantum mechanical oscillator, wherein the first electromagnetic pulse causes a phase change to the target Fock state of the quantum mechanical oscillator; and applying, subsequent to application of the first electromagnetic pulse, a second electromagnetic pulse to the quantum mechanical oscillator that coherently adds or removes energy from the quantum mechanical oscillator to thereby alter populations of one or more Fock states of the quantum mechanical oscillator, wherein a frequency of the second electromagnetic pulse is a resonant frequency of the quantum mechanical oscillator, wherein the first electromagnetic pulse and the second electromagnetic pulse are not applied simultaneously, wherein the physical qubit is in its ground state during the entirety of said application of the second electromagnetic pulse, and wherein an amplitude of the first electromagnetic pulse is less than a magnitude of a dispersive coupling between the physical qubit and the quantum mechanical oscillator. applying a first electromagnetic pulse to the physical qubit, wherein a first frequency of the first electromagnetic pulse is selected based on a target Fock state of the quantum mechanical oscillator, wherein the first electromagnetic pulse causes a phase change to the target Fock state of the quantum mechanical oscillator; and applying, subsequent to application of the first electromagnetic pulse, a second electromagnetic pulse to the quantum mechanical oscillator that coherently adds or removes energy from the quantum mechanical oscillator to thereby alter populations of one or more Fock states of the quantum mechanical oscillator, wherein a frequency of the second electromagnetic pulse is a resonant frequency of the quantum mechanical oscillator, wherein the first electromagnetic pulse and the second electromagnetic pulse are not applied simultaneously, wherein the physical qubit is in its ground state during the entirety of said application of the second electromagnetic pulse, and wherein an amplitude of the first electromagnetic pulse is less than a magnitude of a dispersive coupling between the physical qubit and the quantum mechanical oscillator.
A method (200, 300, 400) of supporting emergency calls in a wireless communication network, comprising: receiving (1012; step a, FIGS. 2-4; 1112; step b, FIGS. 2-4) a first message at a first network entity (120, 130) to originate an emergency call for a mobile station accessing a Femto Access Point, FAP; and obtaining (step b, FIGS. 3-4) a macro Mobile Switching Center, MSC, ID determined based on a macro cell identity, ID; and sending (1014; step b, FIGS. 2-4; 1116; step c, FIGS. 2-4) second message to a second network entity (130, 140) in response to receiving the first message for use to select an emergency center for the emergency call, wherein the second message comprises the macro MSC ID and the macro cell ID, wherein the macro cell ID is determined based on a location of the FAP. receiving (1012; step a, FIGS. 2-4; 1112; step b, FIGS. 2-4) a first message at a first network entity (120, 130) to originate an emergency call for a mobile station accessing a Femto Access Point, FAP; and obtaining (step b, FIGS. 3-4) a macro Mobile Switching Center, MSC, ID determined based on a macro cell identity, ID; and sending (1014; step b, FIGS. 2-4; 1116; step c, FIGS. 2-4) second message to a second network entity (130, 140) in response to receiving the first message for use to select an emergency center for the emergency call, wherein the second message comprises the macro MSC ID and the macro cell ID, wherein the macro cell ID is determined based on a location of the FAP.
A method of manufacturing an electrical conductor comprising: depositing a microporous membrane defining a plurality of pores around an electrical conductor; filling at least a first portion of the plurality of pores with a ceramic material, wherein filling the first portion of the plurality of pores includes atomic layer deposition; and filling at least a second portion of the plurality of pores with a polymeric electrically insulating sealant. depositing a microporous membrane defining a plurality of pores around an electrical conductor; filling at least a first portion of the plurality of pores with a ceramic material, wherein filling the first portion of the plurality of pores includes atomic layer deposition; and filling at least a second portion of the plurality of pores with a polymeric electrically insulating sealant.
A polarized pixelated filter sub-array for use with a pixelated detector for which sub-arrays of 2×2 detector pixels are read out and processed to form a polarimetric image, said filter sub-array comprising: a plurality of filter pixels arranged in a 4×4 grid format in x and y directions, including 8 filter pixels that impart a linear polarization of a certain angular value and 8 unpolarized, U, filter pixels, wherein the relative angular values for the 4 × 4 grid format are: U 70° U 110° 215° U 5° U U 140° U 20° 200° U 45° U.
