mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a change in a radio capability of a terminal apparatus, wherein the method comprises: sending, by a terminal apparatus, first indication information to an access network apparatus or a core network apparatus, wherein the first indication information is used to indicate that a radio capability of the terminal apparatus changes; receiving, by the terminal apparatus, radio capability request information sent by the access network apparatus, wherein the radio capability request information is used to request, from the terminal apparatus, a changed part of the radio capability of the terminal apparatus; and sending, by the terminal apparatus, radio capability change information to the access network apparatus, wherein the radio capability change information comprises the changed part of the radio capability of the terminal apparatus; characterized in that before sending the first indication information to the access network apparatus or the core network apparatus, the terminal apparatus receives radio capability identifier indication information sent by the access network apparatus, wherein the radio capability identifier indication information is used to indicate that the access network apparatus supports a radio capability identifier. sending, by a terminal apparatus, first indication information to an access network apparatus or a core network apparatus, wherein the first indication information is used to indicate that a radio capability of the terminal apparatus changes; receiving, by the terminal apparatus, radio capability request information sent by the access network apparatus, wherein the radio capability request information is used to request, from the terminal apparatus, a changed part of the radio capability of the terminal apparatus; and sending, by the terminal apparatus, radio capability change information to the access network apparatus, wherein the radio capability change information comprises the changed part of the radio capability of the terminal apparatus; characterized in that before sending the first indication information to the access network apparatus or the core network apparatus, the terminal apparatus receives radio capability identifier indication information sent by the access network apparatus, wherein the radio capability identifier indication information is used to indicate that the access network apparatus supports a radio capability identifier.
A computer-implemented method comprising: allocating memory (225; 415) for a virtual environment (361;362;363) to run in an address space (120;330) of an application, (130;340) wherein the virtual environment is configured for execution of commands related to an extension functionality of the application; initializing a virtual processor for an execution of a first command of the commands at the virtual environment, the virtual processor operable to manage one or more guest operating systems OS (370;375;380) loading a first guest OS (235; 420) of the one or more guest OS, the first guest OS being loaded at the allocated memory and copying application logic of the extension functionality into the allocated memory; and starting (240; 425) the virtual environment to execute the first guest OS and the application logic of the extension functionality in relation to associated data of the application in the allocated memory, wherein the associated data is transferred from a memory of the application to the allocated memory for the virtual environment, and wherein the virtual processor of the virtual environment does not read memory that is outside of the allocated memory for the virtual environment. allocating memory (225; 415) for a virtual environment (361;362;363) to run in an address space (120;330) of an application, (130;340) wherein the virtual environment is configured for execution of commands related to an extension functionality of the application; initializing a virtual processor for an execution of a first command of the commands at the virtual environment, the virtual processor operable to manage one or more guest operating systems OS (370;375;380) loading a first guest OS (235; 420) of the one or more guest OS, the first guest OS being loaded at the allocated memory and copying application logic of the extension functionality into the allocated memory; and starting (240; 425) the virtual environment to execute the first guest OS and the application logic of the extension functionality in relation to associated data of the application in the allocated memory, wherein the associated data is transferred from a memory of the application to the allocated memory for the virtual environment, and wherein the virtual processor of the virtual environment does not read memory that is outside of the allocated memory for the virtual environment.
Method of protecting relays or electronic switches from overheating or damage by creeping short circuit currents, wherein the following steps carried out in a loop - measurement of the creeping short circuit current at a measurement time , - determination of a load time period for which the relay or switch could continue to be loaded with the measured creeping short circuit current from the time of measurement without being damaged or destroyed, not taking into account a loading of the relay or switch before entering the loop, - determination of a characteristic value , by forming the ratio of a measurement interval duration and the load time period, - formation of the sum of the characteristic value and a sum determined during a previous run of the loop , - comparison of the sum with a load limit value , - generation of a signal that indicates that a load limit value has been reached if the sum reaches or exceeds the load limit value , - return to the beginning of the loop if the sum has not reached or falls below the load limit value . - measurement of the creeping short circuit current at a measurement time , - determination of a load time period for which the relay or switch could continue to be loaded with the measured creeping short circuit current from the time of measurement without being damaged or destroyed, not taking into account a loading of the relay or switch before entering the loop, - determination of a characteristic value , by forming the ratio of a measurement interval duration and the load time period, - formation of the sum of the characteristic value and a sum determined during a previous run of the loop , - comparison of the sum with a load limit value , - generation of a signal that indicates that a load limit value has been reached if the sum reaches or exceeds the load limit value , - return to the beginning of the loop if the sum has not reached or falls below the load limit value .
