mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating aerosol from an aerosol-generating substrate using an aerosol-generating device comprising a first heat source and a second heat source disposed to heat, but not burn, the aerosol-generating substrate in use; wherein the aerosol-generating substrate comprises first and second portions and there is no physical separation between the portions; and wherein the aerosol-generating substrate is capable of being inductively heated by the first and second heat source; wherein: the first heat source is disposed to heat, but not burn, the first portion of the aerosol-generating substrate in use; the second heat source disposed to heat, but not burn, the second portion of the aerosol-generating substrate in use; and the first and second heat sources are independently controllable; the method comprising the steps of: heating the aerosol-generating substrate in the aerosol-generating device over a period of time corresponding to a session of use, so that a temperature profile of the first portion of the aerosol-generating substrate during heating is different from a temperature profile of the second portion of the aerosol-generating substrate , and characterised in that the temperature profiles of the first and second portion differ in rate of change of temperature such that the temperature of the first portion rises to an operating temperature relatively quickly, and in a later part of the session, the temperature of the first portion falls to a prescribed second temperature, and remains at that temperature for a sustained period, the second portion rises to an operating temperature relatively slowly, and remains at that temperature for a sustained period. the first heat source is disposed to heat, but not burn, the first portion of the aerosol-generating substrate in use; the second heat source disposed to heat, but not burn, the second portion of the aerosol-generating substrate in use; and the first and second heat sources are independently controllable; the method comprising the steps of: heating the aerosol-generating substrate in the aerosol-generating device over a period of time corresponding to a session of use, so that a temperature profile of the first portion of the aerosol-generating substrate during heating is different from a temperature profile of the second portion of the aerosol-generating substrate , and characterised in that the temperature profiles of the first and second portion differ in rate of change of temperature such that the temperature of the first portion rises to an operating temperature relatively quickly, and in a later part of the session, the temperature of the first portion falls to a prescribed second temperature, and remains at that temperature for a sustained period, the second portion rises to an operating temperature relatively slowly, and remains at that temperature for a sustained period.
A method of wireless communication performed by a user equipment, UE , comprising: receiving a configuration from a base station that indicates whether to use a first channel quality indicator, CQI, table from a first set of CQI tables associated with terrestrial network communications or whether to use a second CQI table from a second set of CQI tables associated with non-terrestrial network communications, wherein the configuration is based at least in part on at least one of a quality of service requirement for a data communication associated with the CQI feedback or a hybrid automatic repeat request, HARQ, configuration for the UE; and transmitting CQI feedback to the base station based at least in part on the configuration, wherein the CQI feedback is transmitted using the first CQI table when the configuration indicates that the first CQI table is to be used or is transmitted using the second CQI table when the configuration indicates that the second CQI table is to be used. receiving a configuration from a base station that indicates whether to use a first channel quality indicator, CQI, table from a first set of CQI tables associated with terrestrial network communications or whether to use a second CQI table from a second set of CQI tables associated with non-terrestrial network communications, wherein the configuration is based at least in part on at least one of a quality of service requirement for a data communication associated with the CQI feedback or a hybrid automatic repeat request, HARQ, configuration for the UE; and transmitting CQI feedback to the base station based at least in part on the configuration, wherein the CQI feedback is transmitted using the first CQI table when the configuration indicates that the first CQI table is to be used or is transmitted using the second CQI table when the configuration indicates that the second CQI table is to be used.
