mhurhangee/ep-ind-claims huggingface dataset:
A support structure for use during vehicle measurement and ADAS calibration procedures, comprising: a base; a front column mounted on said base; a rear column mounted on said base, said rear column spaced rearward from said front column; a bridge member coupling a top of said front column to a top of said rear column; and a mounting structure carrying an instrumentation crossbeam, said mounting structure supported for vertical movement along a forward face of said front column, said mounting structure operatively coupled to a vertically movable counterweight carried by said rear column. a base; a front column mounted on said base; a rear column mounted on said base, said rear column spaced rearward from said front column; a bridge member coupling a top of said front column to a top of said rear column; and a mounting structure carrying an instrumentation crossbeam, said mounting structure supported for vertical movement along a forward face of said front column, said mounting structure operatively coupled to a vertically movable counterweight carried by said rear column.
A method for manufacturing solid milk, comprising: a classification process for obtaining powdered milk having a larger particle diameter than prescribed particle diameter by classifying powdered milk which is an ingredient of the solid milk, wherein the classification process is a process for using a sieve the mesh size of which is 200 micrometers to 700 micrometers; a compaction molding process for obtaining a compaction molded body of the powdered milk remaining on the sieve after the classification process; a humidification process for humidifying the compaction molded body of the powdered milk after the compaction molding process, wherein the humidification process is carried out in a high humidity environment the high humidity environment being 60 percent RH to 100 percent RH; and a drying process for drying the compaction molded body of the powdered milk after the humidification process. a classification process for obtaining powdered milk having a larger particle diameter than prescribed particle diameter by classifying powdered milk which is an ingredient of the solid milk, wherein the classification process is a process for using a sieve the mesh size of which is 200 micrometers to 700 micrometers; a compaction molding process for obtaining a compaction molded body of the powdered milk remaining on the sieve after the classification process; a humidification process for humidifying the compaction molded body of the powdered milk after the compaction molding process, wherein the humidification process is carried out in a high humidity environment the high humidity environment being 60 percent RH to 100 percent RH; and a drying process for drying the compaction molded body of the powdered milk after the humidification process.
A method of measuring an opening at least partially defined by a surface, said method comprising: positioning a plurality of target bodies about a circumference of a target body holder that is sized to fit within the opening; forcing the plurality of target bodies radially outward to cause at least one of the plurality of target bodies to be positioned against the surface; and determining a geometric property of the opening based at least partially on a photogrammatically-determined location of the plurality of target bodies positioned against the surface; wherein the target body holder includes an expanding mechanism enabling the target bodies to be positioned against the surface; characterized in that the expanding mechanism includes a clamp screw, a clamp washer, and a rubber pressure ring positioned between the clamp washer and a portion of the target body holder. positioning a plurality of target bodies about a circumference of a target body holder that is sized to fit within the opening; forcing the plurality of target bodies radially outward to cause at least one of the plurality of target bodies to be positioned against the surface; and determining a geometric property of the opening based at least partially on a photogrammatically-determined location of the plurality of target bodies positioned against the surface; wherein the target body holder includes an expanding mechanism enabling the target bodies to be positioned against the surface; characterized in that the expanding mechanism includes a clamp screw, a clamp washer, and a rubber pressure ring positioned between the clamp washer and a portion of the target body holder.
