mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a weld joint between at least a first part and a second part, comprising the step of projecting an energy beam onto an interface area between the parts, wherein the beam is projected onto the interface area so as to produce a primary spot on the interface area, and wherein the beam is repetitively scanned in two dimensions in accordance with a scanning pattern so as to establish an effective spot on the object, the effective spot having a two-dimensional energy distribution, wherein the effective spot is displaced along a track over the interface area so as to progressively melt mating portions of the first part and the second part so as to form the weld joint, and being characterised in that during at least a portion of the displacement of the effective spot along the track, said two-dimensional energy distribution is asymmetric in relation to any line extending through the effective spot in parallel with the track. wherein the beam is projected onto the interface area so as to produce a primary spot on the interface area, and wherein the beam is repetitively scanned in two dimensions in accordance with a scanning pattern so as to establish an effective spot on the object, the effective spot having a two-dimensional energy distribution, wherein the effective spot is displaced along a track over the interface area so as to progressively melt mating portions of the first part and the second part so as to form the weld joint, and being characterised in that during at least a portion of the displacement of the effective spot along the track, said two-dimensional energy distribution is asymmetric in relation to any line extending through the effective spot in parallel with the track.
A processor, comprising: a plurality of processing cores; a last level cache memory, LLC, shared by the plurality of processing cores, the LLC comprising a plurality of slices; and a neural network unit, NNU, comprising: an array of neural processing units, NPU; and a memory array; characterized in that to transition from a first mode in which the memory array operates to store neural network weights read by the plurality of NPUs to a second mode in which the memory array operates as a slice of the LLC in addition to the plurality of slices, the processor is configured to write-back-invalidate the LLC; and to update a hashing algorithm to include the memory array as a slice of the LLC in addition to the plurality of slices; and wherein to transition from the second mode to the first mode, the processor is configured to write-back-invalidate the LLC; and to update the hashing algorithm to exclude the memory array from the LLC, wherein to transition from the first mode to the second mode, the processor is also configured to invalidate the NNU memory array. a plurality of processing cores; a last level cache memory, LLC, shared by the plurality of processing cores, the LLC comprising a plurality of slices; and a neural network unit, NNU, comprising: an array of neural processing units, NPU; and a memory array; characterized in that to transition from a first mode in which the memory array operates to store neural network weights read by the plurality of NPUs to a second mode in which the memory array operates as a slice of the LLC in addition to the plurality of slices, the processor is configured to write-back-invalidate the LLC; and to update a hashing algorithm to include the memory array as a slice of the LLC in addition to the plurality of slices; and an array of neural processing units, NPU; and a memory array; characterized in that to transition from a first mode in which the memory array operates to store neural network weights read by the plurality of NPUs to a second mode in which the memory array operates as a slice of the LLC in addition to the plurality of slices, the processor is configured to write-back-invalidate the LLC; and to update a hashing algorithm to include the memory array as a slice of the LLC in addition to the plurality of slices; and wherein to transition from the second mode to the first mode, the processor is configured to write-back-invalidate the LLC; and to update the hashing algorithm to exclude the memory array from the LLC, wherein to transition from the first mode to the second mode, the processor is also configured to invalidate the NNU memory array.
A method for valve type recognition of a valve (100, 200, 300) connected to an actuator (1, 50), said valve having a valve rod (120, 220, 320) movable by an actuator spindle (5, 55) of the actuator, said valve being one of a first valve type (100, 300) and a second or further valve type (200, 300), wherein said actuator spindle of the connected actuator has a maximum allowable stroke (MAS, MAS', MAS") defined by a displacement of the actuator spindle between a first end position (E1, E1") and a second end position (E2, E2', E2"), said second end position being defined as the position of the actuator spindle when being operatively connected to said valve rod in a fully closed position of the valve, characterized in that said method comprising the steps of: determining for the connected actuator if the maximum allowable stroke of the actuator spindle is larger than a reference value, determining that the valve connected to the actuator is of the first valve type if the maximum allowable stroke of the actuator spindle is the same, or smaller than, said reference value, determining that the valve connected to the actuator is of a second or further valve type if the maximum allowable stroke of the actuator spindle is larger than said reference value. determining for the connected actuator if the maximum allowable stroke of the actuator spindle is larger than a reference value, determining that the valve connected to the actuator is of the first valve type if the maximum allowable stroke of the actuator spindle is the same, or smaller than, said reference value, determining that the valve connected to the actuator is of a second or further valve type if the maximum allowable stroke of the actuator spindle is larger than said reference value.
