mhurhangee/ep-ind-claims huggingface dataset:
A martensitic Cr-containing steel, characterized by comprising: a chemical composition consisting of, by mass%, Si: 0.05 to 1.00%, Mn: 0.1 to 1.0%, Cr: 8 to 12%, V: 0.01 to 1.0%, sol. Al: 0.005 to 0.10%, N: not more than 0.100%, one or two selected from the group consisting of Mo: 0 to 2% and W: 0 to 4%, C: not more than 0.10%, P: not more than 0.03%, S: not more than 0.01%, Ni: not more than 0.5%, O: not more than 0.01%, Nb: 0 to 1%, Ti: 0 to 1%, Zr: 0 to 1%, B: 0 to 0.01%, Ca: 0 to 0.01%, Mg: 0 to 0.01%, and rare earth metal: 0 to 0.50%, with the balance being Fe and impurities, wherein an effective Cr amount defined by Formula is not less than 8%, and an Mo equivalent defined by Formula is 0.03 to 2%; a micro-structure wherein a grain size number (ASTM E112) of prior-austenite crystal grain is not less than 8.0, and which consists of, in volume fraction, 0 to 5% of ferrite and 0 to 5% of austenite, with the balance being tempered martensite; and a yield strength of 379 to 530 MPa, wherein a grain-boundary segregation ratio, which is defined, when either one of Mo and W is contained, as a ratio of a maximum content at grain boundaries to an average content within grains of the contained element, and when Mo and W are contained, as an average of ratios of a maximum content at grain boundaries to an average content within grains of each element, is not less than 1.5: Effective Cr amount = Cr − 16.6 × C Mo equivalent = Mo + 0.5 × W where, symbols of elements in Formulae and are substituted by corresponding contents (by mass%) of the elements. a chemical composition consisting of, by mass%, Si: 0.05 to 1.00%, Mn: 0.1 to 1.0%, Cr: 8 to 12%, V: 0.01 to 1.0%, sol. Al: 0.005 to 0.10%, N: not more than 0.100%, one or two selected from the group consisting of Mo: 0 to 2% and W: 0 to 4%, C: not more than 0.10%, P: not more than 0.03%, S: not more than 0.01%, Ni: not more than 0.5%, O: not more than 0.01%, Nb: 0 to 1%, Ti: 0 to 1%, Zr: 0 to 1%, B: 0 to 0.01%, Ca: 0 to 0.01%, Mg: 0 to 0.01%, and rare earth metal: 0 to 0.50%, with the balance being Fe and impurities, wherein an effective Cr amount defined by Formula is not less than 8%, and an Mo equivalent defined by Formula is 0.03 to 2%; a micro-structure wherein a grain size number (ASTM E112) of prior-austenite crystal grain is not less than 8.0, and which consists of, in volume fraction, 0 to 5% of ferrite and 0 to 5% of austenite, with the balance being tempered martensite; and a yield strength of 379 to 530 MPa, wherein a grain-boundary segregation ratio, which is defined, when either one of Mo and W is contained, as a ratio of a maximum content at grain boundaries to an average content within grains of the contained element, and when Mo and W are contained, as an average of ratios of a maximum content at grain boundaries to an average content within grains of each element, is not less than 1.5: Effective Cr amount = Cr − 16.6 × C Mo equivalent = Mo + 0.5 × W where, symbols of elements in Formulae and are substituted by corresponding contents (by mass%) of the elements.
