mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for identification in a wireless network, comprising: a receiving module , configured to receive a first request message sent by a network side device, wherein the first request message carries an international mobile equipment identity, IMEI, and the IMEI is used to identify a terminal device; a determining module , configured to determine whether the IMEI is the same as an IMEI of the terminal device; and a sending module , configured to: when the determining module determines that the IMEI is the same as the IMEI of the terminal device, send a first response message to the network side device, so that the network side device connects the terminal device to a network according to the first response message, wherein the first response message is a radio resource control, RRC, connection request message; wherein the IMEI corresponds to the terminal device in a one-to-one manner, wherein the first request message comprises a message in at least one of the following signaling flows: paging, access, service establishment, location area update, routing area update, attach, or detach. a receiving module , configured to receive a first request message sent by a network side device, wherein the first request message carries an international mobile equipment identity, IMEI, and the IMEI is used to identify a terminal device; a determining module , configured to determine whether the IMEI is the same as an IMEI of the terminal device; and a sending module , configured to: when the determining module determines that the IMEI is the same as the IMEI of the terminal device, send a first response message to the network side device, so that the network side device connects the terminal device to a network according to the first response message, wherein the first response message is a radio resource control, RRC, connection request message; wherein the IMEI corresponds to the terminal device in a one-to-one manner, wherein the first request message comprises a message in at least one of the following signaling flows: paging, access, service establishment, location area update, routing area update, attach, or detach.
Method of manufacturing a battery, in particular a button battery , comprising: - a case provided with a container and a cap , - a polymer gasket made of a polyolefin-based thermoplastic resin, this polymer gasket being compressed between the container and the cap and bonded to the case in order to seal the case and galvanically isolate the container from the cap; this method being characterised in that it successively includes: - a step of implanting, by tribochemical sand blasting on all or part of the surface of the polymer gasket intended to be joined to the case, alumina particles coated in silica in order to form, on this surface of the polymer gasket, a silicatised layer , - a step of adding a layer of adhesive to the surface of the polymer gasket and/or on all or part of the surface of the container and/or of the surface of the cap intended to be joined to the polymer gasket, and - a step of assembling the case with the polymer gasket positioned by compression between the container and the cap and bonded to the case by means of said layer of adhesive . - a case provided with a container and a cap , - a polymer gasket made of a polyolefin-based thermoplastic resin, this polymer gasket being compressed between the container and the cap and bonded to the case in order to seal the case and galvanically isolate the container from the cap; - a step of implanting, by tribochemical sand blasting on all or part of the surface of the polymer gasket intended to be joined to the case, alumina particles coated in silica in order to form, on this surface of the polymer gasket, a silicatised layer , - a step of adding a layer of adhesive to the surface of the polymer gasket and/or on all or part of the surface of the container and/or of the surface of the cap intended to be joined to the polymer gasket, and - a step of assembling the case with the polymer gasket positioned by compression between the container and the cap and bonded to the case by means of said layer of adhesive .
A method, performed by an audio signal decoding device (51; 451; 1351 ), for adjusting a dynamic range of an audio signal ( X ), the method comprising: receiving a bitstream ( P ) comprising an encoded audio signal ( Ỹ ) and encoder-generated dynamic range control, DRC, metadata, wherein the encoded audio signal comprises an encoded core signal and multichannel coding parameters ( α ), and wherein the encoder-generated DRC metadata comprises a plurality of DRC parameter sets, the plurality of DRC parameter sets comprising a first set of DRC parameters (DRC2) that quantify a clip prevention, and a second set of DRC parameters (DRC3) that quantify a decoder-side DRC to be applied; and decoding the encoded audio signal to obtain the audio signal, wherein decoding the encoded audio signal comprises generating an n-channel signal ( X ) from an m-channel core signal ( Y ) and the multichannel coding parameters ( α ), where 1 ≤ m < n, and wherein generating the n-channel signal comprises decoding the encoded core signal into the m-channel core signal, and performing parametric synthesis to reconstruct the n-channel signal based on the m-channel core signal and the multichannel coding parameters; wherein the dynamic range of the audio signal is adjusted by applying the first set of DRC parameters and a fraction of the second set of DRC parameters. receiving a bitstream ( P ) comprising an encoded audio signal ( Ỹ ) and encoder-generated dynamic range control, DRC, metadata, wherein the encoded audio signal comprises an encoded core signal and multichannel coding parameters ( α ), and wherein the encoder-generated DRC metadata comprises a plurality of DRC parameter sets, the plurality of DRC parameter sets comprising a first set of DRC parameters (DRC2) that quantify a clip prevention, and a second set of DRC parameters (DRC3) that quantify a decoder-side DRC to be applied; and decoding the encoded audio signal to obtain the audio signal, wherein decoding the encoded audio signal comprises generating an n-channel signal ( X ) from an m-channel core signal ( Y ) and the multichannel coding parameters ( α ), where 1 ≤ m < n, and wherein generating the n-channel signal comprises decoding the encoded core signal into the m-channel core signal, and performing parametric synthesis to reconstruct the n-channel signal based on the m-channel core signal and the multichannel coding parameters; wherein the dynamic range of the audio signal is adjusted by applying the first set of DRC parameters and a fraction of the second set of DRC parameters.
