mhurhangee/ep-ind-claims huggingface dataset:
A circuit comprising: a first multiplexer configured to receive a scan data input; a flip-flop coupled to an output of the first multiplexer, configured to generate a scan pattern; an inverter configured to generate an inverted feedback signal in response to the scan pattern, wherein the inverted feedback signal is provided to the first multiplexer; a plurality of logic circuits connected in a scan chain and configured to generate a logic output in response to the scan pattern; and a bypass multiplexer coupled to the plurality of logic circuits, the bypass multiplexer configured to generate a scan output in response to the logic output, the scan data input and a segment bypass input. a first multiplexer configured to receive a scan data input; a flip-flop coupled to an output of the first multiplexer, configured to generate a scan pattern; an inverter configured to generate an inverted feedback signal in response to the scan pattern, wherein the inverted feedback signal is provided to the first multiplexer; a plurality of logic circuits connected in a scan chain and configured to generate a logic output in response to the scan pattern; and a bypass multiplexer coupled to the plurality of logic circuits, the bypass multiplexer configured to generate a scan output in response to the logic output, the scan data input and a segment bypass input.
A composition for hard tissue repair, comprising 24 to 84 parts by weight of (meth)acrylate as monomer, 35 to 65 parts by weight of a (meth)acrylate polymer and 0.05 to 20 parts by weight of a polymerization initiator composition containing 0.5 to 10 parts by weight of partially oxidized tributylboron as an organoboron compound based on 100 parts by weight of A, B and C, with the proviso that the total amount of the components, and is 100 parts by weight, and wherein the polymer is a polymer mixture which comprises polymer particles having a weight-average molecular weight of 30×10 4 to 60×10 4 and a specific surface area of 1.5 to 4.5 (m 2 /g), polymer particles having a weight-average molecular weight of 5×10 4 to 20×10 4 and a specific surface area of 0.51 to 1.2 (m 2 /g) and polymer particles having a weight-average molecular weight of 5×10 4 to 20×10 4 and a specific surface area of 0.1 to 0.5 (m 2 /g), contains the polymer particles in an amount of 20 to 95% by weight, and contains the polymer particles and the polymer particles in the total amount of not less than 2% by weight based on the total weight of the polymer particles, and, with the proviso that the total amount of the polymer particles, and is 100% by weight, the composition further comprising an X-ray contrast medium, and the composition has a viscosity at 25 °C of 0.01 to 80, 000 Pa.s (10 to 80, 000, 000 cp) within 540 seconds after mixing of the components, and and the components to be contained when needed.
A vane assembly for a gas turbine engine comprising: a plurality of individual vane segments forming an annular ring with each of the plurality of vane segments formed of a ceramic matrix composite including at least one airfoil extending between an inner platform and an outer platform; and a ceramic matrix composite wrap (76, 78) disposed about one of an outer periphery and an inner periphery of the annular ring and over an interface between a corresponding inner and outer platform of adjacent ones of the plurality of vane segments, characterised in that the vane assembly further comprises a plurality of tie rods, each of the plurality of individual vane segments includes a cavity extending through the outer platform, the at least one airfoil, the inner platform, and the ceramic matrix composite wrap; and the ceramic matrix composite wrap is attached to the one of an outer periphery and an inner periphery of the annular ring, such that each of the plurality of individual vane segments is fixed to the ceramic matrix composite wrap, each tie rod extending from an outer case through a cavity of one of the plurality of individual vane segments to an inner case. a plurality of individual vane segments forming an annular ring with each of the plurality of vane segments formed of a ceramic matrix composite including at least one airfoil extending between an inner platform and an outer platform; and a ceramic matrix composite wrap (76, 78) disposed about one of an outer periphery and an inner periphery of the annular ring and over an interface between a corresponding inner and outer platform of adjacent ones of the plurality of vane segments, characterised in that the vane assembly further comprises a plurality of tie rods, each of the plurality of individual vane segments includes a cavity extending through the outer platform, the at least one airfoil, the inner platform, and the ceramic matrix composite wrap; and the ceramic matrix composite wrap is attached to the one of an outer periphery and an inner periphery of the annular ring, such that each of the plurality of individual vane segments is fixed to the ceramic matrix composite wrap, each tie rod extending from an outer case through a cavity of one of the plurality of individual vane segments to an inner case.
A method for audio signal classification, the method comprising: for a segment of an audio signal: - identifying a set of spectral peaks; - determining a mean distance S between peaks in the set; - determining a ratio, PNR, between a peak envelope energy and a noise floor envelope energy; - determining to which class of audio signals, out of a plurality of audio signal classes, the segment belongs, based on at least the mean distance S and the ratio PNR. - identifying a set of spectral peaks; - determining a mean distance S between peaks in the set; - determining a ratio, PNR, between a peak envelope energy and a noise floor envelope energy; - determining to which class of audio signals, out of a plurality of audio signal classes, the segment belongs, based on at least the mean distance S and the ratio PNR.
