mhurhangee/ep-ind-claims huggingface dataset:
A method for printing on an article (200, 1308, 1408), comprising: selecting a shape model, wherein the shape model is based on a first image of a first article, wherein the shape model includes a fiducial, a reference location, and a graphic marker (1800, 1902), wherein the fiducial is located in the first image of the first article and located on a print bed of a printing device, wherein the reference location is based on a location of the fiducial in the first image of the first article, and wherein the graphic marker (1800, 1902) is positioned at a pre-selected location relative to the reference location; locating the fiducial in a second image of a second article, by a computing device, wherein the second article is different than the first article; establishing the reference location in the second image of the second article based on the location of the fiducial in the second image of a second article; positioning the graphic marker (1800, 1902) within the second image of the second article (200, 1308, 1408) at the pre-selected location, wherein locating the fiducial in the second image of the second article, establishing the reference location in the second image of the second article, and positioning the graphic marker (1800, 1902) within the second image of the second article at the pre-selected location are performed using the shape model; and printing a graphic on the article (200, 1308, 1408) at a graphic location, wherein the graphic location on the article (200, 1308, 1408) corresponds to the pre-selected location of the graphic marker (1800, 1902) on the second image of the second article. selecting a shape model, wherein the shape model is based on a first image of a first article, wherein the shape model includes a fiducial, a reference location, and a graphic marker (1800, 1902), wherein the fiducial is located in the first image of the first article and located on a print bed of a printing device, wherein the reference location is based on a location of the fiducial in the first image of the first article, and wherein the graphic marker (1800, 1902) is positioned at a pre-selected location relative to the reference location; locating the fiducial in a second image of a second article, by a computing device, wherein the second article is different than the first article; establishing the reference location in the second image of the second article based on the location of the fiducial in the second image of a second article; positioning the graphic marker (1800, 1902) within the second image of the second article (200, 1308, 1408) at the pre-selected location, wherein locating the fiducial in the second image of the second article, establishing the reference location in the second image of the second article, and positioning the graphic marker (1800, 1902) within the second image of the second article at the pre-selected location are performed using the shape model; and printing a graphic on the article (200, 1308, 1408) at a graphic location, wherein the graphic location on the article (200, 1308, 1408) corresponds to the pre-selected location of the graphic marker (1800, 1902) on the second image of the second article.
Body structure of a motor vehicle, comprising: - a passenger compartment floor with a central tunnel; - a rear loading floor, raised above the passenger floor; - a rear floor extension extending forward from the rear floor and above the passenger compartment floor; - a rear floor extension bracket is disposed between the floor extension and the central tunnel; characterized in that the rear floor extension support is configured to undergo vertical deformation in the event of a frontal impact on the vehicle. - a passenger compartment floor with a central tunnel; - a rear loading floor, raised above the passenger floor; - a rear floor extension extending forward from the rear floor and above the passenger compartment floor; - a rear floor extension bracket is disposed between the floor extension and the central tunnel;
Lignin having a plurality of functionalizations of the general formula I wherein R and R' are different from each other and selected between -OH and -OArLig and n is an integer between 1 and 6. wherein R and R' are different from each other and selected between -OH and -OArLig and n is an integer between 1 and 6.
Water bearing household appliance comprising: - a treating chamber in which one or more items can be loaded and treated with water and one or more additives; - a logic unit to control the electric and/or electronic components of said appliance so as to make the latter to perform a treating cycle for treating said one or more loaded items with water and said one or more additives; - a load amount acquiring device for acquiring and communicating to said logic unit information related to the amount of the one or more items loaded in said treating chamber; - a user interface configured for allowing a user to set parameters related to the treating cycle and to the one or more additives to be used during the treating cycle; characterized in that: said logic unit is configured to: - store, during a programming state, additive information set by the user via said user interface, said additive information comprising one or more numeric values which are indicative of predetermined maximum amount of additive associated with the maximum loading capacity of said treating chamber, - before the appliance starts a selected treating cycle, determine an amount of a selected additive to be loaded for said selected treating cycle, based on the programmed maximum amount of additive associated with the selected additive, on the acquired amount of the one or more items loaded in said treating chamber, and on said selected treating cycle, - provide the user with information related to said determined amount of additive to be loaded via said user interface. - a treating chamber in which one or more items can be loaded and treated with water and one or more additives; - a logic unit to control the electric and/or electronic components of said appliance so as to make the latter to perform a treating cycle for treating said one or more loaded items with water and said one or more additives; - a load amount acquiring device for acquiring and communicating to said logic unit information related to the amount of the one or more items loaded in said treating chamber; - a user interface configured for allowing a user to set parameters related to the treating cycle and to the one or more additives to be used during the treating cycle; - store, during a programming state, additive information set by the user via said user interface, said additive information comprising one or more numeric values which are indicative of predetermined maximum amount of additive associated with the maximum loading capacity of said treating chamber, - before the appliance starts a selected treating cycle, determine an amount of a selected additive to be loaded for said selected treating cycle, based on the programmed maximum amount of additive associated with the selected additive, on the acquired amount of the one or more items loaded in said treating chamber, and on said selected treating cycle, - provide the user with information related to said determined amount of additive to be loaded via said user interface.
