mhurhangee/patent-ind-claim-en huggingface dataset:
A steel alloy composition, comprising: 0.36% to 0.60% by weight carbon; 0.30% to 0.70% by weight manganese; 0.001% to 0.017% by weight phosphorus; 0.15% to 0.60% by weight silicon; 1.40% to 2.25% by weight nickel; 0.85% to 1.60% by weight chromium; 0.70% to 1.10% by weight molybdenum; 0.010% to 0.030% by weight aluminum; 0.001% to 0.050% by weight zirconium; 0.0040% to 0.0090% by weight nitrogen; 0.02% to 0.10% by weight vanadium wherein the steel alloy composition optionally comprises 0.001% to 0.012% by weight phosphorus; or wherein the steel alloy composition optionally comprises 0.001% to 0.005% by weight phosphorus; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur, and a maximum of 0.35% by weight copper; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur, a maximum of 0.35% by weight copper. and a maximum of 0.020% by weight titanium; and a balance of iron. 0.36% to 0.60% by weight carbon; 0.30% to 0.70% by weight manganese; 0.001% to 0.017% by weight phosphorus; 0.15% to 0.60% by weight silicon; 1.40% to 2.25% by weight nickel; 0.85% to 1.60% by weight chromium; 0.70% to 1.10% by weight molybdenum; 0.010% to 0.030% by weight aluminum; 0.001% to 0.050% by weight zirconium; 0.0040% to 0.0090% by weight nitrogen; 0.02% to 0.10% by weight vanadium wherein the steel alloy composition optionally comprises 0.001% to 0.012% by weight phosphorus; or wherein the steel alloy composition optionally comprises 0.001% to 0.005% by weight phosphorus; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur, and a maximum of 0.35% by weight copper; or wherein the steel alloy composition optionally comprises a maximum of 0.025% by weight sulfur, a maximum of 0.35% by weight copper. and a maximum of 0.020% by weight titanium; and a balance of iron.
A combustor for a gas turbine engine comprising: a panel with effusion cooling holes extending through said panel , said effusion cooling holes communicating with an inner face of said panel to deliver cooling air to said inner face of said panel, and an outer shell attached to said panel , said outer shell having impingement cooling holes extending to deliver air to a chamber between said outer shell and said panel, and then into said effusion cooling holes; said panel having a pair of circumferential edges, a leading edge and a trailing edge; and there being a nominal average density of effusion cooling hole area per surface area of said panel, and an increased density area of cooling holes adjacent to at least one edge on said panel, said increased density area having a density greater of cooling hole area than said nominal average density, and characterized by an outer face of said panel having a rail, at least at its circumferential edges, and said effusion cooling holes of said increased density area extending from said outer face of said panel to an outlet at said inner face at a location aligned with said rail at said circumferential edges, with said outlets of said effusion cooling holes being spaced closer to said circumferential edges of said panel than said inlets; wherein the term adjacent is defined by being spaced by a distance from said at least one edge equal to or less than ten average diameters of said effusion holes. a panel with effusion cooling holes extending through said panel , said effusion cooling holes communicating with an inner face of said panel to deliver cooling air to said inner face of said panel, and an outer shell attached to said panel , said outer shell having impingement cooling holes extending to deliver air to a chamber between said outer shell and said panel, and then into said effusion cooling holes; said panel having a pair of circumferential edges, a leading edge and a trailing edge; and there being a nominal average density of effusion cooling hole area per surface area of said panel, and an increased density area of cooling holes adjacent to at least one edge on said panel, said increased density area having a density greater of cooling hole area than said nominal average density, and characterized by an outer face of said panel having a rail, at least at its circumferential edges, and said effusion cooling holes of said increased density area extending from said outer face of said panel to an outlet at said inner face at a location aligned with said rail at said circumferential edges, with said outlets of said effusion cooling holes being spaced closer to said circumferential edges of said panel than said inlets; wherein the term adjacent is defined by being spaced by a distance from said at least one edge equal to or less than ten average diameters of said effusion holes.
