mhurhangee/ep-ind-claims huggingface dataset:
A metal mask material, the metal mask material is characterised by including, by mass%, C: 0.01% or less, Si: 0.5% or less, Mn: 1.0% or less, and Ni: 30 to 50%, with the balance being made up of Fe and inevitable impurities, wherein for the metal mask material, both a surface roughness in a rolling direction and a surface roughness in a direction perpendicular to the rolling direction have an arithmetic average roughness Ra of 0.05 μm or more and 0.25 μm or less and a maximum height Rz of 1.5 μm or less, and a skewness Rsk is less than 0, and wherein, when a sample with a length of 150 mm and a width of 30 mm is cut out from the metal mask material and 60% of the plate thickness of the sample is removed by etching the sample from one side, an amount of warpage is 15 mm or less, and the plate thickness is 0.01 mm or more and less than 0.10 mm.
An augment device for a joint endoprosthesis, in particular a tibial augment for a knee joint endoprosthesis, comprising a sleeve having a sleeve top and a sleeve bottom, a distance between the sleeve top and the sleeve bottom being an entire height of the sleeve, wherein the sleeve surrounds a channel extending through the sleeve from the sleeve top to the sleeve bottom, the sleeve being formed of a porous material which is configured for ingrowth of bony material, the sleeve comprising an inner face and an outer face, the inner face defining the channel and a distance between the inner face and the outer face defining a thickness, wherein the sleeve further comprises a wall surrounding the channel, the wall being made of solid material configured for blocking cement flow between the inner face and the outer face, characterized in that the wall further comprises an inner porous material on the inner face of the sleeve, wherein the wall is located at an intermediate position along a direction of the thickness such that the porous material is formed on an inward facing and outward facing side of the wall. a sleeve having a sleeve top and a sleeve bottom, a distance between the sleeve top and the sleeve bottom being an entire height of the sleeve, wherein the sleeve surrounds a channel extending through the sleeve from the sleeve top to the sleeve bottom, the sleeve being formed of a porous material which is configured for ingrowth of bony material, the sleeve comprising an inner face and an outer face, the inner face defining the channel and a distance between the inner face and the outer face defining a thickness, wherein the sleeve further comprises a wall surrounding the channel, the wall being made of solid material configured for blocking cement flow between the inner face and the outer face, characterized in that the wall further comprises an inner porous material on the inner face of the sleeve, wherein the wall is located at an intermediate position along a direction of the thickness such that the porous material is formed on an inward facing and outward facing side of the wall.
Furnace muffle for an annealing furnace with a base body which is set up so that it delimits a volume to be heated, wherein that the furnace muffle further comprises at least one actuator (60, 61, 66, 67), which is connected in such a manner to the base body that the actuator (60, 61, 66, 67), during the operation of the furnace muffle, can exert a force on the base body, at least one sensor, which is arranged and set up so that it detects a force exerted by the base body during heating or cooling and/or a change in the length of the base body during the heating or cooling, a control device connected to the actuator (60, 61, 66, 67) and to the sensor, which is set up so that, during the operation of the furnace muffle, the control device controls the force exerted by the actuator (60, 61, 66, 67) on the base body as a function of the force or the change in length detected by the sensor. characterized in that the actuator (60, 61, 66, 67) comprises a sensor, which, during the operation of the furnace muffle, detects the actual value of the force exerted by the actuator (60, 61, 66, 67) on the base body, or a parameter which is a measure for the actual value of the force exerted by the actuator (60, 61, 66, 67) on the base body; and in that the actuator (60, 61, 66, 67) is a pneumatic or hydraulic actuator with a piston guided in a cylinder, wherein the piston is connected to the base body, wherein the pressure in the interior of the cylinder can be set via a control valve connected to the control device, wherein the sensor, for the purpose of detecting a change in the length of the base body, is a position encoder for detecting an actual position of the piston, and in that the control device is set up so that it calculates a target pressure in the interior of the cylinder as a function of the actual position of the piston and sets the target pressure in the interior of the cylinder by actuating the control valve; and in that the actuator (60, 61, 66, 67) comprises a pressure sensor connected to the control device, wherein the pressure sensor is arranged and set up so that it detects the actual pressure in the interior of the cylinder, and in that the control device is set up so that, during the operation of the furnace muffle, it adjusts the control valve of the actuator (60, 61, 66, 67) so that the actual pressure in the interior of the cylinder is substantially equal to the target pressure. at least one actuator (60, 61, 66, 67), which is connected in such a manner to the base body that the actuator (60, 61, 66, 67), during the operation of the furnace muffle, can exert a force on the base body, at least one sensor, which is arranged and set up so that it detects a force exerted by the base body during heating or cooling and/or a change in the length of the base body during the heating or cooling, a control device connected to the actuator (60, 61, 66, 67) and to the sensor, which is set up so that, during the operation of the furnace muffle, the control device controls the force exerted by the actuator (60, 61, 66, 67) on the base body as a function of the force or the change in length detected by the sensor.
