mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a level of life consumption of a critical area of a first mechanical part, comprising the steps of: receiving a first set of data relating to the operation of the first mechanical part; determining a plurality of steady state conditions for the first set of operational data; determining a load history for the first mechanical part based on the plurality of determined steady states and the first set of operational data; selecting one of a plurality of predefined life consumption calculation models based on the type of the first mechanical part and the position of the critical area at the first mechanical part, wherein more than one life consumption model may be available for the same part and the same critical area; determining the level of life consumption for the critical area of the first mechanical part based on the selected life consumption calculation model and the determined load history; updating the plurality of life consumption models when an improved model has been developed using available actual load sections; and updating the level of life consumption with the updated life consumption model. receiving a first set of data relating to the operation of the first mechanical part; determining a plurality of steady state conditions for the first set of operational data; determining a load history for the first mechanical part based on the plurality of determined steady states and the first set of operational data; selecting one of a plurality of predefined life consumption calculation models based on the type of the first mechanical part and the position of the critical area at the first mechanical part, wherein more than one life consumption model may be available for the same part and the same critical area; determining the level of life consumption for the critical area of the first mechanical part based on the selected life consumption calculation model and the determined load history; updating the plurality of life consumption models when an improved model has been developed using available actual load sections; and updating the level of life consumption with the updated life consumption model.
An optical fiber cooling device comprising: a cooling base plate having a recessed accommodating part; a fiber holder disposed in the recessed accommodating part of the cooling base plate so as to be freely movable in a first direction, and suitable for holding a tip part of an optical fiber on a surface thereof and for adjusting a tip position of the held optical fiber in the first direction; and an adjustment member disposed in a gap between the fiber holder and an end face of the recessed accommodating part, configured to have the optical fiber placed on a surface thereof, movable in the first direction by moving in a second direction that intersects the first direction, and abutting against both the end face of the recessed accommodating part and an end face of the fiber holder. a cooling base plate having a recessed accommodating part; a fiber holder disposed in the recessed accommodating part of the cooling base plate so as to be freely movable in a first direction, and suitable for holding a tip part of an optical fiber on a surface thereof and for adjusting a tip position of the held optical fiber in the first direction; and an adjustment member disposed in a gap between the fiber holder and an end face of the recessed accommodating part, configured to have the optical fiber placed on a surface thereof, movable in the first direction by moving in a second direction that intersects the first direction, and abutting against both the end face of the recessed accommodating part and an end face of the fiber holder.
Sensor arrangement having a sensor element and at least two control devices (ECU1, ECU2) each having an evaluation and control unit (3A, 3B) and an energy source (VB1, VB2), wherein a first control device is designed so that a first evaluation and control unit is connected to a first energy source and a second control device is designed so that a second evaluation and control unit is connected to a second energy source, wherein the first control device comprises a changeover apparatus designed so that a first connection of the sensor element is connected to the first energy source and/or to the second energy source, wherein a second connection of the sensor element is connected to the second control device, wherein a sensor current (I S) flowing through the sensor element is modulated during operation with information relating to a captured measurement variable, wherein the first evaluation and control unit is designed to evaluate the sensor current (I S) captured between the connected energy source (VB1, VB2) and the sensor element and the second evaluation and control unit is designed to evaluate the sensor current (I S) captured between the sensor element and earth, and wherein the changeover apparatus is designed to connect the first connection of the sensor element to the other energy source (VB2, VB1) when the connected energy source (VB1, VB2) fails.
A device for laser nanomachining a sample made of a material having a given transparency band, said transparency band being defined as the spectral domain in which the absorption coefficient of the material is lower than 0.5 cm -1, the device comprising: - a focusing module (203, 703) allowing, from a given incident beam, a non-diffracting beam to be generated along a focal line generally oriented along the optical axis of the focusing module; and being characterized by further comprising: - first means (202, 701-702) for emitting a first light pulse (I 1) in a spectral band comprised in the transparency band of said material, able to generate in said material, after focusing by said focusing module, a plasma of free carriers along said focal line via multi-photon absorption, thus forming a "plasma channel"; and - second means (202, 701-702) for emitting at least one second electromagnetic wave in a spectral band comprised in the transparency band of said material, intended to be spatially superposed on said plasma channel in order to heat said material via absorption by the free carriers of the plasma. - a focusing module (203, 703) allowing, from a given incident beam, a non-diffracting beam to be generated along a focal line generally oriented along the optical axis of the focusing module; - first means (202, 701-702) for emitting a first light pulse (I 1) in a spectral band comprised in the transparency band of said material, able to generate in said material, after focusing by said focusing module, a plasma of free carriers along said focal line via multi-photon absorption, thus forming a "plasma channel"; and - second means (202, 701-702) for emitting at least one second electromagnetic wave in a spectral band comprised in the transparency band of said material, intended to be spatially superposed on said plasma channel in order to heat said material via absorption by the free carriers of the plasma.