A continuous casting machine, comprising: a mold; a dummy bar curved at a uniform curvature radius in a longitudinal direction and configured to be inserted into the mold to receive molten steel when casting is started; guide rolls configured to guide, downward along a circular path, the dummy bar and a cast piece that have been drawn out of the mold, the circular path passing through the mold and having the uniform curvature radius; a delivery portion configured to deliver, in a tangential direction of the circular path, the cast piece separated from the dummy bar at a bottom portion of the circular path; and a guide mechanism (12, 21, 22) configured to allow the dummy bar separated from the cast piece to move along the circular path and configured to insert the dummy bar into the mold from above the mold, wherein the guide mechanism (12, 21, 22) includes: a first pinch roll portion disposed on the circular path and configured to apply a drawing force to the dummy bar and the cast piece, the first pinch roll portion having at least two pairs of pinch rolls; and a second pinch roll portion (21, 22) disposed on the circular path and configured to apply a driving force to the dummy bar to move the dummy bar along the circular path, the second pinch roll portion (21, 22) having at least a pair of pinch rolls. a mold; a dummy bar curved at a uniform curvature radius in a longitudinal direction and configured to be inserted into the mold to receive molten steel when casting is started; guide rolls configured to guide, downward along a circular path, the dummy bar and a cast piece that have been drawn out of the mold, the circular path passing through the mold and having the uniform curvature radius; a delivery portion configured to deliver, in a tangential direction of the circular path, the cast piece separated from the dummy bar at a bottom portion of the circular path; and a guide mechanism (12, 21, 22) configured to allow the dummy bar separated from the cast piece to move along the circular path and configured to insert the dummy bar into the mold from above the mold, wherein the guide mechanism (12, 21, 22) includes: a first pinch roll portion disposed on the circular path and configured to apply a drawing force to the dummy bar and the cast piece, the first pinch roll portion having at least two pairs of pinch rolls; and a second pinch roll portion (21, 22) disposed on the circular path and configured to apply a driving force to the dummy bar to move the dummy bar along the circular path, the second pinch roll portion (21, 22) having at least a pair of pinch rolls. a first pinch roll portion disposed on the circular path and configured to apply a drawing force to the dummy bar and the cast piece, the first pinch roll portion having at least two pairs of pinch rolls; and a second pinch roll portion (21, 22) disposed on the circular path and configured to apply a driving force to the dummy bar to move the dummy bar along the circular path, the second pinch roll portion (21, 22) having at least a pair of pinch rolls.
A surgical stapler, comprising: (a) an anvil channel member; (b) an anvil surface having a plurality of staple forming pockets; (c) a cartridge channel member configured to releasably couple with the anvil channel member, wherein a distal portion of the cartridge channel member is configured to receive a staple cartridge; (d) a first latch feature; (e) a second latch feature, wherein the second latch feature is movable between an open position in which the anvil channel member and the cartridge channel member are moveable relative to one another, and a closed position in which the second latch feature engages the first latch feature and thereby fixes the anvil channel member and the cartridge channel member relative to one another; and (f) a latch lockout member, wherein the latch lockout member is movable between a lockout state in which the latch lockout member locks the second latch feature in the open position, and a release state in which the latch lockout member permits the second latch feature to move from the open position to the closed position, wherein the latch lockout member is configured to move from the lockout state to the release state in response to being engaged by the first latch feature, characterized in that the latch lockout member includes a first engagement surface configured to contact the first latch feature and a second engagement surface configured to contact the second latch feature, wherein the first latch feature is configured to contact the first engagement surface to thereby disengage the second engagement surface from the second latch feature and move the latch lockout member from the lockout state to the release state. (a) an anvil channel member; (b) an anvil surface having a plurality of staple forming pockets; (c) a cartridge channel member configured to releasably couple with the anvil channel member, wherein a distal portion of the cartridge channel member is configured to receive a staple cartridge; (d) a first latch feature; (e) a second latch feature, wherein the second latch feature is movable between an open position in which the anvil channel member and the cartridge channel member are moveable relative to one another, and a closed position in which the second latch feature engages the first latch feature and thereby fixes the anvil channel member and the cartridge channel member relative to one another; and (f) a latch lockout member, wherein the latch lockout member is movable between a lockout state in which the latch lockout member locks the second latch feature in the open position, and a release state in which the latch lockout member permits the second latch feature to move from the open position to the closed position, wherein the latch lockout member is configured to move from the lockout state to the release state in response to being engaged by the first latch feature,
Self-blowout circuit breaker having contacts for connecting or disconnecting a circuit, at least one first arcing contact and one first rated current contact being movable back and forth in the direction of the longitudinal axis of the self-blowout circuit breaker, having a compression volume which is connected to a heating volume by at least one non-return valve, which heating volume is connected to an arc zone, in which case, upon the disconnection of the circuit, while the first arcing contact is being disconnected from at least one associated second arcing contact, an arc is produced between the two arcing contacts (2a, 2b) in the arc zone, having an exhaust volume, the compression volume and the exhaust volume being filled with a gas, and having a combined filling and overpressure valve separating the compression volume from the exhaust volume, characterized in that the combined filling and overpressure valve is in the form of a plate, and in that at least one tab is formed in the plate.