A computer-implemented system comprising: a logging component configured to log events to a log ; an event provider component configured to use a thread to call the logging component to log an event that occurred in a processing unit handled by the respective event provider component, wherein, when the thread calls the logging component to log the event, the thread is blocked from continuing work on the processing unit that the event is part of until the event has been determined to be logged; and a thread diversion component configured to cause the thread to automatically perform one or more diversion tasks after the thread calls the logging component to log the event, wherein the one or more diversion tasks are context-free or stateless and are not part of the processing unit that the event is part of, wherein, after determining that the event has been logged, the thread continues work on the processing unit that the event is part of, wherein the thread diversion component is further configured to select the one or more diversion tasks from one or more tasks that have a predictable processing time range that is approximately the same or less than an estimated expected latency between the time of the call and the time of the determination that the event has been logged. a logging component configured to log events to a log ; an event provider component configured to use a thread to call the logging component to log an event that occurred in a processing unit handled by the respective event provider component, wherein, when the thread calls the logging component to log the event, the thread is blocked from continuing work on the processing unit that the event is part of until the event has been determined to be logged; and a thread diversion component configured to cause the thread to automatically perform one or more diversion tasks after the thread calls the logging component to log the event, wherein the one or more diversion tasks are context-free or stateless and are not part of the processing unit that the event is part of, wherein, after determining that the event has been logged, the thread continues work on the processing unit that the event is part of, wherein the thread diversion component is further configured to select the one or more diversion tasks from one or more tasks that have a predictable processing time range that is approximately the same or less than an estimated expected latency between the time of the call and the time of the determination that the event has been logged.
A three-dimensional laminating and shaping apparatus for forming an object, the apparatus comprising: a material ejector that ejects a material of the object onto a shaping table; a light beam irradiator that irradiates the ejected material with a light beam to form the object; an image capturer that captures a molten pool formed by irradiating the ejected material with the light beam; a scanning direction determiner that determines a scanning direction of the light beam based on a change in a machine coordinate position of the shaping table, the change being determined by a NC apparatus configured to move the shaping table; and a shape determiner that detects the molten pool based on an image captured by the image capturer and the scanning direction; a shaping controller that controls at least one of an output of the light beam and a scanning speed of the light beam based on the width of the molten pool perpendicular to the determined scanning direction; a shaping model acquirer acquiring the shaping model of the object; a shaping shape determiner that determines a shape of the object formed by the light beam irradiator , based on the derived shapes of the molten pool; and a cutting path decider that decides a cutting path for cutting the formed object by comparing the shaping model with the determined shape of the formed object and by determining a cutting stock for cutting the object (S515). a material ejector that ejects a material of the object onto a shaping table; a light beam irradiator that irradiates the ejected material with a light beam to form the object; an image capturer that captures a molten pool formed by irradiating the ejected material with the light beam; a scanning direction determiner that determines a scanning direction of the light beam based on a change in a machine coordinate position of the shaping table, the change being determined by a NC apparatus configured to move the shaping table; and a shape determiner that detects the molten pool based on an image captured by the image capturer and the scanning direction; a shaping controller that controls at least one of an output of the light beam and a scanning speed of the light beam based on the width of the molten pool perpendicular to the determined scanning direction; a shaping model acquirer acquiring the shaping model of the object; a shaping shape determiner that determines a shape of the object formed by the light beam irradiator , based on the derived shapes of the molten pool; and a cutting path decider that decides a cutting path for cutting the formed object by comparing the shaping model with the determined shape of the formed object and by determining a cutting stock for cutting the object (S515).
A system for controlling a device comprising: a brain scanning device configured to detect one or both of mu and beta rhythms generated in the brain of a user and convert the rhythms into a series of directional intentions defining a line pattern , the line pattern comprising one or more parts (P 1 , P 2 ) each having a defined beginning and ending, each part (P 1 , P 2 ) comprising a plurality of steps, the length of each step corresponding to the duration of a corresponding thought; and a processor configured to process the line pattern by searching a database of pre-defined line patterns each associated with an action of the device , and if a matching pre-determined line pattern is found, output a control signal to said device related to the action. a brain scanning device configured to detect one or both of mu and beta rhythms generated in the brain of a user and convert the rhythms into a series of directional intentions defining a line pattern , the line pattern comprising one or more parts (P 1 , P 2 ) each having a defined beginning and ending, each part (P 1 , P 2 ) comprising a plurality of steps, the length of each step corresponding to the duration of a corresponding thought; and a processor configured to process the line pattern by searching a database of pre-defined line patterns each associated with an action of the device , and if a matching pre-determined line pattern is found, output a control signal to said device related to the action.
A method comprising: determining , based on a radio resource control, RRC, state of a first user equipment and a transmission timing synchronization state of the first user equipment, UE, for a sidelink transmission of the first UE to a second UE, information indicating whether or not a sidelink communication operation of the first UE is allowed in a coverage area of a base station of a mobile communications network , wherein the transmission timing synchronization state is at least defined by at least one timing reference signal the first UE is configured to use; and initiating provision of the information to the first UE . determining , based on a radio resource control, RRC, state of a first user equipment and a transmission timing synchronization state of the first user equipment, UE, for a sidelink transmission of the first UE to a second UE, information indicating whether or not a sidelink communication operation of the first UE is allowed in a coverage area of a base station of a mobile communications network , wherein the transmission timing synchronization state is at least defined by at least one timing reference signal the first UE is configured to use; and initiating provision of the information to the first UE .
