mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a biometric certificate of a user performed by a data processing device of a certifying authority , the method comprising a step of generating (E4) a certificate for said user comprising data related to the identity of the user and truncated authentication data of said user generated according to a method of generating a biometric authentication datum, wherein the truncated authentication data comprise a first truncated authentication datum and at least a first derived truncated authentication datum, the method of generating a biometric authentication datum comprising steps of: - acquiring (E1) first biometric data of said user, - for at least one error to be processed among a determined set of tolerable errors, generating (E'1) first derived biometric data, by adding said error to be processed to the first acquired biometric data; - generating (E2) a first proof of knowledge of said first biometric data from the first acquired biometric data and from a pseudo-random function, and generating (E'2) first derived proofs of knowledge from the generated first derived biometric data and from the pseudo-random function; - generating (E3) the first truncated authentication datum by applying a truncation function to said generated first proof of knowledge, and generating (E'3) the first derived truncated authentication data by applying the truncation function to the generated first derived proofs of knowledge. - acquiring (E1) first biometric data of said user, - for at least one error to be processed among a determined set of tolerable errors, generating (E'1) first derived biometric data, by adding said error to be processed to the first acquired biometric data; - generating (E2) a first proof of knowledge of said first biometric data from the first acquired biometric data and from a pseudo-random function, and generating (E'2) first derived proofs of knowledge from the generated first derived biometric data and from the pseudo-random function; - generating (E3) the first truncated authentication datum by applying a truncation function to said generated first proof of knowledge, and generating (E'3) the first derived truncated authentication data by applying the truncation function to the generated first derived proofs of knowledge.
An assembly machine for a medicine mixer, comprising: a rack , provided with a rotatable dividing table on which a plurality of clamps is arranged fixedly; a medicine mixing cup mounting device , arranged on the rack in butt-joint with the dividing table , for mounting the medicine mixing cup on the clamp of the dividing table; a rubber plug mounting device , arranged on the rack in butt-joint with the dividing table , for mounting the rubber plug in the medicine mixing cup; an elastic clip mounting device , arranged on the rack in butt-joint with the dividing table , for mounting an elastic clip in the medicine mixing cup; a puncture needle mounting device , arranged on the rack in butt-joint with the dividing table , for mounting a puncture needle in the medicine mixing cup; a coverplate mounting device , arranged on the rack in butt-joint with the dividing table , for mounting a coverplate on the medicine mixing cup; a soldering device , arranged on the rack in butt-joint with the dividing table , for covering a peeling tape on the coverplate and soldering the same on the medicine mixing cup; and an output device , arranged on the rack in butt-joint with the dividing table , for outputting the assembled medicine mixer. a rack , provided with a rotatable dividing table on which a plurality of clamps is arranged fixedly; a medicine mixing cup mounting device , arranged on the rack in butt-joint with the dividing table , for mounting the medicine mixing cup on the clamp of the dividing table; a rubber plug mounting device , arranged on the rack in butt-joint with the dividing table , for mounting the rubber plug in the medicine mixing cup; an elastic clip mounting device , arranged on the rack in butt-joint with the dividing table , for mounting an elastic clip in the medicine mixing cup; a puncture needle mounting device , arranged on the rack in butt-joint with the dividing table , for mounting a puncture needle in the medicine mixing cup; a coverplate mounting device , arranged on the rack in butt-joint with the dividing table , for mounting a coverplate on the medicine mixing cup; a soldering device , arranged on the rack in butt-joint with the dividing table , for covering a peeling tape on the coverplate and soldering the same on the medicine mixing cup; and an output device , arranged on the rack in butt-joint with the dividing table , for outputting the assembled medicine mixer.
Method for chromatographic quantitative determination of the amino acids valine, methionine, alloisoleucine, isoleucine, leucine, tyrosine and phenylalanine in the blood plasma, wherein the amino acid homocysteine is also recorded quantitatively in a single chromatography run, wherein the method is a chromatographic method using several eluents and a separating programme, characterised in that the eluents are the following, having respectively the following relative composition: B: lithium hydroxide monohydrate 2.5 g, boric acid 0.5 g, ethanol 5 ml, caprylic acid 0.1 ml, trifluoroacetic acid solution 50% 4.7 ml, ultrapure water 480 ml; C: lithium hydroxide monohydrate 2.1 g, boric acid 1.5 g, formic acid 1.5 ml, acetic acid 100% 1.5 ml, caprylic acid 0.1 ml, trifluoroacetic acid solution 50% 0.8 ml, ultrapure water 495 ml. B: lithium hydroxide monohydrate 2.5 g, boric acid 0.5 g, ethanol 5 ml, caprylic acid 0.1 ml, trifluoroacetic acid solution 50% 4.7 ml, ultrapure water 480 ml; C: lithium hydroxide monohydrate 2.1 g, boric acid 1.5 g, formic acid 1.5 ml, acetic acid 100% 1.5 ml, caprylic acid 0.1 ml, trifluoroacetic acid solution 50% 0.8 ml, ultrapure water 495 ml.
