mhurhangee/ep-ind-claims huggingface dataset:
A liquid blow molding method for molding a bottomed tubular-shaped preform into a liquid-containing container in which a content liquid is held, the method comprising: a nozzle engaging step of engaging a blow nozzle with a mouth of the preform, the blow nozzle being connected to a pump through a supply path (24, PI); a molding step of supplying a pressurized liquid from the pump through the supply path (24, P1) and the blow nozzle into the preform to mold the preform into a container of a predetermined shape; a suck-back step of sucking back a predetermined volume of liquid from the container molded into the predetermined shape in the molding step to the supply path (24, P1) by operating the pump in a reverse direction; a nozzle closing step of closing the blow nozzle by a sealing body with the predetermined volume of liquid sucked back out of the container molded into the predetermined shape into the supply path (24, P1) in the suck-back step; the method being characterized by a discharge step of discharging a liquid in the supply path (24, P1) by a predetermined volume from a discharge port out of the supply path (24, P1) by operating, after the nozzle closing step, the pump in a positive direction with the discharge port connected to the supply path (24, P1) opened. a nozzle engaging step of engaging a blow nozzle with a mouth of the preform, the blow nozzle being connected to a pump through a supply path (24, PI); a molding step of supplying a pressurized liquid from the pump through the supply path (24, P1) and the blow nozzle into the preform to mold the preform into a container of a predetermined shape; a suck-back step of sucking back a predetermined volume of liquid from the container molded into the predetermined shape in the molding step to the supply path (24, P1) by operating the pump in a reverse direction; a nozzle closing step of closing the blow nozzle by a sealing body with the predetermined volume of liquid sucked back out of the container molded into the predetermined shape into the supply path (24, P1) in the suck-back step; the method being characterized by a discharge step of discharging a liquid in the supply path (24, P1) by a predetermined volume from a discharge port out of the supply path (24, P1) by operating, after the nozzle closing step, the pump in a positive direction with the discharge port connected to the supply path (24, P1) opened.
A wireless apparatus configured for operation as a high-efficiency 'HE' station 'HE-STA', the apparatus comprising: memory; and processing circuitry configured to: decode a legacy signal field 'L-SIG' of a HE data unit, the L-SIG comprising forty-eight data subcarriers within a 20-MHZ channel and four reference subcarriers, the four reference subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and decode a HE-signal field 'HE-SIG-A' of the HE data unit, the HE-SIG-A comprising a total number of data subcarriers including four data subcarriers corresponding in frequency to the four reference subcarriers of the L-SIG, the four data subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and wherein the four reference subcarriers of the L-SIG are in addition to a legacy number of data subcarriers included in the L-SIG. memory; and processing circuitry configured to: decode a legacy signal field 'L-SIG' of a HE data unit, the L-SIG comprising forty-eight data subcarriers within a 20-MHZ channel and four reference subcarriers, the four reference subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and decode a HE-signal field 'HE-SIG-A' of the HE data unit, the HE-SIG-A comprising a total number of data subcarriers including four data subcarriers corresponding in frequency to the four reference subcarriers of the L-SIG, the four data subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and decode a legacy signal field 'L-SIG' of a HE data unit, the L-SIG comprising forty-eight data subcarriers within a 20-MHZ channel and four reference subcarriers, the four reference subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and decode a HE-signal field 'HE-SIG-A' of the HE data unit, the HE-SIG-A comprising a total number of data subcarriers including four data subcarriers corresponding in frequency to the four reference subcarriers of the L-SIG, the four data subcarriers comprising two subcarriers at each edge of the 20 MHz channel; and wherein the four reference subcarriers of the L-SIG are in addition to a legacy number of data subcarriers included in the L-SIG.
A saddle-riding type small vehicle where a power unit is mounted on a vehicle body frame, the power unit including a valve system that is provided with valve-operation mode changing mechanisms and for changing operation modes of engine valves and, a clutch unit that is provided between a crankshaft and a shift mechanism so as to shift the connection / disconnection of power transmission, a valve control device that controls the operation of the valve-operation mode changing mechanisms and, and a clutch control device that controls the operation of the clutch unit, and wherein: - the valve control device and the clutch control device are disposed on left and right sides of a center line of a vehicle in a width direction of the vehicle, - the clutch unit is received in a clutch cover which is mounted on a side surface of a crankcase of the power unit; - the clutch control device is mounted on the outer surface of the clutch cover; - the clutch control device is mounted on the inside of the outermost end of the clutch cover - the clutch control device is disposed on the outside of the clutch unit when seen in its axial direction. - the valve control device and the clutch control device are disposed on left and right sides of a center line of a vehicle in a width direction of the vehicle, - the clutch unit is received in a clutch cover which is mounted on a side surface of a crankcase of the power unit; - the clutch control device is mounted on the outer surface of the clutch cover; - the clutch control device is mounted on the inside of the outermost end of the clutch cover - the clutch control device is disposed on the outside of the clutch unit when seen in its axial direction.
