mhurhangee/ep-ind-claims huggingface dataset:
A method of stretching a pelt on a pelt board, said pelt having a substantially tubular shape defining an inwardly oriented leather side, an outwardly oriented fur side, a nose end and a rear end, said pelt board defining a top end for accommodating and fixating said nose end of said pelt, a circumferential wall for facing said inwardly oriented leather side of said pelt and a base end located opposite said top end, said method comprising the steps of: i) providing a stretching apparatus comprising a holding device, a fastening device comprising a gripping mechanism, and a drive mechanism connected between said holding device and said fastening device, ii) holding said base end of a pelt board by said holding device so that said pelt board extending outwardly along a longitudinal direction from said holding device, iii) fastening said rear end of said pelt by using said gripping mechanism of said fastening device, and iv) moving said holding device and said fastening device relative to each other in said longitudinal direction by using said drive mechanism for applying a stretching force onto said pelt by said drive mechanism corresponding to a estimated maximum stretching force value during a total time period of between 5 seconds and 120 seconds, preferably said total time period being greater than 10 seconds, more preferably greater than 20 seconds, most preferably greater than 30 seconds, such as greater than 60 seconds, or ever greater than 90 seconds, wherein during said total time period said stretching force is increasing beyond said estimated maximum stretching force value to an elevated stretching force. i) providing a stretching apparatus comprising a holding device, a fastening device comprising a gripping mechanism, and a drive mechanism connected between said holding device and said fastening device, ii) holding said base end of a pelt board by said holding device so that said pelt board extending outwardly along a longitudinal direction from said holding device, iii) fastening said rear end of said pelt by using said gripping mechanism of said fastening device, and iv) moving said holding device and said fastening device relative to each other in said longitudinal direction by using said drive mechanism for applying a stretching force onto said pelt by said drive mechanism corresponding to a estimated maximum stretching force value during a total time period of between 5 seconds and 120 seconds, preferably said total time period being greater than 10 seconds, more preferably greater than 20 seconds, most preferably greater than 30 seconds, such as greater than 60 seconds, or ever greater than 90 seconds, wherein during said total time period said stretching force is increasing beyond said estimated maximum stretching force value to an elevated stretching force.
Assembly of a wing frame and a wing, the wing being a door, wherein the wing frame is arranged for rotatable reception of the wing, wherein the wing is assembled from an inner member and an outer member, the inner member and outer member have similar shapes, the inner member and outer member are free from recesses which function as a see through passage, characterized in that a thermally insulated plate-shaped intermediate member is placed between the inner member and outer member, which substantially extends over the entire surface of the inner member and the outer member, such that the inner member and outer member do not touch each other.
A magnetoresistive device comprising: a top electrode; a fixed region, the fixed region having a fixed magnetic state; a cap region above the fixed region and below the top electrode; a free region below the fixed region, wherein the free region is configured to have a first magnetic state and a second magnetic state; a dielectric layer between the free region and the fixed region; a transition layer between the dielectric layer and the fixed region; a reference layer between the transition layer and the dielectric layer; a spin-Hall material proximate to at least a portion of the free region; and a first insertion layer (201, 202, 203, 204) disposed between the SH material and the top electrode in contact with the cap region or the transition layer and a second insertion layer (201, 202, 203, 204) disposed between the SH material and the top electrode in contact with the cap region or the transition layer, wherein each of first and the second insertion layer (201, 202, 203, 204) comprises antiferromagnetic material. a top electrode; a fixed region, the fixed region having a fixed magnetic state; a cap region above the fixed region and below the top electrode; a free region below the fixed region, wherein the free region is configured to have a first magnetic state and a second magnetic state; a dielectric layer between the free region and the fixed region; a transition layer between the dielectric layer and the fixed region; a reference layer between the transition layer and the dielectric layer; a spin-Hall material proximate to at least a portion of the free region; and a first insertion layer (201, 202, 203, 204) disposed between the SH material and the top electrode in contact with the cap region or the transition layer and a second insertion layer (201, 202, 203, 204) disposed between the SH material and the top electrode in contact with the cap region or the transition layer, wherein each of first and the second insertion layer (201, 202, 203, 204) comprises antiferromagnetic material.
