mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications at a user equipment, UE (115; 210; 510; 705; 805; 905; 1005), comprising: identifying (520; 1605) multiple configurations available to the UE for autonomous uplink transmissions, each of the multiple configurations being associated with one corresponding aggregation factor that indicates a number of times a transmission is to be repeated, wherein at least two of the multiple configurations are associated with different aggregation factors; selecting (525; 1610) one of the multiple configurations for autonomous uplink transmissions; and transmitting (530; 1615), to a base station (105; 205; 505; 1105; 1205; 1305; 1405), the autonomous uplink transmissions in accordance with the selected configuration, wherein transmitting the autonomous uplink transmissions in accordance with the selected configuration implicitly indicates to the base station that the aggregation factor associated with the selected configuration is to be used for the autonomous uplink transmissions; and wherein transmitting (530; 1615) the autonomous uplink transmissions comprises: transmitting the autonomous uplink transmissions such that a first symbol of each autonomous uplink transmission is transmitted only at predefined symbol locations within a slot or mini-slot, wherein the predefined symbol locations are associated with a length of one or more mini-slots in the slot. identifying (520; 1605) multiple configurations available to the UE for autonomous uplink transmissions, each of the multiple configurations being associated with one corresponding aggregation factor that indicates a number of times a transmission is to be repeated, wherein at least two of the multiple configurations are associated with different aggregation factors; selecting (525; 1610) one of the multiple configurations for autonomous uplink transmissions; and transmitting (530; 1615), to a base station (105; 205; 505; 1105; 1205; 1305; 1405), the autonomous uplink transmissions in accordance with the selected configuration, wherein transmitting the autonomous uplink transmissions in accordance with the selected configuration implicitly indicates to the base station that the aggregation factor associated with the selected configuration is to be used for the autonomous uplink transmissions; and wherein transmitting (530; 1615) the autonomous uplink transmissions comprises: transmitting the autonomous uplink transmissions such that a first symbol of each autonomous uplink transmission is transmitted only at predefined symbol locations within a slot or mini-slot, wherein the predefined symbol locations are associated with a length of one or more mini-slots in the slot.
A wind turbine maintenance operation method , comprising: stationing a maintenance vehicle proximal to the wind turbine, initiating a maintenance operation on the wind turbine, deploying an unmanned air vehicle (UAV, 20) from the maintenance vehicle, wherein the UAV has a payload including a rescue package , positioning the UAV such that the rescue package is placed on the wind turbine, wherein the rescue package comprises one or more of an offshore survival suit, a defibrillator kit, safety descent kit, climbing equipment, breathing equipment, first aid package, fire protection clothing, and nutrition packages, and wherein the UAV is deployed from the maintenance vehicle in response to initiation of the maintenance event, or wherein the UAV is deployed from the maintenance vehicle in response to an emergency signal. stationing a maintenance vehicle proximal to the wind turbine, initiating a maintenance operation on the wind turbine, deploying an unmanned air vehicle (UAV, 20) from the maintenance vehicle, wherein the UAV has a payload including a rescue package , positioning the UAV such that the rescue package is placed on the wind turbine, wherein the rescue package comprises one or more of an offshore survival suit, a defibrillator kit, safety descent kit, climbing equipment, breathing equipment, first aid package, fire protection clothing, and nutrition packages, and wherein the UAV is deployed from the maintenance vehicle in response to initiation of the maintenance event, or wherein the UAV is deployed from the maintenance vehicle in response to an emergency signal.
