mhurhangee/patent-ind-claim-en huggingface dataset:
A glasses type wearable device comprising: an image sensor ; an optical display unit ; and a controller configured to: control to capture, through the image sensor , one or more images to sense a gesture of a user, determine a user input region based on the gesture sensed from the one or more images, characterized in that the device comprises a depth sensor ; and the controller is configured to: control to measure, through the depth sensor , a distance from the glasses type wearable device to the user input region; to determine a virtual input interface type based on the distance from the glasses type wearable device to the user input region; and control to provide a virtual input interface on the optical display unit based on the determined user input region and virtual interface type, such that the virtual input interface corresponds to a size of the user input region. an image sensor ; an optical display unit ; and a controller configured to: control to capture, through the image sensor , one or more images to sense a gesture of a user, determine a user input region based on the gesture sensed from the one or more images, characterized in that the device comprises a depth sensor ; and the controller is configured to: control to measure, through the depth sensor , a distance from the glasses type wearable device to the user input region; to determine a virtual input interface type based on the distance from the glasses type wearable device to the user input region; and control to provide a virtual input interface on the optical display unit based on the determined user input region and virtual interface type, such that the virtual input interface corresponds to a size of the user input region. control to capture, through the image sensor , one or more images to sense a gesture of a user, determine a user input region based on the gesture sensed from the one or more images, characterized in that the device comprises a depth sensor ; and the controller is configured to: control to measure, through the depth sensor , a distance from the glasses type wearable device to the user input region; to determine a virtual input interface type based on the distance from the glasses type wearable device to the user input region; and control to provide a virtual input interface on the optical display unit based on the determined user input region and virtual interface type, such that the virtual input interface corresponds to a size of the user input region. control to measure, through the depth sensor , a distance from the glasses type wearable device to the user input region; to determine a virtual input interface type based on the distance from the glasses type wearable device to the user input region; and control to provide a virtual input interface on the optical display unit based on the determined user input region and virtual interface type, such that the virtual input interface corresponds to a size of the user input region.
A method for wireless communication performed by a user equipment, UE, the method comprising: receiving , from a base station, a synchronization signal block of a set of quasi-collocated synchronization signal blocks, the synchronization signal block comprising an indication of a parameter indicating information associated with a plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; determining , based on the parameter, the plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; receiving , from the base station, a downlink grant for a system information based on monitoring one or more downlink control channel locations of the plurality of downlink control channel locations; receiving , from the base station, the system information based on the downlink grant; and establishing a connection with the base station based on the synchronization signal block and the received system information. receiving , from a base station, a synchronization signal block of a set of quasi-collocated synchronization signal blocks, the synchronization signal block comprising an indication of a parameter indicating information associated with a plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; determining , based on the parameter, the plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; receiving , from the base station, a downlink grant for a system information based on monitoring one or more downlink control channel locations of the plurality of downlink control channel locations; receiving , from the base station, the system information based on the downlink grant; and establishing a connection with the base station based on the synchronization signal block and the received system information.
A grain-oriented electrical steel sheet, comprising: a chemical composition represented by in mass%, Si: 1.8% to 7.0%, Cu: 0.03% to 0.60%, and the balance: Fe and impurities; and a primary coating film containing forsterite on a surface of the steel sheet, wherein a Cu/Fe light-emitting intensity ratio measured by the method disclosed in the description with GDS (glow discharge optical emission spectrometry) at an interface region between the primary coating film and the surface of the steel sheet is 0.30 or less. a chemical composition represented by in mass%, Si: 1.8% to 7.0%, Cu: 0.03% to 0.60%, and the balance: Fe and impurities; and a primary coating film containing forsterite on a surface of the steel sheet, wherein a Cu/Fe light-emitting intensity ratio measured by the method disclosed in the description with GDS (glow discharge optical emission spectrometry) at an interface region between the primary coating film and the surface of the steel sheet is 0.30 or less.