A method for producing modifications in or on a transparent workpiece using a laser processing device, wherein a laser processing device is used which comprises a short pulsed laser or ultrashort pulsed laser that emits a laser radiation with a wavelength in the transparency range of the workpiece, and which includes a beam shaping optical unit for beam shaping, in particular for focusing the laser radiation; and wherein a transparent workpiece is used which consists of a material that has a plurality of phases, wherein at least two phases thereof have different dielectric constants and wherein one phase thereof, in turn, is a phase that is embedded in the form of particles and is substantially surrounded by the other phase; and characterized in that: the product of the volume of the particles, specified in cubic nanometres, and the ratio of the absolute value of the difference of the two different dielectric constants to the dielectric constant of the surrounding phase is greater than 500, preferably greater than 1000, more preferably greater than 2000.
A method for feeding back Acknowledgement/Negative-acknowledgement, ACK/NACK, information for carrier aggregation, characterized by comprising: configuring, according to a downlink component carrier type, a common field preset in Downlink Control Information, DCI, in physical downlink control channel, PDCCH, as a command field of one of at least two types of command fields related to ACK/NACK feedback, wherein the two types of command fields comprise a transmission power control, TPC, command field and an ACK resource indication, ARI, command field, wherein a type of command field, which the common field transmitted by a system-linked downlink component carrier is configured as, is different from a type of command field, which the common field transmitted by a non system-linked downlink component carrier is configured as; wherein if an uplink ACK channel resource implicitly mapped from a PDCCH is reserved on one uplink component carrier for a certain downlink component carrier, the downlink component carrier is a system-linked downlink component carrier of the uplink component carrier; and sending the DCI to a user equipment, so that the user equipment feeds back the ACK/NACK information according to the DCI. configuring, according to a downlink component carrier type, a common field preset in Downlink Control Information, DCI, in physical downlink control channel, PDCCH, as a command field of one of at least two types of command fields related to ACK/NACK feedback, wherein the two types of command fields comprise a transmission power control, TPC, command field and an ACK resource indication, ARI, command field, wherein a type of command field, which the common field transmitted by a system-linked downlink component carrier is configured as, is different from a type of command field, which the common field transmitted by a non system-linked downlink component carrier is configured as; wherein if an uplink ACK channel resource implicitly mapped from a PDCCH is reserved on one uplink component carrier for a certain downlink component carrier, the downlink component carrier is a system-linked downlink component carrier of the uplink component carrier; and sending the DCI to a user equipment, so that the user equipment feeds back the ACK/NACK information according to the DCI.
A temperature-controlled hot edge ring assembly adapted to surround a semiconductor substrate support in a plasma reaction chamber, the assembly comprising: a lower ring; an intermediate ring, the intermediate ring overlying the lower ring, the intermediate ring adapted to be attached via the lower ring to a radio frequency electrode incorporated in the substrate support; and an upper ring, the upper ring overlying the intermediate ring, wherein the upper ring has an upper surface exposed to an interior of the plasma reaction chamber, characterized in that the lower ring is made of aluminum, aluminum alloy, brass, copper, copper alloy or stainless steel, the intermediate ring is made of a ceramic material, the intermediate ring is thermally coupled to the radio frequency electrode via the lower ring. a lower ring; an intermediate ring, the intermediate ring overlying the lower ring, the intermediate ring adapted to be attached via the lower ring to a radio frequency electrode incorporated in the substrate support; and an upper ring, the upper ring overlying the intermediate ring, wherein the upper ring has an upper surface exposed to an interior of the plasma reaction chamber, characterized in that the lower ring is made of aluminum, aluminum alloy, brass, copper, copper alloy or stainless steel, the intermediate ring is made of a ceramic material, the intermediate ring is thermally coupled to the radio frequency electrode via the lower ring.
