mhurhangee/patent-ind-claim-en huggingface dataset:
A base station comprising: a transceiver configured to enable communication with a user equipment, UE, in a wireless network; and one or more processors communicatively coupled to the transceiver and configured to: receive an uplink, UL, transmission from the UE carrying a tracking reference signal, TRS, request to trigger a TRS transmission from the base station; and generate, based upon the TRS request, a downlink, DL, transmission, wherein the DL transmission carries the TRS transmission and a Synchronization Signal block, SS-block, transmission within a slot, wherein the TRS transmission is allocated to one or more subcarriers in a symbol within the slot and outside resource blocks used for the SS-block transmission in the same symbol in which the TRS transmission is allocated to, and wherein the one or more subcarriers for the TRS transmission are adjacent to one or more subcarriers for the SS-block transmission. a transceiver configured to enable communication with a user equipment, UE, in a wireless network; and one or more processors communicatively coupled to the transceiver and configured to: receive an uplink, UL, transmission from the UE carrying a tracking reference signal, TRS, request to trigger a TRS transmission from the base station; and generate, based upon the TRS request, a downlink, DL, transmission, wherein the DL transmission carries the TRS transmission and a Synchronization Signal block, SS-block, transmission within a slot, wherein the TRS transmission is allocated to one or more subcarriers in a symbol within the slot and outside resource blocks used for the SS-block transmission in the same symbol in which the TRS transmission is allocated to, and wherein the one or more subcarriers for the TRS transmission are adjacent to one or more subcarriers for the SS-block transmission. receive an uplink, UL, transmission from the UE carrying a tracking reference signal, TRS, request to trigger a TRS transmission from the base station; and generate, based upon the TRS request, a downlink, DL, transmission, wherein the DL transmission carries the TRS transmission and a Synchronization Signal block, SS-block, transmission within a slot, wherein the TRS transmission is allocated to one or more subcarriers in a symbol within the slot and outside resource blocks used for the SS-block transmission in the same symbol in which the TRS transmission is allocated to, and wherein the one or more subcarriers for the TRS transmission are adjacent to one or more subcarriers for the SS-block transmission.
A method performed by a first network node in a first network for support in a second network of a quality of service, QoS, of the first network for a communication device initiated QoS modification when the communication device is accessing a service of the first network via the second network, the method comprising: checking a QoS profile for a QoS flow of the first network based on a service level agreement, SLA, between the first network and the second network to determine whether the QoS flow is supported by the second network; when the QoS is supported by the second network, creating a dedicated internet protocol security, IPsec, security association, SA, between the first network node and the communication device for handling the QoS flow in the second network; setting a differentiated services code point, DSCP, value of the dedicated IPsec SA according to the SLA; and instructing the communication device to set the DSCP value of the dedicated IPsec SA for the service of the first network based on a mapping comprised in the SLA between the DSCP value of the dedicated IPsec SA and a set of QoS parameters for the service of the first network. checking a QoS profile for a QoS flow of the first network based on a service level agreement, SLA, between the first network and the second network to determine whether the QoS flow is supported by the second network; when the QoS is supported by the second network, creating a dedicated internet protocol security, IPsec, security association, SA, between the first network node and the communication device for handling the QoS flow in the second network; setting a differentiated services code point, DSCP, value of the dedicated IPsec SA according to the SLA; and instructing the communication device to set the DSCP value of the dedicated IPsec SA for the service of the first network based on a mapping comprised in the SLA between the DSCP value of the dedicated IPsec SA and a set of QoS parameters for the service of the first network.
