mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a hybrid electric driveline, comprising an internal combustion engine and an electric machine configured in parallel for driving a propulsion member, comprising the following steps: - driving the driveline in generator mode, where the electric machine provides a charge current to a battery and where the internal combustion engine provides positive driving torque to the propulsion member, - limiting the maximal available torque from the internal combustion engine to a predetermined torque limitation value depending on the rotational speed of the internal combustion engine, - characterized in that the predetermined torque limitation value is a percentage of the maximal torque of the internal combustion engine depending on the rotational speed of the internal combustion engine. - driving the driveline in generator mode, where the electric machine provides a charge current to a battery and where the internal combustion engine provides positive driving torque to the propulsion member, - limiting the maximal available torque from the internal combustion engine to a predetermined torque limitation value depending on the rotational speed of the internal combustion engine, - characterized in that the predetermined torque limitation value is a percentage of the maximal torque of the internal combustion engine depending on the rotational speed of the internal combustion engine.
An electronic circuit connected to a microphone configured to measure a sound signal having a sound pressure level (SPL), wherein the microphone comprises a transducer (MEMS) and the electronic circuit comprises: - an input stage (Pre_amp) having an input and an output, wherein the input stage is configured to preamplify an electrical input signal of the electronic circuit provided by the transducer (MEMS), wherein a gain of the input stage is adjustable, - an output stage (T_amp) configured to provide an microphone output signal by processing an output signal of the input stage (Pre_amp), wherein the output stage (T_amp) comprises a transistor amplifier with a gate connected to the output of the input stage (Pre_amp), - an adjustable output load (RS) arranged and configured for setting a current draw of the output stage (T_amp), wherein the output load is connected to a source of the transistor amplifier of the output stage (T_amp), - a measurement circuit (P_det) connected to the output of the pre-amplifying input stage (Pre_amp) and configured to capture the output signal of the input stage (Pre_amp) and - an automatic control circuit (ACC) configured to adjust the adjustable output load (RS) and a gain of the input stage (Pre_amp) dependent on the captured output signal of the input stage (Pre_amp), wherein the captured output signal is the sound pressure level and wherein the automatic control circuit is configured to reduce the value of the output load (RS) if the sound pressure level is larger than a given threshold is detected by the measurement circuit. - an input stage (Pre_amp) having an input and an output, wherein the input stage is configured to preamplify an electrical input signal of the electronic circuit provided by the transducer (MEMS), wherein a gain of the input stage is adjustable, - an output stage (T_amp) configured to provide an microphone output signal by processing an output signal of the input stage (Pre_amp), wherein the output stage (T_amp) comprises a transistor amplifier with a gate connected to the output of the input stage (Pre_amp), - an adjustable output load (RS) arranged and configured for setting a current draw of the output stage (T_amp), wherein the output load is connected to a source of the transistor amplifier of the output stage (T_amp), - a measurement circuit (P_det) connected to the output of the pre-amplifying input stage (Pre_amp) and configured to capture the output signal of the input stage (Pre_amp) and - an automatic control circuit (ACC) configured to adjust the adjustable output load (RS) and a gain of the input stage (Pre_amp) dependent on the captured output signal of the input stage (Pre_amp), wherein the captured output signal is the sound pressure level and wherein the automatic control circuit is configured to reduce the value of the output load (RS) if the sound pressure level is larger than a given threshold is detected by the measurement circuit.