A method comprising: receiving, by a device executing a Tacotron system with an end-to-end attention mechanism, a text input that includes a sequence of characters and/or phonemes; the method is characterised by: replacing the end-to-end attention mechanism within the Tacotron system with a duration model that predicts how long a single character and/or phoneme lasts; determining, by the device and using the duration model within the Tacotron system, respective temporal duration of each of the characters and/or phonemes, wherein the duration model is trained using a set of prediction frames of known durations and training characters and/or phonemes; determining, by the device, whether the respective temporal duration of each of the characters and/or phonemes is determined; based on determining that the respective temporal duration of each of the characters and/or phonemes is determined, generating, by the device and using the Tacotron system, a first set of spectra based on the sequence of characters and/or phonemes; based on determining that the respective temporal duration of each of the characters and/or phonemes is determined, generating, by the device and using the Tacotron system, a second set of spectra by replicating respective spectra of the first set of spectra according to the respective temporal durations of the sequence of characters and/or phonemes; generating, by the device and using the Tacotron system, a spectrogram frame based on the second set of spectra; generating, by the device and using the Tacotron system, an audio waveform based on the spectrogram frame; and providing, by the device and using the Tacotron system, the audio waveform as an output. replacing the end-to-end attention mechanism within the Tacotron system with a duration model that predicts how long a single character and/or phoneme lasts; determining, by the device and using the duration model within the Tacotron system, respective temporal duration of each of the characters and/or phonemes, wherein the duration model is trained using a set of prediction frames of known durations and training characters and/or phonemes; determining, by the device, whether the respective temporal duration of each of the characters and/or phonemes is determined; based on determining that the respective temporal duration of each of the characters and/or phonemes is determined, generating, by the device and using the Tacotron system, a first set of spectra based on the sequence of characters and/or phonemes; based on determining that the respective temporal duration of each of the characters and/or phonemes is determined, generating, by the device and using the Tacotron system, a second set of spectra by replicating respective spectra of the first set of spectra according to the respective temporal durations of the sequence of characters and/or phonemes; generating, by the device and using the Tacotron system, a spectrogram frame based on the second set of spectra; generating, by the device and using the Tacotron system, an audio waveform based on the spectrogram frame; and providing, by the device and using the Tacotron system, the audio waveform as an output.
An automotive alternator comprising: a rotor rotatably supported in a bracket (1,2); and a stator provided with a cylindrical stator core in which a plurality of slots extending axially are formed circumferentially and a stator winding installed in said stator core, said stator being supported in said bracket so as to surround an outer circumference of said rotor,wherein said slots are formed in said stator core at a ratio of two per phase per pole, wherein said stator winding is provided with two three-phase alternating-current windings, each of said three-phase alternating-current windings being constructed by forming three single-phase winding portions (30,30A,30B,47) installed in said slots into an alternating-current connection, and wherein each of said single-phase winding portions (30,30A,30B,47) is constructed by installing a conductor wire such that winds of said conductor wire extend outwards from first and second ends of said slots, are divided onto first and second circumferential sides, and enter slots on said first and second circumferential sides, characterized in that at least one of said single-phase winding portions is constructed by installing said conductor wire in a divided lap winding in said slots in which said conductor wire is wound for a predetermined number of winds into pairs of slots, and the winds of said conductor wire led out from each of the slots are divided into the same number of winds on first and second circumferential sides. a rotor rotatably supported in a bracket (1,2); and a stator provided with a cylindrical stator core in which a plurality of slots extending axially are formed circumferentially and a stator winding installed in said stator core, said stator being supported in said bracket so as to surround an outer circumference of said rotor,wherein said slots are formed in said stator core at a ratio of two per phase per pole, wherein said stator winding is provided with two three-phase alternating-current windings, each of said three-phase alternating-current windings being constructed by forming three single-phase winding portions (30,30A,30B,47) installed in said slots into an alternating-current connection, and wherein each of said single-phase winding portions (30,30A,30B,47) is constructed by installing a conductor wire such that winds of said conductor wire extend outwards from first and second ends of said slots, are divided onto first and second circumferential sides, and enter slots on said first and second circumferential sides, characterized in that at least one of said single-phase winding portions is constructed by installing said conductor wire in a divided lap winding in said slots in which said conductor wire is wound for a predetermined number of winds into pairs of slots, and the winds of said conductor wire led out from each of the slots are divided into the same number of winds on first and second circumferential sides.
An air-conditioner comprising: a compressor having a power mode in which the compressor is operated with a maximum compression capacity and a saving mode in which the compressor is operated with a smaller compression capacity than in the power mode; a temperature detection unit configured to detect an actually measured temperature for determining an operation mode of the compressor; and a control unit for changing the operation mode of the compressor by comparing the actually measured temperature which has been detected by the temperature detection unit to a pre-set reference temperature, wherein if the actually measured temperature is higher than an upper limit of a temperature range corresponding to the power mode domain, the control unit controls the compressor to be operated in the saving mode, characterized in that one or more time domains are set, and the control unit controls the compressor to be operated in the saving mode at a particular time domain, and wherein the control unit controls, in the other time domain except for the particular time domain, the compressor to be consecutively operated in the power mode and the saving mode in a selective manner according to the comparison result between the actually measured temperature and the reference temperature. a compressor having a power mode in which the compressor is operated with a maximum compression capacity and a saving mode in which the compressor is operated with a smaller compression capacity than in the power mode; a temperature detection unit configured to detect an actually measured temperature for determining an operation mode of the compressor; and a control unit for changing the operation mode of the compressor by comparing the actually measured temperature which has been detected by the temperature detection unit to a pre-set reference temperature, wherein if the actually measured temperature is higher than an upper limit of a temperature range corresponding to the power mode domain, the control unit controls the compressor to be operated in the saving mode, characterized in that one or more time domains are set, and the control unit controls the compressor to be operated in the saving mode at a particular time domain, and wherein the control unit controls, in the other time domain except for the particular time domain, the compressor to be consecutively operated in the power mode and the saving mode in a selective manner according to the comparison result between the actually measured temperature and the reference temperature.