Atomizer device, comprising a container with a liquid chamber for receiving a liquid for atomizing, wherein the liquid chamber comprises an outlet to which a spray nozzle, which is able and configured to form a mist from the liquid under an increased operating pressure, is coupled downstream, wherein the liquid chamber comprises upstream a plunger which is received movably therein and is able and configured to expel during an axial displacement at least a part of the liquid from the liquid chamber, and wherein the container can at least be coupled to actuator means intended and configured to impart an axial displacement to the plunger when actuated, characterized in that provided between the plunger of the liquid chamber and the spray nozzle is an air bubble barrier which, from a side thereof facing toward the plunger, is at least substantially unbridgeable to possible air bubbles in the liquid, but which comprises a passage for the purpose of allowing at least substantially free passage of the liquid.
An engine, comprising a crankcase; a crankshaft journalled in the crankcase; a piston coupled to the crankshaft; a cylinder in which the piston reciprocates; a head positioned over the piston and cylinder, the head including a first aperture therethrough profiled for a spark plug; at least one camshaft positioned in the head; a cam retainer positioned over the cam to retain the cam in the head; and a valve cover receivable over the head and cam retainer, wherein the cam retainer comprises a second aperture profiled to at least partially overlie the first aperture, the cam retainer being in a sealed relation with the head at the interface of the first and second apertures (582, 750), and the valve cover having a third aperture therethrough, the third aperture being profiled to at least partially overlie the second aperture, the valve cover being in a sealed relation with the cam retainer at the interface of the second and third apertures (750, 784), wherein a baffle plate is positioned above an upper surface of the cam retainer and supported on the valve cover, characterized in that the baffle plate includes a circular opening configured to be received over the third aperture of the valve cover.
An overtube for use with an endoscopic surgical instrument, said overtube comprising: a substantially flexible helically wound continuous member forming a series of helical coils that define a hollow passage sized to receive a portion of the endoscopic surgical instrument therethrough, said overtube having a distal end and a proximal end; and at least one stiffening element coupled to said overtube to selectively draw said helical coils into abutting contact with each other to stiffen said overtube, wherein said at least one stiffening element comprises: a plurality of tensioning members coupled to said over tube and extending therethrough; and an actuator operably coupled to said plurality of tensioning members; characterized in that, the helical coils are provided with lumens for receiving said plurality of tensioning members therethrough. a substantially flexible helically wound continuous member forming a series of helical coils that define a hollow passage sized to receive a portion of the endoscopic surgical instrument therethrough, said overtube having a distal end and a proximal end; and at least one stiffening element coupled to said overtube to selectively draw said helical coils into abutting contact with each other to stiffen said overtube, wherein said at least one stiffening element comprises: a plurality of tensioning members coupled to said over tube and extending therethrough; and an actuator operably coupled to said plurality of tensioning members; characterized in that, the helical coils are provided with lumens for receiving said plurality of tensioning members therethrough. a plurality of tensioning members coupled to said over tube and extending therethrough; and an actuator operably coupled to said plurality of tensioning members; characterized in that, the helical coils are provided with lumens for receiving said plurality of tensioning members therethrough.
A nozzle vane (10, 10A, 10B) for a turbocharger, comprising: a vane body (10, 10A, 10B) having a first end surface (11, 11A, 11B) and a second end surface (12, 12A, 12B); and a rotatable shaft to rotate the vane body (10, 10A, 10B), the rotatable shaft being disposed on the second end surface (12, 12A, 12B), characterized in that when an x-axis is taken along a normal direction of a camber line (Lc) of the vane body (10, 10A, 10B) from a pressure surface (15, 15A, 15B) toward a suction surface (16, 16A, 16B) of the vane body (10, 10A, 10B), and a y-axis is taken along a vane height direction from the second end surface (12, 12A, 12B) toward the first end surface (11, 11A, 11B), coordinates (x s, y s) of the suction surface (16, 16A, 16B) on a trailing edge (14, 14A, 14B) side of the vane body (10, 10A, 10B) and coordinates (x p, y p) of the pressure surface (15, 15A, 15B) on a leading edge (13, 13A, 13B) side of the vane body (10, 10A, 10B) satisfy the following relational expression within a positional range in the vane height direction including the first end surface (11, 11A, 11B): dy s dx s < dy p dx p. a vane body (10, 10A, 10B) having a first end surface (11, 11A, 11B) and a second end surface (12, 12A, 12B); and a rotatable shaft to rotate the vane body (10, 10A, 10B), the rotatable shaft being disposed on the second end surface (12, 12A, 12B), characterized in that when an x-axis is taken along a normal direction of a camber line (Lc) of the vane body (10, 10A, 10B) from a pressure surface (15, 15A, 15B) toward a suction surface (16, 16A, 16B) of the vane body (10, 10A, 10B), and a y-axis is taken along a vane height direction from the second end surface (12, 12A, 12B) toward the first end surface (11, 11A, 11B), coordinates (x s, y s) of the suction surface (16, 16A, 16B) on a trailing edge (14, 14A, 14B) side of the vane body (10, 10A, 10B) and coordinates (x p, y p) of the pressure surface (15, 15A, 15B) on a leading edge (13, 13A, 13B) side of the vane body (10, 10A, 10B) satisfy the following relational expression within a positional range in the vane height direction including the first end surface (11, 11A, 11B): dy s dx s < dy p dx p.
