mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a laser cutting process in a high-energy zone higher than 1 kW average power, wherein, after the interruption and/or completion of a cutting process carried out with predetermined cutting parameters, an automated quality control is performed, characterised in that the cutting process is interrupted after a first partial machining operation, in that at least a section (K1,...KX) of the machining section that was cut in the course of the first partial machining operation is scanned, preferably near or on the same machining path, preferably at a higher speed than the one used for laser cutting the first partial machining operation, and in that, based on the scan result, a plurality of quality characteristics of the machining result is automatically determined, wherein the plurality of quality characteristics is selected from: a dross residue in a cutting gap on the machining path, not completely cut-through contour areas, a cutting gap width, or a cutting edge roughness, and wherein the plurality of quality characteristics are compared with predefined quality standards, and in that, depending on the result of the comparison, at least one of the following actions is performed: outputting an error message, aborting the cutting process, adjusting at least one of the cutting parameters, reworking of one or more fault locations, continuing the cutting process, preferably with a changed set of cutting parameters.
A device for supporting spring-damper assemblies for machines for assembling/disassembling vehicle suspensions, of the type comprising a frame for supporting presser means for the compression/release of the spring of a spring-damper assembly, the device comprising a connecting element which can be associated with the frame of said machine and means for supporting a pair of jaws which can move in an alternating manner mutually closer/apart and are adapted to form a resting surface of the lower turn of a spring of a spring-damper assembly, the supporting means of said jaws being associated with the connecting element so as to be orientable around a substantially horizontal rotation axis, characterized in that it comprises a pair of inserts which can be associated detachably with the mutually facing internal edges of said jaws for fastening a stem of a damper of a spring-damper assembly.
A method in a network node, comprising: determining a mapping between one or more types of traffic and one or more classes; and communicating an indicator to a wireless device, wherein the indicator indicates to use the mapping to determine which of the classes to use during a listen before-talk procedure for determining whether the wireless device can transmit in a channel, wherein the one or more classes comprises a first class that the mapping associates with a first type of traffic and a second class that the mapping associates with a second type of traffic, the first class providing a higher likelihood of acquiring the channel than the second class, and the indicator indicates to use the first class for a transmission that includes the first type of traffic and to use the second class for a transmission that includes the second type of traffic. determining a mapping between one or more types of traffic and one or more classes; and communicating an indicator to a wireless device, wherein the indicator indicates to use the mapping to determine which of the classes to use during a listen before-talk procedure for determining whether the wireless device can transmit in a channel, wherein the one or more classes comprises a first class that the mapping associates with a first type of traffic and a second class that the mapping associates with a second type of traffic, the first class providing a higher likelihood of acquiring the channel than the second class, and the indicator indicates to use the first class for a transmission that includes the first type of traffic and to use the second class for a transmission that includes the second type of traffic.
A nuclear power generation system comprising: a reactor pressure vessel having a reactor core; a pressuriser in fluid communication with the reactor pressure vessel; and a coolant injection system, the coolant injection system comprising a make-up tank having a tank inlet and a tank outlet, wherein the coolant injection system is configured to switch between an operating condition and a fault response condition, characterized in that in the operating condition, the tank outlet is isolated from the reactor pressure vessel such that coolant is retained in the make-up tank, and the tank inlet is in fluid communication with the reactor pressure vessel and the pressuriser; and in the fault response condition when the coolant level in the pressuriser drops below a threshold level, the tank inlet is isolated from the reactor pressure vessel, the tank outlet is in fluid communication with the reactor pressure vessel such that coolant from the make-up tank can flow into the reactor pressure vessel to provide cooling of the reactor core, and the tank inlet is in fluid communication with the pressuriser such that residual pressure in the pressuriser can drive coolant from the make-up tank into the reactor pressure vessel. a reactor pressure vessel having a reactor core; a pressuriser in fluid communication with the reactor pressure vessel; and a coolant injection system, the coolant injection system comprising a make-up tank having a tank inlet and a tank outlet, wherein the coolant injection system is configured to switch between an operating condition and a fault response condition, characterized in that in the operating condition, the tank outlet is isolated from the reactor pressure vessel such that coolant is retained in the make-up tank, and the tank inlet is in fluid communication with the reactor pressure vessel and the pressuriser; and in the fault response condition when the coolant level in the pressuriser drops below a threshold level, the tank inlet is isolated from the reactor pressure vessel, the tank outlet is in fluid communication with the reactor pressure vessel such that coolant from the make-up tank can flow into the reactor pressure vessel to provide cooling of the reactor core, and the tank inlet is in fluid communication with the pressuriser such that residual pressure in the pressuriser can drive coolant from the make-up tank into the reactor pressure vessel.
