mhurhangee/ep-ind-claims huggingface dataset:
A suture anchor for fixation within an anatomical structure, the suture anchor comprising: an anchor body elongate along a direction of elongation, the anchor body defining a central axis, the anchor body having a flat geometry in a neutral configuration such that, in the neutral configuration, the anchor body defines a thickness along a transverse direction and a width along a lateral direction, wherein the transverse direction is perpendicular to the central axis, the lateral direction is perpendicular to the transverse direction, and the width is greater than the thickness in the neutral configuration; and an actuation member contacting the anchor body at a first location of the anchor body, the anchor body having first and second anchor body tails (64, 66) extending away from the first location, wherein the actuation member is configured to apply a force to the anchor body so as to actuate the anchor body from a first configuration, in which the anchor body defines a first maximum thickness along a second direction that is angularly offset from the direction of elongation, to an expanded configuration, in which the anchor body defines a second maximum thickness along the second direction, wherein the second maximum thickness is greater than the first maximum thickness, characterized in that the first and second anchor body tails are braided together along a portion of the actuation member from the first location to a second location of the anchor body spaced from the first location so as to define a braided suture anchor construct. an anchor body elongate along a direction of elongation, the anchor body defining a central axis, the anchor body having a flat geometry in a neutral configuration such that, in the neutral configuration, the anchor body defines a thickness along a transverse direction and a width along a lateral direction, wherein the transverse direction is perpendicular to the central axis, the lateral direction is perpendicular to the transverse direction, and the width is greater than the thickness in the neutral configuration; and an actuation member contacting the anchor body at a first location of the anchor body, the anchor body having first and second anchor body tails (64, 66) extending away from the first location, wherein the actuation member is configured to apply a force to the anchor body so as to actuate the anchor body from a first configuration, in which the anchor body defines a first maximum thickness along a second direction that is angularly offset from the direction of elongation, to an expanded configuration, in which the anchor body defines a second maximum thickness along the second direction, wherein the second maximum thickness is greater than the first maximum thickness, characterized in that the first and second anchor body tails are braided together along a portion of the actuation member from the first location to a second location of the anchor body spaced from the first location so as to define a braided suture anchor construct.
A method for detecting a symmetric fault during a power swing condition in a power transmission system connecting at least two terminals with one or more power transmission lines (102, 104), the method comprising: receiving measurements corresponding to each phase of one of a three-phase electric current or a three-phase electric voltage, wherein the measurements are obtained using measurement equipment associated with a terminal of a power transmission line (102, 104) of the power transmission system, in a measurement window of one-cycle length; calculating, phasor magnitudes for a plurality of samples in each measurement window for the measurements for each phase; calculating a detrended phasor value for each phasor magnitude by detrending the phasor magnitudes calculated for the plurality of samples, to obtain a plurality of detrended phasor values for each phase, wherein said detrending effectively separates variations in mean values of phasor magnitudes; estimating a value of a fault indicator for the measurement window, based on the plurality of detrended phasor values calculated for the three phases for the measurement window; detecting occurrence of a symmetric fault in the power transmission line (102, 104) monitored with the measurement equipment, based on comparison of the value of the fault indicator with a predefined reference value; and generating an unblock signal in response to the detection of the symmetric fault during the power swing condition, for protecting the power transmission line in response the symmetric fault. receiving measurements corresponding to each phase of one of a three-phase electric current or a three-phase electric voltage, wherein the measurements are obtained using measurement equipment associated with a terminal of a power transmission line (102, 104) of the power transmission system, in a measurement window of one-cycle length; calculating, phasor magnitudes for a plurality of samples in each measurement window for the measurements for each phase; calculating a detrended phasor value for each phasor magnitude by detrending the phasor magnitudes calculated for the plurality of samples, to obtain a plurality of detrended phasor values for each phase, wherein said detrending effectively separates variations in mean values of phasor magnitudes; estimating a value of a fault indicator for the measurement window, based on the plurality of detrended phasor values calculated for the three phases for the measurement window; detecting occurrence of a symmetric fault in the power transmission line (102, 104) monitored with the measurement equipment, based on comparison of the value of the fault indicator with a predefined reference value; and generating an unblock signal in response to the detection of the symmetric fault during the power swing condition, for protecting the power transmission line in response the symmetric fault.
