mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for generating error reporting content of a deep learning framework, comprising: acquiring (S101) an error code returned by a third-party library when an error occurs in calling of a third-party library application programming interface (API) and error information corresponding to the error code, wherein the error code is used for identifying a type of an error when the deep learning framework fails to call the third-party library API, and the error information is used for describing the cause of the error and the solution for the error; determining (S102) a programming language used by the deep learning framework, generating (S102) an error file which corresponds to the programming language, according to the error code and the error information corresponding thereto, and packaging (S102) the error file into the deep learning framework; running (S103) the deep learning framework, and in response to the deep learning framework receiving the error code, extracting (S103), from the error file, error information corresponding to the received error code; and generating (S104) error reporting content according to the error information, recording the generation time of the error file after the generating the error file according to the error code and the error information corresponding thereto; and updating the error code and the error information corresponding thereto in the error file in response to a time difference between the current time and the previous generation time reaching a preset time interval. acquiring (S101) an error code returned by a third-party library when an error occurs in calling of a third-party library application programming interface (API) and error information corresponding to the error code, wherein the error code is used for identifying a type of an error when the deep learning framework fails to call the third-party library API, and the error information is used for describing the cause of the error and the solution for the error; determining (S102) a programming language used by the deep learning framework, generating (S102) an error file which corresponds to the programming language, according to the error code and the error information corresponding thereto, and packaging (S102) the error file into the deep learning framework; running (S103) the deep learning framework, and in response to the deep learning framework receiving the error code, extracting (S103), from the error file, error information corresponding to the received error code; and generating (S104) error reporting content according to the error information, recording the generation time of the error file after the generating the error file according to the error code and the error information corresponding thereto; and updating the error code and the error information corresponding thereto in the error file in response to a time difference between the current time and the previous generation time reaching a preset time interval.
A method for producing a zeolite molded article, comprising the following steps to : subjecting a mixture containing a silicon compound, water, and a quaternary ammonium hydroxide to a hydrothermal synthesis reaction; filtering the reaction mixture containing crystals obtained in the step to separate it into a concentrate containing crystals and a filtrate; washing the concentrate containing crystals obtained in the step with water until the pH at 25°C of the washed solution obtained by washing becomes 8.5 to 9.5; molding the crystals obtained after washing in the step ; calcining the molded article obtained in the step ; contacting the calcined product obtained in the step with water vapor; and contact treating the calcined product obtained after contact with water vapor in the step with an aqueous solution including at least one compound selected from the group consisting of ammonia and an ammonium salt. subjecting a mixture containing a silicon compound, water, and a quaternary ammonium hydroxide to a hydrothermal synthesis reaction; filtering the reaction mixture containing crystals obtained in the step to separate it into a concentrate containing crystals and a filtrate; washing the concentrate containing crystals obtained in the step with water until the pH at 25°C of the washed solution obtained by washing becomes 8.5 to 9.5; molding the crystals obtained after washing in the step ; calcining the molded article obtained in the step ; contacting the calcined product obtained in the step with water vapor; and contact treating the calcined product obtained after contact with water vapor in the step with an aqueous solution including at least one compound selected from the group consisting of ammonia and an ammonium salt.
