mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmission device comprising a repetition coding unit configured to prepare a basic waveform of a data frame having a frequency length less than a frequency conversion length of a wireless reception device, generate a repetition waveform having a frequency length greater than or equal to the frequency conversion length by repeating the basic waveform a plurality of times and subsequently performing differential coding, generate the data frame including the repetition waveform and a known signal, the wireless transmission device further comprising a phase rotation unit configured to multiply the repetition waveform by a phase rotation sequence, characterized in that the repetition coding unit is configured to adjust a symbol at a predetermined position of each basic waveform included in the repetition waveform such that a differentially coded sequence maintains the repetition waveform. a repetition coding unit configured to prepare a basic waveform of a data frame having a frequency length less than a frequency conversion length of a wireless reception device, generate a repetition waveform having a frequency length greater than or equal to the frequency conversion length by repeating the basic waveform a plurality of times and subsequently performing differential coding, generate the data frame including the repetition waveform and a known signal, the wireless transmission device further comprising a phase rotation unit configured to multiply the repetition waveform by a phase rotation sequence, characterized in that the repetition coding unit is configured to adjust a symbol at a predetermined position of each basic waveform included in the repetition waveform such that a differentially coded sequence maintains the repetition waveform.
Method for production of a three-dimensional body by successively providing powder layers and fusing together of selected areas of said layers, which areas correspond to successive cross sections of the three-dimensional body, wherein the method comprises the following steps for at least one of said layers: - applying the at least one powder layer onto a working area, - fusing together a selected area of the at least one powder layer by supplying energy from a radiation gun to the selected area, comprising the steps of: - establishing an intended beam path that is to be used when fusing together the selected area of the at least one powder layer, - calculating a temperature in the at least one powder layer along the intended beam path as a function of a specific energy deposition of an imaginary beam that is assumed to move along the intended beam path, - adjusting the specific energy deposition of the imaginary beam along the intended beam path depending on the calculated temperature and on conditions set for the step of fusing together the selected area, and - providing, based on the calculations and the adjustments, an operating scheme for the specific energy deposition of the real beam to be used for the intended beam path when fusing together the selected area of the at least one layer. - applying the at least one powder layer onto a working area, - fusing together a selected area of the at least one powder layer by supplying energy from a radiation gun to the selected area, comprising the steps of: - establishing an intended beam path that is to be used when fusing together the selected area of the at least one powder layer, - calculating a temperature in the at least one powder layer along the intended beam path as a function of a specific energy deposition of an imaginary beam that is assumed to move along the intended beam path, - adjusting the specific energy deposition of the imaginary beam along the intended beam path depending on the calculated temperature and on conditions set for the step of fusing together the selected area, and - providing, based on the calculations and the adjustments, an operating scheme for the specific energy deposition of the real beam to be used for the intended beam path when fusing together the selected area of the at least one layer. - establishing an intended beam path that is to be used when fusing together the selected area of the at least one powder layer, - calculating a temperature in the at least one powder layer along the intended beam path as a function of a specific energy deposition of an imaginary beam that is assumed to move along the intended beam path, - adjusting the specific energy deposition of the imaginary beam along the intended beam path depending on the calculated temperature and on conditions set for the step of fusing together the selected area, and - providing, based on the calculations and the adjustments, an operating scheme for the specific energy deposition of the real beam to be used for the intended beam path when fusing together the selected area of the at least one layer.
