mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a set of multiple serially acquired magnetic resonance spectroscopy (MRS) free induction decay (FID) frames from a multi-frame MRS acquisition series from a region of interest (ROI) in a subject, and for providing a post-processed MRS spectrum, comprising: dynamically varying a parameter of a processing step between multiple parameter values affecting a corresponding change between multiple feature values of a feature of a processed result of performing the step on the set; performing the step on the set at each of the multiple parameter values and providing multiple processed results, respectively, comprising multiple respective feature values, respectively; comparing the feature values of the processed results; determining a chosen feature value among the multiple feature values based upon the comparison and corresponding to a chosen parameter value; and setting the parameter to the chosen parameter value for performing the processing step to provide the post-processed MRS spectrum; wherein the feature comprises signal:noise ratio (SNR) of a spectral peak region of the post-processed MRS spectrum or a line width of a spectral peak region of the post-processed MRS spectrum; and wherein the parameter comprises one or more of a full width half maximum (FWHM) value, a confidence value, a frequency error, and a threshold number of qualifying frames for frame editing. dynamically varying a parameter of a processing step between multiple parameter values affecting a corresponding change between multiple feature values of a feature of a processed result of performing the step on the set; performing the step on the set at each of the multiple parameter values and providing multiple processed results, respectively, comprising multiple respective feature values, respectively; comparing the feature values of the processed results; determining a chosen feature value among the multiple feature values based upon the comparison and corresponding to a chosen parameter value; and setting the parameter to the chosen parameter value for performing the processing step to provide the post-processed MRS spectrum; wherein the feature comprises signal:noise ratio (SNR) of a spectral peak region of the post-processed MRS spectrum or a line width of a spectral peak region of the post-processed MRS spectrum; and wherein the parameter comprises one or more of a full width half maximum (FWHM) value, a confidence value, a frequency error, and a threshold number of qualifying frames for frame editing.
A method performed by a user equipment, UE, for receiving paging messages in wireless communications, comprising: receiving one or more parameters for descrambling non-cell specific paging messages; receiving, from one or multiple base stations of a same multicast group, a non-cell specific paging message which is configured as a scrambled message; descrambling the non-cell specific paging message based at least in part on the one or more parameters; and the method being characterized by : determining to refrain from responding to the descrambled non-cell specific paging message based at least in part on one or more service information parameters in the descrambled non-cell specific paging message, wherein the one or more service information parameters comprise at least one of a flow identifier, a slice identifier, a dedicated radio bearer identifier, an evolved packet system identifier, an application identifier, or an application type. receiving one or more parameters for descrambling non-cell specific paging messages; receiving, from one or multiple base stations of a same multicast group, a non-cell specific paging message which is configured as a scrambled message; descrambling the non-cell specific paging message based at least in part on the one or more parameters; and the method being characterized by : determining to refrain from responding to the descrambled non-cell specific paging message based at least in part on one or more service information parameters in the descrambled non-cell specific paging message, wherein the one or more service information parameters comprise at least one of a flow identifier, a slice identifier, a dedicated radio bearer identifier, an evolved packet system identifier, an application identifier, or an application type. determining to refrain from responding to the descrambled non-cell specific paging message based at least in part on one or more service information parameters in the descrambled non-cell specific paging message, wherein the one or more service information parameters comprise at least one of a flow identifier, a slice identifier, a dedicated radio bearer identifier, an evolved packet system identifier, an application identifier, or an application type.
A gas turbine engine comprising: a compressor section ; a turbine section operably coupled to the compressor section ; a means (1200; 1202) for selectively releasing a cooling fluid flow produced at a cryogenic temperature; and a plumbing system in fluid communication with the means for selectively releasing the cooling fluid flow , the plumbing system configured to route the cooling fluid flow to the compressor section , and characterized in that the plumbing system is also configured to route the cooling fluid flow to the turbine section . a compressor section ; a turbine section operably coupled to the compressor section ; a means (1200; 1202) for selectively releasing a cooling fluid flow produced at a cryogenic temperature; and a plumbing system in fluid communication with the means for selectively releasing the cooling fluid flow , the plumbing system configured to route the cooling fluid flow to the compressor section , and characterized in that the plumbing system is also configured to route the cooling fluid flow to the turbine section .