A paper surface detection apparatus for detecting a condition of fibers of a paper surface, comprising: irradiating means that irradiates a light onto the paper surface; and reading means that reads said condition of fibers of a paper surface as an image by receiving a light reflected at a photographed portion as a part of the paper surface, the photographed portion being irradiated by the light irradiated from said irradiating means; characterized by detecting means that detects information regarding concave and convex portions on the paper surface showing a condition of the fibers of the paper surface at the photographed portion based on said image read by said reading means; wherein said irradiating means is provided at a position away from the photographed portion, and a light-incident direction from said irradiating means to a paper is oblique to a conveyance direction of the paper in a case of being viewed from a direction perpendicular to a photographed surface including said photographed portion, thereby the light-incident direction intersects obliquely an orientation direction of fibers of the paper surface. irradiating means that irradiates a light onto the paper surface; and reading means that reads said condition of fibers of a paper surface as an image by receiving a light reflected at a photographed portion as a part of the paper surface, the photographed portion being irradiated by the light irradiated from said irradiating means;
A flame retardant resin composition comprising: 1 to 100 parts by weight of an organophosphorus compound (component B) presented by the following formula per 100 parts by weight of a resin component (component A) containing at least 60 wt% of an acrylic resin, (wherein X 1 and X 2 are the same or different, and represent alkyl groups substituted with aromatic groups represented by the following formula:) [Chem. 2] (̵AL)̵(̵Ar) n ··· (wherein AL represents a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar represents a phenyl group, a naphthyl group or an anthryl group each optionally substituted, n represents an integer of 1 to 3, and Ar can be bonded to any carbon atom in AL.); wherein the acrylic resin in component A is a thermoplastic acrylic resin that complies with JIS K7210 and has a melt flow rate, measured at 230°C under a load of 3.8 kg, of 0.5 to 30 g/10 min. (wherein AL represents a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar represents a phenyl group, a naphthyl group or an anthryl group each optionally substituted, n represents an integer of 1 to 3, and Ar can be bonded to any carbon atom in AL.); wherein the acrylic resin in component A is a thermoplastic acrylic resin that complies with JIS K7210 and has a melt flow rate, measured at 230°C under a load of 3.8 kg, of 0.5 to 30 g/10 min.
A printer, comprising: a printer main block, the printer main block including: a frame; a print head provided on the frame, for printing information on recording paper; and a platen roller rotatably provided on the frame; the printer further comprising: a movable-blade block detachably attachable to the frame, the movable-blade block including a movable blade; a fixed-blade block detachably attachable to the frame so as to face the movable-blade block with the printer main block provided between the movable-blade block and the fixed-blade block, the fixed-blade block including a fixed blade; a feed driving block detachably attachable to a first longitudinal end of the frame, the feed driving block includes a feed driving motor for rotating the platen roller to feed the recording paper, and a first transmission for transmitting rotation of the feed driving motor to the platen roller; and a movable-blade driving block detachably attachable to a second longitudinal end of the frame, the movable-blade driving block includes a movable-blade driving motor for moving the movable blade, and a second transmission for transmitting rotation of the movable-blade driving motor to the movable blade, the printer including a function to cut the recording paper with the fixed blade and the movable blade. a printer main block, the printer main block including: a frame; a print head provided on the frame, for printing information on recording paper; and a platen roller rotatably provided on the frame; the printer further comprising: a frame; a print head provided on the frame, for printing information on recording paper; and a platen roller rotatably provided on the frame; the printer further comprising: a movable-blade block detachably attachable to the frame, the movable-blade block including a movable blade; a fixed-blade block detachably attachable to the frame so as to face the movable-blade block with the printer main block provided between the movable-blade block and the fixed-blade block, the fixed-blade block including a fixed blade; a feed driving block detachably attachable to a first longitudinal end of the frame, the feed driving block includes a feed driving motor for rotating the platen roller to feed the recording paper, and a first transmission for transmitting rotation of the feed driving motor to the platen roller; and a movable-blade driving block detachably attachable to a second longitudinal end of the frame, the movable-blade driving block includes a movable-blade driving motor for moving the movable blade, and a second transmission for transmitting rotation of the movable-blade driving motor to the movable blade,
