mhurhangee/ep-ind-claims huggingface dataset:
An air compressor including a main frame for mounting a motor which rotates a gear to drive a piston body fitted in a cylinder to conduct reciprocating motion for producing compressed air which enters an inner space of an air storage container wherein the cylinder defines a top wall thereof a plurality of exit holes (4, 5, 6) of equal dimension, wherein the exit holes (4, 5, 6) are regulated by a control mechanism to be opened or closed, the control mechanism including a plurality of plugs and a plurality of compression springs capable of urging the plugs to seal the exit holes, respectively, characterised in that the air storage container is provided with two opposite coupling means at a bottom edge thereof, each coupling means including a base portion extending outwardly from the bottom edge of the air storage container, and an L-shaped holding portion integrally formed at one end of the base portion distal from the bottom edge of the air storage container.
An epicyclic gear system having an epicyclic gear stage (100; 200), the epicyclic gear stage comprising: a sun gear; a carrier, wherein the carrier comprises a plurality of planet gear axles; a plurality of planet gears, each planet gear being located on one of the planet gear axles; a ring gear; and an output shaft, wherein the output shaft is connected to the carrier via a biasing mechanism (160; 260) positioned between the carrier and the output shaft, characterized in that, the biasing mechanism is configured to urge the carrier and the output shaft away from one another, and in that the carrier is shaped in a semi-circular shape and the main curve of the semi-circular shape follows the curve of the ring gear, and wherein the output shaft is shaped to extend through the ring gear and adjacent to the carrier so that the output shaft is within the space in the ring gear unoccupied by the carrier. a sun gear; a carrier, wherein the carrier comprises a plurality of planet gear axles; a plurality of planet gears, each planet gear being located on one of the planet gear axles; a ring gear; and an output shaft, wherein the output shaft is connected to the carrier via a biasing mechanism (160; 260) positioned between the carrier and the output shaft, characterized in that, the biasing mechanism is configured to urge the carrier and the output shaft away from one another, and in that the carrier is shaped in a semi-circular shape and the main curve of the semi-circular shape follows the curve of the ring gear, and wherein the output shaft is shaped to extend through the ring gear and adjacent to the carrier so that the output shaft is within the space in the ring gear unoccupied by the carrier.
A system, comprising: a gas turbine exhaust section, comprising: an exhaust flow path; an outer structure comprising an outer casing, an outer exhaust wall disposed along the exhaust flow path and an outer cavity disposed between the outer exhaust wall and the outer casing; an inner structure comprising an inner exhaust wall disposed along the exhaust flow path, an inner cavity disposed between the inner exhaust wall and an inner casing and a bearing cavity disposed between the inner casing and a bearing housing; and a strut extending between the outer structure and the inner structure, wherein the strut comprises an inner body and an outer body, wherein a first flow passage is disposed within the inner body, and a second flow passage is disposed between the inner body and the outer body, wherein the inner and the outer bodies (50, 48) are disposed one inside another such that the first and second flow passages (52, 53) are isolated one inside another; characterised by the first flow passage being configured to flow the fluid into the inner cavity and the second flow passage is configured to flow the fluid from the inner cavity to the outer cavity; wherein the fluid is cooling air, wherein the system includes tunable areas (306, 308, 310) for controlling the flow of cooling air through bearing cavity and inner cavity. an exhaust flow path; an outer structure comprising an outer casing, an outer exhaust wall disposed along the exhaust flow path and an outer cavity disposed between the outer exhaust wall and the outer casing; an inner structure comprising an inner exhaust wall disposed along the exhaust flow path, an inner cavity disposed between the inner exhaust wall and an inner casing and a bearing cavity disposed between the inner casing and a bearing housing; and a strut extending between the outer structure and the inner structure, wherein the strut comprises an inner body and an outer body, wherein a first flow passage is disposed within the inner body, and a second flow passage is disposed between the inner body and the outer body, wherein the inner and the outer bodies (50, 48) are disposed one inside another such that the first and second flow passages (52, 53) are isolated one inside another; characterised by the first flow passage being configured to flow the fluid into the inner cavity and the second flow passage is configured to flow the fluid from the inner cavity to the outer cavity; wherein the fluid is cooling air, wherein the system includes tunable areas (306, 308, 310) for controlling the flow of cooling air through bearing cavity and inner cavity.
