mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: receiving, at a wireless device, a scheduling indicator on a first instance of a control channel; determining that a data transmission is scheduled for the wireless device based at least in part on the received scheduling indicator; identifying a first frequency band associated with the data transmission; identifying a second frequency band associated with a second instance of the control channel; identifying a third frequency band to monitor based at least in part on the first and second frequency bands and a bandwidth capability of the wireless device, wherein the third frequency band includes the first frequency band, and wherein the third frequency band comprises an associated bandwidth that is based at least in part on the bandwidth capability of the wireless device; and receiving the data transmission in the first frequency band and a portion of the second instance of the control channel in the second frequency band that overlaps with the third frequency band. receiving, at a wireless device, a scheduling indicator on a first instance of a control channel; determining that a data transmission is scheduled for the wireless device based at least in part on the received scheduling indicator; identifying a first frequency band associated with the data transmission; identifying a second frequency band associated with a second instance of the control channel; identifying a third frequency band to monitor based at least in part on the first and second frequency bands and a bandwidth capability of the wireless device, wherein the third frequency band includes the first frequency band, and wherein the third frequency band comprises an associated bandwidth that is based at least in part on the bandwidth capability of the wireless device; and receiving the data transmission in the first frequency band and a portion of the second instance of the control channel in the second frequency band that overlaps with the third frequency band.
A battery-monitoring apparatus for monitoring a plurality of battery cells each having an actual voltage-sourcing level that is at or above a specified output-level corresponding to a maximum voltage differential measurable by a channel of a multichannel battery controller, the apparatus comprising: the multichannel battery controller; an intermediate cell terminal operational as a voltage node; switching circuitry configured and arranged to be selectively activated for passing current; a bridging circuit configured and arranged to, in response to activation of the switching circuitry, pass current to distribute energy from a particular one of the plurality of battery cells to the voltage node, such that the voltage at the voltage node is intermediate a voltage at a high-voltage terminal and a voltage at a low-voltage terminal of the particular battery cell; and a voltage-measurement circuit ; the voltage-measurement circuit being configured and arranged to provide an indication of the actual voltage-sourcing level across the particular battery cell by ascertaining, in respective first and second channels of the multichannel battery controller, voltage differentials between the voltage node and respective voltage nodes of the particular battery cell, the ascertained voltage differentials being less than the specified output-level, and to combine the ascertained voltage differentials by adding them to provide an indication of the actual voltage-sourcing level of the particular battery cell. the multichannel battery controller; an intermediate cell terminal operational as a voltage node; switching circuitry configured and arranged to be selectively activated for passing current; a bridging circuit configured and arranged to, in response to activation of the switching circuitry, pass current to distribute energy from a particular one of the plurality of battery cells to the voltage node, such that the voltage at the voltage node is intermediate a voltage at a high-voltage terminal and a voltage at a low-voltage terminal of the particular battery cell; and a voltage-measurement circuit ; the voltage-measurement circuit being configured and arranged to provide an indication of the actual voltage-sourcing level across the particular battery cell by ascertaining, in respective first and second channels of the multichannel battery controller, voltage differentials between the voltage node and respective voltage nodes of the particular battery cell, the ascertained voltage differentials being less than the specified output-level, and to combine the ascertained voltage differentials by adding them to provide an indication of the actual voltage-sourcing level of the particular battery cell.