A computer-implemented method of operating a reservoir simulator comprising: performing a time step of a reservoir simulation using a coarse spatial reservoir model that represents a subterranean environment that comprises a reservoir to generate simulation results for a first time, wherein the simulation results comprise a front defined by at least in part by a gradient at a position between portions of the spatial reservoir model; predicting a position of the front for a subsequent time step for a corresponding second time using a machine model trained with data generated by reservoir simulations utilizing a spatial reservoir model that comprises a finer resolution than the coarse spatial reservoir model; discretizing the spatial reservoir model locally at the predicted position of the front to generate a locally discretized version of the spatial reservoir model, wherein the discretizing comprises kD-tree discretization and comprises refining the spatial reservoir model at the predicted position of the front and/or coarsening is utilized for regions that exhibit low variation in dynamic and static properties; performing a time step of the reservoir simulation using the locally discretized version of the spatial reservoir model to generate simulation results for the second time; and outputting the generated simulation results for the second time to a controller for analysis and operational decision-making related to development of an oilfield. performing a time step of a reservoir simulation using a coarse spatial reservoir model that represents a subterranean environment that comprises a reservoir to generate simulation results for a first time, wherein the simulation results comprise a front defined by at least in part by a gradient at a position between portions of the spatial reservoir model; predicting a position of the front for a subsequent time step for a corresponding second time using a machine model trained with data generated by reservoir simulations utilizing a spatial reservoir model that comprises a finer resolution than the coarse spatial reservoir model; discretizing the spatial reservoir model locally at the predicted position of the front to generate a locally discretized version of the spatial reservoir model, wherein the discretizing comprises kD-tree discretization and comprises refining the spatial reservoir model at the predicted position of the front and/or coarsening is utilized for regions that exhibit low variation in dynamic and static properties; performing a time step of the reservoir simulation using the locally discretized version of the spatial reservoir model to generate simulation results for the second time; and outputting the generated simulation results for the second time to a controller for analysis and operational decision-making related to development of an oilfield.
Sealing arrangement for a motor vehicle pane, comprising at least: - a holding rail having a locking channel that is formed by a guide rail and a resilient leg, wherein the holding rail is fastened to a pane, - a cover having a guide channel that is formed by a locking rail and a positioning stop, Characterized in, that - the guide rail is arranged in the guide channel and the locking rail is latched in the locking channel, wherein a locking hook is latched onto the resilient leg in a projecting region of the locking rail, and - a resilient element is clamped in the guide channel between a stop face on the underside of the cover and the guide rail. - a holding rail having a locking channel that is formed by a guide rail and a resilient leg, wherein the holding rail is fastened to a pane, - a cover having a guide channel that is formed by a locking rail and a positioning stop, - the guide rail is arranged in the guide channel and the locking rail is latched in the locking channel, wherein a locking hook is latched onto the resilient leg in a projecting region of the locking rail, and - a resilient element is clamped in the guide channel between a stop face on the underside of the cover and the guide rail.
A bone plate for bone fixation, comprising: a body portion having a first side and an opposite second side, the body portion extending in a plane, the bone plate including a plurality of nodes and intervening bridges, the bridges having a reduced area moment of inertia relative to the nodes such that the bridges have an increased propensity to bending relative to the nodes when a force is applied thereto, and each of the nodes having a screw hole (24, 26), the nodes have bilaterally extending wings that equally taper in thickness toward each of the first and second sides (16, 18) of the plate, wherein the nodes and bridges (20, 22) present a same surface structure when viewed from either of the first and second sides (16, 18), characterised in that: at least a plurality of the screw holes are threaded; and the bone plate further comprises a cross-arm having a plurality of nodes extending transverse to the body portion at a non-orthogonal angle, and the bone plate is planar and bilaterally asymmetric. a body portion having a first side and an opposite second side, the body portion extending in a plane, the bone plate including a plurality of nodes and intervening bridges, the bridges having a reduced area moment of inertia relative to the nodes such that the bridges have an increased propensity to bending relative to the nodes when a force is applied thereto, and each of the nodes having a screw hole (24, 26), the nodes have bilaterally extending wings that equally taper in thickness toward each of the first and second sides (16, 18) of the plate, wherein the nodes and bridges (20, 22) present a same surface structure when viewed from either of the first and second sides (16, 18), characterised in that: at least a plurality of the screw holes are threaded; and the bone plate further comprises a cross-arm having a plurality of nodes extending transverse to the body portion at a non-orthogonal angle, and the bone plate is planar and bilaterally asymmetric. at least a plurality of the screw holes are threaded; and the bone plate further comprises a cross-arm having a plurality of nodes extending transverse to the body portion at a non-orthogonal angle, and the bone plate is planar and bilaterally asymmetric.