A film comprising: a. from 20 wt.% to 80 wt.% of a polyolefin component; and b. from 20 wt.% to 45 wt.% of a particle component; wherein the film further comprises less than 15 wt% of an elastomeric resin and the sum of the polyolefin component, the particle component and the elastomeric resin does not exceed 100 wt%; wherein the film has a basis weight of from 5gsm to 25gsm prior to activation; wherein the film is activated and subjected to an engineering strain of greater than 20%; wherein the film has a predicted sound pressure level over the frequency octave range of 2000Hz - 6300Hz of less than 43dB, as measured according to the test method described herein. a. from 20 wt.% to 80 wt.% of a polyolefin component; and b. from 20 wt.% to 45 wt.% of a particle component; wherein the film further comprises less than 15 wt% of an elastomeric resin and the sum of the polyolefin component, the particle component and the elastomeric resin does not exceed 100 wt%; wherein the film has a basis weight of from 5gsm to 25gsm prior to activation; wherein the film is activated and subjected to an engineering strain of greater than 20%; wherein the film has a predicted sound pressure level over the frequency octave range of 2000Hz - 6300Hz of less than 43dB, as measured according to the test method described herein. wherein the film further comprises less than 15 wt% of an elastomeric resin and the sum of the polyolefin component, the particle component and the elastomeric resin does not exceed 100 wt%; wherein the film has a basis weight of from 5gsm to 25gsm prior to activation; wherein the film is activated and subjected to an engineering strain of greater than 20%; wherein the film has a predicted sound pressure level over the frequency octave range of 2000Hz - 6300Hz of less than 43dB, as measured according to the test method described herein.
A sensor system adapted to be mounted on a vehicle , comprising: a first sensor configured to sense information of an outside of the vehicle; a second sensor configured to sense information of the outside of the vehicle in a different manner from the first sensor; and a supporting member supporting the first sensor and the second sensor, characterized by a first adjuster configured to adjust a sensing reference position of the first sensor relative to the supporting member in a pre-shipment process of the sensor system, a second adjuster configured to adjust a sensing reference position of the second sensor relative to the supporting member in the pre-shipment process of the sensor system, and a third adjuster configured to collectively adjust at least one of a position and a posture of the supporting member relative to the vehicle after the sensor system is mounted on the vehicle. a first sensor configured to sense information of an outside of the vehicle; a second sensor configured to sense information of the outside of the vehicle in a different manner from the first sensor; and a supporting member supporting the first sensor and the second sensor, characterized by a first adjuster configured to adjust a sensing reference position of the first sensor relative to the supporting member in a pre-shipment process of the sensor system, a second adjuster configured to adjust a sensing reference position of the second sensor relative to the supporting member in the pre-shipment process of the sensor system, and a third adjuster configured to collectively adjust at least one of a position and a posture of the supporting member relative to the vehicle after the sensor system is mounted on the vehicle.
A method comprising: forming a target well in an earthen formation ; forming a drilling well in the earthen formation ; positioning a magnetic source in the target well ; positioning a magnetic sensor in the drilling well ; activating the magnetic source ; measuring the magnetic field in the drilling well as the magnetic sensor is moved through the drilling well while the magnetic source is active to determine whether the magnetic sensor is saturated or not saturated; identifying a location in the drilling well in which the magnetic sensor is not saturated while the magnetic source is active based on the measured magnetic field while the magnetic sensor is moved through the drilling well ; and determining the direction and/or range to the target well at the location. forming a target well in an earthen formation ; forming a drilling well in the earthen formation ; positioning a magnetic source in the target well ; positioning a magnetic sensor in the drilling well ; activating the magnetic source ; measuring the magnetic field in the drilling well as the magnetic sensor is moved through the drilling well while the magnetic source is active to determine whether the magnetic sensor is saturated or not saturated; identifying a location in the drilling well in which the magnetic sensor is not saturated while the magnetic source is active based on the measured magnetic field while the magnetic sensor is moved through the drilling well ; and determining the direction and/or range to the target well at the location.