A method for allocating values of a security parameter index, "SPI", to a plurality of endpoints (110, 120, 130) in a network, the method comprising: deriving, independently at a first endpoint, a globally unique SPI value using a global SPI derivation formula, "GSDF", and one or more parameters which comprise a source endpoint ID number corresponding to the first endpoint, a key policy number and a shift factor, wherein the shift factor changes upon restart of each endpoint (110, 120, 130); establishing a secured communication channel between the first endpoint and a second endpoint using the SPI value; and communicating, by the first endpoint, with the second endpoint over the secured communication channel. deriving, independently at a first endpoint, a globally unique SPI value using a global SPI derivation formula, "GSDF", and one or more parameters which comprise a source endpoint ID number corresponding to the first endpoint, a key policy number and a shift factor, wherein the shift factor changes upon restart of each endpoint (110, 120, 130); establishing a secured communication channel between the first endpoint and a second endpoint using the SPI value; and communicating, by the first endpoint, with the second endpoint over the secured communication channel.
An agricultural operational system with an agricultural working machine which can be fitted to at least one mounted implement via at least one implement interface, wherein a working machine configuration is associated with the working machine, wherein a mounted implement configuration is associated with the mounted implement, wherein a drive unit is provided which acts via a drive train on ground engaging elements, in particular on running wheels, and wherein a system control and a control and display unit associated with the working machine are provided, wherein the system control is configured to determine the mounted implement configuration, characterized in that the system control is configured to calculate the implement interface load transmitted via the implement interface based on the determined mounted implement configuration and to evaluate and/or optimize the working machine configuration based on the calculated implement interface load, and in that a working machine model is present in the system control which maps the relationship between the implement interface load and the prevailing distribution of forces and moments on the working machine, and in that the system control evaluates the working machine configuration in accordance with at least one evaluation criterion and/or optimizes the working machine configuration in accordance with at least one optimization criterion based on the working machine model and the calculated implement interface load. the system control is configured to calculate the implement interface load transmitted via the implement interface based on the determined mounted implement configuration and to evaluate and/or optimize the working machine configuration based on the calculated implement interface load, and in that a working machine model is present in the system control which maps the relationship between the implement interface load and the prevailing distribution of forces and moments on the working machine, and in that the system control evaluates the working machine configuration in accordance with at least one evaluation criterion and/or optimizes the working machine configuration in accordance with at least one optimization criterion based on the working machine model and the calculated implement interface load.