An electronic percussion instrument comprising: a struck surface; and a plurality of strike sensors (20, 30, 40) configured to detect a strike on the struck surface, wherein the plurality of strike sensors comprise at least one central sensor that is disposed on a back side of the struck surface and disposed at a center portion of the struck surface and a plurality of peripheral sensors (20, 30, 40) that are disposed on a peripheral portion of the struck surface, wherein the central sensor and the peripheral sensors (20, 30, 40) each have the same structure, the electronic percussion instrument being characterized in that the central sensor and the peripheral sensors (20, 30, 40) each comprises a cushion member (14, 24) in contact with the struck surface and a head sensor (13, 23) disposed on a bottom surface of the cushion member (14, 24), wherein a distance between the head sensor of each of the peripheral sensors (20, 30, 40) and the struck surface is shorter than a distance between the head sensor of the central sensor and the struck surface, or wherein the cushion member (14, 24) of each of the peripheral sensors (20, 30, 40) and the central sensor comprises an elastic material, and a hardness of the elastic material of the cushion member of each of the peripheral sensors (20, 30, 40) is higher than a hardness of the elastic material of the cushion member of the central sensor. a struck surface; and a plurality of strike sensors (20, 30, 40) configured to detect a strike on the struck surface, wherein the plurality of strike sensors comprise at least one central sensor that is disposed on a back side of the struck surface and disposed at a center portion of the struck surface and a plurality of peripheral sensors (20, 30, 40) that are disposed on a peripheral portion of the struck surface, wherein the central sensor and the peripheral sensors (20, 30, 40) each have the same structure, the electronic percussion instrument being characterized in that the central sensor and the peripheral sensors (20, 30, 40) each comprises a cushion member (14, 24) in contact with the struck surface and a head sensor (13, 23) disposed on a bottom surface of the cushion member (14, 24), wherein a distance between the head sensor of each of the peripheral sensors (20, 30, 40) and the struck surface is shorter than a distance between the head sensor of the central sensor and the struck surface, or wherein the cushion member (14, 24) of each of the peripheral sensors (20, 30, 40) and the central sensor comprises an elastic material, and a hardness of the elastic material of the cushion member of each of the peripheral sensors (20, 30, 40) is higher than a hardness of the elastic material of the cushion member of the central sensor.
A processor-implemented data processing method, the method comprising: normalizing input data of an activation function comprising a division operation; determining dividend data corresponding to a dividend of the division operation by reading, from a memory, a value of a first lookup table addressed by the normalized input data; determining divisor data corresponding to a divisor of the division operation by accumulating the dividend data using an accumulator; and determining output data of the activation function corresponding to an output of the division operation obtained by reading, from the memory, a value of a second lookup table addressed by the dividend data and the divisor data, wherein the determining of the output data comprises: determining a column-index addressing columns of the second lookup table based on a value of the dividend data; determining a row-index addressing rows of the second lookup table from a value of the divisor data indicated by most significant bits of the accumulator; and reading, from the memory, the value of the second lookup table addressed by the column-index and the row-index. normalizing input data of an activation function comprising a division operation; determining dividend data corresponding to a dividend of the division operation by reading, from a memory, a value of a first lookup table addressed by the normalized input data; determining divisor data corresponding to a divisor of the division operation by accumulating the dividend data using an accumulator; and determining output data of the activation function corresponding to an output of the division operation obtained by reading, from the memory, a value of a second lookup table addressed by the dividend data and the divisor data, wherein the determining of the output data comprises: determining a column-index addressing columns of the second lookup table based on a value of the dividend data; determining a row-index addressing rows of the second lookup table from a value of the divisor data indicated by most significant bits of the accumulator; and reading, from the memory, the value of the second lookup table addressed by the column-index and the row-index. determining a column-index addressing columns of the second lookup table based on a value of the dividend data; determining a row-index addressing rows of the second lookup table from a value of the divisor data indicated by most significant bits of the accumulator; and reading, from the memory, the value of the second lookup table addressed by the column-index and the row-index.
An isolated or purified single-domain antibody or fragment thereof, comprising a complementarity determining region 1 comprising the sequence GRTNSVYTMG (SEQ ID NO:1); a CDR2 comprising the sequence IMWGAGTNTHYADSVKG (SEQ ID NO:2); and a CDR3 comprising the sequence AANRGIPIAGRQYDY (SEQ ID NO:3), wherein the antibody or fragment thereof is specific for CEACAM6.
A data processing device, comprising: a local oscillator, LO, having an LO frequency output, an LO performance parameter output, and an LO frequency select input; and a degradation detection module, coupled to the LO performance parameter output; characterized in that the degradation module is further coupled to the LO frequency select input and includes an LO frequency select module triggered by the LO performance parameter output. a local oscillator, LO, having an LO frequency output, an LO performance parameter output, and an LO frequency select input; and a degradation detection module, coupled to the LO performance parameter output; characterized in that the degradation module is further coupled to the LO frequency select input and includes an LO frequency select module triggered by the LO performance parameter output.
A seat assembly comprising: at least one seat; a forward beam; and at least two legs (2a, 2b) by which the forward beam is supported, the at least one seat comprising: two side members (10, 11) each having a forward end and an aft end; a seat base; and a seat back, the seat base and seat back being supported by and between the side members, characterised in that the two side members are supported solely by the forward ends of the side members being attached to the forward beam and in that the at least one seat further comprises an aft beam extending between the aft ends of the side members to define two rectangular areas forming a frame with the side members and the forward beam or with the side members and parts of the forward and of the aft beam.