An aqueous polyurethane coating composition comprising: (a) a water-dilutable free radically curable polyurethane resin comprising a reaction product of: (A1) 40-90 wt. % of one or more acrylate prepolymers containing hydroxyl groups and having an OH content of 40-120 mg of KOH/g and (B1) 0.1-20 wt. % of one or more mono- and/or difunctional compounds reactive towards isocyanate groups, which compounds contain groups which are cationic, anionic and/or have a dispersant action due to ether groups with (C1) 10-50 wt. % of one or more polyisocyanates (D1) 0.0-30.0 Wt. % of one or more polyols together with a subsequent reaction with (E1) 0.1-10 wt. % of one or more di- and/or polyamines, and (b) a water-dilutable polycarbonate-polyurethane resin, wherein the polycarbonate-polyurethane resin is non-functional; wherein components (a) and (b) are present in a weight ratio between 90:10 and 50:50 measured on a solids basis. (a) a water-dilutable free radically curable polyurethane resin comprising a reaction product of: (A1) 40-90 wt. % of one or more acrylate prepolymers containing hydroxyl groups and having an OH content of 40-120 mg of KOH/g and (B1) 0.1-20 wt. % of one or more mono- and/or difunctional compounds reactive towards isocyanate groups, which compounds contain groups which are cationic, anionic and/or have a dispersant action due to ether groups with (C1) 10-50 wt. % of one or more polyisocyanates (D1) 0.0-30.0 Wt. % of one or more polyols together with a subsequent reaction with (E1) 0.1-10 wt. % of one or more di- and/or polyamines, and (A1) 40-90 wt. % of one or more acrylate prepolymers containing hydroxyl groups and having an OH content of 40-120 mg of KOH/g and (B1) 0.1-20 wt. % of one or more mono- and/or difunctional compounds reactive towards isocyanate groups, which compounds contain groups which are cationic, anionic and/or have a dispersant action due to ether groups with (C1) 10-50 wt. % of one or more polyisocyanates (D1) 0.0-30.0 Wt. % of one or more polyols together with a subsequent reaction with (E1) 0.1-10 wt. % of one or more di- and/or polyamines, and (b) a water-dilutable polycarbonate-polyurethane resin, wherein the polycarbonate-polyurethane resin is non-functional;
Method for operating a wireless-based monitoring system of a motor vehicle , wherein - a central control unit and a plurality of mobile, portable tag units are made available by the monitoring system , - the tag units are held in the motor vehicle by a respective retention device and each retention device respectively has a mechanical encoding through which a spatial orientation of the held tag unit is specified, wherein the spatial orientation of the held tag unit is characteristic of the installation position of the retention device in the motor vehicle , and - each tag unit determines its spatial orientation and thereby its characteristic position in the motor vehicle by means of its own position sensor device , and signals said characteristic position by a wireless connection to the central control unit , and - in a monitoring mode of the monitoring system , each tag unit , by means of its own distance measuring device , repeatedly captures a distance from at least one predetermined object and signals this by a wireless connection to the central control unit , and - the central control unit determines a respective object position of the at least one object on the basis of the respective characteristic position of at least one or a few of the tag units and of the distances signalled respectively by this tag unit or these tag units , and controls at least one predetermined security function in the motor vehicle depending on the respective determined object position of the at least one object . - a central control unit and a plurality of mobile, portable tag units are made available by the monitoring system , - the tag units are held in the motor vehicle by a respective retention device and each retention device respectively has a mechanical encoding through which a spatial orientation of the held tag unit is specified, wherein the spatial orientation of the held tag unit is characteristic of the installation position of the retention device in the motor vehicle , and - each tag unit determines its spatial orientation and thereby its characteristic position in the motor vehicle by means of its own position sensor device , and signals said characteristic position by a wireless connection to the central control unit , and - in a monitoring mode of the monitoring system , each tag unit , by means of its own distance measuring device , repeatedly captures a distance from at least one predetermined object and signals this by a wireless connection to the central control unit , and - the central control unit determines a respective object position of the at least one object on the basis of the respective characteristic position of at least one or a few of the tag units and of the distances signalled respectively by this tag unit or these tag units , and controls at least one predetermined security function in the motor vehicle depending on the respective determined object position of the at least one object .
System for amplifying a nucleic acid , comprising: - at least one local heating element which is functionalized with at least one linking nucleic acid and is designed to be in contact with a reaction solution for carrying out a polymerase chain reaction for amplifying a nucleic acid , wherein the at least one local heating element is designed as a nanoparticle and is in particular designed to transfer heat to its surroundings by excitation, or wherein the at least one local heating element is designed as a microheating element and is in particular designed to transfer heat to its surroundings by resistive heating, and - at least one primer nucleic acid which is designed to bind to the at least one linking nucleic acid and to bind to the nucleic acid , and/or - at least one primer complementary nucleic acid which is designed to bind to the at least one linking nucleic acid and to elongate the linking nucleic acid by a primer nucleotide sequence by means of an enzymatic reaction. - at least one local heating element which is functionalized with at least one linking nucleic acid and is designed to be in contact with a reaction solution for carrying out a polymerase chain reaction for amplifying a nucleic acid , wherein the at least one local heating element is designed as a nanoparticle and is in particular designed to transfer heat to its surroundings by excitation, or wherein the at least one local heating element is designed as a microheating element and is in particular designed to transfer heat to its surroundings by resistive heating, and - at least one primer nucleic acid which is designed to bind to the at least one linking nucleic acid and to bind to the nucleic acid , and/or - at least one primer complementary nucleic acid which is designed to bind to the at least one linking nucleic acid and to elongate the linking nucleic acid by a primer nucleotide sequence by means of an enzymatic reaction.