A method for operating a receiving device , the method comprising: monitoring, by the receiving device , two or more signals from a transmitting device; detecting, by the receiving device , that at least a first triggering condition is met and a second triggering condition is met, and based thereon, sending, by the receiving device , a triggering signal to the transmitting device to trigger a beam failure recovery procedure; wherein detecting that the first triggering condition is met comprises: determining that one or more first reliability measures satisfy the first triggering condition based on comparing the one or more first reliability measures with a first threshold, wherein the one or more first reliability measures are used for indicating a result of a decoding attempt of a channel corresponding to a first signal in the two or more signals; wherein detecting that the second triggering condition is met comprises: comparing one or more second signal quality with a second threshold, and determining that the one or more second signal quality measures satisfy the second triggering condition, wherein a second signal in the two or more signals corresponds to the one or more second signal quality measures; and wherein the second signal quality measures are different from the first reliability measures; wherein the first signal and the second signal are different. monitoring, by the receiving device , two or more signals from a transmitting device; detecting, by the receiving device , that at least a first triggering condition is met and a second triggering condition is met, and based thereon, sending, by the receiving device , a triggering signal to the transmitting device to trigger a beam failure recovery procedure; wherein detecting that the first triggering condition is met comprises: determining that one or more first reliability measures satisfy the first triggering condition based on comparing the one or more first reliability measures with a first threshold, wherein the one or more first reliability measures are used for indicating a result of a decoding attempt of a channel corresponding to a first signal in the two or more signals; wherein detecting that the second triggering condition is met comprises: comparing one or more second signal quality with a second threshold, and determining that the one or more second signal quality measures satisfy the second triggering condition, wherein a second signal in the two or more signals corresponds to the one or more second signal quality measures; and wherein the second signal quality measures are different from the first reliability measures; wherein the first signal and the second signal are different.
System for measuring the level of gas in liquid form in a composite pressure vessel that uses electrical capacitance to perform the measuring wherein the system comprises: • a capacitive measuring unit for measuring the level of gas in liquid form in the pressure vessel, • at least two sensor electrodes connected to the capacitive measuring unit , • a communication unit for communicating the information measured by the capacitive measuring unit , and • a power unit for supplying power to at least one of the at least two electrodes, the capacitive measuring unit and the communication unit , characterised in that the capacitive measuring unit and the sensor electrodes is in the form of an elongated strip arranged to extend substantially the vertical height of an inner liner of the composite pressure vessel. • a capacitive measuring unit for measuring the level of gas in liquid form in the pressure vessel, • at least two sensor electrodes connected to the capacitive measuring unit , • a communication unit for communicating the information measured by the capacitive measuring unit , and • a power unit for supplying power to at least one of the at least two electrodes, the capacitive measuring unit and the communication unit , characterised in that
A method, comprising: removing a first hardware component from at least one connection of an amusement park , wherein the first hardware component is associated with a first set of functions; providing, to a controller , a first indication of the first hardware component being removed from the at least one connection; implementing a second hardware component of the amusement park utilizing the at least one connection, wherein the second hardware component is associated with a second set of functions, and wherein the first set of functions is different than the second set of functions; providing, to the controller , a second indication of the second hardware component being implemented utilizing the at least one connection; and registering the second hardware component with an amusement park system of the amusement park such that the second set of functions of the second hardware component is configured to be selectively driven according to one or more clock signals from a show clock of the amusement park . removing a first hardware component from at least one connection of an amusement park , wherein the first hardware component is associated with a first set of functions; providing, to a controller , a first indication of the first hardware component being removed from the at least one connection; implementing a second hardware component of the amusement park utilizing the at least one connection, wherein the second hardware component is associated with a second set of functions, and wherein the first set of functions is different than the second set of functions; providing, to the controller , a second indication of the second hardware component being implemented utilizing the at least one connection; and registering the second hardware component with an amusement park system of the amusement park such that the second set of functions of the second hardware component is configured to be selectively driven according to one or more clock signals from a show clock of the amusement park .
A HVDC disconnector comprising: a fixed contact comprising a guide and at least a first and second conducting members positioned in the guide wherein the first and second conducting members are both tulip contacts ; a movable contact comprising a first mobile arm and a second mobile arm having a conducting element , wherein the second mobile arm is movable from an open position to a closed position to close a connection between the fixed contact and the movable contact , characterised in that the HVDC disconnector further comprises a slider movably supported on the second mobile arm , the slider being movable between a first position wherein a contact surface of the conducting element is covered and a second position wherein the contact surface is exposed for contact with the first and second conducting members . a fixed contact comprising a guide and at least a first and second conducting members positioned in the guide wherein the first and second conducting members are both tulip contacts ; a movable contact comprising a first mobile arm and a second mobile arm having a conducting element , wherein the second mobile arm is movable from an open position to a closed position to close a connection between the fixed contact and the movable contact , characterised in that the HVDC disconnector further comprises a slider movably supported on the second mobile arm , the slider being movable between a first position wherein a contact surface of the conducting element is covered and a second position wherein the contact surface is exposed for contact with the first and second conducting members .