A coupling device comprising: a first antenna that radiates a first radio frequency (RF) signal conveying data; and a second antenna that radiates a second RF signal conveying the data; wherein the first antenna and the second antenna are configured such that the first RF signal and second RF signal form a combined RF signal that is guided by an outer surface of a transmission medium to propagate as a guided electromagnetic wave in a single longitudinal direction along the transmission medium , wherein the combined RF signal has a cardioid radiation pattern that includes a lobe in the single longitudinal direction along the transmission medium and a null in a direction opposite to the single longitudinal direction along the transmission medium , and wherein the first RF signal and the second RF signal have a common wavelength λ and a phase difference Δφ and wherein the first antenna and second antenna are spaced a distance d apart and wherein d + λ Δφ/2π = λ/2. a first antenna that radiates a first radio frequency (RF) signal conveying data; and a second antenna that radiates a second RF signal conveying the data; wherein the first antenna and the second antenna are configured such that the first RF signal and second RF signal form a combined RF signal that is guided by an outer surface of a transmission medium to propagate as a guided electromagnetic wave in a single longitudinal direction along the transmission medium , wherein the combined RF signal has a cardioid radiation pattern that includes a lobe in the single longitudinal direction along the transmission medium and a null in a direction opposite to the single longitudinal direction along the transmission medium , and wherein the first RF signal and the second RF signal have a common wavelength λ and a phase difference Δφ and wherein the first antenna and second antenna are spaced a distance d apart and wherein d + λ Δφ/2π = λ/2.
A polymer electrolyte having a multi-layer structure for all solid-state batteries, which comprises: a first polymer electrolyte layer comprising an aliphatic dinitrile compound represented by the following Formula 1, a lithium salt and a lithium ion conductive polymer; and a second polymer electrolyte layer comprising an ionic liquid, a lithium salt and a lithium ion conductive polymer: [Formula 1] N≡C-R-C≡N wherein R is (CH 2 ) n and n is an integer of 1 to 6. a first polymer electrolyte layer comprising an aliphatic dinitrile compound represented by the following Formula 1, a lithium salt and a lithium ion conductive polymer; and a second polymer electrolyte layer comprising an ionic liquid, a lithium salt and a lithium ion conductive polymer: [Formula 1] N≡C-R-C≡N wherein R is (CH 2 ) n and n is an integer of 1 to 6.
A method comprising: receiving, at control hardware of a packet data network gateway employed by a first network , data packets from an external network in communication with the control hardware ; establishing, by the control hardware , a first data bearer when a user device connects to the first network employing a first serving gateway in communication with the control hardware , the control hardware routing the first data bearer to the first serving gateway; establishing, by the control hardware , a second data bearer when the user device connects to a second network employing a second serving gateway in communication with the control hardware , the control hardware routing the second data bearer to the second serving gateway and the user device configured for dual connectivity with the first network via a first communication node that maps to the first serving gateway and the second network via a second communication node that maps to the second serving gateway ; and routing the data packets through at least one of the first network along the first data bearer or the second network along the second data bearer to the user device to simultaneously balance network traffic load, wherein the network traffic comprises the data packets, across both the first network and the second network . receiving, at control hardware of a packet data network gateway employed by a first network , data packets from an external network in communication with the control hardware ; establishing, by the control hardware , a first data bearer when a user device connects to the first network employing a first serving gateway in communication with the control hardware , the control hardware routing the first data bearer to the first serving gateway; establishing, by the control hardware , a second data bearer when the user device connects to a second network employing a second serving gateway in communication with the control hardware , the control hardware routing the second data bearer to the second serving gateway and the user device configured for dual connectivity with the first network via a first communication node that maps to the first serving gateway and the second network via a second communication node that maps to the second serving gateway ; and routing the data packets through at least one of the first network along the first data bearer or the second network along the second data bearer to the user device to simultaneously balance network traffic load, wherein the network traffic comprises the data packets, across both the first network and the second network .
Grill grate covering for preparing pizza, having a cover plate arranged with parallel spacing on the upper side of the grill grate, as well as side walls protruding towards the grill grate on one side, in three edge areas of the cover plate, as well as a protruding back wall, wherein the cover plate consists of two cover plate elements that can be moved relative to each other, characterised in that the cover plate elements have an elongated holder for a panel-shaped intermediate plate on their respective side edges that face the back wall and the opposite front side of the grill grate covering, which is moveably arranged in the holders of the cover plate elements , so that the width of the grill grate covering is variable.
