mhurhangee/ep-ind-claims huggingface dataset:
Method for measuring the mass distribution along the width of a strip, in particular a dough strip, moved along its longitudinal direction with predetermined target width, wherein by means of at least two weighing cells, which are arranged at a distance to one another with respect to the width of the strip, the weight of at least one dough strand or dough piece having a width defined by the distances of the weighing cells is detected, - wherein the mass of the partial pieces of the strip is determined taking into account the distance of the weighing cells to one another, the position of the weighing cells along the width of the strip, the strip speed and the measured values of the weight of the partial pieces detected by the weighing cells, in particular, over a defined time period, characterised in that the weighing cells and/or transport rollers or sliding supports connected to the weighing cells extend beyond the transport plane of the strip, in particular the dough strip, wherein the strip, in particular, the dough strip, is guided in a predetermined area over the weighing cells and/or transport rollers and/or sliding supports in such a manner that the strip, in particular, the dough strip at least partially wraps around the weighing cells and/or transport rollers and/or sliding supports and wherein the tension within the strip, in particular, the dough strip is determined on the basis of the change of the measured values measured of the weighing cells. - wherein the mass of the partial pieces of the strip is determined taking into account the distance of the weighing cells to one another, the position of the weighing cells along the width of the strip, the strip speed and the measured values of the weight of the partial pieces detected by the weighing cells, in particular, over a defined time period, characterised in that the weighing cells and/or transport rollers or sliding supports connected to the weighing cells extend beyond the transport plane of the strip, in particular the dough strip, wherein the strip, in particular, the dough strip, is guided in a predetermined area over the weighing cells and/or transport rollers and/or sliding supports in such a manner that the strip, in particular, the dough strip at least partially wraps around the weighing cells and/or transport rollers and/or sliding supports and wherein the tension within the strip, in particular, the dough strip is determined on the basis of the change of the measured values measured of the weighing cells.
A method, in a wireless device, for dynamic synchronization of communications for the wireless device on a second carrier to a predefined frame structure on a first carrier, wherein the wireless device is configured to receive communications on the first and second carriers, and wherein the first carrier is configured for synchronous communications and the second carrier is configured for asynchronous shared communications over an unlicensed frequency band, the method comprising: receiving, from a base station, timing advance related information for communication alignment on the second carrier; determining a timing advance value based on the received timing advance related information; and aligning a receipt of the communications on the second carrier to the predefined frame structure of the first carrier with an offset based on the determined timing advance value. receiving, from a base station, timing advance related information for communication alignment on the second carrier; determining a timing advance value based on the received timing advance related information; and aligning a receipt of the communications on the second carrier to the predefined frame structure of the first carrier with an offset based on the determined timing advance value.
A cooling system for a vehicle, comprising: a coolant loop having a coolant therein and configured to be in thermal communication with a heat load to receive heat from the heat load; a refrigeration system comprising an evaporator in thermal communication with the coolant loop to receive heat from the coolant loop, and a condenser configured to be in thermal communication with ram air to remove heat from the refrigeration system; an inline ram air heat exchanger disposed in a ram air stream of the condenser; and a ram air cooling branch in fluid communication with the coolant loop and configured to direct coolant to the ram air heat exchanger to cool the coolant; and characterized by: a valve configured to selectively allow and/or meter flow through the ram air cooling branch; a controller to control the valve; a ram air temperature sensor operatively connected to the ram air heat exchanger to sense temperature of the ram air, wherein the controller is configured to control the valve as a function of the temperature of the ram air; and wherein the controller is configured to close the valve at a low temperature threshold. a coolant loop having a coolant therein and configured to be in thermal communication with a heat load to receive heat from the heat load; a refrigeration system comprising an evaporator in thermal communication with the coolant loop to receive heat from the coolant loop, and a condenser configured to be in thermal communication with ram air to remove heat from the refrigeration system; an inline ram air heat exchanger disposed in a ram air stream of the condenser; and a ram air cooling branch in fluid communication with the coolant loop and configured to direct coolant to the ram air heat exchanger to cool the coolant; and characterized by: a valve configured to selectively allow and/or meter flow through the ram air cooling branch; a controller to control the valve; a ram air temperature sensor operatively connected to the ram air heat exchanger to sense temperature of the ram air, wherein the controller is configured to control the valve as a function of the temperature of the ram air; and wherein the controller is configured to close the valve at a low temperature threshold. a valve configured to selectively allow and/or meter flow through the ram air cooling branch; a controller to control the valve; a ram air temperature sensor operatively connected to the ram air heat exchanger to sense temperature of the ram air, wherein the controller is configured to control the valve as a function of the temperature of the ram air; and wherein the controller is configured to close the valve at a low temperature threshold.
