mhurhangee/ep-ind-claims huggingface dataset:
A method for correcting for distortions in seismic data produced by a seismic vibrator that is immersed in a fluid, the method comprising: applying a pilot signal to the vibrator such that an acoustic wavefield travels outwards from an interface between the vibrator outer surface and the fluid, characterized in that the method comprises: using a sensor located within the fluid at a distance that is equal to or less than around 5 meters from the outer surface of the vibrator, or located inwards a body of the vibrator, so as to be sensitive to a property of the wavefield in the fluid to measure the property of the wavefield as a function of time as sensor measurements; applying a pre-determined impulse response to the sensor measurements to determine a change in wet volume of a component of the vibrator as a function of time V(t) or derivatives of V(t); determining a shape of the vibrator component as a function of time, S(t), from V(t) or derivatives thereof, and using S(t) to derive one or more properties of a far wavefield produced by the vibrator at a distance greater than around 5 meters from the outer surface of the vibrator; using seismic receivers in an array including the vibrator to collect seismic data produced by the vibrator; and using the derived properties of the far wavefield to correct for distortions in the seismic data during processing of the seismic data. using a sensor located within the fluid at a distance that is equal to or less than around 5 meters from the outer surface of the vibrator, or located inwards a body of the vibrator, so as to be sensitive to a property of the wavefield in the fluid to measure the property of the wavefield as a function of time as sensor measurements; applying a pre-determined impulse response to the sensor measurements to determine a change in wet volume of a component of the vibrator as a function of time V(t) or derivatives of V(t); determining a shape of the vibrator component as a function of time, S(t), from V(t) or derivatives thereof, and using S(t) to derive one or more properties of a far wavefield produced by the vibrator at a distance greater than around 5 meters from the outer surface of the vibrator; using seismic receivers in an array including the vibrator to collect seismic data produced by the vibrator; and using the derived properties of the far wavefield to correct for distortions in the seismic data during processing of the seismic data.
Reclosable pouring element for liquids filled in packages, in particular liquid foods, comprising: - a base body, comprising a pouring opening, an external thread and a flange (5, 5") for connection to the package, - a cutting ring arranged in the pouring opening, which comprises at least one cutting edge and a projection, and - a screw cap, which comprises an internal thread and at least one catch, which transmits the rotational force that occurs during the opening of the screw cap to the projection of the cutting ring, wherein the pouring opening is closed by a barrier film, characterised in that the base body comprises a support wall in the lower region of the pouring opening, against which the barrier foil rests, and in that the underside of the flange and the underside of the support wall are covered by the barrier film. - a base body, comprising a pouring opening, an external thread and a flange (5, 5") for connection to the package, - a cutting ring arranged in the pouring opening, which comprises at least one cutting edge and a projection, and - a screw cap, which comprises an internal thread and at least one catch, which transmits the rotational force that occurs during the opening of the screw cap to the projection of the cutting ring,
A method, comprising: selecting, for a memory array that comprises a plurality of memory sections, an active page size that is an integer multiple of a base page size, wherein a base memory page of the base page size comprises logic values of a subset of memory cells within a row of a memory section of the plurality of memory sections, wherein the base page size is equal to a number of sense components associated with the memory section, and wherein a memory page of the active page size comprises a first base memory page of the memory section and a second base memory page of at least a second memory section that are activated in response to an activate command; configuring an address scheme for the memory bank based at least in part on the active page size; and sending an access command using the address scheme and according to the active page size. selecting, for a memory array that comprises a plurality of memory sections, an active page size that is an integer multiple of a base page size, wherein a base memory page of the base page size comprises logic values of a subset of memory cells within a row of a memory section of the plurality of memory sections, wherein the base page size is equal to a number of sense components associated with the memory section, and wherein a memory page of the active page size comprises a first base memory page of the memory section and a second base memory page of at least a second memory section that are activated in response to an activate command; configuring an address scheme for the memory bank based at least in part on the active page size; and sending an access command using the address scheme and according to the active page size.