A computer implemented method for testing a wearable device, characterized in that the wearable device comprises a lens component and a display screen provided on one side of the lens component, and the method comprising: performing at least two angle acquisition processes, the angle acquisition process comprising: relatively rotating a center point of an imaging area of an image acquisition component from a position aligned with an initial specified point of a target virtual image to a position aligned with a target specified point of the target virtual image, wherein the target virtual image is a virtual image formed, via the lens component, by an actual test image displayed by the display screen in the wearable device, and a line connecting the center point of the imaging area and the initial specified point is perpendicular to the display screen when the center point of the imaging area is aligned with the initial specified point, and acquiring an angle variation value of the center point of the imaging area of the image acquisition component in the rotation from the position aligned with the initial specified point of the target virtual image to the position aligned with the target specified point of the target virtual image; and determining an optical imaging parameter value of the target virtual image on the basis of the angle variation values acquired in the at least two angle acquisition processes. relatively rotating a center point of an imaging area of an image acquisition component from a position aligned with an initial specified point of a target virtual image to a position aligned with a target specified point of the target virtual image, wherein the target virtual image is a virtual image formed, via the lens component, by an actual test image displayed by the display screen in the wearable device, and a line connecting the center point of the imaging area and the initial specified point is perpendicular to the display screen when the center point of the imaging area is aligned with the initial specified point, and acquiring an angle variation value of the center point of the imaging area of the image acquisition component in the rotation from the position aligned with the initial specified point of the target virtual image to the position aligned with the target specified point of the target virtual image; and determining an optical imaging parameter value of the target virtual image on the basis of the angle variation values acquired in the at least two angle acquisition processes.
A computer-implemented method of granting permission in association with an application, the method comprising: accessing a website on an application running on an electronic device, the website comprising metadata; obtaining, from the metadata, a unique identifier of a native application; determining, based on the obtained unique identifier, that the native application is installed on the electronic device and that a permission is set in the native application; verifying, in response to the determination, that the native application corresponds to the website, wherein the verifying is based on a determination that a domain of the website matches a preset domain of the native application; and setting, in response to the verification, the permission for the website, wherein both the application and the native application allow for setting of the permission. accessing a website on an application running on an electronic device, the website comprising metadata; obtaining, from the metadata, a unique identifier of a native application; determining, based on the obtained unique identifier, that the native application is installed on the electronic device and that a permission is set in the native application; verifying, in response to the determination, that the native application corresponds to the website, wherein the verifying is based on a determination that a domain of the website matches a preset domain of the native application; and setting, in response to the verification, the permission for the website, wherein both the application and the native application allow for setting of the permission.
A motion determination apparatus for determining motion of a moving object, wherein the motion determination apparatus comprises: - a multi-axial accelerometer for being positioned at the moving object , wherein the multi-axial accelerometer is adapted to generate accelerometer signals indicative of the acceleration along different spatial axes, - a motion signal generation unit for generating a motion signal indicative of the motion of the object by combining the accelerometer signals of different spatial axes, wherein the motion signal generation unit is adapted to determine for each spatial axis of the accelerometer a maximized projection signal of the acceleration change and to generate the motion signal by combining the maximized projection signals, and wherein the motion signal generation unit is adapted to determine the maximized projection signal of the acceleration change for each spatial axis of the accelerometer by projecting a movement of a gravity vector relative to the spatial axes of the accelerometer on a subspace defined by a nominal gravity vector and the respective spatial axis of the accelerometer and by transforming the respective axis within the subspace such that a projection of the projected movement of the gravity vector, which has been projected into the subspace, on the transformed respective axis is maximized. - a multi-axial accelerometer for being positioned at the moving object , wherein the multi-axial accelerometer is adapted to generate accelerometer signals indicative of the acceleration along different spatial axes, - a motion signal generation unit for generating a motion signal indicative of the motion of the object by combining the accelerometer signals of different spatial axes, wherein the motion signal generation unit is adapted to determine for each spatial axis of the accelerometer a maximized projection signal of the acceleration change and to generate the motion signal by combining the maximized projection signals, and wherein the motion signal generation unit is adapted to determine the maximized projection signal of the acceleration change for each spatial axis of the accelerometer by projecting a movement of a gravity vector relative to the spatial axes of the accelerometer on a subspace defined by a nominal gravity vector and the respective spatial axis of the accelerometer and by transforming the respective axis within the subspace such that a projection of the projected movement of the gravity vector, which has been projected into the subspace, on the transformed respective axis is maximized.
