mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a sintered R-T-B based magnet, comprising: a step of providing a sintered R-T-B based magnet work, containing R: 27.5 to 35.0 mass% (where R is at least one rare-earth element which always includes Nd), B: 0.80 to 0.99 mass%, Ga: 0 to 0.8 mass%, and M: 0 to 2 mass% (where M is at least one of Cu, Al, Nb and Zr), and including a balance T (where T is Fe, or Fe and Co) and inevitable impurities, the sintered R-T-B based magnet work having a composition satisfying Inequality below: T / 55.85 > 14 B / 10.8 ([T] is the T content by mass%; and [B] is the B content by mass%) ; a step of providing a Pr-Ga alloy (Pr accounts for 65 to 97 mass% of the entire Pr-Ga alloy; 20 mass% or less of Pr is replaceable by Nd; and 30 mass% or less of Pr is replaceable by Dy and/or Tb. Ga accounts for 3 mass% to 35 mass% of the entire Pr-Ga alloy; and 50 mass% or less of Ga is replaceable by Cu. Inclusion of inevitable impurities is possible); a step of, while allowing at least a portion of the Pr-Ga alloy to be in contact with at least a portion of a surface of the sintered R-T-B based magnet work, performing a first heat treatment at a temperature which is greater than 600°C but equal to or less than 950°C in a vacuum or an inert gas ambient; and a step of performing a second heat treatment in a vacuum or an inert gas ambient for the sintered R-T-B based magnet work having been subjected to the first heat treatment, at a temperature which is lower than the temperature effected in the step of performing the first heat treatment but which is not less than 450°C and not greater than 750°C. a step of providing a sintered R-T-B based magnet work, containing R: 27.5 to 35.0 mass% (where R is at least one rare-earth element which always includes Nd), B: 0.80 to 0.99 mass%, Ga: 0 to 0.8 mass%, and M: 0 to 2 mass% (where M is at least one of Cu, Al, Nb and Zr), and including a balance T (where T is Fe, or Fe and Co) and inevitable impurities, the sintered R-T-B based magnet work having a composition satisfying Inequality below: ([T] is the T content by mass%; and [B] is the B content by mass%) ; a step of providing a Pr-Ga alloy (Pr accounts for 65 to 97 mass% of the entire Pr-Ga alloy; 20 mass% or less of Pr is replaceable by Nd; and 30 mass% or less of Pr is replaceable by Dy and/or Tb. Ga accounts for 3 mass% to 35 mass% of the entire Pr-Ga alloy; and 50 mass% or less of Ga is replaceable by Cu. Inclusion of inevitable impurities is possible); a step of, while allowing at least a portion of the Pr-Ga alloy to be in contact with at least a portion of a surface of the sintered R-T-B based magnet work, performing a first heat treatment at a temperature which is greater than 600°C but equal to or less than 950°C in a vacuum or an inert gas ambient; and a step of performing a second heat treatment in a vacuum or an inert gas ambient for the sintered R-T-B based magnet work having been subjected to the first heat treatment, at a temperature which is lower than the temperature effected in the step of performing the first heat treatment but which is not less than 450°C and not greater than 750°C.
A fiberglass insulation material comprising glass fibers present in the range from 75% to 99% by weight, the glass fibers being held together by a cured binder obtained by contacting the fibers with a thermally-curable, aqueous binder comprising binder reactants and curing the binder in contact with the glass fibers, in which: - the binder reactants consist of Maillard reactants; - the glass fibers are held together by at least one Maillard reaction product of the cured binder, the at least one Maillard reaction product being a reaction product of i) a carbohydrate reactant which include one or more reactants having one or more reducing sugars and ii) an amine reactant; and wherein the material has a density in a range from 12 kg/m 3 (0.75 lbs/ft 3 ) to 48 kg/m 3 (3 lbs/ft 3 ). - the binder reactants consist of Maillard reactants; - the glass fibers are held together by at least one Maillard reaction product of the cured binder, the at least one Maillard reaction product being a reaction product of i) a carbohydrate reactant which include one or more reactants having one or more reducing sugars and ii) an amine reactant; and
A microorganism producing a mycosporine-like amino acid, wherein the activity of at least one protein selected from the group consisting of 2-dehydro-3-deoxyphosphoheptonate aldolase, phosphoenolpyruvate synthetase, and transketolase is enhanced.
