mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a communication network that supports dual connectivity, the method comprising: generating a measurement configuration information element, IE, for measurement of a wireless channel between a user equipment, UE, and a secondary node associated with a secondary cell group that together with a master node provides dual connectivity services to the UE; encapsulating the measurement configuration IE in a measurement configuration field, wherein the measurement configuration field is associated with a defined signaling radio bearer, SRB, that is to be used by the UE for measurement reporting; and transmitting the measurement configuration field to the UE in a radio resource control, RRC, message. generating a measurement configuration information element, IE, for measurement of a wireless channel between a user equipment, UE, and a secondary node associated with a secondary cell group that together with a master node provides dual connectivity services to the UE; encapsulating the measurement configuration IE in a measurement configuration field, wherein the measurement configuration field is associated with a defined signaling radio bearer, SRB, that is to be used by the UE for measurement reporting; and transmitting the measurement configuration field to the UE in a radio resource control, RRC, message.
A method of manufacturing an adsorbent comprising a porous adsorbent and ferrihydrite impregnated into the porous adsorbent, comprising: 1) allowing a porous adsorbent to stand in a ferric solution, wherein the porous adsorbent is powdered activated carbon (PAC); 2) separating the porous adsorbent from the solution; 3) washing and drying the separated porous adsorbent; 4) exposing the porous adsorbent to an alkaline solution and titrating so that a precipitate is formed in pores thereof, thereby forming an adsorbent comprising the porous adsorbent and ferrihydrite impregnated into the porous adsorbent; and 5) recovering the formed adsorbent, and performing heat treatment, washing and drying; wherein the titrating is performed at pH 7 - 8 using NaOH. 1) allowing a porous adsorbent to stand in a ferric solution, wherein the porous adsorbent is powdered activated carbon (PAC); 2) separating the porous adsorbent from the solution; 3) washing and drying the separated porous adsorbent; 4) exposing the porous adsorbent to an alkaline solution and titrating so that a precipitate is formed in pores thereof, thereby forming an adsorbent comprising the porous adsorbent and ferrihydrite impregnated into the porous adsorbent; and 5) recovering the formed adsorbent, and performing heat treatment, washing and drying;
A method for making a paper product with improved efficiency, the method comprising the steps of: unwinding paper from a roll of paper in a machine direction , the paper having a machine direction (MD) value and a cross direction (CD) value; and feeding the unwound paper into one or more pairs of embossing rolls in the machine direction , the method being characterised by the step of inducing flutes in the paper in the machine direction . unwinding paper from a roll of paper in a machine direction , the paper having a machine direction (MD) value and a cross direction (CD) value; and feeding the unwound paper into one or more pairs of embossing rolls in the machine direction , the method being characterised by the step of inducing flutes in the paper in the machine direction .
A lighting module comprising: a first plurality of light emitting elements of a first color, a second plurality of light emitting elements of a second color, a substrate upon which the first and second pluralities of light emitting elements are arranged, and an encapsulation layer that includes a first encapsulant and a second encapsulant , the first encapsulant being positioned above each of the light emitting elements of the first plurality , and the second encapsulant being positioned over the light emitting elements of the second plurality , wherein the second encapsulant comprises a plurality of domes disposed over each of the light emitting elements in the second plurality of light emitting elements , wherein the first encapsulant fills regions between the domes, and wherein the first encapsulant includes a concentration of wavelength conversion material that is substantially greater than a concentration of wavelength conversion material in the second encapsulant , characterized in that the second plurality of light emitting elements emit directly without wavelength conversion. a first plurality of light emitting elements of a first color, a second plurality of light emitting elements of a second color, a substrate upon which the first and second pluralities of light emitting elements are arranged, and an encapsulation layer that includes a first encapsulant and a second encapsulant , the first encapsulant being positioned above each of the light emitting elements of the first plurality , and the second encapsulant being positioned over the light emitting elements of the second plurality , wherein the second encapsulant comprises a plurality of domes disposed over each of the light emitting elements in the second plurality of light emitting elements , wherein the first encapsulant fills regions between the domes, and wherein the first encapsulant includes a concentration of wavelength conversion material that is substantially greater than a concentration of wavelength conversion material in the second encapsulant , characterized in that the second plurality of light emitting elements emit directly without wavelength conversion.
