mhurhangee/ep-ind-claims huggingface dataset:
An exercise rope (100a, 100b, 200), comprising: a weighted core; a first braided layer surrounding the weighted core, the first braided layer having yarns of a first ply; characterized by a second braided layer surrounding the first braided layer, the second braided layer having yarns of a second ply, the second ply being higher than the first ply; an adhesive coating the second braided layer; and a third braided layer surrounding the second braided layer, the third braided layer having yarns of a third ply, the third ply being higher than the second ply. a weighted core; a first braided layer surrounding the weighted core, the first braided layer having yarns of a first ply; characterized by a second braided layer surrounding the first braided layer, the second braided layer having yarns of a second ply, the second ply being higher than the first ply; an adhesive coating the second braided layer; and a third braided layer surrounding the second braided layer, the third braided layer having yarns of a third ply, the third ply being higher than the second ply.
A process to mate a plurality of tissue webs (22a. 22b), the process comprising: providing a first steel roll and a second steel roll, the first steel roll having a first steel roll primary surface and the second steel roll having a second steel roll primary surface, wherein the first steel roll comprises first protrusions, and wherein the second steel roll comprises recesses; forming a nip between the first steel roll and the second steel roll; rotating the first steel roll about a first axis of rotation and rotating the second steel roll about a second axis of rotation; advancing the plurality of tissue webs (22a, 22b) through the nip; and embossing a series of first embossments and a series of second embossments into the plurality of tissue webs (22a, 22b) to connect the tissue webs (22a, 22b) to one another as the tissue webs (22a, 22b) advance through the nip, wherein the first protrusions press a first series of portions of the plurality of tissue webs (22a, 22b) into the recesses proximate the nip as the first steel roll and second steel roll simultaneously rotate to create the series of first embossments, wherein the second embossments are created by one of pin-to-flat and pin-to-pin embossing, the plurality of tissue webs (22a, 22b) thereafter defining a composite web. providing a first steel roll and a second steel roll, the first steel roll having a first steel roll primary surface and the second steel roll having a second steel roll primary surface, wherein the first steel roll comprises first protrusions, and wherein the second steel roll comprises recesses; forming a nip between the first steel roll and the second steel roll; rotating the first steel roll about a first axis of rotation and rotating the second steel roll about a second axis of rotation; advancing the plurality of tissue webs (22a, 22b) through the nip; and embossing a series of first embossments and a series of second embossments into the plurality of tissue webs (22a, 22b) to connect the tissue webs (22a, 22b) to one another as the tissue webs (22a, 22b) advance through the nip, wherein the first protrusions press a first series of portions of the plurality of tissue webs (22a, 22b) into the recesses proximate the nip as the first steel roll and second steel roll simultaneously rotate to create the series of first embossments, wherein the second embossments are created by one of pin-to-flat and pin-to-pin embossing, the plurality of tissue webs (22a, 22b) thereafter defining a composite web.
A magnetic toner which comprises toner particles containing at least a binder resin and a magnetic material, wherein; the activation energy Ea (kJ/mol) that is determined from a shift factor aT 120 in a master curve of the toner, prepared when 120°C is set as reference temperature, and the activation energy Eb (kJ/mol) that is determined from a shift factor aT 150 in a master curve of the toner, prepared when 150°C is set as reference temperature, satisfy the following expression, and the Ea is 102.6 kJ/mol or less: 1.00 ≤ Ea / Eb < 1.20 and wherein, where the magnetic toner is dispersed in 5 mol/l of hydrochloric acid, the proportion Sc of the amount of extraction from the toner for an extraction time of from 3 minutes to 15 minutes (S 3-15) to the amount of extraction from the toner for an extraction time of from 15 minutes to 30 minutes (S 15-30), i.e., S 3-15 /S 15-30, satisfies Expression: 1.2 ≤ Sc ≤ 10.0 and wherein Ea Eb and Sc are measured according to the description.
A method of repairing a wind turbine rotor blade which has erosion damage or transport damage, comprising the steps: ablating a first region around an erosion damage or a transport damage into a surface or surface coating of the rotor blade, applying an adhesive as a levelling material in the ablated region of the rotor blade surface or the surface coating, to level the ablated region, placing an erosion protection film on the adhesive, and curing the adhesive. ablating a first region around an erosion damage or a transport damage into a surface or surface coating of the rotor blade, applying an adhesive as a levelling material in the ablated region of the rotor blade surface or the surface coating, to level the ablated region, placing an erosion protection film on the adhesive, and curing the adhesive.
