mhurhangee/ep-ind-claims huggingface dataset:
Device for guiding a wing, notably a side door of a motor vehicle, relative to a body structure of the motor vehicle, the guide device comprising an articulated quadrilateral system comprising articulations (61, 62, 63, 64), the wing is a sliding wing, the device comprising: - a rail fixed to such a body structure, - a sliding wing support intended to be fixed to such a sliding wing, - a movement means cooperating with the rail so as to slide with respect to the rail, the articulated quadrilateral system comprises: - a first link comprising a first articulation between a first end of the first link and the movement means, and a second articulation between a second end of the first link and the sliding wing support, - a second link comprising a third articulation between a third end of the second link and the movement means, and a fourth articulation between a fourth end of the fourth link and the sliding wing support, characterized in that at least one of the articulations comprises a cam and cam follower system, and in that the at least one articulation of the articulated quadrilateral system, notably the third articulation, provides, between at least one end, notably the third end, of the at least one link, notably the second link, and the movement means, a clearance so as to allow a movement in translation of the at least one end with respect to the movement means when the sliding wing passes from a closed position to an open position, and vice versa. - a rail fixed to such a body structure, - a sliding wing support intended to be fixed to such a sliding wing, - a movement means cooperating with the rail so as to slide with respect to the rail, - a first link comprising a first articulation between a first end of the first link and the movement means, and a second articulation between a second end of the first link and the sliding wing support, - a second link comprising a third articulation between a third end of the second link and the movement means, and a fourth articulation between a fourth end of the fourth link and the sliding wing support,
A computer implemented method comprising: forward propagating an original source signal based on a model of a subsurface region to generate a forward-propagated wavefield in a time domain; generating a residual based on the forward-propagated wavefield in comparison to field data, wherein the field data are responsive to reflection of the original source signal from the subsurface region; back propagating the residual to generate a reconstructed source perturbation in the time domain, based on the model; generating a reconstructed source based on the reconstructed source perturbation and the original source signal; forward propagating the reconstructed source to generate a reconstructed source wavefield; back propagating the field data to generate a receiver wavefield; cross correlating the forward-propagated reconstructed source wavefield and the back-propagated receiver wavefield; and generating an image of the subsurface region, based on the cross correlation. forward propagating an original source signal based on a model of a subsurface region to generate a forward-propagated wavefield in a time domain; generating a residual based on the forward-propagated wavefield in comparison to field data, wherein the field data are responsive to reflection of the original source signal from the subsurface region; back propagating the residual to generate a reconstructed source perturbation in the time domain, based on the model; generating a reconstructed source based on the reconstructed source perturbation and the original source signal; forward propagating the reconstructed source to generate a reconstructed source wavefield; back propagating the field data to generate a receiver wavefield; cross correlating the forward-propagated reconstructed source wavefield and the back-propagated receiver wavefield; and generating an image of the subsurface region, based on the cross correlation.
A continuous-flow synthesis method of 13 C-urea, comprising: mixing sulphur and a methanol solution containing NH 3 in a feed kettle to obtain a slurry; or mixing ammonia gas (NH 3), sulphur and methanol in a feed kettle to obtain a slurry; feeding the slurry into a mixing unit; and feeding 13 CO into the mixing unit to obtain a three-phase mixture; mixing the three-phase mixture in the mixing unit evenly; and feeding the three-phase mixture into a continuous-flow reactor for reaction to obtain a reaction product; and feeding the reaction product into a gas-liquid separator for gas-liquid separation, and collecting a liquid phase; subjecting the liquid phase to purification to obtain the 13 C-urea. mixing sulphur and a methanol solution containing NH 3 in a feed kettle to obtain a slurry; or mixing ammonia gas (NH 3), sulphur and methanol in a feed kettle to obtain a slurry; feeding the slurry into a mixing unit; and feeding 13 CO into the mixing unit to obtain a three-phase mixture; mixing the three-phase mixture in the mixing unit evenly; and feeding the three-phase mixture into a continuous-flow reactor for reaction to obtain a reaction product; and feeding the reaction product into a gas-liquid separator for gas-liquid separation, and collecting a liquid phase; subjecting the liquid phase to purification to obtain the 13 C-urea.