A blind rivet nut for introducing into an opening of one or multiple components, said blind rivet nut comprising a hollow shank having a front end for attaching an installation tool and having a rear end for introducing into and/or passing through the opening, wherein the shank comprises a deformation portion having a first wall thickness and, adjoining thereto, a threaded portion having a second wall thickness that is greater than the first wall thickness, wherein the threaded portion is provided with an internal screw thread, wherein the shank comprises a predetermined breaking point in the region of the threaded portion and/or the deformation portion, said predetermined breaking point being designed with regard to its position and its orientation such that the threaded portion penetrates into the deformation portion as the shank is being tensioned in the axial direction after breaking at the predetermined breaking point, characterized in that the deformation portion is realized in the form of a sealing member and comprises radial grooves.
A method of forming a ceramic matrix composite vane with profiled endwalls, the method comprising the steps of: providing a vane preform having an inner endwall preform, an outer endwall preform spaced apart radially from the inner endwall preform relative to an axis, and an airfoil preform that extends radially between and interconnects the inner endwall preform and the outer endwall preform; providing a multi-piece tool (336, 464) that includes an endwall tool (340, 342), and a core tool, the endwall tool formed to define a first recessed profile that extends radially into the endwall tool; locating the endwall tool (340, 342) adjacent one of the inner endwall preform and the outer endwall preform; inserting the core tool radially between the inner endwall preform and the outer endwall preform such that the core tool is adjacent the airfoil preform and holds the endwall tool in position radially relative to the vane preform; and infiltrating the vane preform with ceramic materials to provide the ceramic matrix composite vane, the ceramic matrix composite vane including a ceramic matrix composite inner endwall or outer endwall having a first contour corresponding with the first recessed profile, and a ceramic matrix composite airfoil that extends between and interconnects the ceramic matrix composite inner endwall and the ceramic matrix composite outer endwall. providing a vane preform having an inner endwall preform, an outer endwall preform spaced apart radially from the inner endwall preform relative to an axis, and an airfoil preform that extends radially between and interconnects the inner endwall preform and the outer endwall preform; providing a multi-piece tool (336, 464) that includes an endwall tool (340, 342), and a core tool, the endwall tool formed to define a first recessed profile that extends radially into the endwall tool; locating the endwall tool (340, 342) adjacent one of the inner endwall preform and the outer endwall preform; inserting the core tool radially between the inner endwall preform and the outer endwall preform such that the core tool is adjacent the airfoil preform and holds the endwall tool in position radially relative to the vane preform; and infiltrating the vane preform with ceramic materials to provide the ceramic matrix composite vane, the ceramic matrix composite vane including a ceramic matrix composite inner endwall or outer endwall having a first contour corresponding with the first recessed profile, and a ceramic matrix composite airfoil that extends between and interconnects the ceramic matrix composite inner endwall and the ceramic matrix composite outer endwall.
Spinning machine with electric drives and a primary AC voltage source, at least one transformer being connected to an AC voltage network, and connections to the transformer being provided on the input side of at least one rectifier (16a, 16b), and DC voltage networks being present on the output side of the rectifier with at least 2 DC voltage sources of the voltages U1 and U2 to which drivers or commutation devices for DC motors (26a, 26b) or inverters (28a, 28b) are connected, characterized in that at least 2 DC voltage busbars (18, 20, 22) are connected to the at least one rectifier, and in that a further DC voltage busbar is common to the two DC voltage networks (U1, U2), so that at least 3 DC voltage busbars are provided, and in that current consumers are optionally connected to in each case 2 of the at least 3 busbars so that at least optionally the following DC voltages are available a. U1 + U2 between a first and second busbar b. U1 between the first and a third busbar c. U2 between the second and third busbars. wherein between the at least 3 busbars DC voltages in particular of 270 V (U1, U2) and 540 V (U1+U2) being present. a. U1 + U2 between a first and second busbar b. U1 between the first and a third busbar c. U2 between the second and third busbars.