A method for controlling a hydrogen fuel cell system, comprising a plurality of hydrogen fuel cell devices, wherein said hydrogen fuel cell system is arranged for providing power to an electrical motor by each of said hydrogen fuel cell devices, each of said hydrogen fuel cell devices comprising a plurality of hydrogen fuel cell stacks, and a controller, wherein said plurality of controllers of each of said hydrogen fuel cell devices are interconnected, said method comprising the steps of: - detecting, by each of said controllers separately, a total amount of power required to be provided by said hydrogen fuel cell system; - determining, by each of said controllers separately, a fuel cell device power for its corresponding fuel cell device based on said detected total amount of power and an amount of hydrogen fuel cell devices; - controlling, by each of said controllers separately, its corresponding fuel cell device to provide said fuel cell device power; - detecting, by at least one of said plurality of controllers, a deficiency in said total amount of power provided by said plurality of interconnected hydrogen fuel cell devices; - determining, by said at least one of said plurality of controllers, a fuel cell device deficiency power for resolving said detected deficiency in said total amount of power, based on said amount of hydrogen fuel cell devices; - controlling, by said at least one of said plurality of controllers, its corresponding fuel cell device to increase its provided power by said fuel cell device deficiency power. - detecting, by each of said controllers separately, a total amount of power required to be provided by said hydrogen fuel cell system; - determining, by each of said controllers separately, a fuel cell device power for its corresponding fuel cell device based on said detected total amount of power and an amount of hydrogen fuel cell devices; - controlling, by each of said controllers separately, its corresponding fuel cell device to provide said fuel cell device power; - detecting, by at least one of said plurality of controllers, a deficiency in said total amount of power provided by said plurality of interconnected hydrogen fuel cell devices; - determining, by said at least one of said plurality of controllers, a fuel cell device deficiency power for resolving said detected deficiency in said total amount of power, based on said amount of hydrogen fuel cell devices; - controlling, by said at least one of said plurality of controllers, its corresponding fuel cell device to increase its provided power by said fuel cell device deficiency power.
A composition comprising an active dry yeast evenly coated with a bacterial biomass consisting of bacteria belonging to the genera Lactobacillus, Pediococcus, Streptococcus, Leuconostoc, Lactococcus, Bifidobacterium, Propionibacterium and/or Bacillus, said biomass representing from 10% to 30% by dry matter of the total dry matter of the coated yeast (W/W).
A hyperspectral imaging system comprising: a hyperspectral sensor configured to capture hyperspectral images; one or more processors configured to identify targets and potential targets within the hyperspectral images; a filter configured to filtering the hyperspectral images to determine potential targets, the filter configured to receive a matrix comprising background spectral statistical values of the hyperspectral images, to receive a reference vector comprising values for wavelengths representative of a target, and to determine scalar detection results from the hyperspectral images; characterised in that it further comprises an adaptive spatial filter configured to filter further the hyperspectral images to recover target energy blurred across multiple pixels using the scalar detection results, the matrix, and a sensor point spread function for a portion of the scene near the potential targets, to identify targets based on the potential targets, the targets having known spectral characteristics. a hyperspectral sensor configured to capture hyperspectral images; one or more processors configured to identify targets and potential targets within the hyperspectral images; a filter configured to filtering the hyperspectral images to determine potential targets, the filter configured to receive a matrix comprising background spectral statistical values of the hyperspectral images, to receive a reference vector comprising values for wavelengths representative of a target, and to determine scalar detection results from the hyperspectral images; characterised in that it further comprises an adaptive spatial filter configured to filter further the hyperspectral images to recover target energy blurred across multiple pixels using the scalar detection results, the matrix, and a sensor point spread function for a portion of the scene near the potential targets, to identify targets based on the potential targets, the targets having known spectral characteristics.