An organic light-emitting diode (OLED) display device, comprising: a transparent substrate , a first electrode structure , an organic light-emitting layer , and a second electrode structure , wherein: the first electrode structure comprises a plurality of first electrodes and second electrodes on the transparent substrate , a first electrode and a second electrode each corresponding to a subpixel unit, the first electrodes and the second electrodes being arranged in an alternating configuration along at least one of a row direction and a column direction of a pixel unit; the second electrode structure comprises a transparent electrode layer with a planar structure, the second electrode structure being on the organic light-emitting layer ; the organic light-emitting layer is between the first electrode structure and the second electrode structure ; a light-transmission rate of the first electrodes is higher than a light-transmission rate of the second electrode structure , a light-reflection rate of the first electrodes is lower than a light-reflection rate of the second electrode structure , a light-transmission rate of the second electrodes is lower than the light-transmission rate of the second electrode structure , and a light-reflection rate of the second electrodes is higher than the light-reflection rate of the second electrode structure ; characterized in that the second electrodes are transparent electrodes. the first electrode structure comprises a plurality of first electrodes and second electrodes on the transparent substrate , a first electrode and a second electrode each corresponding to a subpixel unit, the first electrodes and the second electrodes being arranged in an alternating configuration along at least one of a row direction and a column direction of a pixel unit; the second electrode structure comprises a transparent electrode layer with a planar structure, the second electrode structure being on the organic light-emitting layer ; the organic light-emitting layer is between the first electrode structure and the second electrode structure ; a light-transmission rate of the first electrodes is higher than a light-transmission rate of the second electrode structure , a light-reflection rate of the first electrodes is lower than a light-reflection rate of the second electrode structure , a light-transmission rate of the second electrodes is lower than the light-transmission rate of the second electrode structure , and a light-reflection rate of the second electrodes is higher than the light-reflection rate of the second electrode structure ; characterized in that the second electrodes are transparent electrodes.
An electrode assembly , characterized by comprising a first electrode plate and a second electrode plate ; wherein the first electrode plate comprises a first current collector and a first active material layer , the first current collector comprises a first main body and a first tab , and the first tab extends from one end of the first main body in a longitudinal direction (X); the first main body comprises a first coated region and a first transition region , the first transition region is disposed between the first tab and the first coated region , the first active material layer is applied on a surface of the first coated region , and the first active material layer is not applied on both the first transition region and the first tab ; the second electrode plate comprises a second current collector and a second active material layer , the second current collector comprises a second main body and a second tab , the second tab extends from one end of the second main body in the longitudinal direction (X), and the second active material layer is applied on a surface of the second main body ; and in a direction of the first main body toward the first tab , an edge (T1) of the first transition region farther away from the first coated region does not extend beyond an edge of the second active material layer , and the edge (T1) of the first transition region farther away from the first coated region is a cutting edge for cutting the first tab . the first electrode plate comprises a first current collector and a first active material layer , the first current collector comprises a first main body and a first tab , and the first tab extends from one end of the first main body in a longitudinal direction (X); the first main body comprises a first coated region and a first transition region , the first transition region is disposed between the first tab and the first coated region , the first active material layer is applied on a surface of the first coated region , and the first active material layer is not applied on both the first transition region and the first tab ; the second electrode plate comprises a second current collector and a second active material layer , the second current collector comprises a second main body and a second tab , the second tab extends from one end of the second main body in the longitudinal direction (X), and the second active material layer is applied on a surface of the second main body ; and in a direction of the first main body toward the first tab , an edge (T1) of the first transition region farther away from the first coated region does not extend beyond an edge of the second active material layer , and the edge (T1) of the first transition region farther away from the first coated region is a cutting edge for cutting the first tab .