Monitoring system for monitoring a state of a fluid in an indoor space including a state of a flow field for said fluid, the system including - an input unit comprising a plurality of temperature sensors (81a, 81b,...,81m T) to obtain temperature measurement data y 1 T k, y 2 T k,..., y mT k indicative for a temperature field in said indoor space, - a simulation unit (82; 8201, 8202, 8203) to simulate the fluid in said indoor space according to an indoor climate model to iteratively predict a state of said fluid including at least a temperature field and a flow field for the fluid in said indoor space, and having an output to provide a signal indicative for said flow field, and to provide a first output signal (S 82) that is indicative for the extent to which the predicted state (x) in an iteration is converged, and therewith complies with the model of the fluid - a comparison unit (83; 8204) to compare the predicted temperature field, being a component of the predicted state (x), with the temperature measurement data, and to provide a second output signal (S 83) that indicates to which extent the predicted temperature field in said iteration complies with the temperature measurement data, and the system being characterized by - a state correction unit (84; 8205) to correct the predicted state of the fluid by causing the iteration to continue until an extent of compliance as indicated by the first output signal and an extent of compliance as indicated by the second output signal meets predetermined requirements. - an input unit comprising a plurality of temperature sensors (81a, 81b,...,81m T) to obtain temperature measurement data y 1 T k, y 2 T k,..., y mT k indicative for a temperature field in said indoor space, - a simulation unit (82; 8201, 8202, 8203) to simulate the fluid in said indoor space according to an indoor climate model to iteratively predict a state of said fluid including at least a temperature field and a flow field for the fluid in said indoor space, and having an output to provide a signal indicative for said flow field, and to provide a first output signal (S 82) that is indicative for the extent to which the predicted state (x) in an iteration is converged, and therewith complies with the model of the fluid - a comparison unit (83; 8204) to compare the predicted temperature field, being a component of the predicted state (x), with the temperature measurement data, and to provide a second output signal (S 83) that indicates to which extent the predicted temperature field in said iteration complies with the temperature measurement data, and the system being characterized by - a state correction unit (84; 8205) to correct the predicted state of the fluid by causing the iteration to continue until an extent of compliance as indicated by the first output signal and an extent of compliance as indicated by the second output signal meets predetermined requirements.
A method for modifying a target genomic locus on a Y chromosome in a cell, comprising: (a) providing the cell comprising the target genomic locus on the Y chromosome, wherein the target genomic locus comprises a recognition site for a nuclease agent, and wherein the cell is in a culture comprising a DMEM base medium; (b) introducing into the cell: (i) the nuclease agent, wherein the nuclease agent induces a nick or double-strand break at the recognition site; and (ii) a large targeting vector comprising an insert polynucleotide flanked by first and second homology arms corresponding to first and second target sites located within the target genomic locus, wherein the sum total of the first homology arm and the second homology arm is at least 10 kb, and wherein the targeting vector undergoes homologous recombination with the target genomic locus; and (c) identifying at least one cell comprising in its genome the insert polynucleotide integrated at the target genomic locus, wherein integration of the insert polynucleotide introduces a genetic modification comprising deletion of an endogenous nucleic acid sequence and replacement with an exogenous nucleic acid sequence at the target genomic locus, wherein the cell is not produced using a process which involves modifying the germ line genetic identity of human beings or which involves use of a human embryo for industrial or commercial purposes, and wherein the method is not a method for treatment of the human or animal body by therapy. (a) providing the cell comprising the target genomic locus on the Y chromosome, wherein the target genomic locus comprises a recognition site for a nuclease agent, and wherein the cell is in a culture comprising a DMEM base medium; (b) introducing into the cell: (i) the nuclease agent, wherein the nuclease agent induces a nick or double-strand break at the recognition site; and (ii) a large targeting vector comprising an insert polynucleotide flanked by first and second homology arms corresponding to first and second target sites located within the target genomic locus, wherein the sum total of the first homology arm and the second homology arm is at least 10 kb, and wherein the targeting vector undergoes homologous recombination with the target genomic locus; and (i) the nuclease agent, wherein