mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural combine harvester operable to move across an agricultural field and configured to harvest crop plants therefrom, the agricultural combine harvester comprising: a chassis ; a cutting head assembly coupled to the chassis , the cutting head assembly configured to reap the crop plants from the agricultural field ; a threshing assembly positioned downstream of the cutting head assembly , the threshing assembly configured to receive the reaped crop plants from the cutting head assembly and separate the crop plants into a crop portion and a residue portion; a chopping assembly positioned downstream of the threshing assembly , the chopping assembly including an inlet , an outlet defining an outlet area, and a plurality of blades between the inlet and the outlet , the plurality of blades configured to chop the residue portion before the residue portion exits the chopping assembly through the outlet ; and a control processor in communication with an actuator adapted to increase and decrease the area of the outlet of the chopping assembly , the control processor configured to receive a first signal corresponding to a condition representative of a characteristic of the crop plants , the control processor also configured to generate a second signal operable to change the area of the outlet based on the condition, characterized in that the condition is a physical characteristic of the crop plants traveling through a component upstream relative to the chopping assembly . a chassis ; a cutting head assembly coupled to the chassis , the cutting head assembly configured to reap the crop plants from the agricultural field ; a threshing assembly positioned downstream of the cutting head assembly , the threshing assembly configured to receive the reaped crop plants from the cutting head assembly and separate the crop plants into a crop portion and a residue portion; a chopping assembly positioned downstream of the threshing assembly , the chopping assembly including an inlet , an outlet defining an outlet area, and a plurality of blades between the inlet and the outlet , the plurality of blades configured to chop the residue portion before the residue portion exits the chopping assembly through the outlet ; and a control processor in communication with an actuator adapted to increase and decrease the area of the outlet of the chopping assembly , the control processor configured to receive a first signal corresponding to a condition representative of a characteristic of the crop plants , the control processor also configured to generate a second signal operable to change the area of the outlet based on the condition, characterized in that the condition is a physical characteristic of the crop plants traveling through a component upstream relative to the chopping assembly .
A compound, or a stereoisomer, deuterated product, or pharmaceutically acceptable salt thereof, wherein the compound has a structure of formula (IV): wherein Rc is H, halogen, C 1-2 alkyl or C 1-2 alkoxy; R 1 , R 2 , and R 3 are each independently selected from H, deuterium, F, Cl, Br, methyl, ethyl, methoxy or ethoxy, and the methyl, ethyl, methoxy or ethoxy is optionally substituted with 1-3 groups selected from F, Cl, Br, cyano, hydroxyl, and NH 2 ; Z is CH or N; ring G is or a benzene ring, each of which is optionally substituted with 1-2 R G groups; and each R G is independently selected from F, Cl, Br, I, methyl, ethyl, propyl, SF 5 and CN, wherein the methyl, ethyl or propyl is optionally further substituted with 1-3 groups selected from deuterium, F, Cl, Br, and I. Rc is H, halogen, C 1-2 alkyl or C 1-2 alkoxy; R 1 , R 2 , and R 3 are each independently selected from H, deuterium, F, Cl, Br, methyl, ethyl, methoxy or ethoxy, and the methyl, ethyl, methoxy or ethoxy is optionally substituted with 1-3 groups selected from F, Cl, Br, cyano, hydroxyl, and NH 2 ; Z is CH or N; ring G is or a benzene ring, each of which is optionally substituted with 1-2 R G groups; and each R G is independently selected from F, Cl, Br, I, methyl, ethyl, propyl, SF 5 and CN, wherein the methyl, ethyl or propyl is optionally further substituted with 1-3 groups selected from deuterium, F, Cl, Br, and I.
