mhurhangee/ep-ind-claims huggingface dataset:
A combustor assembly for use with a turbine engine, the combustor assembly comprising: a plurality of cans arranged in a circular pattern, each can defining a combustion chamber; each can includes a cylindrical side wall provided with crossover ports formed by annular crossover ferrules, each crossover ferrule includes an annular sidewall and an annular flange that is perpendicularly oriented to the annular sidewall; a plurality of crossover tube assemblies used to interconnect the cans at the location of the crossover ports, the crossover tube assemblies each including a crossover tube provided as a one piece design with a first annular side wall section, a second annular side wall section, and an annular flange that extends radially outwardly from the first and second annular sidewall sections (82, 84) and includes a first face and a spaced apart second face, a portion of the first annular side wall section is positioned within a first ferrule of a first can; and a portion of the second annular side wall section is positioned within a second ferrule of a second can; and the crossover tube assemblies each also including a biasing member positioned around a portion of the crossover tube and adapted to engage the annular flange of the crossover tube. a plurality of cans arranged in a circular pattern, each can defining a combustion chamber; each can includes a cylindrical side wall provided with crossover ports formed by annular crossover ferrules, each crossover ferrule includes an annular sidewall and an annular flange that is perpendicularly oriented to the annular sidewall; a plurality of crossover tube assemblies used to interconnect the cans at the location of the crossover ports, the crossover tube assemblies each including a crossover tube provided as a one piece design with a first annular side wall section, a second annular side wall section, and an annular flange that extends radially outwardly from the first and second annular sidewall sections (82, 84) and includes a first face and a spaced apart second face, a portion of the first annular side wall section is positioned within a first ferrule of a first can; and a portion of the second annular side wall section is positioned within a second ferrule of a second can; and the crossover tube assemblies each also including a biasing member positioned around a portion of the crossover tube and adapted to engage the annular flange of the crossover tube.
Container for an operating medium of a motor vehicle, with a receptacle for the operating medium and a curved suction line for extracting the operating medium which extends through a base wall of the container and forms a first flow channel which in the receptacle opens out into a suction opening facing the base wall, characterised in that in a container there is a further flow channel which communicates with the receptacle and the first flow channel in a fluidic manner and has a greater flow resistance than the first flow channel.
A method for laying pads forming spacers on a receiving surface of a panel, in particular a glass panel, with a view to stacking said panel, wherein said laying method comprises a transfer step during which each of said pads is transferred, through transfer means, from means for distributing said pads to said receiving surface of said panel, characterized in that said transfer means comprise at least one suction cup associated with means for generating an air flow within said suction cup, and in that said transfer step comprises piloting said transfer means between two configurations: a/ a gripping configuration, in which: a1/ said suction cup, which is free, i.e. with no pad, is placed opposite a pad located at said distribution means, then a2/ a suction air flow is generated within said suction cup, to allow the gripping of said pad, and b/ a laying configuration, in which: b1/ said suction cup, which is occupied, i.e. carrying a pad, is placed opposite the receiving surface of the panel, so that a non-zero distance is provided between, on the one hand, the receiving surface of the panel and, on the other hand, the opposite surface of the pad carried by the suction cup, then b2/ a blowing air flow is generated within said occupied suction cup, to exert a thrust onto the associated pad towards said receiving surface of the panel. a/ a gripping configuration, in which: a1/ said suction cup, which is free, i.e. with no pad, is placed opposite a pad located at said distribution means, then a2/ a suction air flow is generated within said suction cup, to allow the gripping of said pad, and a1/ said suction cup, which is free, i.e. with no pad, is placed opposite a pad located at said distribution means, then a2/ a suction air flow is generated within said suction cup, to allow the gripping of said pad, and b/ a laying configuration, in which: b1/ said suction cup, which is occupied, i.e. carrying a pad, is placed opposite the receiving surface of the panel, so that a non-zero distance is provided between, on the one hand, the receiving surface of the panel and, on the other hand, the opposite surface of the pad carried by the suction cup, then b2/ a blowing air flow is generated within said occupied suction cup, to exert a thrust onto the associated pad towards said receiving surface of the panel. b1/ said suction cup, which is occupied, i.e. carrying a pad, is placed opposite the receiving surface of the panel, so that a non-zero distance is provided between, on the one hand, the receiving surface of the panel and, on the other hand, the opposite surface of the pad carried by the suction cup, then b2/ a blowing air flow is generated within said occupied suction cup, to exert a thrust onto the associated pad towards said receiving surface of the panel.