A method for distinguishing a specific cell, as being either an apoptotic cell, a live cell, or a necrotic cell, said method comprising contacting the specific cell with a nuclear marker, directing incident light at the specific cell, using a detector to obtain a darkfield image, a fluorescent image, and a brightfield image, and using morphologic features derived from the darkfield image, the fluorescent image, and the brightfield image, including spatial frequency contents, to identify the specific cell as being an apoptotic cell, a live cell, or a necrotic cell, wherein the spatial frequency content of the darkfield image is derived by computing a standard deviation of individual pixel intensities within the darkfield image.
A ram air fan inlet shroud configured to be disposed proximate to a ram air fan hub of a ram air fan of a ram air fan assembly of an aircraft, the ram air fan inlet shroud comprising: a ram air fan inlet shroud centerline; a shroud portion extending outwardly from a conical portion, the conical portion providing a transition between a central portion and an inner ram air fan hub interface portion, the conical portion comprising a plurality of inner cooling holes, a first angled wall and a second side, having different inclinations relative to the ram air fan inlet shroud centerline; a recessed annular portion located opposite the first angled wall and between the inner ram air fan hub interface portion and an outer ram air fan hub interface portion, the recessed portion comprising a plurality of outer cooling holes, and characterised in that a diameter of each of the plurality of inner cooling holes is about 0.406 inches (1.031 cm); wherein both the plurality of inner cooling holes and the plurality of outer cooling holes pass through the first angled wall of the conical portion, an outlet of each of the inner cooling holes partly intersecting the first angled wall and the second side. a shroud portion extending outwardly from a conical portion, the conical portion providing a transition between a central portion and an inner ram air fan hub interface portion, the conical portion comprising a plurality of inner cooling holes, a first angled wall and a second side, having different inclinations relative to the ram air fan inlet shroud centerline; a recessed annular portion located opposite the first angled wall and between the inner ram air fan hub interface portion and an outer ram air fan hub interface portion, the recessed portion comprising a plurality of outer cooling holes, and characterised in that a diameter of each of the plurality of inner cooling holes is about 0.406 inches (1.031 cm); wherein both the plurality of inner cooling holes and the plurality of outer cooling holes pass through the first angled wall of the conical portion, an outlet of each of the inner cooling holes partly intersecting the first angled wall and the second side.
A surgical tool for laparoscopic insertion into a subject, the tool being expandable from a smaller collapsed configuration to a larger deployed configuration, the tool comprising an extendable barrier, an expandable support that is coupled to and surrounds the barrier, and a lumen having a distal end that is coupled to said support and in fluid communication with an internal void of said support; wherein said support can be expanded by injecting fluid into said void via said lumen and expansion of said support extends said barrier; characterised in that the barrier comprises two adjacent layers of flexible material, and further in that the barrier is provided with a plurality of weld lines that define a plurality of intersecting channels, each of said channels extending from one part of said support to a diametrically opposed part of said support and being in fluid communication with the internal void of said support.