the nuclease agent induces a nick or double-strand break at the recognition site; and (ii) a large targeting vector comprising an insert polynucleotide flanked by first and second homology arms corresponding to first and second target sites located within the target genomic locus, wherein the sum total of the first homology arm and the second homology arm is at least 10 kb, and wherein the targeting vector undergoes homologous recombination with the target genomic locus; and (c) identifying at least one cell comprising in its genome the insert polynucleotide integrated at the target genomic locus, wherein integration of the insert polynucleotide introduces a genetic modification comprising deletion of an endogenous nucleic acid sequence and replacement with an exogenous nucleic acid sequence at the target genomic locus,
A method of manufacturing an exhaust gas purifying catalyst, comprising forming a catalytic layer on a substrate using slurry containing a precious metal, alumina, an oxygen storage material, citric acid, and a sulfate of an alkaline-earth metal having an average particle diameter falling within a range of 0.01 to 0.70 μm, the average particle diameter being obtained by observation using a scanning electron microscope, the oxygen storage material being cerium oxide, zirconium oxide, a rare earth oxide, a transition metal oxide, or a composite oxide thereof, and the sulfate of the alkaline-earth metal being a sulfate of barium, calcium, strontium or a combination of two or more of them.
A nacelle wind velocity correction system of a wind power generator, the nacelle wind velocity correction system comprising: a measurement information collection unit that collects a nacelle wind velocity that is measured by a nacelle anemometer that is installed on a nacelle of the wind power generator; a wind velocity difference generator that generates nonlinear wind velocity difference information of a nacelle wind velocity on a unit basis by calculating a wind velocity difference between a standard wind velocity of a met tower that is measured for a predetermined period and the nacelle wind velocity; a correction unit that generates a nonlinear correction equation using the nacelle wind velocity and the nonlinear wind velocity difference information and that calculates a nacelle correction wind velocity according to the nonlinear correction equation; and a controller that controls an operating state of the wind power generator according to a preset cut-in speed and cut-out speed using the nacelle correction wind velocity. a measurement information collection unit that collects a nacelle wind velocity that is measured by a nacelle anemometer that is installed on a nacelle of the wind power generator; a wind velocity difference generator that generates nonlinear wind velocity difference information of a nacelle wind velocity on a unit basis by calculating a wind velocity difference between a standard wind velocity of a met tower that is measured for a predetermined period and the nacelle wind velocity; a correction unit that generates a nonlinear correction equation using the nacelle wind velocity and the nonlinear wind velocity difference information and that calculates a nacelle correction wind velocity according to the nonlinear correction equation; and a controller that controls an operating state of the wind power generator according to a preset cut-in speed and cut-out speed using the nacelle correction wind velocity.
Gripping device for handling product layers, in particular for picking up and transporting a product layer placed on a stack, comprising a Bernoulli gripper with a central outflow opening and a number of pressure elements arranged distributed over the circumference of the Bernoulli gripper, characterized in that a suction bell with an interior space and a lower rim is provided, the Bernoulli gripper being arranged in the interior space of the suction bell and the pressure elements being arranged outside the suction bell, with the pressure elements having a free end, which is flexibly adjustable in the direction of a longitudinal axis of the suction bell, and with the free ends of the pressure elements protruding from a plane of the lower rim in an unloaded state.
A method of wireless communication performed by a user equipment, UE, comprising: transmitting, to a base station, a connection request that indicates a first UE identifier that identifies the UE in a core network; receiving, from the base station, a configuration for preconfigured uplink resources, PUR, wherein the configuration indicates an uplink resource and a PUR identifier that is a different type of identifier than the first UE identifier; and communicating with the base station based at least in part on the configuration. transmitting, to a base station, a connection request that indicates a first UE identifier that identifies the UE in a core network; receiving, from the base station, a configuration for preconfigured uplink resources, PUR, wherein the configuration indicates an uplink resource and a PUR identifier that is a different type of identifier than the first UE identifier; and communicating with the base station based at least in part on the configuration.