Electronic chip comprising at least: - an electronic circuit arranged at a front face of a substrate ; - a first protective layer arranged on a rear face of the substrate ; - a resistive element arranged on the first protective layer and facing at least one part of the electronic circuit , mechanically supported by the first protective layer and connected electrically and/or in an inductive manner to the electronic circuit such that a modification of the value of the electrical resistance of the resistive element can be detected by the electronic circuit ; - a second protective layer covering at least the resistive element and the first protection layer and such that the lateral walls of the first and second protective layers can be accessed to be etched during a chemical etching; and in which: - the first protective layer comprises at least one dielectric material having a resistance to chemical etching by at least one chemical etching agent less than or equal to that of a dielectric material of the second protective layer , - the dielectric materials of the first and second protective layers are polymers, - the chemical etching agent corresponds to a solution comprising KOH and/or TMAH and/or hydrofluoric acid and/or nitric acid, - the resistive element comprises at least one conducting track having at least one serpentine pattern, and - the resistance to chemical etching by said at least one chemical etching agent and the thickness of each of the first and second protective layers are such that the first protection layer is eliminated by etching before the second protective layer . - an electronic circuit arranged at a front face of a substrate ; - a first protective layer arranged on a rear face of the substrate ; - a resistive element arranged on the first protective layer and facing at least one part of the electronic circuit , mechanically supported by the first protective layer and connected electrically and/or in an inductive manner to the electronic circuit such that a modification of the value of the electrical resistance of the resistive element can be detected by the electronic circuit ; - a second protective layer covering at least the resistive element and the first protection layer and such that the lateral walls of the first and second protective layers can be accessed to be etched during a chemical etching; - the first protective layer comprises at least one dielectric material having a resistance to chemical etching by at least one chemical etching agent less than or equal to that of a dielectric material of the second protective layer , - the dielectric materials of the first and second protective layers are polymers, - the chemical etching agent corresponds to a solution comprising KOH and/or TMAH and/or hydrofluoric acid and/or nitric acid, - the resistive element comprises at least one conducting track having at least one serpentine pattern, and - the resistance to chemical etching by said at least one chemical etching agent and the thickness of each of the first and second protective layers are such that the first protection layer is eliminated by etching before the second protective layer .
A device comprised by a user terminal provided with a removable storage medium configured to store therein subscriber information, the device comprising: a controller configured to control a cell reselection in an idle mode, wherein the removable storage medium is configured to store therein a preconfigured frequency as a frequency available for a D2D proximity service, and in case that the user terminal in the idle mode determines to start the D2D proximity service, the controller is configured to set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection. a controller configured to control a cell reselection in an idle mode, wherein the removable storage medium is configured to store therein a preconfigured frequency as a frequency available for a D2D proximity service, and in case that the user terminal in the idle mode determines to start the D2D proximity service, the controller is configured to set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection. set the preconfigured frequency as a frequency of a highest priority in the cell reselection, and use the preconfigured frequency to perform the D2D proximity service, even in case that an appropriate cell belonging to the preconfigured frequency is not discovered in the cell reselection.
A bearing assembly for a gas turbine engine comprising at least two bearings axially spaced from one another relative to a central axis , and a squirrel cage secured to a casing of a gas turbine engine , the squirrel cage supporting respective bearing loads of the at least two bearings , wherein the squirrel cage has a frangible section between the at least two bearings configured to fail upon application of a load greater than a preselected threshold bearing load.
An electronic apparatus comprising: a microphone; a communication interface; a memory configured to store at least one instruction; and a processor configured to execute the at least one instruction to: obtain a user voice input for registering a wake-up voice input via the microphone; input the user voice input into a trained neural network model to obtain a first feature vector corresponding to text included in the user voice input; receive a verification data set determined based on information related to the text included in the user voice input from an external server via the communication interface; input a verification voice input included in the verification data set into the trained neural network model to obtain a second feature vector corresponding to the verification voice input; and identify whether to register the user voice input as the wake-up voice input based on a similarity between the first feature vector and the second feature vector. a microphone; a communication interface; a memory configured to store at least one instruction; and a processor configured to execute the at least one instruction to: obtain a user voice input for registering a wake-up voice input via the microphone; input the user voice input into a trained neural network model to obtain a first feature vector corresponding to text included in the user voice input; receive a verification data set determined based on information related to the text included in the user voice input from an external server via the communication interface; input a verification voice input included in the verification data set into the trained neural network model to obtain a second feature vector corresponding to the verification voice input; and identify whether to register the user voice input as the wake-up voice input based on a similarity between the first feature vector and the second feature vector. obtain a user voice input for registering a wake-up voice input via the microphone; input the user voice input into a trained neural network model to obtain a first feature vector corresponding to text included in the user voice input; receive a verification data set determined based on information related to the text included in the user voice input from an external server via the communication interface; input a verification voice input included in the verification data set into the trained neural network model to obtain a second feature vector corresponding to the verification voice input; and identify whether to register the user voice input as the wake-up voice input based on a similarity between the first feature vector and the second feature vector.