Method for determining the position and/or movement of objects in the surroundings of a movement aid by means of sound signals that are emitted in pulse form and that are reflected at at least one object, wherein a current strength of at least one received reflected sound signal, referred to below as an echo pulse, is evaluated by means of an echo pulse threshold l ( τ), characterized in that an echo pulse is acknowledged as a valid echo pulse for further processing if the temporal sum of the echo pulse threshold l ( τ) being overshot by the curve of the echo amplitude r̂ ( τ) in the surroundings of one or more brief notches, which are represented by the echo pulse threshold l ( τ) being undershot by the echo amplitude curve r̂ ( τ), is greater than a predetermined time period T min plus the sum of the durations of the one or more undershoots, wherein an evaluation quantity Z ( τ) is modified in time-proportional fashion depending on the current strength of the echo pulse by virtue of, after the echo pulse threshold l ( τ) being overshot for the first time by the echo pulse, the evaluation quantity Z ( τ) being modified, starting from an initial quantity Z off, in the direction of a maximum final quantity Z on as long as the maximum final quantity Z on has not been reached and the strength of the echo pulse overshoots the echo pulse threshold l ( τ), and the evaluation quantity Z ( τ) being modified in the direction from the maximum final quantity Z on to the initial quantity Z off as long as the initial quantity Z off has not been reached again and the current strength of the echo pulse undershoots the echo pulse threshold l ( τ). an echo pulse is acknowledged as a valid echo pulse for further processing if the temporal sum of the echo pulse threshold l ( τ) being overshot by the curve of the echo amplitude r̂ ( τ) in the surroundings of one or more brief notches, which are represented by the echo pulse threshold l ( τ) being undershot by the echo amplitude curve r̂ ( τ), is greater than a predetermined time period T min plus the sum of the durations of the one or more undershoots, wherein an evaluation quantity Z ( τ) is modified in time-proportional fashion depending on the current strength of the echo pulse by virtue of, after the echo pulse threshold l ( τ) being overshot for the first time by the echo pulse, the evaluation quantity Z ( τ) being modified, starting from an initial quantity Z off, in the direction of a maximum final quantity Z on as long as the maximum final quantity Z on has not been reached and the strength of the echo pulse overshoots the echo pulse threshold l ( τ), and the evaluation quantity Z ( τ) being modified in the direction from the maximum final quantity Z on to the initial quantity Z off as long as the initial quantity Z off has not been reached again and the current strength of the echo pulse undershoots the echo pulse threshold l ( τ).
An epitaxial growth apparatus, comprising: a reaction chamber defined by a substrate mounting portion on which a substrate is mounted, a ceiling plate with optical transparency and a sidewall portion; a heating means which is mounted outside said reaction chamber and heats the substrate mounted in said reaction chamber through said ceiling plate; and a reaction gas introducing means which introduces a reaction gas parallel to a horizontal direction of the substrate into said reaction chamber, characterized in that: a distance between a center of said ceiling plate and the substrate mounted on said substrate mounting portion is configured to be less than 10 mm; and a susceptor ring is provided in an outer periphery of said substrate mounting portion; and the susceptor ring consists of: a first ring portion provided to be spaced apart with respect to an outer periphery of the substrate mounting portion; and a second ring portion provided in an inner peripheral side of said first ring portion and placed in an opened recess. a reaction chamber defined by a substrate mounting portion on which a substrate is mounted, a ceiling plate with optical transparency and a sidewall portion; a heating means which is mounted outside said reaction chamber and heats the substrate mounted in said reaction chamber through said ceiling plate; and a reaction gas introducing means which introduces a reaction gas parallel to a horizontal direction of the substrate into said reaction chamber, characterized in that: a distance between a center of said ceiling plate and the substrate mounted on said substrate mounting portion is configured to be less than 10 mm; and a susceptor ring is provided in an outer periphery of said substrate mounting portion; and the susceptor ring consists of: a first ring portion provided to be spaced apart with respect to an outer periphery of the substrate mounting portion; and a second ring portion provided in an inner peripheral side of said first ring portion and placed in an opened recess. a distance between a center of said ceiling plate and the substrate mounted on said substrate mounting portion is configured to be less than 10 mm; and a susceptor ring is provided in an outer periphery of said substrate mounting portion; and the susceptor ring consists of: a first ring portion provided to be spaced apart with respect to an outer periphery of the substrate mounting portion; and a second ring portion provided in an inner peripheral side of said first ring portion and placed in an opened recess.
An adjustable toe board, comprising: a baseplate having: a first end, a second end, and a rod extending from the baseplate, characterized by a support bar pivotably coupled to the baseplate proximate the first end, spaced apart from the rod, and extending towards the second end, the support bar configured to support a log; a ratcheting arm having a first arm end pivotably coupled to the support bar, the ratcheting arm having a plurality of spaced-apart teeth defining notches adapted and positioned between the first arm end and a second arm end to selectively engage with the rod; wherein selective engagement of the teeth with the rod enables pivotal adjustment and releasable locking of the support bar relative to the baseplate during operation. a first end, a second end, and a rod extending from the baseplate, characterized by a support bar pivotably coupled to the baseplate proximate the first end, spaced apart from the rod, and extending towards the second end, the support bar configured to support a log; a ratcheting arm having a first arm end pivotably coupled to the support bar, the ratcheting arm having a plurality of spaced-apart teeth defining notches adapted and positioned between the first arm end and a second arm end to selectively engage with the rod; wherein selective engagement of the teeth with the rod enables pivotal adjustment and releasable locking of the support bar relative to the baseplate during operation.
