mhurhangee/ep-ind-claims huggingface dataset:
A flexible multilayer film for preparing a package, said flexible multilayer film comprising: i) a first polyethylene layer; ii) a second polyethylene sealant layer; iii) a core layer sandwiched there between the first polyethylene layer and the second polyethylene sealant layer; wherein the core layer comprises at least 80 wt.% recycled HDPE by weight of the core layer; wherein the first polyethylene layer comprises 50 wt.% to 100 wt.% recycled LLDPE, recycled LDPE or mixtures thereof. i) a first polyethylene layer; ii) a second polyethylene sealant layer; iii) a core layer sandwiched there between the first polyethylene layer and the second polyethylene sealant layer; wherein the core layer comprises at least 80 wt.% recycled HDPE by weight of the core layer; wherein the first polyethylene layer comprises 50 wt.% to 100 wt.% recycled LLDPE, recycled LDPE or mixtures thereof.
A process for reshaping keratin fibers, preferably hair, comprising the steps of: (i) applying onto the keratin fibers a composition comprising (a) magnesium gluconate, wherein the composition has a pH of from 8.5 to 11.0; (ii) heating the keratin fibers to from 50°C to 180°C; and (iii) optionally rinsing and/or drying the keratin fibers. (i) applying onto the keratin fibers a composition comprising (a) magnesium gluconate, wherein the composition has a pH of from 8.5 to 11.0; (ii) heating the keratin fibers to from 50°C to 180°C; and (iii) optionally rinsing and/or drying the keratin fibers.
A wind turbine blade having a blade surface having a pressure side and a suction side, comprising a flow disturbing device (11 A, 11 B, 12A, 12B, 12C, 12D) for provoking air flow separation attached to the suction side surface of the blade, wherein the flow disturbing device (11A, 11B, 12A, 12B, 12C, 12D) is removable, and wherein the flow disturbing device (11A, 11B, 12A, 12B, 12C, 12D) comprises an accessory by which it can be pulled so as to remove the flow disturbing device from the blade surface.
A computer-implemented method performed in a content delivery network, the method comprising, at a cache server mechanism at a cache server in said content delivery network: responsive to receiving a request for a resource, determining a particular sequencer to handle the request, said particular sequencer using a sequence control object, the sequence control object comprising a sequence of one or more handlers, wherein said request is associated with a particular customer of said content delivery network, the particular customer being an entity that is authorized to have its content served by the cache server, and wherein at least some of said one or more handlers in said sequence are customer-specific handlers specified in a customer configuration script, CCS, wherein the CCS is associated with said particular customer; and processing the request in accordance with the particular sequencer by: invoking the one or more handlers, characterized in that a handler of the one or more handlers is to launch a further sequencer to invoke one or more further handlers, wherein the further sequencer is an independent task to the particular sequencer; and perform the launching the further sequencer and the invoking the one or more further handlers. responsive to receiving a request for a resource, determining a particular sequencer to handle the request, said particular sequencer using a sequence control object, the sequence control object comprising a sequence of one or more handlers, wherein said request is associated with a particular customer of said content delivery network, the particular customer being an entity that is authorized to have its content served by the cache server, and wherein at least some of said one or more handlers in said sequence are customer-specific handlers specified in a customer configuration script, CCS, wherein the CCS is associated with said particular customer; and processing the request in accordance with the particular sequencer by: invoking the one or more handlers, characterized in that a handler of the one or more handlers is to launch a further sequencer to invoke one or more further handlers, wherein the further sequencer is an independent task to the particular sequencer; and perform the launching the further sequencer and the invoking the one or more further handlers. invoking the one or more handlers, characterized in that a handler of the one or more handlers is to launch a further sequencer to invoke one or more further handlers, wherein the further sequencer is an independent task to the particular sequencer; and perform the launching the further sequencer and the invoking the one or more further handlers.
A facility for assembling aircraft fuselages, the facility comprising a plurality of movable cradles, each cradle configured to support a fuselage keel structure and assemble a panelized fuselage in a single upright build position, wherein the facility further comprises an assembly floor that accommodates a plurality of assembly cells, none of the cells having fuselage assembly jigs or fixtures secured to the floor, and a gantry for moving fuselage panels and other structures across the floor to selected cells.