A liner arrangement suitable for fitting inside a tubular insulator body in a circuit breaker, the liner arrangement comprising: a planar, electric-arc resistant and heat resistant liner layer comprising a first edge portion and a second edge portion that is located opposite the first edge portion, wherein the first edge portion and the second edge portion extend in a longitudinal direction of the planar liner layer, characterized in that the first edge portion has a first contour, and wherein the second edge portion has a second contour having a geometry that is complementary to the first contour such that the first edge portion can be attached by way of a form fit to the second edge portion once the planar liner layer is bent to a tubular shape. a planar, electric-arc resistant and heat resistant liner layer comprising a first edge portion and a second edge portion that is located opposite the first edge portion, wherein the first edge portion and the second edge portion extend in a longitudinal direction of the planar liner layer, characterized in that the first edge portion has a first contour, and wherein the second edge portion has a second contour having a geometry that is complementary to the first contour such that the first edge portion can be attached by way of a form fit to the second edge portion once the planar liner layer is bent to a tubular shape.
Nebulizer for nebulizing a liquid, comprising: a preferably replaceable container containing multiple doses of the liquid, a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container, and preferably a housing part which can be detached from the nebulizer or opened for inserting or replacing the container, characterized in that the nebulizer or air pump comprises a control valve for limiting the air pressure generated by the air pump for pressurizing the liquid in the container to a maximum value above the ambient pressure independently from a filling level of the container with the liquid. a preferably replaceable container containing multiple doses of the liquid, a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container, and preferably a housing part which can be detached from the nebulizer or opened for inserting or replacing the container, characterized in that the nebulizer or air pump comprises a control valve for limiting the air pressure generated by the air pump for pressurizing the liquid in the container to a maximum value above the ambient pressure independently from a filling level of the container with the liquid.
A turbine blade comprising at least one cooling slot disposed on the trailing edge configured to convey a coolant in a flow direction from an interior to an exterior of the turbine blade, wherein the cooling slot comprises: an entrance coupled to the interior, characterised in that the turbine blade further comprises: a converging section downstream from the entrance, wherein the converging section comprises a first cross-sectional area that decreases in the flow direction; a metering section downstream from the converging section, wherein the metering section comprises a second cross-sectional area that is substantially constant in the flow direction; and an exit, downstream from the metering section, disposed along a trailing edge of the turbine blade between a pressure sidewall and a suction sidewall, wherein the exit comprises a diverging section. a converging section downstream from the entrance, wherein the converging section comprises a first cross-sectional area that decreases in the flow direction; a metering section downstream from the converging section, wherein the metering section comprises a second cross-sectional area that is substantially constant in the flow direction; and an exit, downstream from the metering section, disposed along a trailing edge of the turbine blade between a pressure sidewall and a suction sidewall, wherein the exit comprises a diverging section.
A handy terminal for a wind turbine generator, the handy terminal comprising a connecting portion connectable to a connector provided in the wind turbine generator, an operating ends group including an operating end configured to generate an operating signal which selectively validates a control logic within a control circuit provided in the wind turbine generator, and a display portion for displaying the operating state of the operating ends group, for displaying a mode selecting button for selectively validating one of a maintenance mode and an operating mode, and for displaying a rotor turning button for switching to the blades pitch control state, hereinafter referred to as rotor turning state, in which blades of the wind turbine generator side are driven in a predetermined low speed with adjusting the pitch angle of the blades according to the rotational speed, wherein the operating ends group is composed of a touch panel displayed on the display portion, the handy terminal includes a panel control unit for displaying an aimed operating button on the touch panel, and the rotor turning button is displayed on the touch panel by the panel control unit when the maintenance mode is selected by the mode selecting button upon display of the mode selecting button, wherein the wind turbine generator includes a nacelle supported on a tower provided to stand on the ground or on the water, and a plurality of blades rotatably supported to the nacelle, wherein the connecting portion is connectable to the connectors respectively provided on the lower portion of the tower and on the nacelle, and wherein the handy terminal comprises an operating button control unit configured to control validity/invalidity of operation by the operating button, wherein the operating button control unit is configured to display an operating right selecting button for selecting one control circuit from a control circuit connected to the connector of a nacelle side and a control circuit connected to the connector of a tower side to grant said one control circuit with an operating right, and wherein ON operation of the rotor turning button is validated when the connecting portion of the handy terminal is connected to the control circuit granted the operating right by the operation of the operating right selecting button, and the ON operation of the rotor turning button is invalidated when the connecting portion of the handy terminal is connected to the control circuit not granted the operation right by the operation of the operating right selecting button.