A system comprising: a luminaire including, a housing, and a light emitting element supported on the housing, the light emitting element configured to be in electrical communication with a power source; an input/output device supported on the housing and configured to detect activity in an area proximate the luminaire, the input/output device including a camera having a lens; and a controller in communication with the input/output device, the controller including an electronic processor and memory, characterized in that the input/output device is configured to detect an amount of interaction in the area proximate the luminaire, and the processor receives the information and generates a map of the area proximate the luminaire with variations in the amount of interaction represented by different colored regions. a luminaire including, a housing, and a light emitting element supported on the housing, the light emitting element configured to be in electrical communication with a power source; a housing, and a light emitting element supported on the housing, the light emitting element configured to be in electrical communication with a power source; an input/output device supported on the housing and configured to detect activity in an area proximate the luminaire, the input/output device including a camera having a lens; and a controller in communication with the input/output device, the controller including an electronic processor and memory, characterized in that the input/output device is configured to detect an amount of interaction in the area proximate the luminaire, and the processor receives the information and generates a map of the area proximate the luminaire with variations in the amount of interaction represented by different colored regions.
A computing device (100, 200, 300, 400, 600) comprising: a housing (214, 314, 414, 614, 714, 814) including an outer surface; an electronic component (216, 316) positioned in the housing; a stand (210, 410, 610, 810) that supports the housing; and a connection port (102, 202, 302, 402, 502, 602, 702, 802) positioned proximate the outer surface of the housing, wherein the connection port is in electrical communication with the electronic component, and the connection port is moveable relative to the housing to change a port angle (528, 628, 828) of the connection port relative to the outer surface of the housing when a housing angle of the housing changes relative to the stand, wherein the connection port is movable through a range of motion (324, 524) greater than 100° relative to the outer surface of the housing; wherein the port angle relative to the housing is configured to change in response to a movement of the housing relative to the stand for preventing damage to the connection port and/or an external cable connected to the connection port (102, 202, 302, 402, 502, 602, 702, 802) during use. a housing (214, 314, 414, 614, 714, 814) including an outer surface; an electronic component (216, 316) positioned in the housing; a stand (210, 410, 610, 810) that supports the housing; and a connection port (102, 202, 302, 402, 502, 602, 702, 802) positioned proximate the outer surface of the housing, wherein the connection port is in electrical communication with the electronic component, and the connection port is moveable relative to the housing to change a port angle (528, 628, 828) of the connection port relative to the outer surface of the housing when a housing angle of the housing changes relative to the stand, wherein the connection port is movable through a range of motion (324, 524) greater than 100° relative to the outer surface of the housing; wherein the port angle relative to the housing is configured to change in response to a movement of the housing relative to the stand for preventing damage to the connection port and/or an external cable connected to the connection port (102, 202, 302, 402, 502, 602, 702, 802) during use.
A footwear comprising: at least one outsole comprising a plurality of housings for mounting at least one vamp; at least one vamp comprising mounting regions (1.1) arranged in the interior of the housings of the outsole and at a lower part of the outsole; at least one fastening element, associated with the vamp, comprising at least one base and at least one projection; said projection comprising a first portion (4.1), fixed to the base of the fastening element, and a second end (4.2) in balance; wherein a region formed between the base and the projection defines a confinement region for the mounting region (1.1) of the vamp, said mounting region (1.1) being confined in said confinement region; wherein the mounting region (1.1) of the vamp has an opening (1.2) for mounting the projection of the fastening element, said projection being mounted in the interior of said opening (1.2). at least one outsole comprising a plurality of housings for mounting at least one vamp; at least one vamp comprising mounting regions (1.1) arranged in the interior of the housings of the outsole and at a lower part of the outsole; at least one fastening element, associated with the vamp, comprising at least one base and at least one projection; said projection comprising a first portion (4.1), fixed to the base of the fastening element, and a second end (4.2) in balance; wherein a region formed between the base and the projection defines a confinement region for the mounting region (1.1) of the vamp, said mounting region (1.1) being confined in said confinement region; wherein the mounting region (1.1) of the vamp has an opening (1.2) for mounting the projection of the fastening element, said projection being mounted in the interior of said opening (1.2).