A system , comprising: a first communication apparatus including a first directional antenna ; and a second communication apparatus , loaded on a mobile object, including a second directional antenna , wherein the first communication apparatus includes: a first adjustment performing unit configured to perform a calibration of the first directional antenna , by measuring a radio wave receipt intensity from the second directional antenna by the first directional antenna while changing continuously a direction of the first directional antenna ; and a first notification information transmitting unit configured to transmit a first notification information to the second communication apparatus according to a completion of a calibration of the first directional antenna by the first adjustment performing unit ; and wherein the second communication apparatus includes a second adjustment performing unit configured to perform a calibration of the second directional antenna by measuring a radio wave receipt intensity from the first directional antenna by the second directional antenna while changing continuously a direction of the second directional antenna according to a receipt of the first notification information. a first communication apparatus including a first directional antenna ; and a second communication apparatus , loaded on a mobile object, including a second directional antenna , wherein the first communication apparatus includes: a first adjustment performing unit configured to perform a calibration of the first directional antenna , by measuring a radio wave receipt intensity from the second directional antenna by the first directional antenna while changing continuously a direction of the first directional antenna ; and a first notification information transmitting unit configured to transmit a first notification information to the second communication apparatus according to a completion of a calibration of the first directional antenna by the first adjustment performing unit ; and a first adjustment performing unit configured to perform a calibration of the first directional antenna , by measuring a radio wave receipt intensity from the second directional antenna by the first directional antenna while changing continuously a direction of the first directional antenna ; and a first notification information transmitting unit configured to transmit a first notification information to the second communication apparatus according to a completion of a calibration of the first directional antenna by the first adjustment performing unit ; and wherein the second communication apparatus includes a second adjustment performing unit configured to perform a calibration of the second directional antenna by measuring a radio wave receipt intensity from the first directional antenna by the second directional antenna while changing continuously a direction of the second directional antenna according to a receipt of the first notification information.
An end of arm tool for robotic cooking system, comprising: a rotary actuator , a flexible coupling , a linear actuator , a gripper operably connected with the linear actuator and designed to releasably grip an object, such as a tray, a container, a dish, or a plate; wherein the flexible coupling is operably connected with the rotary actuator and is adapted to be releasably engaged with an engagement means of a plurality of the containers for holding a supply of an ingredient, so that at the engaged position the rotation of the flexible coupling causes rotation of a corresponding engagement means of such elements of the robotic cooking system as the plurality of the containers and/or washing nozzle of a washing subsystem; wherein the flexible coupling is designed to compensate misalignment and/or ensure easy entering of the engaging part of the flexible coupling to the corresponding engagement means of the plurality of the containers; wherein the gripper comprising two rods , directly or indirectly associated with load cells , adapted to provide a representation of a load on the gripper ; wherein each rod is further provided with a ledge having one or more recesses, designed to accommodate an object gripped by the gripper ; and wherein the rods are further provided with heads , designed to be engaged with cavities of the respective shape on a container for holding a supply of an ingredient.
A screw assembly for an actuator, comprising: a screw a nut threaded on said screw, such that rotation of said screw causes axial movement of said nut; a stop located at an end of said screw and defining an axial limit of said nut; a first feature located on said nut; and a second feature located on said stop; characterised in that : said first and second features are configured to cooperate with one another substantially upon contact of said nut with said stop so as to indicate an amount of free movement between said nut and said screw, wherein said first and second features are positioned or configured such that their relative positions upon contact of said nut with said stop provide a measure of free movement between said nut and said screw. a screw a nut threaded on said screw, such that rotation of said screw causes axial movement of said nut; a stop located at an end of said screw and defining an axial limit of said nut; a first feature located on said nut; and a second feature located on said stop; characterised in that : said first and second features are configured to cooperate with one another substantially upon contact of said nut with said stop so as to indicate an amount of free movement between said nut and said screw, wherein said first and second features are positioned or configured such that their relative positions upon contact of said nut with said stop provide a measure of free movement between said nut and said screw. said first and second features are configured to cooperate with one another substantially upon contact of said nut with said stop so as to indicate an amount of free movement between said nut and said screw, wherein said first and second features are positioned or configured such that their relative positions upon contact of said nut with said stop provide a measure of free movement between said nut and said screw.