An optical control device having a substrate formed with an optical waveguide, wherein at least a portion of the optical waveguide is configured as a ridge waveguide and a trench is formed on both sides of at least portions of the ridge waveguide, characterized in that the substrate is a thin plate with a thickness of 10 μm or less and is made of LiNbO 3 , LiTaO 3 , or KTiOPO 4 , a reinforcing plate is adhered to the substrate with an adhesion layer interposed therebetween, the trench has a width of 10 μm or less, and a taper waveguide section (B) which is disposed at least in one of a light input section and a light output section of the ridge waveguide formed at an edge of the substrate , is provided in which the width or depth of the trench change continuously between an edge waveguide section (A) of the substrate and an interior waveguide section (C) thereof so that a light propagation mode of the waveguide is continuously changed between a single-mode and a multi-mode.
A system for determining a coefficient of heat exchange between a fluid (F) and a support (P) at a surface (P N ) of the support in contact with the fluid (F), characterised in that it comprises a temperature measurement device extending in a longitudinal direction (X) and comprising: - a multilayer structure having: -- at least four thin ceramic layers , and -- at least three metal tracks , each track being positioned between two thin layers and integrated into the thickness of one of said two layers; each track being connectable to an electrical power supply means and to a resistance measurement means so as to form a resistive probe able to measure a temperature T P1 , T P2 , T P3 in a measurement plane (P 1 , P 2 , P 3 ), the metal tracks thus forming a plurality of measurement planes (P 1 , P 2 , P 3 ) parallel to one another and substantially aligned in a direction (Z) perpendicular to the surface (P N ); and - a resistive temperature probe attached to the multilayer structure and intended to be in contact with the fluid (F) so as to measure a fluid temperature T F ; the system further comprising a computer having: - first means for calculating, from the temperature values T P1 , T P2 , T P3 measured by the at least three metal tracks, a mean wall temperature value T P and a heat flow density φ; and - second means for calculating a heat exchange coefficient h from the fluid temperature T F , the mean wall temperature T P and the heat flow density φ. - a multilayer structure having: -- at least four thin ceramic layers , and -- at least three metal tracks , each track being positioned between two thin layers and integrated into the thickness of one of said two layers; each track being connectable to an electrical power supply means and to a resistance measurement means so as to form a resistive probe able to measure a temperature T P1 , T P2 , T P3 in a measurement plane (P 1 , P 2 , P 3 ), the metal tracks thus forming a plurality of measurement planes (P 1 , P 2 , P 3 ) parallel to one another and substantially aligned in a direction (Z) perpendicular to the surface (P N ); and -- at least four thin ceramic layers , and -- at least three metal tracks , each track being positioned between two thin layers and integrated into the thickness of one of said two layers; - a resistive temperature probe attached to the multilayer structure and intended to be in contact with the fluid (F) so as to measure a fluid temperature T F ; - first means for calculating, from the temperature values T P1 , T P2 , T P3 measured by the at least three metal tracks, a mean wall temperature value T P and a heat flow density φ; and - second means for calculating a heat exchange coefficient h from the fluid temperature T F , the mean wall temperature T P and the heat flow density φ.
A method comprising: determining a first adjustment value for a slip frequency (S530) of a rotor in an induction motor; determining a second adjustment value for a magnetizing inductance (S755) of the induction motor; tuning the slip frequency of the rotor (S550) and the magnetizing inductance of the induction motor based on the first adjustment value and the second adjustment value, respectively; and characterized in that the step of determining the second adjustment value includes, estimating an electromagnetic torque (S735) of the induction motor, and determining the second adjustment value based on the estimated electromagnetic torque of the induction motor and a torque command. determining a first adjustment value for a slip frequency (S530) of a rotor in an induction motor; determining a second adjustment value for a magnetizing inductance (S755) of the induction motor; tuning the slip frequency of the rotor (S550) and the magnetizing inductance of the induction motor based on the first adjustment value and the second adjustment value, respectively; and characterized in that the step of determining the second adjustment value includes, estimating an electromagnetic torque (S735) of the induction motor, and determining the second adjustment value based on the estimated electromagnetic torque of the induction motor and a torque command.