Method for transferring and displaying vector graphics with additional information from a cloud-based CAD archive (CA), whereby the transfer from the cloud-based CAD archive (CA) to mobile devices, portable or stationary computers of end users (EN) for displaying on an app on the front-ends of the mobile devices, portable or stationary computers, the method comprising the following steps: - CAD files (CVD) for the cloud archive (CA) are provided by users (N). - the individually provided CAD files (CVD) are checked for viruses, consistency and errors before processing for the CAD archive (CA), - after a successful check, a compressed pixel graphic file (CPG) is created for each individual user-specific CAD file (CVD) and the files are encrypted together with one or more info point files with info points (CInf) as additional information and stored in the CAD archive (CA ) stored, whereby the user (N) can define passwords and access rights for the individual CAD data (CVG) or info point information of the info points (CInf) in the CAD archive (CA) for end user groups, - data retrieved by an end user (EN) is transmitted from the CAD archive (CA) encrypted and compressed to the app on the mobile device, portable or stationary computer of the end user (EN), whereby the properties for the info points and additional information of the info points (CInf) are only displayed using the app on the mobile device, portable or stationary computer, depending on the end user, in such a way that the info points (CInf) are positioned precisely in the vector and pixel graphics by the (xv, yv, zv) and (xp, yp, zp) - coordinates which are assigned to the CAD files (CVD) and pixel graphics files (CPD). - CAD files (CVD) for the cloud archive (CA) are provided by users (N). - the individually provided CAD files (CVD) are checked for viruses, consistency and errors before processing for the CAD archive (CA), - after a successful check, a compressed pixel graphic file (CPG) is created for each individual user-specific CAD file (CVD) and the files are encrypted together with one or more info point files with info points (CInf) as additional information and stored in the CAD archive (CA ) stored, whereby the user (N) can define passwords and access rights for the individual CAD data (CVG) or info point information of the info points (CInf) in the CAD archive (CA) for end user groups, - data retrieved by an end user (EN) is transmitted from the CAD archive (CA) encrypted and compressed to the app on the mobile device, portable or stationary computer of the end user (EN), whereby the properties for the info points and additional information of the info points (CInf) are only displayed using the app on the mobile device, portable or stationary computer, depending on the end user, in such a way that the info points (CInf) are positioned precisely in the vector and pixel graphics by the (xv, yv, zv) and (xp, yp, zp) - coordinates which are assigned to the CAD files (CVD) and pixel graphics files (CPD).
A control unit (100; 208; 602) for controlling the operation of at least one smart-home system, comprising: at least one housing; at least one processing system disposed within the at least one housing, the at least one processing system being configured to be in operative communication with a user interface ; and at least one occupancy sensor in operative communication with the at least one processing system; wherein the at least one processing system is further configured to automatically determine whether to activate an away-state feature for the enclosure in which the smart-home system is installed, characterized in that the at least one processing system is configured to perform the determination by: receiving readings from the at least one occupancy sensor during a trial period; comparing information derived from the readings to at least one threshold criterion to establish whether sufficiently true indications of occupancy conditions were sensed by the at least one occupancy sensor during the trial period; and enabling the away-state feature of the control unit only if it is determined that the sufficiently true indications of occupancy conditions were sensed during the trial period. at least one housing; at least one processing system disposed within the at least one housing, the at least one processing system being configured to be in operative communication with a user interface ; and at least one occupancy sensor in operative communication with the at least one processing system; wherein the at least one processing system is further configured to automatically determine whether to activate an away-state feature for the enclosure in which the smart-home system is installed, characterized in that the at least one processing system is configured to perform the determination by: receiving readings from the at least one occupancy sensor during a trial period; comparing information derived from the readings to at least one threshold criterion to establish whether sufficiently true indications of occupancy conditions were sensed by the at least one occupancy sensor during the trial period; and enabling the away-state feature of the control unit only if it is determined that the sufficiently true indications of occupancy conditions were sensed during the trial period. receiving readings from the at least one occupancy sensor during a trial period; comparing information derived from the readings to at least one threshold criterion to establish whether sufficiently true indications of occupancy conditions were sensed by the at least one occupancy sensor during the trial period; and enabling the away-state feature of the control unit only if it is determined that the sufficiently true indications of occupancy conditions were sensed during the trial period.
A method for controlling a solar power system, comprising: operating a plurality of power optimizers connected in series between two input terminals of an inverter , wherein the plurality of power optimizers are connected to a plurality of solar panels , respectively, each pair of solar panel and power optimizer forming a power module , thereby forming a plurality of power modules connected in series, the method comprising: measuring operation parameters of the plurality of the solar panels; calculating a maximum power flow of each solar panel based upon the measuring detecting a maximum power point tracking, MPPT, current assigned to a corresponding maximum power flow for each solar panel; determining a mode transition range based upon the maximum power flows of the plurality of solar panels; and configuring a first power optimizer to operate in a pass-through mode if a maximum power point tracking current of a first solar panel connected to the first power optimizer is within the mode transition range, wherein: a midpoint of the mode transition range is a current approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage applied to the input terminals of the inverter. operating a plurality of power optimizers connected in series between two input terminals of an inverter , wherein the plurality of power optimizers are connected to a plurality of solar panels , respectively, each pair of solar panel and power optimizer forming a power module , thereby forming a plurality of power modules connected in series, the method comprising: measuring operation parameters of the plurality of the solar panels; calculating a maximum power flow of each solar panel based upon the measuring detecting a maximum power point tracking, MPPT, current assigned to a corresponding maximum power flow for each solar panel; determining a mode transition range based upon the maximum power flows of the plurality of solar panels; and configuring a first power optimizer to operate in a pass-through mode if a maximum power point tracking current of a first solar panel connected to the first power optimizer is within the mode transition range, wherein: a midpoint of the mode transition range is a current approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage applied to the input terminals of the inverter.
