mhurhangee/patent-ind-claim-en huggingface dataset:
A first base station, BS, for handling communication device capabilities, comprising: at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: receiving a first band combination, BC, and a second BC, from a communication device, a second BS or a core network, CN; indicating the first BC in a BC information element, IE, to configure the communication device to perform at least one of a transmission and a reception in a frequency band according to the first BC; transmitting a Secondary Node, SN, Addition Request message to a third BS, wherein the SN addition request message comprises the first BC, the second BC, and the BC IE; and receiving a SN Addition Request Acknowledge message for responding to the SN Addition Request message, from the third BS. at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: receiving a first band combination, BC, and a second BC, from a communication device, a second BS or a core network, CN; indicating the first BC in a BC information element, IE, to configure the communication device to perform at least one of a transmission and a reception in a frequency band according to the first BC; transmitting a Secondary Node, SN, Addition Request message to a third BS, wherein the SN addition request message comprises the first BC, the second BC, and the BC IE; and receiving a SN Addition Request Acknowledge message for responding to the SN Addition Request message, from the third BS. receiving a first band combination, BC, and a second BC, from a communication device, a second BS or a core network, CN; indicating the first BC in a BC information element, IE, to configure the communication device to perform at least one of a transmission and a reception in a frequency band according to the first BC; transmitting a Secondary Node, SN, Addition Request message to a third BS, wherein the SN addition request message comprises the first BC, the second BC, and the BC IE; and receiving a SN Addition Request Acknowledge message for responding to the SN Addition Request message, from the third BS.
A paging indication method, performed by a user equipment, UE, wherein the method comprises: receiving indication information from a radio access network device, wherein the indication information is used to indicate at least one detection parameter used by the UE to detect a paging message on a paging occasion, and the at least one detection parameter is used to determine a detection manner used by the UE to detect the paging message; and determining the detection manner based on the at least one detection parameter, wherein the detection manner used by the UE to detect the paging message is that the UE detects a paging Physical Downlink Control Channel, PDCCH, and the paging PDCCH indicates transmission of a Physical Downlink Shared Channel, PDSCH, wherein the paging occasion is an occasion on which the UE detects the paging message in at least one detection period after the UE receives the indication information, wherein the at least one detection parameter further comprises a control channel sending parameter of the paging message, wherein the control channel sending parameter comprises at least one of an aggregation level and physical resource information, wherein the aggregation level is an aggregation level of a control channel used by the radio access network device to send the paging message, the physical resource information is starting index of a control channel element on which the radio access network device sends the control channel, and the control channel element is a control channel element in the control channel used by the radio access network device to send the paging message. receiving indication information from a radio access network device, wherein the indication information is used to indicate at least one detection parameter used by the UE to detect a paging message on a paging occasion, and the at least one detection parameter is used to determine a detection manner used by the UE to detect the paging message; and determining the detection manner based on the at least one detection parameter, wherein the detection manner used by the UE to detect the paging message is that the UE detects a paging Physical Downlink Control Channel, PDCCH, and the paging PDCCH indicates transmission of a Physical Downlink Shared Channel, PDSCH, wherein the paging occasion is an occasion on which the UE detects the paging message in at least one detection period after the UE receives the indication information, wherein the at least one detection parameter further comprises a control channel sending parameter of the paging message, wherein the control channel sending parameter comprises at least one of an aggregation level and physical resource information, wherein the aggregation level is an aggregation level of a control channel used by the radio access network device to send the paging message, the physical resource information is starting index of a control channel element on which the radio access network device sends the control channel, and the control channel element is a control channel element in the control channel used by the radio access network device to send the paging message.
