mhurhangee/patent-ind-claim-en huggingface dataset:
A generator set comprising: an alternator; and an oil heating system including an oil pan structured to provide lubricating oil to an engine and including an oil outlet and an oil inlet , an immersion heater positioned at least partially within the oil pan, and a pump receiving oil from the oil outlet , and providing oil to the oil inlet , characterized by : a return line positioned within the oil pan , coupled to the oil inlet , and including an aperture for providing oil into the oil pan and aligned with the immersion heater . an alternator; and an oil heating system including an oil pan structured to provide lubricating oil to an engine and including an oil outlet and an oil inlet , an immersion heater positioned at least partially within the oil pan, and a pump receiving oil from the oil outlet , and providing oil to the oil inlet , an oil pan structured to provide lubricating oil to an engine and including an oil outlet and an oil inlet , an immersion heater positioned at least partially within the oil pan, and a pump receiving oil from the oil outlet , and providing oil to the oil inlet , characterized by : a return line positioned within the oil pan , coupled to the oil inlet , and including an aperture for providing oil into the oil pan and aligned with the immersion heater .
A method comprising: receiving , at an audio encoder , multiple streams (131 to 133) of audio data, wherein N is the number of the received multiple streams; the method further being characterised by : determining a plurality of similarity values corresponding to a plurality of streams among the received multiple streams; comparing each of the plurality of similarity values with a threshold; identifying , based on the comparison, L number of streams to be encoded among the N number of the received multiple streams, wherein L is less than N; and encoding the identified L number of streams to generate an encoded bitstream . determining a plurality of similarity values corresponding to a plurality of streams among the received multiple streams; comparing each of the plurality of similarity values with a threshold; identifying , based on the comparison, L number of streams to be encoded among the N number of the received multiple streams, wherein L is less than N; and encoding the identified L number of streams to generate an encoded bitstream .
A method performed by an apparatus and comprising: receiving, from at least one network device, first information indicating a first set of multiple transmission configuration indicator states; receiving, from the at least one network device, second information indicating a second set of multiple transmission configuration indicator states; determining an association between the first set of transmission configuration indicator states and a first set of transmission occasions; and determining an association between the second set of transmission configuration indicator states and a second set of transmission occasions, wherein the first set of transmission configuration indicator states and the second set of transmission configuration indicator states are indicated by a codepoint in downlink control information, the codepoint points to an index of an activated transmission configuration indicator table with at least one transmission configuration indicator state, and characterized in that a plurality of consecutive neighboring indices of the index are implicitly indicated. receiving, from at least one network device, first information indicating a first set of multiple transmission configuration indicator states; receiving, from the at least one network device, second information indicating a second set of multiple transmission configuration indicator states; determining an association between the first set of transmission configuration indicator states and a first set of transmission occasions; and determining an association between the second set of transmission configuration indicator states and a second set of transmission occasions, wherein the first set of transmission configuration indicator states and the second set of transmission configuration indicator states are indicated by a codepoint in downlink control information, the codepoint points to an index of an activated transmission configuration indicator table with at least one transmission configuration indicator state, and characterized in that a plurality of consecutive neighboring indices of the index are implicitly indicated.
