mhurhangee/ep-ind-claims huggingface dataset:
A connector comprising: a housing that has an opening configured to be fitted with a mating connector; a plate-shaped terminal that is housed and held in the housing with a first side surface of the terminal facing the opening; an insulating cover member (6, 8) that is mounted on the terminal and covers the first side surface; and a holder attached to the housing from the opening side, for locking the cover member (6, 8), the holder has a first locking surface (76a, 77a) for facing the first side surface and for locking the cover member (6, 8), and characterised in that the holder has through holes (70a, 70b) configured to receive mating terminals of the mating connector and a second locking surface for locking the cover member (6, 8) in a longitudinal direction of the terminal. a housing that has an opening configured to be fitted with a mating connector; a plate-shaped terminal that is housed and held in the housing with a first side surface of the terminal facing the opening; an insulating cover member (6, 8) that is mounted on the terminal and covers the first side surface; and a holder attached to the housing from the opening side, for locking the cover member (6, 8), the holder has a first locking surface (76a, 77a) for facing the first side surface and for locking the cover member (6, 8), and characterised in that the holder has through holes (70a, 70b) configured to receive mating terminals of the mating connector and a second locking surface for locking the cover member (6, 8) in a longitudinal direction of the terminal.
Multilayered body, comprising at least a decorative layer, at least a substrate comprising cellulosic fibers, at least a metal-containing layer, obtained by a process comprising the following steps (a) printing of decorative layer or a part of decorative layer with a printing formulation comprising at least a metal powder, by printing decorative layer or a part of decorative layer at some locations with the printing formulation comprising metal powder (a) and not at other locations, (b) depositing at least a further metal, optionally, at least a covering layer. at least a decorative layer, at least a substrate comprising cellulosic fibers, at least a metal-containing layer, obtained by a process comprising the following steps (a) printing of decorative layer or a part of decorative layer with a printing formulation comprising at least a metal powder, by printing decorative layer or a part of decorative layer at some locations with the printing formulation comprising metal powder (a) and not at other locations, (b) depositing at least a further metal, (a) printing of decorative layer or a part of decorative layer with a printing formulation comprising at least a metal powder, by printing decorative layer or a part of decorative layer at some locations with the printing formulation comprising metal powder (a) and not at other locations, (b) depositing at least a further metal, optionally, at least a covering layer.
A method comprising: establishing a level of data compression expressing an amount for which compression is desired on data flows in a network node, the compression level defining a portion of the data flows that is compressed by the network node and a portion of the data flows that is excluded from compression; determining whether the data flows are compressible by the network node to the established compression level; modifying the level of compression for each the data flows independently by a geometrically progressive expansion of the portion of the data flow that is excluded from compression upon the determination that one or more portions of the data flow is incompressible; and compressing the data flows in accordance with the modified level of compression. establishing a level of data compression expressing an amount for which compression is desired on data flows in a network node, the compression level defining a portion of the data flows that is compressed by the network node and a portion of the data flows that is excluded from compression; determining whether the data flows are compressible by the network node to the established compression level; modifying the level of compression for each the data flows independently by a geometrically progressive expansion of the portion of the data flow that is excluded from compression upon the determination that one or more portions of the data flow is incompressible; and compressing the data flows in accordance with the modified level of compression.
An apparatus for joint production of vibration and sound, the apparatus comprising a padding; and means for jointly producing vibration and sound, configured to reproduce an input audio signal provided as input thereto, said means comprising at least one mechanical actuator and at least one board arranged inside the padding, wherein said at least one mechanical actuator is arranged to vibrate said at least one board in accordance with the input audio signal to generate mechanical vibration that is perceivable as a vibration and sound on at least one outer surface of the padding and to radiate the sound through said at least one outer surface of the padding; characterized in that the apparatus comprises means (110, 110') for regulating perceivable intensity of vibration in dependence of at least one characteristic of the input audio signal, the means for regulating perceivable intensity of vibration being arranged to increase magnitude of the produced vibration below a first predefined frequency point, wherein said increasing comprises multiplying the input audio signal below the first predefined frequency point by a first scaling factor that has a value greater than unity, and limit the perceivable intensity of the produced vibration in response to the magnitude of the produced vibration exceeding a predefined magnitude threshold, wherein said limiting comprises multiplying the input audio signal below the first predefined frequency point by a second scaling factor that has a value smaller than unity such that the predefined magnitude threshold is not exceeded.