A vehicle seat with a side airbag device, the vehicle seat comprising: a gas generating device attached to an inner side of an outer side frame in a vehicle-width direction, the outer side frame being disposed in a side portion on an outside of a seat back in the vehicle-width direction; and a side airbag configured to inflate and deploy to expand over the outer side frame from a vehicle front side of the outer side frame in the vehicle-width direction by receiving gas from the gas generating device accommodated in the side airbag , the side airbag comprising a front chamber , an inner storage portion positioned inward of the outer side frame in the vehicle-width direction together with the gas generating device and an outer storage portion positioned outward of the outer side frame in the vehicle-width direction; wherein the side airbag is provided with an inflation width expansion portion that is configured to cause an inflation width of the side airbag in the vehicle-width direction to be greater outside a side surface (22A1) provided on an outside of the outer side frame in the vehicle-width direction than inside the side surface (22A1); wherein, in the stored state, the side airbag extends over the outer side frame from the vehicle front side in the vehicle-width direction, a portion including the front chamber is folded outward of the outer side frame in the vehicle width direction; characterized in that the outer storage portion is disposed closer toward the vehicle front side than the inner storage portion . a gas generating device attached to an inner side of an outer side frame in a vehicle-width direction, the outer side frame being disposed in a side portion on an outside of a seat back in the vehicle-width direction; and a side airbag configured to inflate and deploy to expand over the outer side frame from a vehicle front side of the outer side frame in the vehicle-width direction by receiving gas from the gas generating device accommodated in the side airbag , the side airbag comprising a front chamber , an inner storage portion positioned inward of the outer side frame in the vehicle-width direction together with the gas generating device and an outer storage portion positioned outward of the outer side frame in the vehicle-width direction; wherein the side airbag is provided with an inflation width expansion portion that is configured to cause an inflation width of the side airbag in the vehicle-width direction to be greater outside a side surface (22A1) provided on an outside of the outer side frame in the vehicle-width direction than inside the side surface (22A1); wherein, in the stored state, the side airbag extends over the outer side frame from the vehicle front side in the vehicle-width direction, a portion including the front chamber is folded outward of the outer side frame in the vehicle width direction; characterized in that the outer storage portion is disposed closer toward the vehicle front side than the inner storage portion .
A method for filtering seismic data using one or more programmable computers programmed to at least perform the operations of: receiving pressure data and velocity data generated by one or more multi-component sensors of one or more streamers towed by a survey vessel; initializing a filtered wavefield; for a number of iterations, applying one or more filters to the pressure data and velocity data to generate a first filtered wavefield; applying singular value decomposition, SVD, to the first filtered wavefield to generate an extracted wavefield; updating the filtered wavefield by adding the extracted wavefield to the filtered wavefield; applying SVD to the pressure data and to the velocity data to generate extracted pressure data and extracted velocity data; subtracting the extracted pressure data from the pressure data and the extracted velocity data from the velocity data; and storing the filtered wavefield in one or more computer-readable media. receiving pressure data and velocity data generated by one or more multi-component sensors of one or more streamers towed by a survey vessel; initializing a filtered wavefield; for a number of iterations, applying one or more filters to the pressure data and velocity data to generate a first filtered wavefield; applying singular value decomposition, SVD, to the first filtered wavefield to generate an extracted wavefield; updating the filtered wavefield by adding the extracted wavefield to the filtered wavefield; applying SVD to the pressure data and to the velocity data to generate extracted pressure data and extracted velocity data; subtracting the extracted pressure data from the pressure data and the extracted velocity data from the velocity data; and applying one or more filters to the pressure data and velocity data to generate a first filtered wavefield; applying singular value decomposition, SVD, to the first filtered wavefield to generate an extracted wavefield; updating the filtered wavefield by adding the extracted wavefield to the filtered wavefield; applying SVD to the pressure data and to the velocity data to generate extracted pressure data and extracted velocity data; subtracting the extracted pressure data from the pressure data and the extracted velocity data from the velocity data; and storing the filtered wavefield in one or more computer-readable media.
A hydraulic device comprising a housing , a shaft which is mounted in the housing and rotatable about a first axis of rotation , wherein the shaft has a flange extending perpendicularly to the first axis of rotation , a plurality of pistons including respective spherical piston heads having respective centre points, which pistons are fixed to the flange at equiangular distance about the first axis of rotation and which have centrelines parallel to the first axis of rotation , a plurality of separate sleeves within which the respective pistons are movable and a barrel plate which supports the sleeves , wherein the barrel plate including the sleeves are rotatable about a second axis of rotation which intersects the first axis of rotation by an acute angle such that upon rotating the shaft and the barrel plate including the sleeves each of the pistons moves with respect to the cooperating sleeve between a bottom dead centre and a top dead centre, wherein the sleeves are adapted such that at least when one of the pistons is at bottom dead centre under operating conditions a centrifugal force on the cooperating sleeve acts in radial direction from the second axis of rotation between the barrel plate and a centre point of the piston head causing a tilting torque about the centre point of the piston head , wherein the barrel plate is provided with a plurality of actuators for exerting counter forces (Fa) on the respective sleeves in a direction and at a location such that at least when one of the pistons is at bottom dead centre under operating conditions the counter force on the cooperating sleeve acts along a line at a distance from the centre point of the piston head and causes a counter torque about the centre point of the piston head against the tilting torque, wherein the actuators are configured such that the exerted counter forces (Fa) increase with increasing rotational speed of the barrel plate about the second axis of rotation , characterized in that each of the actuators comprises a counterweight which is coupled to the barrel plate and movable with respect to the barrel plate in radial direction of the second axis of rotation and which cooperates through a transmission with the corresponding sleeve for exerting the counter force (Fa) on the corresponding sleeve , wherein the transmission and the counterweight are adapted such that under operating conditions a centrifugal force on the counterweight causes the transmission to exert the counter force (Fa) on the corresponding sleeve .