A method for adjusting hearing aid configuration, where a user is wearing a hearing device , the method comprising: - transmitting a first background sound signal to the hearing device, - transmitting a first sound pattern to the hearing device, - evaluating , via a camera unit , a first pupillary information of a first eye of the user in response to a first sound scene comprising the first background sound signal and the first sound pattern , and wherein the evaluating is repeated (ID, ID') providing at least a second pupillary information of the first eye of the user in response to a second sound scene being different from the first sound scene , and where an averaged pupillary information is provided based on an average between the first pupillary information and at least the second pupillary information , and - selecting a pupillary fitting model based on the averaged pupillary information , - determining a first parameter and at least a second parameter of the pupillary fitting model based on the averaged pupillary information , - classifying the averaged pupillary information into either a first category or at least a second category based on the first parameter and the at least second parameter , and wherein the hearing aid configuration is adjusted if the averaged pupillary information is in the first category , and the hearing aid configuration is not adjusted if the averaged pupillary information is in the second category . - transmitting a first background sound signal to the hearing device, - transmitting a first sound pattern to the hearing device, - evaluating , via a camera unit , a first pupillary information of a first eye of the user in response to a first sound scene comprising the first background sound signal and the first sound pattern , and wherein the evaluating is repeated (ID, ID') providing at least a second pupillary information of the first eye of the user in response to a second sound scene being different from the first sound scene , and where an averaged pupillary information is provided based on an average between the first pupillary information and at least the second pupillary information , and - selecting a pupillary fitting model based on the averaged pupillary information , - determining a first parameter and at least a second parameter of the pupillary fitting model based on the averaged pupillary information , - classifying the averaged pupillary information into either a first category or at least a second category based on the first parameter and the at least second parameter , and
Polymeric pane (I), comprising: - a polymeric main body with a first pane surface , a second pane surface , and a peripheral pane edge , - a protective coating on the entire second pane surface and on at least part of the first pane surface , characterized in that an opaque material phase is applied on the first pane surface at least in the edge region of the pane, wherein the opaque material phase contains inorganic or organic fillers which increase the stability of the opaque material phase , and wherein a directly extruded-on sealing profile is mounted at least on the side of the first pane surface in the edge region of the pane on the opaque material phase via an adhesion promoter . - a polymeric main body with a first pane surface , a second pane surface , and a peripheral pane edge , - a protective coating on the entire second pane surface and on at least part of the first pane surface ,
A computer-implemented method comprising: receiving, by a security agent executing in kernel mode of a computing device, a request from an anti-malware component executing in user mode of the computing device; performing, by the security agent , a security action with respect to a malicious file detected on the computing device by the anti-malware component ; obtaining, by the security agent , a user token associated with a user session in which the malicious file was detected; providing, by the security agent , the user token to the anti-malware component ; using, by the anti-malware component , the user token to request a pointer to a Component Object Model, COM, interface for outputting a notification in context of the user session ; and outputting, via an output device of the computing device, the notification to indicate that the security action was performed, by receiving the pointer and calling a method of the COM interface. receiving, by a security agent executing in kernel mode of a computing device, a request from an anti-malware component executing in user mode of the computing device; performing, by the security agent , a security action with respect to a malicious file detected on the computing device by the anti-malware component ; obtaining, by the security agent , a user token associated with a user session in which the malicious file was detected; providing, by the security agent , the user token to the anti-malware component ; using, by the anti-malware component , the user token to request a pointer to a Component Object Model, COM, interface for outputting a notification in context of the user session ; and outputting, via an output device of the computing device, the notification to indicate that the security action was performed, by receiving the pointer and calling a method of the COM interface.
Method for monitoring a milling process of a printed circuit board having the steps: (a) detecting (S1) a rotational speed of a milling head of a milling machine and at least one further operating parameter of the milling machine during the milling process; wherein the further operating parameter is an electrical supply current for operating the milling machine, wherein in the case of a constant rotational speed a current spike of the supply current that is due in particular to mill chippings, preferably by comminuting mill chippings by the milling spindle, is detected, wherein the supply current is sampled in such a manner that the current spikes as a result of mill chippings, which have passed into the milling spindle, are detected, (b) evaluating (S2) the detected rotational speed and the detected operating parameter by a trained adaptive algorithm for identifying anomalies during the milling process, wherein a current spike of the supply current that is due to the comminuting of mill chippings is detected, said current spike having a characterising progression that is identified by the trained adaptive algorithm. (a) detecting (S1) a rotational speed of a milling head of a milling machine and at least one further operating parameter of the milling machine during the milling process; wherein the further operating parameter is an electrical supply current for operating the milling machine, wherein in the case of a constant rotational speed a current spike of the supply current that is due in particular to mill chippings, preferably by comminuting mill chippings by the milling spindle, is detected, wherein the supply current is sampled in such a manner that the current spikes as a result of mill chippings, which have passed into the milling spindle, are detected, (b) evaluating (S2) the detected rotational speed and the detected operating parameter by a trained adaptive algorithm for identifying anomalies during the milling process, wherein a current spike of the supply current that is due to the comminuting of mill chippings is detected, said current spike having a characterising progression that is identified by the trained adaptive algorithm.