A safety instrument system comprising: a positioner for controlling the degree of opening of an emergency cutoff valve that is provided in a pipe in a plant; and a higher-level system for controlling a partial stroke test, PST, (100-1, 100-2) of the emergency cutoff valve, wherein: the positioner comprises: a PST executing portion for executing a PST in the emergency cutoff valve in response to an initiating instruction from the higher-level system or an initiating instruction from an inputting device in the workplace where the positioner is provided; characterised in that the positioner further comprises: a timer for measuring elapsed time from the completion of a PST on the emergency cutoff valve; and a PST initiation prohibition evaluating portion for evaluating whether or not a PST initiation is permitted, by comparing elapsed time from the previous PST, to a PST minimum interval that is set in advance, when a PST initiating instruction has been received from the higher-level system or from the inputting device. a positioner for controlling the degree of opening of an emergency cutoff valve that is provided in a pipe in a plant; and a higher-level system for controlling a partial stroke test, PST, (100-1, 100-2) of the emergency cutoff valve, wherein: the positioner comprises: a PST executing portion for executing a PST in the emergency cutoff valve in response to an initiating instruction from the higher-level system or an initiating instruction from an inputting device in the workplace where the positioner is provided; the positioner comprises: a PST executing portion for executing a PST in the emergency cutoff valve in response to an initiating instruction from the higher-level system or an initiating instruction from an inputting device in the workplace where the positioner is provided; a PST executing portion for executing a PST in the emergency cutoff valve in response to an initiating instruction from the higher-level system or an initiating instruction from an inputting device in the workplace where the positioner is provided; a timer for measuring elapsed time from the completion of a PST on the emergency cutoff valve; and a PST initiation prohibition evaluating portion for evaluating whether or not a PST initiation is permitted, by comparing elapsed time from the previous PST, to a PST minimum interval that is set in advance, when a PST initiating instruction has been received from the higher-level system or from the inputting device.
A method of controlling a voltage source converter to energise a DC link comprising: controlling the voltage source converter to generate a DC voltage on the DC link based on a voltage order (V ord); and monitoring DC current flow to determine an indication of current oscillation; characterised in that the voltage order (V ord) is based on a time varying voltage reference signal (R v) that increases from an initial value corresponding to the voltage of the DC link when the VSC is deblocked to a final value corresponding to the nominal operating voltage of the DC link, wherein the time varying voltage reference signal (R v) is modulated by said indication of current oscillation to provide oscillation damping. controlling the voltage source converter to generate a DC voltage on the DC link based on a voltage order (V ord); and monitoring DC current flow to determine an indication of current oscillation; characterised in that the voltage order (V ord) is based on a time varying voltage reference signal (R v) that increases from an initial value corresponding to the voltage of the DC link when the VSC is deblocked to a final value corresponding to the nominal operating voltage of the DC link, wherein the time varying voltage reference signal (R v) is modulated by said indication of current oscillation to provide oscillation damping.
Sequencer mechanism comprising a first locking mobile component driven in rotation about a first pivot axis, comprising at least one peripheral holding surface of regular geometry or respectively of regular uniform magnetic polarity, arranged to hold immobile in rotation an opposite receiver mobile component pivoting about a second pivot axis, and wherein said receiver mobile component is a reduced friction changing mobile component comprising, at the periphery thereof, second stop elements, which are idle rollers or respectively magnets of the same polarity, and wherein, in a locking stroke of said first locking mobile component, at least one of said two elements cooperates through contact or respectively magnetization with said holding surface on either side of a plane passing through the centres of said locking mobile component and said receiver mobile component, and said first locking mobile component further comprising at least one drive surface comprising an irregular relief portion or respectively an opposite magnetization and arranged to drive said receiver mobile component in jerks, in a drive stroke of said first locking mobile component between two said holding strokes.