A system , comprising: a vehicle ; and a laser air data sensor mounted to a first portion of the vehicle , wherein the laser air data sensor includes a laser transceiver and collection optics , wherein the laser transceiver is configured to transmit one or more laser light beams , wherein a window of the laser transceiver is fixed and oriented to transmit the one or more laser light beams toward a second portion of the vehicle , wherein the laser air data sensor is configured to measure an airflow undisturbed by the vehicle in a selected measurement region outside the vehicle , wherein the selected measurement region is positioned between the window of the laser transceiver and the second portion of the vehicle . a vehicle ; and a laser air data sensor mounted to a first portion of the vehicle , wherein the laser air data sensor includes a laser transceiver and collection optics , wherein the laser transceiver is configured to transmit one or more laser light beams , wherein a window of the laser transceiver is fixed and oriented to transmit the one or more laser light beams toward a second portion of the vehicle , wherein the laser air data sensor is configured to measure an airflow undisturbed by the vehicle in a selected measurement region outside the vehicle , wherein the selected measurement region is positioned between the window of the laser transceiver and the second portion of the vehicle .
A computer-implemented method for dynamically manipulating a three-dimensional virtual model representing a patient's teeth so as to facilitate visualization of an orthodontic treatment plan being applied thereto, said method comprising the steps of: rendering said three-dimensional virtual model based, at least in part, upon one or more images of a patient's teeth, said three-dimensional virtual model comprising a plurality of teeth , said plurality of teeth comprising two sets of oppositely-oriented teeth; and manipulating said three-dimensional virtual model via a translational movement by scrolling in a two-dimensional computer display area and along a plane vertically oriented relative to said oppositely-oriented teeth, wherein said translational movement is configured to simultaneously impose a translational manipulation upon a first one of the two sets of oppositely oriented teeth and a rotational manipulation upon a second one of the two sets of oppositely oriented teeth, said simultaneous manipulation being configured to open said two sets of oppositely oriented teeth relative to one another so as to facilitate visualization of an orthodontic treatment plan for the patient's teeth. rendering said three-dimensional virtual model based, at least in part, upon one or more images of a patient's teeth, said three-dimensional virtual model comprising a plurality of teeth , said plurality of teeth comprising two sets of oppositely-oriented teeth; and manipulating said three-dimensional virtual model via a translational movement by scrolling in a two-dimensional computer display area and along a plane vertically oriented relative to said oppositely-oriented teeth, wherein said translational movement is configured to simultaneously impose a translational manipulation upon a first one of the two sets of oppositely oriented teeth and a rotational manipulation upon a second one of the two sets of oppositely oriented teeth, said simultaneous manipulation being configured to open said two sets of oppositely oriented teeth relative to one another so as to facilitate visualization of an orthodontic treatment plan for the patient's teeth.
A method of degasification of a carbonated beverage-filled container in an apparatus for blowing and filling containers, the apparatus comprising: - a mould enclosing a blown and carbonated beverage-filled container that comprises a dispensing opening , - an injection head that is movable along a longitudinal axis (A) passing by the dispensing opening of the container between a sealing position in which the injection head is in a sealing engagement with the dispensing opening and a non- sealing position in which the injection head is at a distance from the dispensing opening, characterized in that the method comprises the following steps: i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position. - a mould enclosing a blown and carbonated beverage-filled container that comprises a dispensing opening , - an injection head that is movable along a longitudinal axis (A) passing by the dispensing opening of the container between a sealing position in which the injection head is in a sealing engagement with the dispensing opening and a non- sealing position in which the injection head is at a distance from the dispensing opening, characterized in that the method comprises the following steps: i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position. i) moving the injection head away from the sealing position to a first non-sealing position, ii) moving the injection head to the sealing position, iii) moving the injection head away from the sealing position to a second non- sealing position.