A method for the overlapping arrangement of sheets in a transfer device arranged between a first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) and a subsequent second processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) in the transport direction (T) of the sheets of the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12), in which the sheets to be overlapped from the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) are transported in a transport plane in each case lying individually in succession to the transfer device, in which in each case a rear edge in the transport direction (T) of the sheets coming from the first processing station (01; 02; 03; 04; 06; 07; 08; 09; 11; 12) is raised relative to the transport plane solely by blown air and a subsequent sheet is slipped under the rear edge of the respective preceding sheet, characterized in that further blown air is blown against the transport direction (T) of the sheets under an acute angle formed with the transport plane from above onto the sheets to be transported to the transfer device, wherein an effective width directed orthogonally to the transport direction (T) of the sheets of the blown air acting in the direction of the transport plane against gravity and an effective width of the further blown air directed against the transport direction (T) of the sheets are each set depending on a width of the sheet directed orthogonally to the transport direction (T) of the sheets.
A gas turbine engine comprising: an electronic engine controller, EEC, ; one or more spools, one of which is designated a starting spool for starting the engine, and which has a required starting torque τ s ; a permanent magnet alternator mechanically coupled with the starting spool and configured, in a generator mode, to generate electrical power for the EEC ; and an electrical starter-generator mechanically coupled with the starting spool, the starter-generator being configured to, in a motor mode, provide a peak torque of τ sg , and, in a generator mode, generate electrical power for an external load, wherein: the permanent magnet alternator is operable in a motor mode and is configured, in the motor mode, to provide a peak torque of τ a ; T sg + T a ≥ T s and T sg , T a < T s ; and the EEC is configured to, during a start procedure, operate both the permanent magnet alternator and the starter-generator in a motor mode to drive the starting spool. an electronic engine controller, EEC, ; one or more spools, one of which is designated a starting spool for starting the engine, and which has a required starting torque τ s ; a permanent magnet alternator mechanically coupled with the starting spool and configured, in a generator mode, to generate electrical power for the EEC ; and an electrical starter-generator mechanically coupled with the starting spool, the starter-generator being configured to, in a motor mode, provide a peak torque of τ sg , and, in a generator mode, generate electrical power for an external load, wherein: the permanent magnet alternator is operable in a motor mode and is configured, in the motor mode, to provide a peak torque of τ a ; T sg + T a ≥ T s and T sg , T a < T s ; and the EEC is configured to, during a start procedure, operate both the permanent magnet alternator and the starter-generator in a motor mode to drive the starting spool. the permanent magnet alternator is operable in a motor mode and is configured, in the motor mode, to provide a peak torque of τ a ; T sg + T a ≥ T s and T sg , T a < T s ; and the EEC is configured to, during a start procedure, operate both the permanent magnet alternator and the starter-generator in a motor mode to drive the starting spool.
A floating support structure comprising means for ballasting and deballasting floating support structure so as to vary the draft of said floating support structure, said floating support structure comprising a section that varies with depth, wherein the quadratic moment of said section (Sd) of said floating support structure at the level of the waterplane area (Lfd) of said deballasted floating support structure is greater than the quadratic moment of said section (Sb) of said floating support structure at the level of the waterplane area (Lfb) of said ballasted floating support structure, characterized in that said floating support structure comprises a lower part comprising a permanent ballast, an intermediate part comprising said ballasting and deballasting means, and an upper part comprising buoyancy means, said waterplane area (Sd) of said deballasted floating support structure being at the level of said intermediate part and said waterplane area (Sb) of said ballasted floating support structure being at the level of said upper part .