Device for fastening at least one line, having a retaining portion for installing the fastening device, wherein the retaining portion has an accommodating bore for accommodating a vehicle-mounted bolt, and having at least one accommodating portion, which has a holder for at least one line, wherein the retaining portion and the at least one accommodating portion have provided between them at least one damping portion, which connects the at least one accommodating portion to the retaining portion and decouples the same in terms of vibration from the retaining portion, wherein the connection between the accommodating portion and retaining portion is formed exclusively by the damping portion, wherein the retaining portion consists of a first, hard material and the damping portion consists of a second, soft material, characterized in that the accommodating portion has at least one damping element, which projects into the holder, wherein at least one damping component is provided on the outside of the accommodating portion, and wherein the damping element and the damping portion are connected in one piece to one another.
A system (100, 1500) for forming cast polyurethane, the system (100, 1500) comprising: a mold conveyance mechanism (110, 1110) that conveys a mold (120, 1120, 1220) with at least one cavity (122, 1222) through the system (100, 1500) during the forming of cast polyurethane, the at least one cavity (122, 1222) within the mold (120, 1120, 1220) extending below a flat surface face (124, 1124) of the mold (120, 1120, 1220) when the mold (120, 1120, 1220) is maintained in a substantially horizontal orientation during the process of forming cast polyurethane; a liquid phase polyurethane mixture dispensing system that deposits a predetermined amount of liquid phase polyurethane mixture onto the flat surface face (124, 1124) of the mold (120, 1120, 1220) in a predetermined pattern corresponding to the at least one cavity (122, 1222) within the mold (120, 1120, 1220) when the conveyance mechanism (110, 1110) positions the mold (120, 1120, 1220) beneath the liquid phase polyurethane mixture dispensing system; a dispersal mechanism that disperses the liquid phase polyurethane mixture within the at least one cavity (122, 1222) and across at least a portion of the flat surface face (124, 1124); a vacuum system that applies a vacuum to the liquid phase polyurethane mixture in the at least one cavity (122, 1222) within the mold (120, 1120, 1220); and a flexible blade (140, 1140) that contacts and moves across the flat surface face (124, 1124) of the mold (120, 1120, 1220) after the conveyance mechanism (110, 1110) has moved the mold (120, 1120, 1220) to the flexible blade (140, 1140), the flexible blade (140, 1140) forcing liquid phase polyurethane into the cavities (122, 1222) extending below the flat surface face (124, 1124) of the mold (120, 1120, 1220) and removing excess liquid phase polyurethane mixture from the flat surface face (124, 1124) of the mold (120, 1120, 1220), wherein the dispersal mechanism applies moving air to the dispensed liquid phase polyurethane mixture.
An image pickup device comprising: a plurality of A/D converters for each column of a pixel array; a selection unit configured to select the number of A/D converters that output a pixel signal of each pixel; a control unit configured to control the selection unit and to cause the selection unit to select the number of the A/D converters according to a request; and a plurality of output lines to connect pixels of the pixel array to the A/D converters, wherein each output line is connected to a different subset of pixels in the column, wherein the selection unit is configured to select an output destination of the pixel signal from among the plurality of A/D converters corresponding to the column, wherein in a first mode, the control unit is configured to control the selection unit so as to connect each pixel of the column to at least two of the plurality of A/D converters, and in a second mode, the control unit is configured to divide the pixels of the column into a plurality of paths and control the selection unit so as to connect pixels of each path to the A/D converter different from the A/D converters connected to pixels of the other paths. a plurality of A/D converters for each column of a pixel array; a selection unit configured to select the number of A/D converters that output a pixel signal of each pixel; a control unit configured to control the selection unit and to cause the selection unit to select the number of the A/D converters according to a request; and a plurality of output lines to connect pixels of the pixel array to the A/D converters, wherein each output line is connected to a different subset of pixels in the column, wherein the selection unit is configured to select an output destination of the pixel signal from among the plurality of A/D converters corresponding to the column, wherein in a first mode, the control unit is configured to control the selection unit so as to connect each pixel of the column to at least two of the plurality of A/D converters, and in a second mode, the control unit is configured to divide the pixels of the column into a plurality of paths and control the selection unit so as to connect pixels of each path to the A/D converter different from the A/D converters connected to pixels of the other paths.