A method for rendering digital text on a mobile equipment, the method comprising: determining a status of a flag associated with an application on a smart card upon receiving an event generated by the ME; triggering the application on the smart card based on the determining; retrieving, by the application, the digital text from the smart card; and rendering the digital text on the ME to facilitate network authentication of the smart card. determining a status of a flag associated with an application on a smart card upon receiving an event generated by the ME; triggering the application on the smart card based on the determining; retrieving, by the application, the digital text from the smart card; and rendering the digital text on the ME to facilitate network authentication of the smart card.
An atomizer for an aerosol delivery device, the atomizer comprising: a chamber (203; 303; 403; 503; 603) formed of a chamber wall (205; 305; 405; 505; 605) and configured for trapping electromagnetic radiation delivered therein; a radiation source (215; 315; 415; 515; 615) configured to provide the electromagnetic radiation within the chamber (203; 303; 403; 503; 603); and a wick (212; 312; 412; 512; 612), at least a portion of which is positioned within the radiation-trapping chamber (203; 303; 403; 503; 603) so as to be in a vaporizing arrangement with the radiation source (215; 315; 415; 515; 615); wherein an interior of the chamber wall (205; 305; 405; 505; 605) is configured to absorb substantially all of the electromagnetic radiation provided by the radiation source (215; 315; 415; 515; 615) or is configured to reflect substantially all of the electromagnetic radiation provided by the radiation source (215; 315; 415; 515; 615). a chamber (203; 303; 403; 503; 603) formed of a chamber wall (205; 305; 405; 505; 605) and configured for trapping electromagnetic radiation delivered therein; a radiation source (215; 315; 415; 515; 615) configured to provide the electromagnetic radiation within the chamber (203; 303; 403; 503; 603); and a wick (212; 312; 412; 512; 612), at least a portion of which is positioned within the radiation-trapping chamber (203; 303; 403; 503; 603) so as to be in a vaporizing arrangement with the radiation source (215; 315; 415; 515; 615); wherein an interior of the chamber wall (205; 305; 405; 505; 605) is configured to absorb substantially all of the electromagnetic radiation provided by the radiation source (215; 315; 415; 515; 615) or is configured to reflect substantially all of the electromagnetic radiation provided by the radiation source (215; 315; 415; 515; 615).
A catheter pump, comprising: an expandable cannula defining a blood flow channel and comprising an impeller blade zone, a distal inlet zone including a flared portion that widens radially between a proximal end and a distal end to receive and securely engage a distal bearing assembly, and a proximal outlet zone; and an impeller system comprising an impeller body rotatably coupled to the distal bearing assembly, the impeller system movable relative to the expandable cannula along a longitudinal axis of the catheter pump, wherein the catheter pump is selectively transitionable between a separated configuration in which the impeller body and distal bearing assembly are axially spaced from the expandable cannula along the longitudinal axis, and an operational configuration in which the impeller body is positioned within the impeller blade zone of the expandable cannula and the distal bearing assembly is engaged with the flared portion. an expandable cannula defining a blood flow channel and comprising an impeller blade zone, a distal inlet zone including a flared portion that widens radially between a proximal end and a distal end to receive and securely engage a distal bearing assembly, and a proximal outlet zone; and an impeller system comprising an impeller body rotatably coupled to the distal bearing assembly, the impeller system movable relative to the expandable cannula along a longitudinal axis of the catheter pump, wherein the catheter pump is selectively transitionable between a separated configuration in which the impeller body and distal bearing assembly are axially spaced from the expandable cannula along the longitudinal axis, and an operational configuration in which the impeller body is positioned within the impeller blade zone of the expandable cannula and the distal bearing assembly is engaged with the flared portion.
An electric pedal control device for an aircraft, comprising two left pedal transmission assemblies and two right pedal transmission assemblies, each of the pedal transmission assemblies comprising an electric motor, a torque limiter and an elastic connector, wherein the two left pedal transmission assemblies share a transmission mechanism, an angular displacement sensor, and a pedal and the two right pedal transmission assemblies share a further transmission mechanism, a further angular displacement sensor, and a further pedal, wherein each elastic connector connects an output shaft of the corresponding electric motor and one end of the transmission mechanism via the torque limiter, wherein another end of the transmission mechanism is connected to the pedal via a pedal revolute pair, the angular displacement sensor is configured to acquire rotational position information about the pedal around the pedal revolute pair, and the transmission mechanism is provided with a transmission mechanism revolute pair; the transmission mechanism revolute pairs of the transmission mechanisms in the pedal transmission assemblies are connected via a mechanical connecting rod mechanism to effect linkage; and the electric pedal control device further comprises a controller, which is configured to receive the rotational position information acquired by the angular displacement sensors, and to control, according to the rotational position information, the electric motors to dampen the elastic connectors.
