mhurhangee/ep-ind-claims huggingface dataset:
An apparatus: for unstacking preformed products, for example packaging units, stacked in a stack, these products comprising for example planar parts and projecting parts which are all stacked onto and into each other in line, wherein the apparatus comprises a gripper with at least a single suction cup unit of flexible material for suction-engaging, from the stack, a single product at a planar product part thereof, wherein the suction cup unit comprises a suction cup mouth, with an opening surface which upon said engaging is substantially parallel to said planar part, and is connected with a suction tube which extends in a direction substantially perpendicular to said opening surface, wherein the apparatus furthermore comprises a planar plate, with an opening for said suction tube and/or suction cup unit, the opening being substantially perpendicular to said perpendicular direction, the product part upon said engaging being pulled against the plate, characterized in that the opening is a passage opening being situated at the location of said suction cup unit and having a circumference that is at least as great as the greatest circumference of the suction cup mouth, wherein the suction tube and the plate are coupled to each other via connecting means, wherein at least one of said connecting means comprises a position setting element with which the relative distance in said perpendicular direction between the plate and the opening surface of the suction mouth can be set. for unstacking preformed products, for example packaging units, stacked in a stack, these products comprising for example planar parts and projecting parts which are all stacked onto and into each other in line, wherein the apparatus comprises a gripper with at least a single suction cup unit of flexible material for suction-engaging, from the stack, a single product at a planar product part thereof, wherein the suction cup unit comprises a suction cup mouth, with an opening surface which upon said engaging is substantially parallel to said planar part, and is connected with a suction tube which extends in a direction substantially perpendicular to said opening surface, wherein the apparatus furthermore comprises a planar plate, with an opening for said suction tube and/or suction cup unit, the opening being substantially perpendicular to said perpendicular direction, the product part upon said engaging being pulled against the plate, characterized in that the opening is a passage opening being situated at the location of said suction cup unit and having a circumference that is at least as great as the greatest circumference of the suction cup mouth, wherein the suction tube and the plate are coupled to each other via connecting means, wherein at least one of said connecting means comprises a position setting element with which the relative distance in said perpendicular direction between the plate and the opening surface of the suction mouth can be set.
A sealed container containing an aqueous composition comprising a protein and two displacement buffers, wherein one displacement buffer has a pKa that is at least 1 unit greater than the pH of the composition and one displacement buffer has a pKa that is at least 1 unit less than the pH of the composition, said pH of the composition being set to a value at which the composition has maximum measurable stability with respect to pH, wherein one of the displacement buffers is TRIS, with the proviso that said composition contains not more than 2 mM of a conventional buffer having a pKa that is within one pH unit of the pH of the composition, and wherein each displacement buffer is present at a concentration of 2 to 200 mM.
A method for continuously loading and extruding a plurality of billets (30, 702), the method comprising: loading a first billet at a receiving end of an elongate mandrel bar (100, 340, 540), the first billet having a hole therethrough; transporting the first billet along the mandrel bar (100, 340, 540) and through gripping elements (106, 108) that secure in place and prevent rotation of the mandrel bar, wherein at any given time at least one of the gripping elements is gripping the mandrel bar; and extruding the first billet to form an extruded material by pressing the first billet through a rotating die, wherein the first billet is followed by an adjacent second billet that forms a part of the extruded material, the second billet having a hole therethrough. loading a first billet at a receiving end of an elongate mandrel bar (100, 340, 540), the first billet having a hole therethrough; transporting the first billet along the mandrel bar (100, 340, 540) and through gripping elements (106, 108) that secure in place and prevent rotation of the mandrel bar, wherein at any given time at least one of the gripping elements is gripping the mandrel bar; and extruding the first billet to form an extruded material by pressing the first billet through a rotating die, wherein the first billet is followed by an adjacent second billet that forms a part of the extruded material, the second billet having a hole therethrough.
A prosthesis for inguinal hernioplasty made up of a surgical mesh extending from a first end to a second end along a longitudinal direction and comprising a first portion that includes said first end, a second portion that includes said second end and a connecting portion arranged between said first portion and said second portion, wherein said first portion has a substantially loop shape that is open or may be opened and is provided with a central hole, wherein said second portion has a substantially elongated shape in said longitudinal direction, and wherein said connecting portion has a width transverse to said longitudinal direction smaller than the widths of said first portion and said second portion transverse to said longitudinal direction, characterized in that said first portion is offset relative to said second portion transversely to said longitudinal direction.