A method for providing Wireless-Fidelity (Wi-Fi) services, the method comprising: receiving , by a first Wi-Fi device in non-Access Point, AP, mode, messages directly from nearby Wi-Fi devices operating in AP mode, wherein the received messages correspond to one of beacon messages broadcast by the nearby Wi-Fi devices and response messages in reply to a request message from the first Wi-Fi device ; analyzing a device information field of each received message, wherein the device information field includes manufacturer information and service information of the Wi-Fi device from which the message is received; determining , by the first Wi-Fi device , based on the analyzed device information field of the received messages, a second Wi-Fi device that is manufactured by the same manufacturer as the first Wi-Fi device and is capable of supporting a requested service; establishing , by the first Wi-Fi device , a direct connection with the second Wi-Fi device through Wi-Fi Protected Setup, WPS, based on automatic provision; and sending , by the first Wi-Fi device , data associated with the requested service to the second Wi-Fi device for a Wi-Fi service. receiving , by a first Wi-Fi device in non-Access Point, AP, mode, messages directly from nearby Wi-Fi devices operating in AP mode, wherein the received messages correspond to one of beacon messages broadcast by the nearby Wi-Fi devices and response messages in reply to a request message from the first Wi-Fi device ; analyzing a device information field of each received message, wherein the device information field includes manufacturer information and service information of the Wi-Fi device from which the message is received; determining , by the first Wi-Fi device , based on the analyzed device information field of the received messages, a second Wi-Fi device that is manufactured by the same manufacturer as the first Wi-Fi device and is capable of supporting a requested service; establishing , by the first Wi-Fi device , a direct connection with the second Wi-Fi device through Wi-Fi Protected Setup, WPS, based on automatic provision; and sending , by the first Wi-Fi device , data associated with the requested service to the second Wi-Fi device for a Wi-Fi service.
Window assembly (10; 9.10) for a vehicle or building, particularly for a high-speed passenger-train, comprising a glazing (1; 9.1) that has one or more panes (2, 3; 9.2, 9.3) made of glass, plastic, and/or ceramic material, a window opening (7; 9.7) provided in a body (8; 9.8), a frame like gasket (4; 9.4) provided between the glazing (1; 9.1) and the body (8; 9.8) and holding the glazing (1; 9.1) on the body (8; 9.8) within the window opening (7; 9.7), and a reinforcing device (6; 9.6) for reinforcing the gasket (4, 9.4), characterized in that the reinforcing device (6; 9.6) comprises a bracket (29; 9.29), at least one insert (6.1; 9.6.1) or several inserts (6.1; 9.6.1), and an equalizing strip (6.2; 9.6.2) and that the gasket (4; 9.4) comprises a gasket intermediate portion (25; 9.25) arranged between the bracket (29, 9.25) and the equalizing strip (6.2; 9.6.2), the insert(s) (6.1; 9.6.1) coupling the bracket (29; 9.29) to the equalizing strip (6.2; 9.6.2). a glazing (1; 9.1) that has one or more panes (2, 3; 9.2, 9.3) made of glass, plastic, and/or ceramic material, a window opening (7; 9.7) provided in a body (8; 9.8), a frame like gasket (4; 9.4) provided between the glazing (1; 9.1) and the body (8; 9.8) and holding the glazing (1; 9.1) on the body (8; 9.8) within the window opening (7; 9.7), and a reinforcing device (6; 9.6) for reinforcing the gasket (4, 9.4), characterized in that the reinforcing device (6; 9.6) comprises a bracket (29; 9.29), at least one insert (6.1; 9.6.1) or several inserts (6.1; 9.6.1), and an equalizing strip (6.2; 9.6.2) and that the gasket (4; 9.4) comprises a gasket intermediate portion (25; 9.25) arranged between the bracket (29, 9.25) and the equalizing strip (6.2; 9.6.2), the insert(s) (6.1; 9.6.1) coupling the bracket (29; 9.29) to the equalizing strip (6.2; 9.6.2).
A method, comprising: receiving input data related to a data center that includes at least one equipment rack and at least one cooling provider, the input data including data center architecture information, building data, operating data, and one of a closed start-up restart time and an open start-up restart time for the at least one cooling provider, the closed start-up restart time including a synchronization of a generator voltage with line power after utility power is restored, the open start-up restart time excluding the synchronization; generating, by a computing device, a model including the input data and a set of energy balance and heat exchange equations for the data center that account for heat added by the at least one equipment rack and removed by the at least one cooling provider, and a thermal mass of the at least one equipment rack and a thermal mass of the at least one cooling provider, the model configured to predict at least one temperature in the data center during a transient event; and controlling a display device to display the at least one predicted temperature. receiving input data related to a data center that includes at least one equipment rack and at least one cooling provider, the input data including data center architecture information, building data, operating data, and one of a closed start-up restart time and an open start-up restart time for the at least one cooling provider, the closed start-up restart time including a synchronization of a generator voltage with line power after utility power is restored, the open start-up restart time excluding the synchronization; generating, by a computing device, a model including the input data and a set of energy balance and heat exchange equations for the data center that account for heat added by the at least one equipment rack and removed by the at least one cooling provider, and a thermal mass of the at least one equipment rack and a thermal mass of the at least one cooling provider, the model configured to predict at least one temperature in the data center during a transient event; and controlling a display device to display the at least one predicted temperature.