A door actuator, particularly a hydraulic door closer, for a door leaf, comprising: a housing for mounting to the door leaf; a shaft rotatably supported in the housing for actuating the door leaf, the shaft including an eccentric cam; a piston assembly, particularly a hybrid piston assembly, including: an outer piston unit reciprocatingly supported in the housing to follow the eccentric cam; and an inner piston unit reciprocatingly supported in the outer piston unit to follow the eccentric cam, wherein an inner piston of the inner piston unit includes a first, particularly cylindrical, body section and a second, particularly cylindrical, body section, characterised in that: a central longitudinal axis of the first body section extends displaced from, particularly parallel to, a central longitudinal axis of the second body section; and/or the second body section longitudinally extends eccentric with respect to the first body section. a housing for mounting to the door leaf; a shaft rotatably supported in the housing for actuating the door leaf, the shaft including an eccentric cam; a piston assembly, particularly a hybrid piston assembly, including: an outer piston unit reciprocatingly supported in the housing to follow the eccentric cam; and an inner piston unit reciprocatingly supported in the outer piston unit to follow the eccentric cam, wherein an inner piston of the inner piston unit includes a first, particularly cylindrical, body section and a second, particularly cylindrical, body section, characterised in that: a central longitudinal axis of the first body section extends displaced from, particularly parallel to, a central longitudinal axis of the second body section; and/or the second body section longitudinally extends eccentric with respect to the first body section. a central longitudinal axis of the first body section extends displaced from, particularly parallel to, a central longitudinal axis of the second body section; and/or the second body section longitudinally extends eccentric with respect to the first body section.
A starting system for a small-sized engine including a recoil starting system A and a motor starting system B integrated in a starter case having a configuration in which an inner lid is secured to a crankcase of the engine together by a screw and the inner lid has a joint portion with respect to the crankcase and a mounting seat for the reducer motor on the outside thereof, characterized in that: the motor starting system B has a configuration in which a pinion is mounted on an output shaft of the reducer motor by an one-way clutch of a needle bearing and the pinion is engaged with a starting gear of the engine; the one-way clutch of the needle bearing includes a detent projection or recess on the outer periphery thereof, and a receiving hole of the one-way clutch provided on the pinion includes on an inner periphery thereof a recess or a projection which engages the projection or the recess; and an inner lid provided between the starter case and the crankcase of the engine includes a recess where a pulley fixed to a crankshaft is accommodated, a fitting hole formed on the recess supports a relay cam for transmitting rotation via a shock-absorbing recoil spring stored in a spring chamber provided in the starting gear, an inner end of the shock-absorbing recoil spring is fitted by a segmental groove provided on a passive portion of the relay cam and an outer end of the shock-absorbing recoil spring is hooked on a hook groove provided on the starting gear, thereby the rotation is transmitted from the starting gear to the relay cam via the shock-absorbing recoil spring, and an outer portion of the fitting hole serves as a lid of the spring chamber being provided on the starting gear and storing the shock-absorbing recoil spring. the motor starting system B has a configuration in which a pinion is mounted on an output shaft of the reducer motor by an one-way clutch of a needle bearing and the pinion is engaged with a starting gear of the engine; the one-way clutch of the needle bearing includes a detent projection or recess on the outer periphery thereof, and a receiving hole of the one-way clutch provided on the pinion includes on an inner periphery thereof a recess or a projection which engages the projection or the recess; and an inner lid provided between the starter case and the crankcase of the engine includes a recess where a pulley fixed to a crankshaft is accommodated, a fitting hole formed on the recess supports a relay cam for transmitting rotation via a shock-absorbing recoil spring stored in a spring chamber provided in the starting gear, an inner end of the shock-absorbing recoil spring is fitted by a segmental groove provided on a passive portion of the relay cam and an outer end of the shock-absorbing recoil spring is hooked on a hook groove provided on the starting gear, thereby the rotation is transmitted from the starting gear to the relay cam via the shock-absorbing recoil spring, and an outer portion of the fitting hole serves as a lid of the spring chamber being provided on the starting gear and storing the shock-absorbing recoil spring.
Agallium nitride device production method, used for producing a gallium nitride device comprising a substrate; a buffer layer formed over the substrate; a gallium nitride, GaN layer formed over the buffer layer; an AlGaN layer formed over the gallium nitride, GaN layer; and a source, a drain, and a gate that are formed on the AlGaN layer, wherein the drain comprises a P-GaN layer and a drain metal, wherein the method comprises: epitaxially growing the buffer layer, the GaN layer, and the AlGaN layer sequentially from bottom to top on the substrate; etching the P-GaN layer on the AlGaN layer, wherein the P-GaN layer is of a strip structure in a gate width direction; and producing the drain metal on the P-GaN layer and the AlGaN layer that is located on two sides of the P-GaN layer, so that the drain metal has a plurality of first structural intervals and a plurality of second structural intervals that are alternately distributed in the gate width direction, wherein in the first structural intervals, the drain metal is in contact with the P-GaN layer but not with the AIGaN layer, and in the second structural intervals, the drain metal is in contact with the P-GaN layer and forms ohmic contact with the AlGaN layer. epitaxially growing the buffer layer, the GaN layer, and the AlGaN layer sequentially from bottom to top on the substrate; etching the P-GaN layer on the AlGaN layer, wherein the P-GaN layer is of a strip structure in a gate width direction; and producing the drain metal on the P-GaN layer and the AlGaN layer that is located on two sides of the P-GaN layer, so that the drain metal has a plurality of first structural intervals and a plurality of second structural intervals that are alternately distributed in the gate width direction, wherein in the first structural intervals, the drain metal is in contact with the P-GaN layer but not with the AIGaN layer, and in the second structural intervals, the drain metal is in contact with the P-GaN layer and forms ohmic contact with the AlGaN layer.