A wrist strap for a biometric monitor, wherein the biometric monitor comprises a casing having a first surface and a second surface opposite to the first surface, the second surface comprising a biometric sensor area located at the centre area of the second surface, the centre area having a diameter in the range of 5-20 mm, said strap comprising receiving means arranged to receive the biometric monitor, such that the biometric monitor is attachable to the strap via a pair of parts (20, 21; 22, 23; 24, 25) enabling rotational movement of the biometric monitor, the parts being located at two opposite perimeter side edges of the biometric monitor, and thereby defining a rotation axis, the rotation axis extending in a first direction which is a perpendicular direction to the direction of the strap, wherein the perpendicular bisector of the rotation axis between the pair of parts is arranged to pass through the centre area of the second surface, characterized in that the receiving means comprises a frame in an aperture in the strap connected to the strap via the pair of parts.
Process for integrating amorphous metallic microwires in a paint for attenuating the reflectivity of electromagnetic radiation, the paint having a certain dielectric constant ε r, the process comprising the steps of: - liquefying the paint with a solvent corresponding to the type of said paint in an amount less than 20%; - adding amorphous metallic microwires in a proportion X to said liquefied paint, the amorphous metallic microwires having a length l and a metallic core of diameter d c; and - beating the mixture of paint with amorphous metallic microwires at a maximum speed less than 2500 rpm depending on the length l of the amorphous metallic microwires; the range of maximum attenuation frequencies of the reflectivity of said electromagnetic radiation being determined by the length l and the diameter d c of the metallic core of the amorphous metallic microwires, by the proportion X of amorphous metallic microwires in the paint, and by the dielectric constant ε r of the paint without amorphous metallic microwires. - liquefying the paint with a solvent corresponding to the type of said paint in an amount less than 20%; - adding amorphous metallic microwires in a proportion X to said liquefied paint, the amorphous metallic microwires having a length l and a metallic core of diameter d c; and - beating the mixture of paint with amorphous metallic microwires at a maximum speed less than 2500 rpm depending on the length l of the amorphous metallic microwires; the range of maximum attenuation frequencies of the reflectivity of said electromagnetic radiation being determined by the length l and the diameter d c of the metallic core of the amorphous metallic microwires, by the proportion X of amorphous metallic microwires in the paint, and by the dielectric constant ε r of the paint without amorphous metallic microwires.
A method for handling instances of a trusted execution environment on an execution platform, the trusted execution environment being associated with a secure cryptoprocessor, wherein the secure cryptoprocessor holds a register, and wherein the trusted execution environment is configured to read from and write to the register at a given index i, the method being performed by the trusted execution environment, the method comprising: checking, upon start of a new instance of the trusted execution environment, status of the register at the given index i, and wherein, when the register at the given index i has its status set to "undefined", an internal status value is set to a first value, and else, when a value is read from the register at the given index i, the internal status value is set to a second value based on the read value; writing the internal status value to the register at the given index i; running the new instance, and whilst doing so: reading a current value from the register at the given index i; and enabling the new instance to keep running only when the current value equals the internal status value. checking, upon start of a new instance of the trusted execution environment, status of the register at the given index i, and wherein, when the register at the given index i has its status set to "undefined", an internal status value is set to a first value, and else, when a value is read from the register at the given index i, the internal status value is set to a second value based on the read value; writing the internal status value to the register at the given index i; running the new instance, and whilst doing so: reading a current value from the register at the given index i; and enabling the new instance to keep running only when the current value equals the internal status value. reading a current value from the register at the given index i; and enabling the new instance to keep running only when the current value equals the internal status value.