A toothpaste composition comprising: (i) 2 to 70 wt% abrasive; (ii) a fluoride source; (iii) 1:1 layered silicate clay; and, (iv) 2:1 layered silicate clay. wherein the abrasive is an abrasive silica or a calcium based abrasive. (i) 2 to 70 wt% abrasive; (ii) a fluoride source; (iii) 1:1 layered silicate clay; and, (iv) 2:1 layered silicate clay. wherein the abrasive is an abrasive silica or a calcium based abrasive.
A tapping with a housing, provided with a connecting head near an end of said housing for coupling the tapping head to a container, wherein the tapping head is provided with at least one of a beverage channel which extends from a beverage line connection into the connecting head and a gas channel which extends from a gas line connection characterised in that the tapping head is provided with at least one cooling chamber with an entrance and an exit separate from the beverage channel and/or the gas channel, which cooling chamber is in thermal contact with the housing.
Use of a check valve for blocking back flow of fluid through a passage, wherein said fluid comprises cellulose, said fluid preferably being pressurized with a maximal pressure of at least 500 bar while the check valve is closed and/or said fluid preferably flowing through the open passage with a maximal flow rate of at least 50 I/min; wherein said check valve comprises - a housing which contains: - a valve seat comprising the passage and a seat contact surface, wherein said valve seat is made from steel or a ceramic material; and - a valve member comprising a convexly curved, preferably essentially spherical, member contact surface; said member contact surface being pretensioned against said seat contact surface for sealing said passage; said valve member being movable increasing said pretension for opening said passage; wherein - said passage has a minimal flow-through area of at least 40 mm 2; and - said seat contact surface has a concave curvature wherein a curvature radius of said concave curvature is larger than a curvature radius of the member contact surface, and - said valve member is guided linearly within the housing. wherein said check valve comprises - a housing which contains: - a valve seat comprising the passage and a seat contact surface, wherein said valve seat is made from steel or a ceramic material; and - a valve member comprising a convexly curved, preferably essentially spherical, member contact surface; - a housing which contains: - a valve seat comprising the passage and a seat contact surface, wherein said valve seat is made from steel or a ceramic material; and - a valve member comprising a convexly curved, preferably essentially spherical, member contact surface; - a valve seat comprising the passage and a seat contact surface, wherein said valve seat is made from steel or a ceramic material; and - a valve member comprising a convexly curved, preferably essentially spherical, member contact surface; said member contact surface being pretensioned against said seat contact surface for sealing said passage; said valve member being movable increasing said pretension for opening said passage; wherein - said passage has a minimal flow-through area of at least 40 mm 2; and - said seat contact surface has a concave curvature wherein a curvature radius of said concave curvature is larger than a curvature radius of the member contact surface, and - said valve member is guided linearly within the housing. - said passage has a minimal flow-through area of at least 40 mm 2; and - said seat contact surface has a concave curvature wherein a curvature radius of said concave curvature is larger than a curvature radius of the member contact surface, and - said valve member is guided linearly within the housing.
A pesticidal mixture, which comprises as active components 1) compound I-9 of following structure and the stereoisomers, salts, tautomers and N-oxides thereof; and 2) tioxazafen, or fluazaindolizine; wherein component 1) and component 2) are present in a weight ratio of from 1000:1 to 1:1000. 1) compound I-9 of following structure and the stereoisomers, salts, tautomers and N-oxides thereof; and 2) tioxazafen, or fluazaindolizine; wherein component 1) and component 2) are present in a weight ratio of from 1000:1 to 1:1000.
