mhurhangee/ep-ind-claims huggingface dataset:
A polyethylene composition comprising: 1) from 85 to 99 weight % of a stabilized polyethylene having a melt index, I 2, as measured by ASTM D 1238 at 190°C using a 2.16 kg lead, of from 0.5 to 10 grams/10 minutes; a density as measured by ASTM D792 of from 0.920 to 0.950 g/cc; and 2) from 15 to 1 weight % of a substantially non-stabilized polyethylene having (i) a high load melt index, I 21, as measured by ASTM D1238 at 190°C using a 21.6 kg load, of from 2 to 20 grams/10 minutes; (ii) a density of from 0.950 to 0.965 g/cc as measured by ASTM D792; and (iii) an average particle size of from 500 to 3000 microns. 1) from 85 to 99 weight % of a stabilized polyethylene having a melt index, I 2, as measured by ASTM D 1238 at 190°C using a 2.16 kg lead, of from 0.5 to 10 grams/10 minutes; a density as measured by ASTM D792 of from 0.920 to 0.950 g/cc; and 2) from 15 to 1 weight % of a substantially non-stabilized polyethylene having (i) a high load melt index, I 21, as measured by ASTM D1238 at 190°C using a 21.6 kg load, of from 2 to 20 grams/10 minutes; (ii) a density of from 0.950 to 0.965 g/cc as measured by ASTM D792; and (iii) an average particle size of from 500 to 3000 microns.
A windscreen wiper device, comprising: a longitudinally extending wiper blade of a flexible material for sealing against a windshield of a vehicle; an elastic, elongated carrier that is self-biased into a pre-curved shape and which extends longitudinally between opposite ends, said carrier operably supporting and biasing said wiper blade into a pre-curved configuration; a connecting device secured to said carrier for attachment to an oscillating wiper arm; a pair of subspoilers constructed as separate pieces from one another and from said wiper blade and arranged on longitudinally opposite sides of said connecting device; and each of said subspoilers being joined with said carrier along less than a full longitudinal length of the respective subspoiler with an adhesive, the wiper device being characterised in that each of said subspoilers is joined with said carrier in at least two adhesive regions which are spaced apart by a non-adhesive region. a longitudinally extending wiper blade of a flexible material for sealing against a windshield of a vehicle; an elastic, elongated carrier that is self-biased into a pre-curved shape and which extends longitudinally between opposite ends, said carrier operably supporting and biasing said wiper blade into a pre-curved configuration; a connecting device secured to said carrier for attachment to an oscillating wiper arm; a pair of subspoilers constructed as separate pieces from one another and from said wiper blade and arranged on longitudinally opposite sides of said connecting device; and each of said subspoilers being joined with said carrier along less than a full longitudinal length of the respective subspoiler with an adhesive, the wiper device being characterised in that each of said subspoilers is joined with said carrier in at least two adhesive regions which are spaced apart by a non-adhesive region.
An oral care composition comprising: a) a calcium source; b) a silicate source that dissolves in water to give a solution with a concentration of at least 0.1 moles per litre at 25°C and atmospheric pressure; c) from 10% to 30% by weight of high refractive index particles; and d) a physiologically acceptable carrier; wherein the particles have a refractive index ranging from 1.9 to 4.0; wherein the calcium source is calcium hydroxide, calcium gluconate, calcium oxide, calcium lactate, calcium sulfate, calcium carboxymethyl cellulose, calcium alginate, calcium salts of citric acid, calcium chloride, calcium nitrate, calcium acetate or mixtures thereof; and wherein the silicate source comprises sodium silicate, potassium silicate, tetraethyl orthosilicate, tetraethylsilicate or mixtures thereof. a) a calcium source; b) a silicate source that dissolves in water to give a solution with a concentration of at least 0.1 moles per litre at 25°C and atmospheric pressure; c) from 10% to 30% by weight of high refractive index particles; and d) a physiologically acceptable carrier;
A method of manufacturing a fixing roller which includes a rotary shaft, an elastic layer provided at the circumference of the rotary shaft, and a surface layer covering the elastic layer, the fixing roller is configured to be used in a fixing device for heat-fixing a developer image transferred on a recording sheet, and the fixing roller is configured to convey the recording sheet, the method comprising: providing the elastic layer and the surface layer at the circumference of the rotary shaft; and forming creases on both axial end portions of the surface layer by pressing the axial end portions of the surface layer against a concave-convex surface and rolling the rotary shaft, the elastic layer and the surface layer on the concave-convex surface. providing the elastic layer and the surface layer at the circumference of the rotary shaft; and forming creases on both axial end portions of the surface layer by pressing the axial end portions of the surface layer against a concave-convex surface and rolling the rotary shaft, the elastic layer and the surface layer on the concave-convex surface.