An optical isolator comprising: a substrate; and an optical waveguide provided on the substrate, the optical waveguide including: a first end part, a plurality of second end parts arranged in an array, at least one branching part located between the first end part and the plurality of second end parts, and a portion having non-reciprocity that provides different non-reciprocal phase shift amounts between the first end part and at least two second end parts of the plurality of second end parts, characterized in that the non-reciprocal phase shift amounts differ between adjacent second end parts of the plurality of second end parts. a substrate; and an optical waveguide provided on the substrate, the optical waveguide including: a first end part, a plurality of second end parts arranged in an array, at least one branching part located between the first end part and the plurality of second end parts, and a portion having non-reciprocity that provides different non-reciprocal phase shift amounts between the first end part and at least two second end parts of the plurality of second end parts, characterized in that the non-reciprocal phase shift amounts differ between adjacent second end parts of the plurality of second end parts. a first end part, a plurality of second end parts arranged in an array, at least one branching part located between the first end part and the plurality of second end parts, and a portion having non-reciprocity that provides different non-reciprocal phase shift amounts between the first end part and at least two second end parts of the plurality of second end parts, characterized in that the non-reciprocal phase shift amounts differ between adjacent second end parts of the plurality of second end parts.
A rotor comprising: a plurality of permanent magnets; a first rotor core having a plurality of gaps penetrating the first rotor core along an axial direction and multiple layers of magnet-housing slots; and a second rotor core being in contact with an axial end of the first rotor core and having multiple layers of magnet-housing slots penetrating the second rotor core, characterized in that predetermined ones of the permanent magnets are configured to penetrate the first rotor core and the second rotor core; the gaps are provided closer to an outer periphery of the first rotor core than outermost ones of the permanent magnets are, while facing the outermost permanent magnets in the first rotor core and have a magnetic resistance lower than that of the magnet-housing slots. a plurality of permanent magnets; a first rotor core having a plurality of gaps penetrating the first rotor core along an axial direction and multiple layers of magnet-housing slots; and a second rotor core being in contact with an axial end of the first rotor core and having multiple layers of magnet-housing slots penetrating the second rotor core, characterized in that predetermined ones of the permanent magnets are configured to penetrate the first rotor core and the second rotor core; the gaps are provided closer to an outer periphery of the first rotor core than outermost ones of the permanent magnets are, while facing the outermost permanent magnets in the first rotor core and have a magnetic resistance lower than that of the magnet-housing slots.
A slurry application method comprising: spraying a slurry from a nozzle onto one or both of a traveling strip member and a roll; and applying the slurry to a surface of the strip member by pressing the roll against the surface of the strip member, wherein a spray angle θ defined as an angle between a plane horizontal to the strip member and the spray direction of the nozzle is set to 5° or more and 50° or less, a distance d in a conveyance direction of the strip member between an intersection point P1 and a rotation center P2 of the roll is 100 mm or less, the intersection point P1 being closest to the nozzle among an intersection point between a straight line extending in a spray direction of the nozzle and the surface of the strip member and an intersection point between the straight line extending in the spray direction of the nozzle and a surface of the roll, a height h from the surface of the strip member to the intersection point P1 is 1/2 or less of a diameter of the roll, wherein a traveling speed of the strip member is 5 m/min or more and 40 m/min or less, a flow rate of the slurry per 1 m in a width direction of the strip member is 35 L/min/m or more and 400 L/min/m or less, and the slurry contains inorganic particles selected from magnesium oxide powder, nickel powder, silica powder, and alumina powder. a spray angle θ defined as an angle between a plane horizontal to the strip member and the spray direction of the nozzle is set to 5° or more and 50° or less, a distance d in a conveyance direction of the strip member between an intersection point P1 and a rotation center P2 of the roll is 100 mm or less, the intersection point P1 being closest to the nozzle among an intersection point between a straight line extending in a spray direction of the nozzle and the surface of the strip member and an intersection point between the straight line extending in the spray direction of the nozzle and a surface of the roll, a height h from the surface of the strip member to the intersection point P1 is 1/2 or less of a diameter of the roll, wherein a traveling speed of the strip member is 5 m/min or more and 40 m/min or less, a flow rate of the slurry per 1 m in a width direction of the strip member is 35 L/min/m or more and 400 L/min/m or less, and the slurry contains inorganic particles selected from magnesium oxide powder, nickel powder, silica powder, and alumina powder.
