mhurhangee/ep-ind-claims huggingface dataset:
A control device for a vehicle, comprising: an automatic transmission constituted of a stepwise variable transmission mechanism configured to switch a plurality of shift stages by engagement and disengagement of a plurality of friction engaging elements, and a continuously variable transmission mechanism coupled to the stepwise variable transmission mechanism in series and configured to steplessly change a speed ratio; an engine as a driving source; a motor configured to assist a driving force of the engine; a hydraulic controller configured to supply a hydraulic pressure to control the engagement and the disengagement of a friction engaging element; and a control unit configured to control the automatic transmission to a target speed ratio through changing the shift stage of the stepwise variable transmission mechanism, characterized in that: the control unit performs a learning control that learns at least one of hydraulic pressure of the engagement and the disengagement of the friction engaging element in changing the shift stage of the stepwise variable transmission mechanism, and the control unit inhibits the assist of the driving force to the engine by the motor in performing the learning control. an automatic transmission constituted of a stepwise variable transmission mechanism configured to switch a plurality of shift stages by engagement and disengagement of a plurality of friction engaging elements, and a continuously variable transmission mechanism coupled to the stepwise variable transmission mechanism in series and configured to steplessly change a speed ratio; an engine as a driving source; a motor configured to assist a driving force of the engine; a hydraulic controller configured to supply a hydraulic pressure to control the engagement and the disengagement of a friction engaging element; and a control unit configured to control the automatic transmission to a target speed ratio through changing the shift stage of the stepwise variable transmission mechanism, characterized in that: the control unit performs a learning control that learns at least one of hydraulic pressure of the engagement and the disengagement of the friction engaging element in changing the shift stage of the stepwise variable transmission mechanism, and the control unit inhibits the assist of the driving force to the engine by the motor in performing the learning control. the control unit performs a learning control that learns at least one of hydraulic pressure of the engagement and the disengagement of the friction engaging element in changing the shift stage of the stepwise variable transmission mechanism, and the control unit inhibits the assist of the driving force to the engine by the motor in performing the learning control.
A yarn, comprising: a plurality of recombinant protein fibers twisted around a common axis, wherein the mean initial modulus of the recombinant protein fiber is greater than 550 cN/tex, and the recombinant protein fiber comprises a polypeptide comprising at least two occurrences of a repeat unit, the repeat unit comprising: more than 150 amino acid residues and having a molecular weight of at least 10kDal; an alanine-rich region with 6 or more consecutive amino acids, comprising an alanine content of at least 80%; and a glycine-rich region with 12 or more consecutive amino acids, comprising a glycine content of at least 40% and an alanine content of less than 30%. the mean initial modulus of the recombinant protein fiber is greater than 550 cN/tex, and the recombinant protein fiber comprises a polypeptide comprising at least two occurrences of a repeat unit, the repeat unit comprising: more than 150 amino acid residues and having a molecular weight of at least 10kDal; an alanine-rich region with 6 or more consecutive amino acids, comprising an alanine content of at least 80%; and a glycine-rich region with 12 or more consecutive amino acids, comprising a glycine content of at least 40% and an alanine content of less than 30%. more than 150 amino acid residues and having a molecular weight of at least 10kDal; an alanine-rich region with 6 or more consecutive amino acids, comprising an alanine content of at least 80%; and a glycine-rich region with 12 or more consecutive amino acids, comprising a glycine content of at least 40% and an alanine content of less than 30%.
A copper ion removing method of removing copper ions from a copper containing nickel chloride solution which has been produced by chlorine leaching a nickel sulfide, the method comprising: a first step of adding a nickel sulfide to the copper containing nickel chloride solution for reduction of, at least, bivalent copper ions in the copper containing nickel chloride solution to univalent copper ions; and a second step of adding a nickel mat and a residue produced by the chlorine leaching to a slurry produced by the first step to solidify of the univalent copper ions in the slurry as a sulfide. a first step of adding a nickel sulfide to the copper containing nickel chloride solution for reduction of, at least, bivalent copper ions in the copper containing nickel chloride solution to univalent copper ions; and a second step of adding a nickel mat and a residue produced by the chlorine leaching to a slurry produced by the first step to solidify of the univalent copper ions in the slurry as a sulfide.
