mhurhangee/ep-ind-claims huggingface dataset:
Electrical connection contact for flexible circuit comprising a connection terminal to a complementary contact and a connection plate by piercing of the flexible circuit, provided with a crown ring of piercing teeth (3, 3') protruding on a top face of the plate to pierce the flexible circuit and be crimped onto said flexible circuit, characterized in that the connection plate comprises, on the one hand, an electrical conduction strip forming part of the same piece as the connection terminal and pierced by at least one orifice and, on the other hand, at least one crown ring of piercing teeth forming a separate part and that fits into the orifice of the conduction strip, by a bottom face of the plate.
A method for extracting, by a processor of a decoder, source color volume information of an input bitstream from source color volume metadata, the method comprising: receiving, by the processor, the source color volume metadata that includes a first messaging variable (source_colour_volume_id) identifying the presence of source color volume information in the source color volume metadata; receiving, by the processor, a second messaging variable (source_colour_primaries) as part of the source color volume information in the source color volume metadata; if the second messaging variable matches a first predetermined value, extracting, by the processor, first x and y chromaticity coordinates for at least one color primary from the source color volume information in the source color volume metadata; and extracting, by the processor, a minimum, a maximum, and an average luminance value from the source color volume information in the source color volume metadata. receiving, by the processor, the source color volume metadata that includes a first messaging variable (source_colour_volume_id) identifying the presence of source color volume information in the source color volume metadata; receiving, by the processor, a second messaging variable (source_colour_primaries) as part of the source color volume information in the source color volume metadata; if the second messaging variable matches a first predetermined value, extracting, by the processor, first x and y chromaticity coordinates for at least one color primary from the source color volume information in the source color volume metadata; and extracting, by the processor, a minimum, a maximum, and an average luminance value from the source color volume information in the source color volume metadata.
Use of an identification substance comprising at least one amorphous phase, at least one crystalline phase and at least one complex metallic phase in an authentication method by analysis of an X-Ray diffraction signature of said identification substance.
A nanoparticle selected from a liposome and a lipoplex comprising as a constituent thereof a plurality of compounds of the formula A-B-C(-D), wherein A designates a hydrophobic lipid anchoring moiety having self-organizing properties in relation to the nanoparticle; B designates a cleavable linker; C designates an anionic moiety having a net charge of from -3 to -30 at pH 6.0; and Dwhich is optional, designates a hydrophilic polymer moiety which induces long circulating properties of the nanoparticle in mammalian tissue; wherein the average net charge of the compounds of formula A-B-C- is from -2 to -25 at pH 6.0, and wherein the compounds of formula A-B-C(-D) are included in an amount of at least 1 % by total weight of the constituents making up the self-organized nanoparticle. A designates a hydrophobic lipid anchoring moiety having self-organizing properties in relation to the nanoparticle; B designates a cleavable linker; C designates an anionic moiety having a net charge of from -3 to -30 at pH 6.0; and Dwhich is optional, designates a hydrophilic polymer moiety which induces long circulating properties of the nanoparticle in mammalian tissue;
An apparatus for molding a material, the apparatus comprising: first and second fixed platens (110 and 120) which are provided as a pair and spaced a predetermined distance from each other by a tie bar; a movable platen formed such that the movable platen is capable of moving along the tie bar between the first and second fixed platens (110 and 120); a mold which is provided with a movable mold formed on the movable platen and with a fixed mold formed on the second fixed platen and which forms a molding space in a point where the movable mold and the fixed mold are in contact with each other, wherein the molding space is formed such that the molding space is capable of being open or closed as the movable mold moves in a direction toward or away from the fixed mold; and a pressing block formed such that the pressing block is capable of being moved at a position deviated from between the first fixed platen and the movable platen by an actuator, the pressing block being capable of applying a pressure to the movable mold when the pressing block is moved between the first fixed platen and the movable platen by the actuator, and further comprising a punch which penetrates the movable platen and the movable mold and reaches the molding space and which has a rear end provided with a punch support, the punch being configured to move forward or backward by a punch cylinder that is formed between the movable platen and the punch support, thereby being used as a forging mold. first and second fixed platens (110 and 120) which are provided as a pair and spaced a predetermined distance from each other by a tie bar; a movable platen formed such that the movable platen is capable of moving along the tie bar between the first and second fixed platens (110 and 120); a mold which is provided with a movable mold formed on the movable platen and with a fixed mold formed on the second fixed platen and which forms a molding space in a point where the movable mold and the fixed mold are in contact with each other, wherein the molding space is formed such that the molding space is capable of being open or closed as the movable mold moves in a direction toward or away from the fixed mold; and a pressing block formed such that the pressing block is capable of being moved at a position deviated from between the first fixed platen and the movable platen by an actuator, the pressing block being capable of applying a pressure to the movable mold when the pressing block is moved between the first fixed platen and the movable platen by the actuator, and further comprising a punch which penetrates the movable platen and the movable mold and reaches the molding space and which has a rear end provided with a punch support, the punch being configured to move forward or backward by a punch cylinder that is formed between the movable platen and the punch support, thereby being used as a forging mold.