A sensor for measuring hydrogen content in metal melt, comprising: a solid proton conductor element, a reference electrode, a quasi-electrode to be measured, a reference compound, a through pipe and an insulating ceramic adhesive, wherein the through pipe and the solid proton conductor element are connected through the insulating ceramic adhesive to form an inner space, the surface located in the space, of the solid proton conductor element, is an inner surface, and the surface exposed outside is an outer surface; the reference electrode is coated to the inner surface of the solid proton conductor element, and the quasi-electrode to be measured is the outer surface of the solid proton conductor element; the quasi-electrode to be measured is in direct contact with the metal melt during hydrogen measurement, and the contact surface forms the electrode to be measured; and the reference compound is gas placed in the inner space and is in contact with the reference electrode, characterized in that the sensor comprises a gas guide pipe and a three-way clamp connected with an upper part of the through pipe, the gas guide pipe is inserted into the inner space formed by the through pipe, the insulating ceramic adhesive and the solid proton conductor element through the three-way clamp and is connected to the reference electrode, and when a bottom end of the gas guide pipe directly faces to the reference electrode and the solid proton conductor element, the bottom end of the gas guide pipe is a blind end, a side opening thereof acts as a gas outlet. a solid proton conductor element, a reference electrode, a quasi-electrode to be measured, a reference compound, a through pipe and an insulating ceramic adhesive, wherein the through pipe and the solid proton conductor element are connected through the insulating ceramic adhesive to form an inner space, the surface located in the space, of the solid proton conductor element, is an inner surface, and the surface exposed outside is an outer surface; the reference electrode is coated to the inner surface of the solid proton conductor element, and the quasi-electrode to be measured is the outer surface of the solid proton conductor element; the quasi-electrode to be measured is in direct contact with the metal melt during hydrogen measurement, and the contact surface forms the electrode to be measured; and the reference compound is gas placed in the inner space and is in contact with the reference electrode, characterized in that the sensor comprises a gas guide pipe and a three-way clamp connected with an upper part of the through pipe, the gas guide pipe is inserted into the inner space formed by the through pipe, the insulating ceramic adhesive and the solid proton conductor element through the three-way clamp and is connected to the reference electrode, and when a bottom end of the gas guide pipe directly faces to the reference electrode and the solid proton conductor element, the bottom end of the gas guide pipe is a blind end, a side opening thereof acts as a gas outlet.
A tissue filler composition comprising: a tissue filler medium; and at least one fluorophore, wherein the at least one fluorophore is a hydrophilic fluorophore; wherein the tissue filler composition is suitable for injection or implantation into a human; and wherein the tissue filler composition is not photo-polymerizable. a tissue filler medium; and at least one fluorophore, wherein the at least one fluorophore is a hydrophilic fluorophore;
An agricultural baler comprising a baling chamber and a pre-compression chamber, wherein the pre-compression chamber is adapted to gather crop material via a rotor and to periodically form a slice of said crop material and introduce the slice towards the baling chamber into a first segment of the baling chamber, the baling chamber comprising a plunger provided for reciprocally moving in the baling chamber thereby compressing slices of crop material into a bale, the baling chamber further at least comprising a movable top wall, characterized in that the first segment comprises at least one sensor, the at least one sensor being provided for outputting a first signal relating to a height of the slice in the first segment, and a second signal, and wherein the movable top wall comprises a position sensor provided for outputting a third signal relating to a position of the movable top wall, wherein the baler further comprises a signal processor adapted to receive the first signal, second signal and third signal and configured to adjust baler operation parameters of the agricultural baler based on the received signals; and in that the second signal relates to a speed of introduction of the slice in the first segment, and in that the at least one sensor comprises a first sensor arranged in a central top section of said first segment of the baling chamber, and a second and a third sensor arranged in respectively a left top section and a right top section of said first segment of the baling chamber.
Value and security document having a transponder inlay to be attached as a composite to a document book cover of the value and security document, and which has three layers: - an antenna carrier layer, which on its surface facing away from the document book cover carries an antenna, - a first layer which is joined to the antenna carrier layer, and in which the antenna is at least partly buried by lamination, and - a function layer which is joined to the first layer and in the form of a covering layer, wherein - the function layer is provided with a recess for a transponder chip module contacting the antenna, and characterized in that - the first layer is provided with a recess (16c, 18a, 20a) for the transponder chip module, and - the antenna carrier layer and the first layer are formed of a laminatable thermoplastic film. - an antenna carrier layer, which on its surface facing away from the document book cover carries an antenna, - a first layer which is joined to the antenna carrier layer, and in which the antenna is at least partly buried by lamination, and - a function layer which is joined to the first layer and in the form of a covering layer, - the function layer is provided with a recess for a transponder chip module contacting the antenna, and characterized in that - the first layer is provided with a recess (16c, 18a, 20a) for the transponder chip module, and - the antenna carrier layer and the first layer are formed of a laminatable thermoplastic film.
