mhurhangee/ep-ind-claims huggingface dataset:
Turbine module for a gas turbine engine, comprising at least two consecutive turbine rotor stages (109A and 109E) separated by a grate of stationary annular distributors (111A and 111D) inside a casing, the annular distributors (111A and 111D) comprising a plurality of annular-sector-shaped elements (114A and 114D), each annular-sector-shaped element (114A and 114D) comprising a first portion (113A and 113D) bearing stationary vanes arranged radially towards the turbine axis and a second portion (113'A and 113'D) to which there is attached a plate (115A and 115D) made of abradable material, which plate forms a sealing means with the tips of the turbine rotor blades and forms an annular sealing sector of the rotor, characterised in that each annular-sector-shaped element (114A and 114D) is held inside the casing by attachment means comprising an axial hook (121 A and 121D) that is rigidly connected to the casing and engages with a pair of axial hooks (113A1-113A2 and 113D1-113D2) rigidly connected to the first portion (113A and 113D) of said annular-sector-shaped element (114A and 114D) such that the pair of axial hooks (113A1-113A2 and 113D1-113D2) grips both the axial hook (121A and 121D) rigidly connected to the casing and the downstream end of the annular sealing sector (105', 113A' and 113'C) of the rotor arranged upstream, the turbine module further being characterised in that the second portion (113'A and 113'D) of said annular-sector-shaped element (114A and 114D) comprises an axially oriented finger (113'A6) that is inserted between two sectors of the downstream distributor and forms a means for locking against rotation.
A lower torso garment (200, 210, 220) comprising: a body portion; a front pouch disposed about a front region of the body portion; and a support sling connected to the front pouch, the support sling comprising: a left fabric panel (204, 214, 224) extending along a left side periphery of the front pouch; and a right fabric panel (206, 216, 226) extending along a right side periphery of the front pouch; wherein a first portion of the left fabric panel overlaps a first portion of the right fabric panel at an overlap area, the overlap area positioned adjacent to a bottom of the front pouch, the lower torso garment being characterized in that, a first long edge of the left fabric panel connects to and extends along a left lateral seam connecting the front pouch to adjacent fabric of the body portion, and a first long edge of the right fabric panel connects to and extends along a right lateral seam connecting the front pouch to adjacent fabric of the body portion. a body portion; a front pouch disposed about a front region of the body portion; and a support sling connected to the front pouch, the support sling comprising: a left fabric panel (204, 214, 224) extending along a left side periphery of the front pouch; and a right fabric panel (206, 216, 226) extending along a right side periphery of the front pouch; a left fabric panel (204, 214, 224) extending along a left side periphery of the front pouch; and a right fabric panel (206, 216, 226) extending along a right side periphery of the front pouch; wherein a first portion of the left fabric panel overlaps a first portion of the right fabric panel at an overlap area, the overlap area positioned adjacent to a bottom of the front pouch, the lower torso garment being characterized in that, a first long edge of the left fabric panel connects to and extends along a left lateral seam connecting the front pouch to adjacent fabric of the body portion, and a first long edge of the right fabric panel connects to and extends along a right lateral seam connecting the front pouch to adjacent fabric of the body portion.
An electrophotographic photosensitive member comprising in this order: a support; a photosensitive layer; and a protective layer, wherein the protective layer contains a resin having a structure represented by the following general formula and a structure represented by the following general formula: in the formula, R 1 represents an alkylene group or phenylene group that may have a substituent, and R 2 to R 7 each independently represent a hydrogen atom, a methyl group, or an ethyl group; in the formula, R 11 represents an alkylene group or phenylene group that may have a substituent, and R 12 to R 17 each independently represent a hydrogen atom, a methyl group, or an ethyl group. a support; a photosensitive layer; and a protective layer, wherein the protective layer contains a resin having a structure represented by the following general formula and a structure represented by the following general formula: in the formula, R 1 represents an alkylene group or phenylene group that may have a substituent, and R 2 to R 7 each independently represent a hydrogen atom, a methyl group, or an ethyl group; in the formula, R 11 represents an alkylene group or phenylene group that may have a substituent, and R 12 to R 17 each independently represent a hydrogen atom, a methyl group, or an ethyl group.