A high-strength galvanized steel sheet having excellent deep drawability and stretch flangeability, comprising: on a mass percent basis, C: 0.010% or more and 0.06% or less, Si: more than 0.5% and 1.5% or less, Mn: 1.0% or more and 3.0% or less, P: 0.005% or more and 0.1% or less, S: 0.01% or less, sol.Al: 0.005% or more and 0.5% or less, N: 0.01% or less, Nb: 0.010% or more and 0.090% or less, and Ti: 0.015% or more and 0.15% or less, optionally one or more of Mo, Cr, and V constituting 0.5% or less, optionally one or two of Cu: 0.3% or less and Ni: 0.3% or less, optionally one or two of Sn: 0.2% or less and Sb: 0.2% or less and optionally Ta: 0.005% or more and 0.1% or less, the Nb and C content (% by mass)of the steel satisfying the relation of (Nb/93)/(C/12) < 0.20, C* given by the following formula or, in the case of Ta being present at 0.005 to 0.1% by mass, given by the following formula satisfying 0.005 ≤ C* ≤ 0.025, and the remainder being Fe and unavoidable impurities, wherein ferrite constitutes 70% by area ratio or more, martensite constitutes 3% by area ratio or more, the average r-value (Lankford value) is 1.2 or more, and the hole expansion ratio (λ) is 80% or more: C * = C − 12 / 93 Nb − 12 / 48 Ti − 48 / 14 N C * = C − 12 / 93 Nb − 12 / 181 Ta − 12 / 48 Ti − 48 / 14 N wherein C, Nb, Ta, Ti, and N denote the C, Nb, Ta, Ti, and N contents (% by mass) of the steel, respectively, provided that if Ti - (48/14)N ≤ 0, then Ti - (48/14)N = 0.
A polymer blend comprising: an ionomer of a copolymer comprising ethylene and acrylic acid having a melt index (I 2) of 1 to 60 g/10 minutes, wherein the total amount of ionomer comprises 55 to 99 weight percent of the blend based on the total weight of the blend; and a polyolefin having a density of 0.870 g/cm 3 or more and having a melt index (I 2) of 20 g/10 minutes or less, wherein the polyolefin comprises 1 to 45 weight percent of the blend based on the total weight of the blend, wherein the polymer blend meets the following equation: 3.5 < 2.76 − 60 * I 2 PO + 308 * RVR + 0.023 * A < 4.5 wherein I 2 is the melt index (I 2) of the polyolefin, RVR is the relative viscosity ratio of the polyolefin to the ionomer (I 2 /I 2(ionomer)), and A is the weight percent of ionomer in the polymer blend based on the total weight of the blend; and wherein the polyolefin comprises low density polyethylene or linear low density polyethylene. an ionomer of a copolymer comprising ethylene and acrylic acid having a melt index (I 2) of 1 to 60 g/10 minutes, wherein the total amount of ionomer comprises 55 to 99 weight percent of the blend based on the total weight of the blend; and a polyolefin having a density of 0.870 g/cm 3 or more and having a melt index (I 2) of 20 g/10 minutes or less, wherein the polyolefin comprises 1 to 45 weight percent of the blend based on the total weight of the blend, wherein the polymer blend meets the following equation: 3.5 < 2.76 − 60 * I 2 PO + 308 * RVR + 0.023 * A < 4.5 wherein I 2 is the melt index (I 2) of the polyolefin, RVR is the relative viscosity ratio of the polyolefin to the ionomer (I 2 /I 2(ionomer)), and A is the weight percent of ionomer in the polymer blend based on the total weight of the blend; and wherein the polyolefin comprises low density polyethylene or linear low density polyethylene.