mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement method, comprising: sending, by a base station, a switch message for a narrow bandwidth reception mode to a terminal to instruct the terminal to switch to a designated narrow bandwidth to receive information (S201), wherein a width of the narrow bandwidth is less than a width of a system bandwidth; and scheduling, by the base station, the terminal to switch to the system bandwidth to measure a downlink reference signal when channel state information of a downlink channel needs to be measured (S202); wherein the scheduling, by the base station, the terminal to switch to the system bandwidth to measure the downlink reference signal when the channel state information of the downlink channel needs to be measured, comprises: configuring, by the base station, measurement parameters for the terminal to measure the downlink reference signal and sending the measurement parameters to the terminal (S302), wherein the measurement parameters comprise a cycle for the terminal to measure the downlink reference signal and information of a time period for the terminal to measure the downlink reference signal in the cycle; and scheduling the terminal to switch to the system bandwidth to measure the downlink reference signal according to the measurement parameters (S303). sending, by a base station, a switch message for a narrow bandwidth reception mode to a terminal to instruct the terminal to switch to a designated narrow bandwidth to receive information (S201), wherein a width of the narrow bandwidth is less than a width of a system bandwidth; and scheduling, by the base station, the terminal to switch to the system bandwidth to measure a downlink reference signal when channel state information of a downlink channel needs to be measured (S202); wherein the scheduling, by the base station, the terminal to switch to the system bandwidth to measure the downlink reference signal when the channel state information of the downlink channel needs to be measured, comprises: configuring, by the base station, measurement parameters for the terminal to measure the downlink reference signal and sending the measurement parameters to the terminal (S302), wherein the measurement parameters comprise a cycle for the terminal to measure the downlink reference signal and information of a time period for the terminal to measure the downlink reference signal in the cycle; and scheduling the terminal to switch to the system bandwidth to measure the downlink reference signal according to the measurement parameters (S303). configuring, by the base station, measurement parameters for the terminal to measure the downlink reference signal and sending the measurement parameters to the terminal (S302), wherein the measurement parameters comprise a cycle for the terminal to measure the downlink reference signal and information of a time period for the terminal to measure the downlink reference signal in the cycle; and scheduling the terminal to switch to the system bandwidth to measure the downlink reference signal according to the measurement parameters (S303).
A constant mesh gearbox having a plurality of individually selectable forward speed ratios, and comprising a casing defining an array of parallel rotational axes (31-35), said axes including an input axis , an output axis and a plurality of intermediate axes (32-34), and gear pairs for driving between members rotatable on the input axis, the output axis and said intermediate axes, wherein a first shaft is rotatable on one of said intermediate axes, a second shaft is rotatable on another of said intermediate axes, a final drive gear of an output shaft on said output axis is engaged with an output gear wheel coupled for rotation with said first shaft and an output gear wheel coupled for rotation with said second shaft , thereby said first and second shaft are directly connected, a sleeve is rotatable on said second shaft , and said sleeve and said first shaft are directly connected by a second gear wheel pair , and wherein said sleeve supports a first gear wheel for rotation thereon, said first gear wheel being selectively connectable for rotation with said sleeve, and being in driving engagement with an input shaft on said input axis .
A lithotripsy device, in particular intracorporeal lithotripsy device, having at least one disintegration unit which is configured for removing concrements and which comprises at least one probe (12a-e) configured for acting on concrements, and at least one pulse unit , which at least indirectly transmits pulses to the probe (12a-e) and which has a probe rod (22a-e) for at least indirectly acting on concrements and a probe head (24a-e) for receiving pulses, characterized in that the disintegration unit at least partially consists of an amorphous material which has an elastic limit of at least 1.5% and/or a strength of at least 500 MPa, wherein the amorphous material is metallic glass.