An inter-cell beam coordination scheduling method, comprising: receiving, by a first wireless access device serving a coordinated cell, a coordination scheduling request, wherein the coordination scheduling request carries an indication of a downlink narrow-transmission beam set D X1 and a terminal identifier, a user terminal indicated by the terminal identifier is an edge user terminal of a serving cell, and the downlink narrow-transmission beam set D X1 is a downlink narrow-transmission beam set that satisfies a principle of minimal interference and that is determined by the edge user terminal through beam training; and in a slot in which downlink scheduling is performed on the edge user terminal in the serving cell of the edge user terminal, using, by the first wireless access device, a narrow-transmission beam in the downlink narrow-transmission beam set D X1 to schedule a camping user terminal of the coordinated cell in downlink, wherein the downlink narrow-transmission beam set D X1 is determined by the edge user terminal through beam training performed on a downlink narrow-reception beam set D U1 by the first wireless access device; and the downlink narrow-reception beam set D U1 is a downlink narrow-reception beam set that satisfies a principle of strongest reception and that is determined by the edge user terminal through beam training performed by a second wireless access device, and the second wireless access device is a wireless access device that serves the serving cell of the edge user terminal.
A method performed by a wireless device configured for use in a wireless communication network, the method comprising: transmitting , in an uplink message, a request for a preconfigured uplink resource configuration, wherein a preconfigured uplink resource is a resource on which a wireless device may transmit without having received a dynamic and/or explicit scheduling grant from a radio network node; receiving , during a connected mode in which the wireless device has a connection with the wireless communication network, control signaling indicating a first preconfigured resource configuration that configures a first preconfigured resource; characterized in that the first preconfigured resource is a non-recurring preconfigured resource dedicated to the wireless device; in conjunction with transmitting user data using the first preconfigured resource requesting a second preconfigured resource configuration; and receiving control signaling indicating a second preconfigured resource configuration that configures a second preconfigured resource, wherein the second preconfigured resource is a non-recurring preconfigured resource dedicated to the wireless device. transmitting , in an uplink message, a request for a preconfigured uplink resource configuration, wherein a preconfigured uplink resource is a resource on which a wireless device may transmit without having received a dynamic and/or explicit scheduling grant from a radio network node; receiving , during a connected mode in which the wireless device has a connection with the wireless communication network, control signaling indicating a first preconfigured resource configuration that configures a first preconfigured resource; characterized in that the first preconfigured resource is a non-recurring preconfigured resource dedicated to the wireless device; in conjunction with transmitting user data using the first preconfigured resource requesting a second preconfigured resource configuration; and receiving control signaling indicating a second preconfigured resource configuration that configures a second preconfigured resource, wherein the second preconfigured resource is a non-recurring preconfigured resource dedicated to the wireless device.
A conference management device configured to communicate with a plurality of wireless terminals (401-1-401-3) via a plurality of networks and access points corresponding to the plurality of respective networks, the conference management device comprising: reception means to receive , from the plurality of respective wireless terminals (401-1-401-3), wireless terminal names, user names, and electric field intensity information and band information of the access points to which the plurality of respective wireless terminals (401-1-401-3) belong; and transmission means to transmit , to one or more wireless terminals (401-1-401-3) corresponding to a predetermined user name, a pair of wireless terminal names corresponding to the predetermined user name, and electric field intensity information and band information of access points to which respective wireless terminals (401-1-401-3) belong, from among the wireless terminal names and the electric field intensity information and the band information of the access points to which the plurality of respective wireless terminals (401-1-401-3) belong, which have been received from the plurality of wireless terminals (401-1-401-3), and wherein: the reception means are configured to receive a wireless terminal name selected by a user from the pair of wireless terminal names, to be used for participating in a conference, and the transmission means are configured to transmit a request for urging the wireless terminal (401-1-401-3) selected by the user to participate in the conference. reception means to receive , from the plurality of respective wireless terminals (401-1-401-3), wireless terminal names, user names, and electric field intensity information and band information of the access points to which the plurality of respective wireless terminals (401-1-401-3) belong; and transmission means to transmit , to one or more wireless terminals (401-1-401-3) corresponding to a predetermined user name, a pair of wireless terminal names corresponding to the predetermined user name, and electric field intensity information and band information of access points to which respective wireless terminals (401-1-401-3) belong, from among the wireless terminal names and the electric field intensity information and the band information of the access points to which the plurality of respective wireless terminals (401-1-401-3) belong, which have been received from the plurality of wireless terminals (401-1-401-3), and wherein: the reception means are configured to receive a wireless terminal name selected by a user from the pair of wireless terminal names, to be used for participating in a conference, and the transmission means are configured to transmit a request for urging the wireless terminal (401-1-401-3) selected by the user to participate in the conference. the reception means are configured to receive a wireless terminal name selected by a user from the pair of wireless terminal names, to be used for participating in a conference, and the transmission means are configured to transmit a request for urging the wireless terminal (401-1-401-3) selected by the user to participate in the conference.