A computer-implemented method for exploring structure of a subsurface of the earth, the method comprising: receiving a first seismic data acquired from the subsurface; receiving a second seismic data acquired from the subsurface; wherein the first and second seismic data are recorded by seismic receivers detecting seismic excitations generated by a seismic source, after the seismic excitations travel through the subsurface of the earth; the method being characterized by comprising: processing with a processor the first seismic data having a first signal-to-noise ratio to derive a denoising operator; applying the de-noising operator to the second seismic data having a second SNR to remove noise from the second seismic data, thereby obtaining denoised seismic data; and generating an image of the subsurface of the earth illustrating layers thereof based on the denoised seismic data to estimate location of a hydrocarbon reservoir in the subsurface, wherein the first SNR is greater than the second SNR. receiving a first seismic data acquired from the subsurface; receiving a second seismic data acquired from the subsurface; wherein the first and second seismic data are recorded by seismic receivers detecting seismic excitations generated by a seismic source, after the seismic excitations travel through the subsurface of the earth; the method being characterized by comprising: processing with a processor the first seismic data having a first signal-to-noise ratio to derive a denoising operator; applying the de-noising operator to the second seismic data having a second SNR to remove noise from the second seismic data, thereby obtaining denoised seismic data; and generating an image of the subsurface of the earth illustrating layers thereof based on the denoised seismic data to estimate location of a hydrocarbon reservoir in the subsurface, wherein the first SNR is greater than the second SNR. processing with a processor the first seismic data having a first signal-to-noise ratio to derive a denoising operator; applying the de-noising operator to the second seismic data having a second SNR to remove noise from the second seismic data, thereby obtaining denoised seismic data; and generating an image of the subsurface of the earth illustrating layers thereof based on the denoised seismic data to estimate location of a hydrocarbon reservoir in the subsurface, wherein the first SNR is greater than the second SNR.
A turbine blade, comprising: a tip shroud portion having a base portion and a first seal rail extending radially from the base portion, wherein the first seal rail comprises a tangential surface extending between tangential ends; a root portion configured to couple to a rotor of a turbine; and an airfoil portion radially extending between the root portion and the tip shroud portion; and wherein the airfoil portion comprises a first cooling plenum extending radially through the airfoil portion and configured to receive a cooling fluid, and the first cooling plenum is axially offset from the first seal rail relative to a rotational axis of the rotor, wherein the first seal rail comprises a first cooling passage extending along a first length of the first seal rail, the first cooling passage is fluidly coupled to the first cooling plenum to receive the cooling fluid via a first intermediate cooling passage extending between the first cooling passage and the first cooling plenum, and wherein the first seal rail comprises a first plurality of cooling outlet passages fluidly coupled to the first cooling passage to receive the cooling fluid, the first plurality of cooling outlet passages being disposed within the first seal rail and extending between the first cooling passage and the tangential surface of the first seal rail, and the first plurality of cooling outlet passages are configured to discharge the cooling fluid from the tip shroud portion via the tangential surface. a tip shroud portion having a base portion and a first seal rail extending radially from the base portion, wherein the first seal rail comprises a tangential surface extending between tangential ends; a root portion configured to couple to a rotor of a turbine; and an airfoil portion radially extending between the root portion and the tip shroud portion; and wherein the airfoil portion comprises a first cooling plenum extending radially through the airfoil portion and configured to receive a cooling fluid, and the first cooling plenum is axially offset from the first seal rail relative to a rotational axis of the rotor, wherein the first seal rail comprises a first cooling passage extending along a first length of the first seal rail, the first cooling passage is fluidly coupled to the first cooling plenum to receive the cooling fluid via a first intermediate cooling passage extending between the first cooling passage and the first cooling plenum, and wherein the first seal rail comprises a first plurality of cooling outlet passages fluidly coupled to the first cooling passage to receive the cooling fluid, the first plurality of cooling outlet passages being disposed within the first seal rail and extending between the first cooling passage and the tangential surface of the first seal rail, and the first plurality of cooling outlet passages are configured to discharge the cooling fluid from the tip shroud portion via the tangential surface.
