mhurhangee/ep-ind-claims huggingface dataset:
Method of controlling a utility grid side converter portion of at least one converter of at least one wind turbine being connected via a generator side converter portion to a generator of the wind turbine, the utility grid side converter portion being connectable to a wind park grid of a wind park during black start of the wind park, the method comprising: in a loop, ramping up a utility grid side converter voltage reference (Vref, 105, 77) defining a desired output voltage of the utility grid side converter portion to the wind park grid; assessing: - a power related condition including a limit of the amount of active power the converter can provide, and - a wind park grid frequency related condition including a maximum allowable frequency deviation from a target wind park grid frequency or a converter current related condition including a converter current limit; and continuing the ramping up, unless at least one of the two conditions is violated, in which case the ramping up of the utility grid side converter voltage reference (Vref, 105, 77) is frozen, and until the black start process is completed. in a loop, ramping up a utility grid side converter voltage reference (Vref, 105, 77) defining a desired output voltage of the utility grid side converter portion to the wind park grid; assessing: - a power related condition including a limit of the amount of active power the converter can provide, and - a wind park grid frequency related condition including a maximum allowable frequency deviation from a target wind park grid frequency or a converter current related condition including a converter current limit; and - a power related condition including a limit of the amount of active power the converter can provide, and - a wind park grid frequency related condition including a maximum allowable frequency deviation from a target wind park grid frequency or a converter current related condition including a converter current limit; and continuing the ramping up, unless at least one of the two conditions is violated, in which case the ramping up of the utility grid side converter voltage reference (Vref, 105, 77) is frozen, and until the black start process is completed.
Fuel injection valve for internal combustion engines, the fuel injection valve having a pressure chamber with a nozzle needle which is longitudinally movable in said pressure chamber and which interacts with a nozzle seat and which, by way of its longitudinal movement, opens and closes the connection of the pressure chamber to an injection opening; a control chamber which can be filled with pressurized fuel via an inflow throttle and which controls a closing force on the nozzle needle; a control chamber sleeve for guiding the nozzle needle; a valve body for receiving a control piston with an outflow throttle which is connectable on one side to the control chamber and on another side to a low-pressure chamber; wherein the control chamber is separated from the pressure chamber by the control chamber sleeve and by the valve body; characterized in that the control chamber sleeve is connected cohesively to the valve body, wherein a face surface of the control chamber sleeve is welded or adhesively bonded to a face surface of the valve body.
A method, comprising: detecting, by a User Equipment, UE, camped on a first Radio Access Technology, RAT, a problem with a radio connection on the first RAT at a first time; and in response to detecting the problem with the radio connection on the first RAT at the first time, if the UE is involved in a voice call and/or a multimedia call before the problem is detected, blocking, by the UE, Non Access Stratum, NAS, registration on a second RAT in a time period between the first time and a second time later than the first time for allowing the UE to resume connection with the first RAT, wherein the second RAT is different than the first RAT. detecting, by a User Equipment, UE, camped on a first Radio Access Technology, RAT, a problem with a radio connection on the first RAT at a first time; and in response to detecting the problem with the radio connection on the first RAT at the first time, if the UE is involved in a voice call and/or a multimedia call before the problem is detected, blocking, by the UE, Non Access Stratum, NAS, registration on a second RAT in a time period between the first time and a second time later than the first time for allowing the UE to resume connection with the first RAT, wherein the second RAT is different than the first RAT.
