mhurhangee/ep-ind-claims huggingface dataset:
Use of a vulcanizable composition for production of a vulcanizate in contact with blow-by gas, EGR gas or motor oil comprising blow-by gas constituents, characterized in that the vulcanizable composition comprises (a) 100 parts by weight of at least one hydrogenated nitrile rubber having a content of residual double bonds of 10% or less, (b) 40 to 200 parts by weight, preferably 50 to 150 parts by weight, more preferably 70 to 120 parts by weight, of at least one unsilanized mineral filler, (c) 0 to less than 20 parts by weight of carbon black, preferably 0 to less than 10 parts by weight of carbon black, more preferably 0 to 5 parts by weight of carbon black, and (d) 0.5 to 20 parts by weight of at least one peroxide compound. (a) 100 parts by weight of at least one hydrogenated nitrile rubber having a content of residual double bonds of 10% or less, (b) 40 to 200 parts by weight, preferably 50 to 150 parts by weight, more preferably 70 to 120 parts by weight, of at least one unsilanized mineral filler, (c) 0 to less than 20 parts by weight of carbon black, preferably 0 to less than 10 parts by weight of carbon black, more preferably 0 to 5 parts by weight of carbon black, and (d) 0.5 to 20 parts by weight of at least one peroxide compound.
A method of transferring a dye to a composite material, the method comprising: applying the dye to a transfer media to create a colored transfer media; placing the colored transfer media into contact with the composite material; and applying, using an autoclave, at least one of heat, external pressure, vacuum pressure to infuse the dye to the composite material to create a colored composite material; wherein the composite material comprises one or more layers of unidirectional fiber and polymer matrix plies oriented in one or more directions. applying the dye to a transfer media to create a colored transfer media; placing the colored transfer media into contact with the composite material; and applying, using an autoclave, at least one of heat, external pressure, vacuum pressure to infuse the dye to the composite material to create a colored composite material; wherein the composite material comprises one or more layers of unidirectional fiber and polymer matrix plies oriented in one or more directions.
An apparatus, comprising: two or more electrical conductors (834, 836); one or more signal devices; and an analyzer; wherein the two or more electrical conductors (834, 836) are arranged to be disposed in a nuclear reactor, wherein the one or more signal devices are adapted to apply one or more incident signals (600, 700) to the two or more electrical conductors (834, 836), wherein the one or more signal devices are adapted to receive one or more reflected signals from the two or more electrical conductors (834, 836), and wherein the analyzer is adapted to determine power level in the nuclear reactor using at least one of the one or more applied incident signals and at least one of the one or more received reflected signals. two or more electrical conductors (834, 836); one or more signal devices; and an analyzer; wherein the two or more electrical conductors (834, 836) are arranged to be disposed in a nuclear reactor, wherein the one or more signal devices are adapted to apply one or more incident signals (600, 700) to the two or more electrical conductors (834, 836), wherein the one or more signal devices are adapted to receive one or more reflected signals from the two or more electrical conductors (834, 836), and wherein the analyzer is adapted to determine power level in the nuclear reactor using at least one of the one or more applied incident signals and at least one of the one or more received reflected signals.
A tool unit comprising a plug device, a base unit and a replacement unit, that has a receiving part and an insertion part corresponding to the latter, and at least one electrical contact pin that can be inserted into an electrical contact bearing, a cylindrical wall of the insertion part and a cylindrical wall of the receiving part overlapping and gripping one another such that a gap is formed in the overlapping region of the cylindrical wall of the insertion part and of the cylindrical wall of the receiving part, the contact pin projecting out of a base plate, and the contact bearing being provided in a base body, and the plug device being secured against inadvertent detachment by a locking device, the contact pin with the base plate being provided in the insertion part and the contact bearing with the base body being provided in the receiving part, the cylindrical wall of the insertion part, from the base plate, being longer than the contact pin, the cylindrical wall of the receiving part projecting over the base body and the insertion opening of the contact bearing projecting in its longitudinal direction, the insertion part being provided on the replacement unit in which electrical fittings are accommodated, and the receiving part being provided on the base unit into which the replacement unit can be inserted, in a first insertion position the extent of overlapping of the cylindrical walls by the receiving part and the insertion part being such in the direction of insertion that there is a minimum length which is considerably longer than a minimum air distance existing in this insertion position between the free ends of the contact pin and the insertion opening, the locking device having a slider mounted on the base unit which engages with at least one projection in a groove of the replacement unit, the groove having an opening in the insertion direction of the replacement unit at the start in which the projection is tightly guided, the groove in the insertion direction having an initially straight and then a serpentine or meandering extension that is formed by a kink, an oblique rise, a hairpin and another oblique rise, and the projection being located at the hairpin during the insertion process if the minimum air distance is between the free ends of the contact pin and the insertion opening.
