mhurhangee/ep-ind-claims huggingface dataset:
A method for correction of transmission errors wherein at least two encoded binary series each correspond to the result of the convolution of the same binary series to be transmitted with the coefficients of a respective generator polynomial and are received from a communications channel, characterised in that a first binary series results from the convolution of the binary series to be transmitted with a first generator polynomial and a second binary series results from the convolution of the binary series to be transmitted with a second generator polynomial different of the first generator polynomial, and in that it comprises the steps consisting of: - producing, from two received encoded binary series, comparison binary series which coincide in the absence of transmission errors over the communications channel; - comparing the comparison binary series and forming a detection binary series corresponding to the logic operation exclusive OR of the two comparison binary series; - in case of divergence of the comparison binary series from a divergence point, verifying if the sequence constituted by P bits of the detection binary series from the divergence point corresponds to a listed transmission error and if needed correcting the received encoded binary series. - producing, from two received encoded binary series, comparison binary series which coincide in the absence of transmission errors over the communications channel; - comparing the comparison binary series and forming a detection binary series corresponding to the logic operation exclusive OR of the two comparison binary series; - in case of divergence of the comparison binary series from a divergence point, verifying if the sequence constituted by P bits of the detection binary series from the divergence point corresponds to a listed transmission error and if needed correcting the received encoded binary series.
Transport container having a rectangular or square bottom, having four walls (18, 22), which extend from the bottom, bound each other in pairs, enclose a container interior, form a peripheral upper edge at a distance from the bottom, having a peripheral stacking edge, which is placed onto and connected to the walls (18, 22), the stacking edge having a channel, which runs between two channel side walls and is open at the bottom and in which the upper edge is held, an upper rest face and an outer wall, which extends upwards from the rest face and borders the rest face, and having corner reinforcements, which are arranged on the four container edges at which each pair of walls (18, 22) meet and which each have two sides arranged at right angles to each other, of which, in each case, one bears against one of the two walls (18, 22) in question, and which each extend from the bottom into the channel, in each case one first reinforcement element being arranged in the channel in the region of the four container edges, said first reinforcement element extending as far as a first transverse wall that delimits the channel at the top, the first reinforcement elements each extending from the container edge in question at least a little towards both adjacent container edges, characterised in that the first reinforcement elements rest on the respective corner reinforcement.
A time scaler (200; 340; 450; 866; 900; 1000) for providing a time scaled version (212;312;448;956) of an input audio signal (210; 332;442;910), wherein the time scaler is configured to compute or estimate (950; 1060) a quality of a time scaled version of the input audio signal obtainable by a time scaling of the input audio signal, and wherein the time scaler is configured to perform (954;1068) the time scaling of the input audio signal in dependence on the computation or estimation of the quality of the time scaled version of the input audio signal obtainable by the time scaling; wherein the time scaler is configured to time-shift a second block of samples with respect to a first block of samples, and to overlap-and-add (954;1068) the first block of samples and the time-shifted second block of samples, to thereby obtain the time-scaled version of the input audio signal, if the computation or estimation of the quality (q) of the time scaled version of the input audio signal obtainable by the time scaling indicates a quality which is larger than or equal to a quality threshold value (qmin); and wherein the time scaler is configured to determine a time shift (p) of the second block of samples with respect to the first block of samples in dependence on a determination of a level of similarity, evaluated using a first similarity measure, between the first block of samples, or a portion of the first block of samples, and the second block of samples, or a portion of the second block of samples; and wherein the time scaler is configured to compute or estimate (950;1060) a quality (q) of the time scaled version of the input audio signal obtainable by a time scaling of the input audio signal on the basis of an information about the level of similarity, evaluated using a second similarity measure, between the first block of samples, or a portion of the first block of samples, and the second block of samples, time-shifted by the determined time shift, or a portion of the second block of samples, time-shifted by the determined time shift; wherein the first similarity measure is a cross correlation or a normalized cross correlation, or an average magnitude difference function or a sum of squared errors, and wherein the second similarity measure (q) is a combination of cross correlations or of normalized cross correlations for a plurality of different time shifts; or wherein the second similarity measure (q) is a combination of cross correlations for at least four different time shifts.