A composite element having the following layered structure: (i) from 2 to 20 mm of metal, (ii) from 10 to 100 mm of polyisocyanate polyaddition products with density from 350 to 1050 kg/m 3 obtainable by reaction of (a) isocyanates with (b) isocyanate-reactive compounds in the presence of (f) blowing agents which are water and/or carbamate, (iii) from 2 to 20 mm of metal. (i) from 2 to 20 mm of metal, (ii) from 10 to 100 mm of polyisocyanate polyaddition products with density from 350 to 1050 kg/m 3 obtainable by reaction of (a) isocyanates with (b) isocyanate-reactive compounds in the presence of (f) blowing agents which are water and/or carbamate, (iii) from 2 to 20 mm of metal.
An air brake control unit, comprising: a first electronic brake valve connector for receiving a first braking command signal from a first electronic brake valve of a first locomotive; a first electro-pneumatic control unit for operating a braking system of a train in response to the first braking command signal received from the first electronic brake valve; a relay for selectively connecting and disconnecting a power source of the first locomotive to the air brake control unit; and a first inter-unit connector interconnected to the power source and the first electronic brake valve and configured to establish a power supply connection between the first electronic brake valve and a second air brake control unit of a second locomotive as well as between a second electronic brake valve of the second locomotive and the air brake control unit. a first electronic brake valve connector for receiving a first braking command signal from a first electronic brake valve of a first locomotive; a first electro-pneumatic control unit for operating a braking system of a train in response to the first braking command signal received from the first electronic brake valve; a relay for selectively connecting and disconnecting a power source of the first locomotive to the air brake control unit; and a first inter-unit connector interconnected to the power source and the first electronic brake valve and configured to establish a power supply connection between the first electronic brake valve and a second air brake control unit of a second locomotive as well as between a second electronic brake valve of the second locomotive and the air brake control unit.
A dendritic polymer prepared by a ring opening reaction, wherein an amine is reacted with a compound containing an epoxy, a thiorane or an aziridine functional group.
A fungicidal combination comprising mancozeb and a systemic fungicide, wherein the systemic fungicide is a combination of (i) a strobilurin fungicide; and (ii) a conazole fungicide; wherein: (i) the strobilurin fungicide is trifloxystrobin and the conazole fungicide is prothioconazole; or (ii) the strobilurin fungicide is picoxystrobin and the conazole fungicide is tebuconazole; or (iii) the strobilurin fungicide is picoxystrobin and the conazole fungicide is cyproconazole; or (iv) the strobilurin fungicide is azoxystrobin and the conazole fungicide is cyproconazole. (i) the strobilurin fungicide is trifloxystrobin and the conazole fungicide is prothioconazole; or (ii) the strobilurin fungicide is picoxystrobin and the conazole fungicide is tebuconazole; or (iii) the strobilurin fungicide is picoxystrobin and the conazole fungicide is cyproconazole; or (iv) the strobilurin fungicide is azoxystrobin and the conazole fungicide is cyproconazole.
A T-shaped circulator, comprising a two-dimensional photonic crystal composed of a square lattice of dielectric cylinders immersed in air in which an arrangement of waveguides and one resonant cavity are inserted, wherein the arrangement of waveguides consists of three waveguides (101, 102, 103) inserted through the removal of rows of dielectric cylinders and disposed in T-shape, two horizontal waveguides (102, 103) and one vertical waveguide, and the resonant cavity is disposed at the junction of the three waveguides, to perform the transmission of electromagnetic signals in a given direction, clockwise or counterclockwise, with the direction being determined by the sign of an external DC magnetic field applied to the circulator; wherein the resonant cavity is formed by an arrangement of cylinders consisting of a central ferrite cylinder made from a nickel-zinc based ferrite and disposed on the axis of the vertical waveguide, two dielectric cylinders (403, 404) disposed near the central ferrite cylinder, wherein the diameters of the two dielectric cylinders (403, 404) are increased when compared to the diameter of the dielectric cylinders of the square lattice; wherein the central ferrite cylinder is inserted into a position displaced vertically in relation to the axis of the horizontal waveguides (102, 103); and wherein the lattice constant of the photonic crystal (a) is equal to 1.065mm and the radius of the dielectric cylinders belonging to the square lattice is equal to 0.2 a, wherein a is the lattice constant of the photonic crystal. wherein the resonant cavity is formed by an arrangement of cylinders consisting of a central ferrite cylinder made from a nickel-zinc based ferrite and disposed on the axis of the vertical waveguide, two dielectric cylinders (403, 404) disposed near the central ferrite cylinder, wherein the diameters of the two dielectric cylinders (403, 404) are increased when compared to the diameter of the dielectric cylinders of the square lattice; wherein the central ferrite cylinder is inserted into a position displaced vertically in relation to the axis of the horizontal waveguides (102, 103); and wherein the lattice constant of the photonic crystal (a) is equal to 1.065mm and the radius of the dielectric cylinders belonging to the square lattice is equal to 0.2 a, wherein a is the lattice constant of the photonic crystal.