Method for producing direct reduced iron comprising the steps of - treating raw material comprising iron oxide containing material and carbonaceous containing material in a direct reduction unit at an elevated reaction temperature between 1000°C and 1200°C for a given time period for producing the direct reduced iron and hot off-gas , whereas the direct reduction unit is heated to the reaction temperature using electrically heating, so that the hot off-gas comprises 80% to 95% carbon dioxide, - purifying the off-gas from polluting constituents others than carbon dioxide and - obtaining carbon dioxide final gas from the purified off-gas in a carbon capture and storage process. - treating raw material comprising iron oxide containing material and carbonaceous containing material in a direct reduction unit at an elevated reaction temperature between 1000°C and 1200°C for a given time period for producing the direct reduced iron and hot off-gas , whereas the direct reduction unit is heated to the reaction temperature using electrically heating, so that the hot off-gas comprises 80% to 95% carbon dioxide, - purifying the off-gas from polluting constituents others than carbon dioxide and - obtaining carbon dioxide final gas from the purified off-gas in a carbon capture and storage process.
A method of analyzing one or more samples arranged in one or more of the wells of a microplate , wherein each of the wells is configured to receive one sample , the method comprising the steps of: - producing electromagnetic radiation having a first predetermined wavelength or wavelength range , - illuminating a sample in a well of a microplate by said electromagnetic radiation by transmitting the electromagnetic radiation to the sample from above the microplate via the upper end of the well , - transmitting light emitted by the sample and having a second predetermined wavelength or wavelength range via the upper end of the well to a detector , - determining intensity of light emitted by at least two predetermined measurement areas of the sample in the well , wherein for determining the intensity of light emitted by said at least two predetermined measurement areas of the sample , one measurement area at a time is illuminated, - based on the determined intensities of light emitted by said at least two measurement areas , determining a result value representing the total amount of light emitted by the sample and having the second predetermined wavelength or wavelength range , and - counting the number of spots from the sample in the well emitting light having the second predetermined wavelength or wavelength range . - producing electromagnetic radiation having a first predetermined wavelength or wavelength range , - illuminating a sample in a well of a microplate by said electromagnetic radiation by transmitting the electromagnetic radiation to the sample from above the microplate via the upper end of the well , - transmitting light emitted by the sample and having a second predetermined wavelength or wavelength range via the upper end of the well to a detector , - determining intensity of light emitted by at least two predetermined measurement areas of the sample in the well , wherein for determining the intensity of light emitted by said at least two predetermined measurement areas of the sample , one measurement area at a time is illuminated, - based on the determined intensities of light emitted by said at least two measurement areas , determining a result value representing the total amount of light emitted by the sample and having the second predetermined wavelength or wavelength range , and - counting the number of spots from the sample in the well emitting light having the second predetermined wavelength or wavelength range .
A connection structure of an inductive element, wherein the connection structure of the inductive element comprises: a circuit substrate having a through hole ; the inductive element and at least one connection wire , and each connection wire having a first end connected to the inductive element and a second end being opposite to the first end and having a fixed terminal disposed on the second end; and a supporting element configured to be disposed on a base body and further configured to support the connection wire ; characterized by the supporting element being combined with and disposed inside the inductive element , and the connection structure further comprising: a containing element formed on the supporting element and configured to provide a containing space , the supporting element being integrally formed with the containing element ; a positioning element contained in the containing space , and the positioning element having a positioning part ; a connecting element having a first connecting part and a second connecting part , and the first connecting part connected to the positioning part to clip the fixed terminal of the connection wire ; and a locking element having a locking part , and the locking part connected to the second connecting part to lock on the circuit substrate . a circuit substrate having a through hole ; the inductive element and at least one connection wire , and each connection wire having a first end connected to the inductive element and a second end being opposite to the first end and having a fixed terminal disposed on the second end; and a supporting element configured to be disposed on a base body and further configured to support the connection wire ; characterized by the supporting element being combined with and disposed inside the inductive element , and the connection structure further comprising: a containing element formed on the supporting element and configured to provide a containing space , the supporting element being integrally formed with the containing element ; a positioning element contained in the containing space , and the positioning element having a positioning part ; a connecting element having a first connecting part and a second connecting part , and the first connecting part connected to the positioning part to clip the fixed terminal of the connection wire ; and a locking element having a locking part , and the locking part connected to the second connecting part to lock on the circuit substrate . a containing element formed on the supporting element and configured to provide a containing space , the supporting element being integrally formed with the containing element ; a positioning element contained in the containing space , and the positioning element having a positioning part ; a connecting element having a first connecting part and a second connecting part , and the first connecting part connected to the positioning part to clip the fixed terminal of the connection wire ; and a locking element having a locking part , and the locking part connected to the second connecting part to lock on the circuit substrate .