A biodegradable lubricating oil composition exhibiting an acid value of 0.05 to 0.5 mg KOH/g and which comprises: a base oil containing (a) 60 to 99 mass%, based on the base oil, of a plant-derived oil selected from rapeseed oil, sunflower oil, soybean oil, corn oil and canola oil, and (b) 1 to 40 mass%, based on the base oil, of a polyol ester containing, as a main component, a polyol partial ester whose percentage esterification is 70 to 90% obtained by dividing the number of esterified hydroxyl groups of the polyol ester by the number of all the hydroxyl groups, inclusive of the esterified hydroxyl groups, of the polyol ester, and calculated according to the formula: percent esterification % = SV − AV × 100 / OHV + SV − AV, wherein SV represents the saponification value, AV represents the acid value determined through the potential difference method according to the lubricating oil neutralization test method specified by JIS K 2501, and OHV represents the hydroxyl value determined in accordance with the pyridine-acetyl chloride method according to JIS K 0070, the polyol partial ester being obtained by esterification of a single polyol and a single branched-chain monocarboxylic acid or between two or more polyols and two or more branched-chain monocarboxylic acids; and 0.1 to 5 mass%, based on the oil composition, of a polymethacrylate having a mass average molecular weight of 20,000 to 300,000. a base oil containing (a) 60 to 99 mass%, based on the base oil, of a plant-derived oil selected from rapeseed oil, sunflower oil, soybean oil, corn oil and canola oil, and (b) 1 to 40 mass%, based on the base oil, of a polyol ester containing, as a main component, a polyol partial ester whose percentage esterification is 70 to 90% obtained by dividing the number of esterified hydroxyl groups of the polyol ester by the number of all the hydroxyl groups, inclusive of the esterified hydroxyl groups, of the polyol ester, and calculated according to the formula: percent esterification % = SV − AV × 100 / OHV + SV − AV, wherein SV represents the saponification value, AV represents the acid value determined through the potential difference method according to the lubricating oil neutralization test method specified by JIS K 2501, and OHV represents the hydroxyl value determined in accordance with the pyridine-acetyl chloride method according to JIS K 0070, the polyol partial ester being obtained by esterification of a single polyol and a single branched-chain monocarboxylic acid or between two or more polyols and two or more branched-chain monocarboxylic acids; and 0.1 to 5 mass%, based on the oil composition, of a polymethacrylate having a mass average molecular weight of 20,000 to 300,000.
A drive for pivoting a vehicle door or vehicle flap which is connected in a rotationally fixed manner to a hinge strap, having the following features: a) the drive comprises a motor and a mechanism which is connected downstream of the motor and acts on the hinge strap which is connected in a rotationally fixed manner to a hinge spindle; the hinge spindle is situated within the roof lining of the corresponding motor vehicle; b) the mechanism is connected in a rotationally fixed manner on the driven side to the hinge spindle wherein the drive comprises a pivoting bearing in which that end of the hinge spindle which faces the drive can be mounted pivotably, and/or the drive comprises an angle transmitter which can be connected in a rotationally fixed manner to the hinge spindle, characterized in that the mechanism is a lever mechanism, a driving lever being connected in a rotationally fixed manner to the motor and a driven lever being connected in a rotationally fixed manner to the hinge spindle, and two levers (10, 12) being connected to each other in an articulated manner via at least one coupling bar (13, 14), wherein the drive comprises a housing to which the pivoting bearing, and/or the angle transmitter, is fastened via fastening parts, and wherein a mount for a rod-shaped supporting element fastened to a hinge is provided on the housing. a) the drive comprises a motor and a mechanism which is connected downstream of the motor and acts on the hinge strap which is connected in a rotationally fixed manner to a hinge spindle; the hinge spindle is situated within the roof lining of the corresponding motor vehicle; b) the mechanism is connected in a rotationally fixed manner on the driven side to the hinge spindle