A method for machine processing at least one electrical line , incorporating the steps of: Inserting a first end of the electrical line into a joining aid from a first side of the joining aid , transferring the first end of the electrical line from a second side, different from the first side, of the joining aid into a contact part casing , wherein the electrical line is held by the joining aid and/or the contact part casing during the transfer, characterized by the method further incorporating the step of: twisting a first and a second electrical line with each other while the first ends of the electrical lines are held in the joining aid . Inserting a first end of the electrical line into a joining aid from a first side of the joining aid , transferring the first end of the electrical line from a second side, different from the first side, of the joining aid into a contact part casing , wherein the electrical line is held by the joining aid and/or the contact part casing during the transfer, characterized by the method further incorporating the step of: twisting a first and a second electrical line with each other while the first ends of the electrical lines are held in the joining aid .
A marine propulsion unit comprising: a duct including a stator ; a propeller including a rim including a rotor disposed at a position that faces the stator and a blade provided radially inward of the rim ; a steering shaft that supports the duct such that the duct is steerable; and a motor controller that controls rotational driving of the propeller , characterized by a casing provided separately from the steering shaft and that extends along a rotation axis (A) of the propeller , wherein the motor controller is disposed in the casing , wherein the casing is fixed to the duct so as to be steerable together with the duct . a duct including a stator ; a propeller including a rim including a rotor disposed at a position that faces the stator and a blade provided radially inward of the rim ; a steering shaft that supports the duct such that the duct is steerable; and a motor controller that controls rotational driving of the propeller , characterized by a casing provided separately from the steering shaft and that extends along a rotation axis (A) of the propeller , wherein the motor controller is disposed in the casing , wherein the casing is fixed to the duct so as to be steerable together with the duct .
A method for preparing the conjugated diene-based polymer catalyzed with a lanthanide rare earth element and having a ratio ((-S/R)/MWD) of a stress/relaxation (S/R) value at 100°C and molecular weight distribution (MWD) of 0.30 or more, the method comprising: polymerizing a conjugated diene-based monomer in the presence of a lanthanide rare earth element catalyst composition to prepare an active polymer comprising an organometal part, wherein the lanthanide rare earth element catalyst composition comprises a lanthanide rare earth element-containing compound, a first alkylating agent, a second alkylating agent, a halide and a conjugated diene-based monomer in a molar ratio of 1 : 100-200 : 40-60 : 2-4 : 20-50 (= lanthanide rare earth element-containing compound : first alkylating agent : second alkylating agent : halide : conjugated diene-based monomer) and the catalyst composition is prepared by mixing the lanthanide rare earth element-containing compound, the first alkylating agent, the second alkylating agent, the halide and the conjugated diene-based monomer at a temperature of -30°C to -20°C, and standing at a temperature of -30°C to -20°C for 24 hours to 36 hours. the method comprising: polymerizing a conjugated diene-based monomer in the presence of a lanthanide rare earth element catalyst composition to prepare an active polymer comprising an organometal part, wherein the lanthanide rare earth element catalyst composition comprises a lanthanide rare earth element-containing compound, a first alkylating agent, a second alkylating agent, a halide and a conjugated diene-based monomer in a molar ratio of 1 : 100-200 : 40-60 : 2-4 : 20-50 (= lanthanide rare earth element-containing compound : first alkylating agent : second alkylating agent : halide : conjugated diene-based monomer) and the catalyst composition is prepared by mixing the lanthanide rare earth element-containing compound, the first alkylating agent, the second alkylating agent, the halide and the conjugated diene-based monomer at a temperature of -30°C to -20°C, and standing at a temperature of -30°C to -20°C for 24 hours to 36 hours.
