mhurhangee/patent-ind-claim-en huggingface dataset:
Method for monitoring a device equipped with a microprocessor , comprising the following steps: (E3) - performing at least one calculation within the microprocessor using input data received as input to the microprocessor ; (E4) - performing at least one logic operation by means of logic gates within an external monitoring device using the same input data; (E7) - comparing the results of the at least one calculation performed within the microprocessor and of the at least one logic operation performed within the monitoring device in order to deduce therefrom a diagnosis of the microprocessor ; and - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison. (E3) - performing at least one calculation within the microprocessor using input data received as input to the microprocessor ; (E4) - performing at least one logic operation by means of logic gates within an external monitoring device using the same input data; (E7) - comparing the results of the at least one calculation performed within the microprocessor and of the at least one logic operation performed within the monitoring device in order to deduce therefrom a diagnosis of the microprocessor ; and - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison. - sending as output from the monitoring device a signal representative of the diagnosis of the microprocessor on the basis of this comparison.
A method for connecting two opposing components of a material garment, the method comprising: attaching a strap at a point of attachment to a first component on one side of the material garment, the strap comprising a billet portion that extends from the point of attachment, wherein the billet portion comprises a first affixing area on a bottom side thereof and a second affixing area on a top side thereof, the bottom side being opposite the top first side; passing the billet portion through an aperture formed in a second component on an opposing side of the material garment, then reversing the strap back towards the point of attachment while pulling against an integrated rigid tensioning element in the second component adjacent to said aperture and proximate to the point of attachment; affixing the first affixing area (202. 402) on the bottom side of said billet portion to a bottom affixing mechanism located on the first component of the material garment aft of the point of attachment, wherein the first component further comprises a hinged material panel positioned to overlap with the bottom affixing mechanism ; and affixing the second affixing area on the top side of said billet portion to a top affixing mechanism located on the underside of the hinged material panel, whereby said billet portion is interposed between both the top and bottom affixing mechanisms (210, 214; 410, 414) resulting in a secure, protected material closure which can be engaged and disengaged repeatedly and adjusted for fit. attaching a strap at a point of attachment to a first component on one side of the material garment, the strap comprising a billet portion that extends from the point of attachment, wherein the billet portion comprises a first affixing area on a bottom side thereof and a second affixing area on a top side thereof, the bottom side being opposite the top first side; passing the billet portion through an aperture formed in a second component on an opposing side of the material garment, then reversing the strap back towards the point of attachment while pulling against an integrated rigid tensioning element in the second component adjacent to said aperture and proximate to the point of attachment; affixing the first affixing area (202. 402) on the bottom side of said billet portion to a bottom affixing mechanism located on the first component of the material garment aft of the point of attachment, wherein the first component further comprises a hinged material panel positioned to overlap with the bottom affixing mechanism ; and affixing the second affixing area on the top side of said billet portion to a top affixing mechanism located on the underside of the hinged material panel, whereby said billet portion is interposed between both the top and bottom affixing mechanisms (210, 214; 410, 414) resulting in a secure, protected material closure which can be engaged and disengaged repeatedly and adjusted for fit.
A method for authentication of a payment service using a service initiating terminal and a service authorization terminal, the method comprising: sending , by the service initiating terminal, service information to the service authorization terminal; receiving, by the service authorization terminal, service information sent by the service initiating terminal; generating , by the service authorization terminal, a service authorization code corresponding to the received service information, wherein the service authorization code is valid within a preset time length; sending, by the service authorization terminal, the service authorization code to the service initiating terminal, receiving , by the service initiating terminal, the service authorization code sent by the service authorization terminal; generating , by the service initiating terminal, service authentication information including the service information and the service authorization code, and uploading the service authentication information to a server for authentication of the service authorization code and subsequent processing of the service after said authentication; and receiving , at the service authorization terminal, a notification message that the service has been processed by the server, the message being sent by the server after finishing processing the service. sending , by the service initiating terminal, service information to the service authorization terminal; receiving, by the service authorization terminal, service information sent by the service initiating terminal; generating , by the service authorization terminal, a service authorization code corresponding to the received service information, wherein the service authorization code is valid within a preset time length; sending, by the service authorization terminal, the service authorization code to the service initiating terminal, receiving , by the service initiating terminal, the service authorization code sent by the service authorization terminal; generating , by the service initiating terminal, service authentication information including the service information and the service authorization code, and uploading the service authentication information to a server for authentication of the service authorization code and subsequent processing of the service after said authentication; and receiving , at the service authorization terminal, a notification message that the service has been processed by the server, the message being sent by the server after finishing processing the service.