An integrated heating airspeed tube, comprising a tube body and a heating component , wherein the tube body is provided with a heating cavity , the heating component is located inside the heating cavity , and the heating component and the tube body are integrally formed, wherein the heating component comprises a heating tube and a heating wire , the heating tube is located in the heating cavity and is integrally formed with the tube body , and the heating wire is inserted into the heating cavity and is electrically connected with the heating tube , and wherein the tube body is further provided with a static pressure air inlet channel and a dynamic pressure air inlet channel that are not communicated with the heating cavity , a dynamic pressure air inlet hole is provided at the end of the tube body , the dynamic pressure air inlet hole is communicated with the dynamic pressure air inlet channel , at least one static pressure air inlet hole is provided on the outer peripheral surface of the tube body , and the static pressure air inlet hole is communicated with the static pressure air inlet channel . wherein the heating component comprises a heating tube and a heating wire , the heating tube is located in the heating cavity and is integrally formed with the tube body , and the heating wire is inserted into the heating cavity and is electrically connected with the heating tube , and wherein the tube body is further provided with a static pressure air inlet channel and a dynamic pressure air inlet channel that are not communicated with the heating cavity , a dynamic pressure air inlet hole is provided at the end of the tube body , the dynamic pressure air inlet hole is communicated with the dynamic pressure air inlet channel , at least one static pressure air inlet hole is provided on the outer peripheral surface of the tube body , and the static pressure air inlet hole is communicated with the static pressure air inlet channel .
Method for immersive man-machine interaction (NI) with a virtual mechanical operating means of an industrial automation arrangement in a virtual reality (IU), wherein, through the interaction with the operating means, input information is transmitted to a component (V-PLC) of the industrial automation arrangement, characterized in that , in a first step, the mechanical operating means is modelled in a simulation apparatus (STM) for a rigid-body simulation, in that , in a second step, the mechanical operating means is replicated in the virtual reality (IU), in that , in a third step, an interaction with the represented operating means is detected by the virtual reality (IU), wherein, from first parameters of the detected virtual interaction, second parameters (F) relating to a simulated physical effect on the operating means are calculated, in that , in a fourth step, the second parameters are transmitted to the simulation apparatus (STM), in that , in a fifth step, the second parameters (F) are used by the simulation apparatus (STM) by means of the modelled operating means for simulating a movement (X) of at least a part of the operating means, wherein it is decided whether a switching state change of the operating means is produced by the simulated movement (X), and in that , in a sixth step, the switching state or the switching state change is reported as the input information to the component (V-PLC). wherein, through the interaction with the operating means, input information is transmitted to a component (V-PLC) of the industrial automation arrangement, characterized in that , in a first step, the mechanical operating means is modelled in a simulation apparatus (STM) for a rigid-body simulation, in that , in a second step, the mechanical operating means is replicated in the virtual reality (IU), in that , in a third step, an interaction with the represented operating means is detected by the virtual reality (IU), wherein, from first parameters of the detected virtual interaction, second parameters (F) relating to a simulated physical effect on the operating means are calculated, in that , in a fourth step, the second parameters are transmitted to the simulation apparatus (STM), in that , in a fifth step, the second parameters (F) are used by the simulation apparatus (STM) by means of the modelled operating means for simulating a movement (X) of at least a part of the operating means, wherein it is decided whether a switching state change of the operating means is produced by the simulated movement (X), and in that , in a sixth step, the switching state or the switching state change is reported as the input information to the component (V-PLC).