mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum glazing comprising: a first glazing ; a second glazing provided above the first glazing , the second glazing being spaced apart from the first glazing and having an exhaust hole configured to exhaust gas present between the first and second glazings through an exhaust tube coupled to the exhaust hole ; an exhaust finishing member provided in the second glazing and configured to seal the exhaust hole of the second glazing ; a vacuum layer formed between the first glazing and the second glazing ; a spacer provided in the vacuum layer to support the first glazing and the second glazing ; a frame provided at edge portions of the first and second glazings and making contact with the first and second glazings ; a sealant interposed between the frame and surfaces of the first and second glazings to perform sealing of the vacuum layer ; and an exhaust cap having a cap shape, provided at an upper region of the exhaust finishing member , arranged to cover the exhaust finishing member and configured to prevent the exhaust finishing member from deviating from the exhaust hole or prevent the exhaust finishing member from being broken, characterized in that : the exhaust hole is filled with the exhaust finishing member and the exhaust finishing member includes a glass frit having a lower melting point; and the exhaust cap includes a metallic material. a first glazing ; a second glazing provided above the first glazing , the second glazing being spaced apart from the first glazing and having an exhaust hole configured to exhaust gas present between the first and second glazings through an exhaust tube coupled to the exhaust hole ; an exhaust finishing member provided in the second glazing and configured to seal the exhaust hole of the second glazing ; a vacuum layer formed between the first glazing and the second glazing ; a spacer provided in the vacuum layer to support the first glazing and the second glazing ; a frame provided at edge portions of the first and second glazings and making contact with the first and second glazings ; a sealant interposed between the frame and surfaces of the first and second glazings to perform sealing of the vacuum layer ; and an exhaust cap having a cap shape, provided at an upper region of the exhaust finishing member , arranged to cover the exhaust finishing member and configured to prevent the exhaust finishing member from deviating from the exhaust hole or prevent the exhaust finishing member from being broken, characterized in that : the exhaust hole is filled with the exhaust finishing member and the exhaust finishing member includes a glass frit having a lower melting point; and the exhaust cap includes a metallic material.
A method, comprising: providing, by a buck-type switched-mode power supply , a supply voltage to a radio frequency power amplifier , characterized by configuring the buck-type switched-mode power supply to operate in one of at least two section modes, wherein the buck-type switched-mode power supply comprises sectioned transistor switches, wherein the sectioned transistor switches comprise at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2), wherein the at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2) are selectable such that the respective effective width of the sectioned transistor switches is different in a first section mode of the at least two section modes than in a second section mode of the at least two section modes. providing, by a buck-type switched-mode power supply , a supply voltage to a radio frequency power amplifier , characterized by configuring the buck-type switched-mode power supply to operate in one of at least two section modes, wherein the buck-type switched-mode power supply comprises sectioned transistor switches, wherein the sectioned transistor switches comprise at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2), wherein the at least two parallel transistors (BUHSW1, BUHSW2, BULSW1, BULSW2) are selectable such that the respective effective width of the sectioned transistor switches is different in a first section mode of the at least two section modes than in a second section mode of the at least two section modes.
An information processing device comprising: an acquirer configured to acquire first date and time information including information relating to a date and time at which a battery detachably installed in a moving body capable of moving by use of electric power is used and second date and time information including position information of a portable terminal of a user who boards the moving body , the portable terminal moving with the moving body and information relating to a date and time at which the position information is acquired; and characterised in that said information processing device further comprises: an integrator configured to generate position history information of the battery on the basis of the first date and time information and the second date and time information acquired by the acquirer , wherein the integrator is configured to generate the position history information of the battery by excluding information whose acquired date and time do not correspond to the date and time indicated in the first date and time information from the second date and time information of the portable terminal . an acquirer configured to acquire first date and time information including information relating to a date and time at which a battery detachably installed in a moving body capable of moving by use of electric power is used and second date and time information including position information of a portable terminal of a user who boards the moving body , the portable terminal moving with the moving body and information relating to a date and time at which the position information is acquired; and characterised in that said information processing device further comprises: an integrator configured to generate position history information of the battery on the basis of the first date and time information and the second date and time information acquired by the acquirer , wherein the integrator is configured to generate the position history information of the battery by excluding information whose acquired date and time do not correspond to the date and time indicated in the first date and time information from the second date and time information of the portable terminal .