Aircraft having at least one fuel tank that contains an inert gas, said fuel tank comprising a device for monitoring the concentration of oxygen in the fuel tank, characterized by means of the following features: - an ionisation chamber that communicates with the fuel tank and it is possible for an inert gas flow to flow through said ionisation chamber from the fuel tank, - wherein one end of the ionisation chamber comprises an electron emitter surface, - wherein the ionisation chamber comprises a collector surface that lies opposite the electron emitter surface, said collector surface being coupled to a charge carrier detecting device (28, 30), - a light pulse generating device for irradiating the electron emitter surface so as to generate electrons in the ionisation chamber, - wherein the ionisation chamber is surrounded by a field-generating device for generating an electrical field in order to move negative charger carriers in the direction of the collector surface, - a control unit for controlling the light pulse generating device for the purpose of generating light pulses and for ascertaining charge carriers that arrive on the the collector surface and to determine therefrom the concentration of oxygen. - an ionisation chamber that communicates with the fuel tank and it is possible for an inert gas flow to flow through said ionisation chamber from the fuel tank, - wherein one end of the ionisation chamber comprises an electron emitter surface, - wherein the ionisation chamber comprises a collector surface that lies opposite the electron emitter surface, said collector surface being coupled to a charge carrier detecting device (28, 30), - a light pulse generating device for irradiating the electron emitter surface so as to generate electrons in the ionisation chamber, - wherein the ionisation chamber is surrounded by a field-generating device for generating an electrical field in order to move negative charger carriers in the direction of the collector surface, - a control unit for controlling the light pulse generating device for the purpose of generating light pulses and for ascertaining charge carriers that arrive on the the collector surface and to determine therefrom the concentration of oxygen.
A battery module comprising: a battery cell stack comprising n battery cells; a case having one open end and accommodating the battery cell stack inside thereof; an upper plate stacked on an upper end of the battery cell stack; and a constant force spring positioned inside the case, wherein the constant force spring includes a winding end and a free end, characterized in that the battery cell stack is accommodated in the case such that the laminated surfaces of the battery cell stack are parallel to the bottom surface of the case, the winding end is fixed at a lower portion of the case, and the free end is fixed at the upper plate, wherein n is an integer equal to or greater than 2, wherein the battery module further comprises a case cover covering the one open end of the case, and wherein one or more stopper blocks are provided between the case cover and the upper plate so as to limit movement of the upper plate in an upward direction. a battery cell stack comprising n battery cells; a case having one open end and accommodating the battery cell stack inside thereof; an upper plate stacked on an upper end of the battery cell stack; and a constant force spring positioned inside the case, wherein the constant force spring includes a winding end and a free end, characterized in that the battery cell stack is accommodated in the case such that the laminated surfaces of the battery cell stack are parallel to the bottom surface of the case, the winding end is fixed at a lower portion of the case, and the free end is fixed at the upper plate, wherein n is an integer equal to or greater than 2, wherein the battery module further comprises a case cover covering the one open end of the case, and wherein one or more stopper blocks are provided between the case cover and the upper plate so as to limit movement of the upper plate in an upward direction.
A method for carrier selection in device to device, D2D, communication, comprising: triggering, by a terminal device, carrier selection according to at least one of information of data to be transmitted or information of a carrier for current use; the triggering comprising: determining, by the terminal device, an available carrier for the data to be transmitted according to the information of the data to be transmitted and a first corresponding relationship, wherein the first corresponding relationship is a corresponding relationship between information of data to be transmitted and available carriers; and triggering, by the terminal device, carrier selection according to the available carrier for the data to be transmitted and the carrier for current use; wherein the triggering, by the terminal device, carrier selection according to the available carrier for the data to be transmitted and the carrier for current use, comprises: triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are different; or triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are the same, and a reserved resource or a granted resource on the carrier for current use cannot carry the data to be transmitted. determining, by the terminal device, an available carrier for the data to be transmitted according to the information of the data to be transmitted and a first corresponding relationship, wherein the first corresponding relationship is a corresponding relationship between information of data to be transmitted and available carriers; and triggering, by the terminal device, carrier selection according to the available carrier for the data to be transmitted and the carrier for current use; wherein the triggering, by the terminal device, carrier selection according to the available carrier for the data to be transmitted and the carrier for current use, comprises: triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are different; or triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are the same, and a reserved resource or a granted resource on the carrier for current use cannot carry the data to be transmitted. triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are different; or triggering, by the terminal device, carrier selection, if the available carrier for the data to be transmitted and the carrier for current use are the same, and a reserved resource or a granted resource on the carrier for current use cannot carry the data to be transmitted.