A coupling interface between a laser source and a tissue to be treated , characterized in that the coupling interface comprises: - a ring including: • a side wall , • a proximal end intended to come into contact with the tissue to be treated, and • a distal end intended to receive the end of the laser source, - a window transparent to a laser beam generated by the laser source, said window being mounted in a sealed manner on the ring so as to close the distal end of the ring , - a through suction channel extending between the inner and outer faces of the side wall , the suction channel being intended to be connected to a suction module to allow the generation of a depression in an internal space defined between the window and the side wall , - a through irrigation channel extending between the inner and outer faces of the side wall , the irrigation channel being intended to be connected to an irrigation module to allow the liquid infusion in the internal space . - a ring including: • a side wall , • a proximal end intended to come into contact with the tissue to be treated, and • a distal end intended to receive the end of the laser source, • a side wall , • a proximal end intended to come into contact with the tissue to be treated, and • a distal end intended to receive the end of the laser source, - a window transparent to a laser beam generated by the laser source, said window being mounted in a sealed manner on the ring so as to close the distal end of the ring , - a through suction channel extending between the inner and outer faces of the side wall , the suction channel being intended to be connected to a suction module to allow the generation of a depression in an internal space defined between the window and the side wall , - a through irrigation channel extending between the inner and outer faces of the side wall , the irrigation channel being intended to be connected to an irrigation module to allow the liquid infusion in the internal space .
A method of preparing fat containing 50 wt% or more of 1-palmitoyl-2-oleyl-3-stear.oyl glycerol, POS, comprising: subjecting a raw material fat obtained by mixing palm oil or a fraction thereof containing 40 to 85 wt% of 1-palmitoyl-2-oleyl-3-palmitoyl glycerol, POP, with stearic acid and a stearic acid derivative at a molar ratio of 1:0.5 to 1:10 to enzymatic transesterification; wherein the enzymatic transesterification is carried out at 30 to 60°C using an enzyme extracted from Mucor miehei or Thermomyces lanuginosus; removing a crystallized fraction obtained through single fractionation from the enzymatically transesterified fat, wherein removing the crystallized fraction comprises maintaining the fat solution, from which the stearic acid and the stearic acid derivative are not removed, at 0 to 40°C for 1 to 48 hours after enzymatic transesterification to separate a solid phase and a liquid phase, and removing the solid phase; and removing the stearic acid and the stearic acid derivative from the fractionized fat. subjecting a raw material fat obtained by mixing palm oil or a fraction thereof containing 40 to 85 wt% of 1-palmitoyl-2-oleyl-3-palmitoyl glycerol, POP, with stearic acid and a stearic acid derivative at a molar ratio of 1:0.5 to 1:10 to enzymatic transesterification; wherein the enzymatic transesterification is carried out at 30 to 60°C using an enzyme extracted from Mucor miehei or Thermomyces lanuginosus; removing a crystallized fraction obtained through single fractionation from the enzymatically transesterified fat, wherein removing the crystallized fraction comprises maintaining the fat solution, from which the stearic acid and the stearic acid derivative are not removed, at 0 to 40°C for 1 to 48 hours after enzymatic transesterification to separate a solid phase and a liquid phase, and removing the solid phase; and removing the stearic acid and the stearic acid derivative from the fractionized fat.
A vehicle headrest (100; 200; 400; 600) comprising: a main body (110; 210; 410; 610) having a front surface (120; 220; 420; 620) arranged to support a back of a head of a user and a pair of acoustic channels (130a, b; 230a, b; 430a, b; 630a, b) each formed in part by a side wall (140a, b; 240a, b; 440a; b; 640a, b) having a front edge (150a, b; 250a, b; 450a, b; 650a, b) that is offset from the front surface, the main body comprising a portion (160a, b; 260a, b; 460a, b; 660a, b) configured to receive first and second transducers (170a, b: 270a, b; 470a, b; 670a, b), characterized in that first and second transducers have a center-to-center spacing of approximately 130 millimeters (mm) to approximately 240 mm, and a dimension (Dimension F) defined by an amount that the front edge of each side wall is recessed from the front surface is equal to approximately 5-55 mm. a main body (110; 210; 410; 610) having a front surface (120; 220; 420; 620) arranged to support a back of a head of a user and a pair of acoustic channels (130a, b; 230a, b; 430a, b; 630a, b) each formed in part by a side wall (140a, b; 240a, b; 440a; b; 640a, b) having a front edge (150a, b; 250a, b; 450a, b; 650a, b) that is offset from the front surface, the main body comprising a portion (160a, b; 260a, b; 460a, b; 660a, b) configured to receive first and second transducers (170a, b: 270a, b; 470a, b; 670a, b), characterized in that first and second transducers have a center-to-center spacing of approximately 130 millimeters (mm) to approximately 240 mm, and a dimension (Dimension F) defined by an amount that the front edge of each side wall is recessed from the front surface is equal to approximately 5-55 mm.