A method for manufacturing an electrode, comprising the steps of: (S10) heating a metal thin film for a current collector; (S20) stretching the heated metal thin film to 102-125%; and (S30) cooling the heated metal thin film; wherein step (S30) further comprises the following steps (S34) and (S35): (S34) applying a slurry for forming an electrode active material layer to the surface of the stretched metal thin film; and (S35) drying the slurry for forming an electrode active material layer; or wherein step (S30) further comprises the following steps (S36) to (S38): (S36) cooling the temperature of the surface of the metal thin film to room temperature (25°C); (S37) applying a slurry for forming an electrode active material layer to the surface of the cooled metal thin film; and (S38) drying the slurry for forming an electrode active material layer. (S10) heating a metal thin film for a current collector; (S20) stretching the heated metal thin film to 102-125%; and (S30) cooling the heated metal thin film; wherein step (S30) further comprises the following steps (S34) and (S35): (S34) applying a slurry for forming an electrode active material layer to the surface of the stretched metal thin film; and (S35) drying the slurry for forming an electrode active material layer; (S34) applying a slurry for forming an electrode active material layer to the surface of the stretched metal thin film; and (S35) drying the slurry for forming an electrode active material layer; or wherein step (S30) further comprises the following steps (S36) to (S38): (S36) cooling the temperature of the surface of the metal thin film to room temperature (25°C); (S37) applying a slurry for forming an electrode active material layer to the surface of the cooled metal thin film; and (S38) drying the slurry for forming an electrode active material layer. (S36) cooling the temperature of the surface of the metal thin film to room temperature (25°C); (S37) applying a slurry for forming an electrode active material layer to the surface of the cooled metal thin film; and (S38) drying the slurry for forming an electrode active material layer.
A method for switching time slot configuration in a Flex Ethernet, FlexE, protocol, comprising: configuring , by a transmitting end, a time slot configuration scheme corresponding to at least one fault and transmitting the time slot configuration scheme to a receiving end, before a fault occurs in a subcalendar of a FlexE group; determining , by the transmitting end, a time slot configuration scheme corresponding to the fault according to the fault, in response to the fault occurring in the subcalendar of the FlexE group; and negotiating , by the transmitting end, with the receiving end to switch to the time slot configuration scheme corresponding to the fault, wherein the time slot configuration scheme comprises time slot configuration schemes for protection operations in all or multiple fault scenarios, or time slot configuration schemes for protection operations in single-subcalendar fault scenarios, and each fault corresponds to one time slot configuration scheme corresponding to one serial number, and the one time slot configuration scheme is time slot configuration contents to be reconfigured after the fault occurs. configuring , by a transmitting end, a time slot configuration scheme corresponding to at least one fault and transmitting the time slot configuration scheme to a receiving end, before a fault occurs in a subcalendar of a FlexE group; determining , by the transmitting end, a time slot configuration scheme corresponding to the fault according to the fault, in response to the fault occurring in the subcalendar of the FlexE group; and negotiating , by the transmitting end, with the receiving end to switch to the time slot configuration scheme corresponding to the fault, wherein the time slot configuration scheme comprises time slot configuration schemes for protection operations in all or multiple fault scenarios, or time slot configuration schemes for protection operations in single-subcalendar fault scenarios, and each fault corresponds to one time slot configuration scheme corresponding to one serial number, and the one time slot configuration scheme is time slot configuration contents to be reconfigured after the fault occurs.
A method for editing a machining program for a machine tool , the method comprising: obtaining tool information regarding a tool (Ta, T1, T2) mountable on a machine tool ; displaying a program editing window and at least one assistance window such that the program editing window and the at least one assistance window are arranged side by side, the program editing window being for displaying a program code of the machining program for controlling the machine tool , the at least one assistance window being for displaying the tool information regarding a tool (Ta, T1, T2) and a controlling method for controlling the tool (Ta, T1, T2); specifying, in the program code, an insertion position to insert a new code into the program code; and upon selection of the at least one piece of information from the tool information and the controlling method in the at least one assistance window by a programmer, inserting a command into the program code at the insertion position, even when the tool information or the controlling method is displayed in the at least one assistance window , the command corresponding to the at least one piece of information. obtaining tool information regarding a tool (Ta, T1, T2) mountable on a machine tool ; displaying a program editing window and at least one assistance window such that the program editing window and the at least one assistance window are arranged side by side, the program editing window being for displaying a program code of the machining program for controlling the machine tool , the at least one assistance window being for displaying the tool information regarding a tool (Ta, T1, T2) and a controlling method for controlling the tool (Ta, T1, T2); specifying, in the program code, an insertion position to insert a new code into the program code; and upon selection of the at least one piece of information from the tool information and the controlling method in the at least one assistance window by a programmer, inserting a command into the program code at the insertion position, even when the tool information or the controlling method is displayed in the at least one assistance window , the command corresponding to the at least one piece of information.