A filter for an ostomy bag comprising a backing layer, a layer of odour-adsorbing material, a hydrophobic membrane layer, and a layer of adhesive webbing, wherein the layer of adhesive webbing comprise distinct fine lines of adhesive, whereby the purpose of the adhesive is to bond the filter to a layer of the ostomy bag with which it is to be used.
A stent-graft delivery system (200, 700, 1500) comprising: an elongate shaft (212, 712, 1512); a tip capture spindle (224, 724, 1524) disposed over the shaft, proximate to a distal end of the shaft, wherein a proximal portion of the tip capture spindle includes a plurality of retainer elements (226, 726, 1526) configured to engage a stent of a stent-graft prosthesis (230, 730, 1530) and a distal portion (223, 723, 1523) of the tip capture spindle includes threads (225, 725, 1525) on an outer surface thereof; and a distal tip assembly (228, 728, 1528) coupled to the distal end of the shaft, wherein a portion of the distal tip assembly proximally extends over the outer surface of the distal portion of the tip capture spindle (224, 724, 1524) and an inner surface of the distal tip assembly (228, 728, 1528) includes threads (229, 729, 1529) that mate with the threads on the tip capture spindle (224, 724, 1524), and wherein rotation of the elongate shaft (212, 712, 1512) rotates the distal tip assembly (228, 728, 1528) and results in longitudinal movement of the tip capture spindle (224, 724, 1524). an elongate shaft (212, 712, 1512); a tip capture spindle (224, 724, 1524) disposed over the shaft, proximate to a distal end of the shaft, wherein a proximal portion of the tip capture spindle includes a plurality of retainer elements (226, 726, 1526) configured to engage a stent of a stent-graft prosthesis (230, 730, 1530) and a distal portion (223, 723, 1523) of the tip capture spindle includes threads (225, 725, 1525) on an outer surface thereof; and a distal tip assembly (228, 728, 1528) coupled to the distal end of the shaft, wherein a portion of the distal tip assembly proximally extends over the outer surface of the distal portion of the tip capture spindle (224, 724, 1524) and an inner surface of the distal tip assembly (228, 728, 1528) includes threads (229, 729, 1529) that mate with the threads on the tip capture spindle (224, 724, 1524), and
A method of detecting uracil, comprising reacting uracil with a compound represented by the formula: wherein A is C 6-10 aryl group substituted by 1 to 3 C 1-4 alkyl groups, in the presence of an oxidant and a base, to give a fluorescent compound represented by the formula: wherein A is as defined above, wherein the amount of the base is 100 - 1000 equivalents relative to the compound represented by the formula.
A method of operating a chemical vapor infiltration apparatus to produce an orthopedic implant, the method comprising the steps of: placing a porous substrate into a reaction chamber of the chemical vapor infiltration apparatus, the reaction chamber defined by an upper end, a lower end and a cylindrical side wall extending between the upper and lower end; exposing the porous substrate to a first gas and a second gas in the reaction chamber, the first gas flowing upwardly into the chamber and the second gas flowing downwardly into the reaction chamber, wherein the first and second gas react in the reaction chamber to deposit a biocompatible metal onto the porous substrate; and varying a vacuum level in the reaction chamber during the exposing step. placing a porous substrate into a reaction chamber of the chemical vapor infiltration apparatus, the reaction chamber defined by an upper end, a lower end and a cylindrical side wall extending between the upper and lower end; exposing the porous substrate to a first gas and a second gas in the reaction chamber, the first gas flowing upwardly into the chamber and the second gas flowing downwardly into the reaction chamber, wherein the first and second gas react in the reaction chamber to deposit a biocompatible metal onto the porous substrate; and varying a vacuum level in the reaction chamber during the exposing step.