A method for providing reliable control of a robot in a cloud robotics system, the method being performed by a concealment component for concealing delayed or lost commands sent to the robot by a robot controller in the cloud robotics system, the method comprising: detecting a missing command expected to be received by the robot from the robot controller, the missing command detected based on a delay or loss of the command in a communication path between the robot and the robot controller; generating a substitutional command corresponding to an expected instruction of the missing command, wherein: - the substitutional command is generated (i) using a machine learning based model and (ii) based on one or more sensor values sent from the robot to the robot controller, - the one or more sensor values are used to determine a predicted control command value, wherein the substitutional command is generated based on the predicted control command value, and - the predicted control command value is a delta value corresponding to a difference to a control command value of a previous command received by the robot from the robot controller, wherein the substitutional command is generated based on the previous command and the delta value; and sending the substitutional command to the robot. detecting a missing command expected to be received by the robot from the robot controller, the missing command detected based on a delay or loss of the command in a communication path between the robot and the robot controller; generating a substitutional command corresponding to an expected instruction of the missing command, wherein: - the substitutional command is generated (i) using a machine learning based model and (ii) based on one or more sensor values sent from the robot to the robot controller, - the one or more sensor values are used to determine a predicted control command value, wherein the substitutional command is generated based on the predicted control command value, and - the predicted control command value is a delta value corresponding to a difference to a control command value of a previous command received by the robot from the robot controller, wherein the substitutional command is generated based on the previous command and the delta value; and - the substitutional command is generated (i) using a machine learning based model and (ii) based on one or more sensor values sent from the robot to the robot controller, - the one or more sensor values are used to determine a predicted control command value, wherein the substitutional command is generated based on the predicted control command value, and - the predicted control command value is a delta value corresponding to a difference to a control command value of a previous command received by the robot from the robot controller, wherein the substitutional command is generated based on the previous command and the delta value; and sending the substitutional command to the robot.
A manufacturing method of a sub-muffler outer cylinder (20; 220), the manufacturing method comprising pushing one push roll (10; 210) toward two receive rolls (11, 12; 211, 212) and then bending a trapezoidal plate-shaped workpiece (W0, W20) having an upper base part and a lower base part, characterized in that a resistance is given to a part near the upper base part or a part near the lower base part of the workpiece (W0, W20) by a roller or a weight to slide the workpiece (W0, W20) and the push roll (10; 210) or the receive rolls (11, 12; 211, 212) to change the speed at which the workpiece (W0, W20) passes in one end part or the other end part of the push roll to form the sub-muffler outer cylinder (20; 220) made of a cylindrical-shaped body having a tapered shape so as to be squeezed to one end part from the other end part, wherein a push-in amount by the push roll (10; 210) is changed during a bending process as a push-in amount in a part (20f - 20g; 220f - 220g) of the workpiece (W0, W20) corresponding to a corner part of the cylindrical-shaped body is made larger than a push-in amount in a part (20a - 20 e; 220a - 220g) of the workpiece (W0, W20) corresponding to a side part of the cylindrical-shaped body to form the cylindrical-shaped body having a polygonal cross-sectional shape.
An optical transmitter adapted to transmit an optical signal on an optical wavelength division multiplexed, referred to as WDM, adjustable bandwidth transmission channel of a WDM grid, the WDM grid comprising transmission channels adjustable to at least two different bandwidths, to a corresponding optical receiver, the optical transmitter comprising - a profiling unit adapted to receive information regarding a spectral response of an equalization filter for a given bandwidth of the WDM transmission channel, the equalization filter adapted at the corresponding optical receiver, based on a first optical signal received from the optical transmitter; - a pulse shaping filter unit adapted to filter a second sequence of data symbols using a pulse shaping filter, thereby yielding a filtered sequence of data symbols; wherein the optical transmitter is configured to adapt a frequency response (404, 405) of the pulse shaping filter based on the information regarding the spectral response of the equalization filter for the given bandwidth of the WDM transmission channel in order to adapt the optical transmitter to the given bandwidth of the WDM transmission channel; and - a digital-to-optical converter (214, 215 216) adapted to convert the filtered sequence of data symbols into a second optical signal to be transmitted to the optical receiver. - a profiling unit adapted to receive information regarding a spectral response of an equalization filter for a given bandwidth of the WDM transmission channel, the equalization filter adapted at the corresponding optical receiver, based on a first optical signal received from the optical transmitter; - a pulse shaping filter unit adapted to filter a second sequence of data symbols using a pulse shaping filter, thereby yielding a filtered sequence of data symbols; wherein the optical transmitter is configured to adapt a frequency response (404, 405) of the pulse shaping filter based on the information regarding the spectral response of the equalization filter for the given bandwidth of the WDM transmission channel in order to adapt the optical transmitter to the given bandwidth of the WDM transmission channel; and - a digital-to-optical converter (214, 215 216) adapted to convert the filtered sequence of data symbols into a second optical signal to be transmitted to the optical receiver.