An ultrasound imaging apparatus comprising: a controller configured to obtain an ultrasonic image of the heart at different angles and to derive a stereoscopic image ; a display portion configured to display the ultrasonic image of the heart of an object, wherein the ultrasonic image is the stereoscopic image that three-dimensionally shows the heart; an input portion configured to receive a command for setting a region of interest (ROI) of the displayed ultrasonic image of the heart; the controller being further configured to set the ROI of the ultrasonic image of the heart based on the command for setting the ROI input through the input portion and control at least one image of the set ROI and the ultrasonic image of the heart to be displayed together on the display portion, wherein the controller divides the display portion into at least two areas and controls the ultrasonic image of the heart and the at least one ROI image to be displayed in the divided areas, respectively. a display portion configured to display the ultrasonic image of the heart of an object, wherein the ultrasonic image is the stereoscopic image that three-dimensionally shows the heart; an input portion configured to receive a command for setting a region of interest (ROI) of the displayed ultrasonic image of the heart; the controller being further configured to set the ROI of the ultrasonic image of the heart based on the command for setting the ROI input through the input portion and control at least one image of the set ROI and the ultrasonic image of the heart to be displayed together on the display portion, wherein the controller divides the display portion into at least two areas and controls the ultrasonic image of the heart and the at least one ROI image to be displayed in the divided areas, respectively.
An engine control system comprising: an electronic hardware engine controller in signal communication with at least one actuator configured to operate at a plurality of different positions that control operation of an engine , and at least one actuator sensor configured to measure an actuator position, the engine controller configured to generate a synthesized actuator position independently from the measured actuator position, wherein the engine controller adjusts the position of the at least one actuator based on the synthesized actuator position in response to detecting at least one of a faulty actuator and a faulty actuator sensor ; wherein the at least one actuator sensor includes a first actuator position sensor and a second actuator position sensor; wherein the engine controller determines a cross-channel mismatch value associated with the first and second actuator position sensors (125a 125b), and determines a single channel fault associated with one of the first actuator position sensor or the second actuator position sensor in response to the cross-channel mismatch value exceeding a channel differential threshold value; and wherein the engine controller replaces the measured actuator position output from the faulty actuator position sensor with the synthesized actuator position, and controls the position of the at least one actuator using the synthesized actuator position and the measured actuator position output from the non-faulty actuator position sensor . an electronic hardware engine controller in signal communication with at least one actuator configured to operate at a plurality of different positions that control operation of an engine , and at least one actuator sensor configured to measure an actuator position, the engine controller configured to generate a synthesized actuator position independently from the measured actuator position, wherein the engine controller adjusts the position of the at least one actuator based on the synthesized actuator position in response to detecting at least one of a faulty actuator and a faulty actuator sensor ; wherein the at least one actuator sensor includes a first actuator position sensor and a second actuator position sensor; wherein the engine controller determines a cross-channel mismatch value associated with the first and second actuator position sensors (125a 125b), and determines a single channel fault associated with one of the first actuator position sensor or the second actuator position sensor in response to the cross-channel mismatch value exceeding a channel differential threshold value; and wherein the engine controller replaces the measured actuator position output from the faulty actuator position sensor with the synthesized actuator position, and controls the position of the at least one actuator using the synthesized actuator position and the measured actuator position output from the non-faulty actuator position sensor .
An article of footwear, comprising: a sole structure including a bottom surface ; a traction element disposed on the bottom surface , wherein: the traction element has a first ground-engaging face and a first cut step feature ; the first cut step feature lowers a portion of the first ground-engaging face closer to the bottom surface ; the first cut step feature is a face below the ground-engaging face of the traction element; and the first cut step feature is a straight cut step having a straight orientation when seen in plan view. a sole structure including a bottom surface ; a traction element disposed on the bottom surface , wherein: the traction element has a first ground-engaging face and a first cut step feature ; the first cut step feature lowers a portion of the first ground-engaging face closer to the bottom surface ; the first cut step feature is a face below the ground-engaging face of the traction element; and the first cut step feature is a straight cut step having a straight orientation when seen in plan view. the traction element has a first ground-engaging face and a first cut step feature ; the first cut step feature lowers a portion of the first ground-engaging face closer to the bottom surface ; the first cut step feature is a face below the ground-engaging face of the traction element; and the first cut step feature is a straight cut step having a straight orientation when seen in plan view.