Connecting device for fixing an object to a flat building part , which is provided with a sealing flexible enveloping layer , wherein the connecting device has a lower disc part , a middle disc part and an upper disc part , which lie one above the other in the assembled state, wherein an annular edge region of an opening in the enveloping layer can be clamped between the middle disc part and the lower disc part , wherein screws extend through the middle disc part and the lower disc part and into the region below the lower disc part , wherein the upper disc part is screwed firmly to the middle disc part by one or more additional screws and the object to ultimately be fixed can be anchored to the upper disc part , characterised in that that partial surface of the contact surface between the middle disc part and the upper disc part , in which those screw through-holes are located through which those screws , which extend through the central and the lower disc part , extend, is completely separated by sealing grooves, each with a seal inserted respectively therein, from all those parts of the contact surface between the middle disc part and the upper disc part which are in contact, directly or via holes, with the surroundings of the connecting device above the lower disc .
Method for operating a beverage machine for preparing infusion beverages, comprising - a flow line system comprising a valve arrangement ; - a cleaning device for automatically carrying out a cleaning and/or care process (CP), comprising a storage cartridge for storing cleaning agent (C), and - as an electrical consumer, an electrically driven pump (8, M) for supplying the cleaning agent (C) or a cleaning solution from the cleaning device into the flow line system ; - a control device , the valve arrangement and the pump (8, M) being activated and deactivated by means of the control device (18, uC) in order to carry out the beverage preparation and the cleaning or care process (CP), characterised in that the pump (8, M) and the valve device are activated and deactivated, by means of the control device (18, uC), at predetermined time intervals (TG) for an automatic cleaning sequence (CP), - the control device (18, uC) detecting the use made of the beverage machine and, on the basis thereof, generating a contamination index (I) and - activating at least one of the electrical consumers (8, M, 9, 12) at a predefined power during the care sequence (CP), the predefined power being determined depending on the contamination index (I). - a flow line system comprising a valve arrangement ; - a cleaning device for automatically carrying out a cleaning and/or care process (CP), comprising a storage cartridge for storing cleaning agent (C), and - as an electrical consumer, an electrically driven pump (8, M) for supplying the cleaning agent (C) or a cleaning solution from the cleaning device into the flow line system ; - a control device , the valve arrangement and the pump (8, M) being activated and deactivated by means of the control device (18, uC) in order to carry out the beverage preparation and the cleaning or care process (CP), characterised in that the pump (8, M) and the valve device are activated and deactivated, by means of the control device (18, uC), at predetermined time intervals (TG) for an automatic cleaning sequence (CP), - the control device (18, uC) detecting the use made of the beverage machine and, on the basis thereof, generating a contamination index (I) and - activating at least one of the electrical consumers (8, M, 9, 12) at a predefined power during the care sequence (CP), the predefined power being determined depending on the contamination index (I).
A data compression apparatus for compressing input audio data or image data to generate compressed data, the data compression apparatus comprising: conversion means (13, S104) for converting the audio data or image data into a plurality of pieces of frequency domain data; block generation means (13, S109) for generating a plurality of blocks by, on the basis of the plurality of pieces of frequency domain data, dividing a data sequence in which the plurality of pieces of frequency domain data are arranged into a plurality of blocks such that separation positions of the blocks are variable; and compressed data generation means for generating the compressed data by compressing, on a block basis, the pieces of frequency domain data included in the blocks generated by the block generation means, wherein the block generation means generates the plurality of blocks on the basis of a number of bits for representing each of the pieces of frequency domain data, the block generation means assembles, in one of the blocks, any of the pieces of frequency domain data having the same number of bits for representing each of the pieces of frequency domain data, the compressed data generation means compresses the pieces of frequency domain data included in each block by removing unnecessary bits so as to leave bits for representing each piece of data included in the block, and even when one of the pieces of frequency domain data and one of the blocks have different numbers of bits for representing each of the pieces of frequency domain data, if the piece of data and the block satisfy a predetermined condition, the block generation means includes the piece of data in the block. conversion means (13, S104) for converting the audio data or image data into a plurality of pieces of frequency domain data; block generation means (13, S109) for generating a plurality of blocks by, on the