Valve assembly for an air duct for ventilation of a building, comprising: a valve (10; 100), wherein the valve (10; 100) comprises a distal end and a proximal end, wherein said distal end is closer to the air duct than the proximal end; a housing having an outer housing side adapted to be attached to said air duct and an inner housing side, opposite to the outer housing side, which is arranged to receive said valve (10; 100); and an electrical body provided within said housing, and adapted to connect a power source to an electrical device, wherein the electrical body comprises a distal end, a proximal end and an outer circumference at the distal end; wherein the valve (10, 100) comprises adjustment means to adj ust the position of flow regulating means (113, 126) of the valve (10; 100), characterized in that the position of the flow regulating means (113, 126) is configured to adjust the size of a gap between the valve (10; 100) and the outer circumference at the distal end of the electrical body, regulating a flow or pressure of air flowing through the valve (10; 100), wherein the size of the gap is measured perpendicular to the outer circumference at the distal end of the electrical body as the smallest distance from the distal end of the electrical body to the flow regulating means (113, 126) of the valve (10; 100). a valve (10; 100), wherein the valve (10; 100) comprises a distal end and a proximal end, wherein said distal end is closer to the air duct than the proximal end; a housing having an outer housing side adapted to be attached to said air duct and an inner housing side, opposite to the outer housing side, which is arranged to receive said valve (10; 100); and an electrical body provided within said housing, and adapted to connect a power source to an electrical device, wherein the electrical body comprises a distal end, a proximal end and an outer circumference at the distal end; wherein the valve (10, 100) comprises adjustment means to adj ust the position of flow regulating means (113, 126) of the valve (10; 100), characterized in that the position of the flow regulating means (113, 126) is configured to adjust the size of a gap between the valve (10; 100) and the outer circumference at the distal end of the electrical body, regulating a flow or pressure of air flowing through the valve (10; 100), wherein the size of the gap is measured perpendicular to the outer circumference at the distal end of the electrical body as the smallest distance from the distal end of the electrical body to the flow regulating means (113, 126) of the valve (10; 100).
A vapor deposition apparatus for forming a thin film on a substrate, the vapor deposition apparatus comprising: a chamber having an exhaust port; a stage disposed in the chamber, and including a mounting surface configured for the substrate to be mounted thereon; an injection portion having at least one injection opening through which a gas is injected in a direction parallel with a surface of the substrate on which the thin film is to be formed; a plasma generator disposed apart from the substrate to face the substrate, wherein the mounting surface is positioned in parallel with a direction in which a gravitational force acts; and a driver for driving the stage and the plasma generator, and configured to move the substrate mounted on the stage and the plasma generator within the chamber. a chamber having an exhaust port; a stage disposed in the chamber, and including a mounting surface configured for the substrate to be mounted thereon; an injection portion having at least one injection opening through which a gas is injected in a direction parallel with a surface of the substrate on which the thin film is to be formed; a plasma generator disposed apart from the substrate to face the substrate, wherein the mounting surface is positioned in parallel with a direction in which a gravitational force acts; and a driver for driving the stage and the plasma generator, and configured to move the substrate mounted on the stage and the plasma generator within the chamber.
A multi-engine bay including a plurality of engines (M1..M7), each of said engines including an engine computer (22, 24A, 24B) associated with the engine and configured to acquire measurement signals coming from sensors (32, 34) of the engine and to execute an engine computation which is a computation aimed at obtaining information relating to the engine or to at least one piece of equipment thereof, the bay being characterized in that, for at least a first engine, at least one engine computer associated with an engine other than the first engine is configured to execute said engine computation for the first engine in parallel with the computer associated with the first engine.
Device for presenting information carriers such as posters, images, advertisements and the like, comprising at least one transparent carrier plate, to which a preferably foil-like, film-like or sheet-like information carrier can be attached, a frame surrounding the carrier plate, and an illumination device attached to the frame for illuminating and/or backlighting the information carrier, wherein the frame comprises a lateral frame opening, through which the carrier plate with the information carrier attached thereto can be pulled out of/inserted into the frame in a direction parallel to the frame plane defined by the frame, wherein the frame opening can be closed by a removable frame part which can be detachably connected to the remaining frame part (2b, c, d) such that the frame encompasses the information carrier on all sides when the frame opening is closed, characterised in that the plurality of frame parts (2a, 2b, 2c, 2d) of the multi-part frame are mounted on a planar frame carrier, which frame carrier holds the frame parts (2a, 2b, 2c, 2d) together and is arranged on a rear side of the at least one carrier plate, wherein at least the one removable frame part is detachably fastened to the frame carrier and the frame part (2b, c, d) remaining when the frame part is removed is retained on the frame carrier.