System for automatically setting vehicle functions of a vehicle taking into account external influencing factors, comprising: at least one back-end server which is configured: - to receive vehicle data relating to the vehicle ; wherein the vehicle data comprise current emission status data relating to the vehicle , - to determine data with respect to the external influencing factors taking into account at least some of the vehicle data; - to determine optimum settings of vehicle functions of the vehicle taking into account the vehicle data and the data with respect to the external influencing factors; and - to transmit the optimum settings of the vehicle functions to the vehicle ; wherein the vehicle is configured to control the vehicle functions in such a manner that the determined optimum vehicle functions are adopted, characterized in that the vehicle functions comprise a maximum speed which is needed to circumvent up-to-date driving restrictions in environmental zones for emitting and/or highly emitting vehicles, and wherein the emission status data comprise data relating to the vehicle emission of the vehicle with respect to the driving speed. at least one back-end server which is configured: - to receive vehicle data relating to the vehicle ; wherein the vehicle data comprise current emission status data relating to the vehicle , - to determine data with respect to the external influencing factors taking into account at least some of the vehicle data; - to determine optimum settings of vehicle functions of the vehicle taking into account the vehicle data and the data with respect to the external influencing factors; and - to transmit the optimum settings of the vehicle functions to the vehicle ; - to receive vehicle data relating to the vehicle ; wherein the vehicle data comprise current emission status data relating to the vehicle , - to determine data with respect to the external influencing factors taking into account at least some of the vehicle data; - to determine optimum settings of vehicle functions of the vehicle taking into account the vehicle data and the data with respect to the external influencing factors; and - to transmit the optimum settings of the vehicle functions to the vehicle ; wherein the vehicle is configured to control the vehicle functions in such a manner that the determined optimum vehicle functions are adopted, characterized in that the vehicle functions comprise a maximum speed which is needed to circumvent up-to-date driving restrictions in environmental zones for emitting and/or highly emitting vehicles, and wherein the emission status data comprise data relating to the vehicle emission of the vehicle with respect to the driving speed.
An infusion set for removable installation onto the skin of a user and for use with a fluid infusion device having a fluid reservoir, the infusion set comprising: a cannula that provides a fluid flow path; an inner housing including an articulation member, coupled to the cannula, the articulation member pivotable relative to the inner housing to move the cannula relative to the inner housing, and the inner housing is coupled to a first end of a fluid supply line to provide a fluid to the cannula, a second end of the fluid supply line to be coupled to the fluid reservoir to receive the fluid; and an outer housing uncoupled from the inner housing that surrounds the inner housing and receives a portion of the fluid supply line such that any strain imparted to the fluid supply line will be dissipated by the outer housing. a cannula that provides a fluid flow path; an inner housing including an articulation member, coupled to the cannula, the articulation member pivotable relative to the inner housing to move the cannula relative to the inner housing, and the inner housing is coupled to a first end of a fluid supply line to provide a fluid to the cannula, a second end of the fluid supply line to be coupled to the fluid reservoir to receive the fluid; and an outer housing uncoupled from the inner housing that surrounds the inner housing and receives a portion of the fluid supply line such that any strain imparted to the fluid supply line will be dissipated by the outer housing.