A method of controlling radio connectivity in a wireless communication network, the method comprising: - a node (150; 600; 700) of the wireless communication network receiving a first request (204; 304; 404) for establishment of a connection between a communication device and the wireless communication network; - upon receiving the first request (204; 304; 404), the node (150; 600; 700) starting a timer and establishing a context for the connection between the communication device and the wireless communication network; - the node (150; 600; 700) receiving a second request (219; 319; 419) for establishment of a connection between the communication device and the wireless communication network; and the node (150; 600; 700) selecting between: - in response to receiving the second request (219; 319; 419) before expiry of the timer, establishing an additional context for the connection between the communication device and the wireless communication network while maintaining the established context, and - in response to receiving the second request after expiry of the timer, releasing the established context and establishing a new context for the connection between the communication device and the wireless communication network. - a node (150; 600; 700) of the wireless communication network receiving a first request (204; 304; 404) for establishment of a connection between a communication device and the wireless communication network; - upon receiving the first request (204; 304; 404), the node (150; 600; 700) starting a timer and establishing a context for the connection between the communication device and the wireless communication network; - the node (150; 600; 700) receiving a second request (219; 319; 419) for establishment of a connection between the communication device and the wireless communication network; and - in response to receiving the second request (219; 319; 419) before expiry of the timer, establishing an additional context for the connection between the communication device and the wireless communication network while maintaining the established context, and - in response to receiving the second request after expiry of the timer, releasing the established context and establishing a new context for the connection between the communication device and the wireless communication network.
A method of making a rare-earth alloy powder for use to produce a rare-earth sintered magnet, of which a main phase has a composition represented by R 2 T 14 A, wherein R is one of the rare-earth elements including Y; T is either Fe alone or a mixture of Fe and a transition metal element other than Fe; and A is either boron alone or a mixture of boron and carbon, the method comprising the steps of: preparing a first rare-earth rapidly solidified alloy, which has a columnar texture with an average dendritic width falling within a first range, by quenching a melt of a first rare-earth alloy with a first composition in a rapid cooling process; preparing a second rare-earth rapidly solidified alloy, which has a columnar texture with an average dendritic width that is smaller than that of the first rare-earth rapidly solidified alloy and that falls within a second range, by quenching a melt of a second rare-earth alloy with a second composition in the rapid cooling process; making a first rare-earth alloy powder by pulverizing the first rare-earth rapidly solidified alloy; making a second rare-earth alloy powder by pulverizing the second rare-earth rapidly solidified alloy; and making a powder blend including the first and second rare-earth alloy powders, wherein the first range is from 3 μm through 6 μm and the second range is from 1.5 μm through 2.5 μm, wherein the average dendritic width was obtained by a line segment method, i.e. by counting the number of dendrites included within a certain range and calculating the average, and wherein the first and second rare-earth rapidly solidified alloys have a structure consisting essentially of a dendrite texture alone and including substantially no chilled texture. preparing a first rare-earth rapidly solidified alloy, which has a columnar texture with an average dendritic width falling within a first range, by quenching a melt of a first rare-earth alloy with a first composition in a rapid cooling process; preparing a second rare-earth rapidly solidified alloy, which has a columnar texture with an average dendritic width that is smaller than that of the first rare-earth rapidly solidified alloy and that falls within a second range, by quenching a melt of a second rare-earth alloy with a second composition in the rapid cooling process; making a first rare-earth alloy powder by pulverizing the first rare-earth rapidly solidified alloy; making a second rare-earth alloy powder by pulverizing the second rare-earth rapidly solidified alloy; and making a powder blend including the first and second rare-earth alloy powders, wherein the first range is from 3 μm through 6 μm and the second range is from 1.5 μm through 2.5 μm, wherein the average dendritic width was obtained by a line segment method, i.e. by counting the number of dendrites included within a certain range and calculating the average, and wherein the first and second rare-earth rapidly solidified alloys have a structure consisting essentially of a dendrite texture alone and including substantially no chilled texture.