A method for laser machining a workpiece, the method comprising: directing, from an F-theta lens a laser beam at a non-perpendicular beam tilt angle from an optical axis of the lens having a top-hat profile and a narrow beam divergence angle towards a workpiece disposed on a stage movable in at least an X-direction and a Y-direction; engaging the directed laser beam with the workpiece; moving the workpiece and the directed laser beam relative to each other; and removing portions of the workpiece with the directed laser beam to define a machined surface, characterized in that the F-theta lens having a long focal length of greater than about 250 millimeters, the narrow beam divergence angle is between about 1 degree and less than 3 degrees; and wherein the directing comprises directing the laser beam at a non-perpendicular beam tilt angle of between about 3 degrees and about 6 degrees so that the machined surface has generally a zero taper relative to the Z-direction. directing, from an F-theta lens a laser beam at a non-perpendicular beam tilt angle from an optical axis of the lens having a top-hat profile and a narrow beam divergence angle towards a workpiece disposed on a stage movable in at least an X-direction and a Y-direction; engaging the directed laser beam with the workpiece; moving the workpiece and the directed laser beam relative to each other; and removing portions of the workpiece with the directed laser beam to define a machined surface,
A method of determining efficacy of a CMV vaccine, comprising (a) administering a CMV vaccine to a test subject, (b) challenging the test subject with a CMV vector, wherein the glycoproteins within the US2 to US 11 region of CMV are deleted from the CMV vector, and wherein the CMV vector contains and expresses at least one immunogen of the CMV vaccine, and (c) measuring a CD8+ T cell response, wherein the CMV vaccine is efficacious if a CD8+ T cell response is protective against the challenge with the CMV vector lacking the glycoproteins within the US2 to US 11 region of CMV and wherein the CMV vector contains and expresses at least one immunogen of the CMV vaccine.
A lid comprising a base and a single cover, wherein the cover comprises at least two portions (28, 30) for covering at least two openings (60, 62) of differing size defined by the base, the two portions (28, 30) of the cover are positioned in planes differing from one another, the at least two openings (60, 62) are in different planes and the two portions (28, 30) of the cover are pivotable relative to one another.
A check-valve assembly comprising: a housing defining a first connection and a second connection, the housing having a first member configured to be coupled to a second member to define a first passageway between the first connection and the second connection, and a second passageway between the first connection and the second connection that is distinct from the first passageway; and a check valve disposed in the first passageway and configured to permit fluid to pass through the check valve from the first connection to the second connection if the pressure at the second connection is less than the pressure at first connection and to prevent fluid from passing through check valve from second connection to first connection if the pressure at the second connection is greater than the pressure at the first connection. a housing defining a first connection and a second connection, the housing having a first member configured to be coupled to a second member to define a first passageway between the first connection and the second connection, and a second passageway between the first connection and the second connection that is distinct from the first passageway; and a check valve disposed in the first passageway and configured to permit fluid to pass through the check valve from the first connection to the second connection if the pressure at the second connection is less than the pressure at first connection and to prevent fluid from passing through check valve from second connection to first connection if the pressure at the second connection is greater than the pressure at the first connection.
A work machine which performs a holding task of holding an object of a work, a carrying task of carrying the object being held to a position above a destination, and a discharge task of discharging the object at the position above the destination, the work machine comprising: a machine body; a working device which includes a boom tiltably supported on the machine body, and an attachment for holding the object; a load acquisition section which acquires a load of the object held by the attachment; and an estimative load determination part which determines, based on the load acquired by the load acquisition section, an estimative load of the object estimated to be discharged at the position above the destination in the discharge task when a predetermined estimative load determinative criterion is satisfied, characterized in that the estimative load determinative criterion includes at least one of a criterion that a boom rising speed at which the boom rises in a rising direction reduces in the holding task, and a criterion that the boom rising speed reduces in the carrying task. a machine body; a working device which includes a boom tiltably supported on the machine body, and an attachment for holding the object; a load acquisition section which acquires a load of the object held by the attachment; and an estimative load determination part which determines, based on the load acquired by the load acquisition section, an estimative load of the object estimated to be discharged at the position above the destination in the discharge task when a predetermined estimative load determinative criterion is satisfied, characterized in that the estimative load determinative criterion includes at least one of a criterion that a boom rising speed at which the boom rises in a rising direction reduces in the holding task, and a criterion that the boom rising speed reduces in the carrying task.