A manufacturing apparatus used for spinning a pipe that is intended to manufacture and form a front end of a circumference of a workpiece, the manufacturing apparatus comprising: a support plate having an upper flange which protrudes from an upper surface of the support plate, and lower flanges which are provided on a lower surface of the support plate in such a way as to be spaced apart from each other by a predetermined interval, the support plate being connected to a vertical moving cylinder; a first roller and a second roller rotatably connected, respectively, to lower portions of a first arm and a second arm each having on an upper surface thereof a flange (21, 41), using pins (11, 31), the first and second rollers (10, 30) being located on either of outside or inside of the front end of the circumference of the workpiece; characterized by a third roller provided on a side of the front end of the circumference of the workpiece in such a way as to be opposite the first roller and the second roller, and rotatably connected, using a pin, to a third arm having on an upper surface thereof a flange, the third roller being located to face a central portion of a space along the same line. a support plate having an upper flange which protrudes from an upper surface of the support plate, and lower flanges which are provided on a lower surface of the support plate in such a way as to be spaced apart from each other by a predetermined interval, the support plate being connected to a vertical moving cylinder; a first roller and a second roller rotatably connected, respectively, to lower portions of a first arm and a second arm each having on an upper surface thereof a flange (21, 41), using pins (11, 31), the first and second rollers (10, 30) being located on either of outside or inside of the front end of the circumference of the workpiece; characterized by a third roller provided on a side of the front end of the circumference of the workpiece in such a way as to be opposite the first roller and the second roller, and rotatably connected, using a pin, to a third arm having on an upper surface thereof a flange, the third roller being located to face a central portion of a space along the same line.
Method for producing a composite partition device, characterized in that it consists in carrying out the following operations consecutively: - obtaining, by means of a shaping method suitable for the composite material used in said production, a first panel (2; 5; 80) having a shape suitable for its destination, which is optionally curved, and thus defining a so-called inner face (23; 53) and a so-called outer face (22; 52); and the first panel comprising omega-shaped longitudinal deformations (21; 51; 82), to form ribs projecting from the so-called inner face (23; 53), - peripherally cutting this first panel (2; 5; 80) to the required shape, - obtaining, by means of a shaping method suitable for the composite material used, a second panel (3; 6; 81) having a shape identical to that of said first panel (2; 5; 80), and thus defining a so-called inner face (33; 63) and a so-called outer face (32; 62) opposite to those of said first panel (2; 5; 80); and the second panel comprising omega-shaped longitudinal deformations (31; 61; 83) of equal or unequal depth to those of the first panel (2; 5; 80), to form ribs projecting from the so-called inner face (33; 63) in a different direction to that of the deformations (21; 51; 82) of said first panel (2; 5; 80), - peripherally cutting this second panel (3; 6; 81) to the required shape, - assembling the two panels (2, 3; 5, 6; 80, 81) with the inner face of one (23; 53) against the inner face of the other (33; 63), so that they touch at the intersection of the ribs (21, 31; 51, 61; 82, 83), - securing the two panels (2, 3; 5, 6; 80, 81) at the contact zones of said ribs (21, 31; 51, 61; 82, 83). - obtaining, by means of a shaping method suitable for the composite material used in said production, a first panel (2; 5; 80) having a shape suitable for its destination, which is optionally curved, and thus defining a so-called inner face (23; 53) and a so-called outer face (22; 52); and the first panel comprising omega-shaped longitudinal deformations (21; 51; 82), to form ribs projecting from the so-called inner face (23; 53), - peripherally cutting this first panel (2; 5; 80) to the required shape, - obtaining, by means of a shaping method suitable for the composite material used, a second panel (3; 6; 81) having a shape identical to that of said first panel (2; 5; 80), and thus defining a so-called inner face (33; 63) and a so-called outer face (32; 62) opposite to those of said first panel (2; 5; 80); and the second panel comprising omega-shaped longitudinal deformations (31; 61; 83) of equal or unequal depth to those of the first panel (2; 5; 80), to form ribs projecting from the so-called inner face (33; 63) in a different direction to that of the deformations (21; 51; 82) of said first panel (2; 5; 80), - peripherally cutting this second panel (3; 6; 81) to the required shape, - assembling the two panels (2, 3; 5, 6; 80, 81) with the inner face of one (23; 53) against the inner face of the other (33; 63), so that they touch at the intersection of the ribs (21, 31; 51, 61; 82, 83), - securing the two panels (2, 3; 5, 6; 80, 81) at the contact zones of said ribs (21, 31; 51, 61; 82, 83).