A data transfer method comprising: processing device gesture data at a providing device in response to a gesture made by movement or orientation of a requesting device while proximately located to the providing device , wherein the device gesture data indicates the movement or orientation of the requesting device and the device gesture data is transmitted through a near field communication, NFC, link from the requesting device to the providing device ; identifying at the providing device which of a first and second device gestures has been performed by the requesting device from the device gesture data; selecting at the providing device one of first and second data in response to identifying a respective one of the first and second device gestures; and initiating transfer of the selected one of first and second data from the providing device to the requesting device , wherein the providing device comprises an NFC tag and transferring of the selected one of first and second data is performed from the NFC tag; wherein the providing device is a short-range radio frequency, RF, wireless communication device that is not configured to execute the first and second data. processing device gesture data at a providing device in response to a gesture made by movement or orientation of a requesting device while proximately located to the providing device , wherein the device gesture data indicates the movement or orientation of the requesting device and the device gesture data is transmitted through a near field communication, NFC, link from the requesting device to the providing device ; identifying at the providing device which of a first and second device gestures has been performed by the requesting device from the device gesture data; selecting at the providing device one of first and second data in response to identifying a respective one of the first and second device gestures; and initiating transfer of the selected one of first and second data from the providing device to the requesting device , wherein the providing device comprises an NFC tag and transferring of the selected one of first and second data is performed from the NFC tag; wherein the providing device is a short-range radio frequency, RF, wireless communication device that is not configured to execute the first and second data.
Enclosure assembly , in particular for an enclosure of a metering apparatus , comprising a first enclosure portion and a second enclosure portion which are configured to be assembled by being moved towards each other along an assembly direction (A), and in a fully assembled state (F) of the enclosure assembly enclose at least a part of an inner space for accommodating a metering device ; and a fixation arrangement for affixing the first enclosure portion to the second enclosure portion in the fully assembled state (F), wherein the fixation arrangement in a fixation position (S) prevents the first enclosure portion and the second enclosure portion from being separated from each other; wherein the fixation arrangement comprises at least one latching element arranged at the first enclosure portion and at least one counter latching element arranged at the second enclosure portion ; wherein a latching nose is arranged at a free end of the at least one latching element and protrudes from the at least one latching element in a latching direction (B) running perpendicularly to the assembly direction (A); and wherein in the fixation position (S), the at least one latching element is in engagement with the at least one counter latching element , and a blocking element prevents a disengagement of the at least one latching element and the at least one counter latching element , characterised in that in a deflected position of the at least one latching element , the latching nose abuts the at least one counter latching element in the latching direction (B), and the blocking element abuts the at least one latching element in a deflection direction (C) running perpendicularly to the latching direction (B).
Aerator comprising an aeration element for introducing a gas into a liquid, wherein the aeration element has a main body having at least one upwardly-projecting side wall , and comprising a mounting device for mounting the aeration element , in particular in a clarifying basin, wherein the mounting device has a mounting element for connecting to the side wall of the main body of the aeration element , wherein the mounting element has at least one elastically deflectable retaining projection for detachably connecting to the at least one side wall of the main body of the aeration element , wherein the retaining projection is connected at the free end thereof to a grip element for deflecting the retaining projection , and wherein the upwardly-projecting side wall extends in the longitudinal direction of the aeration element and is substantially vertical in the operating position.