A method of communicating data employing a time division duplex, TDD, or half duplex frequency division duplex, FDD, arrangement, the method comprising the following steps: - a base station transmitting data blocks in allocated downlink sub-frames to a terminal, - the base station receiving feedback reports for the data blocks in allocated uplink sub-frames from the terminal, the feedback reports indicating whether errors have occurred in the data blocks, wherein the number of the allocated downlink sub-frames exceeds the number of the allocated uplink sub-frames and the feedback reports are scheduled in the allocated uplink sub-frames according to a predetermined spreading rule known by the base station and the terminal, dictating that the feedback reports are distributed evenly over the allocated uplink sub-frames, and - based on the predetermined spreading rule, the base station deriving which of the allocated downlink sub-frames each feedback report refers to. - a base station transmitting data blocks in allocated downlink sub-frames to a terminal, - the base station receiving feedback reports for the data blocks in allocated uplink sub-frames from the terminal, the feedback reports indicating whether errors have occurred in the data blocks, wherein the number of the allocated downlink sub-frames exceeds the number of the allocated uplink sub-frames and the feedback reports are scheduled in the allocated uplink sub-frames according to a predetermined spreading rule known by the base station and the terminal, dictating that the feedback reports are distributed evenly over the allocated uplink sub-frames, and - based on the predetermined spreading rule, the base station deriving which of the allocated downlink sub-frames each feedback report refers to.
A use of a heteroleptic iridium compound having the formula Ir(L 1) n (L 2) 3-n as an emissive or non-emissive dopant in an organic emissive layer of an organic light-emitting device, wherein the organic emissive layer is disposed between the anode and the cathode: wherein the ligand L 1 is a first ligand having Formula I, wherein the ligand L 2 is a second ligand selected from the group consisting of wherein L 1 is different from L 2; wherein R 1 is a partially or fully deuterated group selected from the group consisting of alkyl and cycloalkyl; wherein R B represents mono, di substitutions or no substitution; wherein R 2 represents mono, di, tri substitutions or no substitution; wherein R 3, R 4, R 5, R A and R C each represent mono, di, tri, tetra substitutions or no substitution; wherein R 2 and R 3 are each independently selected from the group consisting of hydrogen, deuterium, alkyl, cycloalkyl, and combinations thereof; wherein R 4 and R 5 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein R A, R B, and R C are independently selected from the group consisting of hydrogen, deuterium, methyl, ethyl, propyl, 1-methylethyl, butyl, 1-methylpropyl, 2-methylpropyl, pentyl, 1-methylbutyl, 2-methylbutyl, 3-methylbutyl, 1,1-dimethylpropyl, 1,2-dimethylpropyl, 2,2-dimethylpropyl, cyclopentyl, cyclohexyl, and combinations thereof, and wherein n is 1 or 2. wherein the ligand L 1 is a first ligand having Formula I, wherein the ligand L 2 is a second ligand selected from the group consisting of wherein L 1 is different from L 2; wherein R 1 is a partially or fully deuterated group selected from the group consisting of alkyl and cycloalkyl; wherein R B represents mono, di substitutions or no substitution; wherein R 2 represents mono, di, tri substitutions or no substitution; wherein R 3, R 4, R 5, R A and R C each represent mono, di, tri, tetra substitutions or no substitution; wherein R 2 and R 3 are each independently selected from the group consisting of hydrogen, deuterium, alkyl, cycloalkyl, and combinations thereof; wherein R 4 and R 5 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein R A, R B, and R C are independently selected from the group consisting of hydrogen, deuterium, methyl, ethyl, propyl, 1-methylethyl, butyl, 1-methylpropyl, 2-methylpropyl, pentyl, 1-methylbutyl, 2-methylbutyl, 3-methylbutyl, 1,1-dimethylpropyl, 1,2-dimethylpropyl, 2,2-dimethylpropyl, cyclopentyl, cyclohexyl, and combinations thereof, and wherein n is 1 or 2.