A method of wireless communication performed by a user equipment, UE (120, 320), comprising: receiving or determining information that indicates whether to perform a first random access channel, RACH, procedure for a non-terrestrial network or a second RACH procedure for a terrestrial network, wherein: the first RACH procedure is configured to support a larger number of UEs contemporaneously performing a RACH procedure than the second RACH procedure; and responsive to the information indicating that the UE (120, 320) is to perform the first RACH procedure, performing the first RACH procedure, wherein the first RACH procedure is performed based at least in part on a Zadoff-Chu signature that is selected from more than 64 permitted Zadoff-Chu signatures. receiving or determining information that indicates whether to perform a first random access channel, RACH, procedure for a non-terrestrial network or a second RACH procedure for a terrestrial network, wherein: the first RACH procedure is configured to support a larger number of UEs contemporaneously performing a RACH procedure than the second RACH procedure; and responsive to the information indicating that the UE (120, 320) is to perform the first RACH procedure, performing the first RACH procedure, wherein the first RACH procedure is performed based at least in part on a Zadoff-Chu signature that is selected from more than 64 permitted Zadoff-Chu signatures.
A sealing cushion for a patient interface, wherein the cushion comprises a nose bridge contacting area that is configured to contact a nose bridge of a patient during use of the cushion, wherein the nose bridge contacting area comprises a material having a secant stiffness of less than 0.2 N/mm at a material strain between 0.1 and 1, wherein the secant stiffness is defined as tensile force applied to the material per unit width of the material divided by the material strain, wherein the material strain denotes a ratio of material extension in length per unit of original length of the material.
A sensor comprising a conductive region in electrical communication with two electrodes, the conductive region comprising metallic nanowires, nanosized particles of a metal dichalcogenide, and a mercaptoimidazolyl metal complex.
A method comprising: generating a URL at an originating device comprising a link layer type and link layer information for use by a resolving device to identify a link layer network of the link layer type; and storing the URL, wherein the URL comprises a plurality of data pairs, each pair comprising a link layer network type and a link layer network name. generating a URL at an originating device comprising a link layer type and link layer information for use by a resolving device to identify a link layer network of the link layer type; and storing the URL, wherein the URL comprises a plurality of data pairs, each pair comprising a link layer network type and a link layer network name.
Electrical assembly - comprising a housing (2, 3) and at least two PTC resistor elements (11, 12) which are arranged in the housing (2, 3), - wherein the resistor elements (11, 12) each have a base body of flat design and electrodes (16, 17) arranged on its main surfaces, - wherein a connecting wire (41, 42) is soldered to each electrode (16, 17) of the respective resistor element (11, 12) at a soldering point, - wherein each resistor element (11, 12) has an electrically insulating sheath which covers the soldering points, - wherein the resistor elements (11, 12) are arranged to be electrically insulated from one another, - wherein the housing (2, 3) is closed. - comprising a housing (2, 3) and at least two PTC resistor elements (11, 12) which are arranged in the housing (2, 3), - wherein the resistor elements (11, 12) each have a base body of flat design and electrodes (16, 17) arranged on its main surfaces, - wherein a connecting wire (41, 42) is soldered to each electrode (16, 17) of the respective resistor element (11, 12) at a soldering point, - wherein each resistor element (11, 12) has an electrically insulating sheath which covers the soldering points, - wherein the resistor elements (11, 12) are arranged to be electrically insulated from one another, - wherein the housing (2, 3) is closed.