A computer-implemented method for generating discrete states for an animation timeline, the computer-implemented method comprising computer-implemented operations for: analyzing, by a presentation application program executing on a computer (1200, 1306, 1400), a plurality of animation effects in an animation timeline to determine which of the plurality of animation effects in the animation timeline are triggered by a pre-configured trigger or a user-controlled trigger; generating, by the presentation application program executing on the computer (1200, 1306, 1400), one or more discrete states (310A-310F) for the animation timeline, each of the one or more discrete states (310A-310F) comprising one or more of the plurality of animation effects sequentially following each other in the animation timeline, a new discrete state starting at the first animation effect in the animation timeline, at each animation effect determined to be triggered by the pre-configured trigger, and at each animation effect determined to be triggered by the user-controlled trigger; and presenting, by the presentation application program executing on the computer, an animation pane in a user interface of the presentation application program, the animation pane comprising a scenes view comprising one or more scenes of a slide in a slide presentation, each of the one or more scenes being a discrete state of the one or more discrete states, wherein each scene is represented by a respective scene thumbnail of a plurality of scene thumbnails in a time line of scenes and wherein the scene thumbnails are selectable and a selected scene is editable. analyzing, by a presentation application program executing on a computer (1200, 1306, 1400), a plurality of animation effects in an animation timeline to determine which of the plurality of animation effects in the animation timeline are triggered by a pre-configured trigger or a user-controlled trigger; generating, by the presentation application program executing on the computer (1200, 1306, 1400), one or more discrete states (310A-310F) for the animation timeline, each of the one or more discrete states (310A-310F) comprising one or more of the plurality of animation effects sequentially following each other in the animation timeline, a new discrete state starting at the first animation effect in the animation timeline, at each animation effect determined to be triggered by the pre-configured trigger, and at each animation effect determined to be triggered by the user-controlled trigger; and presenting, by the presentation application program executing on the computer, an animation pane in a user interface of the presentation application program, the animation pane comprising a scenes view comprising one or more scenes of a slide in a slide presentation, each of the one or more scenes being a discrete state of the one or more discrete states, wherein each scene is represented by a respective scene thumbnail of a plurality of scene thumbnails in a time line of scenes and wherein the scene thumbnails are selectable and a selected scene is editable.
A shear wave dispersion ultrasound vibrometry (SDUV) method comprising: issuing a single instance of a push pulse on an excitation location in a region of interest to establish a monochromatic shear wave; and after the single instance of the push pulse, issuing a plurality of tracking pulses to sample, more than once, each of a plurality of locations associated with the monochromatic shear wave (115, 116), wherein sampling comprises (i) obtaining samples by scanning multiple ones of the plurality of locations in separate passes and (ii) obtaining, with each pulse (612, 702) of the plurality of tracking pulses, samples of multiple ones of the plurality of locations concurrently, characterized in that the method further comprises calculating a phase difference (ΔΦ) using two differently-timed samples taken at two different locations (x 1,x 3), and taking into account an intersample-delay-based phase correction in said calculation, wherein said intersample-delay-based phase correction reflects a propagation of the monochromatic shear wave that occurred temporally between the taking of the two samples that in said sampling, are taken at different times, wherein said sampling occurs, pass-to-pass, in opposite directions, and said taking into account the intersample-delay-based phase correction in said calculation includes combining respective measurements from two oppositely-directed ones of said passes to cancel out said intersample delay. issuing a single instance of a push pulse on an excitation location in a region of interest to establish a monochromatic shear wave; and after the single instance of the push pulse, issuing a plurality of tracking pulses to sample, more than once, each of a plurality of locations associated with the monochromatic shear wave (115, 116), wherein sampling comprises (i) obtaining samples by scanning multiple ones of the plurality of locations in separate passes and (ii) obtaining, with each pulse (612, 702) of the plurality of tracking pulses, samples of multiple ones of the plurality of locations concurrently, characterized in that the method further comprises calculating a phase difference (ΔΦ) using two differently-timed samples taken at two different locations (x 1,x 3), and taking into account an intersample-delay-based phase correction in said calculation, wherein said intersample-delay-based phase correction reflects a propagation of the monochromatic shear wave that occurred temporally between the taking of the two samples that in said sampling, are taken at different times, wherein said sampling occurs, pass-to-pass, in opposite directions, and said taking into account the intersample-delay-based phase correction in said calculation includes combining respective measurements from two oppositely-directed ones of said passes to cancel out said intersample delay.