Implant comprising a substrate and a single layer coating (24; 26) on said substrate, said coating comprising: - an innermost portion (24.1; 26.1) being a metallic ion-implanted adhesion portion; - an outermost portion (24.3; 26.3) comprising metallic oxynitrides; and - an intermediate portion (24.2; 26.2) between the innermost and outermost portions (24.1, 24.3; 26.1, 26.3), said intermediate portion comprises metallic nitrides of different molar ratios; characterized in that the metal of the innermost portion (24.1; 26.1) is tantalum and said portion shows an average thickness of at least 1μm, so as to be radio-opaque. - an innermost portion (24.1; 26.1) being a metallic ion-implanted adhesion portion; - an outermost portion (24.3; 26.3) comprising metallic oxynitrides; and - an intermediate portion (24.2; 26.2) between the innermost and outermost portions (24.1, 24.3; 26.1, 26.3), said intermediate portion comprises metallic nitrides of different molar ratios;
A breather outlet comprising: a fluid conduit (4, 6) for the passage of a dispersion containing particulate matter; a laser arranged to provide laser light inside the fluid conduit; wherein, in use, the laser light heats the particulate matter sufficiently to generate incandescence; one or more sensors for detecting the incandescence of the particulate matter so as to determine a characteristic of the dispersion; an electromagnetic wave generator operable to provide electromagnetic waves inside the fluid conduit wherein the output of the electromagnetic wave generator is split and directed upstream of the laser light so as to perform a scattering measurement and downstream of the laser light so as to vaporise at least a portion of the dispersion. a fluid conduit (4, 6) for the passage of a dispersion containing particulate matter; a laser arranged to provide laser light inside the fluid conduit; wherein, in use, the laser light heats the particulate matter sufficiently to generate incandescence; one or more sensors for detecting the incandescence of the particulate matter so as to determine a characteristic of the dispersion; an electromagnetic wave generator operable to provide electromagnetic waves inside the fluid conduit wherein the output of the electromagnetic wave generator is split and directed upstream of the laser light so as to perform a scattering measurement and downstream of the laser light so as to vaporise at least a portion of the dispersion.
A machine for cutting panels of wood or similar, the machine comprising a cutting station; a feed unit for moving at least one panel through the cutting station in a given first direction; and a blade movable along a cutting plane substantially perpendicular to the first direction to cut at least one part off each panel; the feed unit comprising a first feed device (17; 30) in turn comprising at least one first grip-and-carry member (21; 31) for at least a first panel; a second feed device in turn comprising at least one second grip-and-carry member for at least a second panel; at least one third feed device (25; 30, 33) in turn comprising at least one third grip-and-carry member (26; 31, 34) connectable selectively to the first feed device (17; 30) or second feed device, so as to move in the first direction with the same law of motion as the first feed device (17; 30) or second feed device; and a first drive device (20; 32) and second drive device for moving the first feed device (17; 30) and second feed device respectively in the first direction with respective independent laws of motion; the machine being characterized by also comprising, for each said third grip-and-carry member, a respective coupling device for connecting the third grip-and-carry member mechanically to the first feed device (17; 30) or second feed device.