An apparatus for executing a vector cyclic shift operation, comprising: a storing unit, configured to store vector data associated with a vector cyclic shift operation instruction; a register unit, configured to store scalar data associated with the vector cyclic shift operation instruction; a control unit, configured to decode the vector cyclic shift operation instruction and to control an operation process of the vector cyclic shift operation instruction; and a cyclic shift unit, configured to execute the vector cyclic shift operation on input vector data according to the vector cyclic shift operation instruction decoded; the cyclic shift unit being implemented in a customized hardware circuit; and the scalar data stored in the register unit comprising a start address of the input vector data, a storage address of output vector data, a length of the input vector data and a shift step size associated with the vector cyclic shift operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit. a storing unit, configured to store vector data associated with a vector cyclic shift operation instruction; a register unit, configured to store scalar data associated with the vector cyclic shift operation instruction; a control unit, configured to decode the vector cyclic shift operation instruction and to control an operation process of the vector cyclic shift operation instruction; and a cyclic shift unit, configured to execute the vector cyclic shift operation on input vector data according to the vector cyclic shift operation instruction decoded; the cyclic shift unit being implemented in a customized hardware circuit; and the scalar data stored in the register unit comprising a start address of the input vector data, a storage address of output vector data, a length of the input vector data and a shift step size associated with the vector cyclic shift operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit.
A method of deploying applications conforming to a platform schema associated with a data sharing platform for facilitating sharing of application data among isolated applications executing on one or more application platforms, the method comprising: receiving a request to submit a third party application to an application deployment system , wherein the request identifies a platform schema associated with a data sharing platform and platform capability information associated with the third party application, wherein the platform schema defines capabilities of the data sharing platform that can be used by applications registered to the data sharing platform; responsive to receiving the request, identifying a validation manifest associated with the platform schema, the validation manifest including a set of predefined validation checks; automatically verifying that the third party application conforms to the platform schema by performing the set of validation checks; once the third party application is verified to conform to the platform schema, publishing the validated third party application to a download portal of the application deployment system; and providing the validated third party application to a computing system , wherein upon registration of the validated third party application at the data sharing platform associated with the platform schema, application data can be shared between the validated third party application and other applications registered at the data sharing platform. receiving a request to submit a third party application to an application deployment system , wherein the request identifies a platform schema associated with a data sharing platform and platform capability information associated with the third party application, wherein the platform schema defines capabilities of the data sharing platform that can be used by applications registered to the data sharing platform; responsive to receiving the request, identifying a validation manifest associated with the platform schema, the validation manifest including a set of predefined validation checks; automatically verifying that the third party application conforms to the platform schema by performing the set of validation checks; once the third party application is verified to conform to the platform schema, publishing the validated third party application to a download portal of the application deployment system; and providing the validated third party application to a computing system , wherein upon registration of the validated third party application at the data sharing platform associated with the platform schema, application data can be shared between the validated third party application and other applications registered at the data sharing platform.
A method for high-resolution fluorescence microscopy, wherein - a number of N partial images of a specimen marked by fluorophores and excited to emit fluorescence is recorded, wherein the specimen is successively illuminated by N different effective illuminating patterns, a composite image is calculated from the partial images, the composite image having a higher structural resolution than the partial images, and the composite image is finally output, - wherein each effective illuminating pattern is generated from the superimposition of at least two basic illuminating patterns, with the basic illuminating patterns varying statistically in space and differing from each other and for each partial image, and - wherein the fluorophores contained in the specimen are excited to emit fluorescence only where the at least two basic illuminating patterns superimpose to illuminate the specimen , with the illuminating superimposition of the at least two basic illuminating patterns triggering off non-linear excitation and/or emission effects and/or switching effects in the fluorophores. - a number of N partial images of a specimen marked by fluorophores and excited to emit fluorescence is recorded, wherein the specimen is successively illuminated by N different effective illuminating patterns, a composite image is calculated from the partial images, the composite image having a higher structural resolution than the partial images, and the composite image is finally output, - wherein each effective illuminating pattern is generated from the superimposition of at least two basic illuminating patterns, with the basic illuminating patterns varying statistically in space and differing from each other and for each partial image, and - wherein the fluorophores contained in the specimen are excited to emit fluorescence only where the at least two basic illuminating patterns superimpose to illuminate the specimen , with the illuminating superimposition of the at least two basic illuminating patterns triggering off non-linear excitation and/or emission effects and/or switching effects in the fluorophores.