Secondary electrochemical cell comprising 1.1 a negative electrode comprising 1.1.1 an output conductor, 1.1.2 as carbon-based storage material that enables the storage of electrical charge in the electrode via formation of an electrical double layer (Helmholtz double layer), activated carbon having a BET surface area of at least 800 m 2 /g, and 1.1.3 a non-carbon-based H2 storage material capable of chemisorbing hydrogen and/or storing it in the form of a metal hydride, 1.2 a positive electrode comprising 1.2.1 an output conductor and 1.2.2 nickel hydroxide and/or nickel oxyhydroxide, 1.3 a porous separator that separates the negative and positive electrodes from one another, and 1.4 an aqueous alkaline electrolyte with which the electrodes and the separator are soaked and 1.5 a housing that encloses the electrodes, the separator and the electrolyte, wherein 1.6 the carbon-based storage material and/or the H2 storage material is distributed homogeneously in the negative electrode, characterized in that 1.7 the negative electrode contains the carbon-based storage material in a proportion between 5% by weight and 15% by weight. 1.1 a negative electrode comprising 1.1.1 an output conductor, 1.1.2 as carbon-based storage material that enables the storage of electrical charge in the electrode via formation of an electrical double layer (Helmholtz double layer), activated carbon having a BET surface area of at least 800 m 2 /g, and 1.1.3 a non-carbon-based H2 storage material capable of chemisorbing hydrogen and/or storing it in the form of a metal hydride, 1.1.1 an output conductor, 1.1.2 as carbon-based storage material that enables the storage of electrical charge in the electrode via formation of an electrical double layer (Helmholtz double layer), activated carbon having a BET surface area of at least 800 m 2 /g, and 1.1.3 a non-carbon-based H2 storage material capable of chemisorbing hydrogen and/or storing it in the form of a metal hydride, 1.2 a positive electrode comprising 1.2.1 an output conductor and 1.2.2 nickel hydroxide and/or nickel oxyhydroxide, 1.2.1 an output conductor and 1.2.2 nickel hydroxide and/or nickel oxyhydroxide, 1.3 a porous separator that separates the negative and positive electrodes from one another, and 1.4 an aqueous alkaline electrolyte with which the electrodes and the separator are soaked and 1.5 a housing that encloses the electrodes, the separator and the electrolyte, wherein 1.6 the carbon-based storage material and/or the H2 storage material is distributed homogeneously in the negative electrode, characterized in that 1.7 the negative electrode contains the carbon-based storage material in a proportion between 5% by weight and 15% by weight.
Process for filling of beverage packaging comprising an interior drinking straw, characterized in that the filling process at least comprises the steps of a) in-line microwave assisted pasteurization of the beverage, b) Vaporized Hydrogen Peroxide treatment of the packaging, c) Vaporized Hydrogen Peroxide treatment of the straw, d) Assembly of the Vaporized Hydrogen Peroxide treated straw in the Vaporized Hydrogen Peroxide treated packaging, e) Fixation of the straw inside the packaging, f) temperature adjustment of the pasteurized beverage of step a) and cold filling of the pasteurized beverage into the hydrogen peroxide treated packaging including the fixed straw, and g) Sealing of the packaging. a) in-line microwave assisted pasteurization of the beverage, b) Vaporized Hydrogen Peroxide treatment of the packaging, c) Vaporized Hydrogen Peroxide treatment of the straw, d) Assembly of the Vaporized Hydrogen Peroxide treated straw in the Vaporized Hydrogen Peroxide treated packaging, e) Fixation of the straw inside the packaging, f) temperature adjustment of the pasteurized beverage of step a) and cold filling of the pasteurized beverage into the hydrogen peroxide treated packaging including the fixed straw, and g) Sealing of the packaging.
A moisture curable polyurethane adhesive composition, comprising an isocyanate-functional polyurethane prepolymer which is obtained by reacting a) polyols comprising an amorphous polyester polyol produced by polycondensation of an aromatic polycarboxylic acid and an aliphatic polyol, a semi-crystalline polyester polyol having a crystallinity of at least 20%, but less than 90%, as determined by differential scanning calorimetry according to ISO 11357, and a polyether polyol, and b) a polyisocyanate, wherein the moisture curable polyurethane adhesive composition further comprises less than 5% by weight of crystalline polyol having a crystallinity of at least 90%, as determined by differential scanning calorimetry according to ISO 11357. a) polyols comprising an amorphous polyester polyol produced by polycondensation of an aromatic polycarboxylic acid and an aliphatic polyol, a semi-crystalline polyester polyol having a crystallinity of at least 20%, but less than 90%, as determined by differential scanning calorimetry according to ISO 11357, and a polyether polyol, and an amorphous polyester polyol produced by polycondensation of an aromatic polycarboxylic acid and an aliphatic polyol, a semi-crystalline polyester polyol having a crystallinity of at least 20%, but less than 90%, as determined by differential scanning calorimetry according to ISO 11357, and a polyether polyol, and b) a polyisocyanate, wherein the moisture curable polyurethane adhesive composition further comprises less than 5% by weight of crystalline polyol having a crystallinity of at least 90%, as determined by differential scanning calorimetry according to ISO 11357.
