mhurhangee/ep-ind-claims huggingface dataset:
A system for controlling a position of jet engine exhaust mixing tabs (28, 78), said system comprising a plurality of exhaust mixing tabs (26, 78) extending from a lip (30, 82) of at least one nozzle (18, 22) of an engine nacelle, the exhaust mixing tabs each including a distal portion that is deployable into the exhaust gas flow and a nozzle extension portion, a plurality of shape memory alloy tendons adapted to constrict when activated by heat, the constriction causing the exhaust mixing tabs to deploy into an exhaust flow emitted from the nacelle nozzle, the deployment causing the exhaust flow to intermix with adjacent air flow. said system characterized by the SMA tendons being attached to and extending between the distal portion and nozzle extension portion of each exhaust mixing tab.
A lithium secondary battery comprising: a cathode; an anode; a separation film disposed between the cathode and the anode; and an electrolyte, wherein the anode comprises an electrode active material comprising a silicon-based material and graphite, a binder, and a conductive material, and wherein the binder comprises dopamine-polymerized heparin. a cathode; an anode; a separation film disposed between the cathode and the anode; and an electrolyte, wherein the anode comprises an electrode active material comprising a silicon-based material and graphite, a binder, and a conductive material, and wherein the binder comprises dopamine-polymerized heparin.
Device for controlling home automation products, comprising a functional component for controlling one or more home automation products, an emitter and/or a receiver of control data and a photovoltaic element that supplies the emitter and/or receiver with power, characterized in that the photovoltaic element, which is in particular ringshaped, at least partially encircles one portion of the functional component and is passed through by at least one portion of the latter.
A method for wireless communication, comprising: identifying, by a first communications device, at least one subcarrier within an orthogonal frequency division multiplexing, OFDM, downlink signal for use in communicating with a wake-up receiver of a second communications device with a primary receiver of the second communications device in deep sleep, wherein the first communications device is a base station and the second communications device is a user equipment; inserting, by the first communications device, an embedded signal into the identified at least one subcarrier at one or more pre-specified times for transmission to the wake-up receiver of the second communications device; modulating one or more adjacent subcarriers to the identified one or more subcarriers with zero amplitude; boosting a power of the embedded signal an amount based on an amount of power freed up from the one or more adjacent subcarriers modulated with zero amplitude; and transmitting, from the first communications device, the embedded signal for reception at the wake-up receiver of the second communications device, with a first modulation using the identified at least one subcarrier, the first modulation being different from a second modulation used in transmitting data with one or more remaining subcarriers in the OFDM downlink signal. identifying, by a first communications device, at least one subcarrier within an orthogonal frequency division multiplexing, OFDM, downlink signal for use in communicating with a wake-up receiver of a second communications device with a primary receiver of the second communications device in deep sleep, wherein the first communications device is a base station and the second communications device is a user equipment; inserting, by the first communications device, an embedded signal into the identified at least one subcarrier at one or more pre-specified times for transmission to the wake-up receiver of the second communications device; modulating one or more adjacent subcarriers to the identified one or more subcarriers with zero amplitude; boosting a power of the embedded signal an amount based on an amount of power freed up from the one or more adjacent subcarriers modulated with zero amplitude; and transmitting, from the first communications device, the embedded signal for reception at the wake-up receiver of the second communications device, with a first modulation using the identified at least one subcarrier, the first modulation being different from a second modulation used in transmitting data with one or more remaining subcarriers in the OFDM downlink signal.
A catalyst composition which comprises a carrier material component and a metal(s) component that is supported on the carrier material component, wherein the carrier material component comprises (i) a ZSM-12 type zeolite in an amount of from 2 to 20 %wt, based on total weight of carrier material, the ZSM-12 type zeolite having a silica to alumina molar ratio in the range of from 60 to 200; (ii) a EU-1 type zeolite in an amount of from 2 to 30 %wt, based on total weight of carrier material, the EU-1 type zeolite having a silica to alumina molar ratio in the range of from 20 to 200; and an inorganic binder in an amount in the range of from 55 to 96 %wt, based on total weight of carrier material; and wherein the metal(s) component comprises a group VIII metal in an amount of at least 0.01 %wt, based on total weight of catalyst.
A method for removing CO 2 comprising: supplying a gas to be processed including CO 2, N 2 and O 2 to a feed side of a CO 2 selective permeation membrane; generating water vapor and supplying the water vapor to the CO 2 selective permeation membrane; selectively removing CO 2 from the gas to be processed by permeating CO 2 in the gas to be processed from the feed side to a permeate side of the CO 2 selective permeation membrane selectively to O 2 and N 2 in the gas to be processed; and using a CO 2 facilitated transport membrane having CO 2 /O 2 selectivity and CO 2 /N 2 selectivity as the CO 2 selective permeation membrane, the CO 2 facilitated transport membrane being configured to have a hydrophilic polymer layer containing an amino acid and a deprotonating agent for preventing protonation of an amino group of the amino acid, and a porous membrane supporting the hydrophilic polymer layer, wherein a CO 2 concentration of the gas to be processed is 3 mol% or less on a dry basis, the CO 2 facilitated transport membrane has CO 2 /O 2 selectivity and CO 2 /N 2 selectivity within a temperature range of 15°C to 50°C, and the gas to be processed is supplied to the feed side of the CO 2 selective permeation membrane within the temperature range, and a weight of the hydrophilic polymer layer containing the amino acid and the deprotonating agent per unit area of the CO 2 facilitated transport membrane is equal to or more than 1 mg/cm 2 and equal to or less than 100 mg/cm 2. supplying a gas to be processed including CO 2, N 2 and O 2 to a feed side of a CO 2 selective permeation membrane; generating water vapor and supplying the water vapor to the CO 2 selective permeation membrane; selectively removing CO 2 from the gas to be processed by permeating CO 2 in the gas to be processed from the feed side to a permeate side of the CO 2 selective permeation membrane selectively to O 2 and N 2 in the gas to be processed; and using a CO 2 facilitated transport membrane having CO 2 /O 2 selectivity and CO 2 /N 2 selectivity as the CO 2 selective permeation membrane, the CO 2 facilitated transport membrane being configured to have a hydrophilic polymer layer containing an amino acid and a deprotonating agent for preventing protonation of an amino group of the amino acid, and a porous membrane supporting the hydrophilic polymer layer, wherein a CO 2 concentration of the gas to be processed is 3 mol% or less on a dry basis, the CO 2 facilitated transport membrane has CO 2 /O 2 selectivity and CO 2 /N 2 selectivity within a temperature range of 15°C to 50°C, and the gas to be processed is supplied to the feed side of the CO 2 selective permeation membrane within the temperature range, and a weight of the hydrophilic polymer layer containing the amino acid and the deprotonating agent per unit area of the CO 2 facilitated transport membrane is equal to or more than 1 mg/cm 2 and equal to or less than 100 mg/cm 2.
A method of providing a laminated vacuum insulated glass unit, wherein the method comprises: providing a lamination assembly comprising a vacuum insulated glass unit comprising at least two, tempered glass sheets (11a, 11b) separated by a plurality of support structures distributed in a gap between the tempered glass sheets (11a, 11b), and a lamination layer arranged between one of the tempered glass sheets (11a, 11b) of the vacuum insulated glass unit and a further sheet, arranging the lamination assembly between clamping bodies (7, 8) providing clamping surfaces (4, 5), wherein at least one of said clamping surfaces (4, 5) is configured to be displaced by one or more clamping body displacers (6, 21) to change the distance between the clamping surfaces (4, 5), operating the one or more clamping body displacers (6, 21) to provide a compression pressure to the lamination assembly by means of the clamping surfaces (4, 5), and heating the lamination assembly, wherein both of said clamping surfaces (4, 5) are provided by rigid clamping bodies (7,8), and wherein at least one of the rigid clamping bodies (7, 8) is configured to be displaced by said one or more clamping body displacers (6, 21). providing a lamination assembly comprising a vacuum insulated glass unit comprising at least two, tempered glass sheets (11a, 11b) separated by a plurality of support structures distributed in a gap between the tempered glass sheets (11a, 11b), and a lamination layer arranged between one of the tempered glass sheets (11a, 11b) of the vacuum insulated glass unit and a further sheet, a vacuum insulated glass unit comprising at least two, tempered glass sheets (11a, 11b) separated by a plurality of support structures distributed in a gap between the tempered glass sheets (11a, 11b), and a lamination layer arranged between one of the tempered glass sheets (11a, 11b) of the vacuum insulated glass unit and a further sheet, arranging the lamination assembly between clamping bodies (7, 8) providing clamping surfaces (4, 5), wherein at least one of said clamping surfaces (4, 5) is configured to be displaced by one or more clamping body displacers (6, 21) to change the distance between the clamping surfaces (4, 5), operating the one or more clamping body displacers (6, 21) to provide a compression pressure to the lamination assembly by means of the clamping surfaces (4, 5), and heating the lamination assembly, wherein both of said clamping surfaces (4, 5) are provided by rigid clamping bodies (7,8), and wherein at least one of the rigid clamping bodies (7, 8) is configured to be displaced by said one or more clamping body displacers (6, 21).
Carrier profile construction for facades and the like with a carrier profile which consists of two carrier profile elements (1, 2) and on which façade elements are held by a pressure strip, wherein a seal formed by two sealing elements (3, 3') is provided between the façade elements and the carrier profile, each of the carrier profile elements (1, 2) carries one of the two sealing elements (3, 3'), and a profile covering the two sealing elements (3, 3') is arranged between the pressure strip and the carrier profile, characterised in that the profile is fitted onto the sealing elements (3, 3') from the outside.
A microarray structure including: a three-dimensional substrate material layer comprising three-dimensional structures in the form of a pillar like structure or a rib like structure, a continuous three-dimensional surface layer on the 3D substrate material layer that is capable of functionalisation for use as an array, the continuous 3D surface layer formed from an electrically conductive material, and an inert material; wherein the structure includes accurately defined and functionalisable isolated areas which are millimeter to nanometer in size; wherein the functionalisable areas are part of the continuous 3D surface layer and are isolated by the inert material but which are interconnected within the structure by the continuous 3D surface layer; wherein the continuous 3D surface layer protrudes from the inert material such that the functionalisable areas are exposed above the inert material, and wherein the microarray structure is functionalised to be a micro-electrode sensor array and/or a micro-catalyst array. a three-dimensional substrate material layer comprising three-dimensional structures in the form of a pillar like structure or a rib like structure, a continuous three-dimensional surface layer on the 3D substrate material layer that is capable of functionalisation for use as an array, the continuous 3D surface layer formed from an electrically conductive material, and an inert material; wherein the structure includes accurately defined and functionalisable isolated areas which are millimeter to nanometer in size; wherein the functionalisable areas are part of the continuous 3D surface layer and are isolated by the inert material but which are interconnected within the structure by the continuous 3D surface layer; wherein the continuous 3D surface layer protrudes from the inert material such that the functionalisable areas are exposed above the inert material, and wherein the microarray structure is functionalised to be a micro-electrode sensor array and/or a micro-catalyst array.
A deformable mirror including on the one hand a plate having a reflective face and an opposite hidden face and whose shape has a center and radiuses (r), and on the other hand at least one actuator intended to exert a force on said hidden face in order to deform said plate, characterized in that said plate comprises a plurality of primary and secondary portions, said secondary portions being interposed between said primary portions, each of said primary portions extending locally substantially along and on either side of a respective radius (r') among said radiuses (r) and having a stiffness different from that of said adjacent secondary portions, said plate presenting an intrinsic mechanical strength.
A device for diverting a flow path of a liquid of a sanitary shower, comprising at least: - a housing having at least one feed and a plurality of drains (6, 7, 8), wherein the drains (6, 7, 8) each have a drain inlet (9, 33, 34) with a seal (10, 38, 39); and - a diverting element which is mounted to be rotatable about an axis of rotation in order to divert the flow path, characterized in that each seal (10, 38, 39) comprises at least one sealing lip and in that the diverting element rests against the sealing lips. - a housing having at least one feed and a plurality of drains (6, 7, 8), wherein the drains (6, 7, 8) each have a drain inlet (9, 33, 34) with a seal (10, 38, 39); and - a diverting element which is mounted to be rotatable about an axis of rotation in order to divert the flow path,
Method for selecting localization algorithms in a vehicle, wherein the method comprises the following steps: - recognizing a driving state of the vehicle, and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, characterized in that - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination. wherein the method comprises the following steps: - recognizing a driving state of the vehicle, and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, - recognizing a driving state of the vehicle, and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, characterized in that - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination. - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination.
A crowd management system for influencing a crowd of people to distribute itself between a first region and a second region, comprising: - at least one presence sensor configured to sense occupancy information from the first region and the second region; and - a controller configured to receive said occupancy information from the at least one presence sensor; and - at least one environmental control element configured to control an environmental effect in both the first region and the second region; characterised in that said controller is configured to compare the occupancy information relating to the first region and the second region and based thereon to control the environmental effect in both the first region and the second region via the at least one environmental control element, such that the environmental effect in one of the first region or the second region is relatively more attractive or repellent than the other, in order to thereby influence at least a portion of the crowd to distribute or redistribute itself between the first region and the second region. - at least one presence sensor configured to sense occupancy information from the first region and the second region; and - a controller configured to receive said occupancy information from the at least one presence sensor; and - at least one environmental control element configured to control an environmental effect in both the first region and the second region;
A method of inhibiting corrosion of a metal surface comprising: applying at least one alkyl sulfamic acid or salt thereof to the metal surface in an amount of 1.0 to 50 ppm to inhibit corrosion of the metal surface, wherein the amount of the at least one alkyl sulfamic acid or salt thereof results in a lower degree of chemical change of the metal surface than in its absence. applying at least one alkyl sulfamic acid or salt thereof to the metal surface in an amount of 1.0 to 50 ppm to inhibit corrosion of the metal surface, wherein the amount of the at least one alkyl sulfamic acid or salt thereof results in a lower degree of chemical change of the metal surface than in its absence.
A spray gun with a basic body, a liquid conveying device (3, 237) which has a liquid supply pipe which opens at an opening into a liquid conveying pipe, and contact surfaces (229 to 232) between the liquid conveying device and the basic body or a basic body component, characterized in that, for fastening the liquid conveying device (3, 237) to the basic body or a basic body component of the spray gun, the contact surfaces (229 to 232) are arranged obliquely with respect to the orientation of the liquid conveying pipe in such a manner that a conical receptacle for the liquid conveying device (3, 237) is created on the basic body.
Apparatus for measuring a measured variable, having - a first inductance (LP, L1), - a measurement inductance (LS1, LS2, LS3, L2) that is set up to detect the measured variable and that is coupled to the first inductance (LP, L1), - a capacitance that is interconnected with the first inductance (LP, L1) to form a parallel resonant circuit, and - an electronic control unit, - wherein the electronic control unit is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit is connected directly to the measurement inductance (LS1, LS2, LS3, L2) and is configured to measure a value revealing the measured variable using the measurement inductance (LS1, LS2, LS3, L2), characterized in that - the parallel resonant circuit is connected to a first port pin and to a second port pin of the electronic control unit, the second port pin being supplied with a clock that is inverted in relation to the first port pin. - a first inductance (LP, L1), - a measurement inductance (LS1, LS2, LS3, L2) that is set up to detect the measured variable and that is coupled to the first inductance (LP, L1), - a capacitance that is interconnected with the first inductance (LP, L1) to form a parallel resonant circuit, and - an electronic control unit, - wherein the electronic control unit is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit is connected directly to the measurement inductance (LS1, LS2, LS3, L2) and is configured to measure a value revealing the measured variable using the measurement inductance (LS1, LS2, LS3, L2), - the parallel resonant circuit is connected to a first port pin and to a second port pin of the electronic control unit, the second port pin being supplied with a clock that is inverted in relation to the first port pin.