A polymer composition comprising i) a polymer of ethylene (a) with a polar comonomer(s), wherein - the polar comonomer is selected from the group of methyl acrylate and methyl methacrylate, and wherein - the polymer of ethylene (a) optionally bears functional group(s) containing units other than said polar comonomer, and ii) silane group(s) containing units (b), wherein the polymer composition has - an MFR 2 of 13 to 70 g/10 min (according to ISO 1133 at 190 °C and at a load of 2.16 kg), and - a Shear Thinning Index, SHI 0.05/300, of 10.0 to 35.0, when measured according to "Rheological properties: Dynamic Shear Measurements (frequency sweep measurements)" as described in the specification under "Determination Methods". i) a polymer of ethylene (a) with a polar comonomer(s), wherein - the polar comonomer is selected from the group of methyl acrylate and methyl methacrylate, and wherein - the polymer of ethylene (a) optionally bears functional group(s) containing units other than said polar comonomer, and - the polar comonomer is selected from the group of methyl acrylate and methyl methacrylate, and wherein - the polymer of ethylene (a) optionally bears functional group(s) containing units other than said polar comonomer, and ii) silane group(s) containing units (b), wherein the polymer composition has - an MFR 2 of 13 to 70 g/10 min (according to ISO 1133 at 190 °C and at a load of 2.16 kg), and - a Shear Thinning Index, SHI 0.05/300, of 10.0 to 35.0, when measured according to "Rheological properties: Dynamic Shear Measurements (frequency sweep measurements)" as described in the specification under "Determination Methods". - an MFR 2 of 13 to 70 g/10 min (according to ISO 1133 at 190 °C and at a load of 2.16 kg), and - a Shear Thinning Index, SHI 0.05/300, of 10.0 to 35.0, when measured according to "Rheological properties: Dynamic Shear Measurements (frequency sweep measurements)" as described in the specification under "Determination Methods".
An error correction method, comprising: obtaining an output signal and an amplitude value of a feed forward equalizer FFE, wherein the amplitude value is a channel response amplitude value corresponding to an equivalent channel of the FFE; performing level decision on the output signal based on the amplitude value to obtain a first decision signal, wherein the first decision signal comprises 2M-1 decision symbols, and M is an integer not less than 2; performing 1/(1+D) decoding on the first decision signal to obtain a first decoded signal; determining the first decoded signal as a second decision signal, wherein the second decision signal comprises M decision symbols, characterized in that the method further comprises: if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal. obtaining an output signal and an amplitude value of a feed forward equalizer FFE, wherein the amplitude value is a channel response amplitude value corresponding to an equivalent channel of the FFE; performing level decision on the output signal based on the amplitude value to obtain a first decision signal, wherein the first decision signal comprises 2M-1 decision symbols, and M is an integer not less than 2; performing 1/(1+D) decoding on the first decision signal to obtain a first decoded signal; determining the first decoded signal as a second decision signal, wherein the second decision signal comprises M decision symbols, characterized in that the method further comprises: if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal. if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal.
Polypeptide for inhibition of contact activation in a test sample of blood or its product, comprising the sequence of an infestin-4 mutant MutB (SEQ ID NO: 1) or a sequence which substantially corresponds to it, where the said sequence can have modifications outside the inhibition loop (Thr9 - Ala14) which maintain the activity of the said polypeptide, being a high-selectivity fXIIa inhibitor with selectivity higher than that of the native infestin-4 or Mut15, or with activity higher than that of the native infestin-4 or Mut15.
A yarn winding device comprising: a yarn supplying section adapted to support a yarn supplying bobbin on which a yarn is wound; a winding section adapted wind the yarn pulled from the yarn supplying bobbin supported in the yarn supplying section; a yarn-end blower adapted to blow off a yarn end from the yarn supplying bobbin to the winding section side by blowing an air current; and a yarn catching section (14; 90) adapted to catch the yarn end blown off by the yarn-end blower, wherein the yarn catching section (14; 90) includes a main body (72; 94); and a suction section (74; 96) that is constituted by a cylindrical member on which a suction port (74a; 96a) adapted to suck the yarn is formed, wherein the suction section (74; 96) is arranged so as to be capable of performing a reciprocating linear movement in an axial direction of the cylindrical member in the main body (72; 94), in which a suction force is generated in the suction port (74a; 96a) when the suction section (74; 96) is at a first position that is near a yarn path of the yarn that moves from the yarn supplying section to the winding section, characterized in that the suction force is not generated in the suction port (74a; 96a) when the suction section (74; 96) is at a second position that is retracted from the yarn path, and the yarn catching section includes a shutter adapted to open or close the suction port in accordance with a movement of the suction section. a yarn supplying section adapted to support a yarn supplying bobbin on which a yarn is wound; a winding section adapted wind the yarn pulled from the yarn supplying bobbin supported in the yarn supplying section; a yarn-end blower adapted to blow off a yarn end from the yarn supplying bobbin to the winding section side by blowing an air current; and a yarn catching section (14; 90) adapted to catch the yarn end blown off by the yarn-end blower, wherein the yarn catching section (14; 90) includes a main body (72; 94); and a suction section (74; 96) that is constituted by a cylindrical member on which a suction port (74a; 96a) adapted to suck the yarn is formed, wherein the suction section (74; 96) is arranged so as to be capable of performing a reciprocating linear movement in an axial direction of the cylindrical member in the main body (72; 94), in which a suction force is generated in the suction port (74a; 96a) when the suction section (74; 96) is at a first position that is near a yarn path of the yarn that moves from the yarn supplying section to the winding section, characterized in that the suction force is not generated in the suction port (74a; 96a) when the suction section (74; 96) is at a second position that is retracted from the yarn path, and the yarn catching section includes a shutter adapted to open or close the suction port in accordance with a movement of the suction section.
A computer-implemented method of performing a knowledge proof using a set of transactions for recording in a blockchain maintained in a blockchain network, the method comprising: determining, by a challenger, a competition challenge, the competition challenge having a challenge solution derivable therefrom; at a challenger device, determining a signature challenge (1403, 1503) for the competition challenge; and submitting, to the blockchain network, the signature challenge (1403, 1503) in at least one challenge transaction (1402, 1502) for recording in the blockchain; wherein the competition challenge is communicated to a plurality of competing challengees, without communicating the challenge solution directly, thereby causing the competing challengees compete to derive, from the competition challenge, independent instances of the challenge solution; wherein a first of the challengees to successfully derive an independent instance of the challenge solution uses data thereof as a secret challengee key to sign at least one message at a challengee device, and thereby generate at least one transaction signature, and submits the at least one transaction signature and the at least one message to the blockchain network in at least one proof transaction (1404, 1504), thereby causing a node of the blockchain network to determine whether the at least one transaction signature satisfies the signature challenge (1403, 1503). determining, by a challenger, a competition challenge, the competition challenge having a challenge solution derivable therefrom; at a challenger device, determining a signature challenge (1403, 1503) for the competition challenge; and submitting, to the blockchain network, the signature challenge (1403, 1503) in at least one challenge transaction (1402, 1502) for recording in the blockchain; wherein the competition challenge is communicated to a plurality of competing challengees, without communicating the challenge solution directly, thereby causing the competing challengees compete to derive, from the competition challenge, independent instances of the challenge solution; wherein a first of the challengees to successfully derive an independent instance of the challenge solution uses data thereof as a secret challengee key to sign at least one message at a challengee device, and thereby generate at least one transaction signature, and submits the at least one transaction signature and the at least one message to the blockchain network in at least one proof transaction (1404, 1504), thereby causing a node of the blockchain network to determine whether the at least one transaction signature satisfies the signature challenge (1403, 1503).
A method for signal transmission, comprising: transmitting to a terminal device, by a network device, a mapping relationship between a Sounding Reference Signal, SRS, resource group and a downlink reference signal through Radio Resource Control, RRC, signaling, wherein the mapping relationship further comprises a state identifier, and the state identifier is used to identify the mapping relationship between the SRS resource group and the downlink reference signal; and transmitting, by the network device, indication information to the terminal device, the indication information being used to indicate the state identifier, the state identifier being used to trigger the terminal device to transmit an SRS with the mapping relationship identified by the state identifier to the network device. transmitting to a terminal device, by a network device, a mapping relationship between a Sounding Reference Signal, SRS, resource group and a downlink reference signal through Radio Resource Control, RRC, signaling, wherein the mapping relationship further comprises a state identifier, and the state identifier is used to identify the mapping relationship between the SRS resource group and the downlink reference signal; and transmitting, by the network device, indication information to the terminal device, the indication information being used to indicate the state identifier, the state identifier being used to trigger the terminal device to transmit an SRS with the mapping relationship identified by the state identifier to the network device.