An internal combustion engine comprising: - an inlet gas conduit system, and an exhaust gas system; - a first turbocharger unit, a turbine part thereof arranged in connection with the exhaust gas system and a compressor part thereof arranged in connection with the inlet gas conduit system to pressurize the oxygen containing combustion gas by means of the energy of the exhaust gas of the engine; - a second turbocharger unit, a turbine part thereof is arranged in connection with the exhaust gas system the inlet of which turbine part is coupled parallel with the turbine part of the first turbocharger unit and a compressor part the inlet of which is arranged in connection with the exhaust gas system and the outlet of which arranged in connection with the inlet gas conduit system via an exhaust gas recirculation conduit system, the compressor part being arranged to pressurize recirculated portion of the exhaust gas by means of the energy of exhaust gas of the engine, in which the inlet of the turbine part of the second turbocharger unit is connected to the exhaust gas system through a first control valve, characterized in that the exhaust gas recirculation conduit system comprises a control circuit leading from upstream side of the compressor part to downstream side of the compressor part of the second turbocharger unit, which control circuit is provided with a second control valve. - an inlet gas conduit system, and an exhaust gas system; - a first turbocharger unit, a turbine part thereof arranged in connection with the exhaust gas system and a compressor part thereof arranged in connection with the inlet gas conduit system to pressurize the oxygen containing combustion gas by means of the energy of the exhaust gas of the engine; - a second turbocharger unit, a turbine part thereof is arranged in connection with the exhaust gas system the inlet of which turbine part is coupled parallel with the turbine part of the first turbocharger unit and a compressor part the inlet of which is arranged in connection with the exhaust gas system and the outlet of which arranged in connection with the inlet gas conduit system via an exhaust gas recirculation conduit system, the compressor part being arranged to pressurize recirculated portion of the exhaust gas by means of the energy of exhaust gas of the engine, in which the inlet of the turbine part of the second turbocharger unit is connected to the exhaust gas system through a first control valve, characterized in that the exhaust gas recirculation conduit system comprises a control circuit leading from upstream side of the compressor part to downstream side of the compressor part of the second turbocharger unit, which control circuit is provided with a second control valve.
A consumable plant-based electrolyte composition comprising: a plant-derived electrolyte content comprising 0.050% to 0.200% weight/volume potassium and 0.000% to 0.050% weight/volume sodium; and a plant-derived carbohydrate content less than 6% weight/volume, wherein the electrolyte composition is prepared from at least one of the group consisting of a liquid extract of sugarcane, a liquid extract of sugar beet, a liquid extract of sweet sorghum and palm syrup; wherein the consumable plant-based electrolyte composition comprises: (i) 0.064 to 0.109% weight/volume potassium, 0.002 to 0.030% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5-2.0% weight/volume carbohydrates, and wherein the electrolyte composition is prepared from a liquid extract of sugarcane; or (ii) 0.05 to 0.100% weight/volume potassium, 0.002 to 0.010% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5 to 6.0% weight/volume carbohydrates. a plant-derived electrolyte content comprising 0.050% to 0.200% weight/volume potassium and 0.000% to 0.050% weight/volume sodium; and a plant-derived carbohydrate content less than 6% weight/volume, wherein the electrolyte composition is prepared from at least one of the group consisting of a liquid extract of sugarcane, a liquid extract of sugar beet, a liquid extract of sweet sorghum and palm syrup; wherein the consumable plant-based electrolyte composition comprises: (i) 0.064 to 0.109% weight/volume potassium, 0.002 to 0.030% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5-2.0% weight/volume carbohydrates, and wherein the electrolyte composition is prepared from a liquid extract of sugarcane; or (ii) 0.05 to 0.100% weight/volume potassium, 0.002 to 0.010% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5 to 6.0% weight/volume carbohydrates. (i) 0.064 to 0.109% weight/volume potassium, 0.002 to 0.030% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5-2.0% weight/volume carbohydrates, and wherein the electrolyte composition is prepared from a liquid extract of sugarcane; or (ii) 0.05 to 0.100% weight/volume potassium, 0.002 to 0.010% weight/volume sodium, 0.002 to 0.010% weight/volume magnesium, and 0.5 to 6.0% weight/volume carbohydrates.