A method for etching a main surface of a substrate comprising a thin surface layer , the main surface corresponding to the free face of said thin layer , the method comprising immersing the substrate in an etching bath so as to expose the main surface to an etching agent, the substrate being oriented with respect to the bath such that: - during its introduction (I) into the bath , the main surface is gradually immersed from an initial introduction point (PII) to a final introduction point (PFI), at an introduction speed, and - during its removal (S) from the bath , the main surface gradually emerges from an initial removal point (PIS) to a final removal point (PFS), at a removal speed, the method being characterized in that : - the introduction speed is selected so as to etch the main surface according to a first non-uniform profile between the initial introduction point (PII) and the final introduction point (PFI), and/or - the removal speed is selected so as to etch the main surface according to a second non-uniform profile between the initial removal point (Pls) and the final removal point (PFS), in order to compensate for non-uniformities in the thickness of the thin layer . - during its introduction (I) into the bath , the main surface is gradually immersed from an initial introduction point (PII) to a final introduction point (PFI), at an introduction speed, and - during its removal (S) from the bath , the main surface gradually emerges from an initial removal point (PIS) to a final removal point (PFS), at a removal speed, the method being characterized in that : - the introduction speed is selected so as to etch the main surface according to a first non-uniform profile between the initial introduction point (PII) and the final introduction point (PFI), and/or - the removal speed is selected so as to etch the main surface according to a second non-uniform profile between the initial removal point (Pls) and the final removal point (PFS), - the introduction speed is selected so as to etch the main surface according to a first non-uniform profile between the initial introduction point (PII) and the final introduction point (PFI), and/or - the removal speed is selected so as to etch the main surface according to a second non-uniform profile between the initial removal point (Pls) and the final removal point (PFS), in order to compensate for non-uniformities in the thickness of the thin layer .
A multicast service receiving method, comprising: receiving , by a terminal device from a first cell, configuration information corresponding to a multimedia broadcast multicast service, MBMS, wherein the configuration information corresponding to the MBMS comprises: a cell identity of at least one second cell, and the second cell is used to transmit the MBMS in coordination with the first cell at a same scheduling moment or different scheduling moments; obtaining , by the terminal device, configuration information of the second cell based on the cell identity of the second cell; and receiving , by the terminal device from the second cell, an MBMS traffic channel, MTCH, based on the configuration information of the second cell. receiving , by a terminal device from a first cell, configuration information corresponding to a multimedia broadcast multicast service, MBMS, wherein the configuration information corresponding to the MBMS comprises: a cell identity of at least one second cell, and the second cell is used to transmit the MBMS in coordination with the first cell at a same scheduling moment or different scheduling moments; obtaining , by the terminal device, configuration information of the second cell based on the cell identity of the second cell; and receiving , by the terminal device from the second cell, an MBMS traffic channel, MTCH, based on the configuration information of the second cell.
A method by a wireless terminal, the method comprising: selecting a first frequency channel from among at least one frequency channel assigned to a sector for a first link; selecting a second frequency channel from among multiple frequency channels assigned to the sector for a second link, wherein the multiple frequency channels assigned to the sector comprise one frequency channel designated as primary frequency channel for the second link and at least one frequency channel designated in the sector as an auxiliary frequency channel for the second link, wherein the first link and the second link comprise an uplink and a downlink; and establishing a connection via the first frequency channel for the first link and the second frequency channel for the second link. selecting a first frequency channel from among at least one frequency channel assigned to a sector for a first link; selecting a second frequency channel from among multiple frequency channels assigned to the sector for a second link, wherein the multiple frequency channels assigned to the sector comprise one frequency channel designated as primary frequency channel for the second link and at least one frequency channel designated in the sector as an auxiliary frequency channel for the second link, wherein the first link and the second link comprise an uplink and a downlink; and establishing a connection via the first frequency channel for the first link and the second frequency channel for the second link.