A method of embedding information into an image comprising: - obtaining an image data by taking the image by an image input device; - dividing the image data into a predetermined number of blocks; - determining a block core area in each of the blocks on the basis of a resolution of the image and an aperture size of the image input device, where a characteristic value may be modified in accordance with the information, characterized in - comparing the size of the block with the size of the block core and - modifying a characteristic value of each of the blocks in accordance with the information to be embedded when the ratio of the size of the block core with respect to the size of the blocks is smaller than or equal to 1. - obtaining an image data by taking the image by an image input device; - dividing the image data into a predetermined number of blocks; - determining a block core area in each of the blocks on the basis of a resolution of the image and an aperture size of the image input device, where a characteristic value may be modified in accordance with the information, characterized in - comparing the size of the block with the size of the block core and - modifying a characteristic value of each of the blocks in accordance with the information to be embedded when the ratio of the size of the block core with respect to the size of the blocks is smaller than or equal to 1.
Apparatus (100; 200) for generating a first multitude of output signals (102a-d) based on at least one audio source signal (104a, 104b), the apparatus comprising: a delay network comprising a second multitude of delay paths (106a-d) each delay path (106a-d) having a delay line (108a-d) and an attenuation filter (112a-d), the delay line (108a-d) being configured for receiving, delaying and combining the at least one audio source signal (104a-b, 104a", 104b") and a reverberated audio signal (114a-d) to obtain a combined signal, the attenuation filter (112a-d) being configured for filtering the combined signal to obtain an output signal (102a-d) of the first multitude of output signals; and a feedback processor configured for reverberating the first multitude of output signals (102a-d) to obtain a third multitude of reverberated audio signals (114a-d) comprising the reverberated audio signal for the delay line of each delay path; characterized in that the delay line (106a-d) of each delay path is further configured for receiving, delaying and combining at least the at least one audio source signal as a first audio source signal and a second audio source signal (104a, 104b) and the reverberated audio signal (114a-d), and the delay line (106a-d) of each delay path is configured for applying a first time delay to the first audio source signal and a second time delay to the second audio source signal, to obtain the combined signal. a delay network comprising a second multitude of delay paths (106a-d) each delay path (106a-d) having a delay line (108a-d) and an attenuation filter (112a-d), the delay line (108a-d) being configured for receiving, delaying and combining the at least one audio source signal (104a-b, 104a", 104b") and a reverberated audio signal (114a-d) to obtain a combined signal, the attenuation filter (112a-d) being configured for filtering the combined signal to obtain an output signal (102a-d) of the first multitude of output signals; and a feedback processor configured for reverberating the first multitude of output signals (102a-d) to obtain a third multitude of reverberated audio signals (114a-d) comprising the reverberated audio signal for the delay line of each delay path; characterized in that the delay line (106a-d) of each delay path is further configured for receiving, delaying and combining at least the at least one audio source signal as a first audio source signal and a second audio source signal (104a, 104b) and the reverberated audio signal (114a-d), and the delay line (106a-d) of each delay path is configured for applying a first time delay to the first audio source signal and a second time delay to the second audio source signal, to obtain the combined signal.
An aerosol-generating system comprising: an aerosol-generator housing; and a piezoelectric transducer having an elliptical shape and comprising a first region and a second region, wherein the second region is electrically isolated from the first region; wherein the piezoelectric transducer is secured to the aerosol-generator housing at a single attachment point positioned only within the first region. an aerosol-generator housing; and a piezoelectric transducer having an elliptical shape and comprising a first region and a second region, wherein the second region is electrically isolated from the first region; wherein the piezoelectric transducer is secured to the aerosol-generator housing at a single attachment point positioned only within the first region.
A method for producing a sintered magnet comprising: a first step of forming a sintered body by sintering a raw material alloy for an R-T-B based rare earth magnet; a second step of attaching, to the sintered body, a heavy rare earth compound containing a heavy rare earth element; a third step of heat-treating the sintered body to which the heavy rare earth compound has been attached; a fourth step of heat-treating the sintered body heat-treated in the third step, at a higher temperature than a heat treatment temperature in the third step; and a fifth step of cooling the sintered body heat-treated in the fourth step, at a cooling rate of 20°C/min or more. a first step of forming a sintered body by sintering a raw material alloy for an R-T-B based rare earth magnet; a second step of attaching, to the sintered body, a heavy rare earth compound containing a heavy rare earth element; a third step of heat-treating the sintered body to which the heavy rare earth compound has been attached; a fourth step of heat-treating the sintered body heat-treated in the third step, at a higher temperature than a heat treatment temperature in the third step; and a fifth step of cooling the sintered body heat-treated in the fourth step, at a cooling rate of 20°C/min or more.