An aqueous pesticide concentrate, comprising: from 5 to 90 weight percent of a pesticide; from 0.6 to 20 weight percent of a surfactant; and from 0.1 to 20 weight percent of a petroleum derived oil; wherein the petroleum derived oil is dispersed as discrete droplets in the aqueous pesticide concentrate to form a stable oil-in-water emulsion with a droplet size from 0.01 micron (μm) to 20 μm, wherein the petroleum derived oil is an aromatic or a paraffinic hydrocarbon, or mixtures thereof; the surfactant is a mixture of an ABA block copolymer having a hydrophilic portion of polyethylene oxide and a hydrophobic portion of poly(12-hydroxystearate), and an AB block copolymer containing EO and PO blocks; and the pesticide is a water soluble salt of an auxinic herbicide. from 5 to 90 weight percent of a pesticide; from 0.6 to 20 weight percent of a surfactant; and from 0.1 to 20 weight percent of a petroleum derived oil;
A process of obtaining n-paraffins from a mixture of vegetable oil and mineral hydrocarbon oil, in the presence of a hydrogen stream and one or more hydroconversion catalysts and under operational conditions for hydroconversion reactions to obtain n-paraffins, comprising: a) mixing a flow comprising one or more (C 12 -C 14) vegetable hydrocarbon oils and optionally one or more natural fats (104, 105) with a flow comprising mineral hydrocarbon oil; b) performing hydrotreatment of the mixture in a hydroconversion reactor under operational conditions for hydroconversion reactions, in the presence of one or more catalysts and a hydrogen stream; c) separating the resulting hydrocarbon stream after hydrotreatment, and directing this towards a rectifier; d) recovering the resulting effluent stream that comprises the n-paraffins; characterized in that said mineral hydrocarbon oil is a kerosene and the hydrotreatment is performed in the presence of one or more metal sulfides of Group VI elements and one or more metal sulfides of Group VIII elements, at a pressure of from 7MPa to 15 MPa, at an average temperature of the catalytic bed of from 250°C to 320°C, at a spatial velocity of from 0.5h -1 to 2h -1, and at a hydrogen load ratio of from 200 nL of hydrogen/L of mixture to 1000 nL hydrogen/L of mixture, for obtaining a n-paraffin product with C 10 -C 13 content of from 98% to 100% and a boiling point in the range of kerosene boiling points. a) mixing a flow comprising one or more (C 12 -C 14) vegetable hydrocarbon oils and optionally one or more natural fats (104, 105) with a flow comprising mineral hydrocarbon oil; b) performing hydrotreatment of the mixture in a hydroconversion reactor under operational conditions for hydroconversion reactions, in the presence of one or more catalysts and a hydrogen stream; c) separating the resulting hydrocarbon stream after hydrotreatment, and directing this towards a rectifier; d) recovering the resulting effluent stream that comprises the n-paraffins; characterized in that said mineral hydrocarbon oil is a kerosene and the hydrotreatment is performed in the presence of one or more metal sulfides of Group VI elements and one or more metal sulfides of Group VIII elements, at a pressure of from 7MPa to 15 MPa, at an average temperature of the catalytic bed of from 250°C to 320°C, at a spatial velocity of from 0.5h -1 to 2h -1, and at a hydrogen load ratio of from 200 nL of hydrogen/L of mixture to 1000 nL hydrogen/L of mixture, for obtaining a n-paraffin product with C 10 -C 13 content of from 98% to 100% and a boiling point in the range of kerosene boiling points.
A head-mounted display device, the head-mounted display device comprising: a display panel (202a, 202b) that comprises a display surface arranged with a plurality of emitters to emit display light, wherein each emitter is configured to have an emission profile associated with a Lambertian emission profile; and wherein the display light comprises a plurality of pixels associated with respective positions on the display surface defined with reference to an optical axis; a pixel emission controller (204a, 204b) optically coupled to the display panel; and a pancake lens assembly (206a, 206b) optically coupled to the pixel emission controller, wherein the pancake lens assembly comprises folded optics configured to direct the display light to an eye box, and wherein the optical axis is established by the pancake lens assembly; wherein the pixel emission controller is adapted to apply an emission profile to each pixel of the display light, wherein the emission profile comprises a beam width and a beam direction, and wherein the emission profile of each pixel of the display light is a function of an optical coupling between the position on the display surface associated with the pixel through the pancake lens assembly to the eye box; and wherein the adaption of the pixel emission controller comprises being arranged with at least one of: a collimating component configured to reduce a beam width of each of the emission profiles, and a directional component configured to modify the beam angle of each of the emission profiles. a display panel (202a, 202b) that comprises a display surface arranged with a plurality of emitters to emit display light, wherein each emitter is configured to have an emission profile associated with a Lambertian emission profile; and wherein the display light comprises a plurality of pixels associated with respective positions on the display surface defined with reference to an optical axis; a pixel emission controller (204a, 204b) optically coupled to the display panel; and a pancake lens assembly (206a, 206b) optically coupled to the pixel emission controller, wherein the pancake lens assembly comprises folded optics configured to direct the display light to an eye box, and wherein the optical axis is established by the pancake lens assembly; wherein the pixel emission controller is adapted to apply an emission profile to each pixel of the display light, wherein the emission profile comprises a beam width and a beam direction, and wherein the emission profile of each pixel of the display light is a function of an optical coupling between the position on the display surface associated with the pixel through the pancake lens assembly to the eye box; and wherein the adaption of the pixel emission controller comprises being arranged with at least one of: a collimating component configured to reduce a beam width of each of the emission profiles, and a directional component configured to modify the beam angle of each of the emission profiles.