A gear-position learning device for an automatic clutch transmission, comprising: a transmission configured to be shifted by an operation of a driver of a vehicle ; a clutch device disposed in a transmission path between the transmission and an engine and configured to be connected and disconnected by actuation of a clutch actuator ; a controller configured to control connection and disconnection of the clutch device performed by the clutch actuator ; a shift drum configured to rotate according to a shift operation that the driver performs on a shift operator and switch a shift stage of the transmission ; and a rotational position defining mechanism configured to define a rotational position of the shift drum , wherein the controller has a learning mode for learning a rotation angle of the shift drum and is configured to control connection and disconnection of the clutch device during the learning mode such that the shift drum is at a rotational position determined by the rotational position defining mechanism , the gear-position learning device for an automatic clutch transmission being characterized by further comprising a master arm connected to the shift operator and configured to move from a neutral position (D1) and rotate the shift drum by a shift operation performed on the shift operator , wherein the controller is configured to permit learning of the rotation angle of the shift drum upon detecting that the master arm is in the neutral position (D1) during the learning mode. a transmission configured to be shifted by an operation of a driver of a vehicle ; a clutch device disposed in a transmission path between the transmission and an engine and configured to be connected and disconnected by actuation of a clutch actuator ; a controller configured to control connection and disconnection of the clutch device performed by the clutch actuator ; a shift drum configured to rotate according to a shift operation that the driver performs on a shift operator and switch a shift stage of the transmission ; and a rotational position defining mechanism configured to define a rotational position of the shift drum , wherein the controller has a learning mode for learning a rotation angle of the shift drum and is configured to control connection and disconnection of the clutch device during the learning mode such that the shift drum is at a rotational position determined by the rotational position defining mechanism , the gear-position learning device for an automatic clutch transmission being characterized by further comprising a master arm connected to the shift operator and configured to move from a neutral position (D1) and rotate the shift drum by a shift operation performed on the shift operator , wherein the controller is configured to permit learning of the rotation angle of the shift drum upon detecting that the master arm is in the neutral position (D1) during the learning mode.
Method for manufacturing a plastic component which is a housing of a suction jet pump, comprising the following steps: injection molding (S1) of a base body of the plastic component by means of an injection molding tool , wherein a pin-shaped core of the injection molding tool is overmolded with a plastic material for forming a bore in the base body , injection molding (S2) a closure of the plastic component to close the bore , removing (S3) the core from the bore , and closing (S4) the bore by means of the closure , wherein the base body is manufactured to have a receiving portion for receiving the closure , wherein a central axis (M 10 ) of the bore is arranged at an angle of 90° +/-10° to a central axis (M 20 ) of the receiving portion , wherein the closure is pressed into the receiving portion , and wherein the injection molding (S1) of the base body , the injection molding (S2) of the closure , the removal (S3) of the core and the closing (S4) of the bore are performed by means of the same injection molding tool . injection molding (S1) of a base body of the plastic component by means of an injection molding tool , wherein a pin-shaped core of the injection molding tool is overmolded with a plastic material for forming a bore in the base body , injection molding (S2) a closure of the plastic component to close the bore , removing (S3) the core from the bore , and closing (S4) the bore by means of the closure , wherein the base body is manufactured to have a receiving portion for receiving the closure , wherein a central axis (M 10 ) of the bore is arranged at an angle of 90° +/-10° to a central axis (M 20 ) of the receiving portion , wherein the closure is pressed into the receiving portion , and wherein the injection molding (S1) of the base body , the injection molding (S2) of the closure , the removal (S3) of the core and the closing (S4) of the bore are performed by means of the same injection molding tool .
An electronic device comprising: a first housing , a second housing , and wherein the first housing is disposed to be slidable to the second housing; a third housing ; a first display disposed in the first housing, and wherein the first display is flexible and a size of a region of the first display, exposed to an outside of the electronic device, is changeable based on sliding of the first housing; a second display disposed in the third housing to be spaced apart from the first display; an optical member disposed between an exposed region of the first display and the second display to form a substantially flat plane between a surface of the optical member, a surface corresponding to the exposed region of the first display and a surface of the second display; at least one processor ; and memory storing instructions that, when executed by the at least one processor, cause the electronic device to: output a light through a first portion of the first display such that the light is diffused through the optical member. a first housing , a second housing , and wherein the first housing is disposed to be slidable to the second housing; a third housing ; a first display disposed in the first housing, and wherein the first display is flexible and a size of a region of the first display, exposed to an outside of the electronic device, is changeable based on sliding of the first housing; a second display disposed in the third housing to be spaced apart from the first display; an optical member disposed between an exposed region of the first display and the second display to form a substantially flat plane between a surface of the optical member, a surface corresponding to the exposed region of the first display and a surface of the second display;
A tumor vaccine, comprising complex formed by DNA and cationic biomaterial, the cationic biomaterial is one of cationic lipid material or cationic polymer, characterized in that the DNA is selected from one of the nucleotide sequences of SEQ ID NO.6, SEQ ID NO.7, SEQ ID NO.8, SEQ ID NO.9, SEQ ID NO.10 or SEQ ID NO. 11.