A method implemented in a first computing device of multiple computing devices, the method comprising: accessing configuration information provided by an application when the application was installed on the first computing device to identify a provider module to be run; running the provider module to retrieve one or more application settings of the application and identify changes to the one or more application settings ; monitoring, by the provider module , a history of application setting changes on the first computing device ; in response to identification by the provider module of a first change to application settings on the first computing device , adding the first change to a synchronization communication module of the first computing device for communication to one or more additional computing devices of the multiple computing devices, wherein the synchronization communication module directly communicates the first change to the application settings to the one or more additional computing devices of the multiple computing devices; and in response to receiving a second change to application settings initiated on a second device of the one or more additional computing devices, both adding the second change to the history of application setting changes and incorporating the second change into the application settings on the first computing device . accessing configuration information provided by an application when the application was installed on the first computing device to identify a provider module to be run; running the provider module to retrieve one or more application settings of the application and identify changes to the one or more application settings ; monitoring, by the provider module , a history of application setting changes on the first computing device ; in response to identification by the provider module of a first change to application settings on the first computing device , adding the first change to a synchronization communication module of the first computing device for communication to one or more additional computing devices of the multiple computing devices, wherein the synchronization communication module directly communicates the first change to the application settings to the one or more additional computing devices of the multiple computing devices; and in response to receiving a second change to application settings initiated on a second device of the one or more additional computing devices, both adding the second change to the history of application setting changes and incorporating the second change into the application settings on the first computing device .
An entrained polymer, comprising: a base polymer; an active agent that is immiscible with the base polymer and acts on, interacts or reacts with a selected material, wherein the active agent is a desiccant and the selected material is moisture; and a channeling agent that is immiscible with the base polymer and transmits the selected material through the entrained polymer at a faster rate than in solely the base polymer, wherein the channeling agent is a water insoluble propylene oxide polymerisate-monobutyl ether which has a migration in compliance with at least one member selected from the group consisting of: United States Pharmacopeia Standard 661 regarding physiochemical tests to plastics and heavy metals and nonvolatile residue in polyethylene containers, European Union Regulation No. 10/2011 of January 14, 2011, and Notification No. 20 of the Japanese Ministry of Welfare regarding food packaging and containers. a base polymer; an active agent that is immiscible with the base polymer and acts on, interacts or reacts with a selected material, wherein the active agent is a desiccant and the selected material is moisture; and a channeling agent that is immiscible with the base polymer and transmits the selected material through the entrained polymer at a faster rate than in solely the base polymer, wherein the channeling agent is a water insoluble propylene oxide polymerisate-monobutyl ether which has a migration in compliance with at least one member selected from the group consisting of: United States Pharmacopeia Standard 661 regarding physiochemical tests to plastics and heavy metals and nonvolatile residue in polyethylene containers, European Union Regulation No. 10/2011 of January 14, 2011, and Notification No. 20 of the Japanese Ministry of Welfare regarding food packaging and containers.
A transmission mechanism , comprising: an outer wheel which is ring-shaped and has a central axis (O); an inner wheel , the inner wheel being disposed in the outer wheel , and the inner wheel engaging with the outer wheel ; an eccentric shaft , the eccentric shaft rotating about said central axis (O) of the outer wheel , the periphery of the eccentric shaft being provided with eccentric portions , eccentric shaft external teeth and a first supporting portion , and the inner wheel being disposed around the eccentric portions such that, when the transmission mechanism is in operation, the rotation of the eccentric shaft drives the inner wheel to rotate eccentrically or such that an eccentric rotation of the inner wheel drives the eccentric shaft to rotate; a first flange , the first flange and the inner wheel being arranged side by side, and the first flange being disposed around the first supporting portion ; a rotating shaft , the rotating shaft having rotating shaft external teeth ; and at least one planetary gearing device , the at least one planetary gearing device being supported by the first flange , the periphery of each of the at least one planetary gearing device being provided with a first row of planetary teeth and a second row of planetary teeth , the first row of planetary teeth engaging with the rotating shaft external teeth , and the second row of planetary teeth engaging with the eccentric shaft external teeth . an outer wheel which is ring-shaped and has a central axis (O); an inner wheel , the inner wheel being disposed in the outer wheel , and the inner wheel engaging with the outer wheel ; an eccentric shaft , the eccentric shaft rotating about said central axis (O) of the outer wheel , the periphery of the eccentric shaft being provided with eccentric portions , eccentric shaft external teeth and a first supporting portion , and the inner wheel being disposed around the eccentric portions such that, when the transmission mechanism is in operation, the rotation of the eccentric shaft drives the inner wheel to rotate eccentrically or such that an eccentric rotation of the inner wheel drives the eccentric shaft to rotate; a first flange , the first flange and the inner wheel being arranged side by side, and the first flange being disposed around the first supporting portion ; a rotating shaft , the rotating shaft having rotating shaft external teeth ; and at least one planetary gearing device , the at least one planetary gearing device being supported by the first flange , the periphery of each of the at least one planetary gearing device being provided with a first row of planetary teeth and a second row of planetary teeth , the first row of planetary teeth engaging with the rotating shaft external teeth , and the second row of planetary teeth engaging with the eccentric shaft external teeth .