A method of managing security reconfiguration and cell update procedures in a user equipment in a cellular communication system, the method comprising: detecting a cell update trigger event; and aborting any ongoing security reconfiguration procedure in said user equipment in response to said detected cell update trigger event, wherein the method is characterized by: setting a security status indication to a predetermined value in response to said aborted security reconfiguration and in response to a cell update message being triggered to be sent during an ongoing security reconfiguration procedure, wherein the security status indication is a boolean information element, and jointly transmitting a cell update message and said security status indication to a node, wherein the security status indication informs about the security reconfiguration procedure being aborted in the user equipment. detecting a cell update trigger event; and aborting any ongoing security reconfiguration procedure in said user equipment in response to said detected cell update trigger event, wherein the method is characterized by: setting a security status indication to a predetermined value in response to said aborted security reconfiguration and in response to a cell update message being triggered to be sent during an ongoing security reconfiguration procedure, wherein the security status indication is a boolean information element, and jointly transmitting a cell update message and said security status indication to a node, wherein the security status indication informs about the security reconfiguration procedure being aborted in the user equipment. setting a security status indication to a predetermined value in response to said aborted security reconfiguration and in response to a cell update message being triggered to be sent during an ongoing security reconfiguration procedure, wherein the security status indication is a boolean information element, and jointly transmitting a cell update message and said security status indication to a node, wherein the security status indication informs about the security reconfiguration procedure being aborted in the user equipment.
A method for a communication system that implements a converged network to support communication by multiple networks including at least a first network and a second network wherein the first network is a fixed network, the method comprising: transmitting, from a user equipment based on a determination that a signal quality of a signal received from the second network for the multicast or broadcast content fails to satisfy a threshold value, a request to configure the first network to transmit complementary content associated with multicast or broadcast content received at the user equipment from the second network; and combining, at the user equipment, the complementary content received from the first network with the multicast or broadcast content received from the second network to increase a quality of the multicast or broadcast content. transmitting, from a user equipment based on a determination that a signal quality of a signal received from the second network for the multicast or broadcast content fails to satisfy a threshold value, a request to configure the first network to transmit complementary content associated with multicast or broadcast content received at the user equipment from the second network; and combining, at the user equipment, the complementary content received from the first network with the multicast or broadcast content received from the second network to increase a quality of the multicast or broadcast content.
A receiver (300, 400, 410, 430) for a differentially modulated signal of a communication system, comprising: a demodulator (310, 402, 404) arranged and configured to demodulate the received modulated symbols of a received signal into received soft-bits; a hard-decision decoder arranged and configured to decode the received soft-bits into decoded bits; a feedback loop arranged to provide feedback from the hard decision decoder to the demodulator for improving estimation of bits of a current modulated symbol, the feedback loop being configured to re-encode the decoded bits from the hard-decision decoder into re-encoded bits and to modulate the re-encoded bits into an estimated previous modulated symbol and an estimated next modulated symbol, and to provide an estimate of a current received signal from the estimated previous modulated symbol and to provide an estimate of a next received signal from said estimated next modulated symbol; and a noise suppression circuit arranged and configured to combine the estimate of the current received signal and an original current received signal into a noise suppressed estimate of the current received signal and to combine the estimate of the next received signal and an original next received signal into a noise suppressed estimate of the next received signal, and wherein the demodulator (310, 402, 404) is further arranged and configured to iteratively demodulate the received signal using the noise suppressed estimate of the current received signal and the noise suppressed estimate of the next received signal. a demodulator (310, 402, 404) arranged and configured to demodulate the received modulated symbols of a received signal into received soft-bits; a hard-decision decoder arranged and configured to decode the received soft-bits into decoded bits; a feedback loop arranged to provide feedback from the hard decision decoder to the demodulator for improving estimation of bits of a current modulated symbol, the feedback loop being configured to re-encode the decoded bits from the hard-decision decoder into re-encoded bits and to modulate the re-encoded bits into an estimated previous modulated symbol and an estimated next modulated symbol, and to provide an estimate of a current received signal from the estimated previous modulated symbol and to provide an estimate of a next received signal from said estimated next modulated symbol; and a noise suppression circuit arranged and configured to combine the estimate of the current received signal and an original current received signal into a noise suppressed estimate of the current received signal and to combine the estimate of the next received signal and an original next received signal into a noise suppressed estimate of the next received signal, and wherein the demodulator (310, 402, 404) is further arranged and configured to iteratively demodulate the received signal using the noise suppressed estimate of the current received signal and the noise suppressed estimate of the next received signal.