A method of obtaining image data comprising: scanning an imaging area with an imaging device while obtaining multiple overlapping images of the imaging area; and transforming the overlapping images by performing frame averaging on the overlapping images to produce at least one enhanced image of the imaging area, wherein transforming the overlapping images by performing frame averaging is performed automatically at a coarse level by determining what pixels from each overlapping image or frame overlap at a sub-pixel sampling distance, and averaging the overlapping pixels to produce the at least one enhanced image, and characterized by further comprising: transforming the overlapping images by performing super resolution frame averaging on at least one portion of the overlapping images to produce at least one super resolution image of the imaging area wherein the at least one super resolution image has a finer sampling than the at least one enhanced image. scanning an imaging area with an imaging device while obtaining multiple overlapping images of the imaging area; and transforming the overlapping images by performing frame averaging on the overlapping images to produce at least one enhanced image of the imaging area, wherein transforming the overlapping images by performing frame averaging is performed automatically at a coarse level by determining what pixels from each overlapping image or frame overlap at a sub-pixel sampling distance, and averaging the overlapping pixels to produce the at least one enhanced image, and characterized by further comprising: transforming the overlapping images by performing super resolution frame averaging on at least one portion of the overlapping images to produce at least one super resolution image of the imaging area wherein the at least one super resolution image has a finer sampling than the at least one enhanced image.
A lighting system comprising a plurality of lighting units and at least one joint , which joins two or more units ; the joint comprises a central support extending along a first rotation axis (R1) and two or more arms , which extend radially from the support and are hinged in a rotary manner to the support to rotate with respect to the support about the first rotation axis (R1); each arm being hinged in a rotary manner about a second rotation axis (R2), orthogonal to the first rotation axis (R1), to a connection head fixed to a lighting unit ; the system being characterized in that the support comprises a cap positioned above an upper flange of the support above the arms , which has substantially an inverted cup shape; the cap being provided with at least one entry opening passing through an upper wall of the cap for the passage of one or more cables ; the joint comprising internal passages , formed inside the cap and each arm , between the entry opening and respective exit openings formed on respective connection heads , so as to house, inside the joint , one or more cables .
A method for an access point, the method comprising: receiving , from at least one mobile station, at least one message comprising timing information from the at least one mobile station; and determining , using the received timing information, at least one timing advance parameter for channel usage beacon signals, CUBS, transmission and an associated clear channel assessment, CCA, window for the at least one mobile station based on reducing a timing difference between the at least mobile station. receiving , from at least one mobile station, at least one message comprising timing information from the at least one mobile station; and determining , using the received timing information, at least one timing advance parameter for channel usage beacon signals, CUBS, transmission and an associated clear channel assessment, CCA, window for the at least one mobile station based on reducing a timing difference between the at least mobile station.
A method for aiding in diagnostic of electrical distribution networks, implemented by computing means, comprising: a. collecting and centralising anomaly data sets, each set corresponding to an anomaly detected by at least one sensor from a plurality of sensors distributed on an electrical distribution network, each set including a combination of at least one date and one position on said network; b. associating , with each anomaly data set, topological data of a respective zone of said network, said respective zone being determined as a function of the position contained in each anomaly data set; characterised in that the method further comprises the following steps: c. grouping the fault data sets per time ranges as a function of their respective dates; d. correlating data set groups having different dates and similarities in their respective topological data associated so as to form aggregates of data set groups; e. transmitting , to at least one human-machine interface, the aggregates of data set groups correlated, so that said data can be presented to a human for analysis, f. from said aggregates of data set groups correlated and transmitted, determining a response plan to be implemented on the electrical distribution network. a. collecting and centralising anomaly data sets, each set corresponding to an anomaly detected by at least one sensor from a plurality of sensors distributed on an electrical distribution network, each set including a combination of at least one date and one position on said network; b. associating , with each anomaly data set, topological data of a respective zone of said network, said respective zone being determined as a function of the position contained in each anomaly data set; c. grouping the fault data sets per time ranges as a function of their respective dates; d. correlating data set groups having different dates and similarities in their respective topological data associated so as to form aggregates of data set groups; e. transmitting , to at least one human-machine interface, the aggregates of data set groups correlated, so that said data can be presented to a human for analysis, f. from said aggregates of data set groups correlated and transmitted, determining a response plan to be implemented on the electrical distribution network.