A microchannel heat exchanger, comprising: a heat exchanger body including a channel layer stack formed in such a manner that a plurality of high-temperature channel layers provided with a channel for a high-temperature fluid and a plurality of low-temperature channels layers provided with a channel for a low-temperature fluid are alternately stacked, an inlet and an outlet for the high-temperature fluid, and an inlet and an outlet for the low-temperature fluid; and a printed board that is fixed in a stacking direction of the heat exchanger body, and characterised in that the printed board at least installs a plurality of temperature sensors that are inserted in the stacking direction of the heat exchanger body in such a manner that a sensing point is arranged near each of the inlet and the outlet for the high-temperature fluid and the inlet and the outlet for the low-temperature fluid. a heat exchanger body including a channel layer stack formed in such a manner that a plurality of high-temperature channel layers provided with a channel for a high-temperature fluid and a plurality of low-temperature channels layers provided with a channel for a low-temperature fluid are alternately stacked, an inlet and an outlet for the high-temperature fluid, and an inlet and an outlet for the low-temperature fluid; and a printed board that is fixed in a stacking direction of the heat exchanger body, and characterised in that the printed board at least installs a plurality of temperature sensors that are inserted in the stacking direction of the heat exchanger body in such a manner that a sensing point is arranged near each of the inlet and the outlet for the high-temperature fluid and the inlet and the outlet for the low-temperature fluid.
A method for collecting data for diagnosing extrahepatic bile duct carcinoma, intrahepatic bile duct carcinoma, or gallbladder carcinoma, comprising a step of detecting a concentration of CEACAM1 in a blood sample collected from a test subject, wherein: when collecting data for diagnosing extrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 65.9 ±5 ng/mL indicates that the test subject has a high possibility of having extrahepatic bile duct carcinoma; when collecting data for diagnosing intrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 57.0 ±5 ng/mL indicates that the test subject has a high possibility of having intrahepatic bile duct carcinoma; and when collecting data for diagnosing gallbladder carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 51.9 ±5 ng/mL indicates that the test subject has a high possibility of having gallbladder carcinoma. when collecting data for diagnosing extrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 65.9 ±5 ng/mL indicates that the test subject has a high possibility of having extrahepatic bile duct carcinoma; when collecting data for diagnosing intrahepatic bile duct carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 57.0 ±5 ng/mL indicates that the test subject has a high possibility of having intrahepatic bile duct carcinoma; and when collecting data for diagnosing gallbladder carcinoma, the concentration of CEACAM1 in the blood sample collected from the test subject being more than 51.9 ±5 ng/mL indicates that the test subject has a high possibility of having gallbladder carcinoma.