A method comprising: receiving an image geometry for an image within a graphics processing unit, GPU, pipeline included in a GPU; storing attributes for vertices within the image geometry in an extended vertex cache coupled to the GPU pipeline; and processing the image within the GPU pipeline based on vertex coordinates that identify the vertices and vertex cache index values that indicate storage locations of the attributes within the extended vertex cache for each of the vertices within the image geometry, wherein the vertex cache index values that indicate storage locations of attributes stored in the extended vertex cache are passed through each processing stage along the GPU pipeline. receiving an image geometry for an image within a graphics processing unit, GPU, pipeline included in a GPU; storing attributes for vertices within the image geometry in an extended vertex cache coupled to the GPU pipeline; and processing the image within the GPU pipeline based on vertex coordinates that identify the vertices and vertex cache index values that indicate storage locations of the attributes within the extended vertex cache for each of the vertices within the image geometry, wherein the vertex cache index values that indicate storage locations of attributes stored in the extended vertex cache are passed through each processing stage along the GPU pipeline.
A data processing method, comprising: responsive to determining that an application instance on an artificial intelligence management plane is established, wherein the application instance is deployed by an orchestrator through an Artificial Intelligence platform, generating, by the orchestrator, a data acquisition request message corresponding to the application instance and sending the data acquisition request message to a next communication node, wherein the next communication node includes one of a network control device and a target network node; acquiring, by the target network node, data according to the data acquisition request message received from the orchestrator or through the network control device, and sending a data acquisition result to a processing device of the application instance; and processing, by the processing device of the application instance, the data acquisition result through a model in the application instance and outputting a processing result, wherein the data acquisition request message comprises: location information of the application instance, target network node information and data acquisition content, and wherein the step of acquiring, by the target network node, data according to the data acquisition request message received from the orchestrator or through the network control device, comprises: determining, by the target network node, an application instance needing data acquisition according to the location information of the application instance; and acquiring, by the target network node, data corresponding to the application instance. responsive to determining that an application instance on an artificial intelligence management plane is established, wherein the application instance is deployed by an orchestrator through an Artificial Intelligence platform, generating, by the orchestrator, a data acquisition request message corresponding to the application instance and sending the data acquisition request message to a next communication node, wherein the next communication node includes one of a network control device and a target network node; acquiring, by the target network node, data according to the data acquisition request message received from the orchestrator or through the network control device, and sending a data acquisition result to a processing device of the application instance; and processing, by the processing device of the application instance, the data acquisition result through a model in the application instance and outputting a processing result, wherein the data acquisition request message comprises: location information of the application instance, target network node information and data acquisition content, and wherein the step of acquiring, by the target network node, data according to the data acquisition request message received from the orchestrator or through the network control device, comprises: determining, by the target network node, an application instance needing data acquisition according to the location information of the application instance; and acquiring, by the target network node, data corresponding to the application instance.
A lift rotor arrangement for a VTOL aircraft, the lift rotor arrangement comprising: a fairing mounted on a wing segment; and first and second rotor blades (17, 18) mounted on a first shaft extending vertically from the fairing, wherein the first shaft is movable between an extended position in which the first and second rotor blades (17, 18) are vertically spaced above the wing segment and are rotatable to provide vertical lift, and a retracted position in which the first and second rotor blades (17, 18) are rotationally-fixed with the first rotor blade stowed within the wing segment, wherein the first and second rotor blades (17, 18) are aerofoils with a respective leading edge (17a, 18a) and trailing edge (17b, 18b); characterised in that the trailing edge of the first rotor blade is aligned with a rearward edge of the wing segment in the retracted position.
Workpiece transport system for a machine for processing workpieces which preferably consist at least in sections of wood, derived timber products, plastic, aluminium or the like, having at least one continuous circulating element for carrying along the workpieces which is guided by means of guide elements and deflecting elements on its first side, wherein the continuous circulating element with its first side is clamped magnetically against guide elements and the continuous circulating element is constructed as a sliding chain or roller chain, characterised in that the continuous circulating element has a vacuum system (11, 12, 14) for drawing in of the workpieces against a second side of the continuous circulating element, and in that at least one deflecting element and/or at least one guide element has first channels, by means of which suction openings, which are arranged on the second side of the continuous circulating element, are supplied with negative pressure by means of second channels in the continuous circulating element.