A downlink control channel monitoring method, comprising: sending first indication information to a network device, wherein the first indication information indicates N groups of monitoring capability parameters of a terminal device, wherein each group of monitoring capability parameters in the N groups of monitoring capability parameters comprise a reference value of an interval between monitoring spans and a reference value of duration of a monitoring span, N is a positive integer, and a reference value of a monitoring capability in the monitoring span, which comprises a maximum quantity of candidate downlink control channels and/or a maximum quantity of non-overlapping control channel elements; determining (1222, 432) K monitoring spans in a first time unit based on the reference values of intervals between monitoring spans and/or the reference values of duration of monitoring spans in the N groups of monitoring capability parameters, wherein K is a positive integer; determining monitoring capabilities in the K monitoring spans based on the reference values of monitoring capabilities in monitoring spans in the N groups of monitoring capability parameters; and performing blind detection on a downlink control channel in the K monitoring spans based on the monitoring capabilities in the K monitoring spans; wherein a monitoring capability in each of the K monitoring spans is a maximum value of the reference values of the monitoring capabilities in the monitoring spans in the N groups of monitoring capability parameters. sending first indication information to a network device, wherein the first indication information indicates N groups of monitoring capability parameters of a terminal device, wherein each group of monitoring capability parameters in the N groups of monitoring capability parameters comprise a reference value of an interval between monitoring spans and a reference value of duration of a monitoring span, N is a positive integer, and a reference value of a monitoring capability in the monitoring span, which comprises a maximum quantity of candidate downlink control channels and/or a maximum quantity of non-overlapping control channel elements; determining (1222, 432) K monitoring spans in a first time unit based on the reference values of intervals between monitoring spans and/or the reference values of duration of monitoring spans in the N groups of monitoring capability parameters, wherein K is a positive integer; determining monitoring capabilities in the K monitoring spans based on the reference values of monitoring capabilities in monitoring spans in the N groups of monitoring capability parameters; and performing blind detection on a downlink control channel in the K monitoring spans based on the monitoring capabilities in the K monitoring spans; wherein a monitoring capability in each of the K monitoring spans is a maximum value of the reference values of the monitoring capabilities in the monitoring spans in the N groups of monitoring capability parameters.
A method of performing an assay to determine the presence or concentration of an analyte contained in a sample of body fluid by using a device comprising at least one analyte quantification member, a sensor associated therewith, and a catalyst producing mechanism configured to apply a catalyst for the increased expression of a bodily fluid from a wound, the method comprising: initiating application of the catalyst; applying a first sample to the analyte quantification member; and detecting the presence or absence of an adequate sample volume; wherein upon detection of the absence of an adequate sample volume, initiating a finite timed period, and signaling the user to manually milk the wound to express a second sample of body fluid therefrom and to introduce the second sample of body fluid to the analyte quantification member. initiating application of the catalyst; applying a first sample to the analyte quantification member; and detecting the presence or absence of an adequate sample volume; wherein upon detection of the absence of an adequate sample volume, initiating a finite timed period, and signaling the user to manually milk the wound to express a second sample of body fluid therefrom and to introduce the second sample of body fluid to the analyte quantification member.