An aircraft engine comprising: a shaft rotatable about a central axis and engaged at an end thereof to a rotatable load (L) via splines ; a reference tube (28; 128) circumferentially extending around the shaft , the reference tube (28; 128) having a first end secured to the shaft for rotation with the shaft and a second end (28a; 128a) free relative to the shaft for measuring a deformation of the shaft , the reference tube (28; 128) defining at least one tube aperture through the reference tube (28; 128); an oil nozzle fluidly connected to a source of oil , the oil nozzle defining an exit flow axis (A) intersecting the at least one tube aperture for injecting oil through the reference tube (28; 128), the shaft defining at least one shaft aperture extending through the shaft , an oil flow path extending from the oil nozzle to the splines via the at least one tube aperture and via the at least one shaft aperture for lubricating the splines ; and a drain outlet (30; 130) located radially outwardly of an inlet of the at least one shaft aperture for outputting excess oil out of an annular gap (G) defined between the shaft and the reference tube (28; 128), the drain outlet (30; 130) being preferably provided in the form of an annular space defined radially between an end of the reference tube and the shaft . a shaft rotatable about a central axis and engaged at an end thereof to a rotatable load (L) via splines ; a reference tube (28; 128) circumferentially extending around the shaft , the reference tube (28; 128) having a first end secured to the shaft for rotation with the shaft and a second end (28a; 128a) free relative to the shaft for measuring a deformation of the shaft , the reference tube (28; 128) defining at least one tube aperture through the reference tube (28; 128); an oil nozzle fluidly connected to a source of oil , the oil nozzle defining an exit flow axis (A) intersecting the at least one tube aperture for injecting oil through the reference tube (28; 128), the shaft defining at least one shaft aperture extending through the shaft , an oil flow path extending from the oil nozzle to the splines via the at least one tube aperture and via the at least one shaft aperture for lubricating the splines ; and a drain outlet (30; 130) located radially outwardly of an inlet of the at least one shaft aperture for outputting excess oil out of an annular gap (G) defined between the shaft and the reference tube (28; 128), the drain outlet (30; 130) being preferably provided in the form of an annular space defined radially between an end of the reference tube and the shaft .
A process for the preparation of methyl ( E )-1-acetyl-3-(methoxy(phenyl)methylene)-2-oxoindoline-6-carboxylate comprising the steps of a) reacting methyl 2-oxoindoline-6-carboxylate with acetic anhydride in a high boiling aromatic hydrocarbon solvent to produce a methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate in solution, b) distilling off parts of the reaction solvent mixture, c) optionally adding fresh reaction solvent to the reaction vessel to compensate for the solvent distilled off, d) reacting the methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate with trimethyl orthobenzoate, e) distilling off parts of the reaction solvent mixture, f) cooling the reaction mixture, and g) isolating the solid product. a) reacting methyl 2-oxoindoline-6-carboxylate with acetic anhydride in a high boiling aromatic hydrocarbon solvent to produce a methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate in solution, b) distilling off parts of the reaction solvent mixture, c) optionally adding fresh reaction solvent to the reaction vessel to compensate for the solvent distilled off, d) reacting the methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate with trimethyl orthobenzoate, e) distilling off parts of the reaction solvent mixture, f) cooling the reaction mixture, and g) isolating the solid product.
An electrolysis system comprising: an electrolysis cell comprising an anode configured to oxidize an oxidizable material to produce an anode product, a cathode configured to reduce a reducible material to produce a cathode product, a diaphragm provided between the anode and the cathode, a first flow path plate having an anode flow path facing on the anode and through which an anode fluid containing the oxidizable material flows, and a second flow path plate having a cathode flow path facing on the cathode and through which a cathode fluid containing the reducible material flows, and the anode, the cathode, the diaphragm, the first flow path plate, and the second flow path plate being stacked in a first direction; a rotary shaft disposed on the opposite side of the cathode from the diaphragm and extending along a second direction intersecting with the first direction; and a driving device configured to rotate the electrolysis cell around the rotary shaft. an electrolysis cell comprising an anode configured to oxidize an oxidizable material to produce an anode product, a cathode configured to reduce a reducible material to produce a cathode product, a diaphragm provided between the anode and the cathode, a first flow path plate having an anode flow path facing on the anode and through which an anode fluid containing the oxidizable material flows, and a second flow path plate having a cathode flow path facing on the cathode and through which a cathode fluid containing the reducible material flows, and an anode configured to oxidize an oxidizable material to produce an anode product, a cathode configured to reduce a reducible material to produce a cathode product, a diaphragm provided between the anode and the cathode, a first flow path plate having an anode flow path facing on the anode and through which an anode fluid containing the oxidizable material flows, and a second flow path plate having a cathode flow path facing on the cathode and through which a cathode fluid containing the reducible material flows, and the anode, the cathode, the diaphragm, the first flow path plate, and the second flow path plate being stacked in a first direction; a rotary shaft disposed on the opposite side of the cathode from the diaphragm and extending along a second direction intersecting with the first direction; and a driving device configured to rotate the electrolysis cell around the rotary shaft.