Hunting safety equipment destined for being carried by hunters, hunting dogs and/or persons participating in said hunts or on hunting preserve grounds, comprising: - an emitter device configured to emit electromagnetic signals; - a receiver device adapted to detect the electromagnetic signals generated by emitters from other hunters, hunting dogs and/or persons participating in said hunts or on hunting preserve grounds carrying another hunting safety equipment; - a GPS global positioning device for including the geographic position of each hunter (3, 3') in the electromagnetic signal emitted by the emitter; and - a device for estimating the orientation of fire of the hunter for including such orientation in the electromagnetic signal emitted by the emitter; - alarm means associated with the receiver device, adapted to become activated and alert the hunter in the event that said receiver device detects an electromagnetic signal emitted by another hunter indicating that the one of the hunters is in the orientation of fire of the other. - an emitter device configured to emit electromagnetic signals; - a receiver device adapted to detect the electromagnetic signals generated by emitters from other hunters, hunting dogs and/or persons participating in said hunts or on hunting preserve grounds carrying another hunting safety equipment; - a GPS global positioning device for including the geographic position of each hunter (3, 3') in the electromagnetic signal emitted by the emitter; and - a device for estimating the orientation of fire of the hunter for including such orientation in the electromagnetic signal emitted by the emitter; - alarm means associated with the receiver device, adapted to become activated and alert the hunter in the event that said receiver device detects an electromagnetic signal emitted by another hunter indicating that the one of the hunters is in the orientation of fire of the other.
A method of forming an airfoil, comprising: forming a hybrid skin core, a tip flag core, and a trailing edge core, wherein the hybrid skin core, tip flag core, and trailing edge core are connected to form a contiguous first core portion; forming a leading edge core and a serpentine core; assembling the first core portion, the leading edge core, and the serpentine core together to form an airfoil core; and forming an airfoil around the airfoil core; wherein: the hybrid skin core, tip flag core, trailing edge core, leading edge core, and serpentine core are injection molded; and the tip flag core, trailing edge core and hybrid skin core are formed concurrently in a first die. forming a hybrid skin core, a tip flag core, and a trailing edge core, wherein the hybrid skin core, tip flag core, and trailing edge core are connected to form a contiguous first core portion; forming a leading edge core and a serpentine core; assembling the first core portion, the leading edge core, and the serpentine core together to form an airfoil core; and forming an airfoil around the airfoil core; wherein: the hybrid skin core, tip flag core, trailing edge core, leading edge core, and serpentine core are injection molded; and the tip flag core, trailing edge core and hybrid skin core are formed concurrently in a first die. the hybrid skin core, tip flag core, trailing edge core, leading edge core, and serpentine core are injection molded; and the tip flag core, trailing edge core and hybrid skin core are formed concurrently in a first die.
Boat drift wing attaching to a drift arm by a root made by assembling a wing core and an envelope, the wing core gives rigidity, it is made of light metal alloy, it forms a root reservation and it provides a gripping surface for the envelope which is made by 3D printing and which is nested and attached to the wing core to fit the shape of the heart core characterized in that the wing core is formed by the assembly of three machined metal plates (10, 11, 12), overlayed, secured together with in the middle a central core plate which reproduces the design of the wing, gives it its rigidity along its length, the whole wing core is covered in the center with a central envelope (22g, 22d) and outside with an outer envelope (21g, 21d), the central and outer envelopes fit together to form an outer perfectly smooth wing surface.
An article of footwear comprising: an upper; a sole assembly associated with the upper; the sole assembly having a forefoot region, a midfoot region, and a heel region, the sole assembly further including a central support structure disposed longitudinally along the sole assembly from the forefoot region to the heel region; the central support structure being disposed on a bottom surface of the sole assembly and extending away from the bottom surface in a vertical direction; a plurality of stability rib portions disposed in the midfoot region of the sole assembly, the stability rib portions extending away from the central support structure in a lateral direction; and characterized in that at least one stability rib element of the plurality of stability rib portions is disposed at a different height from bottom surface along the central support structure than the remaining stability rib portions. an upper; a sole assembly associated with the upper; the sole assembly having a forefoot region, a midfoot region, and a heel region, the sole assembly further including a central support structure disposed longitudinally along the sole assembly from the forefoot region to the heel region; the central support structure being disposed on a bottom surface of the sole assembly and extending away from the bottom surface in a vertical direction; a plurality of stability rib portions disposed in the midfoot region of the sole assembly, the stability rib portions extending away from the central support structure in a lateral direction; and characterized in that at least one stability rib element of the plurality of stability rib portions is disposed at a different height from bottom surface along the central support structure than the remaining stability rib portions.