A pressure controlled wind turbine enhancement system comprising a shroud , the shroud comprising in axial direction at least first and second sections separated from one another by a circumferentially extending gap wherein the first section has a steeper taper than the second section, the gap allowing pressure to be alleviated from the interior of the shroud in order to accelerate the airflow and maintain the continuity of airflow, and therefore prevent the introduction of turbulence, at the transition between the first and second sections.
A gear switching control device of an internal derailleur, said internal derailleur comprising: a plurality of planet gear speed change systems; said gear switching control device comprising: a gear switching control unit; a plurality of axial ratchets ; a plurality of axial ratchet control rings (21, 22 and 23) for controlling the action of said plurality of axial ratchets; wherein the number of the plurality of axial ratchet control rings is identical to the number of the plurality of planet gear speed change systems; wherein the number of the plurality of axial ratchets is identical to the number of the plurality of axial ratchet control rings; and wherein the plurality of axial ratchet control rings are serially connected by the same gear switching control unit; characterized in that the gear switching control unit comprises: a track sleeve , wherein one end of the track sleeve is installed with a force accept portion that is movable by external forces, and another end thereof is installed with a linking rod which serially connects the plurality of axial ratchet control rings (21, 22 and 23); and wherein each of the axial ratchet control rings (21, 22 and 23) is formed with respective connecting holes (21a, 22a and 23a) for receiving the track sleeve ; wherein each axial ratchet control ring (21, 22 and 23) is installed with a cam or cam-like device; and wherein the cams or cam-like devices have different operating moving ranges. a plurality of planet gear speed change systems; said gear switching control device comprising: a gear switching control unit; a plurality of axial ratchets ; a plurality of axial ratchet control rings (21, 22 and 23) for controlling the action of said plurality of axial ratchets; wherein the number of the plurality of axial ratchet control rings is identical to the number of the plurality of planet gear speed change systems; wherein the number of the plurality of axial ratchets is identical to the number of the plurality of axial ratchet control rings; and wherein the plurality of axial ratchet control rings are serially connected by the same gear switching control unit; characterized in that the gear switching control unit comprises: a track sleeve , wherein one end of the track sleeve is installed with a force accept portion that is movable by external forces, and another end thereof is installed with a linking rod which serially connects the plurality of axial ratchet control rings (21, 22 and 23); and wherein each of the axial ratchet control rings (21, 22 and 23) is formed with respective connecting holes (21a, 22a and 23a) for receiving the track sleeve ; wherein each axial ratchet control ring (21, 22 and 23) is installed with a cam or cam-like device; and wherein the cams or cam-like devices have different operating moving ranges.
A method of determining a correction for a process parameter related to a lithographic process on a substrate, said lithographic process comprising a plurality of runs during each one of which a pattern is applied to one or more substrates, said method comprising: obtaining pre-exposure metrology data relating to a property of the substrate; obtaining post-exposure metrology data comprising one or more measurements of the process parameter having been performed by an equivalent lithographic process on one or more previously exposed substrates of said lithographic process; assigning to the substrate, a group membership status from one or more groups , based on said pre-exposure metrology data , wherein said one or more groups have been determined using a classifier trained to categorize pre-exposure metrology data associated with said one or more previously exposed substrates according to a characteristic of its corresponding post-exposure metrology data ; and determining the correction for the process parameter based on said group membership status and on said post-exposure metrology data , characterized in that each group out of said one or more groups has an associated process correction. obtaining pre-exposure metrology data relating to a property of the substrate; obtaining post-exposure metrology data comprising one or more measurements of the process parameter having been performed by an equivalent lithographic process on one or more previously exposed substrates of said lithographic process; assigning to the substrate, a group membership status from one or more groups , based on said pre-exposure metrology data , wherein said one or more groups have been determined using a classifier trained to categorize pre-exposure metrology data associated with said one or more previously exposed substrates according to a characteristic of its corresponding post-exposure metrology data ; and determining the correction for the process parameter based on said group membership status and on said post-exposure metrology data , characterized in that each group out of said one or more groups has an associated process correction.
