mhurhangee/patent-ind-claim-en huggingface dataset:
A device for eliminating a defective sheet in a plate-shaped cardboard sheets (F) each formed by bonding a first liner (A), a corrugated medium paper (B1, B2), and a second liner (C1, C2) together, the device comprising: a defect detection device that detects a position of a defective part (R) in the medium paper (B1, B2) ; a cutting device that cuts a continuous cardboard sheet (E) to a predetermined width along a transport direction; a cutoff device that cuts off the continuous cardboard sheet (E1, E2) to a predetermined length along a width direction to form plate-shaped cardboard sheets (F1, F2) ; a plurality of transport lines that transport the plate-shaped cardboard sheets (F1, F2); and a rejecting device that includes a plurality of rejecting parts provided corresponding to the plurality of transport lines , and rejects the plate-shaped cardboard sheets (F1, F2) that are transported on the plurality of transport lines from the transport lines , characterized by further comprising a control device that specifies, as a defective sheet, the plate-shaped cardboard sheet (F1, F2) having the defective part (R), based on a position of the defective part (R) detected by the defect detection device and a cutting position of the continuous cardboard sheet (E1, E2) in the width direction, and operates the rejecting part provided in the transport line on which the defective sheet is transported, so as to reject the defective sheet. a defect detection device that detects a position of a defective part (R) in the medium paper (B1, B2) ; a cutting device that cuts a continuous cardboard sheet (E) to a predetermined width along a transport direction; a cutoff device that cuts off the continuous cardboard sheet (E1, E2) to a predetermined length along a width direction to form plate-shaped cardboard sheets (F1, F2) ; a plurality of transport lines that transport the plate-shaped cardboard sheets (F1, F2); and a rejecting device that includes a plurality of rejecting parts provided corresponding to the plurality of transport lines , and rejects the plate-shaped cardboard sheets (F1, F2) that are transported on the plurality of transport lines from the transport lines , includes a plurality of rejecting parts provided corresponding to the plurality of transport lines , and rejects the plate-shaped cardboard sheets (F1, F2) that are transported on the plurality of transport lines from the transport lines , characterized by further comprising a control device that specifies, as a defective sheet, the plate-shaped cardboard sheet (F1, F2) having the defective part (R), based on a position of the defective part (R) detected by the defect detection device and a cutting position of the continuous cardboard sheet (E1, E2) in the width direction, and operates the rejecting part provided in the transport line on which the defective sheet is transported, so as to reject the defective sheet.
A companion diagnostic method, comprising: a) assaying a biological sample obtained from a subject that is undergoing a cancer or tumor treatment with enzastaurin or is considered for a cancer or tumor treatment with enzastaurin, said cancer or tumor being diffuse large B-cell lymphoma (DLBCL) or glioma/glioblastoma (GBM) for one or more single nucleotide polymorphisms (SNPs) selected from the group consisting of rs309605, rs309604, and a combination of rs309605 and rs309604; and b) generating a score with a computer algorithm based on the assay results of said SNP or SNPs, in order to determine the likely responsiveness of said subject to said treatment, wherein the presence of thymidine in SNP rs309604, rs309605, and/or the combination of rs309605 and rs309604 is indicative for improved survival when the patient is treated or to be treated with enzastaurin. a) assaying a biological sample obtained from a subject that is undergoing a cancer or tumor treatment with enzastaurin or is considered for a cancer or tumor treatment with enzastaurin, said cancer or tumor being diffuse large B-cell lymphoma (DLBCL) or glioma/glioblastoma (GBM) for one or more single nucleotide polymorphisms (SNPs) selected from the group consisting of rs309605, rs309604, and a combination of rs309605 and rs309604; and b) generating a score with a computer algorithm based on the assay results of said SNP or SNPs, in order to determine the likely responsiveness of said subject to said treatment,
A method for on-site repairing of a surface of a component in a wind turbine , the method comprising: - generating a digital model of the surface of the component to be repaired by using a scanning device , wherein the digital model represents the surface in damaged state; - generating , by a processor , a repair scheme for the surface based on the digital model and on a desired state of the surface of the component , wherein the desired state represents a post-repair state of the surface of the component ; - providing the repair scheme to a 3D printing arrangement ; and - printing with one or more selected materials , using the 3D printing arrangement , on the surface to be repaired, wherein the printing is performed according the repair scheme wherein the desired state of the surface of the component is a modified state of the surface of the component , wherein the modified state of the surface of the component is different from a native state of the surface of the component . - generating a digital model of the surface of the component to be repaired by using a scanning device , wherein the digital model represents the surface in damaged state; - generating , by a processor , a repair scheme for the surface based on the digital model and on a desired state of the surface of the component , wherein the desired state represents a post-repair state of the surface of the component ; - providing the repair scheme to a 3D printing arrangement ; and - printing with one or more selected materials , using the 3D printing arrangement , on the surface to be repaired, wherein the printing is performed according the repair scheme wherein the desired state of the surface of the component is a modified state of the surface of the component , wherein the modified state of the surface of the component is different from a native state of the surface of the component .