A method of fabricating a layup mandrel tool, the method comprising: creating a cellular structure from header boards, which define an array of open cells; filling the cellular structure with a foam-like material; machining the foam and the cellular structure to obtain a machined surface; and laying up and curing composite material on the machined surface to form a face sheet. creating a cellular structure from header boards, which define an array of open cells; filling the cellular structure with a foam-like material; machining the foam and the cellular structure to obtain a machined surface; and laying up and curing composite material on the machined surface to form a face sheet.
A blood test instrument for use with a disposable cartridge, wherein said disposable cartridge is removably placed in the instrument, said blood test instrument comprising means adapted to cause mixing a blood sample and a liquid agent (D1,D2,H) in said disposable cartridge, and a measurement system including two cell counting stations, each comprising an orifice (75,76) allowing statistically only one blood cell to pass at a time and each connected to a conduit (71,72), characterized by a pressure actuating means adapted to apply a pressure on at least one portion of a diaphragm sealing a selected receptacle of said disposable cartridge; said disposable cartridge comprising a plurality of receptacles (28-30, 32-33) formed of a plurality of depressions on a surface of a housing sealed by said diaphragm and a plurality of channels adapted to connect said receptacles, portions of said diaphragm sealing said depressions being flexible; and said pressure actuating means adapted to apply a pressure on portions of said diaphragm on selected receptacles (29,30) of said disposable cartridge when said disposable cartridge is placed in said instrument, to cause flowing of a mixture of said blood sample and said liquid agent back and forth between said selected receptacles (29,30) to affect mixing said mixture in said disposable cartridge thereby forming a diluted sample; and each conduit (71,72) connecting to a corresponding cell counting station at one end and having a needle portion (73,74) at another end, said needle portion adapted to be inserted through a sealed opening (60,61) of said disposable cartridge for withdrawing said diluted sample from a selected receptacle (30,33) of said disposable cartridge into said corresponding cell counting station of said instrument for measurement.
Method for microcrystalline cellulose production including first stage of acid hydrolysis of pulp with pentosan content of 0.5 to 30 weight % against its total weight and pulp consistency from 5% to 30% against the total weight of the reaction mixture with diluted acid in amount of 0.5 to 2.5 weight percents on the base of bone dry pulp weight where the hydrolysis is carried out at temperatures within the range from 90°C to 150°C for reaction time from 10 to 180 minutes, characterized with the fact that the obtained pulp after first acid hydrolysis is washed by water, after that the washed pulp, with 5% to 30% pulp consistency against the total weight of the reaction mixture, is subject to second stage of acid hydrolysis with diluted acid in amount of 0.2 to 2.5 weight percents on the base of bone dry pulp weight where the hydrolysis is carried out at temperatures from 100°C to 150°C for reaction time from 10 to 180minutes, followed by water washing of the final reaction product.
Method for determining a moving mass m of an elevator door system driven by a motor, comprising the following steps: a) Measurement of the motor's electrical power P el which is converted into mechanical power, b) to determine energy losses e.g. due to friction and/or closing forces, the electrical power P el is summed for an intended opening and/or closing movement of the door system from the start of driving of the mass m by the motor from an initial rest position until a final rest position is reached on termination of driving, c) measurement of the maximum speed v of the mass of the door system during the intended opening and/or closing movement of the door system, d) the electrical power provided by the motor from the initial rest position of the mass m of the door system to the point in time when its maximum speed v is attained is summed and the energy value thus obtained is reduced by the energy losses that have occurred up to this point in time in order to determine the mass m of the door system from the kinetic energy E thus obtained according to the following equation: m = 2 E v 2. a) Measurement of the motor's electrical power P el which is converted into mechanical power, b) to determine energy losses e.g. due to friction and/or closing forces, the electrical power P el is summed for an intended opening and/or closing movement of the door system from the start of driving of the mass m by the motor from an initial rest position until a final rest position is reached on termination of driving, c) measurement of the maximum speed v of the mass of the door system during the intended opening and/or closing movement of the door system, d) the electrical power provided by the motor from the initial rest position of the mass m of the door system to the point in time when its maximum speed v is attained is summed and the energy value thus obtained is reduced by the energy losses that have occurred up to this point in time in order to determine the mass m of the door system from the kinetic energy E thus obtained according to the following equation: m = 2 E v 2.