A method performed by a network node operable in a radio communication network for communication between the network node and a wireless device, the method comprising: - obtaining information associated with a channel quality of a channel between the network node and the wireless device, - estimating a respective one or more variables associated with the channel quality based on the obtained channel quality information, determining an Outer Loop Link Adaptation, OLLA, adjustment based on the obtained channel quality information, and based on the estimated respective one or more variables associated with the channel quality, and when the obtained channel quality information indicates that the channel performance is acceptable: determining an OLLA adjustment is also based on a Sequential Hypothesis Testing, SHT, of said estimated a respective one or more variables associated with the obtained channel quality information, and wherein the SHT of the obtained channel quality information is performed against a respective predefined interval for the respective one or more variables associated with the channel quality information, and wherein the respective predefined interval is defined by two end points, p 0 and p 1 , wherein the SHT evaluates two hypotheses, H0: variable associated with the obtained channel quality information≤ p 0 , and H1: variable associated with the obtained channel quality information≥ p 1 . - obtaining information associated with a channel quality of a channel between the network node and the wireless device, - estimating a respective one or more variables associated with the channel quality based on the obtained channel quality information, determining an Outer Loop Link Adaptation, OLLA, adjustment based on the obtained channel quality information, and based on the estimated respective one or more variables associated with the channel quality, and when the obtained channel quality information indicates that the channel performance is acceptable: determining an OLLA adjustment is also based on a Sequential Hypothesis Testing, SHT, of said estimated a respective one or more variables associated with the obtained channel quality information, and
Elevator system , comprising: a lifting platform for fastening to a plurality of fastening positions in an elevator shaft ; at least one guide rail for vertically guiding an elevator cabin in the elevator shaft , the guide rail being fastenable to a lateral wall of the elevator shaft by means of a rail clamp ; characterized in that the lifting platform has a protective roof which is designed to protect the lifting platform against falling objects; the protective roof having a rail opening through which the guide rail extends, a cross section of the rail clamp being arranged completely within the cross section of the rail opening ; the protective roof having a cover for covering the rail opening , which cover has a cover opening through which the guide rail extends. a lifting platform for fastening to a plurality of fastening positions in an elevator shaft ; at least one guide rail for vertically guiding an elevator cabin in the elevator shaft , the guide rail being fastenable to a lateral wall of the elevator shaft by means of a rail clamp ; characterized in that the lifting platform has a protective roof which is designed to protect the lifting platform against falling objects; the protective roof having a rail opening through which the guide rail extends, a cross section of the rail clamp being arranged completely within the cross section of the rail opening ; the protective roof having a cover for covering the rail opening , which cover has a cover opening through which the guide rail extends.
A media transport system for detecting metallic objects in media to be input into the media transport system, comprising: an input tray configured to hold media to be fed into the media transport system; one or more rollers configured to convey the media from the input tray and along a medium transport path, the one or more rollers driven by one or more motors; one or more induction sensors positioned proximate to the medium transport path, wherein the one or more induction sensors are configured to detect presence of metallic material and output a metallic detection signal; a processing unit in communication with the induction sensor , the processing unit configured to receive the metallic detection signal and further configured to analyze the signals and determine whether the media contains a metallic obj ect; at least one microphone located along the medium transport path, the at least one microphone configured to detect the sound of the medium being transported and produce a signal representing the sound; characterized in that the processing unit further configured to detect the presence of a medium jam in the media transport system based on the signal representing the sound, and wherein the processing unit is configured to disable the motors from reversing direction in response to a detected medium jam when the media contains a metallic object. an input tray configured to hold media to be fed into the media transport system; one or more rollers configured to convey the media from the input tray and along a medium transport path, the one or more rollers driven by one or more motors; one or more induction sensors positioned proximate to the medium transport path, wherein the one or more induction sensors are configured to detect presence of metallic material and output a metallic detection signal; a processing unit in communication with the induction sensor , the processing unit configured to receive the metallic detection signal and further configured to analyze the signals and determine whether the media contains a metallic obj ect; at least one microphone located along the medium transport path, the at least one microphone configured to detect the sound of the medium being transported and produce a signal representing the sound; characterized in that the processing unit further configured to detect the presence of a medium jam in the media transport system based on the signal representing the sound, and wherein the processing unit is configured to disable the motors from reversing direction in response to a detected medium jam when the media contains a metallic object.