A high-strength structural steel having excellent cold bendability, comprising: by weight%, 0.02-0.1% of C, 0.01-0.6% of Si, 1.7-2.5% of Mn, 0.005-0.5% of Al, 0.02% or less of P, 0.01% or less of S, 0.0015-0.015% of N, a balance of Fe, and other unavoidable impurities, wherein the high-strength structural steel is microstructurally divided into a surface part and a center part in a thickness direction, wherein the surface part comprises a first surface part on an upper side of the steel, and a second surface part on a lower side of the steel, wherein the first surface part and the second surface part each have a thickness of 3 to 10% of a thickness of the steel, wherein the surface part comprises tempered bainite and fresh martensite in a faction of 95 area% or more, wherein the center part comprises bainitic ferrite in a fraction of 95 area% or more, wherein an average grain size of a microstructure of the surface part is 3 μm or less, excluding 0 μm, wherein a tensile strength of the steel is 800 MPa or more, wherein a high angle grain boundary fraction of the surface part is 45% or more, and wherein the steel optionally further comprises, by weight%, one or two or more of Ni: 0.01-2.0%, Cu: 0.01-1.0%, Cr: 0.05-1.0%, Mo: 0.01-1.0%, Ti: 0.005-0.1%, Nb: 0.005-0.1%, V: 0.005-0.3%, B: 0.0005-0.004%, and Ca: 0.006% or less, wherein the average grain size and the high angle grain boundary fraction are determined according to the description. by weight%, 0.02-0.1% of C, 0.01-0.6% of Si, 1.7-2.5% of Mn, 0.005-0.5% of Al, 0.02% or less of P, 0.01% or less of S, 0.0015-0.015% of N, a balance of Fe, and other unavoidable impurities, wherein the high-strength structural steel is microstructurally divided into a surface part and a center part in a thickness direction, wherein the surface part comprises a first surface part on an upper side of the steel, and a second surface part on a lower side of the steel, wherein the first surface part and the second surface part each have a thickness of 3 to 10% of a thickness of the steel, wherein the surface part comprises tempered bainite and fresh martensite in a faction of 95 area% or more, wherein the center part comprises bainitic ferrite in a fraction of 95 area% or more, wherein an average grain size of a microstructure of the surface part is 3 μm or less, excluding 0 μm, wherein a tensile strength of the steel is 800 MPa or more, wherein a high angle grain boundary fraction of the surface part is 45% or more, and wherein the steel optionally further comprises, by weight%, one or two or more of Ni: 0.01-2.0%, Cu: 0.01-1.0%, Cr: 0.05-1.0%, Mo: 0.01-1.0%, Ti: 0.005-0.1%, Nb: 0.005-0.1%, V: 0.005-0.3%, B: 0.0005-0.004%, and Ca: 0.006% or less, wherein the average grain size and the high angle grain boundary fraction are determined according to the description.
A computer-implemented method for partitioning and storing a first file (File1), the method comprising: determining a format of the first file (File1); identifying a first source logical object within the first file (File1) at least in part on the basis of the determined format, a byte pattern of the identified first logical object appearing different than a byte pattern of a second source logical object within at least a second file (File 2) different than the first file (File 1) due to format-specific transformations applied to the identified first source logical object; processing said identified first source logical object on the basis of the determined format in order to create a further data object (Object 1), said processing comprising removing the format-specific transformations from said identified first source logical object; determining whether the further data object (Object 1) has already been stored in a repository; storing the further data object (Object 1) in the repository if the further data object has not been already stored; storing additional data, wherein the additional data comprises information indicative of the format-specific transformations removed from said identified first source logical object; and associating the additional data with said further data object (Object 1). determining a format of the first file (File1); identifying a first source logical object within the first file (File1) at least in part on the basis of the determined format, a byte pattern of the identified first logical object appearing different than a byte pattern of a second source logical object within at least a second file (File 2) different than the first file (File 1) due to format-specific transformations applied to the identified first source logical object; processing said identified first source logical object on the basis of the determined format in order to create a further data object (Object 1), said processing comprising removing the format-specific transformations from said identified first source logical object; determining whether the further data object (Object 1) has already been stored in a repository; storing the further data object (Object 1) in the repository if the further data object has not been already stored; storing additional data, wherein the additional data comprises information indicative of the format-specific transformations removed from said identified first source logical object; and associating the additional data with said further data object (Object 1).