Method of producing an electrode stack from anodes and cathodes for a lithium-ion battery, in particular of an electrically driven motor vehicle, the anodes or the cathodes being provided with a separator, - wherein the anodes and the cathodes are conveyed into receptacles of a rotationally driven or rotationally drivable stacking wheel, - wherein the anodes and cathodes accommodated in the receptacles are conveyed to a stacking compartment by means of a rotation of the stacking wheel, - wherein the anodes and the cathodes are held in the region of the stacking compartment by means of a stripper arm and are transferred from the respective receptacle into the stacking compartment due to the rotation of the stacking wheel, the anodes and the cathodes being stacked alternately in the stacking compartment, and - wherein the alternately stacked anodes and cathodes are pressed against each other in the stacking compartment. - wherein the anodes and the cathodes are conveyed into receptacles of a rotationally driven or rotationally drivable stacking wheel, - wherein the anodes and cathodes accommodated in the receptacles are conveyed to a stacking compartment by means of a rotation of the stacking wheel, - wherein the anodes and the cathodes are held in the region of the stacking compartment by means of a stripper arm and are transferred from the respective receptacle into the stacking compartment due to the rotation of the stacking wheel, the anodes and the cathodes being stacked alternately in the stacking compartment, and - wherein the alternately stacked anodes and cathodes are pressed against each other in the stacking compartment.
A non-oriented electrical steel sheet having a chemical composition in mass% of: C: 0.0100% or less, Si: 2.6% to 4.1%, Mn: 0.1% to 3.0%, P: 0.15% or less, S: 0.0013% or less, N: 0.0050% or less, Al: 0.1% to 2.0%, Mg: 0.0002% to 0.0100%, B: 0.0001% to 0.0010%, one or more selected from Sn and Sb: 0% to 0.100%, Cr: 0% to 0.1%, Ni: 0% to 5.0%, Cu: 0% to 5.0%, Ca: 0% to 0.010%, and rare earth elements: 0% to 0.010%, with the balance of Fe and impurities, wherein an area fraction of a crystal structure A composed of crystal grains having a grain size of 100 μm or more is 1% to 30% in a cross section parallel to a rolled plane of the non-oriented electrical steel sheet, wherein an average grain size of a crystal structure B which is a crystal structure other than the crystal structure A is 40 μm or less, and wherein a Vickers hardness HvA of the crystal structure A and a Vickers hardness HvB of the crystal structure B satisfy Equation 1 below; wherein the area fraction, the average grain size and the Vickers hardness are measured as described in the description. HvA 2 + HvB 2 / 2 − HvA + HvB 2 / 4 ≤ 7.0 C: 0.0100% or less, Si: 2.6% to 4.1%, Mn: 0.1% to 3.0%, P: 0.15% or less, S: 0.0013% or less, N: 0.0050% or less, Al: 0.1% to 2.0%, Mg: 0.0002% to 0.0100%, B: 0.0001% to 0.0010%, one or more selected from Sn and Sb: 0% to 0.100%, Cr: 0% to 0.1%, Ni: 0% to 5.0%, Cu: 0% to 5.0%, Ca: 0% to 0.010%, and rare earth elements: 0% to 0.010%, with the balance of Fe and impurities, wherein an area fraction of a crystal structure A composed of crystal grains having a grain size of 100 μm or more is 1% to 30% in a cross section parallel to a rolled plane of the non-oriented electrical steel sheet, wherein an average grain size of a crystal structure B which is a crystal structure other than the crystal structure A is 40 μm or less, and wherein a Vickers hardness HvA of the crystal structure A and a Vickers hardness HvB of the crystal structure B satisfy Equation 1 below; wherein the area fraction, the average grain size and the Vickers hardness are measured as described in the description. HvA 2 + HvB 2 / 2 − HvA + HvB 2 / 4 ≤ 7.0
A method for determining locations of static base station devices, comprising: identifying a plurality of static base station devices; obtaining location measurements by the plurality of static base station devices at different times; and determining locations of the plurality of static base station devices, wherein the determination for each of the plurality of static base station devices uses the location measurements obtained by the plurality of static base station devices at the different times. identifying a plurality of static base station devices; obtaining location measurements by the plurality of static base station devices at different times; and determining locations of the plurality of static base station devices, wherein the determination for each of the plurality of static base station devices uses the location measurements obtained by the plurality of static base station devices at the different times.
