mhurhangee/ep-ind-claims huggingface dataset:
An airfoil for a gas turbine engine comprising: an airfoil body having a trailing edge region, the trailing edge region including first and second monolithic ceramic exterior walls (64a, 64b), a flow discharge passage between the first and second monolithic ceramic exterior walls (64a, 64b), a ceramic matrix composite liner at least a portion of which is disposed in the flow discharge passage between the first and second monolithic ceramic exterior walls (64a, 64b), and an array of pedestals disposed in the flow discharge passage, each said pedestal bridging the CMC liner and at least one of the first and second monolithic ceramic exterior walls (64a, 64b) characterized in that the CMC liner is comprised of a first CMC liner wall that lines the first monolithic ceramic exterior wall, and a second CMC liner wall that lines the second monolithic ceramic exterior wall, the first and second CMC liner walls (66a, 66b) converge to form a liner tail, the liner tail divides the flow discharge passage into a first sub-passage between the liner tail and the first monolithic ceramic exterior wall, and a second sub-passage between the liner tail and the second monolithic ceramic exterior wall, and metering orifices are disposed where the first and second CMC liner walls (66a, 66b) meet, wherein the metering orifices in the first monolithic ceramic exterior wall lead to the first sub-passage, and the metering orifices in the second monolithic ceramic exterior wall lead to the second sub-passage. first and second monolithic ceramic exterior walls (64a, 64b), a flow discharge passage between the first and second monolithic ceramic exterior walls (64a, 64b), a ceramic matrix composite liner at least a portion of which is disposed in the flow discharge passage between the first and second monolithic ceramic exterior walls (64a, 64b), and an array of pedestals disposed in the flow discharge passage, each said pedestal bridging the CMC liner and at least one of the first and second monolithic ceramic exterior walls (64a, 64b) characterized in that the CMC liner is comprised of a first CMC liner wall that lines the first monolithic ceramic exterior wall, and a second CMC liner wall that lines the second monolithic ceramic exterior wall, the first and second CMC liner walls (66a, 66b) converge to form a liner tail, the liner tail divides the flow discharge passage into a first sub-passage between the liner tail and the first monolithic ceramic exterior wall, and a second sub-passage between the liner tail and the second monolithic ceramic exterior wall, and metering orifices are disposed where the first and second CMC liner walls (66a, 66b) meet, wherein the metering orifices in the first monolithic ceramic exterior wall lead to the first sub-passage, and the metering orifices in the second monolithic ceramic exterior wall lead to the second sub-passage.
A system for processing a transparent material, the system comprising: a laser source operable to emit a pulsed laser beam; and an optical assembly disposed within an optical path of the pulsed laser beam and configured to transform the pulsed laser beam into a laser beam focal line having an adjustable length and an adjustable diameter, wherein at least a portion of the laser beam focal line is operable to be positioned within a bulk of the transparent material such that the laser beam focal line generates an induced multi-photon absorption within the transparent material, the multi-photon induced absorption producing a material modification within the transparent material along the laser beam focal line; and the optical assembly comprises an axicon (9,10); characterised in that optical assembly is adapted to adjust the adjustable length of the laser beam focal line by adjusting a diameter of the pulsed laser beam at an entrance surface of the axicon (9,10). a laser source operable to emit a pulsed laser beam; and an optical assembly disposed within an optical path of the pulsed laser beam and configured to transform the pulsed laser beam into a laser beam focal line having an adjustable length and an adjustable diameter, wherein at least a portion of the laser beam focal line is operable to be positioned within a bulk of the transparent material such that the laser beam focal line generates an induced multi-photon absorption within the transparent material, the multi-photon induced absorption producing a material modification within the transparent material along the laser beam focal line; and the optical assembly comprises an axicon (9,10); characterised in that optical assembly is adapted to adjust the adjustable length of the laser beam focal line by adjusting a diameter of the pulsed laser beam at an entrance surface of the axicon (9,10).