Method for laser welding of monolithic semifinished products made from aluminium alloy, without filler wire, comprising the following steps: - Supply of at least two monolithic semifinished products made from aluminium alloy, at least one of which is a rolled sheet having the composition (% by weight): Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, other elements < 0.05 each and < 0.15 in total, the rest aluminium, with the condition: 5.2 Fe + 1.95 Si - 0.5 Cu - Mg ≥ 7.0 - Laser welding of the semifinished products made from aluminium alloy, without filler wire. - Supply of at least two monolithic semifinished products made from aluminium alloy, at least one of which is a rolled sheet having the composition (% by weight): Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, other elements < 0.05 each and < 0.15 in total, the rest aluminium, with the condition: 5.2 Fe + 1.95 Si - 0.5 Cu - Mg ≥ 7.0 Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, - Laser welding of the semifinished products made from aluminium alloy, without filler wire.
Camshaft for an exhaust valve of an internal combustion engine, wherein the camshaft comprises: - a first bearing and a second bearing for rotatably supporting the camshaft about its camshaft axis; - a cam , wherein the cam defines a cam contour for cyclically actuating the exhaust valve by rotating the camshaft, and wherein the cam comprises a cam body and a cam contour element , wherein the cam contour element is movable, relative to the cam body , into a first cam contour position and into a second cam contour position, such that the cam contour has a first cam contour shape if the cam contour element is in the first cam contour position, and has a second cam contour shape, which is different from the first cam contour shape, if the cam contour element is in the second cam contour position; and - a trigger mechanism for the cam contour element , wherein the trigger mechanism is configured to hold the cam contour element at a first, lower rotation speed of the camshaft in the first cam contour position, and to hold the cam contour element at a second, higher rotation speed of the camshaft in the second cam contour position, wherein the cam and the trigger mechanism are arranged axially between the first bearing and the second bearing , and wherein the cam contour element is designed as a pin, which can be retracted into and extended from the cam body , and wherein the trigger mechanism comprises a centrifugal element , wherein the centrifugal element is arranged directly adjacent to the cam . - a first bearing and a second bearing for rotatably supporting the camshaft about its camshaft axis; - a cam , wherein the cam defines a cam contour for cyclically actuating the exhaust valve by rotating the camshaft, and wherein the cam comprises a cam body and a cam contour element , wherein the cam contour element is movable, relative to the cam body , into a first cam contour position and into a second cam contour position, such that the cam contour has a first cam contour shape if the cam contour element is in the first cam contour position, and has a second cam contour shape, which is different from the first cam contour shape, if the cam contour element is in the second cam contour position; and - a trigger mechanism for the cam contour element , wherein the trigger mechanism is configured to hold the cam contour element at a first, lower rotation speed of the camshaft in the first cam contour position, and to hold the cam contour element at a second, higher rotation speed of the camshaft in the second cam contour position, wherein the cam and the trigger mechanism are arranged axially between the first bearing and the second bearing , and wherein the cam contour element is designed as a pin, which can be retracted into and extended from the cam body , and wherein the trigger mechanism comprises a centrifugal element , wherein the centrifugal element is arranged directly adjacent to the cam .
A base station transceiver for a mobile relay transceiver in a mobile radio system , the relay transceiver comprising a connection transceiver for communicating with a base station of the mobile radio system , comprising a transceiving device configured to provide a coverage area for wireless communication with a mobile radio terminal device ; an interface configured to communicate with the connection transceiver for the relay transceiver ; and a control device configured to determine configuration information with respect to measurements to be performed of signals from mobile radio cells for neighbor cell detection for the mobile relay transceiver and to transmit them via the interface to the connection transceiver , wherein the control device is configured to obtain, from the connection transceiver for the relay transceiver , information about the measurement results which are based on the measurements of signals from mobile radio cells for neighbor cell detection via the interface .
Offshore supporting structure for wind energy installations, comprising a plurality of spaced-apart horizontal rings and a plurality of framework elements arranged between the horizontal rings, said framework elements supporting respectively adjacent horizontal rings and in each case being connected to a horizontal ring at terminal points of intersection, wherein one, some or all framework elements comprise two uncrossed struts which are partially or completely curved in an arc-shaped manner, characterized in that the struts of a respective framework element are braced with one another by means of one or more connecting elements, wherein the connecting element(s) are connected to the struts in such regions which are spaced vertically from a point of smallest spacing between the struts of a respective framework element.