Lighting module for a motor vehicle, designed to perform a first non-dazzling lighting function by projecting a beam with a cutoff, and a second long-range lighting function by projecting a second beam without a cutoff, the lighting module comprising at least two light sources (2, 4), optical deflection devices (6, 8) for optically deflecting the light rays emitted by the light sources (2, 4), a shaping optic for shaping the deflected rays, and a shield (12, 112) arranged between the optical deflection devices and the shaping optic and able to adopt at least two separate positions, the shield (12, 112) being in a first position of partially blocking the rays so as to achieve the first non-dazzling lighting function and in a free second position so as to achieve the second long-range lighting function, characterized in that each of the light sources (2, 4) is driven so as to modify the luminous intensity emitted by this source on the basis of the position of the shield, in a direction of reducing the intensity or in a direction of increasing the intensity when the shield (12, 112) changes from one given position to the other, two light sources being driven in opposing directions when the shield changes from one given position to another.
Smoking product with an electric power source, at least one electric functional unit (8, 10, 12, 22) and a housing, which at least partially collectively surrounds the electric power source and the at least one electric functional unit (8, 10, 12, 22), wherein the housing comprises electrical strip conductors (31, 32, 33) for the electrical connection of the electric power source to the at least one electric functional unit (8, 10, 12, 22), and the housing forms a, preferably strip-shaped, flexible encasing layer, which at least surrounds the electrical power source, characterised in that, the smoking product has a substantially elongated, cylindrical shape, wherein the electrical strip conductors extend substantially in the longitudinal direction of the smoking product or at least comprise sections which extend substantially in the longitudinal direction of the smoking product in order to connect together the electrical components located one behind the other in the longitudinal direction, which comprise the electric power source and the at least one electric functional unit.
Device for the continual pyrolysis of organic starting materials, comprising: - a pyrolysis reactor with a support, wherein the pyrolysis reactor is designed to receive the organic starting materials by means of the support and for breaking down the latter to convey them through a metal melt in a bath at a temperature of 400 °C to 700 °C; - a condensation device connected to the pyrolysis reactor which is designed to receive pyrolysis vapour created during the pyrolysis and covert the latter into a gaseous phase and a liquid phase; - a deaerator connected to the pyrolysis reactor for receiving solid materials from the metal melt and for desorbing hydrocarbons, which is designed to crush the solid materials and release and collect metals of the metal melt adhering to the latter; - a metal recirculation line, which is designed to recirculate the metal released and collected from the deaerator into the metal melt of the pyrolysis reactor and is arranged between the bath for the metal melt and the deaerator; - a cooler connected to the deaerator, which cooler is designed to receive the crushed and cleaned solid materials, to cool them and prepare them as pyrolysis solid materials, - a gas recirculating system which is designed to feed pyrolysis gas produced by the condensation device at least partly to the reactor chamber. - a pyrolysis reactor with a support, wherein the pyrolysis reactor is designed to receive the organic starting materials by means of the support and for breaking down the latter to convey them through a metal melt in a bath at a temperature of 400 °C to 700 °C; - a condensation device connected to the pyrolysis reactor which is designed to receive pyrolysis vapour created during the pyrolysis and covert the latter into a gaseous phase and a liquid phase; - a deaerator connected to the pyrolysis reactor for receiving solid materials from the metal melt and for desorbing hydrocarbons, which is designed to crush the solid materials and release and collect metals of the metal melt adhering to the latter; - a metal recirculation line, which is designed to recirculate the metal released and collected from the deaerator into the metal melt of the pyrolysis reactor and is arranged between the bath for the metal melt and the deaerator; - a cooler connected to the deaerator, which cooler is designed to receive the crushed and cleaned solid materials, to cool them and prepare them as pyrolysis solid materials, - a gas recirculating system which is designed to feed pyrolysis gas produced by the condensation device at least partly to the reactor chamber.
A resource scheduling method, comprising: sending, by a user equipment, an access request to an access network device using an access channel resource; determining, by the user equipment, an access identifier based on an access channel resource period identifier, or based on a frequency band identifier and an access channel resource period identifier, wherein the access channel resource period identifier Period_id satisfies the following formula: Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving (1203, 1204), from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response. sending, by a user equipment, an access request to an access network device using an access channel resource; determining, by the user equipment, an access identifier based on an access channel resource period identifier, or based on a frequency band identifier and an access channel resource period identifier, wherein the access channel resource period identifier Period_id satisfies the following formula: Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving (1203, 1204), from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response. Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving (1203, 1204), from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response.
Device for receiving a single-use container, comprising: - a receiving container having a receiving container inner wall that delimits a container interior of the receiving container for receiving the single-use container, wherein a plurality of grooves for receiving electrical functional elements are provided in the receiving container inner wall. - a receiving container having a receiving container inner wall that delimits a container interior of the receiving container for receiving the single-use container, wherein a plurality of grooves for receiving electrical functional elements are provided in the receiving container inner wall.