A data processing method, wherein the method is applied to a data processing system, the data processing system comprises a virtual machine monitor, a virtual machine and an input/output, I/O, device, and the method comprises: Obtaining (S101), by the virtual machine monitor, first-type data, wherein the first-type data is hardware data used to indicate a working status of a virtual I/O device that remains unchanged in a data processing process, wherein the virtual I/O device is an I/O device obtained after the I/O device is virtualized; and Storing (S102), by the virtual machine monitor, the first-type data in a first memory space, wherein the first memory space is memory storage space in the data processing system; Receiving (S105), by the virtual machine, an I/O access request, wherein the I/O access request is used to access hardware data of the virtual I/O device, the I/O access request comprises an indication of the type of hardware data to be accessed; Identifying (S106), by the virtual machine, that the type of the hardware data indicated in the I/O access request is first-type data; and in response to identifying that the type pf the hardware data indicated in the I/O access request is first-type data, Obtaining (S107), by the virtual machine, the first-type data, stored by the virtual machine monitor, from the first memory space. Obtaining (S101), by the virtual machine monitor, first-type data, wherein the first-type data is hardware data used to indicate a working status of a virtual I/O device that remains unchanged in a data processing process, wherein the virtual I/O device is an I/O device obtained after the I/O device is virtualized; and Storing (S102), by the virtual machine monitor, the first-type data in a first memory space, wherein the first memory space is memory storage space in the data processing system; Receiving (S105), by the virtual machine, an I/O access request, wherein the I/O access request is used to access hardware data of the virtual I/O device, the I/O access request comprises an indication of the type of hardware data to be accessed; Identifying (S106), by the virtual machine, that the type of the hardware data indicated in the I/O access request is first-type data; and in response to identifying that the type pf the hardware data indicated in the I/O access request is first-type data, Obtaining (S107), by the virtual machine, the first-type data, stored by the virtual machine monitor, from the first memory space.
An in-vehicle power conversion device, comprising: - a drive unit (20; 30) that is configured to convert and to transmit electric power; - a casing that includes a main body that forms a housing portion that houses the drive unit (20; 30) and a lid body for closing this main body ; and - a plurality of busbars (40 - 43) connecting the drive unit (20; 30) and input-output parts of the casing to and from which electric power is input and output, and that are routed outside of the casing ; wherein: - the plurality of busbars (40 - 43) comprise heat-dissipating portions that are arranged along an upper surface of the lid body outside of the housing portion , - a busbar module that is integrally formed by insulating the heat-dissipating portions from the casing is provided, and - a refrigerant flow path formed between and thus limited by the lid body and the busbar module . - a drive unit (20; 30) that is configured to convert and to transmit electric power; - a casing that includes a main body that forms a housing portion that houses the drive unit (20; 30) and a lid body for closing this main body ; and - a plurality of busbars (40 - 43) connecting the drive unit (20; 30) and input-output parts of the casing to and from which electric power is input and output, and that are routed outside of the casing ; - the plurality of busbars (40 - 43) comprise heat-dissipating portions that are arranged along an upper surface of the lid body outside of the housing portion , - a busbar module that is integrally formed by insulating the heat-dissipating portions from the casing is provided, and - a refrigerant flow path formed between and thus limited by the lid body and the busbar module .
Circuit (C) for downlink/uplink operational mode switching in a time division duplex, TDD, wireless communication system, comprising at least a field-effect transistor (RF FET) operatively connected to a power amplifier (PA) on the downlink path (DL) of a RF front-end apparatus in the TDD wireless communication system, characterized in that the circuit (C) comprises: - a first voltage generator (V gsOFF ) connected to at least a large-value first resistor (R hold ); - a second voltage generator (V Gate ) connected to a second resistor (R Gate ); - at least a large-value hold capacitor (C hold ); - a sample-and-hold circuit configured to be switched between a reception (Rx) configuration, wherein said first voltage generator (V gsOFF ) is connected to the gate (G) of said field-effect transistor (RF FET) and said large-value hold capacitor (C hold ) is connected to said first voltage generator (V gsOFF ) through said first resistor (R hold ), and a transmission (Tx) configuration, wherein the gate (G) of said field-effect transistor (RF FET) is connected to said hold capacitor (C hold ) and said hold capacitor (C hold ) is connected to said second voltage generator (V Gate ) through said second resistor (R Gate ). - a first voltage generator (V gsOFF ) connected to at least a large-value first resistor (R hold ); - a second voltage generator (V Gate ) connected to a second resistor (R Gate ); - at least a large-value hold capacitor (C hold ); - a sample-and-hold circuit configured to be switched between a reception (Rx) configuration, wherein said first voltage generator (V gsOFF ) is connected to the gate (G) of said field-effect transistor (RF FET) and said large-value hold capacitor (C hold ) is connected to said first voltage generator (V gsOFF ) through said first resistor (R hold ), and a transmission (Tx) configuration, wherein the gate (G) of said field-effect transistor (RF FET) is connected to said hold capacitor (C hold ) and said hold capacitor (C hold ) is connected to said second voltage generator (V Gate ) through said second resistor (R Gate ).