An electrical stimulation lead having a proximal end and a distal end, the lead comprising: at the distal end of the lead, a first branch having a first biasing member and a first insulation covering, the first biasing member disposed within the first insulation covering, the first insulation covering having a first inner surface; at the distal end of the lead, a second branch having a second biasing member and a second insulation covering, the second biasing member disposed within the second insulation covering, the second insulation covering having a second inner surface, wherein the first and second branches define a receiving channel and a stimulation region proximal to the receiving channel, wherein the first and second biasing members are movable away from each other to receive a target anatomy through the receiving channel and, upon receiving the target anatomy between the first and second biasing members, the first and second biasing members spring or snap laterally toward each other to reduce the receiving channel to retain the target anatomy within the stimulation region; and at least one electrode disposed on one or both of the first inner surface or the second inner surface, the at least one electrode disposed adjacent to the stimulation region, wherein the at least one electrode is operable to electrically stimulate the target anatomy. at the distal end of the lead, a first branch having a first biasing member and a first insulation covering, the first biasing member disposed within the first insulation covering, the first insulation covering having a first inner surface; at the distal end of the lead, a second branch having a second biasing member and a second insulation covering, the second biasing member disposed within the second insulation covering, the second insulation covering having a second inner surface, wherein the first and second branches define a receiving channel and a stimulation region proximal to the receiving channel, wherein the first and second biasing members are movable away from each other to receive a target anatomy through the receiving channel and, upon receiving the target anatomy between the first and second biasing members, the first and second biasing members spring or snap laterally toward each other to reduce the receiving channel to retain the target anatomy within the stimulation region; and at least one electrode disposed on one or both of the first inner surface or the second inner surface, the at least one electrode disposed adjacent to the stimulation region, wherein the at least one electrode is operable to electrically stimulate the target anatomy.
A fill level radar for measuring a fill level and for storing a false echo, the fill level radar comprising: a computing unit for updating false echo data based on a first value (N B) corresponding to a first noise level; a false echo memory for storing the false echo data; wherein the first noise level is a container noise level when the container is empty; wherein the computing unit is adapted to update the false echo data on the basis of a second value (N S) determined in a factory, which corresponds to a second noise level; wherein the second noise level is a sensor-inherent noise level; wherein the computing unit is adapted to determine whether the first value (N B) is greater than the second value (N S); wherein the computing unit is adapted to activate a false echo memory update mode if the first value (N B) is greater than the second value (N S). a computing unit for updating false echo data based on a first value (N B) corresponding to a first noise level; a false echo memory for storing the false echo data; wherein the first noise level is a container noise level when the container is empty; wherein the computing unit is adapted to update the false echo data on the basis of a second value (N S) determined in a factory, which corresponds to a second noise level; wherein the second noise level is a sensor-inherent noise level; wherein the computing unit is adapted to determine whether the first value (N B) is greater than the second value (N S); wherein the computing unit is adapted to activate a false echo memory update mode if the first value (N B) is greater than the second value (N S).
Oil-injected screw compressor installation including a frame or underframe, a screw compressor element, electrical cabinet, oil separator vessel and an air-cooled cooling module, whereby on one side of the frame, the screw compressor element is placed horizontally and with the electrical cabinet, the oil separator vessel and the air-cooled cooling module being placed on the other side of the frame, with the cooling module being placed such that this is laterally over and perpendicular to the compressor element and the air sucked in by the cooling module will flow between the electrical cabinet and the cooling module; characterised in that the oil-injected screw compressor installation is further provided with a minimum pressure valve with this minimum pressure valve being mounted on the air-cooled cooling module.