A method of manufacturing an electric-resistance-welded stainless clad steel pipe, made of clad steel comprising low-carbon low-alloy steel and stainless steel, wherein the flattening characteristic of an electric resistance weld, as-welded, satisfies the formula below: h / D < 0.3 where h is the flattened height at fracture (mm) and D is the outer diameter of the pipe (mm), in which a shielding process for portions of an open pipe to be welded for an electric-resistance-welded steel pipe is used to shield portions to be welded with a shielding gas composed of an inert gas during the electric resistance welding, the method comprising blowing the shielding gas to the portions to be welded through a gas outlet of a shielding-gas blowing nozzle which is divided into three layers in the open pipe circumferential direction , the gas outlet being disposed at a position 5 to 300 mm above the upper ends of the portions to be welded , wherein the gas flow rate B at the gas outlet of a center layer among the three layers is set to be 0.5 to 50 m/s, and the gas flow rate A (m/s) at the gas outlet of the remaining two side layers is set so as to satisfy the formula below: 0.01 ≤ B/A ≤ 10
A lignocellulose material, comprising A) 30 to 98.99 wt% of one or more lignocellulosics, B) 0.01 to 50 wt% of microfibrillated cellulose, C) 1 to 50 wt% of a binder selected from the group consisting of amino resin, phenol-formaldehyde resin, organic isocyanate having two or more isocyanate groups, or mixtures thereof, optionally with a curing agent, and D) 0 to 25 wt% of expanded plastics particles having a bulk density in the range from 10 to 150 kg/m 3 , and E) 0 to 68 wt% of additives, where the lignocellulosics are woody plants, wood or mixtures thereof. A) 30 to 98.99 wt% of one or more lignocellulosics, B) 0.01 to 50 wt% of microfibrillated cellulose, C) 1 to 50 wt% of a binder selected from the group consisting of amino resin, phenol-formaldehyde resin, organic isocyanate having two or more isocyanate groups, or mixtures thereof, optionally with a curing agent, and D) 0 to 25 wt% of expanded plastics particles having a bulk density in the range from 10 to 150 kg/m 3 , and E) 0 to 68 wt% of additives,
A release sleeve assembly comprising: a thimble body having a proximal end portion , an opposed distal end portion , and a central bore extending through the proximal and distal end portions, the distal end portion defining a groove , wherein the central bore of the thimble body is configured to receive a portion of a drilling cable ; a release sleeve having a proximal end , an opposed distal end , and a wall extending between the proximal and distal ends, the wall of the release sleeve defining a central bore of the release sleeve and an axial slit and a side opening positioned in communication with the central bore of the release sleeve, the axial slit extending from the distal end of the release sleeve to the side opening , the side opening extending from the axial slit to the proximal end of the release sleeve, wherein the axial slit and the side opening of the release sleeve are configured to receive a portion of the drilling cable , wherein the side opening of the release sleeve is configured to receive a portion of the distal end portion of the thimble body , wherein at least a portion of the wall of the release sleeve that defines the side opening is configured for complementary engagement with the groove of the distal end portion of the thimble body , and wherein the axial slit and side opening of the release sleeve are configured to permit engagement between the release sleeve and the distal end portion of the thimble body after the drilling cable is positioned through the central bore of the thimble body . a thimble body having a proximal end portion , an opposed distal end portion , and a central bore extending through the proximal and distal end portions, the distal end portion defining a groove , wherein the central bore of the thimble body is configured to receive a portion of a drilling cable ; a release sleeve having a proximal end , an opposed distal end , and a wall extending between the proximal and distal ends, the wall of the release sleeve defining a central bore of the release sleeve and an axial slit and a side opening positioned in communication with the central bore of the release sleeve, the axial slit extending from the distal end of the release sleeve to the side opening , the side opening extending from the axial slit to the proximal end of the release sleeve, wherein the axial slit and the side opening of the release sleeve are configured to receive a portion of the drilling cable , wherein the side opening of the release sleeve is configured to receive a portion of the distal end portion of the thimble body , wherein at least a portion of the wall of the release sleeve that defines the side opening is configured for complementary engagement with the groove of the distal end portion of the thimble body , and wherein the axial slit and side opening of the release sleeve are configured to permit engagement between the release sleeve and the distal end portion of the thimble body after the drilling cable is positioned through the central bore of the thimble body .
A fitting room, comprising: - a mirror ; and - attaching means for attaching, with respect to said mirror , a computing device having at least one built-in camera, such that the built-in camera is positioned to acquire images of a user placed in front of said mirror ; wherein the fitting room is characterised in that said computing device is a portable computing device (D) having a built-in camera (Dc), and in that : - said attaching means comprise a support physically attached to said mirror , or to a structural member fixed thereto, said support being configured and arranged to interchangeably and removably attach thereto any of a plurality of said portable computing devices (D) having built-in cameras (Dc); and - in that the fitting room further comprises a system which comprises a local computing entity (SL) adapted to establish a communication link with the portable computing device (D) attached or to be attached to said support , in order to acquire one or more images of a user placed in front of said mirror with the built-in camera (Dc) of the portable computing device (D) once attached to the support . - a mirror ; and - attaching means for attaching, with respect to said mirror , a computing device having at least one built-in camera, such that the built-in camera is positioned to acquire images of a user placed in front of said mirror ; - said attaching means comprise a support physically attached to said mirror , or to a structural member fixed thereto, said support being configured and arranged to interchangeably and removably attach thereto any of a plurality of said portable computing devices (D) having built-in cameras (Dc); and - in that the fitting room further comprises a system which comprises a local computing entity (SL) adapted to establish a communication link with the portable computing device (D) attached or to be attached to said support , in order to acquire one or more images of a user placed in front of said mirror with the built-in camera (Dc) of the portable computing device (D) once attached to the support .