Adjusting device for a headlight comprising an adjusting screw arrangement that in turn comprises an adjusting screw, a drive wheel which is adapted to drive said adjusting screw to rotate, and a transmission element which transmits the rotational movement from said drive wheel to said adjusting screw, said transmission element and said adjusting screw having meshing form-fit contours (28a, 28b) for transmitting the rotary movement between said transmission element and said adjusting screw, said transmission element and said drive wheel having form-fit structures (40a, 40b) which can be used to transmit a rotary movement from said drive wheel to said transmission element, said adjusting screw having a connection region which enables said transmission element, which can be slid onto said adjusting screw, to engage behind said adjusting screw in said connection region in the assembled state and thus produce a form fit acting in the axial direction, with said drive wheel furthermore being adapted to be slid over said transmission element so that, in the assembled state, said connection region of said transmission element is fixed in position on said connection region of said adjusting screw, wherein said transmission element and said drive wheel are fixed axially to one another via a latching connection (36, 38), characterized in that said drive wheel comprises a hollow-cylindrical region for mounting said adjusting screw arrangement in a housing, into the outer circumference of which an annular groove has been made that is adapted to accommodate a gasket therein for sealing said drive wheel from said housing.
A disc brake, particularly a sliding calliper disc brake, having at least one brake carrier fixed in a stationary position that has two pairs of carrier horns (7 R, 8 R; 7 Z, 8 Z) that hold a reaction-side brake pad and an application-side brake pad, a brake calliper comprising a brake calliper back and an application portion, the brake calliper back being provided with a tension strut (25, 26) at each of its ends, and an application device, the distance between the carrier horns (7 R, 8 R) that receive the reaction-side brake pad being greater than the distance between the carrier horns (7 Z, 8 Z) that receive the application-side brake pad, characterised in that the carrier horns (7 R, 8 R) on a reaction side of the brake carrier are shorter in design than those on the application side of the brake carrier and the reaction-side brake pad and the application-side brake pad and the two pairs of carrier horns (7 R, 8 R; 7 Z, 8 Z) being located side by side on support surfaces and that the width of the reaction-side brake pad is greater than the width of the application-side brake pad.
A laser sensor, comprising: a receiver array configured to convert received optical signals into electrical signals, wherein a noise floor of the electrical signals is positively correlated with temperature if environmental temperature is within a first preset temperature range, while if the environmental temperature is within a second preset temperature range, the noise floor of electrical signals is negatively correlated with temperature; the noise floor is defined as sensing signals without reflective surfaces in an environment; a compensation module coupled with the receiver array and configured to receive the electrical signals, amplify the electrical signals with a first amplification factor when the environmental temperature is within the first preset temperature range, and amplify with a second amplification factor when the environmental temperature is within the second preset temperature range, wherein the first amplification factor is negatively correlated with the temperature, while the second amplification factor is positively correlated with the temperature; and a processor coupled with the compensation module and configured to identify sensing signals based on the electrical signals amplified by the compensation module and the noise floor. a receiver array configured to convert received optical signals into electrical signals, wherein a noise floor of the electrical signals is positively correlated with temperature if environmental temperature is within a first preset temperature range, while if the environmental temperature is within a second preset temperature range, the noise floor of electrical signals is negatively correlated with temperature; the noise floor is defined as sensing signals without reflective surfaces in an environment; a compensation module coupled with the receiver array and configured to receive the electrical signals, amplify the electrical signals with a first amplification factor when the environmental temperature is within the first preset temperature range, and amplify with a second amplification factor when the environmental temperature is within the second preset temperature range, wherein the first amplification factor is negatively correlated with the temperature, while the second amplification factor is positively correlated with the temperature; and a processor coupled with the compensation module and configured to identify sensing signals based on the electrical signals amplified by the compensation module and the noise floor.
A powderous positive electrode material for lithium ion batteries, comprising crystalline lithium transition metal-based oxide particles having a general formula Li 1+a ((Ni z (Ni 0.5 Mn 0.5) y Co x) 1-k A k) 1-a O 2, wherein A is a dopant, -0.030≤a≤0.025, 0.10≤x≤0.40, 0.25≤z≤0.52, x+y+z=1 and k≤0.01, wherein the crystalline powder has a crystallite size less than 33 nm as determined by the Scherrer equation based on the peak of the plane obtained from the X-ray diffraction pattern using a Cu Kα radiation source, and wherein MR(Ni) is the molar ratio of Ni versus the total transition metal content in a cross section of a particle as determined by EDS analysis, and wherein MR(SC-Ni) is between 1.04 and 1.10, MR(SC-Ni) being a normalized molar ratio MR(Ni) of the surface area of a particle, obtained by dividing the sum of the two values of MR(Ni) measured at the surface areas of opposite particle edges of an imaginary straight line drawn through the center of the particle, by two times the value of MR(Ni) at the center of the particle.