A semiconductor device , comprising: a substrate ; a first stack of layers including a source connection layer , the first stack of layers being stacked on the substrate along a first direction perpendicular to a main surface of the substrate ; a second stack of layers including gate layers and insulating layers , the gate layers and insulating layers being stacked alternately upon the first stack of layers ; and a channel structure configured to extend in the first direction in the first stack of layers and the second stack of layers , the channel structure including a channel layer that is in contact with the source connection layer in the first stack of layers ; and a shield structure formed in the first stack of layers , the shield structure comprises a closed portion enclosing a stack of layers without the source connection layer , the shield structure is disposed between two neighboring gate line cut structures, characterised in that the shield structure further includes a non-enclosing portion in a core region where the channel structure is disposed. a substrate ; a first stack of layers including a source connection layer , the first stack of layers being stacked on the substrate along a first direction perpendicular to a main surface of the substrate ; a second stack of layers including gate layers and insulating layers , the gate layers and insulating layers being stacked alternately upon the first stack of layers ; and a channel structure configured to extend in the first direction in the first stack of layers and the second stack of layers , the channel structure including a channel layer that is in contact with the source connection layer in the first stack of layers ; and a shield structure formed in the first stack of layers , the shield structure comprises a closed portion enclosing a stack of layers without the source connection layer , the shield structure is disposed between two neighboring gate line cut structures, characterised in that the shield structure further includes a non-enclosing portion in a core region where the channel structure is disposed.
A frame pool comprising: a pool body ; a support frame supporting the pool body and comprising: a plurality of support members ; and an upper frame supported by the plurality of support members and including: at least one first upper tube arranged along a length of the frame pool ; at least one second upper tube arranged along a width of the frame pool perpendicular to the at least one first upper tube ; a connecting tube connecting the at least one first upper tube and the at least one second upper tube to establish the upper frame ; and a collar located between the connecting tube and one of the at least one first upper tube and the at least one second upper tube . a pool body ; a support frame supporting the pool body and comprising: a plurality of support members ; and an upper frame supported by the plurality of support members and including: at least one first upper tube arranged along a length of the frame pool ; at least one second upper tube arranged along a width of the frame pool perpendicular to the at least one first upper tube ; a connecting tube connecting the at least one first upper tube and the at least one second upper tube to establish the upper frame ; and a collar located between the connecting tube and one of the at least one first upper tube and the at least one second upper tube . a plurality of support members ; and an upper frame supported by the plurality of support members and including: at least one first upper tube arranged along a length of the frame pool ; at least one second upper tube arranged along a width of the frame pool perpendicular to the at least one first upper tube ; a connecting tube connecting the at least one first upper tube and the at least one second upper tube to establish the upper frame ; and a collar located between the connecting tube and one of the at least one first upper tube and the at least one second upper tube . at least one first upper tube arranged along a length of the frame pool ; at least one second upper tube arranged along a width of the frame pool perpendicular to the at least one first upper tube ; a connecting tube connecting the at least one first upper tube and the at least one second upper tube to establish the upper frame ; and a collar located between the connecting tube and one of the at least one first upper tube and the at least one second upper tube .
Improved system for handling pieces having a mainly plane geometrical structure, such as panels, doors and windows etc., comprising: - a bearing structure ; - one or more piece-holding bars arranged parallel to a horizontal direction of reference (Y); - at least one handling structure designed to handle said bars with respect to said bearing structure , wherein said handling structure selectively moves one or more of said bars in said translation direction (X), wherein said handling structure in turn comprises: - at least one bar thrusting tooth which slides along a sliding guide oriented in said translation direction (X); - means for selectively translating said at least one bar thrusting tooth along said at least one sliding guide in both directions; - at least one coupling section directly or indirectly constrained to said piece-holding bar , said coupling section being provided with at least one seat for coupling said at least one bar thrusting tooth , and wherein said at least one tooth oscillates with respect to said sliding guide between at least one first position of non-interference (A), in which it is not coupled with said coupling section , and a second position of interference (B), in which it can be coupled with said coupling section , characterized in that each piece-holding bar in turn comprises coupling means for hanging one or more pieces to be processed and furthermore sliding with respect to said bearing structure in a horizontal translation direction (X) that is orthogonal to said horizontal direction of reference (Y). - a bearing structure ; - one or more piece-holding bars arranged parallel to a horizontal direction of reference (Y); - at least one handling structure designed to handle said bars with respect to said bearing structure , wherein said handling structure selectively moves one or more of said bars in said translation direction (X), - at least one bar thrusting tooth which slides along a sliding guide oriented in said translation direction (X); - means for selectively translating said at least one bar thrusting tooth along said at least one sliding guide in both directions; - at least one coupling section directly or indirectly constrained to said piece-holding bar , said coupling section being provided with at least one seat for coupling said at least one bar thrusting tooth , and wherein said at least one tooth oscillates with respect to said sliding guide between at least one first position of non-interference (A), in which it is not coupled with said coupling section , and a second position of interference (B), in which it can be coupled with said coupling section , characterized in that each piece-holding bar in turn comprises coupling means for hanging one or more pieces to be processed and furthermore sliding with respect to said bearing structure in a horizontal translation direction (X) that is orthogonal to said horizontal direction of reference (Y).