System for authenticating a user, having a removable storage medium having at least one memory area, having a data processing system to which the removable storage medium is connected via a data transmission connection, identifying data for identifying the removable storage medium being stored in the memory area of the removable storage medium, data relating to a digital certificate being stored in this memory area or in a further memory area of the removable storage medium, characterized in that the certificate is an attribute certificate, the identifying data being used as attributes which have been associated with the certificate by a certification authority (44, 46), in that identifying data and the data relating to the attribute certificate are transmitted from the removable storage medium to the data processing system, in that the data processing system processes the identifying data and the data relating to the attribute certificate and authenticates the user, wherein, by virtue of the attribute certificate being associated with the identifying data for identifying the removable storage medium, the authentication of the user is tied to the removable storage medium tied to the attribute certificate, in that rights are preset for the user and/or a user group to which the user is assigned, which rights are activated for the user by authenticating this user, and in that the attribute certificate authorizes the user to execute at least one application program by means of the data processing system.
An electric motor for operation with a horizontal axis arrangement, in particular wet-running motor for the drive of a centrifugal pump, with a rotor with a motor shaft, said rotor being rotatably arranged in a stator comprising motor windings, with a motor housing which receives the stator and which comprises cooling ribs on the peripheral side for leading away heat arising in the motor, wherein the cooling ribs of the motor only extend over a part of the periphery of the motor housing and the motor housing in the non-ribbed peripheral region forms an assembly base (18, 19) for an electronics housing which is assembled on the motor housing and comprises power electronics for the control of the motor and which comprises cooling ribs which point towards the motor housing, characterised in that the cooling ribs of the motor and the cooling ribs of the electronics housing extend transversely to the motor axis.
Use of a fluorescent probe for identifying or isolating plasma cell(s) and/or plasmablast(s), wherein the staining selectivity for the endoplasmic reticulum in cells is higher than the staining selectivity for cell organelles other than the endoplasmic reticulum, and with the staining of the fluorescent probe, plasma cell(s) and plasmablast(s) are distinguishable from cells other than plasma cells and plasmablasts, wherein the fluorescent probe is selected from the group consisting of fluorescent labeled glibenclamide, fluorescent labeled Brefeldin A and a compound according to the following formulae:
A video decoder for reconstruction of a sample X' from a quantized value L, the apparatus being configured to: receive said quantized value L; perform an inverse integer transformation of said value L to derive a value Y', wherein all basis functions of the inverse integer transform have an equal norm, and perform combined dequantization and normalization of the inverse transformed value Y' of the quantized value L, to derive a dequantized and normalized value X' representing the reconstructed sample, wherein the combined dequantization and normalization includes: inputting a quantization parameter QP; and deriving said dequantized and normalized value X' representing the reconstructed sample; characterized in that: said dequantized and normalized value X' representing the reconstructed sample is derived by using a mantissa portion Bm being a function of said quantization parameter QP and an exponential portion Be being a function of said quantization parameter QP and representing a normalization shift as X' = Y' * Bm *2 Be * 2 -N, wherein N is an integer, the multiplication by 2 -N represents a final normalization shift and said mantissa portion Bm and said exponential portion Be satisfy the recursion relations Bm QP + 6 = Bm QP, and Be QP + 6 = Be QP + 1. receive said quantized value L; perform an inverse integer transformation of said value L to derive a value Y', wherein all basis functions of the inverse integer transform have an equal norm, and perform combined dequantization and normalization of the inverse transformed value Y' of the quantized value L, to derive a dequantized and normalized value X' representing the reconstructed sample, wherein the combined dequantization and normalization includes: inputting a quantization parameter QP; and deriving said dequantized and normalized value X' representing the reconstructed sample; inputting a quantization parameter QP; and deriving said dequantized and normalized value X' representing the reconstructed sample; characterized in that: said dequantized and normalized value X' representing the reconstructed sample is derived by using a mantissa portion Bm being a function of said quantization parameter QP and an exponential portion Be being a function of said quantization parameter QP and representing a normalization shift as X' = Y' * Bm *2 Be * 2 -N, wherein N is an integer, the multiplication by 2 -N represents a final normalization shift and said mantissa portion Bm and said exponential portion Be satisfy the recursion relations Bm QP + 6 = Bm QP, and Be QP + 6 = Be QP + 1. said dequantized and normalized value X' representing the reconstructed sample is derived by using a mantissa portion Bm being a function of said quantization parameter QP and an exponential portion Be being a function of said quantization parameter QP and representing a normalization shift as X' = Y' * Bm *2 Be * 2 -N, wherein N is an integer, the multiplication by 2 -N represents a final normalization shift and said mantissa portion Bm and said exponential portion Be satisfy the recursion relations Bm QP + 6 = Bm QP, and Be QP + 6 = Be QP + 1.