Device for forming 3D bodies, in particular items of furniture, through additive material application having: a support on which the 3D body is formed an application unit for building up the 3D body on the support through the additive application of material, wherein the material is in particular at least partially formed of wood material, such as wood foam, wood flour, sawdust or the like, a metallic or mineral paste, or plastic; a tool carrier with a tool holder, in which the application unit is held; and wherein the tool carrier is designed such that the application unit held in the tool holder can be oriented in five directions by moving the tool holder in relation to the support, and the tool carrier has a spindle unit and the tool holder is arranged on the spindle unit, wherein the tool holder arranged on the spindle unit is a tool holder which is designed such that other processing tools can also be held therein. a support on which the 3D body is formed an application unit for building up the 3D body on the support through the additive application of material, wherein the material is in particular at least partially formed of wood material, such as wood foam, wood flour, sawdust or the like, a metallic or mineral paste, or plastic; a tool carrier with a tool holder, in which the application unit is held; and wherein the tool carrier is designed such that the application unit held in the tool holder can be oriented in five directions by moving the tool holder in relation to the support, and the tool carrier has a spindle unit and the tool holder is arranged on the spindle unit, wherein the tool holder arranged on the spindle unit is a tool holder which is designed such that other processing tools can also be held therein.
A simulator of a reconfigurable processor, comprising: a processor modeling unit to produce a processor model comprising a queue that represents a routing path between a functional unit producing an operand and a functional unit consuming the operand, wherein the processor model is based on routing delays between functional units and stage information of iteration loops based on modulo scheduling and the queue has a number of slots corresponding to a ratio of a routing delay on the routing path and corresponding to an initiation interval of a stage; and a simulation unit to simulate a binary file received from a compiler based on the processor model produced by the processor modeling unit and to output the result of the simulation, the simulation unit writing an operand produced in each functional unit to a first slot of a corresponding queue, and shifting the information written in each slot to a next slot at each initiation interval. a processor modeling unit to produce a processor model comprising a queue that represents a routing path between a functional unit producing an operand and a functional unit consuming the operand, wherein the processor model is based on routing delays between functional units and stage information of iteration loops based on modulo scheduling and the queue has a number of slots corresponding to a ratio of a routing delay on the routing path and corresponding to an initiation interval of a stage; and a simulation unit to simulate a binary file received from a compiler based on the processor model produced by the processor modeling unit and to output the result of the simulation, the simulation unit writing an operand produced in each functional unit to a first slot of a corresponding queue, and shifting the information written in each slot to a next slot at each initiation interval.