basis of the plurality of pieces of frequency domain data, dividing a data sequence in which the plurality of pieces of frequency domain data are arranged into a plurality of blocks such that separation positions of the blocks are variable; and compressed data generation means for generating the compressed data by compressing, on a block basis, the pieces of frequency domain data included in the blocks generated by the block generation means, wherein the block generation means generates the plurality of blocks on the basis of a number of bits for representing each of the pieces of frequency domain data, the block generation means assembles, in one of the blocks, any of the pieces of frequency domain data having the same number of bits for representing each of the pieces of frequency domain data, the compressed data generation means compresses the pieces of frequency domain data included in each block by removing unnecessary bits so as to leave bits for representing each piece of data included in the block, and
An antenna comprising: a radial waveguide having a structure through which a radio frequency, RF, feed wave can propagate, an aperture , and a slip plane , wherein the structure has an outer portion surrounding the radial waveguide such that the RF feed wave is provided to the aperture ; wherein the aperture is operable to radiate RF signals in response to the RF feed wave fed by the radial waveguide ; wherein the aperture forms a gap with the outer portions of the radial waveguide such that there is no physical electrical connection between the radial waveguide and the aperture ; wherein the slip plane is placed between the top of the housing of the radial waveguide and the aperture to enable lateral movement between the aperture and the radial waveguide caused by heat and differences in coefficients of thermal expansion of the radial waveguide and the aperture ; the antenna further comprising an RF choke operable to block RF energy from exiting through the gap between outer portions of the radial waveguide and the aperture . a radial waveguide having a structure through which a radio frequency, RF, feed wave can propagate, an aperture , and a slip plane , wherein the structure has an outer portion surrounding the radial waveguide such that the RF feed wave is provided to the aperture ; wherein the aperture is operable to radiate RF signals in response to the RF feed wave fed by the radial waveguide ; wherein the aperture forms a gap with the outer portions of the radial waveguide such that there is no physical electrical connection between the radial waveguide and the aperture ; wherein the slip plane is placed between the top of the housing of the radial waveguide and the aperture to enable lateral movement between the aperture and the radial waveguide caused by heat and differences in coefficients of thermal expansion of the radial waveguide and the aperture ; the antenna further comprising an RF choke operable to block RF energy from exiting through the gap between outer portions of the radial waveguide and the aperture .
Warning triangle with a film , the film being stretched along a triangle plane of the warning triangle in an operational configuration of the warning triangle , a. wherein the film comprises at least one flat electric luminescent layer arranged along a film plane (FE) of the film for emitting visible light, characterized in that b. the film comprises at least one flat photovoltaic layer arranged along the film plane (FE) for supplying the luminescent layer with electrical energy, c. wherein the film comprises at least one energy storage layer arranged along the film plane (FE) for storing electrical energy to supply the luminescent layer , d. wherein the film comprises at least one flat induction layer arranged along the film plane (FE) for inductively charging the energy storage layer , e. wherein the at least one luminescent layer , the at least one energy storage layer , the at least one induction layer , and the at least one photovoltaic layer each comprise a plurality of material layers aligned along the film plane (FE) and having material compositions that differ from one another. a. wherein the film comprises at least one flat electric luminescent layer arranged along a film plane (FE) of the film for emitting visible light, characterized in that b. the film comprises at least one flat photovoltaic layer arranged along the film plane (FE) for supplying the luminescent layer with electrical energy, c. wherein the film comprises at least one energy storage layer arranged along the film plane (FE) for storing electrical energy to supply the luminescent layer , d. wherein the film comprises at least one flat induction layer arranged along the film plane (FE) for inductively charging the energy storage layer , e. wherein the at least one luminescent layer , the at least one energy storage layer , the at least one induction layer , and the at least one photovoltaic layer each comprise a plurality of material layers aligned along the film plane (FE) and having material compositions that differ from one another.
A composition for use in preventing or treating diabetes, the composition comprising an oxyntomodulin analog conjugate as an active ingredient wherein the oxyntomodulin analog conjugate comprises an oxyntomodulin analog comprising the amino acid sequence of SEQ ID NOs: 24, 25, or 26; an immunoglobulin Fc region; and a non-peptidyl polymer, wherein the non-peptidyl polymer links the oxyntomodulin analog to the immunoglobulin Fc region via a covalent bond.