A method for selecting a Lycopersicon esculentum plant comprising at least one TYLCV resistance allele and at least one root knot nematode resistance allele in coupling phase at two loci on one chromosome, said method comprising the steps of: (a) analyzing a Lycopersicon esculentum plant for the presence of the resistance alleles at each of the two loci using one or more molecular assays, wherein said at least one root knot nematode resistance allele is Mi-1 from Lycopersicon peruvianum, said at least one TYLCV resistance allele is Ty-1 from Lycopersicon chilense, and (b) selecting one or more plants comprising said resistance alleles in the coupling phase on one chromosome, wherein said chromosome is chromosome 6; wherein said one or more molecular assays comprise the use of PCR primers or probes which hybridize to SEQ ID NO:8 or SEQ ID NO: 10; or wherein said one or more molecular assays comprise the use of at least one primer sequence pair selected from the group consisting of SEQ ID NOs.:1 and 2, SEQ ID NOs: 3 and 4, and SEQ ID NOs: 5 and 6. (a) analyzing a Lycopersicon esculentum plant for the presence of the resistance alleles at each of the two loci using one or more molecular assays, wherein said at least one root knot nematode resistance allele is Mi-1 from Lycopersicon peruvianum, said at least one TYLCV resistance allele is Ty-1 from Lycopersicon chilense, and (b) selecting one or more plants comprising said resistance alleles in the coupling phase on one chromosome, wherein said chromosome is chromosome 6;
A terminal comprising: a transmission section configured to carry out an uplink transmission of at least one of a Physical Uplink Shared Channel, PUSCH, a Physical Uplink Control Channel, PUCCH, and a Sounding Reference Signal, SRS; and a control section configured to control a transmission power used in the uplink transmission based on: a value that is calculated based on the number of resource blocks of the uplink transmission and a value that conforms to one of a plurality of numerologies having different subcarrier spacings. a transmission section configured to carry out an uplink transmission of at least one of a Physical Uplink Shared Channel, PUSCH, a Physical Uplink Control Channel, PUCCH, and a Sounding Reference Signal, SRS; and a control section configured to control a transmission power used in the uplink transmission based on: a value that is calculated based on the number of resource blocks of the uplink transmission and a value that conforms to one of a plurality of numerologies having different subcarrier spacings.
A medical device comprising: a collection wire configured for entering a patient's anatomy, the collection wire including a distalmost end with a plurality of tips, the plurality of tips comprising a plurality of filaments intertwined into a fibrous structure, wherein the plurality of tips are configured to attract stone fragments from the patient's anatomy and comprise at least one of: i) a magnetic outer surface; or ii) a nanofunctional molecule bonded to an outer surface. i) a magnetic outer surface; or ii) a nanofunctional molecule bonded to an outer surface.
An overheat sensor system comprising: a controller comprising a processor and a tangible, non-transitory memory; a sensor bus in logical communication with the controller; and a first sensor in logical communication with the controller via the sensor bus and configured to receive first infrared radiation from a first location under observation, a second sensor comprising an acoustical sensor in logical communication with the controller via the sensor bus and configured to detect flying debris at the first location under observation capable of impeding the operation of the first sensor; and avionics comprising an aircraft data bus whereby avionics input data indicating a mode of flight is provided to the controller; wherein the controller is configured to take a first action in response to the mode of flight and a first indication that the first infrared radiation from the first location exceeds a first threshold corresponding to the mode of flight, and wherein the first sensor comprises a temperature-sensing element configured to detect infrared radiation with a wavelength between 700 nm and 1 mm and a fire-sensing element configured to detect infrared radiation with a wavelength less than that of the temperature-sensing element, whereby each is configured to detect the first infrared radiation from the first location. a controller comprising a processor and a tangible, non-transitory memory; a sensor bus in logical communication with the controller; and a first sensor in logical communication with the controller via the sensor bus and configured to receive first infrared radiation from a first location under observation, a second sensor comprising an acoustical sensor in logical communication with the controller via the sensor bus and configured to detect flying debris at the first location under observation capable of impeding the operation of the first sensor; and avionics comprising an aircraft data bus whereby avionics input data indicating a mode of flight is provided to the controller; wherein the controller is configured to take a first action in response to the mode of flight and a first indication that the first infrared radiation from the first location exceeds a first threshold corresponding to the mode of flight, and wherein the first sensor comprises a temperature-sensing element configured to detect infrared radiation with a wavelength between 700 nm and 1 mm and a fire-sensing element configured to detect infrared radiation with a wavelength less than that of the temperature-sensing element, whereby each is configured to detect the first infrared radiation from the first location.