A method for distance protection of a three-phase electric line, the method comprising: receiving one or more setting values of characteristic quantities for forming a polygonal operation characteristic which, when represented on an impedance plane, is defined by at least four lines, the one or more setting values comprising at least a setting value of a tilt angle of at least one of the lines defining the operation characteristic, characterized in that the method comprises: determining if an operation characteristic formed according to the received one or more setting values defines a closed area; and in response to determining that the operation characteristic formed according to the received one or more setting values does not define a closed area, adjusting a value of said tilt angle of at least one of the lines defining the operation characteristic to a nearest value that results in the operation characteristic defining a closed area or to the nearest value that results in the operation characteristic defining a closed area added with a predetermined margin beyond said nearest value, and forming the operation characteristic by applying the thus obtained adjusted value of the tilt angle. receiving one or more setting values of characteristic quantities for forming a polygonal operation characteristic which, when represented on an impedance plane, is defined by at least four lines, the one or more setting values comprising at least a setting value of a tilt angle of at least one of the lines defining the operation characteristic, characterized in that the method comprises: determining if an operation characteristic formed according to the received one or more setting values defines a closed area; and in response to determining that the operation characteristic formed according to the received one or more setting values does not define a closed area, adjusting a value of said tilt angle of at least one of the lines defining the operation characteristic to a nearest value that results in the operation characteristic defining a closed area or to the nearest value that results in the operation characteristic defining a closed area added with a predetermined margin beyond said nearest value, and forming the operation characteristic by applying the thus obtained adjusted value of the tilt angle. determining if an operation characteristic formed according to the received one or more setting values defines a closed area; and in response to determining that the operation characteristic formed according to the received one or more setting values does not define a closed area, adjusting a value of said tilt angle of at least one of the lines defining the operation characteristic to a nearest value that results in the operation characteristic defining a closed area or to the nearest value that results in the operation characteristic defining a closed area added with a predetermined margin beyond said nearest value, and forming the operation characteristic by applying the thus obtained adjusted value of the tilt angle.
A gas turbine engine actuation system, comprising: an actuated gas turbine engine component ; and a high temperature actuator , comprising: a rotor mechanically linked to the actuated gas turbine engine component ; and a stator surrounding at least a portion of the rotor , the stator comprising: a coil support structure having a tubular body , a plurality of spokes extending radially outward from the tubular body and a radial thickness (T1) of the tubular body is less than one half of a circumferential width (W1) of each of the plurality of spokes ; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure , each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, wherein: the electromagnetic coils are embedded in electrically-insulative bodies composed of an inorganic dielectric material and formed to have annular shapes including central openings. an actuated gas turbine engine component ; and a high temperature actuator , comprising: a rotor mechanically linked to the actuated gas turbine engine component ; and a stator surrounding at least a portion of the rotor , the stator comprising: a coil support structure having a tubular body , a plurality of spokes extending radially outward from the tubular body and a radial thickness (T1) of the tubular body is less than one half of a circumferential width (W1) of each of the plurality of spokes ; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure , each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, a rotor mechanically linked to the actuated gas turbine engine component ; and a stator surrounding at least a portion of the rotor , the stator comprising: a coil support structure having a tubular body , a plurality of spokes extending radially outward from the tubular body and a radial thickness (T1) of the tubular body is less than one half of a circumferential width (W1) of each of the plurality of spokes ; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure , each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, a coil support structure having a tubular body , a plurality of spokes extending radially outward from the tubular body and a radial thickness (T1) of the tubular body is less than one half of a circumferential width (W1) of each of the plurality of spokes ; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure , each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, wherein: the electromagnetic coils are embedded in electrically-insulative bodies composed of an inorganic dielectric material and formed to have annular shapes including central openings.