A process for continuous cooking of potato chips of varying styles and types in cooking oil, the process being performed in a potato chip cooking apparatus comprising at least three separate cooking oil baths for realizing at least three distinct cooking stages (11, 12, 13), each cooking stage (11, 12, 13) being equipped with independent oil heating, oil circulating and temperature control means, wherein the apparatus further comprises rotatable agitation and mixing means in the form of paddle wheels (24, 25, 26), and motor and control means for driving the paddle wheels (24, 25, 26), the method comprising the steps of: introducing a volume of uncooked potato slices into the first cooking stage so as to develop a pack of slices in the cooking oil bath of the first cooking stage; vigorously agitating, mixing and stirring the potato slice pack for a predetermined dwell time in the first cooking stage; transferring the potato slice pack from the first cooking stage to the second cooking stage in an agitating tumbling action; maintaining the slice pack in the second cooking stage while vigorously agitating, mixing and stirring the slice pack for a second predetermined dwell cooking time; transferring the potato slice pack from the second cooking stage to the third cooking stage in an agitating tumbling action; maintaining the slice pack in the third cooking stage while vigorously agitating, mixing and stirring the slice pack for a third predetermined dwell cooking time; and then in a continuous manner removing the slice pack from the third cooking stage, wherein the steps of vigorously agitating, mixing and stirring the potato slice pack are realized by controlling each paddle wheel (25, 26) to rotate in clockwise and counter-clockwise directions. introducing a volume of uncooked potato slices into the first cooking stage so as to develop a pack of slices in the cooking oil bath of the first cooking stage; vigorously agitating, mixing and stirring the potato slice pack for a predetermined dwell time in the first cooking stage; transferring the potato slice pack from the first cooking stage to the second cooking stage in an agitating tumbling action; maintaining the slice pack in the second cooking stage while vigorously agitating, mixing and stirring the slice pack for a second predetermined dwell cooking time; transferring the potato slice pack from the second cooking stage to the third cooking stage in an agitating tumbling action; maintaining the slice pack in the third cooking stage while vigorously agitating, mixing and stirring the slice pack for a third predetermined dwell cooking time; and then in a continuous manner removing the slice pack from the third cooking stage,
Turbomachine having at least one guide vane carrier of ring-shaped form, which is composed at least of a lower part and an upper part which is connected releasably to the latter, and having at least three guide vane stages (4a-d), which are retained on the inner circumference of the at least one guide vane carrier and are arranged axially one behind the other in the flow direction and each have a multiplicity of radially extending guide vanes, wherein each guide vane comprises a root plate and a head plate and a guide vane airfoil which extends therebetween, and wherein - each root plate is retained directly on the guide vane carrier in a form-fitting manner and, in this way, secured against displacement in the radial and axial directions, - at least some root plates of guide vanes of each guide vane stage (4a-d) are secured against displacement in the circumferential direction by at least one additional securing element, - the root plates of adjacently arranged guide vanes of axially adjacent guide vane stages (4a-d) in each case engage directly into one another in a form-fitting manner and partially overlap one another, and - remaining between the root plates of each guide vane stage (4a-d) and the inner side of the guide vane carrier is in each case a substantially ring-shaped intermediate space which is accessible for the maintenance personnel in a maintenance state in which the lower part and the upper part of the guide vane carrier are separate from one another, wherein at least some of the securing elements are inaccessible from an outer side of the guide vane carrier and are positioned such that, in the maintenance state, they are able to be reached, and mounted and dismounted, by the maintenance personnel via the intermediate space. - each root plate is retained directly on the guide vane carrier in a form-fitting manner and, in this way, secured against displacement in the radial and axial directions, - at least some root plates of guide vanes of each guide vane stage (4a-d) are secured against displacement in the circumferential direction by at least one additional securing element, - the root plates of adjacently arranged guide vanes of axially adjacent guide vane stages (4a-d) in each case engage directly into one another in a form-fitting manner and partially overlap one another, and - remaining between the root plates of each guide vane stage (4a-d) and the inner side of the guide vane carrier is in each case a substantially ring-shaped intermediate space which is accessible for the maintenance personnel in a maintenance state in which the lower part and the upper part of the guide vane carrier are separate from one another,
A food product comprising a moisture source, partially hydrolyzed dairy protein, partially hydrolyzed legume protein, intact dairy protein, intact legume protein, and casein, wherein the total amount of partially hydrolyzed dairy and partially hydrolyzed legume protein comprises 1 to 40 weight % of the protein component and, wherein the partially hydrolyzed dairy and partially hydrolyzed legume protein are present in a total amount effective to reduce firmness of the food product during shelf life relative to an otherwise identical food product which substitutes intact forms of the partially hydrolyzed dairy and legume proteins therefor, and without embittering the food product.
Seating element with height-adjustable back mounted on an arm connected to a seat, said back comprising: - an intermediate plate comprising, on one surface, a padded covering, and on the opposal surface, a slide channel in which the arm connected to the seat can slide; - a lever pivoting on the intermediate plate between a first actuation position freeing the arm in the slide channel and a second stable position for locking the arm; - means for biasing the lever to the locking position; - a shell covering the surface of the intermediate plate opposite the surface supporting the padded covering, characterized in that said shell comprises a flexible area (6, 6') able to cooperate with the lever in order to actuate it via bending of said area (6, 6'). - an intermediate plate comprising, on one surface, a padded covering, and on the opposal surface, a slide channel in which the arm connected to the seat can slide; - a lever pivoting on the intermediate plate between a first actuation position freeing the arm in the slide channel and a second stable position for locking the arm; - means for biasing the lever to the locking position; - a shell covering the surface of the intermediate plate opposite the surface supporting the padded covering, characterized in that said shell comprises a flexible area (6, 6') able to cooperate with the lever in order to actuate it via bending of said area (6, 6').