A security device (12, 30) that comprises - an elongated substrate having a long axis and a short axis; - a planar array of micro-sized stitched icons positioned on or within a surface of the substrate, each stitched icon comprising slices from two or more icon designs, wherein each slice is spaced slightly apart from, abuts, or slightly overlaps an adjacent slice(s), the stitched icons are arranged in a plurality of mutually perpendicular columns and rows, wherein the icon designs or portions thereof embodied in the slices that make up each stitched icon change or transition either down each column or across each row; and - a corresponding planar array of microlenses disposed substantially parallel to the planar array of stitched icons with focal points of at least some of the microlenses being substantially aligned with slices in the stitched icons, wherein the distance between the planar arrays is sufficient for the microlenses to form one or more synthetically magnified images (26, 28) of the transitioning icon designs, and wherein the synthetically magnified images (26, 28) smoothly transition from one form to at least one other form and then, optionally, back to the original form, as the device is tilted along its horizontal axis or as the device is tilted along its vertical axis. - an elongated substrate having a long axis and a short axis; - a planar array of micro-sized stitched icons positioned on or within a surface of the substrate, each stitched icon comprising slices from two or more icon designs, wherein each slice is spaced slightly apart from, abuts, or slightly overlaps an adjacent slice(s), the stitched icons are arranged in a plurality of mutually perpendicular columns and rows, wherein the icon designs or portions thereof embodied in the slices that make up each stitched icon change or transition either down each column or across each row; and - a corresponding planar array of microlenses disposed substantially parallel to the planar array of stitched icons with focal points of at least some of the microlenses being substantially aligned with slices in the stitched icons, wherein the distance between the planar arrays is sufficient for the microlenses to form one or more synthetically magnified images (26, 28) of the transitioning icon designs, and wherein the synthetically magnified images (26, 28) smoothly transition from one form to at least one other form and then, optionally, back to the original form, as the device is tilted along its horizontal axis or as the device is tilted along its vertical axis.
A method of repairing an acoustic panel for an aircraft nacelle comprising: scanning, using a camera system, a perforation pattern in a damaged portion of the acoustic panel; forming a replacement patch; drilling a plurality of perforations (631, 632, 633) in the replacement patch with a computer numeric control machine, wherein the computer numeric control machine uses the perforation pattern to drill the plurality of perforations (631, 632, 633); removing the damaged portion from the acoustic panel; and bonding the replacement patch to the acoustic panel. scanning, using a camera system, a perforation pattern in a damaged portion of the acoustic panel; forming a replacement patch; drilling a plurality of perforations (631, 632, 633) in the replacement patch with a computer numeric control machine, wherein the computer numeric control machine uses the perforation pattern to drill the plurality of perforations (631, 632, 633); removing the damaged portion from the acoustic panel; and bonding the replacement patch to the acoustic panel.
A hybrid vehicle control device for a hybrid vehicle, wherein: the hybrid vehicle includes a driveline, wherein the driveline includes an engine, a motor, and a belt-type continuously variable transmission; the belt-type continuously variable transmission includes a primary pulley, a secondary pulley, and a belt, wherein the belt is wound over the primary pulley and the secondary pulley, and configured to be clamped by a primary pulley pressure (Ppri) at the primary pulley and a secondary pulley pressure (Psec) at the secondary pulley; and the hybrid vehicle employs an HEV mode and an EV mode as drive modes, wherein the HEV mode employs the engine and the motor as drive sources, and wherein the EV mode employs the motor as a drive source without employing the engine as a drive source; the hybrid vehicle control device comprising a pulley pressure correction control section configured to determine the primary pulley pressure (Ppri) and the secondary pulley pressure (Psec), based on an input torque component inputted to the belt-type continuously variable transmission, and a brake torque correction quantity as an inertia torque correction component, under brake-deceleration; characterized in that the pulley pressure correction control section is further configured to set smaller the brake torque correction quantity under brake-deceleration with the EV mode selected than that with the HEV mode selected. the hybrid vehicle includes a driveline, wherein the driveline includes an engine, a motor, and a belt-type continuously variable transmission; the belt-type continuously variable transmission includes a primary pulley, a secondary pulley, and a belt, wherein the belt is wound over the primary pulley and the secondary pulley, and configured to be clamped by a primary pulley pressure (Ppri) at the primary pulley and a secondary pulley pressure (Psec) at the secondary pulley; and the hybrid vehicle employs an HEV mode and an EV mode as drive modes, wherein the HEV mode employs the engine and the motor as drive sources, and wherein the EV mode employs the motor as a drive source without employing the engine as a drive source; the hybrid vehicle control device comprising a pulley pressure correction control section configured to determine the primary pulley pressure (Ppri) and the secondary pulley pressure (Psec), based on an input torque component inputted to the belt-type continuously variable transmission, and a brake torque correction quantity as an inertia torque correction component, under brake-deceleration; characterized in that the pulley pressure correction control section is further configured to set smaller the brake torque correction quantity under brake-deceleration with the EV mode selected than that with the HEV mode selected.