A cavity system, comprising: a cavity comprising a cavity opening and a trailing edge wall being relative to an actual or intended flow direction of a fluid over the cavity ; a first acoustically reflective structure located at least partially within the cavity and mounted to or formed from the trailing edge wall of the cavity , the first acoustically reflective structure comprising one or more acoustically reflective surfaces that are oblique to a plane of the cavity opening , wherein the one or more acoustically reflective surfaces are arranged to reflect an incident acoustic wave out of the cavity opening while avoiding reflection of the incident acoustic wave into a region at or proximate to a leading edge of the cavity , wherein the region extends from the leading edge towards a trailing edge of the cavity by a distance of 0.05, 0.1, 0.15, 0.2, 0.25, 0.3, 0.35, 0.4, 0.45 or 0.5 multiplied by a distance between the leading edge and the trailing edge of the cavity , the leading edge and the trailing edge being relative to the actual or intended flow direction of a fluid over the cavity . a cavity comprising a cavity opening and a trailing edge wall being relative to an actual or intended flow direction of a fluid over the cavity ; a first acoustically reflective structure located at least partially within the cavity and mounted to or formed from the trailing edge wall of the cavity , the first acoustically reflective structure comprising one or more acoustically reflective surfaces that are oblique to a plane of the cavity opening , wherein the one or more acoustically reflective surfaces are arranged to reflect an incident acoustic wave out of the cavity opening while avoiding reflection of the incident acoustic wave into a region at or proximate to a leading edge of the cavity , wherein the region extends from the leading edge towards a trailing edge of the cavity by a distance of 0.05, 0.1, 0.15, 0.2, 0.25, 0.3, 0.35, 0.4, 0.45 or 0.5 multiplied by a distance between the leading edge and the trailing edge of the cavity , the leading edge and the trailing edge being relative to the actual or intended flow direction of a fluid over the cavity .
A method of distributing data from a server, said server having memory storing static data and dynamic data associated with one or more objects within a plurality of tiles, each tile defining a geographic area in digital map data, the method comprising: selecting, by the server , one or more tiles based on the location of a mobile device ; synchronising static data on the mobile device with the static data stored in the memory of the server for one or more objects within the selected one or more tiles, wherein the synchronising comprises determining a validity of static data on the mobile device associated with the one or more objects within the selected one or more tiles based upon validity information of the static data, the validity information identifying a period of time for which the static data is valid, and updating invalid static data on the mobile device ; and distributing, by the server , dynamic data updates to the mobile device , the dynamic data updates being associated with the one or more objects based upon the location of the mobile device , wherein the distributing comprises communicating dynamic data to the mobile device based on validity information of the dynamic data, the validity information of the dynamic data identifying a period of time for which the dynamic data is valid, wherein the static data comprises data indicative of one or more slowly-varying attributes associated with the one or more objects and the dynamic data comprises data indicative of dynamically variable attributes associated with the one or more objects, such that the static data varies at a slower rate than the dynamic data. selecting, by the server , one or more tiles based on the location of a mobile device ; synchronising static data on the mobile device with the static data stored in the memory of the server for one or more objects within the selected one or more tiles, wherein the synchronising comprises determining a validity of static data on the mobile device associated with the one or more objects within the selected one or more tiles based upon validity information of the static data, the validity information identifying a period of time for which the static data is valid, and updating invalid static data on the mobile device ; and distributing, by the server , dynamic data updates to the mobile device , the dynamic data updates being associated with the one or more objects based upon the location of the mobile device , wherein the distributing comprises communicating dynamic data to the mobile device based on validity information of the dynamic data, the validity information of the dynamic data identifying a period of time for which the dynamic data is valid, wherein the static data comprises data indicative of one or more slowly-varying attributes associated with the one or more objects and the dynamic data comprises data indicative of dynamically variable attributes associated with the one or more objects, such that the static data varies at a slower rate than the dynamic data.
A foreign object detector (FOD), comprising - a conducting wire (CW) with a first section and a second section, a first node (N1), a second node (N2) and an intermediate node (NI), - an evaluation circuit, where - the first section electrically connects the first node (N1) to the intermediate node (NI) and has a plurality of three or more vertical segments (VS), - the second section electrically connects the intermediate node (NI) to the second node (N2) and has a plurality of three or more horizontal segments (HS), - the plurality of segments of the first and the second section establish a mesh structure with mesh elements, - the evaluation circuit is configured to evaluate the electric behavior of the conducting wire; characterized in that the mesh elements in the mesh structure have the same size. - a conducting wire (CW) with a first section and a second section, a first node (N1), a second node (N2) and an intermediate node (NI), - an evaluation circuit, - the first section electrically connects the first node (N1) to the intermediate node (NI) and has a plurality of three or more vertical segments (VS), - the second section electrically connects the intermediate node (NI) to the second node (N2) and has a plurality of three or more horizontal segments (HS), - the plurality of segments of the first and the second section establish a mesh structure with mesh elements, - the evaluation circuit is configured to evaluate the electric behavior of the conducting wire;