A bearing assembly, comprising: a support ring including an upper surface; and a plurality of superhard bearing elements carried by the support ring, the plurality of superhard bearing elements distributed circumferentially about an axis, each of the plurality of superhard bearing elements including a bearing surface, characterised in that at least one of the plurality of superhard bearing elements includes a plurality of laterally spaced texture features formed in a lateral surface thereof, the plurality of laterally spaced texture features extending to the upper surface of the support ring, and the plurality of laterally spaced texture features comprises at least one groove. a support ring including an upper surface; and a plurality of superhard bearing elements carried by the support ring, the plurality of superhard bearing elements distributed circumferentially about an axis, each of the plurality of superhard bearing elements including a bearing surface, characterised in that at least one of the plurality of superhard bearing elements includes a plurality of laterally spaced texture features formed in a lateral surface thereof, the plurality of laterally spaced texture features extending to the upper surface of the support ring, and the plurality of laterally spaced texture features comprises at least one groove.
Electro-optic display module comprising an electro-optic display device, a first element (200, 600) and a second element (300, 200), wherein the first element (200, 600) and the second element (300, 200) are connected to each other, and the first element (200, 600) carries the electro-optic display device, and the first element (200, 600) and the second element (300, 600) are connected by at least one silicone body (410, 400), wherein the silicone body (410, 400) is made of silicone, characterized in that the at least one silicone body is made of electrically conductive silicone.
Method for regulating a permanently excited synchronous machine, having the steps associated with a repeatedly executed regulating cycle: receiving a setpoint torque value (M_soll) and capturing a rotor speed value (N_ist) of the synchronous machine; capturing a drive current value (I_Antr) of the synchronous machine; transforming the received setpoint torque value (M_soll) and the captured rotor speed value (N_ist) into a setpoint polar coordinate value (U_soll, Phi_soll) on the basis of a predefined transformation assignment (10, 11, 12); applying a predefined regulating algorithm (20, f) to determine a manipulated variable polar coordinate value (U_stell, Phi_Stell) on the basis of the setpoint polar coordinate value (U_soll, Phi_soll), as well as the setpoint current value (I_soll) and the captured drive current value (I_Antr); ascertaining a control data record (SD_U, SD_V, SD_W) from a predefined control data table on the basis of the manipulated variable polar coordinate value (U_stell, Phi_Stell); and controlling an energization (S_U, S_V, S_W) of the synchronous machine on the basis of the ascertained control data record (SD_U, SD_V, SD_W), characterized in that a setpoint current value (I_soll) is additionally received, and in that a value of a battery current from a battery electrically driving the synchronous machine is captured as the drive current value (I_Antr), and wherein the regulating algorithm (20, f) is applied with the setpoint polar coordinate value (U_soll, Phi_soll) and the setpoint current value (I_soll) as a reference variable and with the captured drive current value (I_Antr) as a fed-back regulating variable. receiving a setpoint torque value (M_soll) and capturing a rotor speed value (N_ist) of the synchronous machine; capturing a drive current value (I_Antr) of the synchronous machine; transforming the received setpoint torque value (M_soll) and the captured rotor speed value (N_ist) into a setpoint polar coordinate value (U_soll, Phi_soll) on the basis of a predefined transformation assignment (10, 11, 12); applying a predefined regulating algorithm (20, f) to determine a manipulated variable polar coordinate value (U_stell, Phi_Stell) on the basis of the setpoint polar coordinate value (U_soll, Phi_soll), as well as the setpoint current value (I_soll) and the captured drive current value (I_Antr); ascertaining a control data record (SD_U, SD_V, SD_W) from a predefined control data table on the basis of the manipulated variable polar coordinate value (U_stell, Phi_Stell); and controlling an energization (S_U, S_V, S_W) of the synchronous machine on the basis of the ascertained control data record (SD_U, SD_V, SD_W), characterized in that a setpoint current value (I_soll) is additionally received, and in that a value of a battery current from a battery electrically driving the synchronous machine is captured as the drive current value (I_Antr), and wherein the regulating algorithm (20, f) is applied with the setpoint polar coordinate value (U_soll, Phi_soll) and the setpoint current value (I_soll) as a reference variable and with the captured drive current value (I_Antr) as a fed-back regulating variable.