System for controlling the winding of a blackout screen about a shaft, comprising: - an actuator incorporating an electronic command module and a first sensor for the position of the screen, connected to the electronic module, and - a control unit adapted to transmit a command to the electronic module, characterised in that the system further comprises a second sensor for the position of the shaft, which sensor is separate from the first sensor and is in communication with the control unit. - an actuator incorporating an electronic command module and a first sensor for the position of the screen, connected to the electronic module, and - a control unit adapted to transmit a command to the electronic module, characterised in that the system further comprises a second sensor for the position of the shaft, which sensor is separate from the first sensor and is in communication with the control unit.
A method for purifying nucleic acids from cells contained in a liquid sample comprising blood or a sample processed, extracted or fractionated from blood, comprising: (a) agitating the liquid sample within a bead beating system in the absence of a buffer, in the absence of a detergent and in the presence of one or more endogenous blocking agents comprising urea and/or RNA to lyse the cells, said bead beating system comprising a bead beating tube and beads; (b) recovering the lysate from the sample tube following cell lysis; and (c) performing a nucleic acid purification step on the lysate. (a) agitating the liquid sample within a bead beating system in the absence of a buffer, in the absence of a detergent and in the presence of one or more endogenous blocking agents comprising urea and/or RNA to lyse the cells, said bead beating system comprising a bead beating tube and beads; (b) recovering the lysate from the sample tube following cell lysis; and (c) performing a nucleic acid purification step on the lysate.
A fluid inlet device for a separator, comprising a lower part and an upper part, wherein - the lower part comprises an inner wall surface having a horizontal cross-section comprising a circular arc, a top section comprising a fluid outlet and a plate element in which the fluid outlet is arranged, a bottom section comprising a liquid outlet, and a tangential fluid inlet for introduction of a fluid flow to the inner wall surface; - the upper part comprises multiple guiding vanes arranged to guide a fluid flow, entering the upper part through the fluid outlet, in a horizontal direction away from the fluid outlet, wherein each of the multiple guiding vanes comprises a pocket arranged to capture a liquid film migrating along the guiding vane; and characterized in that each of the guiding vanes are arranged on an upper surface of the plate element, and each vane extends from an inner circumference of the plate element and beyond an outer circumference of the plate element, such that a liquid coalesced on the vanes may be drained away from the fluid inlet device - the lower part comprises an inner wall surface having a horizontal cross-section comprising a circular arc, a top section comprising a fluid outlet and a plate element in which the fluid outlet is arranged, a bottom section comprising a liquid outlet, and a tangential fluid inlet for introduction of a fluid flow to the inner wall surface; - the upper part comprises multiple guiding vanes arranged to guide a fluid flow, entering the upper part through the fluid outlet, in a horizontal direction away from the fluid outlet, wherein each of the multiple guiding vanes comprises a pocket arranged to capture a liquid film migrating along the guiding vane; and
A run flat pneumatic tire comprising a marking on a surface of each side portion thereof and located inward of a position of a maximum width in the radial direction, characterised in that a processible region positioned on the surface of the side portion and inward, in a radial direction, of the marking includes two rows (I, II) formed by a large number of dimples arranged in a circumferential direction, each of which a plane shape is substantially a rectangle, and a ratio of a length in the circumferential direction to a width in the radial direction is equal to or greater than 1.0 and equal to or less than 3.0, wherein the number of the rows (I, II) is 2, the number of dimples of a first row is equal to the number of dimples of a second row, the length, in the circumferential direction, of each dimple of the first row is equal to the length, in the circumferential direction, of each dimple of the second row, a position of each dimple of the first row is displaced in the circumferential direction relative to a position of each dimple of the second row, wherein a distance of displacement is equal to or greater than 15% and equal to or less than 85% of the length of the dimple.
A method for forming cooling channels in an interface for soldering to a semiconductor structure, comprising: forming a seed layer (14, 14') on a surface of a substrate; patterning the seed layer (14, 14') into a patterned, plating seed layer (40, 40') covering portions of the substrate and exposing other portions of the substrate; using the patterned plating seed layer (40, 40') to form channels through the exposed portions of the substrate; and plating the patterned plating seed layer (40, 40') with solder (33, 33'). forming a seed layer (14, 14') on a surface of a substrate; patterning the seed layer (14, 14') into a patterned, plating seed layer (40, 40') covering portions of the substrate and exposing other portions of the substrate; using the patterned plating seed layer (40, 40') to form channels through the exposed portions of the substrate; and plating the patterned plating seed layer (40, 40') with solder (33, 33').