A method of driving a semiconductor laser having: a substrate; a tuning element comprising an insulating cladding and a first electrode formed on a resistive cladding, wherein the insulating cladding is positioned between the resistive cladding and the substrate; and a waveguide laser structure comprising an active region, cladding layers, a resistive cladding and a second electrode formed on the resistive cladding of the laser structure, and a third electrode connected to the substrate, wherein the cladding layers are positioned between the resistive cladding and the substrate and the active region is positioned within the cladding layers; wherein the resistive claddings are a continuous layer that has a reduced thickness that forms a trench between the first electrode and the second electrode, the method comprising: applying a first waveform to the first electrode of the semiconductor laser, wherein the reduced thickness of the resistive cladding creates a resistor between the first electrode and the second electrode that generates heat in response to the first waveform; and applying a second waveform to the second electrode to provide current injection by the second and third electrodes; wherein the first waveform and the second waveform are simultaneously modulated in order to change an emission wavelength of light emitted from the semiconductor laser and to achieve a substantially constant output power of the light emitted from the semiconductor laser. a tuning element comprising an insulating cladding and a first electrode formed on a resistive cladding, wherein the insulating cladding is positioned between the resistive cladding and the substrate; and a waveguide laser structure comprising an active region, cladding layers, a resistive cladding and a second electrode formed on the resistive cladding of the laser structure, and a third electrode connected to the substrate, wherein the cladding layers are positioned between the resistive cladding and the substrate and the active region is positioned within the cladding layers; wherein the resistive claddings are a continuous layer that has a reduced thickness that forms a trench between the first electrode and the second electrode, the method comprising: applying a first waveform to the first electrode of the semiconductor laser, wherein the reduced thickness of the resistive cladding creates a resistor between the first electrode and the second electrode that generates heat in response to the first waveform; and applying a second waveform to the second electrode to provide current injection by the second and third electrodes; wherein the first waveform and the second waveform are simultaneously modulated in order to change an emission wavelength of light emitted from the semiconductor laser and to achieve a substantially constant output power of the light emitted from the semiconductor laser.
A pressure sensor comprising: a Si device for detecting a pressure P, which is an object of detection, through detection of a stress occurring to the Si device itself by the pressure P, the Si device formed into a rectangular plate shape and having (a) a first main surface that has a pressure-sensitive part area, (b) a second main surface that is parallel to the first main surface, (c) a pressure-sensitive resistor which is formed on the first main surface and whose resistance changes according to the pressure P, and a pressing member (225, 235) bonded to the first main surface of the Si device, and compressing the Si device in a thickness direction of the Si device by pressing the first main surface by a pressing force according to the pressure P, and the pressing member (225, 235) being bonded to the first main surface except for four corner sections (230ah1, 230ah2, 230ah3 and 230ah4) of the first main surface with the pressing member (225, 235) reaching up to four outer circumferential edges which define the first main surface, and the pressure-sensitive resistor being symmetrical about a center of the pressure-sensitive part area where the pressure-sensitive resistor is formed on the first main surface of the Si device. a Si device for detecting a pressure P, which is an object of detection, through detection of a stress occurring to the Si device itself by the pressure P, the Si device formed into a rectangular plate shape and having (a) a first main surface that has a pressure-sensitive part area, (b) a second main surface that is parallel to the first main surface, (c) a pressure-sensitive resistor which is formed on the first main surface and whose resistance changes according to the pressure P, and (a) a first main surface that has a pressure-sensitive part area, (b) a second main surface that is parallel to the first main surface, (c) a pressure-sensitive resistor which is formed on the first main surface and whose resistance changes according to the pressure P, and a pressing member (225, 235) bonded to the first main surface of the Si device, and compressing the Si device in a thickness direction of the Si device by pressing the first main surface by a pressing force according to the pressure P, and the pressing member (225, 235) being bonded to the first main surface except for four corner sections (230ah1, 230ah2, 230ah3 and 230ah4) of the first main surface with the pressing member (225, 235) reaching up to four outer circumferential edges which define the first main surface, and the pressure-sensitive resistor being symmetrical about a center of the pressure-sensitive part area where the pressure-sensitive resistor is formed on the first main surface of the Si device.