A method for producing a display comprising: producing a display layer ; and providing a piezoelectric material , wherein the display layer is produced such that it has a first portion and a second portion , the first portion having a plurality of micro-cells containing an electrophoretic display material and the second portion being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion of the display layer such that the piezoelectric material substantially overlaps only with the second portion , wherein the second portion is configured to ensure a secured connection with the piezoelectric material , and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes. producing a display layer ; and providing a piezoelectric material , wherein the display layer is produced such that it has a first portion and a second portion , the first portion having a plurality of micro-cells containing an electrophoretic display material and the second portion being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion of the display layer such that the piezoelectric material substantially overlaps only with the second portion , wherein the second portion is configured to ensure a secured connection with the piezoelectric material , and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes. wherein the display layer is produced such that it has a first portion and a second portion , the first portion having a plurality of micro-cells containing an electrophoretic display material and the second portion being substantially flat and free from micro-cells; and the piezoelectric material is provided such that it is aligned to the second portion of the display layer such that the piezoelectric material substantially overlaps only with the second portion , wherein the second portion is configured to ensure a secured connection with the piezoelectric material , and wherein the display layer and the piezoelectric material are sandwiched between two conductive electrodes.
A network access method, comprising: obtaining , by a terminal device, first information, wherein the first information is used to indicate whether the terminal device is allowed to simultaneously access a second network when accessing a first network, the first network is a non-public network, NPN, and the second network is a public land mobile network, PLMN; and determining , by the terminal device according to the first information, whether to initiate an access request to the second network when the terminal device accesses the first network, wherein the obtaining , by the terminal device, the first information comprises: obtaining, by the terminal device, the first information from a universal subscriber identity module, USIM, of the terminal device or a memory of the terminal device, wherein the first information comprises an identifier of the first network and a corresponding bit, and a value of the bit indicates whether the terminal device is allowed to access the second network when accessing the first network. obtaining , by a terminal device, first information, wherein the first information is used to indicate whether the terminal device is allowed to simultaneously access a second network when accessing a first network, the first network is a non-public network, NPN, and the second network is a public land mobile network, PLMN; and determining , by the terminal device according to the first information, whether to initiate an access request to the second network when the terminal device accesses the first network, wherein the obtaining , by the terminal device, the first information comprises: obtaining, by the terminal device, the first information from a universal subscriber identity module, USIM, of the terminal device or a memory of the terminal device, wherein the first information comprises an identifier of the first network and a corresponding bit, and a value of the bit indicates whether the terminal device is allowed to access the second network when accessing the first network. obtaining, by the terminal device, the first information from a universal subscriber identity module, USIM, of the terminal device or a memory of the terminal device, wherein the first information comprises an identifier of the first network and a corresponding bit, and a value of the bit indicates whether the terminal device is allowed to access the second network when accessing the first network.
Two-lane vehicle having a chassis suspension, having a front axle subframe which is attached to lateral body side members , and having a tunnel cross member functioning as a drive unit bearing component, said tunnel cross member being spaced apart from the subframe by a longitudinal displacement (Δx) in a vehicle longitudinal direction (x) and bridging a body-side central tunnel , wherein a drive unit is supported via bearing positions both on the subframe and on the tunnel cross member , characterised in that an intermediate coupling element is provided which connects the subframe to the tunnel cross member in a force-transmitting manner by bridging of the longitudinal displacement (Δx).
An ultrasonic manipulator for processing three-dimensional composite preforms, comprising at least one end effector , the end effector comprising: (a) an ultrasonic cutting device ; (b) an ultrasonic machining device ; (c) an ultrasonic inspecting device ; and (d) an ultrasonic bonding device . (a) an ultrasonic cutting device ; (b) an ultrasonic machining device ; (c) an ultrasonic inspecting device ; and (d) an ultrasonic bonding device .