A holding device for pivotably holding a driver's cab on a vehicle chassis of a commercial vehicle, having: a first cab-proximal holding element for fastening to the driver's cab ; a first chassis-proximal holding element for fastening to the vehicle chassis , wherein the first cab-proximal holding element and the first chassis-proximal holding element for pivoting the driver's cab are connected to one another in an articulated manner; and a first crash element which is releasably fastened to the first cab-proximal holding element , characterized in that the first crash element in a forward travel direction of the commercial vehicle is releasably fastened to the first cab-proximal holding element from the front, and/or the first crash element in terms of a forward travel direction of the commercial vehicle is releasably fastened to a front end face of the cab-proximal holding element . a first cab-proximal holding element for fastening to the driver's cab ; a first chassis-proximal holding element for fastening to the vehicle chassis , wherein the first cab-proximal holding element and the first chassis-proximal holding element for pivoting the driver's cab are connected to one another in an articulated manner; and a first crash element which is releasably fastened to the first cab-proximal holding element , characterized in that the first crash element in a forward travel direction of the commercial vehicle is releasably fastened to the first cab-proximal holding element from the front, and/or the first crash element in terms of a forward travel direction of the commercial vehicle is releasably fastened to a front end face of the cab-proximal holding element .
A method for making an electrical connection between an electronic chip and a support plate on which this chip is mounted, comprising the following steps: placing an electrical connection wire between an exposed electrical connection pad of the electronic chip and an exposed electrical connection pad of the support plate and making electrical junctions between the ends of the electrical connection wire and the pads, the electrical connection wire being provided with an insulating sheath made of a dielectric material which surrounds it; producing first and second local dielectric coatings from a dielectric material, which respectively cover said pads and the adjacent junctions and surround an adjacent end portion of the insulating sheath, by local distributions of determined amounts of the dielectric material in the liquid state, respectively in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe , and hardening this dielectric material, and producing a local conductive shield from an electrically conductive material, which covers said local dielectric coatings and surrounds the insulating sheath, by local distribution of a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe , and hardening this conductive material. placing an electrical connection wire between an exposed electrical connection pad of the electronic chip and an exposed electrical connection pad of the support plate and making electrical junctions between the ends of the electrical connection wire and the pads, the electrical connection wire being provided with an insulating sheath made of a dielectric material which surrounds it; producing first and second local dielectric coatings from a dielectric material, which respectively cover said pads and the adjacent junctions and surround an adjacent end portion of the insulating sheath, by local distributions of determined amounts of the dielectric material in the liquid state, respectively in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe , and hardening this dielectric material, and producing a local conductive shield from an electrically conductive material, which covers said local dielectric coatings and surrounds the insulating sheath, by local distribution of a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe , and hardening this conductive material.
An electrode for a plasma arc torch , the electrode comprising: a sidewall including one or more fluid passageways formed through the sidewall ; an end wall extending from a distal end of the sidewall , the end wall including an emissive insert formed therein; and a central cavity defined by an inner surface of the sidewall and an inner surface of the end wall , the central cavity extending from a proximal end of the electrode to a distal end of the electrode ; characterised in that the electrode further comprises a heat exchange element comprising fins extending helically along the inner surface of the sidewall and radially into the central cavity from the inner surface of the sidewall, the heat exchange element and the inner surface of the sidewall forming a portion of a coolant passage , wherein the heat exchange element traverses through the coolant passage . a sidewall including one or more fluid passageways formed through the sidewall ; an end wall extending from a distal end of the sidewall , the end wall including an emissive insert formed therein; and a central cavity defined by an inner surface of the sidewall and an inner surface of the end wall , the central cavity extending from a proximal end of the electrode to a distal end of the electrode ; characterised in that the electrode further comprises a heat exchange element comprising fins extending helically along the inner surface of the sidewall and radially into the central cavity from the inner surface of the sidewall, the heat exchange element and the inner surface of the sidewall forming a portion of a coolant passage , wherein the heat exchange element traverses through the coolant passage .