A furnace for electromagnetic casting a tubular-shaped silicon ingot, the furnace comprising: a mold comprising an outer crucible and an inner crucible, wherein the outer crucible is annular-shaped, wherein the inner crucible is disposed in the outer crucible and spaced away from the outer crucible to provide a gap between the inner crucible and the outer crucible, and wherein the mold is configured to receive granular silicon in the gap; an outer induction coil disposed around the outer crucible; an inner induction coil disposed in the inner crucible, wherein the outer induction coil and the inner induction coil are configured to heat and melt the granular silicon in the mold to form the tubular-shaped silicon ingot; and a support member configured to hold and move a seed relative to the mold during formation of the tubular-shaped silicon ingot on the seed, wherein a sidewall of the inner crucible is tapered from a top of the inner crucible to a bottom of the inner crucible, such that a first lower outer diameter of the inner crucible is less than an upper outer diameter of the inner crucible, wherein the inner crucible is formed of a plurality of plates placed in a circle to provide a circular side wall, and wherein the plates are not spaced apart at a top portion of the inner crucible and are spaced apart at a bottom portion of the inner crucible. a mold comprising an outer crucible and an inner crucible, wherein the outer crucible is annular-shaped, wherein the inner crucible is disposed in the outer crucible and spaced away from the outer crucible to provide a gap between the inner crucible and the outer crucible, and wherein the mold is configured to receive granular silicon in the gap; an outer induction coil disposed around the outer crucible; an inner induction coil disposed in the inner crucible, wherein the outer induction coil and the inner induction coil are configured to heat and melt the granular silicon in the mold to form the tubular-shaped silicon ingot; and a support member configured to hold and move a seed relative to the mold during formation of the tubular-shaped silicon ingot on the seed, wherein a sidewall of the inner crucible is tapered from a top of the inner crucible to a bottom of the inner crucible, such that a first lower outer diameter of the inner crucible is less than an upper outer diameter of the inner crucible, wherein the inner crucible is formed of a plurality of plates placed in a circle to provide a circular side wall, and wherein the plates are not spaced apart at a top portion of the inner crucible and are spaced apart at a bottom portion of the inner crucible.
A heat transmission roll for a rotary cylindrical heat exchanger comprising layers formed by two superposed strips wound around the core, where the first strip is corrugated transversely to form regular waves with wave crests on the one side of the strip and wave troughs on the other side of the strip, while the second strip is basically flat, wherein bulges are formed on all wave crests of the first strip, characterised in that the bulges feature slits, where one of the slit edges is formed into a tongue, while the second strip features separate indentations to accommodate the bulges on the first strip, where the depth of the indentation corresponds to the pitch (h) of the bulge.
A sequencing method comprising: preparing a nucleic acid library, comprising ligating a first nucleic acid fragment and a second nucleic acid fragment to obtain the nucleic acid library, wherein the first nucleic acid fragment and the second nucleic acid fragment are both double-stranded DNAs, the first nucleic acid fragment is a known sequence and comprises a first strand and a second strand that are complementary; the first nucleic acid fragment has a single-stranded end located at the 3'-end of the first strand, and 80 °C ≥ (Tm1 - Tm2) ≥ 10 °C and 90 °C ≥ Tm1 ≥ 50 °C, wherein Tm1 is a melting temperature of the first strand, and Tm2 is a melting temperature of the second strand; capturing the nucleic acid library, comprising denaturing the nucleic acid library to obtain a single-stranded product and hybridizing the single-stranded product with a probe to obtain a hybrid complex or capturing the undenatured nucleic acid library with a probe to obtain a hybrid complex, wherein Tm2 - 5 °C ≤ T ≤ Tm1 - 5 °C, wherein T is a temperature for the hybridization; sequencing the hybrid complex. preparing a nucleic acid library, comprising ligating a first nucleic acid fragment and a second nucleic acid fragment to obtain the nucleic acid library, wherein the first nucleic acid fragment and the second nucleic acid fragment are both double-stranded DNAs, the first nucleic acid fragment is a known sequence and comprises a first strand and a second strand that are complementary; the first nucleic acid fragment has a single-stranded end located at the 3'-end of the first strand, and 80 °C ≥ (Tm1 - Tm2) ≥ 10 °C and 90 °C ≥ Tm1 ≥ 50 °C, wherein Tm1 is a melting temperature of the first strand, and Tm2 is a melting temperature of the second strand; capturing the nucleic acid library, comprising denaturing the nucleic acid library to obtain a single-stranded product and hybridizing the single-stranded product with a probe to obtain a hybrid complex or capturing the undenatured nucleic acid library with a probe to obtain a hybrid complex, wherein Tm2 - 5 °C ≤ T ≤ Tm1 - 5 °C, wherein T is a temperature for the hybridization; sequencing the hybrid complex.