An unmanned surface vehicle comprising: a buoyant hull structure; a master computer unit coupled to the buoyant hull structure wherein the MCU is configured to form a proportional-integral-derivative controller with sensor feedback to provide condition heading control; a magnetic heading sensor; a very high frequency radio coupled to the buoyant hull structure, wherein the VHF radio is configured to assemble into an ad-hoc mesh network with other VHF radios of other USVs; a satellite radio coupled to the buoyant hull structure, wherein the satellite radio is configured to provide a higher-level communication network for global coverage: a Global Positioning System coupled to the buoyant hull structure; a plurality of weather sensors coupled to the buoyant hull structure; a navigation and propulsion controller coupled to the buoyant hull structure; at least one thruster coupled to the buoyant hull structure and configured to provide propulsion; a battery coupled to the buoyant hull structure, wherein the battery optionally comprises a high-density lithium polymer (LiPo); a charge controller coupled to the buoyant hull structure; and a solar panel coupled to the buoyant hull structure and configured to charge the battery. a buoyant hull structure; a master computer unit coupled to the buoyant hull structure wherein the MCU is configured to form a proportional-integral-derivative controller with sensor feedback to provide condition heading control; a magnetic heading sensor; a very high frequency radio coupled to the buoyant hull structure, wherein the VHF radio is configured to assemble into an ad-hoc mesh network with other VHF radios of other USVs; a satellite radio coupled to the buoyant hull structure, wherein the satellite radio is configured to provide a higher-level communication network for global coverage: a Global Positioning System coupled to the buoyant hull structure; a plurality of weather sensors coupled to the buoyant hull structure; a navigation and propulsion controller coupled to the buoyant hull structure; at least one thruster coupled to the buoyant hull structure and configured to provide propulsion; a battery coupled to the buoyant hull structure, wherein the battery optionally comprises a high-density lithium polymer (LiPo); a charge controller coupled to the buoyant hull structure; and a solar panel coupled to the buoyant hull structure and configured to charge the battery.
A process for filling a container with insect larvae, wherein the container has a plurality of compartments distributed in rows for receiving a larva in each compartment, the process comprising: - supplying the larvae to a hopper which is arranged adjacent to a roller having lines of openings on the outer surface thereof for adhering a larva at each opening, - applying a vacuum inside the roller for adhering the larvae to the openings, - moving the container in a forward movement direction towards the roller, the container being moved through an area below the roller and the roller being arranged in a transverse position with respect to the forward movement direction, - rotating the roller in a manner that is synchronized with the forward movement of the container from a loading position in which the larvae from the hopper are adhered to the openings of the roller to an unloading position in which one of the lines of openings of the roller faces the compartments of one of the rows of the container, and - removing the vacuum from the line of openings in the unloading position in order to release the larvae, with one larva being arranged in each compartment of the row of the container. - supplying the larvae to a hopper which is arranged adjacent to a roller having lines of openings on the outer surface thereof for adhering a larva at each opening, - applying a vacuum inside the roller for adhering the larvae to the openings, - moving the container in a forward movement direction towards the roller, the container being moved through an area below the roller and the roller being arranged in a transverse position with respect to the forward movement direction, - rotating the roller in a manner that is synchronized with the forward movement of the container from a loading position in which the larvae from the hopper are adhered to the openings of the roller to an unloading position in which one of the lines of openings of the roller faces the compartments of one of the rows of the container, and - removing the vacuum from the line of openings in the unloading position in order to release the larvae, with one larva being arranged in each compartment of the row of the container.
A temperature detection material comprising a temperature-indicating material including a leuco dye, a color developer, and a color eraser, and a matrix material, wherein the matrix material is a nonpolar material; wherein a melting point of the matrix material is higher than a melting point of the temperature-indicating material; wherein the matrix material is such that the leuco dye, the color developer, and the color eraser do not dissolve in the matrix material; characterised in that the matrix material is in a solid state at the operating temperature of the temperature detection material, and wherein the temperature detection material forms a phase separation structure which is a structure formed by dispersing a phase including the leuco dye, the color developer, and the color eraser in the matrix material; and wherein the phase separation structure is configured to have a long diameter of a phase including the temperature-indicating material dispersed in the Hitachi Industrial Equipment Systems Co., Ltd. 213160PCEP matrix material of 100 nm to 1 mm, and wherein the long diameter of a phase including the temperature-indicating material is the long diameter of an approximate ellipse obtained by approximating the phase including the temperature-indicating material to an ellipse. wherein the matrix material is a nonpolar material; wherein a melting point of the matrix material is higher than a melting point of the temperature-indicating material; wherein the matrix material is such that the leuco dye, the color developer, and the color eraser do not dissolve in the matrix material; characterised in that the matrix material is in a solid state at the operating temperature of the temperature detection material, and wherein the temperature detection material forms a phase separation structure which is a structure formed by dispersing a phase including the leuco dye, the color developer, and the color eraser in the matrix material; and wherein the phase separation structure is configured to have a long diameter of a phase including the temperature-indicating material dispersed in the Hitachi Industrial Equipment Systems Co., Ltd. 213160PCEP matrix material of 100 nm to 1 mm, and wherein the long diameter of a phase including the temperature-indicating material is the long diameter of an approximate ellipse obtained by approximating the phase including the temperature-indicating material to an ellipse.