A method for wireless communications, comprising: determining a synchronization cycle that comprises one or more device-to-device, D2D, synchronization signals (205-a) transmitted on a periodic schedule from a D2D source; determining a monitoring period based at least in part on a start time for at least two sequential transmissions of the D2D synchronization signals (205-a) occurring during the synchronization cycle based at least in part on the periodic schedule, wherein a duration of the synchronization cycle comprises a plurality of monitoring periods ; determining , based at least in part on a duration of the monitoring period , a plurality of sub-monitoring periods , wherein a cumulative duration of the plurality of sub-monitoring periods is the same as the duration of the monitoring period ; and monitoring , based at least in part on the plurality of sub-monitoring periods , for at least one of the one or more D2D synchronization signals (205-a). determining a synchronization cycle that comprises one or more device-to-device, D2D, synchronization signals (205-a) transmitted on a periodic schedule from a D2D source; determining a monitoring period based at least in part on a start time for at least two sequential transmissions of the D2D synchronization signals (205-a) occurring during the synchronization cycle based at least in part on the periodic schedule, wherein a duration of the synchronization cycle comprises a plurality of monitoring periods ; determining , based at least in part on a duration of the monitoring period , a plurality of sub-monitoring periods , wherein a cumulative duration of the plurality of sub-monitoring periods is the same as the duration of the monitoring period ; and monitoring , based at least in part on the plurality of sub-monitoring periods , for at least one of the one or more D2D synchronization signals (205-a).
A valve comprising: a housing , the housing having an inlet , a primary outlet , and a secondary outlet ; and a hybrid valve member rotatably positioned within the housing, the hybrid valve member having a fully closed position wherein the hybrid valve member prevents flow between the inlet and the primary outlet and prevents flow between the inlet and the secondary outlet, the hybrid valve member including a planar portion and a hemispherical portion on a first side thereof, wherein the planar portion faces the inlet in the fully closed position, wherein the hemispherical portion faces the secondary outlet in the fully closed position, wherein the hybrid valve member has a second side in an opposed relationship to the first side, wherein the second side includes a planar portion , and wherein a seal groove is interposed between the first and second sides. a housing , the housing having an inlet , a primary outlet , and a secondary outlet ; and a hybrid valve member rotatably positioned within the housing, the hybrid valve member having a fully closed position wherein the hybrid valve member prevents flow between the inlet and the primary outlet and prevents flow between the inlet and the secondary outlet, the hybrid valve member including a planar portion and a hemispherical portion on a first side thereof, wherein the planar portion faces the inlet in the fully closed position, wherein the hemispherical portion faces the secondary outlet in the fully closed position, wherein the hybrid valve member has a second side in an opposed relationship to the first side, wherein the second side includes a planar portion , and wherein a seal groove is interposed between the first and second sides.
Apparatus for processing data comprising: processing circuitry to perform processing operations specified by a sequence of program instructions; an instruction decoder to decode said sequence of program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said instruction decoder comprises branch-future instruction decoding circuitry to decode a branch-future instruction, said branch-future instruction having a programmable parameter associated with a branch target address and further programmable branch point data parameter indicative of a predetermined instruction following said branch-future instruction within said sequence of program instructions; and said processing circuitry comprises branch control circuitry controlled by said branch-future instruction decoding circuitry and responsive to said branch point data to trigger a branch to processing of program instructions starting from a branch target instruction corresponding to said branch target address when processing of said sequence of program instructions reaches said predetermined instruction, wherein when said branch control circuitry triggers said branch, said branch target instruction follows an instruction immediately preceding said predetermined instruction in said sequence of program instructions, and an operation specified by said branch-future instruction and an operation specified by said instruction immediately preceding said predetermined instruction are performed contiguously by said processing circuitry. processing circuitry to perform processing operations specified by a sequence of program instructions; an instruction decoder to decode said sequence of program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said instruction decoder comprises branch-future instruction decoding circuitry to decode a branch-future instruction, said branch-future instruction having a programmable parameter associated with a branch target address and further programmable branch point data parameter indicative of a predetermined instruction following said branch-future instruction within said sequence of program instructions; and said processing circuitry comprises branch control circuitry controlled by said branch-future instruction decoding circuitry and responsive to said branch point data to trigger a branch to processing of program instructions starting from a branch target instruction corresponding to said branch target address when processing of said sequence of program instructions reaches said predetermined instruction, wherein when said branch control circuitry triggers said branch, said branch target instruction follows an instruction immediately preceding said predetermined instruction in said sequence of program instructions, and an operation specified by said branch-future instruction and an operation specified by said instruction immediately preceding said predetermined instruction are performed contiguously by said processing circuitry.