Circuit configuration having an inverter whose intermediate circuit can be connected to a direct current source and having a three-phase switching bridge whose phase conductors (P 1, P 2, P 3) on the output side can be connected to the phases (L 1, L 2, L 3) of a three-phase alternating voltage network, whereby each phase conductor (P 1, P 2, P 3) is run along a series circuit consisting of two switching contacts (SK 1, SK 2) that pertain to various electro-mechanical switches (R 1, R 2) which can be actuated by a control device, whereby the control device is configured to record values of voltages (U 1, U 2, U 3) on the phase conductors (P 1, P 2, P 3) by means of measuring devices (M 1, M 2, M 3), characterised in that each of the series circuits of the switching contacts (SK 1, SK 2) is made up of a first switching contact (SK 1) and a second switching contact (SK 2), whereby all the first switching contacts (SK 1) pertain to a first electro-mechanical switch (R 1) and all the second switching contacts (SK 2) pertain to a second electro-mechanical switch (R 2), and that the control device is configured in such a manner that, upon switching on or switching off the inverter, it triggers the electro-mechanical switches (R 1, R 2) alternately and records the voltages (U 1, U 2, U 3) on the phase conductors (P 1, P 2, P 3).
A microfluidic device comprising: an enclosure having a microfluidic structure and a base, wherein the base comprises a common electrical conductor, wherein the microfluidic structure and an outer surface of the base together define a flow path within the enclosure, and wherein the base comprises an array of transistor structures, each said transistor structure in the array comprising a lateral bipolar transistor connecting a corresponding region of the outer surface of the base to the common conductor, wherein each said transistor structure in the array further comprises a vertical bipolar transistor connecting the corresponding region of the outer surface of the base to the common conductor; wherein each said transistor structure in the array comprises a collector region, a base region, and an emitter region, wherein the base region surrounds the emitter region and comprises a lateral portion and a vertical portion, wherein the collector region surrounds the base region and comprises a lateral portion and a vertical portion, and wherein the microfluidic device further comprises a dielectric border disposed on the outer surface of the base between adjacent pairs of the transistor structures of the array, wherein the border overlays a perimeter portion of the emitter region of each said transistor structure of the array but comprises windows exposing an interior portion of the emitter region. an enclosure having a microfluidic structure and a base, wherein the base comprises a common electrical conductor, wherein the microfluidic structure and an outer surface of the base together define a flow path within the enclosure, and wherein the base comprises an array of transistor structures, each said transistor structure in the array comprising a lateral bipolar transistor connecting a corresponding region of the outer surface of the base to the common conductor, wherein each said transistor structure in the array further comprises a vertical bipolar transistor connecting the corresponding region of the outer surface of the base to the common conductor; wherein each said transistor structure in the array comprises a collector region, a base region, and an emitter region, wherein the base region surrounds the emitter region and comprises a lateral portion and a vertical portion, wherein the collector region surrounds the base region and comprises a lateral portion and a vertical portion, and wherein the microfluidic device further comprises a dielectric border disposed on the outer surface of the base between adjacent pairs of the transistor structures of the array, wherein the border overlays a perimeter portion of the emitter region of each said transistor structure of the array but comprises windows exposing an interior portion of the emitter region.
An implantable medical device for detecting a cardiac event, comprising: a plurality of electrodes (18, 20, 22) to sense cardiac signal, the plurality of electrodes forming a first sensing vector and a second sensing vector; a housing having circuitry positioned therein electrically coupled to the plurality of electrodes; and a processor positioned within the housing and configured to identify the cardiac event as one of a shockable event and a non-shockable event in response to first processing of a first interval sensed along the first sensing vector during a predetermined sensing window and a second interval simultaneously sensed along the second sensing vector, perform second processing of the first interval and the second interval, different from the first processing, in response to the cardiac event being identified as a shockable event, characterized in that the processor is further configured to determine whether the cardiac event is monomorphic ventricular tachycardia in response to the second processing; and delay charging a high voltage output capacitor in response to detecting that the shockable ventricular cardiac event is monomorphic ventricular tachycardia. a plurality of electrodes (18, 20, 22) to sense cardiac signal, the plurality of electrodes forming a first sensing vector and a second sensing vector; a housing having circuitry positioned therein electrically coupled to the plurality of electrodes; and a processor positioned within the housing and configured to identify the cardiac event as one of a shockable event and a non-shockable event in response to first processing of a first interval sensed along the first sensing vector during a predetermined sensing window and a second interval simultaneously sensed along the second sensing vector, perform second processing of the first interval and the second interval, different from the first processing, in response to the cardiac event being identified as a shockable event, characterized in that the processor is further configured to determine whether the cardiac event is monomorphic ventricular tachycardia in response to the second processing; and delay charging a high voltage output capacitor in response to detecting that the shockable ventricular cardiac event is monomorphic ventricular tachycardia.