A method for jointly releasing multiple semi-persistently scheduled, SPS, physical downlink shared channels, PDSCHs, the method comprising: receiving, by a PDSCH manager of a user equipment comprising a processor and memory, a SPS release physical downlink control channel (PDCCH) in a scheduling cell (1180; 1380), the SPS release PDCCH identifying N SPS PDSCH configuration indices i 1 ,.., i N to be released; identifying , by the PDSCH manager , a slot of a scheduled cell (1140; 1340), where the slot of the scheduled cell (1140; 1340) overlaps with the end of an ending symbol of the SPS release PDCCH ; identifying , by the PDSCH manager , M SPS PDSCH configuration indices j 1 ,.., j M comprising all configuration indices from among the N SPS PDSCH configuration indices that are configured to be received in the slot, where M ≤ N, the M SPS PDSCH configuration indices being associated with corresponding ending symbols; comparing , by the PDSCH manager , timings of the end of the ending symbol of the SPS release PDCCH and the end of the corresponding ending symbols of the M SPS PDSCH configuration indices of the slot; and releasing , by the PDSCH manager , L SPS PDSCH configuration indices among the M SPS PDSCH configuration indices based on determining that the ending symbol of the SPS release PDCCH is before a corresponding ending symbol associated with each of the L SPS PDSCH configuration indices of the slot. receiving, by a PDSCH manager of a user equipment comprising a processor and memory, a SPS release physical downlink control channel (PDCCH) in a scheduling cell (1180; 1380), the SPS release PDCCH identifying N SPS PDSCH configuration indices i 1 ,.., i N to be released; identifying , by the PDSCH manager , a slot of a scheduled cell (1140; 1340), where the slot of the scheduled cell (1140; 1340) overlaps with the end of an ending symbol of the SPS release PDCCH ; identifying , by the PDSCH manager , M SPS PDSCH configuration indices j 1 ,.., j M comprising all configuration indices from among the N SPS PDSCH configuration indices that are configured to be received in the slot, where M ≤ N, the M SPS PDSCH configuration indices being associated with corresponding ending symbols; comparing , by the PDSCH manager , timings of the end of the ending symbol of the SPS release PDCCH and the end of the corresponding ending symbols of the M SPS PDSCH configuration indices of the slot; and releasing , by the PDSCH manager , L SPS PDSCH configuration indices among the M SPS PDSCH configuration indices based on determining that the ending symbol of the SPS release PDCCH is before a corresponding ending symbol associated with each of the L SPS PDSCH configuration indices of the slot.
An interconnector system comprising a first circuit board , a second circuit board and an electrical interconnector comprising two connection lines between the first circuit board and the second circuit board , wherein the first circuit board and the second circuit board each comprise at least one respective frequency separating filter (f), each frequency separating filter (f) comprising a high frequency connector , a low frequency connector and a mixed frequency connector , characterized in that at least one of the two connection lines is connected to the mixed frequency connector of one of the frequency separating filters (f) of the first circuit board and to the mixed frequency connector of one of the frequency separating filters (f) of the second circuit board .
A floating coil configuration for a compressor of a closed cycle cryogenic cooler, the coil configuration comprising: a. a coil having a positive end and a negative end; and b. first and second springs concentrically located within the coil , each spring having a first end and a second end; characterized in that the positive end of the coil is coupled to the first end of the second spring and the negative end of the coil is coupled to the second end of the first spring and the second end of the first spring is electrically coupled to the first end of the second spring such that the first and second springs define an electrical path across the coil . a. a coil having a positive end and a negative end; and b. first and second springs concentrically located within the coil , each spring having a first end and a second end;
Vehicle for a magnetic levitation railway having a coach body and a propulsion and supporting device as well as at least one levitation frame fastened on the coach body and the propulsion and supporting device , whereas the levitation frame has a traverse and a carrier which are connected to each other in an articulated fashion, whereas the coach body is arranged on the carrier in a fixed manner and the coach body can be deflected transversely to the longitudinal axis of the propulsion and supporting device and a spring suspension system (12, 14; 20, 21) is arranged between the levitation frame and propulsion and supporting device , characterized in that the traverse , connects two propulsion and supporting devices running in parallel with each other, the traverse and the carrier are connected to each other in an articulated fashion by means of two pendulums and that the traverse , two pendulums and the carrier hanging on the pendulums , form a symmetric four-joint linkage..