A transportation anchor for double and sandwich walls, comprising - a bow-shaped base body, with - an arch-shaped central section for hooking-in lifting means, - two anchor legs projecting from the central section, extending essentially parallel to one another, - a pressure element arranged between the anchor legs, wherein - the pressure element is made from a fibre plastic composite material, - the pressure element comprises at its two ends cup-shaped or tubular section-shaped end caps, which are each placed with an open side on a free end of the cylindrical pressure element, characterised in that two openings lying opposite one another are provided in the peripheral surface of the cup-shaped or tubular section-shaped end caps, through each of which openings an anchor leg extends in the final assembled state. - a bow-shaped base body, with - an arch-shaped central section for hooking-in lifting means, - two anchor legs projecting from the central section, extending essentially parallel to one another, - a pressure element arranged between the anchor legs, - an arch-shaped central section for hooking-in lifting means, - two anchor legs projecting from the central section, extending essentially parallel to one another, - a pressure element arranged between the anchor legs, - the pressure element is made from a fibre plastic composite material, - the pressure element comprises at its two ends cup-shaped or tubular section-shaped end caps, which are each placed with an open side on a free end of the cylindrical pressure element,
Motor vehicle battery sensor element with - a resistor element, and - at least two spatially separated electrical contacts positioned on the resistor element, wherein - the resistor element is in the form of a flat part having an even surface, and wherein - the contacts are positioned areally on the surface of the resistor element, wherein the contacts are in the form of flat or round electrical conductors positioned areally flat on the surface of the resistor element, and wherein - the at least two contacts respectively are bent at both ends so that contact pins protrude substantially orthogonally from the surface plane of the resistor element. - a resistor element, and - at least two spatially separated electrical contacts positioned on the resistor element, wherein - the resistor element is in the form of a flat part having an even surface, and wherein - the contacts are positioned areally on the surface of the resistor element, wherein the contacts are in the form of flat or round electrical conductors positioned areally flat on the surface of the resistor element, and wherein - the at least two contacts respectively are bent at both ends so that contact pins protrude substantially orthogonally from the surface plane of the resistor element.
A USB interface device, comprising: a USB connector electrically connected with a circuit board through pins; wherein, the USB interface device further comprises a shielding frame attached to a joint between the USB connector and the circuit board and covering the pins, the shielding frame is a frame body having a first opening at a part attached to the circuit board and a second opening at a part attached to the USB connector, characterized in that the USB interface device further comprises a shielding cover that covers the shielding frame, wherein a fixing pin is set on the shielding cover, the fixing pin corresponds to a fixing hole in another circuit board, and the fixing pin is inserted into the fixing hole to fix the another circuit board with the fixing hole.
Use of mineral clay-based pellets to seal for example shafts, radioactive disposal sites, dumps, landfills or the like, according to which - fine-grained starter material undergoes preliminary compaction and is then finally compacted between two counter-rotating rollers (6, 7), the surface of each of which is furnished with a corresponding profile in the form of pellet shapes (15, 16), to produce the pellets in such manner that said pellets have a grain density greater than 1.5 g/cm 3, according to which both rollers (6, 7) are retained and driven freely rotatably in a press frame, characterised in that - one roller is designed as a fixed roller, and the other roller is designed as a movable roller that is adjustable relative to fixed roller, - the two rollers (6, 7) are retained rotatably and driven in a press frame, wherein - lateral thrust bearings (10, 11) are provided on either side to absorb the pressing force, wherein further - the movable roller is moved relative to the fixed roller by means of connected hydraulic cylinders in order to vary a roller gap, thereby adjusting the grain density of and shape of the pellets, and wherein - the hydraulic cylinders and an associated pressure generating device are subjected to load by a control device, which monitors and controls the entire process. - fine-grained starter material undergoes preliminary compaction and is then finally compacted between two counter-rotating rollers (6, 7), the surface of each of which is furnished with a corresponding profile in the form of pellet shapes (15, 16), to produce the pellets in such manner that said pellets have a grain density greater than 1.5 g/cm 3, according to which both rollers (6, 7) are retained and driven freely rotatably in a press frame, characterised in that - one roller is designed as a fixed roller, and the other roller is designed as a movable roller that is adjustable relative to fixed roller, - the two rollers (6, 7) are retained rotatably and driven in a press frame, wherein - lateral thrust bearings (10, 11) are provided on either side to absorb the pressing force, wherein further - the movable roller is moved relative to the fixed roller by means of connected hydraulic cylinders in order to vary a roller gap, thereby adjusting the grain density of and shape of the pellets, and wherein - the hydraulic cylinders and an associated pressure generating device are subjected to load by a control device, which monitors and controls the entire process.