For a first network controller that manages a logical network implemented on data compute nodes assigned to a particular tenant in a public multi-tenant datacenter comprising forwarding elements to which the first network controller does not have access, a method comprising: identifying a first data compute node of the data compute nodes assigned to the particular tenant in the public multi-tenant datacenter that is configured to execute a second network controller ; and distributing configuration data defining the logical network to the first data compute node , wherein the second network controller executing at the first data compute node distributes sets of the configuration data to a plurality of local agents executing on additional data compute nodes of the data compute nodes assigned to the particular tenant in the public multi-tenant datacenter that send and receive messages through the logical network, wherein both a managed forwarding element and a local agent execute on each of the additional data compute nodes , each local agent on a particular data compute node of the additional data compute nodes for receiving one of the sets of configuration data from the second network controller and configuring the managed forwarding element on the particular data compute node to implement the logical network according to the received set of configuration data . identifying a first data compute node of the data compute nodes assigned to the particular tenant in the public multi-tenant datacenter that is configured to execute a second network controller ; and distributing configuration data defining the logical network to the first data compute node , wherein the second network controller executing at the first data compute node distributes sets of the configuration data to a plurality of local agents executing on additional data compute nodes of the data compute nodes assigned to the particular tenant in the public multi-tenant datacenter that send and receive messages through the logical network, wherein both a managed forwarding element and a local agent execute on each of the additional data compute nodes , each local agent on a particular data compute node of the additional data compute nodes for receiving one of the sets of configuration data from the second network controller and configuring the managed forwarding element on the particular data compute node to implement the logical network according to the received set of configuration data .
A method in a wireless device comprising: receiving , from a network node , an indication of a current coverage enhancement, CE, mode of the wireless device with respect to a first cell; determining a first and a second estimated signal quality of the wireless device with respect to the first cell by: performing measurements on signals associated with the first cell, and determining the first and second estimated signal quality based on the measurements, wherein the first estimated signal quality is based on a signal quality measurement of a Synchronization Channel, SCH, and the second estimated signal quality is based on a signal quality measurement of a Cell-Specific Reference Signal, CRS; and if the current CE mode is a normal CE mode and the first and the second estimated signal quality of the wireless device with respect to the first cell are greater than or equal to a lower threshold and less than an upper threshold, reconfiguring the wireless device to operate in an enhanced CE mode. receiving , from a network node , an indication of a current coverage enhancement, CE, mode of the wireless device with respect to a first cell; determining a first and a second estimated signal quality of the wireless device with respect to the first cell by: performing measurements on signals associated with the first cell, and determining the first and second estimated signal quality based on the measurements, wherein the first estimated signal quality is based on a signal quality measurement of a Synchronization Channel, SCH, and the second estimated signal quality is based on a signal quality measurement of a Cell-Specific Reference Signal, CRS; and performing measurements on signals associated with the first cell, and determining the first and second estimated signal quality based on the measurements, wherein the first estimated signal quality is based on a signal quality measurement of a Synchronization Channel, SCH, and the second estimated signal quality is based on a signal quality measurement of a Cell-Specific Reference Signal, CRS; and if the current CE mode is a normal CE mode and the first and the second estimated signal quality of the wireless device with respect to the first cell are greater than or equal to a lower threshold and less than an upper threshold, reconfiguring the wireless device to operate in an enhanced CE mode.