A method of performing automatic transcription of musical content included in an audio signal received by a computing device, the method comprising: processing, using the computing device, the received audio signal to extract musical information characterizing at least a portion of the musical content; generating, using the computing device, a plurality of musical notations representing alternative musical interpretations of the extracted musical information; generating, for each of the plurality of musical notations, a respective matching score that indicates a measure of matching the received audio signal; selecting one of the plurality of musical notations based on the generated plurality of matching scores; and applying the selected one of the plurality of musical notations for transcribing the musical content of the received audio signal. processing, using the computing device, the received audio signal to extract musical information characterizing at least a portion of the musical content; generating, using the computing device, a plurality of musical notations representing alternative musical interpretations of the extracted musical information; generating, for each of the plurality of musical notations, a respective matching score that indicates a measure of matching the received audio signal; selecting one of the plurality of musical notations based on the generated plurality of matching scores; and applying the selected one of the plurality of musical notations for transcribing the musical content of the received audio signal.
A method of monitoring the health of an abradable seal located on a piston of an actuator, the method comprising the steps of: (i) measuring an initial velocity of said actuator piston while said actuator is maintained in a passive state or condition at an initial time; (ii) operating said actuator; (iii) measuring a subsequent velocity of said actuator piston while said actuator is maintained in a passive state or condition at a subsequent time; (iv) repeating steps (i)-(iii) and either: recording or outputting the measured subsequent velocities over time; or determining a health status of said actuator when said subsequent velocity has increased above a predetermined amount. (i) measuring an initial velocity of said actuator piston while said actuator is maintained in a passive state or condition at an initial time; (ii) operating said actuator; (iii) measuring a subsequent velocity of said actuator piston while said actuator is maintained in a passive state or condition at a subsequent time; (iv) repeating steps (i)-(iii) and either: recording or outputting the measured subsequent velocities over time; or determining a health status of said actuator when said subsequent velocity has increased above a predetermined amount. recording or outputting the measured subsequent velocities over time; or determining a health status of said actuator when said subsequent velocity has increased above a predetermined amount.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a void extending through a medial side and a lateral side of the footwear, the void defining an upper surface and an opposite lower surface; a fluid-filled chamber (151 a,251 a) located within the void and in a rear-lateral area of the footwear, the chamber having a first surface and an opposite second surface, the first surface being located adjacent to the upper surface of the void, and the second surface being located adjacent to the lower surface of the void, the first and the second surface being angled upwardly; and an outsole secured below the fluid-filled chamber, the outsole defining an upward bevel in an area corresponding with the second surface of the chamber. a void extending through a medial side and a lateral side of the footwear, the void defining an upper surface and an opposite lower surface; a fluid-filled chamber (151 a,251 a) located within the void and in a rear-lateral area of the footwear, the chamber having a first surface and an opposite second surface, the first surface being located adjacent to the upper surface of the void, and the second surface being located adjacent to the lower surface of the void, the first and the second surface being angled upwardly; and an outsole secured below the fluid-filled chamber, the outsole defining an upward bevel in an area corresponding with the second surface of the chamber.
Transmitter housing of a field device used in automation engineering, with a screwed-on cover and a cover lock, wherein the transmitter housing is sealed by the screwed-on cover, comprising: a locking pin with a screw arranged on a first end section of the locking pin; a guide integrated in the cover, said guide being designed to receive the locking pin; and a groove, which comprises a section in the form of a circular segment and which is integrated in a section of the transmitter housing facing towards the cover; wherein the locking pin can be fixed in the guide, from the direction of a front face of the cover which is facing away from the transmitter housing, in such a way that - in the fixed state - a second end section of the locking pin, which is located opposite the first end section, projects into the groove, which limits a rotation of the cover in relation to the transmitter housing, said cover being screwed onto the transmitter housing. a locking pin with a screw arranged on a first end section of the locking pin; a guide integrated in the cover, said guide being designed to receive the locking pin; and a groove, which comprises a section in the form of a circular segment and which is integrated in a section of the transmitter housing facing towards the cover; wherein the locking pin can be fixed in the guide, from the direction of a front face of the cover which is facing away from the transmitter housing, in such a way that - in the fixed state - a second end section of the locking pin, which is located opposite the first end section, projects into the groove, which limits a rotation of the cover in relation to the transmitter housing, said cover being screwed onto the transmitter housing.