A method for encoding video streams using a combination of Multiple Bit Rate, MBR, encoding and Scalable Video Coding, SVC, encoding, wherein MBR refers to a data stream in which a same content is encoded at several resolutions and/or frame rates, the method comprising: determining capabilities associated with clients in a video conference and requests of the clients, wherein the capabilities relate to video stream encoding abilities of each of the clients and wherein the requests include desired viewing parameters of the clients for video sources; aggregating the requests and capabilities from each of the clients into a message and providing the message to clients in the video conference that are requested to generate streams within the video conference; and receiving , from at least one of the clients requested to generate streams within the video conference, a plurality of streams for one or more resolutions that are generated using the provided message and that include for each resolution an MBR stream that is used for spatial scalability and one or more SVC streams relating to at least one of temporal and quality scalability. determining capabilities associated with clients in a video conference and requests of the clients, wherein the capabilities relate to video stream encoding abilities of each of the clients and wherein the requests include desired viewing parameters of the clients for video sources; aggregating the requests and capabilities from each of the clients into a message and providing the message to clients in the video conference that are requested to generate streams within the video conference; and receiving , from at least one of the clients requested to generate streams within the video conference, a plurality of streams for one or more resolutions that are generated using the provided message and that include for each resolution an MBR stream that is used for spatial scalability and one or more SVC streams relating to at least one of temporal and quality scalability.
A memory device, comprising: a NAND memory media having a region that stores initialization information; and a controller operably coupled to the NAND memory media, wherein the controller is configured to- read out data from the region of the NAND memory media, perform an error code correction routine on at least a portion of the data read out from the region of the NAND memory media, determine whether the initialization information stored at the region of the NAND memory media is valid based on a result of the error code correction, initialize the memory device based at least in part on the initialization information when valid, and invalidate the initialization information stored at the region of the NAND memory media by writing to the region of the NAND memory media without first erasing the region of the NAND memory media such that bit errors are produced in the region of the NAND memory media that can be detected by the controller and indicate the initialization information is no longer valid. a NAND memory media having a region that stores initialization information; and a controller operably coupled to the NAND memory media, wherein the controller is configured to- read out data from the region of the NAND memory media, perform an error code correction routine on at least a portion of the data read out from the region of the NAND memory media, determine whether the initialization information stored at the region of the NAND memory media is valid based on a result of the error code correction, initialize the memory device based at least in part on the initialization information when valid, and invalidate the initialization information stored at the region of the NAND memory media by writing to the region of the NAND memory media without first erasing the region of the NAND memory media such that bit errors are produced in the region of the NAND memory media that can be detected by the controller and indicate the initialization information is no longer valid. perform an error code correction routine on at least a portion of the data read out from the region of the NAND memory media, determine whether the initialization information stored at the region of the NAND memory media is valid based on a result of the error code correction, initialize the memory device based at least in part on the initialization information when valid, and invalidate the initialization information stored at the region of the NAND memory media by writing to the region of the NAND memory media without first erasing the region of the NAND memory media such that bit errors are produced in the region of the NAND memory media that can be detected by the controller and indicate the initialization information is no longer valid.