A computer-implemented method for providing a dose reference value for a patient, comprising: - determining (S100) a body parameter value for each of at least one body parameter of a patient, wherein a first body parameter of the at least one body parameter of the patient indicates an age category of the patient, wherein a plurality of age categories is defined, including at least two different age categories for non-adults, wherein one age category of the plurality of defined age categories is automatically selected based on a determined first body parameter value, wherein one specific age category of the plurality of defined age categories is designated as a default age category that is used as a default selected age category when the one age category of the plurality of age categories is automatically selected based on the determined first body parameter value; - determining (S200) an adjustment factor based at least on the at least one determined body parameter value of the patient, wherein the adjustment factor is determined based at least on the automatically selected age category; - determining (S300) a base dose reference value; and - providing (S400) the dose reference value for the patient based on the base dose reference value adjusted using the determined adjustment factor. - determining (S100) a body parameter value for each of at least one body parameter of a patient, wherein a first body parameter of the at least one body parameter of the patient indicates an age category of the patient, wherein a plurality of age categories is defined, including at least two different age categories for non-adults, wherein one age category of the plurality of defined age categories is automatically selected based on a determined first body parameter value, wherein one specific age category of the plurality of defined age categories is designated as a default age category that is used as a default selected age category when the one age category of the plurality of age categories is automatically selected based on the determined first body parameter value; - determining (S200) an adjustment factor based at least on the at least one determined body parameter value of the patient, wherein the adjustment factor is determined based at least on the automatically selected age category; - determining (S300) a base dose reference value; and - providing (S400) the dose reference value for the patient based on the base dose reference value adjusted using the determined adjustment factor.
A method performed by a satellite access device to access a satellite system based on New Radio, NR, access technology, comprising: obtaining parameter information and time-frequency resource allocation information corresponding to at least two types of random access channels, the parameter information corresponding to each type of random access channel comprising a subcarrier spacing and a preamble sequence, wherein a random access channel bandwidth obtained in accordance with the subcarrier spacing and a length of the preamble sequence being smaller than or equal to a maximum transmission bandwidth of the satellite access device, the subcarrier spacing comprising a reference value of a maximum frequency offset to be tolerated by the satellite system; selecting target parameter information from the parameter information in accordance with an aperture of the satellite access device, an operating scenario of the satellite access device and a frequency offset proportion of the random access channel; and selecting a random access channel in accordance with the target parameter information, and transmitting a random access signal in accordance with the time-frequency resource allocation information. obtaining parameter information and time-frequency resource allocation information corresponding to at least two types of random access channels, the parameter information corresponding to each type of random access channel comprising a subcarrier spacing and a preamble sequence, wherein a random access channel bandwidth obtained in accordance with the subcarrier spacing and a length of the preamble sequence being smaller than or equal to a maximum transmission bandwidth of the satellite access device, the subcarrier spacing comprising a reference value of a maximum frequency offset to be tolerated by the satellite system; selecting target parameter information from the parameter information in accordance with an aperture of the satellite access device, an operating scenario of the satellite access device and a frequency offset proportion of the random access channel; and selecting a random access channel in accordance with the target parameter information, and transmitting a random access signal in accordance with the time-frequency resource allocation information.