An immunochromatographic test piece, comprising a membrane on which a capture substance being a ligand that bonds to a substance to be detected is immobilized, wherein insoluble carrier particles to which a ligand that bonds to the substance to be detected is bound are used and accumulated by being captured with the capture substance immobilized on the membrane; the membrane is irradiated with light to detect light emitted at a portion where the insoluble carrier particles are accumulated or a portion surrounding and other than the portion where the insoluble carrier particles are accumulated, thereby measuring the substance to be detected; and a light-reflecting material is provided on a side of the membrane opposite to a side irradiated with light, wherein the immunochromatographic test piece is stored in a storage container and the storage container itself is made of the light-reflecting material.
A silicon carbide substrate for mounting an element operating in a high-frequency region on a surface thereof, said silicon carbide substrate comprising: a first layer composed of polycrystalline silicon carbide; characterized by a second layer composed of polycrystalline silicon carbide and formed on a surface of said first layer and on the surface side of said silicon carbide substrate, wherein said second layer has a thickness of 10 μm or more accounting for up to 20% of a total thickness of said silicon carbide substrate and has a less high-frequency loss than said first layer, and said first layer has a higher thermal conductivity than said second layer, or wherein said second layer has a higher specific resistance than said first layer and said first layer has a higher thermal conductivity than said second layer, and wherein specific resistance of said silicon carbide substrate is 10 4 Ωcm or more on a surface side of said second layer and thermal conductivity of said silicon carbide substrate is 200 W/mK or more. a first layer composed of polycrystalline silicon carbide; a second layer composed of polycrystalline silicon carbide and formed on a surface of said first layer and on the surface side of said silicon carbide substrate, wherein said second layer has a thickness of 10 μm or more accounting for up to 20% of a total thickness of said silicon carbide substrate and has a less high-frequency loss than said first layer, and said first layer has a higher thermal conductivity than said second layer, or wherein said second layer has a higher specific resistance than said first layer and said first layer has a higher thermal conductivity than said second layer, and wherein specific resistance of said silicon carbide substrate is 10 4 Ωcm or more on a surface side of said second layer and thermal conductivity of said silicon carbide substrate is 200 W/mK or more.
A method of machining a cellular core having individual cells arranged laterally in a plurality of columns and longitudinally in a plurality of rows, which core is mounted atop a table in a multi-axis Computerized Numerical Controlled machine with said columns extending longitudinally along a machining axis thereof between longitudinally opposite top and bottom ends of said core, and characterized by; scanning said core atop said table to recognize said individual cells arranged laterally in columns and longitudinally in rows and additionally recognize any non-linearity in a column of said scanned cells when mounted atop said table by recognizing non-linearity in geometric cell distributions defining said scanned column from said core top end to said core bottom end; generating a machining path from said recognized cells and matching said non-linearity in said column of scanned cells from said core top end to said core bottom end; and machining said core along said generated non-linear machining path from said core top end to said core bottom end to machine corresponding cells sequentially in turn along said scanned column in said core. scanning said core atop said table to recognize said individual cells arranged laterally in columns and longitudinally in rows and additionally recognize any non-linearity in a column of said scanned cells when mounted atop said table by recognizing non-linearity in geometric cell distributions defining said scanned column from said core top end to said core bottom end; generating a machining path from said recognized cells and matching said non-linearity in said column of scanned cells from said core top end to said core bottom end; and machining said core along said generated non-linear machining path from said core top end to said core bottom end to machine corresponding cells sequentially in turn along said scanned column in said core.