A portable terminal, comprising a main machine body and a battery, wherein the main machine body has an opening portion for receiving a bottom portion of the battery and is engaged with the battery in a transverse direction and a longitudinal direction, one of the main machine body and the battery is provided with a pushing button moveable in the longitudinal direction, with a compression spring being provided therebetween, and the other one of the main machine body and the battery is provided with an engaging groove extending in the longitudinal direction, the main machine body and the battery are engaged in an axial direction via the pushing button and the engaging groove, and characterised in that, the portable terminal further comprises a locking cover connected to the pushing button, a torsion spring is provided between the locking cover and the pushing button such that the locking cover and the pushing button rotate about an axis of a spring body of the torsion spring, and when the torsion spring is returned, a longitudinal distance between one end of the locking cover and the battery or the main machine body provided with the compression spring is less than a distance by which the pushing button is inserted into the engaging groove.
A method for using a plurality of planned markers with a drilling plan comprising: - obtaining, by a computer system, a marker archive containing a plurality of baseline markers from at least one existing well, wherein each of the baseline markers corresponds to a waveform from a first log file obtained from an existing first well, and wherein each of the baseline markers is associated within the marker archive with a name, a true vertical depth value of the corresponding waveform, and a waveform representation of the corresponding waveform; - creating, by the computer system, a plurality of planned markers for a drilling plan for a second well; - associating (204; 904), by the computer system, each of the plurality of planned markers with one of the baseline markers; - assigning, by the computer system, an estimated TVD value and an uncertainty range to each of the planned markers; and - saving, by the computer system, each of the planned markers with their estimated TVD values and uncertainty ranges. - obtaining, by a computer system, a marker archive containing a plurality of baseline markers from at least one existing well, wherein each of the baseline markers corresponds to a waveform from a first log file obtained from an existing first well, and wherein each of the baseline markers is associated within the marker archive with a name, a true vertical depth value of the corresponding waveform, and a waveform representation of the corresponding waveform; - creating, by the computer system, a plurality of planned markers for a drilling plan for a second well; - associating (204; 904), by the computer system, each of the plurality of planned markers with one of the baseline markers; - assigning, by the computer system, an estimated TVD value and an uncertainty range to each of the planned markers; and - saving, by the computer system, each of the planned markers with their estimated TVD values and uncertainty ranges.
A nutritional composition, which is an infant formula, a follow on formula or a young child formula, comprising digestible carbohydrates, protein, lipid, urea and non-digestible oligosaccharides, wherein the urea is present in an amount of a. at least 1.13 wt%, preferably 1.13 to 5.6 wt%, based on total protein, b. at least 0.11 wt%, preferably 0.11 to 0.55 wt%, based on dry weight of the composition, and/or c. at least 15 mg, preferably 15 to 75 mg, per 100 ml, and non-digestible oligosaccharides are present in an amount of d. at least 1.5 wt%, preferably 1.5 to 15 wt%, based on dry weight of the composition, and/or e. at least 0.2 g, preferably 0.2 to 2 g, per 100 ml. a. at least 1.13 wt%, preferably 1.13 to 5.6 wt%, based on total protein, b. at least 0.11 wt%, preferably 0.11 to 0.55 wt%, based on dry weight of the composition, and/or c. at least 15 mg, preferably 15 to 75 mg, per 100 ml, and non-digestible oligosaccharides are present in an amount of d. at least 1.5 wt%, preferably 1.5 to 15 wt%, based on dry weight of the composition, and/or e. at least 0.2 g, preferably 0.2 to 2 g, per 100 ml.
Throttle valve housing for a throttle valve arrangement for an internal combustion engine, wherein the throttle valve housing is used to accommodate a pivotally mounted throttle valve and provides movement space for the throttle valve, wherein the the throttle valve housing has an inflow opening on a first side for receiving a fluid and the throttle valve housing has an outflow opening on a second side for dispensing a fluid and wherein at least one sealing piece projecting into the flow cross-section is arranged in the movement space of the throttle valve housing and is used as a stop for the throttle valve housing in the closed position, wherein the sealing piece is formed in the wall of the throttle valve housing in a non-cutting manner, wherein the sealing piece has a triangular profile with a flow edge, with a sealing edge and with a tip, wherein the flow edge and the sealing edge each originate from a base level G of the throttle valve housing with a base point FP and converge at the tip, wherein the tip projects furthest into the flow cross-section and wherein the sealing edge is formed on the side of the sealing piece that the throttle valve strikes in the closed position, wherein the triangular profile of the sealing piece is designed asymmetrically characterized in that the sealing edge reaches below the base level of the throttle valve body at the base point.