A secondary battery comprising: a plurality of electrode assemblies; a current collector plate electrically connecting the plurality of electrode assemblies together; a case accommodating the plurality of electrode assemblies; and a cap plate sealing the case, wherein the current collector plate includes: a horizontal part located between the cap plate and the electrode assemblies; a vertical part bent and extending from the horizontal part, wherein the vertical part includes a first region extending from the horizontal part and a second region extending from the first region; extending parts formed at opposing sides of the vertical part and coupled to the second region, extending to a lower portion of the case, and electrically connected to the electrode assemblies; and a resistance increasing unit on the second region, wherein the resistance increasing unit comprises a plurality of corrugations disposed vertically and connecting one of the extending parts to the other of the extending parts to increase the resistance of the second region. a plurality of electrode assemblies; a current collector plate electrically connecting the plurality of electrode assemblies together; a case accommodating the plurality of electrode assemblies; and a cap plate sealing the case, wherein the current collector plate includes: a horizontal part located between the cap plate and the electrode assemblies; a vertical part bent and extending from the horizontal part, wherein the vertical part includes a first region extending from the horizontal part and a second region extending from the first region; extending parts formed at opposing sides of the vertical part and coupled to the second region, extending to a lower portion of the case, and electrically connected to the electrode assemblies; and a resistance increasing unit on the second region, wherein the resistance increasing unit comprises a plurality of corrugations disposed vertically and connecting one of the extending parts to the other of the extending parts to increase the resistance of the second region. a horizontal part located between the cap plate and the electrode assemblies; a vertical part bent and extending from the horizontal part, wherein the vertical part includes a first region extending from the horizontal part and a second region extending from the first region; extending parts formed at opposing sides of the vertical part and coupled to the second region, extending to a lower portion of the case, and electrically connected to the electrode assemblies; and a resistance increasing unit on the second region, wherein the resistance increasing unit comprises a plurality of corrugations disposed vertically and connecting one of the extending parts to the other of the extending parts to increase the resistance of the second region.
A conjugate having the following formula wherein RGDfK-NH∼ is a residue of cRGDfK peptide, and ∼S-siRNA is a residue of an siRNA having an active thiol functionality.
A pneumatic tire, comprising a tread formed from a rubber composition, the rubber composition comprising: a rubber component including a butadiene polymer having a trans content of 45% by mass or higher and a vinyl content of 20% by mass or lower; silica; a silane coupling agent having two or more sulfur-containing functional groups capable of binding to diene rubbers; and a crosslinking agent having a C3 or higher alkylene group, a polysulfide group bonded to the alkylene group, and a functional group containing a benzene ring. a rubber component including a butadiene polymer having a trans content of 45% by mass or higher and a vinyl content of 20% by mass or lower; silica; a silane coupling agent having two or more sulfur-containing functional groups capable of binding to diene rubbers; and a crosslinking agent having a C3 or higher alkylene group, a polysulfide group bonded to the alkylene group, and a functional group containing a benzene ring.