An indentation test method for indenting a specimen having finite thickness with an indenter, the method comprising: calculating an equivalent indentation strain of the specimen by using a thickness of the specimen and an indentation depth of the indenter into the specimen; and calculating a Young's modulus of the specimen by using the equivalent indentation strain, characterised in that the equivalent indentation strain is defined by a sum of a strain induced by a compression deformation and a strain induced by a contact deformation, the strain induced by the compression deformation is defined by the following equation: ε ̅ V = ∫ 0 δ ⁢ d ⁢ ε V = δ h + 2 3 ⁢ ln 2 ⁢ h + 3 ⁢ φ 2 - δ 2 ⁢ h + 3 ⁢ φ 2. where ε v is the strain, φ is a diameter of the indenter, h is the thickness, and δ is the indentation depth, the strain induced by the contact deformation is calculated, based on a Hertz elastic contact theory, by the following equation: ε ̅ H = 2 π ⁢ 1 - ν 2 ⁢ 2 ⁢ δ φ 1 2, where ε H is the strain, and ν is the Poisson ratio, and the Young's modulus is calculated by the following equation: E = 6 π 3 1 - ν 2 2 ⁢ 2 φ 2 ⁢ F ^ ε ̅ I 3 where E is the Young's modulus, ε r is the equivalent indentation strain and F is an indentation force. calculating an equivalent indentation strain of the specimen by using a thickness of the specimen and an indentation depth of the indenter into the specimen; and calculating a Young's modulus of the specimen by using the equivalent indentation strain, characterised in that the equivalent indentation strain is defined by a sum of a strain induced by a compression deformation and a strain induced by a contact deformation, the strain induced by the compression deformation is defined by the following equation: ε ̅ V = ∫ 0 δ ⁢ d ⁢ ε V = δ h + 2 3 ⁢ ln 2 ⁢ h + 3 ⁢ φ 2 - δ 2 ⁢ h + 3 ⁢ φ 2. where ε v is the strain, φ is a diameter of the indenter, h is the thickness, and δ is the indentation depth, the strain induced by the contact deformation is calculated, based on a Hertz elastic contact theory, by the following equation: ε ̅ H = 2 π ⁢ 1 - ν 2 ⁢ 2 ⁢ δ φ 1 2, where ε H is the strain, and ν is the Poisson ratio, and the Young's modulus is calculated by the following equation: E = 6 π 3 1 - ν 2 2 ⁢ 2 φ 2 ⁢ F ^ ε ̅ I 3 where E is the Young's modulus, ε r is the equivalent indentation strain and F is an indentation force.
A belt cleaning device, comprising: a cleaning member for cleaning, with a cleaning solution, a surface of a conveyance belt for conveying an article to be conveyed; and a wiper that is provided further downstream than the cleaning member in a direction of travel of the conveyance belt, and relatively wipes off cleaning solution that has attached to the conveyance belt; the wiper including: a primary wiping member in contact with the surface of the conveyance belt, a secondary wiping member provided further downstream than the primary wiping member in the direction of travel and in contact with the surface of the conveyance belt, a primary fixation member to which the primary wiping member is fixed, and a secondary fixation member to which the secondary wiping member is fixed; the secondary wiping member being secured to the secondary fixation member by a fixing means having a longitudinal axis, said axis being tilted toward the upstream side in the direction of travel and intersecting with the conveyance belt, but not intersecting with the primary fixation member, such that said fixing means can be removed or inserted without interference from the primary fixation member. a cleaning member for cleaning, with a cleaning solution, a surface of a conveyance belt for conveying an article to be conveyed; and a wiper that is provided further downstream than the cleaning member in a direction of travel of the conveyance belt, and relatively wipes off cleaning solution that has attached to the conveyance belt; the wiper including: a primary wiping member in contact with the surface of the conveyance belt, a secondary wiping member provided further downstream than the primary wiping member in the direction of travel and in contact with the surface of the conveyance belt, a primary fixation member to which the primary wiping member is fixed, and a secondary fixation member to which the secondary wiping member is fixed; a primary wiping member in contact with the surface of the conveyance belt, a secondary wiping member provided further downstream than the primary wiping member in the direction of travel and in contact with the surface of the conveyance belt, a primary fixation member to which the primary wiping member is fixed, and a secondary fixation member to which the secondary wiping member is fixed; the secondary wiping member being secured to the secondary fixation member by a fixing means having a longitudinal axis, said axis being tilted toward the upstream side in the direction of travel and intersecting with the conveyance belt, but not intersecting with the primary fixation member, such that said fixing means can be removed or inserted without interference from the primary fixation member.