A vehicle body frame for a saddle type vehicle, comprising: a head pipe which supports a front wheel; a pair of left and right main frames connected to the head pipe and extending rearwardly in leftward and rightward directions; and the head pipe including a pipe portion, a main frame attachment portion to which the main frames are welded at a front end portion thereof such that part of the main frames overlaps with the pipe portion, and a down frame attachment portion to which a down frame is welded at an upper end portion thereof; the down frame connected to the head pipe and extending downwardly; the head pipe including a downward extension extending downwardly from the pipe portion and the main frame attachment portion; and the down frame attachment portion being provided at a lower portion of the downward extension; and characterized in that the downward extension includes an upper side supporting portion extending rearwardly downwardly from a lower portion of the main frame attachment portion and a lower side supporting portion extending rearwardly downwardly from a lower portion of the pipe portion, and is formed integrally with the head pipe by forging, and that the down frame attachment portion is configured from a connecting portion extending in parallel to the pipe portion from a lower end of the upper side supporting portion and connecting to the lower side supporting portion and an extension extending rearwardly from the lower side supporting portion farther than a lower end portion of the connecting portion. a head pipe which supports a front wheel; a pair of left and right main frames connected to the head pipe and extending rearwardly in leftward and rightward directions; and the head pipe including a pipe portion, a main frame attachment portion to which the main frames are welded at a front end portion thereof such that part of the main frames overlaps with the pipe portion, and a down frame attachment portion to which a down frame is welded at an upper end portion thereof; the down frame connected to the head pipe and extending downwardly; the head pipe including a downward extension extending downwardly from the pipe portion and the main frame attachment portion; and the down frame attachment portion being provided at a lower portion of the downward extension; and characterized in that the downward extension includes an upper side supporting portion extending rearwardly downwardly from a lower portion of the main frame attachment portion and a lower side supporting portion extending rearwardly downwardly from a lower portion of the pipe portion, and is formed integrally with the head pipe by forging, and that the down frame attachment portion is configured from a connecting portion extending in parallel to the pipe portion from a lower end of the upper side supporting portion and connecting to the lower side supporting portion and an extension extending rearwardly from the lower side supporting portion farther than a lower end portion of the connecting portion.
An X-ray generator comprising: a booster configured to boost a first DC voltage supplied from a voltage source to a second DC voltage that is higher in magnitude than the first DC voltage; at least one capacitor configured to receive the second DC voltage and to generate a charging voltage; a converter configured to convert the charging voltage into a driving voltage; an X-ray source configured to receive the driving voltage and to emit X-rays; and a controller configured to control the booster, the converter, and the X-ray source, wherein the second DC voltage is variable, characterized in that the controller calculates a cooling time that is taken for the X-ray source to be cooled to below a predetermined temperature after the X-ray source emits X-rays, determines the magnitude of the second DC voltage according to the cooling time, and applies the second DC voltage to the capacitor for the cooling time. a booster configured to boost a first DC voltage supplied from a voltage source to a second DC voltage that is higher in magnitude than the first DC voltage; at least one capacitor configured to receive the second DC voltage and to generate a charging voltage; a converter configured to convert the charging voltage into a driving voltage; an X-ray source configured to receive the driving voltage and to emit X-rays; and a controller configured to control the booster, the converter, and the X-ray source, wherein the second DC voltage is variable, characterized in that the controller calculates a cooling time that is taken for the X-ray source to be cooled to below a predetermined temperature after the X-ray source emits X-rays, determines the magnitude of the second DC voltage according to the cooling time, and applies the second DC voltage to the capacitor for the cooling time.
A luminaire with a connecting part against an edge of a reflecting surface or a support panel of the reflecting surface of a mirror, the reflecting surface being at least partially applied against the support panel, an electrical cable extending into an interior of the luminaire from an illuminating end of the luminaire to the connecting part then being intended to pass behind the support panel, the connecting part comprising a first branch facing the illuminating end and a second branch curved relative to the first branch by an angle of 90° with a variation range of +/-30° around this angle, the second branch having a median longitudinal slot opening at a free end of the second branch of the connecting part and having a lumen opening onto two opposite lateral faces of the second branch, the longitudinal slot having a width from 3 to 6 millimetres and a sufficient length so that, when an element (13a, 6b) is inserted into the slot by having said width of the slot reduced by a clearance which is just sufficient to allow its insertion into the slot, the luminaire is held in position relative to the element (13a, 6b), characterised in that a remaining face of the second branch has a longitudinal groove for the passage of the electrical cable, the first branch being hollow and including an element for centring the electrical cable in the longitudinal median position in the first branch, the centring element having a median passage shaped to a diameter of the electrical cable and being removable from the first branch by being secured by at least one securing means, the centring element positioning the electrical cable just in alignment with the grooves (10a, 10b) of the insert and the second branch.