A control valve for controlling a spring accumulator brake pressure (p3b) on spring accumulator parts of a rear axle wheel brake , wherein the control valve can be pneumatically controlled via a second control input with a parking brake control pressure (p5), wherein the parking brake control pressure (p5) can act on control means arranged in a valve housing of the control valve such that a spring accumulator brake pressure (p3b) at a control output of the control valve is adjusted in order to generate a parking brake braking specification (VP) with the spring accumulator parts of the rear axle wheel brakes according to the parking brake control pressure (p5), wherein the control valve further comprises a first control connection for controlling the control valve with an operating brake control pressure (pV; pR) dependent on an operating brake braking specification (VB), wherein the first control connection can be connected to an adjustable first control chamber , wherein the first control chamber is actively connected to the control means arranged in the control valve such that the spring accumulator brake pressure (p3b) on the control output can be adjusted in the event of an adjustment of the first control chamber as a consequence of an application of the operating brake control pressure (pV; pR) depending on the operating brake control pressure (pV; pR) and/or on the parking brake control pressure (p5), characterized in that the control valve comprises a control device , wherein the control device can switch a third control piston such that the first control connection is connected to the adjustable first control chamber via a connection channel for conducting the operating brake control pressure (pV; pR) into the first control chamber or that the atmosphere (A) is connected to the first control chamber to vent the first control chamber .
Method for managing a powertrain (GMP) of a motor vehicle in response to pressing an accelerator control by a driver of the stationary vehicle, the method comprising a step of calculating (E2) of a reference torque value (CO) reflecting pressure on the accelerator control and a step of transmitting (E5) a setpoint (C1) to the powertrain (GMP) as a function of said reference torque value (CO), the method comprising, before the step of transmitting (E5), if a pressure is applied to a brake control by the driver, a step of implementing (E3) a limitation of the reference torque value (CO) to a lower value constituting the setpoint (C1), the method further comprising, if the brake control is released, a reduction step ( E4) of said limitation, characterized in that the step of decreasing (E4) the limitation is implemented by applying a recovery ramp as a function of time.
A method of smoothing background noise, the method comprising receiving and decoding (S10) a coded signal comprising both a speech component and a background noise component; determining (S20) LPC parameters for said received signal; determining (S30) an excitation signal for said received signal; determining (S50) if said speech component is active or inactive; modifying (S35) said determined excitation signal by reducing power and spectral fluctuations of the excitation signal during periods of speech inactivity; synthesizing and outputting (S40) an output signal based on said LPC parameters and said excitation signal, characterized by: smoothing (S25) said determined set of LPC parameters by providing a low pass filtered set of LPC parameters, and determining a weighted combination of said low pass filtered set and said determined set of LPC parameters during periods of speech inactivity; and performing said synthesis and outputting (S40) based on said smoothed set of LPC parameters and said modified excitation signal. smoothing (S25) said determined set of LPC parameters by providing a low pass filtered set of LPC parameters, and determining a weighted combination of said low pass filtered set and said determined set of LPC parameters during periods of speech inactivity; and performing said synthesis and outputting (S40) based on said smoothed set of LPC parameters and said modified excitation signal.
A gas turbine engine comprising: an engine case ; a rotor stage including a plurality of rotor blades ; a plurality of carriers for supporting a plurality of blade outer air seals ; and an interlock formed between circumferential ends of a first adjacent carrier and a second adjacent carrier of the plurality of carriers; characterised in that : the interlock includes a projection (84; 184; 284; 384) on the first adjacent carrier and a receptacle (86; 186; 286; 386) on the second adjacent carrier ; and the gas turbine engine includes an annular central ring , wherein the plurality of carriers surround the annular central ring and the plurality of carriers include a central opening with a biasing member located within the central opening between the central ring and the plurality of carriers . an engine case ; a rotor stage including a plurality of rotor blades ; a plurality of carriers for supporting a plurality of blade outer air seals ; and an interlock formed between circumferential ends of a first adjacent carrier and a second adjacent carrier of the plurality of carriers; characterised in that : the interlock includes a projection (84; 184; 284; 384) on the first adjacent carrier and a receptacle (86; 186; 286; 386) on the second adjacent carrier ; and the gas turbine engine includes an annular central ring , wherein the plurality of carriers surround the annular central ring and the plurality of carriers include a central opening with a biasing member located within the central opening between the central ring and the plurality of carriers . the interlock includes a projection (84; 184; 284; 384) on the first adjacent carrier and a receptacle (86; 186; 286; 386) on the second adjacent carrier ; and the gas turbine engine includes an annular central ring , wherein the plurality of carriers surround the annular central ring and the plurality of carriers include a central opening with a biasing member located within the central opening between the central ring and the plurality of carriers .