A process for manufacturing a complex motor vehicle glazing comprising a glass pane, an elastomer seal, and a metal insert overmolded by the elastomer seal, comprising - inserting an edge of a glass pane and a metal insert into an encapsulation mold forming a leaktight cavity around the edge of the glass pane, - filling the leaktight cavity containing the edge of the glass pane and the metal insert, by injecting an encapsulation composition comprising a polypropylene (PP)/thermoplastic elastomer (TPE) compound in the molten state, - cooling the encapsulation composition so as to form an elastomer seal wherein the metal insert is integrated, - releasing the elastomer seal, wherein the metal insert is integrated, from the mold, the process being characterized in that said PP/TPE compound comprises from 30% to 80% by weight, preferably from 40% to 75% by weight and in particular from 45% to 70% by weight of polypropylene (PP), and in that the metal insert is covered over its entire surface liable to come into contact with the encapsulation composition, with a polypropylene coating. - inserting an edge of a glass pane and a metal insert into an encapsulation mold forming a leaktight cavity around the edge of the glass pane, - filling the leaktight cavity containing the edge of the glass pane and the metal insert, by injecting an encapsulation composition comprising a polypropylene (PP)/thermoplastic elastomer (TPE) compound in the molten state, - cooling the encapsulation composition so as to form an elastomer seal wherein the metal insert is integrated, - releasing the elastomer seal, wherein the metal insert is integrated, from the mold,
A method for the selective extraction of rare earth elements (REEs) from base metals in a pregnant liquor solution, comprising the steps of: leaching a rare earth ore concentrate with HCl to form a pregnant liquor solution comprising at least chloride ions, solubilized rare earth elements and solubilized base metals, and comprising at least about 20 g/l iron; contacting the pregnant liquor solution with oxalic acid, where the pregnant liquor solution has a strength of at least 0.5M HCl; maintaining the pregnant liquor solution and the oxalic acid in contact at a first temperature to precipitate, from the pregnant liquor solution, a metal oxalate product comprising REE-oxalate particulates and form a REE-depleted solution; and separating the metal oxalate product from the REE-depleted solution, wherein the contacting step is conducted at the first temperature for a sufficient time such that at least about 97% of the total metallic elements in the metal oxalate product are rare earth elements. leaching a rare earth ore concentrate with HCl to form a pregnant liquor solution comprising at least chloride ions, solubilized rare earth elements and solubilized base metals, and comprising at least about 20 g/l iron; contacting the pregnant liquor solution with oxalic acid, where the pregnant liquor solution has a strength of at least 0.5M HCl; maintaining the pregnant liquor solution and the oxalic acid in contact at a first temperature to precipitate, from the pregnant liquor solution, a metal oxalate product comprising REE-oxalate particulates and form a REE-depleted solution; and separating the metal oxalate product from the REE-depleted solution, wherein the contacting step is conducted at the first temperature for a sufficient time such that at least about 97% of the total metallic elements in the metal oxalate product are rare earth elements.
A method of managing notes, comprising: providing a plurality of notes from a first source and a second source, the first source and the second source being produced from different devices, the first source being a first visual representation of a scene having a plurality of physical notes each having a general boundary and content thereon, and the second source being a second visual representation of the scene; receiving, by a processing unit , image data associated with the first and second visual representations; recognizing, by the processing unit, one or more marks on one of the plurality of notes from the second visual representation; determining, by the processing unit, the position of the one or more marks; processing, by the processing unit and based on the one or more marks, the image data to determine a general boundary of the one of the plurality of physical notes from the first visual representation for recognizing, by the processing unit, at least one of the plurality of physical notes from the first source; creating, by the processing unit, a digital note representative of the one of the plurality of physical notes; extracting, by the processing unit, content of the one of the plurality of physical notes based on the determined general boundary of the one of the plurality of physical notes; and labeling the digital note representing the one of the plurality of physical notes with a category. providing a plurality of notes from a first source and a second source, the first source and the second source being produced from different devices, the first source being a first visual representation of a scene having a plurality of physical notes each having a general boundary and content thereon, and the second source being a second visual representation of the scene; receiving, by a processing unit , image data associated with the first and second visual representations; recognizing, by the processing unit, one or more marks on one of the plurality of notes from the second visual representation; determining, by the processing unit, the position of the one or more marks; processing, by the processing unit and based on the one or more marks, the image data to determine a general boundary of the one of the plurality of physical notes from the first visual representation for recognizing, by the processing unit, at least one of the plurality of physical notes from the first source; creating, by the processing unit, a digital note representative of the one of the plurality of physical notes; extracting, by the processing unit, content of the one of the plurality of physical notes based on the determined general boundary of the one of the plurality of physical notes; and labeling the digital note representing the one of the plurality of physical notes with a category.