A system of contra-rotating propellers for an aircraft jet engine, comprising: - a free power turbine; - a first propeller and a second propeller, contra-rotating intended to be rotated around a longitudinal axis of the system of propellers, said first propeller being placed in a predetermined direction relative to the latter, each one of the first and second propellers (7, 9) comprising a hub (48a, 48b) centered on the longitudinal axis, an outer ferrule (56a, 56b) being arranged concentrically thereto and participating in the outward radial definition of the main annular tunnel, as well as coupling arms (60a, 60b) linking the outer ferrule to said hub; - a mechanical transmission device driven by said power free turbine and driving said first and second propellers (7, 9); and - a casing inserted between the power free turbine and the first and second propellers (7, 9), the latter being arranged in the predetermined direction relative to the casing and the free turbine being arranged in the opposite direction relative to said same casing, the latter having a casing extension in the given direction, rotatably supporting the hub of the propeller, characterized in that said coupling arms of the second propeller extend in said opposite direction, radially towards the outside. - a free power turbine; - a first propeller and a second propeller, contra-rotating intended to be rotated around a longitudinal axis of the system of propellers, said first propeller being placed in a predetermined direction relative to the latter, each one of the first and second propellers (7, 9) comprising a hub (48a, 48b) centered on the longitudinal axis, an outer ferrule (56a, 56b) being arranged concentrically thereto and participating in the outward radial definition of the main annular tunnel, as well as coupling arms (60a, 60b) linking the outer ferrule to said hub; - a mechanical transmission device driven by said power free turbine and driving said first and second propellers (7, 9); and - a casing inserted between the power free turbine and the first and second propellers (7, 9), the latter being arranged in the predetermined direction relative to the casing and the free turbine being arranged in the opposite direction relative to said same casing, the latter having a casing extension in the given direction, rotatably supporting the hub of the propeller,
A room-temperature-curable silicone rubber composition comprising: a mixture containing components and below: an organopolysiloxane having in each molecule at least two alkoxysilyl-containing groups represented by general formula: (wherein R 1 is the same or different monovalent hydrocarbon group lacking an aliphatic unsaturated bond, R 2 is an alkyl group, R 3 is the same or different alkylene group, a is an integer from 0 to 2, and p is an integer from 1 to 50) on silicon atoms in the molecular chain; an organopolysiloxane having in each molecule one of the above alkoxysilyl-containing groups; an organopolysiloxane lacking a hydroxyl group and an alkoxy group on a silicon atom in the molecular chain but including at least one silicon-bonded alkenyl group; an alkoxysilane represented by general formula: R 4 b Si(OR 5) (4-b) (wherein R 4 is a monovalent hydrocarbon group, R 5 is an alkyl group, and b is from 0 to 2) or a partially hydrolyzed condensate thereof; and a condensation-reaction catalyst. a mixture containing components and below: an organopolysiloxane having in each molecule at least two alkoxysilyl-containing groups represented by general formula: (wherein R 1 is the same or different monovalent hydrocarbon group lacking an aliphatic unsaturated bond, R 2 is an alkyl group, R 3 is the same or different alkylene group, a is an integer from 0 to 2, and p is an integer from 1 to 50) on silicon atoms in the molecular chain; an organopolysiloxane having in each molecule one of the above alkoxysilyl-containing groups; an organopolysiloxane having in each molecule at least two alkoxysilyl-containing groups represented by general formula: (wherein R 1 is the same or different monovalent hydrocarbon group lacking an aliphatic unsaturated bond, R 2 is an alkyl group, R 3 is the same or different alkylene group, a is an integer from 0 to 2, and p is an integer from 1 to 50) on silicon atoms in the molecular chain; an organopolysiloxane having in each molecule one of the above alkoxysilyl-containing groups; an organopolysiloxane lacking a hydroxyl group and an alkoxy group on a silicon atom in the molecular chain but including at least one silicon-bonded alkenyl group; an alkoxysilane represented by general formula: R 4 b Si(OR 5) (4-b) (wherein R 4 is a monovalent hydrocarbon group, R 5 is an alkyl group, and b is from 0 to 2) or a partially hydrolyzed condensate thereof; and a condensation-reaction catalyst.
A servomotor system, comprising: an enclosure; a motor stator and rotor disposed in the enclosure; a motor brake disposed in the enclosure and configured to selectively brake the rotor from rotation; a brake control switch disposed in the enclosure and coupled to the motor brake for selectively providing power to the motor brake for selectively engaging and/or disengaging the brake; an input/output circuit disposed in the enclosure and coupled to the brake control switch for applying control signals to the brake control switch, the brake control switch being configured to selectively engage and/or disengage the brake in response to the control signals; circuitry external to the enclosure configured to apply brake signals to the input/output circuit for control of the brake, the circuitry external to the enclosure comprising a servo drive configured to provide power to the stator; characterised in that the servomotor system further comprises: a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source. an enclosure; a motor stator and rotor disposed in the enclosure; a motor brake disposed in the enclosure and configured to selectively brake the rotor from rotation; a brake control switch disposed in the enclosure and coupled to the motor brake for selectively providing power to the motor brake for selectively engaging and/or disengaging the brake; an input/output circuit disposed in the enclosure and coupled to the brake control switch for applying control signals to the brake control switch, the brake control switch being configured to selectively engage and/or disengage the brake in response to the control signals; circuitry external to the enclosure configured to apply brake signals to the input/output circuit for control of the brake, the circuitry external to the enclosure comprising a servo drive configured to provide power to the stator; characterised in that the servomotor system further comprises: a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source. a source of power within the enclosure, wherein the input/output circuit and the brake control switch are coupled to the source of power; and a connector to electrically couple the stator and the input/output circuit to the power source.