A loop antenna for a radio system using a magnetic field, comprising: a main loop that is an open loop to be coupled to a signal source or a receiving circuit; an amplifying loop that is a closed loop having a same shape as the main loop; a bar-shaped rod formed of a magnetic body or an insulation body, wherein the main loop and the amplifying loop are wound on the bar-shaped rod; a resistor (R1, R2) and a capacitor (C1, C2) being coupled to each of the main loop and the amplifying loop in series, characterized in that a resistance value of the resistor of the main loop is greater than a resistance value of the resistor of the amplifying loop. a main loop that is an open loop to be coupled to a signal source or a receiving circuit; an amplifying loop that is a closed loop having a same shape as the main loop; a bar-shaped rod formed of a magnetic body or an insulation body, wherein the main loop and the amplifying loop are wound on the bar-shaped rod; a resistor (R1, R2) and a capacitor (C1, C2) being coupled to each of the main loop and the amplifying loop in series, characterized in that a resistance value of the resistor of the main loop is greater than a resistance value of the resistor of the amplifying loop.
A PEG tube containing an antiseptically or antimicrobially acting compound that releases metal ions or colloidal metal, characterized in that the said compound is present in the form of nanoparticles, and in regions of the tube is homogeneously distributed in the material of the tube over the thickness thereof.
An antibody, or an antigen-binding fragment thereof, comprising (i) a heavy chain variable domain comprising a VHCDR1 having the amino acid sequence GNTFTSYVMH (SEQ ID NO: 3); a VHCDR2 having the amino acid sequence YINPYNDGTKYNEKFKG (SEQ ID NO: 4); and a VHCDR3 having the amino acid sequence STARATPYFYAMDY (SEQ ID NO: 5); and (ii) a light chain variable domain comprising a VLCDR1 having the amino acid sequence KSSQSLLWSVNQNSYLS (SEQ ID NO: 6), a VLCDR2 having the amino acid sequence GASIRES (SEQ ID NO: 7), and a VLCDR3 having the amino acid sequence QHNHGSFLPYT (SEQ ID NO: 8); wherein the antibody, or an antigen-binding fragment thereof, binds to a glycan on CEACAM6.
A laser unit for a vehicle headlight, comprising a laser light source, preferably a laser diode, a bearing housing in which the laser light source is mounted, and an adjustable collimator optical unit for laser light emitted by the laser light source, the collimator optical unit comprising at least one optical component which is arranged at a distance in the longitudinal direction (x) from the laser light source, the laser unit comprising an adjusting device associated with the collimator optical unit and having a carrier, the carrier being displaceable in the longitudinal direction (x) relative to the laser light source, characterised in that the at least one optical component is mounted in the carrier pivotably about at least one spatial axis (y, z) running transversely to the longitudinal direction.
Wind turbine comprising a tower bearing a nacelle and a rotor with a plurality of rotor blades and an active noise reduction device, wherein the active noise reduction device comprises: at least one actuator, at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade, at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor, and a control unit, wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower, wherein the control unit is adapted to control the actuator in dependence of the output signals of the unsteady pressure sensor and the noise sensor to emit an anti-noise signal at least partly reducing the noise generated by the rotor blade; and characterized in that the control unit is adapted to apply at least one filter function to the output signal of the unsteady pressure sensor for determining an input signal for the actuator to emit the anti-noise signal; and comprises or is connected to a rotor orientation sensor, a tower bearing a nacelle and a rotor with a plurality of rotor blades and an active noise reduction device, wherein the active noise reduction device comprises: at least one actuator, at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade, at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor, and a control unit, wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower, at least one actuator, at least one unsteady pressure sensor adapted to produce an output signal corresponding to a turbulent flow condition during operation of the rotor blade, at least one noise sensor adapted to produce an output signal corresponding to a noise generated by the rotor blade at the location of the noise sensor, and a control unit, wherein the unsteady pressure sensor and the actuator are arranged on at least one of the rotor blades and the noise sensor is arranged at the nacelle and/or at the tower, wherein the control unit is adapted to control the actuator in dependence of the output signals of the unsteady pressure sensor and the noise sensor to emit an anti-noise signal at least partly reducing the noise generated by the rotor blade; and characterized in that the control unit is adapted to apply at least one filter function to the output signal of the unsteady pressure sensor for determining an input signal for the actuator to emit the anti-noise signal; and comprises or is connected to a rotor orientation sensor,
Nickel-based alloy for powder, wherein the contents (in % by weight) are defined as follows: C 0.015 - 0.5% S max. 0.15%, in particular max. 0.03% Cr 20 - 25% Ni remainder Mn max. 1% Si max. 1% Mo up to 10% Ti 0.25 - 0.6% Nb up to 5.5% Cu up to 5%, particularly up to 0.5% Fe up to 25% P max. 0.03%, particularly max. 0.02% Al 0.8 - 1.5% V max. 0.6% Zr max. 0.12%, particularly max. 0.1% Co up to 15% B 0.006 - 0.125% O > 0.00001 - 0.1% optionally Se max. 0.0005% Bi max. 0.00005% Pb max. 0.002% and production-related impurities, wherein the carbon to boron ratio (C/B) is between 4 and 25, wherein the total C + B is between 0.156 and 0.625%, particularly in the range from 0.16 to 0.6%, most particularly in the range from 0.1875 to 0.530%, and wherein the total for Nb + Ta is max. 5.2%.
Method for starting an internal combustion engine, wherein a crankshaft is coupled in a rotationally elastic fashion to a rotor of a starter motor, wherein in a starting process the starter motor generates a starting torque which is transmitted to the crankshaft via the rotationally elastic coupling, wherein a negative or positive starting torque is generated at a starting time of the starting process, wherein at least one change of sign of the starting torque takes place during the starting process, characterized in that before or at the starting time rotation of the crankshaft is mechanically blocked, wherein the rotation of the crankshaft is enabled if or after energy stored in a torsional oscillation system reaches a maximum permissible amount of energy or an amount of energy which is necessary to start the internal combustion engine, wherein the torsional oscillation system is composed at least of the rotationally elastic coupling and the rotor of the starter motor.
A system for gap detection in an ablation line, comprising: a catheter including a plurality of microelectrodes and an electrode, the electrode configured as an ablation electrode, the catheter configured for placement along the ablation line at a tissue location; and a processing device comprising a pacing signal unit and a capture unit, the processing device in communication with the plurality of microelectrodes and the electrode, the processing device configured to: transmit, with the pacing signal unit, a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode, in response to the pacing signal being transmitted through living tissue; determine, with the capture unit, whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter. a catheter including a plurality of microelectrodes and an electrode, the electrode configured as an ablation electrode, the catheter configured for placement along the ablation line at a tissue location; and a processing device comprising a pacing signal unit and a capture unit, the processing device in communication with the plurality of microelectrodes and the electrode, the processing device configured to: transmit, with the pacing signal unit, a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode, in response to the pacing signal being transmitted through living tissue; determine, with the capture unit, whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter. transmit, with the pacing signal unit, a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode, in response to the pacing signal being transmitted through living tissue; determine, with the capture unit, whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter.
An isochronous cyclotron, comprising: at least two superconducting primary coils (30, 32) that are substantially symmetric about a central axis, wherein the superconducting primary coils (30, 32) are on opposite sides of a median acceleration plane; a magnetic yoke surrounding the superconducting primary coils (30, 32) and containing at least a portion of a beam chamber, wherein the median acceleration plane extends through the beam chamber; a plurality of superconducting flutter coils on each side of the median acceleration plane, wherein each superconducting flutter coil or pair of superconducting flutter coils serves as a sector pole tip with valleys between the sector pole tips on each side of the median acceleration plane, and wherein the sector pole tips are radially separated across the median acceleration plane by a gap that is narrower than a non-magnetic gap that separates the valleys across the median acceleration plane; a non-magnetic external reinforcement structure filling the valleys between the superconducting flutter coils so as to maintain the positioning of the superconducting flutter coils; internal reinforcement structures mounted inside the superconducting flutter coils; and at least one cryogenic refrigerator thermally coupled with the superconducting primary coils (30, 32), with the superconducting flutter coils, and with the magnetic yoke. at least two superconducting primary coils (30, 32) that are substantially symmetric about a central axis, wherein the superconducting primary coils (30, 32) are on opposite sides of a median acceleration plane; a magnetic yoke surrounding the superconducting primary coils (30, 32) and containing at least a portion of a beam chamber, wherein the median acceleration plane extends through the beam chamber; a plurality of superconducting flutter coils on each side of the median acceleration plane, wherein each superconducting flutter coil or pair of superconducting flutter coils serves as a sector pole tip with valleys between the sector pole tips on each side of the median acceleration plane, and wherein the sector pole tips are radially separated across the median acceleration plane by a gap that is narrower than a non-magnetic gap that separates the valleys across the median acceleration plane; a non-magnetic external reinforcement structure filling the valleys between the superconducting flutter coils so as to maintain the positioning of the superconducting flutter coils; internal reinforcement structures mounted inside the superconducting flutter coils; and at least one cryogenic refrigerator thermally coupled with the superconducting primary coils (30, 32), with the superconducting flutter coils, and with the magnetic yoke.