A semiconductor die , comprising: a transformer including a first winding and a second winding, wherein: the first winding includes a first terminal electrically coupled to a first external die terminal and a second terminal electrically coupled to a second external die terminal ; and the second winding includes a third terminal , a fourth terminal , and a center tap , wherein: the third terminal and the fourth terminal are electrically coupled to internal circuitry of the semiconductor die; a first electrostatic discharge (ESD) clamp circuit including a fifth terminal electrically coupled to the center tap of the second winding and a sixth terminal electrically coupled to a supply rail , wherein the ESD clamp circuit when made conductive during an ESD event, discharges ESD current between the center tap and the supply rail; wherein the first winding includes a center tap ; wherein the semiconductor die includes a second ESD clamp circuit including a seventh terminal electrically coupled to the center tap of the first winding and an eighth terminal electrically coupled to the supply rail, wherein the second ESD clamp circuit when made conductive during an ESD event affecting at least one of the first external die terminal and the second external die terminal, discharges ESD current between the center tap of the first winding and the supply rail. a transformer including a first winding and a second winding, wherein: the first winding includes a first terminal electrically coupled to a first external die terminal and a second terminal electrically coupled to a second external die terminal ; and the second winding includes a third terminal , a fourth terminal , and a center tap , wherein: the third terminal and the fourth terminal are electrically coupled to internal circuitry of the semiconductor die; the first winding includes a first terminal electrically coupled to a first external die terminal and a second terminal electrically coupled to a second external die terminal ; and the second winding includes a third terminal , a fourth terminal , and a center tap , wherein: the third terminal and the fourth terminal are electrically coupled to internal circuitry of the semiconductor die; a first electrostatic discharge (ESD) clamp circuit including a fifth terminal electrically coupled to the center tap of the second winding and a sixth terminal electrically coupled to a supply rail , wherein the ESD clamp circuit when made conductive during an ESD event, discharges ESD current between the center tap and the supply rail; wherein the first winding includes a center tap ; wherein the semiconductor die includes a second ESD clamp circuit including a seventh terminal electrically coupled to the center tap of the first winding and an eighth terminal electrically coupled to the supply rail, wherein the second ESD clamp circuit when made conductive during an ESD event affecting at least one of the first external die terminal and the second external die terminal, discharges ESD current between the center tap of the first winding and the supply rail.
Use of a cardboard support element for preventing or reducing a risk of accidental opening of a cardboard container, the support element comprising: - a cardboard structure extending away from a base plane; and - a first flap connected to the cardboard structure and extended in a direction normal to the base plane, whereby the cardboard structure corresponds to a portion of a prism or to a portion of a cylinder, an axis of the cylinder or prism being parallel to the base plane. - a cardboard structure extending away from a base plane; and - a first flap connected to the cardboard structure and extended in a direction normal to the base plane, whereby the cardboard structure corresponds to a portion of a prism or to a portion of a cylinder, an axis of the cylinder or prism being parallel to the base plane.
An imaging system configured to be positioned relative to a subject to acquire image data of the subject, comprising: a detector configured to detect an energy to generate image data; a gantry having at least a first fixed dimension segment and a second telescoping segment, wherein the second telescoping segment is configured to move relative to the first fixed dimension segment to change a dimension of the gantry ; and a cart configured to carry the gantry and to which the first fixed dimension segment is fixed; wherein the second telescoping segment includes an outer wall with a configuration to taper from a wide dimension to a narrow dimension, wherein a portion of the outer wall with a wide dimension remains within the first fixed dimension segment; wherein the detector is configured to move within the gantry to a selected location. a detector configured to detect an energy to generate image data; a gantry having at least a first fixed dimension segment and a second telescoping segment, wherein the second telescoping segment is configured to move relative to the first fixed dimension segment to change a dimension of the gantry ; and a cart configured to carry the gantry and to which the first fixed dimension segment is fixed; wherein the second telescoping segment includes an outer wall with a configuration to taper from a wide dimension to a narrow dimension, wherein a portion of the outer wall with a wide dimension remains within the first fixed dimension segment; wherein the detector is configured to move within the gantry to a selected location.
A ceramic shaped abrasive particle bounded by: a base surface having a perimeter; contiguous sidewalls abutting the perimeter, wherein each of the contiguous sidewalls abuts the perimeter, wherein collectively the contiguous sidewalls abut the perimeter in its entirety, and wherein adjacent pairs of the contiguous sidewalls abut each other along respective corner edges; and a multifaceted surface comprising contiguous facets, wherein the multifaceted surface is spaced apart from the base surface by the contiguous sidewalls, and wherein at least one V-shaped groove extends from a first one of the corner edges across the multifaceted surface to one of the contiguous sidewalls that does not contact the first one of the corner edges; and wherein, on a total area basis, less than ten percent of the multifaceted surface is parallel to the base surface. a base surface having a perimeter; contiguous sidewalls abutting the perimeter, wherein each of the contiguous sidewalls abuts the perimeter, wherein collectively the contiguous sidewalls abut the perimeter in its entirety, and wherein adjacent pairs of the contiguous sidewalls abut each other along respective corner edges; and a multifaceted surface comprising contiguous facets, wherein the multifaceted surface is spaced apart from the base surface by the contiguous sidewalls, and wherein at least one V-shaped groove extends from a first one of the corner edges across the multifaceted surface to one of the contiguous sidewalls that does not contact the first one of the corner edges; and wherein, on a total area basis, less than ten percent of the multifaceted surface is parallel to the base surface.