An apparatus for deriving a submatrix G̃ -1, which is used to remove at least one interfered stream from a plurality of streams transmitted in a multiple input multiple output, MIMO, system, the apparatus being configured to: receive, by N receive antennas, the plurality of streams transmitted from N transmit antennas; generate an NxN-matrix G, wherein G is a covariance matrix of a channel matrix H, wherein the channel matrix H corresponds to a physical channel between the N transmit antennas and the N receive antennas, and N represents a number of the plurality of streams; and perform: - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab, wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1; wherein G p = G ̃ b c T d, and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃. receive, by N receive antennas, the plurality of streams transmitted from N transmit antennas; generate an NxN-matrix G, wherein G is a covariance matrix of a channel matrix H, wherein the channel matrix H corresponds to a physical channel between the N transmit antennas and the N receive antennas, and N represents a number of the plurality of streams; and perform: - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab, wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1; wherein G p = G ̃ b c T d, and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃. - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab, wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1; wherein G p = G ̃ b c T d, and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃.
A method for validating quantification of biomarkers, the biomarkers being quantified using a quantification technique of a selected type, and the method including: a) determining at least three biomarker values, each biomarker value being indicative of a value measured or derived from a measured value, for at least one corresponding biomarker of the biological subject and being at least partially indicative of a concentration of the biomarker in a sample taken from the subject and wherein the biomarkers do not include external controls or extraneous housekeeping controls; b) determining control values by determining different ratios of the at least three biomarker values; c) comparing each control value to a respective control reference, wherein the control reference is in the form of a distribution of control values established based on reference control values determined for a sample population including a mixture of healthy individuals and individuals suffering from or demonstrating clinical signs of one or more conditions; and, d) determining if the biomarker values are valid using results of the comparison. a) determining at least three biomarker values, each biomarker value being indicative of a value measured or derived from a measured value, for at least one corresponding biomarker of the biological subject and being at least partially indicative of a concentration of the biomarker in a sample taken from the subject and wherein the biomarkers do not include external controls or extraneous housekeeping controls; b) determining control values by determining different ratios of the at least three biomarker values; c) comparing each control value to a respective control reference, wherein the control reference is in the form of a distribution of control values established based on reference control values determined for a sample population including a mixture of healthy individuals and individuals suffering from or demonstrating clinical signs of one or more conditions; and, d) determining if the biomarker values are valid using results of the comparison.
An emitter configuration layout for an optical phased array, comprising: a plurality of emitters (910a, 910b) arranged around a perimeter; and a plurality of integrated waveguides (920a, 920b), each of the integrated waveguides respectively coupled to one of the emitters; wherein the plurality of emitters are arranged in at least two concentric rings, including an outer ring of emitters arranged in a circular pattern with a first radius, and at least one inner ring of emitters arranged in a circular pattern with a second radius that is less than the first radius; wherein the outer ring of emitters are each positioned with respect to the inner ring of emitters such that the integrated waveguides coupled to the inner ring of emitters respectively extend between a pair of adjacent outer ring emitters. a plurality of emitters (910a, 910b) arranged around a perimeter; and a plurality of integrated waveguides (920a, 920b), each of the integrated waveguides respectively coupled to one of the emitters; wherein the plurality of emitters are arranged in at least two concentric rings, including an outer ring of emitters arranged in a circular pattern with a first radius, and at least one inner ring of emitters arranged in a circular pattern with a second radius that is less than the first radius; wherein the outer ring of emitters are each positioned with respect to the inner ring of emitters such that the integrated waveguides coupled to the inner ring of emitters respectively extend between a pair of adjacent outer ring emitters.
A pulse generator, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to an electrode to provide stimulation pulses to a patient's tissue; a digital-to-analog converter configured to amplify a reference current to a first current specified by first control signals; a first resistance configured to receive the first current, wherein a voltage across the first resistance is held to a reference voltage at a first node; a plurality of branches each comprising a second resistance and configured to produce a branch current, wherein a voltage across each second resistance is held to the reference voltage at second nodes; and a switch matrix configurable to selectively couple any branch current to any of the electrode nodes via the second nodes. a plurality of electrode nodes, each electrode node configured to be coupled to an electrode to provide stimulation pulses to a patient's tissue; a digital-to-analog converter configured to amplify a reference current to a first current specified by first control signals; a first resistance configured to receive the first current, wherein a voltage across the first resistance is held to a reference voltage at a first node; a plurality of branches each comprising a second resistance and configured to produce a branch current, wherein a voltage across each second resistance is held to the reference voltage at second nodes; and a switch matrix configurable to selectively couple any branch current to any of the electrode nodes via the second nodes.