A method for recognizing an image in an electronic device, the method comprising: obtaining by a processing unit a first image and a second image of a specific object which is focused and shot at different magnifications by a camera subsystem; characterized in that the method further comprising: extracting an object region and a background region from each obtained image; obtaining a first comparison characteristic between the object region and the background region of the first image, and a second comparison characteristic between the object region and the background region of the second image; comparing by the processing unit in conjunction with a camera module the first characteristic of the first image with the second characteristic of the second image; and determining by the processing unit whether the specific object is physically within the presence of the camera subsystem and is not a copy or photo of the specific object depending on the comparison result. extracting an object region and a background region from each obtained image; obtaining a first comparison characteristic between the object region and the background region of the first image, and a second comparison characteristic between the object region and the background region of the second image; comparing by the processing unit in conjunction with a camera module the first characteristic of the first image with the second characteristic of the second image; and determining by the processing unit whether the specific object is physically within the presence of the camera subsystem and is not a copy or photo of the specific object depending on the comparison result.
Planter , for planting seedlings, such as potatoes or other tuberous or bulbous plants, comprising: - a bunker for keeping seedlings to be planted; - a planting element for planting these seedlings; - one or more feed devices for feeding the seedlings from the bunker to the planting element ; - a feed opening allowing a quantity of seedlings to pass from the bunker towards the planting element ; - at least one feed sensor for recording at least one feed parameter of the feed of seedlings; and - an evaluation device , adjusted for generating a feed opening adjusting signal based on a data set of the recorded feed parameter , for adjusting the feed opening for adjusting the quantity of seedlings allowed to pass; characterized in that the planter comprises one or more delimiters , delimiting the feed opening and an actuator for adjusting the position of the one or more delimiters based on the feed opening adjusting signal , for adjusting the feed opening . - a bunker for keeping seedlings to be planted; - a planting element for planting these seedlings; - one or more feed devices for feeding the seedlings from the bunker to the planting element ; - a feed opening allowing a quantity of seedlings to pass from the bunker towards the planting element ; - at least one feed sensor for recording at least one feed parameter of the feed of seedlings; and - an evaluation device , adjusted for generating a feed opening adjusting signal based on a data set of the recorded feed parameter , for adjusting the feed opening for adjusting the quantity of seedlings allowed to pass;
System for reversibly attaching an element of an air-conditioning and ventilation assembly, wherein the system comprises a retaining element , and a securing element which can be reversibly attached to it, wherein the element can be further attached by means of at least one securing element which can be guided through an opening in the element which is to be secured, wherein the securing element comprises at one end an outer thread , with the formation of a thread configured as a spiral, and, at the other end, comprises a head region which at least partially covers the opening of the element , and wherein a counter element with an inner thread is assigned to the retaining element , which interacts with the outer thread of the securing element , and wherein, in the installed state, the end of the securing element provided with the outer thread is configured such as to interact with the inner thread of the counter element , the counter element comprises at least two part regions , arranged at a distance interval from one another and projecting in the form of a web, forming the inner thread, wherein each part region comprises s contact region , preferably on the end side, which in the installed state interacts with the securing element , and wherein at least the contact region of at least one part region can be displaced outwards against a spring force, such that the securing element , seen in the introduction direction , can be pressed into the inner thread without a tool, and can be rotated outwards, against the introduction direction by means of a tool, characterised in that the counter element comprises, on its side opposite the part regions and seen in the introduction direction , an introduction region which converges in the form of a funnel. 33