A load sharing method, comprising: receiving, by a built-in forwarding unit, to-be-transmitted data (step 301); obtaining, by a management control unit, current load ratios of forwarding units (step 302); wherein the built-in forwarding unit and the management control unit are located in a same board, and the forwarding units comprise the built-in forwarding unit and another forwarding unit outside the board; and determining whether a current load ratio of the built-in forwarding unit of the forwarding units is less than a preset load ratio threshold, and if yes, determining that the built-in forwarding unit is the unit for forwarding the to-be-transmitted data (step 303), otherwise, determining that the another forwarding unit outside the board is the unit for forwarding the to-be-transmitted data. receiving, by a built-in forwarding unit, to-be-transmitted data (step 301); obtaining, by a management control unit, current load ratios of forwarding units (step 302); wherein the built-in forwarding unit and the management control unit are located in a same board, and the forwarding units comprise the built-in forwarding unit and another forwarding unit outside the board; and determining whether a current load ratio of the built-in forwarding unit of the forwarding units is less than a preset load ratio threshold, and if yes, determining that the built-in forwarding unit is the unit for forwarding the to-be-transmitted data (step 303), otherwise, determining that the another forwarding unit outside the board is the unit for forwarding the to-be-transmitted data.
An oral care composition comprising an orally-acceptable aqueous vehicle and an antimicrobial ingredient, wherein the antimicrobial ingredient comprises at least one zinc ascorbylphosphate, wherein the at least one zinc ascorbylphosphate comprises a mixture of ascorbylphosphato zinc, ascorbylphosphatochlorido zinc and ascorbylphosphatohydroxo zinc, wherein the at least one zinc ascorbylphosphate is in the composition at a concentration of at least 3.0 mM, and wherein each of the amounts of ascorbylphosphato zinc, ascorbylphosphatochlorido zinc and ascorbylphosphatohydroxo zinc is effective to inhibit the growth of at least one microorganism or provide a biocidal effect.
A roasting furnace for the processing ores or concentrates, preferably molybdenum-containing ores or concentrates, wherein said roasting furnace contains a shaft, an upper part and a lower part, wherein said upper part and said lower part are separated by a bottom floor, wherein said upper part contains an outer wall, at least one first type of hearth stage, at least one second type of hearth stage, and at least one arm, wherein said arm contains at least one tooth, wherein said arm is connected to said shaft, wherein said lower part contains rotary means and a bearing block, wherein said bearing block is located under said shaft, characterized in that at least one first rotary lifting system is contained in said roasting furnace for the displacement of said arm along the axis direction, wherein said first rotary lifting system is a telescopic lifting system, and wherein a distance x between two consecutive said stages (51,52) is at least 1.000 m, wherein said distance x is measured along the axis direction.
A method of printing a three-dimensional article comprising: jetting an ink at a temperature T1 onto a substrate at a temperature T2 to form a layer of the ink on the substrate; and curing the layer of the ink, wherein T1 is greater than T2; wherein the ink in an uncured state has a liquid-gel transition temperature below T1 and above T2; wherein the ink comprises a curable material and a gellant, the gellant comprising a chemical species having one or more terminal olefin moieties linked to a hydrophobic segment by one or more urethane, urea, and/or amide moieties; and wherein the layer of the ink is deposited on the substrate at a rate R1 in mg/s/in 2 that is within 60% of a gelation rate R2 of the ink in inverse minutes in an uncured state at T2, the percentage being based on the larger of R1 and R2, wherein R2 is obtained by taking the inverse of the ink's gelation time and multiplying by 100. jetting an ink at a temperature T1 onto a substrate at a temperature T2 to form a layer of the ink on the substrate; and curing the layer of the ink, wherein T1 is greater than T2; wherein the ink in an uncured state has a liquid-gel transition temperature below T1 and above T2; wherein the ink comprises a curable material and a gellant, the gellant comprising a chemical species having one or more terminal olefin moieties linked to a hydrophobic segment by one or more urethane, urea, and/or amide moieties; and wherein the layer of the ink is deposited on the substrate at a rate R1 in mg/s/in 2 that is within 60% of a gelation rate R2 of the ink in inverse minutes in an uncured state at T2, the percentage being based on the larger of R1 and R2, wherein R2 is obtained by taking the inverse of the ink's gelation time and multiplying by 100.