Pressure relief assembly for use in a hydraulically or pneumatically operated mechanical brake system which is supplied with pressure by a pump for releasing the brake and is relieved towards a tank , characterized in that the pressure relief assembly consists of at least one switching valve (60. 1, 60.2) open in the de-energized state and at least one pressure holding arrangement provided between the switching valve (60.1, 60.2) and the tank and adjustable to a defined brake pressure, for rapid reduction of the system pressure to a preset pressure level and subsequent holding at that level for a predetermined duration, wherein the at least one pressure-maintaining arrangement comprises a valve (53.1, 53.2, 53.3, 53.4) which is pressurized by the pump , is proportionally adjustable and is closed in the de-energized state, and a pressure-maintaining valve (50.1, 50.2, 50.3, 50.4) whose pressure-maintaining level is controlled via the proportionally adjustable valve (53.1, 53.2, 53.3, 53.4).
A fluid pressure cylinder comprising a tubular shaped cylinder tube including cylinder chambers defined in interior thereof, a pair of cover members attached to both ends of the cylinder tube , a piston disposed displaceably along the cylinder chambers , and a piston rod that is connected to the piston ; the piston comprising a plate body connected to an end of the piston rod ; and an annular ring body disposed on an outer edge of the plate body and in sliding contact with an inner circumferential surface of the cylinder tube ; characterized in that the ring body and the plate body are connected together by rivets and that the ring body is connected to an outer circumferential side of the plate body .
A method for producing a three-dimensional body in a stereolithographic process, wherein a photosensitive material is cured by radiation, wherein measuring radiation is coupled into a reference layer and detected by a sensor in a spatially resolved and time-resolved manner, characterised in that the measuring radiation remains predominantly within the reference layer due to the internal reflection.
A gas turbine engine component comprising: an inner part comprising an inner flow delimitation part and an inner structural part located within the inner flow delimitation part , the inner flow delimitation part presenting an inner passage surface ; and an outer part comprising an outer passage surface forming an outer flow delimitation part , wherein a gas flow passage is formed between the inner passage surface and the outer passage surface and surrounds the inner part, wherein the trace of the inner passage surface in a cross-section perpendicular to a central axis of the component has a polygonal shape comprising a plurality of substantially straight trace portions , and wherein a plurality of circumferentially spaced blades extend from the inner passage surface to the outer passage surface, wherein the blades are located at end points of the substantially straight trace portions . an inner part comprising an inner flow delimitation part and an inner structural part located within the inner flow delimitation part , the inner flow delimitation part presenting an inner passage surface ; and an outer part comprising an outer passage surface forming an outer flow delimitation part , wherein a gas flow passage is formed between the inner passage surface and the outer passage surface and surrounds the inner part, wherein the trace of the inner passage surface in a cross-section perpendicular to a central axis of the component has a polygonal shape comprising a plurality of substantially straight trace portions , and wherein a plurality of circumferentially spaced blades extend from the inner passage surface to the outer passage surface, wherein the blades are located at end points of the substantially straight trace portions . wherein a gas flow passage is formed between the inner passage surface and the outer passage surface and surrounds the inner part, wherein the trace of the inner passage surface in a cross-section perpendicular to a central axis of the component has a polygonal shape comprising a plurality of substantially straight trace portions , and wherein a plurality of circumferentially spaced blades extend from the inner passage surface to the outer passage surface, wherein the blades are located at end points of the substantially straight trace portions .