A net deployment controller (100, 200) comprising: a. a housing (112, 212, 214), b. pay-out tape (120, 220) contained within the housing; c. means (108, 208) for connecting the housing to a support; and d. means (136A, 136B, 236A, 236B) for resisting, but not preventing, removal of the pay-out tape from the housing; characterised in that e. the housing has a first portion and a second portion (112, 212), and f. the net deployment controller further comprises i. means for connecting the first portion of the housing to a net; the pay-out tape being connected to the first portion connecting means and the means for connecting the housing to a support serving to connect the second portion of the housing to the support; and ii. a shear pin (140, 240) which, after shearing, allows the pay-out tape to be removed from the housing as an effect of movement of the first portion connecting means. a. a housing (112, 212, 214), b. pay-out tape (120, 220) contained within the housing; c. means (108, 208) for connecting the housing to a support; and d. means (136A, 136B, 236A, 236B) for resisting, but not preventing, removal of the pay-out tape from the housing; characterised in that e. the housing has a first portion and a second portion (112, 212), and f. the net deployment controller further comprises i. means for connecting the first portion of the housing to a net; the pay-out tape being connected to the first portion connecting means and the means for connecting the housing to a support serving to connect the second portion of the housing to the support; and ii. a shear pin (140, 240) which, after shearing, allows the pay-out tape to be removed from the housing as an effect of movement of the first portion connecting means. i. means for connecting the first portion of the housing to a net; the pay-out tape being connected to the first portion connecting means and the means for connecting the housing to a support serving to connect the second portion of the housing to the support; and ii. a shear pin (140, 240) which, after shearing, allows the pay-out tape to be removed from the housing as an effect of movement of the first portion connecting means.
Pedal assembly for a motor vehicle with at least one support and at least two pedals (6, 8), each comprising a pedal arm (10, 12) mounted to said at least one support and pivotable around a corresponding pivot axis (14, 16), a sensor (18, 20) for detecting a rotational movement of said pedal arm (10, 12) around said pivot axis (14, 16) and an interface (26, 28) for an electrical contact of said sensor (18, 20) with a control unit of said motor vehicle, wherein said at least one support is designed as a single base plate for said at least two pedals (6, 8) and at least one of said at least two pedals (6, 8) is housed by said single base plate, whereat said pedal arm (10, 12) of said housed pedal (6, 8) is extending through a pedal arm opening (7, 9) of said single base plate characterized in that said single base plate is designed, that said at least one pedal (6, 8) housed by said single base plate is mountable from a rear side of said single base plate, whereat said rear side is facing a frame of said motor vehicle said pedal assembly is mounted to, said single base plate is comprising a frame part for said at least one pedal (6, 8) housed by said single base plate. said at least one support and pivotable around a corresponding pivot axis (14, 16), a sensor (18, 20) for detecting a rotational movement of said pedal arm (10, 12) around said pivot axis (14, 16) and an interface (26, 28) for an electrical contact of said sensor (18, 20) with a control unit of said motor vehicle, wherein said at least one support is designed as a single base plate for said at least two pedals (6, 8) and at least one of said at least two pedals (6, 8) is housed by said single base plate, whereat said pedal arm (10, 12) of said housed pedal (6, 8) is extending through a pedal arm opening (7, 9) of said single base plate characterized in that said single base plate is designed, that said at least one pedal (6, 8) housed by said single base plate is mountable from a rear side of said single base plate, whereat said rear side is facing a frame of said motor vehicle said pedal assembly is mounted to, said single base plate is comprising a frame part for said at least one pedal (6, 8) housed by said single base plate.