A resource determining method, wherein the method comprises: determining a first listening signal; determining a first listening result of a first time-frequency resource set, wherein the determining a first listening result of a first time-frequency resource set comprises: generating the first listening result based on the first time-frequency resource set and the first listening signal, wherein the first listening signal comprises a plurality of waveforms, and signal models of the plurality of waveforms are different; when the first listening result meets a first congestion condition, reducing a time-frequency occupation ratio and/or transmit power of a first target detection signal to obtain a second target detection signal, wherein the first congestion condition comprises: a congestion degree of any time-frequency resource in a second time-frequency resource set is greater than a first threshold, and the second time-frequency resource set is comprised in the first time-frequency resource set; and detecting a target based on the second target detection signal. determining a first listening signal; determining a first listening result of a first time-frequency resource set, wherein the determining a first listening result of a first time-frequency resource set comprises: generating the first listening result based on the first time-frequency resource set and the first listening signal, wherein the first listening signal comprises a plurality of waveforms, and signal models of the plurality of waveforms are different; when the first listening result meets a first congestion condition, reducing a time-frequency occupation ratio and/or transmit power of a first target detection signal to obtain a second target detection signal, wherein the first congestion condition comprises: a congestion degree of any time-frequency resource in a second time-frequency resource set is greater than a first threshold, and the second time-frequency resource set is comprised in the first time-frequency resource set; and detecting a target based on the second target detection signal.
A method for producing pot-shaped housings for roller tappets, wherein each housing has an integrally connected base, in the outer side of which there is a semi-cylindrical depression, which runs through diametrically, for directly mounting a roller for a periodic stroke generator, wherein an inner side of the base is provided with an abutment for a tappet follower part, characterised by the following steps: a) preparing a bar profile as a semi-finished product with the length of two housings directly aligned one behind the other; b) introducing two substantially hollow-cylindrical interior spaces with the abutments on end faces of the bar profile while maintaining an axially central solid portion therebetween; c) producing a bore passing radially through the solid portion, centred on a transverse centre plane of the bar profile, and d) separating the bar profile along the transverse centre plane to obtain two housings. a) preparing a bar profile as a semi-finished product with the length of two housings directly aligned one behind the other; b) introducing two substantially hollow-cylindrical interior spaces with the abutments on end faces of the bar profile while maintaining an axially central solid portion therebetween; c) producing a bore passing radially through the solid portion, centred on a transverse centre plane of the bar profile, and d) separating the bar profile along the transverse centre plane to obtain two housings.
Mikto-arm branched polymer comprising a support moiety in the form of a crosslinked polymer support moiety and at least three homopolymer chains each covalently coupled to and extending from the support moiety, wherein the at least three homopolymer chains include a cationic homopolymer chain, a hydrophilic homopolymer chain, and a hydrophobic homopolymer chain.
A piezoelectric device (10, 50, 70), comprising: a substrate (12, 30); a first electrode (14, 32) which is layered over the substrate (12, 30); a first piezoelectric film (16, 34, 74) which is layered over the first electrode (14, 32); a metal oxide film (18, 36) which is layered over the first piezoelectric film (16, 34, 74); a metal film (20, 38) which is layered over the metal oxide film (18, 36); a second piezoelectric film (22, 44, 76) which is layered over the metal film (20, 38); and a second electrode (24, 46) which is layered over the second piezoelectric film (22, 44, 76), wherein a polarizing direction of the first piezoelectric film (16, 34, 74) and a polarizing direction of the second piezoelectric film (22, 44, 76) are different from each other. a substrate (12, 30); a first electrode (14, 32) which is layered over the substrate (12, 30); a first piezoelectric film (16, 34, 74) which is layered over the first electrode (14, 32); a metal oxide film (18, 36) which is layered over the first piezoelectric film (16, 34, 74); a metal film (20, 38) which is layered over the metal oxide film (18, 36); a second piezoelectric film (22, 44, 76) which is layered over the metal film (20, 38); and a second electrode (24, 46) which is layered over the second piezoelectric film (22, 44, 76), wherein a polarizing direction of the first piezoelectric film (16, 34, 74) and a polarizing direction of the second piezoelectric film (22, 44, 76) are different from each other.