A resource determining method, comprising: determining , by a base station, a first narrowband resource available to a user equipment, UE, according to an index of a preamble sequence received from the UE in a random access process, wherein the first narrowband resource comprises a narrowband frequency resource; and transmitting , by the base station, control information for the UE on the first narrowband resource to the UE; wherein the determining, by the base station comprises: determining, by the base station, the first narrowband resource according to correspondence between the first narrowband resource and the index of the preamble sequence, wherein the correspondence is embodied by a formula or by a correspondence table. determining , by a base station, a first narrowband resource available to a user equipment, UE, according to an index of a preamble sequence received from the UE in a random access process, wherein the first narrowband resource comprises a narrowband frequency resource; and transmitting , by the base station, control information for the UE on the first narrowband resource to the UE; wherein the determining, by the base station comprises: determining, by the base station, the first narrowband resource according to correspondence between the first narrowband resource and the index of the preamble sequence, wherein the correspondence is embodied by a formula or by a correspondence table.
A microfluidic valve, comprising: a base ; a sleeve disposed on the base; a rotor disposed within the sleeve , wherein the rotor , the sleeve , and the base form a mixing chamber ; an aperture capable of communicating or configured to communicate with the mixing chamber ; and a micro-structure disposed on the rotor and located in the mixing chamber , wherein the micro-structure is capable of blocking or closing or configured to block or close the communication between the aperture and the mixing chamber wherein the aperture is a micropore, and characterized in that the micro-structure disposed on the rotor is a micro-column which comprises a feature for facilitating mixing or stirring of a substance inside the mixing chamber . a base ; a sleeve disposed on the base; a rotor disposed within the sleeve , wherein the rotor , the sleeve , and the base form a mixing chamber ; an aperture capable of communicating or configured to communicate with the mixing chamber ; and a micro-structure disposed on the rotor and located in the mixing chamber , wherein the micro-structure is capable of blocking or closing or configured to block or close the communication between the aperture and the mixing chamber wherein the aperture is a micropore, and characterized in that the micro-structure disposed on the rotor is a micro-column which comprises a feature for facilitating mixing or stirring of a substance inside the mixing chamber .
A setting method executed by an electronic device comprising a control panel for receiving user operations and a main body for implementing image forming functions, the method comprising: installing (S21) an application on the electronic device ; acquiring (S23, S24) setting information that includes one or more setting items for executing the installed application; generating (S26), based on the setting information, a screen for receiving input of a setting value for a setting item from a user; after and in response to installing the application, displaying (S27) on the control panel , the screen ; and setting (S29, S30, S31, S32, S33) the setting value for the setting item received on the screen , wherein the one or more setting items are associated with a setting type that indicates that the installed application is for the control panel or for a main body system that controls the operation of the main body , and wherein the method further comprises: instructing, in response to the setting type indicating that the installed application is for the control panel , the setting of the setting value for the setting item employing an intent function of an operating system; and instructing, in response to the setting type indicating that the installed application is for the main body system , the setting of the setting value for the setting item employing an application program interface, API, of the main body system . installing (S21) an application on the electronic device ; acquiring (S23, S24) setting information that includes one or more setting items for executing the installed application; generating (S26), based on the setting information, a screen for receiving input of a setting value for a setting item from a user; after and in response to installing the application, displaying (S27) on the control panel , the screen ; and setting (S29, S30, S31, S32, S33) the setting value for the setting item received on the screen , wherein the one or more setting items are associated with a setting type that indicates that the installed application is for the control panel or for a main body system that controls the operation of the main body , and wherein the method further comprises: instructing, in response to the setting type indicating that the installed application is for the control panel , the setting of the setting value for the setting item employing an intent function of an operating system; and instructing, in response to the setting type indicating that the installed application is for the main body system , the setting of the setting value for the setting item employing an application program interface, API, of the main body system . instructing, in response to the setting type indicating that the installed application is for the control panel , the setting of the setting value for the setting item employing an intent function of an operating system; and instructing, in response to the setting type indicating that the installed application is for the main body system , the setting of the setting value for the setting item employing an application program interface, API, of the main body system .