Method for molding and assembling in the same mold (MC) an object formed by at least two pieces , comprising the steps of (i) molding a first piece with a first thread in a first cavity of a section of the mold (ii) molding a second piece with a second thread in a second cavity of a block of the mold and on a shaft of the mold, (iii) moving in translation the block to extract the second piece of the second cavity, (iv) moving in translation the section so that the first piece is positioned on the second piece , (v) rotating the shaft in order to screw the first thread and the second thread together. (i) molding a first piece with a first thread in a first cavity of a section of the mold (ii) molding a second piece with a second thread in a second cavity of a block of the mold and on a shaft of the mold, (iii) moving in translation the block to extract the second piece of the second cavity, (iv) moving in translation the section so that the first piece is positioned on the second piece , (v) rotating the shaft in order to screw the first thread and the second thread together.
An image forming apparatus that is capable of performing data communication with an image processing apparatus , the image processing apparatus being capable of performing data communication with a client and having a normal mode and a power-saving mode in which power consumption is less than in the normal mode, the image forming apparatus including a normal mode and a power-saving mode in which power consumption is less than in the normal mode, the image forming apparatus comprising an output unit configured to output, at a set time, a notification for performing a processing; a shift unit configured to receive the notification output from the output unit , and cause the image forming apparatus to shift from the power-saving mode to the normal mode; an identification unit configured to identify the processing to be performed after issuance of the notification from the output unit (S506); a determination unit configured to determine based on the identified processing whether or not to cause the image processing apparatus to shift from the power-saving mode to the normal mode (S507); and a notification unit configured to perform, based on determination by said determination unit to cause the image processing apparatus to shift from the power-saving mode to the normal mode, notification of an instruction for causing the image processing apparatus to shift from the power-saving mode to the normal mode, to the image processing apparatus (S505), wherein the set time is a time at which a processing reserved for execution is to be performed. an output unit configured to output, at a set time, a notification for performing a processing; a shift unit configured to receive the notification output from the output unit , and cause the image forming apparatus to shift from the power-saving mode to the normal mode; an identification unit configured to identify the processing to be performed after issuance of the notification from the output unit (S506); a determination unit configured to determine based on the identified processing whether or not to cause the image processing apparatus to shift from the power-saving mode to the normal mode (S507); and a notification unit configured to perform, based on determination by said determination unit to cause the image processing apparatus to shift from the power-saving mode to the normal mode, notification of an instruction for causing the image processing apparatus to shift from the power-saving mode to the normal mode, to the image processing apparatus (S505), wherein the set time is a time at which a processing reserved for execution is to be performed.
A process for manufacturing nanoparticles in a concentrated slurry based on an aqueous solvent by dispersion of inorganic particle agglomerates of calcium carbonate, using water as the aqueous solvent, characterized by treating said inorganic particles or their agglomerates in said aqueous solvent at a solids content of 30-75w-% of the slurry by adding dispersing agent(s) selected from the group of surface-active polymers consisting of polycarboxylates, polyacrylates, polyethers and fatty-acid derivatives or a mixture thereof, and by carrying out ultrasonic treatment at an intensity of 10 - 500 W/cm 2 , whereby a concentrated slurry is obtained, where the particle diameter is 50 - 200 nm.