A passenger cabin for a vehicle having a modular cabin segment arranged in a rear section of the passenger cabin, in which a passage through the cabin segment is not required, the cabin segment comprising - a first lateral segment module that accommodates a first toilet arrangement with at least one toilet compartment , and - a second lateral segment module , wherein in each case an outer lateral face of the first segment module and of the second lateral segment module is designed to snugly fit in each case to an inner wall of a cabin of the vehicle so as to correspond to the inner wall, wherein the second lateral segment module is a galley module, wherein the cabin segment extends in a transverse axis from a sidewall of the cabin up to the opposite sidewall; and wherein at least one of the modules comprises at least one cabin attendant seat that on one side is supported on the at least one module so that it is pivotable on an axis. - a first lateral segment module that accommodates a first toilet arrangement with at least one toilet compartment , and - a second lateral segment module , wherein in each case an outer lateral face of the first segment module and of the second lateral segment module is designed to snugly fit in each case to an inner wall of a cabin of the vehicle so as to correspond to the inner wall, wherein the second lateral segment module is a galley module, wherein the cabin segment extends in a transverse axis from a sidewall of the cabin up to the opposite sidewall; and wherein at least one of the modules comprises at least one cabin attendant seat that on one side is supported on the at least one module so that it is pivotable on an axis. wherein in each case an outer lateral face of the first segment module and of the second lateral segment module is designed to snugly fit in each case to an inner wall of a cabin of the vehicle so as to correspond to the inner wall, wherein the second lateral segment module is a galley module, wherein the cabin segment extends in a transverse axis from a sidewall of the cabin up to the opposite sidewall; and wherein at least one of the modules comprises at least one cabin attendant seat that on one side is supported on the at least one module so that it is pivotable on an axis.
A method for cold forming a meat patty, the method comprising the steps of: (a) coarse grinding a meat product; (b) blending the coarse ground meat product with first ingredients to a temperature T1 wherein -5.56 °C (22 °F) ≤ T1 ≤ 4.44 °C (40 °F); (c) fine grinding the blended meat product; (d) forming the ground meat product into an uncooked patty at T1 by disposing the ground meat product into a mold and scraping an excess ground meat product off said mold; (e) cooking the uncooked patty to thereby form a precooked patty having a skin of depth D comprising denatured protein, wherein said skin is formed on at least an area on the outside of the precooked patty at a temperature T2, wherein 65,56 °C (150 °F) ≤ T2 ≤ 82,22 °C (180 °F), and wherein at least a first portion of the meat product disposed beneath said skin is at temperature T1, and wherein T2 > T1; (f) chilling the precooked patty; and (g) packaging the precooked patty. (a) coarse grinding a meat product; (b) blending the coarse ground meat product with first ingredients to a temperature T1 wherein -5.56 °C (22 °F) ≤ T1 ≤ 4.44 °C (40 °F); (c) fine grinding the blended meat product; (d) forming the ground meat product into an uncooked patty at T1 by disposing the ground meat product into a mold and scraping an excess ground meat product off said mold; (e) cooking the uncooked patty to thereby form a precooked patty having a skin of depth D comprising denatured protein, wherein said skin is formed on at least an area on the outside of the precooked patty at a temperature T2, wherein 65,56 °C (150 °F) ≤ T2 ≤ 82,22 °C (180 °F), and wherein at least a first portion of the meat product disposed beneath said skin is at temperature T1, and wherein T2 > T1; (f) chilling the precooked patty; and (g) packaging the precooked patty.
Method for cooling a steam turbine , wherein the steam turbine is charged with steam from a steam generator , wherein a predefined cooling rate Ṫ vor of the steam turbine is determined, wherein the actual cooling rate Ṫ tat is determined and is compared with the predefined cooling rate Ṫ vor and the steam generator is operated such that the actual cooling rate Ṫ tat essentially corresponds to the predefined cooling rate Ṫ vor , wherein the steam generator is operated such that during power operation a boiler blow-off takes place and/or during power operation the firing is changed so as to reduce the power of the steam generator .