Temperature-control body arrangement for controlling the temperature, in particular heating or cooling, of a room, with - at least one temperature-control body through which an energy-transporting medium can flow, having a first large face on a first side of the temperature-control body and a second large face on a second side of the temperature-control body facing away from the first side, and having a feed line and a discharge line for the energy-transporting medium; - at least one fastening means fastened to the temperature-control body for fastening the temperature-control body to a boundary surface, in particular a wall, floor or ceiling, of the room or to a further temperature-control body; - at least one receiving means fastened to the temperature-control body for receiving and positioning an object, in particular a towel or an item of clothing, on the first large face of the temperature-control body in order to heat and/or dry the object when the temperature-control body is in heating mode, wherein the receiving means comprises a base member attached to the temperature-control body and at least one extension mounted movably with respect to the base member, the extension extending along the first large face and being movable along the same with respect to the temperature-control body between a first position and a second position, wherein in the first position an orthogonal projection of the at least one extension onto the plane of the first large face lies within the first large face and in the second position an orthogonal projection of the at least one extension onto the plane of the first large face lies at least partially outside the first large face, characterized in that the base member has a bow-like structure with a first limb, a second limb and a transition section arranged between the first limb and the second limb, the first limb being fastened to the temperature-control body and the extension being movably mounted on the second limb. - at least one temperature-control body through which an energy-transporting medium can flow, having a first large face on a first side of the temperature-control body and a second large face on a second side of the temperature-control body facing away from the first side, and having a feed line and a discharge line for the energy-transporting medium; - at least one fastening means fastened to the temperature-control body for fastening the temperature-control body to a boundary surface, in particular a wall, floor or ceiling, of the room or to a further temperature-control body; - at least one receiving means fastened to the temperature-control body for receiving and positioning an object, in particular a towel or an item of clothing, on the first large face of the temperature-control body in order to heat and/or dry the object when the temperature-control body is in heating mode,
A method for transmitting Downlink Control Information, DCI, to a terminal by a base station in a wireless communication system, wherein the terminal is configured to simultaneously transmit two transport blocks, TBs, to the base station in multiple-input multiple-output, MIMO, operation with separate, independent Hybrid Automatic Repeat reQest, HARQ, processes assigned to each TB, the method comprising the steps of: generating DCI including a first field indicating a first TB to which the information for transmission of a TB in the DCI corresponds to and a second field indicating one of a plurality of states of a second TB; and transmitting the DCI to the terminal, and characterised in that the plurality of states comprises a first state indicating the second TB being disabled and stopping of a corresponding HARQ process of the second TB, a second state indicating acknowledgement, ACK, to the second TB and continuing of the corresponding HARQ process and a third state indicating negative acknowledgement, NACK, to the second TB and continuing of the corresponding HARQ process, and wherein the method further comprises: receiving new data corresponding to the second TB from the terminal as a result of the second field indicating the ACK and continuing of the corresponding HARQ process; receiving retransmitted data corresponding to the second TB from the terminal as a result of the second field indicating the NACK and continuing of the corresponding HARQ process, and wherein the terminal is configured to disable a transmission of the second TB as a result of the second field indicating the second TB being disabled and stopping of a corresponding HARQ process. generating DCI including a first field indicating a first TB to which the information for transmission of a TB in the DCI corresponds to and a second field indicating one of a plurality of states of a second TB; and transmitting the DCI to the terminal, and receiving new data corresponding to the second TB from the terminal as a result of the second field indicating the ACK and continuing of the corresponding HARQ process; receiving retransmitted data corresponding to the second TB from the terminal as a result of the second field indicating the NACK and continuing of the corresponding HARQ process, and wherein the terminal is configured to disable a transmission of the second TB as a result of the second field indicating the second TB being disabled and stopping of a corresponding HARQ process.
A semiconductor device having a substrate, a buried layer on the substrate, a layer for an active area extending from a surface contact to the buried layer, an insulator in a first trench extending down to the buried layer, to isolate the active area, and a second insulator in a second deep trench extending through the buried layer to isolate the buried layer and the active area from other parts of the substrate and a sinker having the same conductivity type as the buried layer, wherein the sinker extends from an upper surface of the layer to the buried layer between the first trench and the second trench such that the bottom of the diffusion profile of the sinker does not extend below the buried layer.
A method for generating ions in a gas within a module including a pair of electrodes (2, 6; 3, 7, 8) spaced apart across a gap, the method comprising the steps for: applying alternating ionizing voltage to the electrodes (2, 6; 3, 7, 8) for generating positive and negative ions within the gap between electrodes (2, 6; 3, 7, 8); characterized in that the method further comprises: selecting the frequency of the alternating ionizing voltage matched to a residence time of the generated ions within said gap to concentrate the positive and negative ions within a central region of said gap. applying alternating ionizing voltage to the electrodes (2, 6; 3, 7, 8) for generating positive and negative ions within the gap between electrodes (2, 6; 3, 7, 8); characterized in that the method further comprises: selecting the frequency of the alternating ionizing voltage matched to a residence time of the generated ions within said gap to concentrate the positive and negative ions within a central region of said gap. selecting the frequency of the alternating ionizing voltage matched to a residence time of the generated ions within said gap to concentrate the positive and negative ions within a central region of said gap.