A mold assembly for forming shaped glass articles, the mold assembly comprising: a mold body comprising a base portion defining an underside of the mold body and a forming portion protruding from a top of the base portion, wherein the forming portion comprises a mold cavity having a three-dimensional profile corresponding to a shape of the shaped glass article; a support base positioned below the mold body; a plenum body extending between the mold body and the support base, the plenum body comprising a plenum wall encircling a plenum space bounded by the plenum body, the mold body, and the support base, characterised in that: when the mold assembly is heated to an average temperature of greater than or equal to 650°C by an overhead heating source, a temperature at a center of the mold cavity is less than at a perimeter of the mold cavity, and a difference between the temperature at the center of the mold cavity and the temperature at the perimeter of the mold cavity is at least 12°C; and the forming portion of the mold body comprises notches and/or diagonal facets adjacent to corners of the mold cavity, the notches and/or diagonal facets promoting increased temperature in the corners of the mold cavity. a mold body comprising a base portion defining an underside of the mold body and a forming portion protruding from a top of the base portion, wherein the forming portion comprises a mold cavity having a three-dimensional profile corresponding to a shape of the shaped glass article; a support base positioned below the mold body; a plenum body extending between the mold body and the support base, the plenum body comprising a plenum wall encircling a plenum space bounded by the plenum body, the mold body, and the support base, characterised in that: when the mold assembly is heated to an average temperature of greater than or equal to 650°C by an overhead heating source, a temperature at a center of the mold cavity is less than at a perimeter of the mold cavity, and a difference between the temperature at the center of the mold cavity and the temperature at the perimeter of the mold cavity is at least 12°C; and the forming portion of the mold body comprises notches and/or diagonal facets adjacent to corners of the mold cavity, the notches and/or diagonal facets promoting increased temperature in the corners of the mold cavity. when the mold assembly is heated to an average temperature of greater than or equal to 650°C by an overhead heating source, a temperature at a center of the mold cavity is less than at a perimeter of the mold cavity, and a difference between the temperature at the center of the mold cavity and the temperature at the perimeter of the mold cavity is at least 12°C; and the forming portion of the mold body comprises notches and/or diagonal facets adjacent to corners of the mold cavity, the notches and/or diagonal facets promoting increased temperature in the corners of the mold cavity.
A drone immersion-piloting system comprising a drone provided with imaging means and a ground station (16, 40) communicating with the drone through a wireless link, the ground station comprising virtual reality glasses rendering images taken by means of the imaging means and transmitted from the drone through a wireless link, the system further comprising means for modifying the framing of the images taken by the imaging means as a function of framing instructions received from the ground station, the system being characterized in that it further comprises: - a console adapted to be directed towards the drone to maintain the quality of said wireless link; - relative heading determination means for periodically elaborating an angular difference between the orientation of the glasses and the orientation of the console, and - means for elaborating framing instructions for the drone as a function of said angular difference. - a console adapted to be directed towards the drone to maintain the quality of said wireless link; - relative heading determination means for periodically elaborating an angular difference between the orientation of the glasses and the orientation of the console, and - means for elaborating framing instructions for the drone as a function of said angular difference.
The use of a textile as a spacer between a housing or a supporting structure and an electrode or the substructure of an electrode of a zero-gap electrolytic cell, wherein the textile comprises a mechanical connection means composed of an elastic polymeric material and comprises an electrical connection means different from the mechanical connection means, characterized in that the mechanical connection means has top and bottom fabrics (2, 3) made of filaments and has pile threads connecting the top and bottom fabrics (2, 3).