A composition consisting essentially of: a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.05 ≤ V ≤ 300 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising PPG-3 myristyl ether, provided that said fragrance modulator comprises less than 50% by weight of isocetyl alcohol and less than 50% by weight of Neopentyl Glycol Diethylhexanoate; and d) optionally water; and wherein the sum of the weights of ingredients a) to d) in the composition adds up to at least 98% of the composition's weight. a) a fragrance component, in an amount of between 3 and 40% by weight of the composition's weight, at least 40% by weight of the total weight of said fragrance component being formed of perfuming ingredients having a calculated vapor pressure V comprised in the range 0.05 ≤ V ≤ 300 Pa; b) from 40 to 90% by weight, relative to the total weight of the composition, of ethanol; c) from 0.01 to 20% by weight, relative to the total weight of the composition, of a fragrance modulator comprising PPG-3 myristyl ether, provided that said fragrance modulator comprises less than 50% by weight of isocetyl alcohol and less than 50% by weight of Neopentyl Glycol Diethylhexanoate; and d) optionally water;
Method for localization microscopic examination of a sample stained with multiple dyes comprising: - a first acquisition of image data of the sample or a partial area of the sample, - a determining and selecting a sample region of interest based on the image data, - an exciting of fluorophores in a first subregion within the selected sample region of interest with excitation light of a first excitation wavelength, and a first detecting of the fluorescence photons emitted by the excited fluorophores in a first wavelength region with a first detection unit , wherein a localizing or a tracking of isolated fluorophores is performed in the sample region of interest according to a MINFLUX method or a STED-MINFLUX method, - a second detecting of the fluorescence photons emitted by fluorophores excited with excitation light of the first excitation wavelength in a second wavelength range different from the first wavelength range with a detection unit or the detection unit , characterized in that the first detection unit is configured such that the wavelength range in which it detects fluorescence photons is adjustable, and in that the method further comprises: - a determining of wavelength ranges for an optimized ratiometric separation of the multiple dyes in a localization microscopic image acquisition of the sample in multiple spectral detection channels, wherein the detecting of the fluorescence photons is performed respectively in the wavelength ranges determined for optimized ratiometric separation of the plurality of dyes, wherein, in the ratiometric separation, a fluorophore is assigned to one of the plurality of dyes by determining a ratio of the numbers of fluorescence photons detected in the wavelength ranges. - a first acquisition of image data of the sample or a partial area of the sample, - a determining and selecting a sample region of interest based on the image data, - an exciting of fluorophores in a first subregion within the selected sample region of interest with excitation light of a first excitation wavelength, and a first detecting of the fluorescence photons emitted by the excited fluorophores in a first wavelength region with a first detection unit , wherein a localizing or a tracking of isolated fluorophores is performed in the sample region of interest according to a MINFLUX method or a STED-MINFLUX method, - a second detecting of the fluorescence photons emitted by fluorophores excited with excitation light of the first excitation wavelength in a second wavelength range different from the first wavelength range with a detection unit or the detection unit , - a determining of wavelength ranges for an optimized ratiometric separation of the multiple dyes in a localization microscopic image acquisition of the sample in multiple spectral detection channels, wherein the detecting of the fluorescence photons is performed respectively in the wavelength ranges determined for optimized ratiometric separation of the plurality of dyes, wherein, in the ratiometric separation, a fluorophore is assigned to one of the plurality of dyes by determining a ratio of the numbers of fluorescence photons detected in the wavelength ranges.
A method performed by a wireless device for compactly configuring a Tracking Reference Signal, TRS, Information Element, IE, the method comprising: receiving a compact TRS IE from higher layer signaling of a network, wherein the compact TRS IE is received without a Channel State Information Reference Signal, CSI-RS, configuration, and wherein the compact TRS IE is received when the wireless device is in one of an idle mode or an inactive mode; and configuring at least one TRS in accordance with the compact TRS IE, wherein configuring the at least one TRS in accordance with the compact TRS IE comprises configuring a frequency location of TRS occasions within an initial bandwidth part, BWP, of the idle mode or the inactive mode. receiving a compact TRS IE from higher layer signaling of a network, wherein the compact TRS IE is received without a Channel State Information Reference Signal, CSI-RS, configuration, and wherein the compact TRS IE is received when the wireless device is in one of an idle mode or an inactive mode; and configuring at least one TRS in accordance with the compact TRS IE, wherein configuring the at least one TRS in accordance with the compact TRS IE comprises configuring a frequency location of TRS occasions within an initial bandwidth part, BWP, of the idle mode or the inactive mode.