A fire-protecting insulation product comprising air-laid mineral wool fibres and a binder, said binder being the result of curing a binder composition comprising at least one hydrocolloid being proteins from animal sources, including collagen, gelatin, and hydrolysed gelatin, and the binder composition further comprises at least one phenol containing compound, such as tannin selected from one or more components from the group consisting of tannic acid, condensed tannins (proanthocyanidins), hydrolysable tannins, gallotannins, ellagitannins, complex tannins, and/or tannin originating from one or more of oak, chestnut, staghorn sumac and fringe cups, or at least one hydrocolloid being proteins from animal sources, including collagen, gelatin, and hydrolysed gelatin, and wherein the binder composition further comprises at least one enzyme selected from the group consisting of transglutaminase (EC 2.3.2.13), protein disulfide isomerase (EC 5.3.4.1), thiol oxidase (EC 1.8.3.2), polyphenol oxidase (EC 1.14.18.1), in particular catechol oxidase, tyrosine oxidase, and phenoloxidase, lysyl oxidase (EC 1.4.3.13), and peroxidase (EC 1.11.1.7), and said product further comprising a particulate endothermic material selected from the group consisting of gypsum, magnesium hydroxide, hydromagnesit, aluminium hydroxide and aluminium trihydroxide. at least one hydrocolloid being proteins from animal sources, including collagen, gelatin, and hydrolysed gelatin, and the binder composition further comprises at least one phenol containing compound, such as tannin selected from one or more components from the group consisting of tannic acid, condensed tannins (proanthocyanidins), hydrolysable tannins, gallotannins, ellagitannins, complex tannins, and/or tannin originating from one or more of oak, chestnut, staghorn sumac and fringe cups, or at least one hydrocolloid being proteins from animal sources, including collagen, gelatin, and hydrolysed gelatin, and wherein the binder composition further comprises at least one enzyme selected from the group consisting of transglutaminase (EC 2.3.2.13), protein disulfide isomerase (EC 5.3.4.1), thiol oxidase (EC 1.8.3.2), polyphenol oxidase (EC 1.14.18.1), in particular catechol oxidase, tyrosine oxidase, and phenoloxidase, lysyl oxidase (EC 1.4.3.13), and peroxidase (EC 1.11.1.7), and said product further comprising a particulate endothermic material selected from the group consisting of gypsum, magnesium hydroxide, hydromagnesit, aluminium hydroxide and aluminium trihydroxide.
Method for determining short circuits between stator laminates in an electrical machine which has a rotor, which rotates on a shaft, and a stator through which a magnetic stator flux (Φ), which varies over time, passes, wherein a measurement variable ( U W; Φ S) which is sensitive to a short-circuit current ( i K) caused by the magnetic stator flux (Φ) between at least two stator laminates, is determined during operation of the electrical machine, characterized in that the magnetic stator flux (Φ) is determined by measurement and/or calculation, in that the measurement variable ( U W; Φ S) or an auxiliary variable (Δ U W) derived therefrom is compared with a theoretical model which produces a relationship between the magnetic stator flux (Φ) and the measurement variable ( U W; Φ S) or the auxiliary variable (Δ U W), and in that a measure for a short circuit is determined from the comparison.
A method of manufacturing a solid temperature management material, the method comprising: mixing at least three compounds, wherein: a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive, a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, applying a mixture of the first, second, and third compounds in a liquid form to a substrate (102a, 102b, 102c), and curing the mixture into the temperature management material such that the liquid reactive diluent monomer solvent cures into the second polymeric phase change material, the temperature management material comprising: the first polymeric phase change material, the additive, and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures. mixing at least three compounds, wherein: a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive, a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive, a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, applying a mixture of the first, second, and third compounds in a liquid form to a substrate (102a, 102b, 102c), and curing the mixture into the temperature management material such that the liquid reactive diluent monomer solvent cures into the second polymeric phase change material, the temperature management material comprising: the first polymeric phase change material, the additive, and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures. the first polymeric phase change material, the additive, and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures.