mhurhangee/ep-ind-claims huggingface dataset:
An organic light emitting diode (OLED) display comprising: a display substrate assembly comprising an organic light emitting element; an encapsulation substrate assembly on the display substrate assembly with a space therebetween, the encapsulation substrate assembly being sealed with the display substrate assembly; and a filling agent provided within the space between the display substrate assembly and the encapsulation substrate assembly, wherein the filling agent is adapted to selectively absorb external light entering through the encapsulation substrate assembly, wherein the filling agent comprises a resin containing a light absorbing material comprising one aromatic hydrocarbon, characterized in that the aromatic hydrocarbon is selected from a group consisting of compounds represented by at least one of Formula 13, Formula 14 or Formula 15: a display substrate assembly comprising an organic light emitting element; an encapsulation substrate assembly on the display substrate assembly with a space therebetween, the encapsulation substrate assembly being sealed with the display substrate assembly; and a filling agent provided within the space between the display substrate assembly and the encapsulation substrate assembly, wherein the filling agent is adapted to selectively absorb external light entering through the encapsulation substrate assembly, wherein the filling agent comprises a resin containing a light absorbing material comprising one aromatic hydrocarbon, characterized in that the aromatic hydrocarbon is selected from a group consisting of compounds represented by at least one of Formula 13, Formula 14 or Formula 15:
A method for modifying or enhancing one or more properties of a drilling fluid for drilling a wellbore in a subterranean formation, the method comprising adding to the drilling fluid a single additive comprising an oil absorbent material and drilling with the drilling fluid, wherein the drilling fluid is an invert emulsion, wherein the oil absorbent material is selected from the group consisting of homopolymers or copolymers comprising styrene butadiene, acrylate, phthalate or the group consisting of elastomer polymers comprising isoprene, isobutylene, ethylene, acrylonitrile, hydrogenated nitrile, ether block amides, norbornene, and any fluorinated, perfluorinated, or halogenated congeners of these compounds.
A method for determining a stickiness temperature of a resin, comprising: adding resin to a testing device comprising an agitator; adding an induced condensing agent to the testing device; running the agitator, wherein the agitator is a mixing blade rotated at a constant rate; and increasing the temperature of the resin and the ICA in the testing device until a value of a torque used to run the agitator exceeds a torque limit, wherein when the torque limit is exceeded the agitator stops, indicating the stickiness temperature of the resin. adding resin to a testing device comprising an agitator; adding an induced condensing agent to the testing device; running the agitator, wherein the agitator is a mixing blade rotated at a constant rate; and increasing the temperature of the resin and the ICA in the testing device until a value of a torque used to run the agitator exceeds a torque limit, wherein when the torque limit is exceeded the agitator stops, indicating the stickiness temperature of the resin.
Domestic appliance, in particular a floor cultivating appliance, having an appliance housing, a fan arranged in the appliance housing, an outlet opening formed in the appliance housing behind the fan in the direction of flow, a flow duct which connects the outlet opening to the fan in a flow-guiding manner, and a sound damping device associated with the flow duct for damping sound generated by operation of the domestic appliance, wherein the sound damping device has a plurality of sound-absorbing wall elements (7, 8, 9), which together form at least one section of the flow channel, wherein the wall elements (7, 8, 9) have a wall surface which is curved with respect to a direction of a longitudinal extension of the flow channel and are positioned relative to one another in such a way that a flow path formed between opposing wall surfaces extends in a curved manner, wherein the sound-absorbing device has a carrier body for receiving the sound-absorbing wall elements (7, 8, 9), characterised in that the flow channel has a sound-reducing wall, wherein a wall plane of the sound-reducing wall is orientated parallel to the flow path and wherein the sound-reducing wall is arranged centrally between the opposing wall surfaces of the flow channel with respect to a direction orthogonal to the longitudinal extent of the flow channel, and wherein the carrier body together with the wall elements (7, 8, 9) and the sound-reducing wall forms an installation module which can be installed as a whole in the appliance housing, namely between the fan and the outlet opening of the appliance housing.
A method of pest control, the method comprising: storing an ultrasonic signal pattern characteristic of a sound made by a species of animal; outputting a sound corresponding to the stored ultrasonic signal pattern; monitoring for sounds in a desired region so as to obtain an input sound signal (1a, 1b, 1c, 1d) within a predetermined frequency range; characterised in that the method further comprises: analysing the obtained input sound signal (1a, 1b, 1c, 1d) to distinguish at least one ultrasonic signal pattern characteristic of a sound made by the species of animal within the frequency range, determining if an animal of the species of animal is present in the desired region based on the distinguishing of the at least one ultrasonic signal pattern characteristic of a sound made by the animal wherein the sound output is a vocalisation made by the species of animal. storing an ultrasonic signal pattern characteristic of a sound made by a species of animal; outputting a sound corresponding to the stored ultrasonic signal pattern; monitoring for sounds in a desired region so as to obtain an input sound signal (1a, 1b, 1c, 1d) within a predetermined frequency range; characterised in that the method further comprises: analysing the obtained input sound signal (1a, 1b, 1c, 1d) to distinguish at least one ultrasonic signal pattern characteristic of a sound made by the species of animal within the frequency range, determining if an animal of the species of animal is present in the desired region based on the distinguishing of the at least one ultrasonic signal pattern characteristic of a sound made by the animal wherein the sound output is a vocalisation made by the species of animal. analysing the obtained input sound signal (1a, 1b, 1c, 1d) to distinguish at least one ultrasonic signal pattern characteristic of a sound made by the species of animal within the frequency range, determining if an animal of the species of animal is present in the desired region based on the distinguishing of the at least one ultrasonic signal pattern characteristic of a sound made by the animal wherein the sound output is a vocalisation made by the species of animal.
An optical film (640,840,1040,1140) having opposed first and second structured surfaces, the optical film comprising: a plurality of extended prisms (641, 841, 941, 1041, 1141) formed in the first structured surface; a plurality of extended lenslets (644, 844, 944, 1044, 1144) formed in the second structured surface; and wherein the prisms and lenslets are arranged in a one-to-one correspondence of lenslets to prisms; and wherein at least some of the prisms are compound prisms, each compound prism having two inclined surfaces (642, 842, 942, 1042, 1142, 643, 843, 943, 1043, 1143) that are compound and a sharp vertex (Vprism), each such compound inclined surface of each compound prism having a tip portion (842a, 942a, 1042a, 1142a, 843a, 943a, 1043a, 1143a), the tip portions together forming the sharp vertex, a base portion (842c, 942ca, 1042c, 1142c, 843c, 943c, 1043c, 1143c), and an intermediate portion (842b, 942b, 1042b, 1142b, 843b, 943b, 1043b, 1143b), disposed between the tip portion and the base portion, the intermediate portion forming a first profile shape with the tip portion and a second profile shape with the base portion, and wherein the first profile shape is concave and the second profile shape is convex, or the first profile shape is convex and the second profile shape is concave. a plurality of extended prisms (641, 841, 941, 1041, 1141) formed in the first structured surface; a plurality of extended lenslets (644, 844, 944, 1044, 1144) formed in the second structured surface; and wherein the prisms and lenslets are arranged in a one-to-one correspondence of lenslets to prisms; and wherein at least some of the prisms are compound prisms, each compound prism having two inclined surfaces (642, 842, 942, 1042, 1142, 643, 843, 943, 1043, 1143) that are compound and a sharp vertex (Vprism), each such compound inclined surface of each compound prism having a tip portion (842a, 942a, 1042a, 1142a, 843a, 943a, 1043a, 1143a), the tip portions together forming the sharp vertex, a base portion (842c, 942ca, 1042c, 1142c, 843c, 943c, 1043c, 1143c), and an intermediate portion (842b, 942b, 1042b, 1142b, 843b, 943b, 1043b, 1143b), disposed between the tip portion and the base portion, the intermediate portion forming a first profile shape with the tip portion and a second profile shape with the base portion, and wherein the first profile shape is concave and the second profile shape is convex, or the first profile shape is convex and the second profile shape is concave.
A process for relaxing the strain in a heterostructure comprising a single crystal semiconductor substrate, a single crystal semiconductor surface layer disposed on the substrate and an interface between the substrate and the surface layer, the substrate comprising a central, axis, a back surface which is perpendicular to the central axis, and a diameter extending across the substrate through the central axis, the process comprising: forming a dislocation source layer in the substrate; and radially distending the substrate to generate dislocations and glide the dislocations from the dislocation source layer toward the surface layer. forming a dislocation source layer in the substrate; and
A method of preparing a sinterable garnet-structure complex oxide powder comprising the steps of: (i) adding (a) an aqueous solution containing at least one rare earth element selected from among yttrium and lanthanoid elements in ion form, (b) an aqueous solution containing at least one element selected from Group 13 elements in ion form, and (c) an aqueous solution containing scandium ion, together to a co-precipitating aqueous solution, and stirring the resulting solution, or (ii) adding an aqueous solution containing (a) at least one rare earth element selected from among yttrium and lanthanoid elements in ion form, and an aqueous solution containing (b) at least one element selected from Group 13 elements in ion form together to a co-precipitating aqueous solution, stirring the resulting solution as a first stirring step, adding an aqueous solution containing (c) scandium ion thereto, and stirring the resulting solution as a second stirring step, wherein the stirring time in the step (i) and the total time of the first and second stirring steps in the step (ii) are both at least 12 hours, allowing the resulting solution to form a co-precipitate of components (a), (b) and (c), and allowing particles of the co-precipitate of components (a), (b) and (c) to grow; filtering; heat drying; and firing the co-precipitate at a temperature of from 1,000°C to 1,400°C, thereby forming a garnet-structure complex oxide powder having the formula: (R 1-x Sc x) 3 (A 1-y Sc y) 5 O 12 wherein R is at least one rare earth element selected from yttrium and lanthanoid elements, A is at least one element selected from Group 13 elements, and x and y are numbers in the ranges 0 < x < 0.08 and 0.004 < y < 0.16. (i) adding (a) an aqueous solution containing at least one rare earth element selected from among yttrium and lanthanoid elements in ion form, (b) an aqueous solution containing at least one element selected from Group 13 elements in ion form, and (c) an aqueous solution containing scandium ion, together to a co-precipitating aqueous solution, and stirring the resulting solution, or (ii) adding an aqueous solution containing (a) at least one rare earth element selected from among yttrium and lanthanoid elements in ion form, and an aqueous solution containing (b) at least one element selected from Group 13 elements in ion form together to a co-precipitating aqueous solution, stirring the resulting solution as a first stirring step, adding an aqueous solution containing (c) scandium ion thereto, and stirring the resulting solution as a second stirring step, allowing the resulting solution to form a co-precipitate of components (a), (b) and (c), and allowing particles of the co-precipitate of components (a), (b) and (c) to grow; filtering; heat drying; and firing the co-precipitate at a temperature of from 1,000°C to 1,400°C, thereby forming a garnet-structure complex oxide powder having the formula: (R 1-x Sc x) 3 (A 1-y Sc y) 5 O 12
A method for adjusting the tension of endless and spaced-apart drive elements of a screening device, which is used for separating out and removing debris from wastewater, wherein the drive elements are moved on a circulating path with the aid of at least one drive motor of the screening device during the operation of the screening device, characterized in that the energy consumption of the drive motor is monitored during the operation thereof, and the tension is increased as necessary until the energy consumption increases in a previously defined way.
A drive control method of an occupant protection control apparatus for controlling the operation of a two-stage ignition-type occupant protection apparatus having two ignition means (3a,3b), wherein the method comprises a time-lagged explosion method in which a second ignition means of the occupant protection apparatus is normally scheduled to be ignited a predetermined time after a first ignition means of the occupant protection apparatus is ignited, and wherein, when the first ignition means is determined to be in failed state at the time when the first ignition means is normally scheduled to be ignited, the second ignition means in place of the first ignition means is ignited at the time when the first ignition means is normally scheduled to be ignited, and the first ignition means is ignited at the time when the second ignition means is normally scheduled to be ignited, in spite of the determination result indicating the failed state of the first ignition means.
A bearing assembly for a turbine engine comprising: a first gas bearing configured to receive a first load from a rotating shaft of the turbine engine; a transmission disk configured to receive the first load from the first gas bearing, wherein the transmission disk comprises a gas delivery disk, the gas delivery disk comprises: an inner axial opening configured to facilitate a first axial flow through the gas delivery disk; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing; and a damping member coupled to a casing of a combustor section of the turbine engine, wherein the damping member is configured to receive the first load from the transmission disk. a first gas bearing configured to receive a first load from a rotating shaft of the turbine engine; a transmission disk configured to receive the first load from the first gas bearing, wherein the transmission disk comprises a gas delivery disk, the gas delivery disk comprises: an inner axial opening configured to facilitate a first axial flow through the gas delivery disk; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing; and an inner axial opening configured to facilitate a first axial flow through the gas delivery disk; and a duct configured to facilitate a radial bearing flow through the gas delivery disk to form the first gas bearing; and a damping member coupled to a casing of a combustor section of the turbine engine, wherein the damping member is configured to receive the first load from the transmission disk.
A method of operating a household appliance, in particular a dishwasher, in dependence on the presence of odours due to decomposition of organic material in said household appliance, said method comprising the steps of: - obtaining first measurement signals (10, 10') by a first sensor responsive to a first group comprised of at least one first chemical substance which is produced upon decomposition of organic material, - obtaining second measurement signals (12, 12') by a second sensor responsive to a second group comprised of at least one second chemical substance which neither is produced upon decomposition of organic material, nor is a detergent or included in a detergent used in said household appliance, wherein both the first and the second sensors are responsive to the environmental conditions in a comparable manner, - determining (S12, S18) whether or not the value of a pre-determined function calculated both on the basis of the measurement values provided by the first measurement signals (10, 10') and the measurement values provided by the second measurement signals (12, 12') is higher than a pre-determined threshold value or whether or not the value of a pre-determined function calculated both on the basis of the measurement values provided by the first measurement signals and the measurement values provided by the second measurement signals (12, 12') is lower than a pre-determined threshold value, and if so, - outputting a signal indicating the presence of odours due to decomposition of organic material and/or a signal activating a unit in said household appliance acting to reduce such odours. - obtaining first measurement signals (10, 10') by a first sensor responsive to a first group comprised of at least one first chemical substance which is produced upon decomposition of organic material, - obtaining second measurement signals (12, 12') by a second sensor responsive to a second group comprised of at least one second chemical substance which neither is produced upon decomposition of organic material, nor is a detergent or included in a detergent used in said household appliance, wherein both the first and the second sensors are responsive to the environmental conditions in a comparable manner, - determining (S12, S18) whether or not the value of a pre-determined function calculated both on the basis of the measurement values provided by the first measurement signals (10, 10') and the measurement values provided by the second measurement signals (12, 12') is higher than a pre-determined threshold value or whether or not the value of a pre-determined function calculated both on the basis of the measurement values provided by the first measurement signals and the measurement values provided by the second measurement signals (12, 12') is lower than a pre-determined threshold value, and if so, - outputting a signal indicating the presence of odours due to decomposition of organic material and/or a signal activating a unit in said household appliance acting to reduce such odours.
Nitrile rubber comprising repeat units of at least one α,β-unsaturated nitrile monomer and at least one conjugated diene monomer, characterized in that said rubber has an emission quotient E according to formula of less than or equal to 0.25 mg/(kg*Mooney units) E = volatile constituents Mooney viscosity × nitrile content 100 where [volatile constituents] is the volatile constituents concentration in mg/kg of nitrile rubber determined by TDS GC-MS analysis according to VDA recommendation 278 (version 09/2002) between 28.4 min and 34.0 min, [Mooney viscosity] is the Mooney viscosity ML 1+4 in Mooney units and determined according to ASTM D 1646 at a nitrile rubber temperature of 100°C and [nitrile content] is the dimensionless α,β-unsaturated nitrile content in the nitrile rubber determined in % by weight to DIN 53 625 according to Kjeldahl. [volatile constituents] is the volatile constituents concentration in mg/kg of nitrile rubber determined by TDS GC-MS analysis according to VDA recommendation 278 (version 09/2002) between 28.4 min and 34.0 min, [Mooney viscosity] is the Mooney viscosity ML 1+4 in Mooney units and determined according to ASTM D 1646 at a nitrile rubber temperature of 100°C and [nitrile content] is the dimensionless α,β-unsaturated nitrile content in the nitrile rubber determined in % by weight to DIN 53 625 according to Kjeldahl.
Vending machine which is intended to dispense individual products, · wherein the vending machine has a vertical conveyor device with which the products can be conveyed in the vertical direction, · wherein the vending machine has at least two horizontal conveyor devices (6, 10) with which the products can be conveyed in the horizontal direction, wherein at least one horizontal conveyor device (6, 10) is a conveyor belt, characterized in that the conveyor belt is formed from a circulating, flat belt material, preferably composed of an elastomer, and from at least four rollers (A, B, C, D), wherein at least one roller can be driven by a drive means, preferably by an electric motor, wherein the horizontal position of at least one roller, but preferably two rollers (C, D), can be changed or shifted, as a result of which the transportation length of the horizontal conveyor device can be changed, that is to say can be extended and can be shortened, and in that the vertical conveyor device is a twin conveyor belt, wherein a product can be pinched between the two conveyor belts and can be transported this way. · wherein the vending machine has a vertical conveyor device with which the products can be conveyed in the vertical direction, · wherein the vending machine has at least two horizontal conveyor devices (6, 10) with which the products can be conveyed in the horizontal direction,
Automatic door for a transport means, having a door frame, at least one movable door element (4, 4a, 4b) and a door safety system for the door, wherein the door safety system has a safety component arranged on a movable door element (4, 4a, 4b) of the door, a supply component which is arranged on an immovable door frame of the door and is intended to supply the safety component with electricity, and a control component arranged on the door frame for the purpose of controlling and/or monitoring the safety component, wherein the safety component has an electrical energy store which is designed to autonomously supply the safety component with electrical energy in the open state of the door, and wherein the safety component and the supply component are designed to electrically charge the electrical energy store of the safety component only in the closed state of the door, characterized in that the safety component and the control component are designed to wirelessly and bidirectionally interchange electrical data signals with one another.