A power generating bearing assembly comprising: a bearing housing comprising a bearing subassembly receptacle, a bearing subassembly retained within said bearing receptacle; and a Thermo-Electric Generator assembly comprising: a thermo-generator housing, a Thermo-Electric Generator located within said thermo-generator housing; characterised by: said bearing housing comprising a thermal transfer conduit; said Thermo-Electric Generator assembly comprising: a thermal energy transfer media extending through said thermal transfer conduit and into said thermo-generator housing, wherein said Thermo-Electric Generator is subjected to a thermal difference by thermal communication between a first surface of said Thermo-Electric Generator and a surface of said thermal energy transfer media and a second surface of said Thermo-Electric Generator and ambient air, wherein during operation, heat generated by rotation of said bearing subassembly elevates a temperature of said bearing housing, said Thermo-Electric Generator converts a thermal difference between a high temperature source provide by said thermal energy transfer media and an ambient temperature to electric power. a bearing housing comprising a bearing subassembly receptacle, a bearing subassembly retained within said bearing receptacle; and a Thermo-Electric Generator assembly comprising: a thermo-generator housing, a Thermo-Electric Generator located within said thermo-generator housing; characterised by: said bearing housing comprising a thermal transfer conduit; said Thermo-Electric Generator assembly comprising: a thermal energy transfer media extending through said thermal transfer conduit and into said thermo-generator housing, wherein said Thermo-Electric Generator is subjected to a thermal difference by thermal communication between a first surface of said Thermo-Electric Generator and a surface of said thermal energy transfer media and a second surface of said Thermo-Electric Generator and ambient air, a thermo-generator housing, a Thermo-Electric Generator located within said thermo-generator housing; characterised by: said bearing housing comprising a thermal transfer conduit; said Thermo-Electric Generator assembly comprising: a thermal energy transfer media extending through said thermal transfer conduit and into said thermo-generator housing, wherein said Thermo-Electric Generator is subjected to a thermal difference by thermal communication between a first surface of said Thermo-Electric Generator and a surface of said thermal energy transfer media and a second surface of said Thermo-Electric Generator and ambient air, wherein during operation, heat generated by rotation of said bearing subassembly elevates a temperature of said bearing housing, said Thermo-Electric Generator converts a thermal difference between a high temperature source provide by said thermal energy transfer media and an ambient temperature to electric power.
An autorotative assist system comprising: a motor-generator configured to attach to a transmission of an engine, the engine configured to rotate rotor blades connected to the transmission; and an energy storage unit coupled to the motor-generator, wherein, during normal operation of the engine, the motor-generator is configured to convert energy from the transmission into electrical energy, and the energy storage unit is configured to receive and store the electrical energy, and wherein, upon loss of engine power, the energy storage unit is configured to provide the stored energy to the motor-generator, and the motor-generator is configured to be powered by the energy received from the energy storage unit to drive the transmission to provide supplemental autorotative assistance to rotate the rotor blades, wherein the motor-generator and energy storage unit are configured to provide about 34-60 kW (45-80 hp) for about 3-7 seconds, the autoroatative assist system further comprising: a controller connected to the motor-generator and the energy storage unit, the controller configured to control the supplemental autorotative assistance provided upon loss of engine power; and one or more sensors in communication with the controller, the one or more sensors for triggering the motor-generator to draw energy from the energy storage unit to provide power to the rotor blades during autorotation. a motor-generator configured to attach to a transmission of an engine, the engine configured to rotate rotor blades connected to the transmission; and an energy storage unit coupled to the motor-generator, wherein, during normal operation of the engine, the motor-generator is configured to convert energy from the transmission into electrical energy, and the energy storage unit is configured to receive and store the electrical energy, and wherein, upon loss of engine power, the energy storage unit is configured to provide the stored energy to the motor-generator, and the motor-generator is configured to be powered by the energy received from the energy storage unit to drive the transmission to provide supplemental autorotative assistance to rotate the rotor blades, wherein the motor-generator and energy storage unit are configured to provide about 34-60 kW (45-80 hp) for about 3-7 seconds, the autoroatative assist system further comprising: a controller connected to the motor-generator and the energy storage unit, the controller configured to control the supplemental autorotative assistance provided upon loss of engine power; and one or more sensors in communication with the controller, the one or more sensors for triggering the motor-generator to draw energy from the energy storage unit to provide power to the rotor blades during autorotation. a controller connected to the motor-generator and the energy storage unit, the controller configured to control the supplemental autorotative assistance provided upon loss of engine power; and one or more sensors in communication with the controller, the one or more sensors for triggering the motor-generator to draw energy from the energy storage unit to provide power to the rotor blades during autorotation.