A semiconductor device comprising: a heterojunction diode configured by a first semiconductor region, and a second semiconductor region having a band gap different from that of the first semiconductor region and forming a heterojunction with the first semiconductor region, an avalanche breakdown region in which an impurity density is equal to or less than a predetermined value, provided in a portion or entirety of the second semiconductor region, the predetermined value being a reference of impurity density such that an avalanche breakdown occurs on the side of the second semiconductor region, wherein the heterojunction is formed such that when a predetermined reverse bias is applied to the heterojunction diode, a breakdown voltage at least in a heterojunction region other than outer peripheral ends of the heterojunction diode is a breakdown voltage of the semiconductor device, the breakdown voltage is determined by a voltage caused by avalanche breakdown, and when the predetermined reverse bias is applied to the heterojunction diode, the avalanche breakdown is caused in the avalanche breakdown region, wherein the first semiconductor region is configured by at least one element selected from the group consisting of silicon carbide, gallium nitride, and diamond, and wherein the second semiconductor region is configured by at least one element selected from the group consisting of single crystal silicon, amorphous silicon, polycrystalline silicon, germanium, and silicon germanium. a heterojunction diode configured by a first semiconductor region, and a second semiconductor region having a band gap different from that of the first semiconductor region and forming a heterojunction with the first semiconductor region, an avalanche breakdown region in which an impurity density is equal to or less than a predetermined value, provided in a portion or entirety of the second semiconductor region, the predetermined value being a reference of impurity density such that an avalanche breakdown occurs on the side of the second semiconductor region, wherein the heterojunction is formed such that when a predetermined reverse bias is applied to the heterojunction diode, a breakdown voltage at least in a heterojunction region other than outer peripheral ends of the heterojunction diode is a breakdown voltage of the semiconductor device, the breakdown voltage is determined by a voltage caused by avalanche breakdown, and when the predetermined reverse bias is applied to the heterojunction diode, the avalanche breakdown is caused in the avalanche breakdown region, wherein the first semiconductor region is configured by at least one element selected from the group consisting of silicon carbide, gallium nitride, and diamond, and wherein the second semiconductor region is configured by at least one element selected from the group consisting of single crystal silicon, amorphous silicon, polycrystalline silicon, germanium, and silicon germanium.
An adhesive composition for an electrical storage device comprising a polymer A, a polymer B, and a solvent, wherein the polymer A includes a nitrile group-containing monomer unit and an alicyclic (meth)acrylic acid ester monomer unit, the polymer A includes the nitrile group-containing monomer unit in a proportion of 55.0 mass% or more and not more than 90.0 mass%, the polymer B is an acrylic polymer, the volume-average particle diameter of the polymer A is 200 nm or more, the volume-average particle diameter of the polymer B is smaller than the volume-average particle diameter of the polymer A, and the volume-average particle diameters are measured by the method described in the examples section of the description. the polymer A includes a nitrile group-containing monomer unit and an alicyclic (meth)acrylic acid ester monomer unit, the polymer A includes the nitrile group-containing monomer unit in a proportion of 55.0 mass% or more and not more than 90.0 mass%, the polymer B is an acrylic polymer, the volume-average particle diameter of the polymer A is 200 nm or more, the volume-average particle diameter of the polymer B is smaller than the volume-average particle diameter of the polymer A, and the volume-average particle diameters are measured by the method described in the examples section of the description.
Data network embedded in a vehicle, said network comprising a first and at least one second device (ECU2, ECU3, ECU4) connected by at least one interface or data link of the network, said devices (ECU1, ECU2, ECU3, ECU4) being capable of transmitting a plurality of data streams (F1,..., F10), characterized in that: - The first equipment is configured to determine a criticality level based on network supervision data and transmit said criticality level to the second equipment (ECU2, ECU3, ECU4), The second equipment (ECU2, ECU3, ECU4) comprising a plurality - of interfaces and being configured to, in response to receiving said criticality level, load a predefined flow configuration table, associated with said criticality level, said table indicating which data flows are transmitted by said second equipment (ECU2, ECU3, ECU4). and, for a given criticality level, which flow is transmitted by which interface. - The first equipment is configured to determine a criticality level based on network supervision data and transmit said criticality level to the second equipment (ECU2, ECU3, ECU4), The second equipment (ECU2, ECU3, ECU4) comprising a plurality - of interfaces and being configured to, in response to receiving said criticality level, load a predefined flow configuration table, associated with said criticality level, said table indicating which data flows are transmitted by said second equipment (ECU2, ECU3, ECU4). and