Pocket for a garment, comprising: - a rear side configured to be turned towards the body of a person, and - a front side which is connected to the rear side and configured to face away from the body of a person, wherein the rear side is at least partly made of a radio-wave-reflecting first textile , which first textile comprises at least one metal-comprising thread, and wherein the front side is at least partly made of a radio-wave-reflecting second textile , which second textile comprises at least one metal-comprising thread, wherein the rear side is substantially completely made of the radio-wave-reflecting first textile , characterized in that the front side is partly made of the radio-wave-reflecting second textile , and wherein at least one other part of the front side is made of a third textile which is substantially permeable to radio waves, wherein the third textile is substantially free from metal-comprising threads. - a rear side configured to be turned towards the body of a person, and - a front side which is connected to the rear side and configured to face away from the body of a person,
A compound of the formula I: or a pharmaceutically acceptable salt thereof, for use in the therapy of a liver cancer in a mammal, characterized by the concurrent or sequential treatment of the mammal with a monoclonal antibody which blocks the binding of PD-L1 and/or PD-L2 to PD-1.
A computer-implemented method for determining one or more control parameters of a manufacturing process comprising a lithographic process and one or more further processes, the method comprising: obtaining an image of at least part of a substrate, wherein the image comprises at least one feature manufactured on the substrate by the manufacturing process; calculating one or more image-related metrics in dependence on a contour determined from the image, wherein one of the image-related metrics is an edge placement error, EPE, of the at least one feature; and determining one or more control parameters of the lithographic process and/or said one or more further processes in dependence on the edge placement error, wherein at least one control parameter is determined so as to minimize the edge placement error of the at least one feature; wherein calculating one or more image-related metrics comprises: determining a plurality of segments of the contour of the at least one feature; determining a respective weight for each of the plurality of segments; calculating, for each of the segments, the one or more image-related metrics of the segment; and calculating the one or more image-related metrics of the at least one feature in dependence on the weights and image-related metrics of each of the segments. obtaining an image of at least part of a substrate, wherein the image comprises at least one feature manufactured on the substrate by the manufacturing process; calculating one or more image-related metrics in dependence on a contour determined from the image, wherein one of the image-related metrics is an edge placement error, EPE, of the at least one feature; and determining one or more control parameters of the lithographic process and/or said one or more further processes in dependence on the edge placement error, wherein at least one control parameter is determined so as to minimize the edge placement error of the at least one feature; determining a plurality of segments of the contour of the at least one feature; determining a respective weight for each of the plurality of segments; calculating, for each of the segments, the one or more image-related metrics of the segment; and calculating the one or more image-related metrics of the at least one feature in dependence on the weights and image-related metrics of each of the segments.
A method of wireless communication operable at a network entity, comprising: transmitting , to a user equipment, UE, a plurality of connection configurations for connecting with a network comprising the network entity and a plurality of scheduling entities that are configured to coordinate in transmit and receive configurations in a coordinated coverage area, each of the connection configurations comprising a respective index, baseline configuration, and value tag, the baseline configuration comprising a plurality of connection parameters used by the UE and a plurality of scheduled entities in the coordinated coverage area; selecting a first connection configuration for the UE among the plurality of connection configurations, in response to channel conditions between the UE and the network in the coordinated coverage area; and transmitting a reconfiguration message to the UE to reconfigure a connection between the UE and the network in the coordinated coverage area, the reconfiguration message comprising only the index and the value tag of the first connection configuration. transmitting , to a user equipment, UE, a plurality of connection configurations for connecting with a network comprising the network entity and a plurality of scheduling entities that are configured to coordinate in transmit and receive configurations in a coordinated coverage area, each of the connection configurations comprising a respective index, baseline configuration, and value tag, the baseline configuration comprising a plurality of connection parameters used by the UE and a plurality of scheduled entities in the coordinated coverage area; selecting a first connection configuration for the UE among the plurality of connection configurations, in response to channel conditions between the UE and the network in the coordinated coverage area; and transmitting a reconfiguration message to the UE to reconfigure a connection between the UE and the network in the coordinated coverage area, the reconfiguration message comprising only the index and the value tag of the first connection configuration.