A magnetically-based position sensor (100; 200) comprising: - a magnet assembly (120; 230) that moves along a path (140; 250); - at least two magnetic collectors (110, 115; 210, 225) that are spaced apart from each other by a gap between the two magnetic collectors (110, 115; 210, 225), positioned parallel to one another and at an angle relative to the axis of the path (140, 250) wherein the gap is at least partially crossed by the magnet assembly (120; 230) as the magnet assembly (120; 230) moves along the path (140; 250); - a magnetic sensor (105; 205) coupled to the at least two magnetic collectors (110, 115; 210, 225); - wherein the magnetic sensor (105; 205) produces a signal that is related to the position of the magnet assembly (120; 230) as the magnet assembly (120; 230) moves along its path (140; 250) characterized in that - the magnet assembly (120;230) has at least two poles (N, S) and a length seen through the two poles (N, S) that is perpendicular or tilted to the path (140; 250). - a magnet assembly (120; 230) that moves along a path (140; 250); - at least two magnetic collectors (110, 115; 210, 225) that are spaced apart from each other by a gap between the two magnetic collectors (110, 115; 210, 225), positioned parallel to one another and at an angle relative to the axis of the path (140, 250) wherein the gap is at least partially crossed by the magnet assembly (120; 230) as the magnet assembly (120; 230) moves along the path (140; 250); - a magnetic sensor (105; 205) coupled to the at least two magnetic collectors (110, 115; 210, 225); - wherein the magnetic sensor (105; 205) produces a signal that is related to the position of the magnet assembly (120; 230) as the magnet assembly (120; 230) moves along its path (140; 250) characterized in that - the magnet assembly (120;230) has at least two poles (N, S) and a length seen through the two poles (N, S) that is perpendicular or tilted to the path (140; 250).
A braking system adapted to a road motor vehicle, configured in trailer mode or in tractor mode, for the purpose of actuating brake members (1a, 1b, 1c, 1d) for braking the vehicle that are associated with the wheels of said vehicle, said system comprising control members for controlling operation of it and a manual braking hydraulic circuit, said braking system being characterised in that it further comprises an additional hydraulic circuit equipping the same vehicle and electrically controlled, the control members comprising an electrical braking automated logic controller for generating main or additional braking setpoints, which are transmitted to the additional hydraulic circuit.
Method for determining the distribution of spreading material which has been mixed from at least two components in any desired ratio, preferably less than 9:1, and is ejected by means of an agricultural distribution machine with at least one, preferably two, spreader discs which preferably have two throwing blades, wherein the distribution machine has at least one movable sensor and/or at least three sensors which are positionally fixed with respect to the distribution machine, preferably sensors which operate in a contactless fashion, for the individual detection of the horizontal ejection angle of the spreading material for each spreader disc, and a job computer or terminal is arranged on the distribution machine and/or an agricultural traction machine which is assigned thereto, characterized in that demixing of spreading material components is detected on the basis of the measurement data of the at least one sensor, preferably radar sensor, at a sufficient distance from the distribution machine of preferably at least 1 m, and in each case an average ejection angle (α K1, α K1) is calculated for each component by means of the program installed on the job computer or terminal.
An aircraft intent processor, comprising: an aircraft intent input arranged to receive aircraft intent data representative of aircraft intent instructions; and an aircraft state input for receiving state data representative of a state of the aircraft with respect to six degrees of freedom; and a residual output, characterised in that the aircraft intent processor is arranged to: calculate residual data representative of an error between a state of the aircraft commanded by received aircraft intent data and a state of the aircraft expressed by received state data; and output the residual data via the residual output, and characterised by an effects manager arranged to calculate residual data by: determining an error metric from each aircraft intent instruction represented by the aircraft intent data; and evaluating the error metric using the state commanded by received aircraft intent data and the state of the aircraft expressed by received state data. an aircraft intent input arranged to receive aircraft intent data representative of aircraft intent instructions; and an aircraft state input for receiving state data representative of a state of the aircraft with respect to six degrees of freedom; and a residual output, calculate residual data representative of an error between a state of the aircraft commanded by received aircraft intent data and a state of the aircraft expressed by received state data; and output the residual data via the residual output, and determining an error metric from each aircraft intent instruction represented by the aircraft intent data; and evaluating the error metric using the state commanded by received aircraft intent data and the state of the aircraft expressed by received state data.