A method for treating at least one interior surface of a fluidized bed polymerization reactor system having a bed wall using a solution catalyst comprising at least one catalyst dissolved in at least one solvent, said method including the steps of: (a) introducing the solution catalyst into the reactor system under conditions such that the solution catalyst has a drying rate sufficiently low so as not to prevent at least substantially uniform wetting of each said interior surface by the solution catalyst by applying the solution catalyst at least substantially uniformly and in liquid form to each said surface and maintaining conditions in the reactor system sufficient to maintain the dew point temperature within a range of from 5°C to 30°C of the temperature at a coolest point in the reactor systems to prevent at least a substantial quantity of the solution catalyst from vaporizing or sublimating before wetting the bed wall; and (b) performing a polymerization reaction, catalysed by the catalyst, to form on each said surface a polymer coating that produces an insulating layer to reduce static charging in the reactor system during subsequent polymerization reactions in the reactor system. (a) introducing the solution catalyst into the reactor system under conditions such that the solution catalyst has a drying rate sufficiently low so as not to prevent at least substantially uniform wetting of each said interior surface by the solution catalyst by applying the solution catalyst at least substantially uniformly and in liquid form to each said surface and maintaining conditions in the reactor system sufficient to maintain the dew point temperature within a range of from 5°C to 30°C of the temperature at a coolest point in the reactor systems to prevent at least a substantial quantity of the solution catalyst from vaporizing or sublimating before wetting the bed wall; and (b) performing a polymerization reaction, catalysed by the catalyst, to form on each said surface a polymer coating that produces an insulating layer to reduce static charging in the reactor system during subsequent polymerization reactions in the reactor system.
A floor treating apparatus comprising: a chassis with a lower surface, a front surface, an upper surface, a rear surface, a left surface and a right surface, wherein a platform is provided that is adapted to support the weight of an operator; a powered wheel operably connected adjacent the lower surface of the chassis, the powered wheel being capable of at least one of transitioning and rotating the floor treating apparatus; a plurality of wheels being operably connected to the rear of the apparatus; a steering mechanism adjacent to the upper surface that is accessible by the operator; an operable floor treating device connected adjacent to the lower surface of the chassis; and an operable debris collection device connected adjacent to the lower surface of the chassis; wherein an operator controls the floor treatment apparatus from the platform; wherein the apparatus employs an electric motor to power the apparatus; characterised in that the rear of the floor treating apparatus comprises the platform and a removable cowling being capable of selective rotation about an axis parallel to a rear axle of the apparatus, thus providing the ability to access batteries providing power to the apparatus. a chassis with a lower surface, a front surface, an upper surface, a rear surface, a left surface and a right surface, wherein a platform is provided that is adapted to support the weight of an operator; a powered wheel operably connected adjacent the lower surface of the chassis, the powered wheel being capable of at least one of transitioning and rotating the floor treating apparatus; a plurality of wheels being operably connected to the rear of the apparatus; a steering mechanism adjacent to the upper surface that is accessible by the operator; an operable floor treating device connected adjacent to the lower surface of the chassis; and an operable debris collection device connected adjacent to the lower surface of the chassis; wherein an operator controls the floor treatment apparatus from the platform; wherein the apparatus employs an electric motor to power the apparatus; characterised in that the rear of the floor treating apparatus comprises the platform and a removable cowling being capable of selective rotation about an axis parallel to a rear axle of the apparatus, thus providing the ability to access batteries providing power to the apparatus.
A method for operating a ferrofluid electrical motor, the method comprising: generating a magnetic field by a first electromagnet; rotating the magnetic field; inducing a flow of a ferrofluid in response to rotating the magnetic field; and rotating a turbine by the flow of the ferrofluid, wherein the ferrofluid imparts a mechanical force on the turbine to rotate the turbine; and containing the flow of the ferrofluid and the turbine in a contained volume, wherein the magnetic field is rotated in the contained volume in a direction of the flow of the ferrofluid. generating a magnetic field by a first electromagnet; rotating the magnetic field; inducing a flow of a ferrofluid in response to rotating the magnetic field; and rotating a turbine by the flow of the ferrofluid, wherein the ferrofluid imparts a mechanical force on the turbine to rotate the turbine; and containing the flow of the ferrofluid and the turbine in a contained volume, wherein the magnetic field is rotated in the contained volume in a direction of the flow of the ferrofluid.
A computer-implemented method for providing secure services to a computing device comprising a secure element, wherein the secure element comprises at least one cryptographic key for each of a plurality of TSMs, the method comprising: maintaining, by a computer, at least one cryptographic key for the secure element, the at least one cryptographic key operable to provide secure access to the secure element via a secure communication channel; receiving, by the computer, a selection of a trusted service manager, TSM; activating, by the secure element, the at least one cryptographic key for the selected TSM; and transmitting, by the computer, the at least one cryptographic key to the selected TSM in response to receiving the request to select the TSM. maintaining, by a computer, at least one cryptographic key for the secure element, the at least one cryptographic key operable to provide secure access to the secure element via a secure communication channel; receiving, by the computer, a selection of a trusted service manager, TSM; activating, by the secure element, the at least one cryptographic key for the selected TSM; and transmitting, by the computer, the at least one cryptographic key to the selected TSM in response to receiving the request to select the TSM.