A leakage detection apparatus , wherein the leakage detection apparatus comprises a gas releaser , a gas sensor , and a controller , both the gas releaser and the gas sensor are communicatively connected to the controller, the gas releaser is configured to provide tracer gas to a first flow channel of a heat exchanger core , the gas sensor is configured to detect a tracer gas concentration in a second flow channel of the heat exchanger core and feed back the tracer gas concentration to the controller, the controller is configured to compare the tracer gas concentration detected by the gas sensor with a concentration threshold, and if the tracer gas concentration is greater than the concentration threshold, the controller determines that a leakage point exists in the heat exchanger core , wherein there are a plurality of detection points at which the gas sensor detects the tracer gas concentration, characterized in that the detection point is a position of the gas sensor when detecting the tracer gas concentration on a side surface of the heat exchanger core that is provided with an opening of the second flow channel ; and when at least one of tracer gas concentrations at the plurality of detection points is greater than the concentration threshold, the controller determines that a leakage point exists in the heat exchanger core, wherein the leakage detection apparatus further comprises a positioner disposed on the gas sensor , and the positioner is configured to: find a position of the detection point of the gas sensor, and feed back the position to the controller ; and the controller is further configured to identify, as a position of the leakage point, a position of a detection point at which a detected tracer gas concentration is greater than the concentration threshold, to determine a position of the second flow channel in which the leakage point exists. wherein there are a plurality of detection points at which the gas sensor detects the tracer gas concentration, characterized in that the detection point is a position of the gas sensor when detecting the tracer gas concentration on a side surface of the heat exchanger core that is provided with an opening of the second flow channel ; and when at least one of tracer gas concentrations at the plurality of detection points is greater than the concentration threshold, the controller determines that a leakage point exists in the heat exchanger core, wherein the leakage detection apparatus further comprises a positioner disposed on the gas sensor , and the positioner is configured to: find a position of the detection point of the gas sensor, and feed back the position to the controller ; and the controller is further configured to identify, as a position of the leakage point, a position of a detection point at which a detected tracer gas concentration is greater than the concentration threshold, to determine a position of the second flow channel in which the leakage point exists.
A method of wireless communication, comprising: transmitting a first indication from a base station to a mobile device, the first indication facilitating a transition of the mobile device into a first sleep mode, wherein in the first sleep mode the mobile device cycles between a first DRX cycle off period and a first DRX cycle on period in a first sleep mode and cycles between a first discontinuous transmit DTX cycle off period and a first DTX cycle on period in the first sleep mode; transmitting a second indication from the base station to the mobile device, the second indication facilitating a transition of the mobile device from the first sleep mode to a second sleep mode, wherein in the second sleep mode the mobile device cycles between a second discontinuous receive DRX cycle off period and a second DRX cycle on period and cycles between a second discontinuous transmit DTX cycle off period and a second DTX cycle on period; and the first and second sleep modes are configured based on CQI attributes. transmitting a first indication from a base station to a mobile device, the first indication facilitating a transition of the mobile device into a first sleep mode, wherein in the first sleep mode the mobile device cycles between a first DRX cycle off period and a first DRX cycle on period in a first sleep mode and cycles between a first discontinuous transmit DTX cycle off period and a first DTX cycle on period in the first sleep mode; transmitting a second indication from the base station to the mobile device, the second indication facilitating a transition of the mobile device from the first sleep mode to a second sleep mode, wherein in the second sleep mode the mobile device cycles between a second discontinuous receive DRX cycle off period and a second DRX cycle on period and cycles between a second discontinuous transmit DTX cycle off period and a second DTX cycle on period; and the first and second sleep modes are configured based on CQI attributes.
A nucleic acid agent which comprises a nucleic acid sequence which downregulates expression of a gene product of a Varroa destructor mite for use in a method of preventing or treating a Varroa destructor mite infestation of a bee hive, the method comprising administering the bee an effective amount of the nucleic acid agent.
A method of calibrating a transducer , the method comprising: determining a transfer function for the transducer based on a measured response of the transducer to an applied electrical signal; determining a set of values for a plurality of response parameters associated with the transducer based on the transfer function; mapping the set of values for the plurality of response parameters to a calibration coefficient value associated with the transducer and based at least in part on a calibration correlation data set including physical sensitivity to a physical stimulus and respective values of the plurality of response parameters associated with one or more additional instances of the transducer ; and storing the calibration coefficient value in association with the transducer , characterized in that determining the set of values associated with the transducer based on the transfer function comprises fitting the transfer function to an overdamped second order transfer function including each damping parameter of the plurality of response parameters having a respective value associated with the damping parameter of the set of values. determining a transfer function for the transducer based on a measured response of the transducer to an applied electrical signal; determining a set of values for a plurality of response parameters associated with the transducer based on the transfer function; mapping the set of values for the plurality of response parameters to a calibration coefficient value associated with the transducer and based at least in part on a calibration correlation data set including physical sensitivity to a physical stimulus and respective values of the plurality of response parameters associated with one or more additional instances of the transducer ; and storing the calibration coefficient value in association with the transducer , characterized in that determining the set of values associated with the transducer based on the transfer function comprises fitting the transfer function to an overdamped second order transfer function including each damping parameter of the plurality of response parameters having a respective value associated with the damping parameter of the set of values.