A method, comprising: receiving, at a network entity, a circuit switched paging request, wherein the paging request is for a user equipment, UE, that is attached to a packet data network and is registered to a circuit switched network; obtaining, by the network entity, a calling party number from the circuit switched network, the calling party number being information corresponding to a call from a party calling the UE; generating, by the network entity, a general circuit service notification application, GCSNA, message; and transmitting, by the network entity to the UE, the GCSNA message, the transmitting occurring while the UE is attached to the packet data network and while the UE is operating in an active state, wherein the active state is one in which the UE is active for receiving and transmitting packet data or for receiving and transmitting signaling messages, characterized in that: the GCSNA message comprises more than one message of a circuit switch technology, wherein one of the more than one messages comprises the calling party number, and the GCSNA message further comprises an indicator which informs a receiving UE about the number of the more than one messages of said circuit switch technology included in the GCSNA message. receiving, at a network entity, a circuit switched paging request, wherein the paging request is for a user equipment, UE, that is attached to a packet data network and is registered to a circuit switched network; obtaining, by the network entity, a calling party number from the circuit switched network, the calling party number being information corresponding to a call from a party calling the UE; generating, by the network entity, a general circuit service notification application, GCSNA, message; and transmitting, by the network entity to the UE, the GCSNA message, the transmitting occurring while the UE is attached to the packet data network and while the UE is operating in an active state, wherein the active state is one in which the UE is active for receiving and transmitting packet data or for receiving and transmitting signaling messages, characterized in that: the GCSNA message comprises more than one message of a circuit switch technology, wherein one of the more than one messages comprises the calling party number, and the GCSNA message further comprises an indicator which informs a receiving UE about the number of the more than one messages of said circuit switch technology included in the GCSNA message. the GCSNA message comprises more than one message of a circuit switch technology, wherein one of the more than one messages comprises the calling party number, and the GCSNA message further comprises an indicator which informs a receiving UE about the number of the more than one messages of said circuit switch technology included in the GCSNA message.
A method for communicating in a wireless communication network, the method comprising: generating, at a first communication device, a trigger frame to trigger simultaneous uplink transmissions by multiple second communication devices, wherein the trigger frame includes a padding portion, and wherein a length of the padding portion is determined based on respective time duration requirements of the multiple second communication devices, wherein the respective time duration requirements are for preparing uplink transmission by the corresponding second communication devices; transmitting, by the first communication device, the trigger frame to the multiple second communication devices; and receiving, at the first communication device, the simultaneous uplink transmissions, triggered by the trigger frame, from the multiple second communication devices. generating, at a first communication device, a trigger frame to trigger simultaneous uplink transmissions by multiple second communication devices, wherein the trigger frame includes a padding portion, and wherein a length of the padding portion is determined based on respective time duration requirements of the multiple second communication devices, wherein the respective time duration requirements are for preparing uplink transmission by the corresponding second communication devices; transmitting, by the first communication device, the trigger frame to the multiple second communication devices; and receiving, at the first communication device, the simultaneous uplink transmissions, triggered by the trigger frame, from the multiple second communication devices.
Method for the open-loop control and/or closed-loop control of a cleaning process of a media filter, particularly a gravel bed filter, multilayer filter or activated charcoal filter, of a filter system for the filtration of an untreated fluid with the media filter, wherein the open-loop control and/or closed-loop control takes place on the basis of a fuzzy logic and/or artificial neural networks; characterized in that the cleaning process comprises a backwashing, wherein the backwashing comprises at least three cleaning steps, including at least one pre-rinsing step and at least a first and a second main rinsing step, a cleaning success of at least one cleaning step of the backwashing is assessed on the basis of the fuzzy logic and/or artificial neural networks based on captured process variables of the filter system, and the captured process variables include a turbidity of the untreated fluid in a filter inlet of the media filter, a turbidity of the filtrate, and/or a turbidity of a backwashing medium in a backwashing outlet.