Method for the interference-compensated determination of the material application or material removal during a wet chemical surface treatment of a workpiece in a process solution by means of a sensor device, which comprises a surface treatment sensor having a sensor rod , which is excited to vibrate in a controlled manner in a longitudinal natural vibration mode, and having a test specimen detachably connected to an end region of the sensor rod immersed in the process solution, on which a surface treatment is carried out in the same manner as to the workpiece, wherein a frequency shift of the longitudinal natural vibration mode of the sensor rod , which occurs during the surface treatment, is detected and from the frequency shift the dimension of the test specimen , which changes during the surface treatment due to deposition or removal, is determined, wherein by means of an interference-influence sensor device frequency shifts, which are caused by temporal temperature gradients in the process solution as interference variables, are detected in addition to the frequency shift caused by the dimensional change, characterised in that - the sensor rod is immersed into the process solution parallel to the workpiece to be treated, - by means of the interference-influence sensor device the frequency shifts, which are caused by further interference variables, comprising gas bubbles in the process solution, are additionally detected, and - in real time the frequency shift is corrected for the influence of the interference variables, by subtracting one portion caused by the interference variables from the frequency shift, before the change in dimension is determined from the corrected frequency shift. - the sensor rod is immersed into the process solution parallel to the workpiece to be treated, - by means of the interference-influence sensor device the frequency shifts, which are caused by further interference variables, comprising gas bubbles in the process solution, are additionally detected, and - in real time the frequency shift is corrected for the influence of the interference variables, by subtracting one portion caused by the interference variables from the frequency shift, before the change in dimension is determined from the corrected frequency shift.
A mobility management method, comprising: allocating (S201), by a first base station to which a first cell belongs, a long source identifier and a short source identifier to a terminal in a connected mode in the first cell, wherein each of the long source identifier and the short source identifier identifies the terminal in the first base station; and storing (S204), by the first base station, a connection context of the terminal in the connected mode after determining that the terminal enters a low-overhead state, wherein the terminal enters the low-overhead state when a preset activation condition is satisfied, and wherein the low-overhead state is a state in which the terminal stores the connection context, and camps on a cell according to a cell reselection criterion during movement. allocating (S201), by a first base station to which a first cell belongs, a long source identifier and a short source identifier to a terminal in a connected mode in the first cell, wherein each of the long source identifier and the short source identifier identifies the terminal in the first base station; and storing (S204), by the first base station, a connection context of the terminal in the connected mode after determining that the terminal enters a low-overhead state, wherein the terminal enters the low-overhead state when a preset activation condition is satisfied, and wherein the low-overhead state is a state in which the terminal stores the connection context, and camps on a cell according to a cell reselection criterion during movement.
A camera , in particular a code reader, comprising an image sensor for generating image data from received light from a detection zone , a lighting unit having at least one light source for illuminating the detection zone with transmitted light and a polarization filter that polarizes the transmitted light and the received light , comprises a plurality of surfaces (24a-c) of different polarization properties and is configured as an additional module subsequently replaceable from the outside, characterized in that the additional module can be attached to the camera in different orientations.
Working implement with at least one blade driven to rotate about an axis of rotation by a drive motor , wherein the working implement has at least one drive shaft on which a disc is located, wherein the at least one blade is located on a side of the disc which faces the ground in operation, wherein the disc is non-rotatably held on the drive shaft , wherein the blade is non-rotatably joined to the disc , wherein the drive torque for the rotary drive of the blade is transmitted from the disc to the blade , and wherein the blade bears against the disc in an interior region of the disc , characterised in that the distance of the radial outer edge of the blade from the axis of rotation is less than the radius of the disc , and in that the inner region of the disc is adjoined by an outer region of the disc in which the distance between the blade and the disc gradually increases to a maximum distance (A max ) as the radial distance from the axis of rotation increases.
System for a vehicle seat , comprising: - a functional device able to selectively occupy Np states, where Np is a positive integer, - an input interface configured for collecting Nm parameters, where Nm is a positive integer, related to the vehicle and/or to the seat and/or to a user of the seat , - a control device configured for changing the functional device from one of the Np states to another of the Np states, - a control interface enabling the user to set the functional device , via the control device , to the state to be in, - a data storage unit , characterized in that the system is configured for: - sending the values of the Nm parameters to the data storage unit each time the user places the functional device in one of the Np states. - a functional device able to selectively occupy Np states, where Np is a positive integer, - an input interface configured for collecting Nm parameters, where Nm is a positive integer, related to the vehicle and/or to the seat and/or to a user of the seat , - a control device configured for changing the functional device from one of the Np states to another of the Np states, - a control interface enabling the user to set the functional device , via the control device , to the state to be in, - a data storage unit , - sending the values of the Nm parameters to the data storage unit each time the user places the functional device in one of the Np states.