A laser output device comprising: at least one laser emitting element; and a controller configured to control an output of the at least one laser emitting element by switching on and off of a power supply to supply an electric current to the at least one laser emitting element, wherein upon a power-on time and a power-off time of the power supply to supply an electric current to the at least one laser emitting element being determined according to a desired output of the at least one laser emitting element, characterized in that the controller is configured to calculate a power-on time correction value using a correction function individually set for the at least one laser emitting element on a per laser emitting element basis, and corrects the power-on time and the power-off time, based on the calculated power-on time correction value, wherein the correction function is a function configured to compensate for an optical system temperature change or a coupling efficiency change of a light source of the laser emitting element with respect to the power-off time. at least one laser emitting element; and a controller configured to control an output of the at least one laser emitting element by switching on and off of a power supply to supply an electric current to the at least one laser emitting element, wherein upon a power-on time and a power-off time of the power supply to supply an electric current to the at least one laser emitting element being determined according to a desired output of the at least one laser emitting element, characterized in that the controller is configured to calculate a power-on time correction value using a correction function individually set for the at least one laser emitting element on a per laser emitting element basis, and corrects the power-on time and the power-off time, based on the calculated power-on time correction value, wherein the correction function is a function configured to compensate for an optical system temperature change or a coupling efficiency change of a light source of the laser emitting element with respect to the power-off time.
Coating system for coating objects, comprising a) an electrostatically operating application device with a dispensing device (16, 18) by means of which a coating material can be dispensed; b) at least one supply container for coating material, the supply container being connected to an inlet valve device via an inlet line and to the dispensing device (16, 18) via a supply line; wherein c) an insulation device is provided, which ca) defines a section of the inlet line as an insulation channel; cb) comprises a clearing body; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device, characterized in that d) the inlet line comprises a pigging line extending between a start pigging station and a target pigging station; e) the pigging line is arranged upstream of the insulation device. a) an electrostatically operating application device with a dispensing device (16, 18) by means of which a coating material can be dispensed; b) at least one supply container for coating material, the supply container being connected to an inlet valve device via an inlet line and to the dispensing device (16, 18) via a supply line; wherein c) an insulation device is provided, which ca) defines a section of the inlet line as an insulation channel; cb) comprises a clearing body; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device, characterized in that ca) defines a section of the inlet line as an insulation channel; cb) comprises a clearing body; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device, d) the inlet line comprises a pigging line extending between a start pigging station and a target pigging station; e) the pigging line is arranged upstream of the insulation device.
A terminal that determines an input direction based on a continuously detected touch position, the terminal comprising: an acquisition section that acquires an indicated touch position that has been input using an input section; a detection section that detects coordinates of a touch position within a touch detection area, the detection section being part of the input section; an area setting section that determines a reference position based on a previously indicated touch position, and sets a plurality of direction determination areas (C1, C2, C3, C4) based on the reference position, the plurality of direction determining areas respectively corresponding to a plurality of directions; and an input direction determination section that determines the input direction within a period in which the indicated touch position is input using the input section, based on a direction determination area among the plurality of direction determination areas (C1, C2, C3, C4) to which the indicated touch position belongs, the area setting section causing the reference position to follow a change in the indicated touch position, characterised in that the acquisition section acquires the indicated touch position that has been input using the input section in a given cycle when the indicated touch position has been continuously detected, the area setting section sets the plurality of direction determination areas that respectively correspond to the plurality of directions based on the reference position acquired at an (N-1)th timing in the given cycle, and the input direction determining section determines the input direction based on a direction determination area among the plurality of direction determination areas to which the indicated touch position acquired at an Nth timing in the given cycle belongs. an acquisition section that acquires an indicated touch position that has been input using an input section; a detection section that detects coordinates of a touch position within a touch detection area, the detection section being part of the input section; an area setting section that determines a reference position based on a previously indicated touch position, and sets a plurality of direction determination areas (C1, C2, C3, C4) based on the reference position, the plurality of direction determining areas respectively corresponding to a plurality of directions; and an input direction determination section that determines the input direction within a period in which the indicated touch position is input using the input section, based on a direction determination area among the plurality of direction determination areas (C1, C2, C3, C4) to which the indicated touch position belongs,