A method of printing a multi-structured three-dimensional object comprising: forming a layer of sinterable material ; processing a first portion of the sinterable material using a first set of processing parameters ; processing a second portion of the sinterable material using a second set of processing parameters ; wherein the processed first and second portions form, respectively, parts of a first and second structure of a multi-structured 3D object, and wherein the first and second sets of processing parameters are such that the first and second structures are formed with different levels of fusing of the sinterable material ; characterised in that : using a first set of processing parameters comprises applying to the first portion of sinterable material , a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material , a fusing agent having a second ink density. processing a first portion of the sinterable material using a first set of processing parameters ; processing a second portion of the sinterable material using a second set of processing parameters ; wherein the processed first and second portions form, respectively, parts of a first and second structure of a multi-structured 3D object, and wherein the first and second sets of processing parameters are such that the first and second structures are formed with different levels of fusing of the sinterable material ; characterised in that : using a first set of processing parameters comprises applying to the first portion of sinterable material , a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material , a fusing agent having a second ink density. using a first set of processing parameters comprises applying to the first portion of sinterable material , a fusing agent having a first ink density; and using a second set of processing parameters comprises applying to the second portion of sinterable material , a fusing agent having a second ink density.
A method for virtual port mapping of a massive MIMO unit , wherein the method comprises: mapping (S1) at least one transceiver unit in the massive MIMO unit to a virtual port through hybrid beamforming; performing (S2) digital precoding based on the virtual port, wherein the method further comprises: determining (S4) one or more virtual port modes for the massive MIMO unit according to user distribution of the cell served by the massive MIMO unit , wherein the virtual port modes comprise the number of virtual ports corresponding to the massive MIMO unit , the number of transceiver units in each virtual port, and position information of the transceiver units among antenna arrays; Wherein the step of mapping (S1) to a virtual port comprises: mapping, based on the virtual port mode, at least one transceiver unit in the massive MIMO unit to a virtual port corresponding to the transceiver unit in the virtual port mode through hybrid beamforming. wherein the method comprises: mapping (S1) at least one transceiver unit in the massive MIMO unit to a virtual port through hybrid beamforming; performing (S2) digital precoding based on the virtual port, wherein the method further comprises: determining (S4) one or more virtual port modes for the massive MIMO unit according to user distribution of the cell served by the massive MIMO unit , wherein the virtual port modes comprise the number of virtual ports corresponding to the massive MIMO unit , the number of transceiver units in each virtual port, and position information of the transceiver units among antenna arrays; Wherein the step of mapping (S1) to a virtual port comprises: mapping, based on the virtual port mode, at least one transceiver unit in the massive MIMO unit to a virtual port corresponding to the transceiver unit in the virtual port mode through hybrid beamforming.
Process for preparing polyols containing oxyalkylene units, comprising the following steps: (a) adding an alkylene oxide compound onto a starter compound having at least one Zerewitinoff-active hydrogen atom in the presence of a basic catalyst to obtain an alkaline crude polyol, (b) subsequently neutralizing the alkaline crude polyol by contacting an acid with the alkaline crude polyol over a period of time t1, (c) optionally removing water, (d) removing the neutralization salts formed, characterized in that in step (b) a defined period of time t1 ≥ 5 min (contacting time) is observed for the contacting of the alkaline crude polyol with the amount of acid needed for the neutralization, contacting being understood to mean the increasing of the ratio between acid and alkaline crude polyol during the combining of the two components until the target ratio of acid/crude polyol has been attained. (a) adding an alkylene oxide compound onto a starter compound having at least one Zerewitinoff-active hydrogen atom in the presence of a basic catalyst to obtain an alkaline crude polyol, (b) subsequently neutralizing the alkaline crude polyol by contacting an acid with the alkaline crude polyol over a period of time t1, (c) optionally removing water, (d) removing the neutralization salts formed,