Device for mangling laundry items, having at least one stationary mangle body (11; 31; 32; 44; 74) and at least one revolvingly drivable mangle belt (18; 38; 51; 77) which is assigned to the at least one mangle body (11; 31; 32; 44; 74), wherein the laundry items are conveyable by the mangle belt (18; 38; 51; 77) through a mangling gap between the mangle body (11; 31; 32; 44; 74) and the mangle belt (18; 38; 51; 77), characterized in that the at least one mangle belt (18; 38; 51; 77) displays an outer face (20; 39: 53; 95) which is structured so as to entrain the laundry items and which is configured so as to be rough and roughened in such a manner that the outer face (20; 39; 53; 95) disposes of a coefficient of friction, which is greater than the coefficient of friction of the laundry items, and the at least one mangle belt (18; 38; 51; 77) displays longitudinal bracings and/or transverse bracings in order that the at least one mangle belt remains dimensionally stable also under load.
A cable for a robot, comprising: a center insert; at least one inner core surrounding the center insert; at least one first insert surrounding the center insert and wherein the at least one inner core and the at least one first insert are disposed on an outer side of the center insert; an inner binding tape surrounding the inner core and the first insert to bind the inner core and the first insert, the inner binding tape being formed of an unsintered fluororesin; at least one outer core surrounding an outer side of the inner binding tape; at least one second insert on an outer side of the inner binding tape; an outer binding tape for binding the outer core and the second insert, the outer binding tape being formed of an unsintered fluororesin; a shielding layer on an outer side of the outer binding tape; and a sheath on an outer side of the shielding layer, wherein the inner core comprises: a first conductor with a plurality of first wire rods twisted at a predetermined first pitch; and a first insulating layer on an outer side of the first conductor, wherein the first pitch is 15 to 30 times an outer diameter of the first conductor, wherein the center insert, the first insert and the second insert are formed by twisting elastic yarn, respectively. a center insert; at least one inner core surrounding the center insert; at least one first insert surrounding the center insert and wherein the at least one inner core and the at least one first insert are disposed on an outer side of the center insert; an inner binding tape surrounding the inner core and the first insert to bind the inner core and the first insert, the inner binding tape being formed of an unsintered fluororesin; at least one outer core surrounding an outer side of the inner binding tape; at least one second insert on an outer side of the inner binding tape; an outer binding tape for binding the outer core and the second insert, the outer binding tape being formed of an unsintered fluororesin; a shielding layer on an outer side of the outer binding tape; and a sheath on an outer side of the shielding layer, wherein the inner core comprises: a first conductor with a plurality of first wire rods twisted at a predetermined first pitch; and a first insulating layer on an outer side of the first conductor, wherein the first pitch is 15 to 30 times an outer diameter of the first conductor, wherein the center insert, the first insert and the second insert are formed by twisting elastic yarn, respectively. a first conductor with a plurality of first wire rods twisted at a predetermined first pitch; and a first insulating layer on an outer side of the first conductor, wherein the first pitch is 15 to 30 times an outer diameter of the first conductor, wherein the center insert, the first insert and the second insert are formed by twisting elastic yarn, respectively.
Method for controlling the web tension in a web-processing machine having at least one control device (150; 200) with controller parameters, wherein at least two sets (210, 211) of controller parameters are provided, wherein one of the at least two sets (210, 211) of controller parameters is applied to the control device (150; 200) on the basis of a system deviation (e) and/or a desired value change (w).
An electric submersible pump system comprising: a multiphase electric motor (350, 415) operatively coupled to a fluid pump wherein the multiphase motor (350, 415) comprises a wye point (425, 625); telemetry circuitry operatively coupled to the wye point (425, 625) wherein the telemetry circuitry generates AC telemetry signals; a multiphase power cable (411, 611) operatively coupled to the multiphase electric motor (350, 415); characterised by: a tune filter operatively coupled to the multiphase power cable (411, 611) wherein the tune filter passes and amplifies AC telemetry signals generated by the telemetry circuitry, the AC telemetry signals being transmitted to the multiphase power cable (411, 611) via the wye point (425, 625); and a line trap operatively coupled to the multiphase power cable (411, 611), wherein the line trap comprises a valley trap frequency for attenuating noise generated by a power drive operatively coupled to the multiphase power cable (411, 611). a tune filter operatively coupled to the multiphase power cable (411, 611) wherein the tune filter passes and amplifies AC telemetry signals generated by the telemetry circuitry, the AC telemetry signals being transmitted to the multiphase power cable (411, 611) via the wye point (425, 625); and a line trap operatively coupled to the multiphase power cable (411, 611), wherein the line trap comprises a valley trap frequency for attenuating noise generated by a power drive operatively coupled to the multiphase power cable (411, 611).