Garment, in particular an outer garment having a play surface, on which a play figure (7, 8, 11, 30, 31) and a movable fastening device (3, 5, 9) are provided, wherein: • the movable fastening device (3, 5, 9) is connected to the garment and/or is integrated in the garment, • wherein the movable fastening device (3, 5, 9) has a moving element (4, 10) that is movable relative to the garment and/or to the play surface such that the movable fastening device has a fixed part and additionally comprises the moving element, which is accordingly mounted in a movable manner, and • the play figure (7, 8, 11, 30, 31) is detachably fastened to the movable fastening device (3, 5, 9) and/or to the moving element (4, 10), characterized in that • the play figure (7, 8, 11, 30, 31) is magnetically fastened to the movable fastening device (3, 5, 9) and/or to the moving element, • and in that the movable fastening device (3, 5, 9) is configured as a pocket that is integrated in the play surface and forms an interior space in which a magnet and/or a magnetizable body is mounted in a movable manner as the moving element. • the movable fastening device (3, 5, 9) is connected to the garment and/or is integrated in the garment, • wherein the movable fastening device (3, 5, 9) has a moving element (4, 10) that is movable relative to the garment and/or to the play surface such that the movable fastening device has a fixed part and additionally comprises the moving element, which is accordingly mounted in a movable manner, and • the play figure (7, 8, 11, 30, 31) is detachably fastened to the movable fastening device (3, 5, 9) and/or to the moving element (4, 10), characterized in that • the play figure (7, 8, 11, 30, 31) is magnetically fastened to the movable fastening device (3, 5, 9) and/or to the moving element, • and in that the movable fastening device (3, 5, 9) is configured as a pocket that is integrated in the play surface and forms an interior space in which a magnet and/or a magnetizable body is mounted in a movable manner as the moving element.
A method for making solder powder comprising: a powder-forming step in which the solder powder is formed in liquid; and a cleaning step in which the solder powder obtained from the powder-forming step is cleaned using a solder powder-cleaning agent comprising at least one of the components selected from a group consisting of N-methylpyrrolidone, 2-pyrrolidone, dimethylsulfoxide, propylene carbonate, sulfolane, and γ-butyrolactone. a powder-forming step in which the solder powder is formed in liquid; and a cleaning step in which the solder powder obtained from the powder-forming step is cleaned using a solder powder-cleaning agent comprising at least one of the components selected from a group consisting of N-methylpyrrolidone, 2-pyrrolidone, dimethylsulfoxide, propylene carbonate, sulfolane, and γ-butyrolactone.
A method of producing β-Sialon, which contains Eu 2+ in a β-Sialon host crystal expressed as Si 6-z Al z O z N 8-z wherein 0.3≤z≤1.5 as light emission center, the method comprising: mixing of oxides of one or more types selected from aluminum oxide and silicon oxide, silicon nitride, and aluminum nitride such that the z value becomes 0.3 to 1.5, adding europium oxide or europium salt that turns to be europium oxide by heating, and adding powder β-Sialon having an average particle size of 5 μm or larger and an average degree of circularity of 0.7 or higher within a range from 5% to 30% by mass; and heating the mixture in nitrogen atmosphere; crashing the obtained sintered body to obtain a crashed sintered body; heating the crashed sintered body in a noble gas atmosphere or in vacuum; and subjecting the heated sintered body to an acid treatment process wherein the heated sintered body is oxidized. mixing of oxides of one or more types selected from aluminum oxide and silicon oxide, silicon nitride, and aluminum nitride such that the z value becomes 0.3 to 1.5, adding europium oxide or europium salt that turns to be europium oxide by heating, and adding powder β-Sialon having an average particle size of 5 μm or larger and an average degree of circularity of 0.7 or higher within a range from 5% to 30% by mass; and heating the mixture in nitrogen atmosphere; crashing the obtained sintered body to obtain a crashed sintered body; heating the crashed sintered body in a noble gas atmosphere or in vacuum; and subjecting the heated sintered body to an acid treatment process wherein the heated sintered body is oxidized.