A solar receiver panel comprising a first header with an inlet for a thermal fluid, a second header with an outlet for the thermal fluid, and a plurality of solar absorption pipes connected to said headers (10, 10'), wherein at least one of the headers (10,10') is a header comprising header body (18, 18') comprising: - a header wall surrounding an inner chamber (11, 11'), - at least one access opening (21, 21') communicating with the inner chamber (11, 11') for connecting a fluid pipe, and - a plurality of junction nozzles (16, 16') provided in the header wall which are connectable to respective solar absorption pipes, wherein the access opening (21, 21'), inner chamber (11, 11') and nozzles (16, 16') are arranged to allow a thermal fluid to flow there through, characterized in that the inner chamber (11, 11') of said at least one of the headers (10, 10') has a substantially spherical shape with a diameter that is at least equal to 1.5 times the sum of the sections of the inner passages of the solar absorption tubes to be connected to said junction nozzles (16, 16'), wherein at least one of the junction nozzles (16, 16') are located in a semi-spherical segment of the inner chamber (11, 11') that is transversally opposed to said access opening (21, 21'). - a header wall surrounding an inner chamber (11, 11'), - at least one access opening (21, 21') communicating with the inner chamber (11, 11') for connecting a fluid pipe, and - a plurality of junction nozzles (16, 16') provided in the header wall which are connectable to respective solar absorption pipes, wherein
A multi-quantum well solar cell having a substrate, a p-type semiconductor layer, a barrier layer, a well layer, an n-type semiconductor layer, and electrodes (7, 8), wherein the barrier layer and the well layer comprise crystals having a wurtzite crystal structure, and a piezoelectric field is generated in the well layer, the multi-quantum well solar cell being characterized in that the well layer is composed of a metal oxynitride containing the element Zn and at least one element selected from In, Ga, and Al.
An arrangement for an organic light-emitting diode of the pin type, with: - an electrode, - a counter electrode, and - a stack free of charge carrier blocking layer with organic layers between the electrode and the counter electrode, wherein the stack free of charge carrier blocking layer is formed free of non-electrically doped charge carrier transport layers, and wherein the stack free of charge carrier blocking layer is formed with: - an emission layer, - an electrically doped charge carrier transport layer, which is arranged between the electrode and the emission layer, and - a further electrically doped charge carrier transport layer, which is arranged between the counter electrode and the emission layer, wherein the emission layer is formed from an organic matrix material and the electrically doped charge carrier transport layer is formed from the same organic matrix material, characterised in that the electrically doped charge carrier transport layer or the further electrically doped charge carrier transport layer has 2-(6-dicyanomethylene-1, 3, 4, 5, 7, 8-hexafluoro-6H-naphtalene-2-ylidene)-malononitrile as an acceptor molecule. - an electrode, - a counter electrode, and - a stack free of charge carrier blocking layer with organic layers between the electrode and the counter electrode, wherein the stack free of charge carrier blocking layer is formed free of non-electrically doped charge carrier transport layers, and wherein the stack free of charge carrier blocking layer is formed with: - an emission layer, - an electrically doped charge carrier transport layer, which is arranged between the electrode and the emission layer, and - a further electrically doped charge carrier transport layer, which is arranged between the counter electrode and the emission layer, wherein the emission layer is formed from an organic matrix material and the electrically doped charge carrier transport layer is formed from the same organic matrix material, characterised in that the electrically doped charge carrier transport layer or the further electrically doped charge carrier transport layer has 2-(6-dicyanomethylene-1, 3, 4, 5, 7, 8-hexafluoro-6H-naphtalene-2-ylidene)-malononitrile as an acceptor molecule. - an emission layer, - an electrically doped charge carrier transport layer, which is arranged between the electrode and the emission layer, and - a further electrically doped charge carrier transport layer, which is arranged between the counter electrode and the emission layer,
A multi-layered film comprising: a barrier film; a primer layer formed on the barrier film; and a fluoropolymer coating layer formed on the primer layer, wherein the primer layer includes a copolymer having compatibility with a fluoropolymer, and the copolymer having compatibility with the fluoropolymer includes a functional group formed by copolymerization with a silane coupling agent, a titanium-based coupling agent, a zirconium-based coupling agent, or an aluminum-based coupling agent, wherein the copolymer of the primer layer is a copolymer of polymerizable monomer having compatibility with the fluoropolymer; and a silane coupling agent, a titanium-based coupling agent, a zirconium-based coupling agent, or an aluminum-based coupling agent, wherein a mixing ratio of the polymerizable monomer and the coupling agent is 40:60 to 90:10, based on the weight, wherein the primer layer is a coating layer of the copolymer having compatibility with the fluoropolymer, and wherein a Si-O, Ti-O, Zr-O or Al-O bond is formed at an interface of the barrier film and the primer layer. a barrier film; a primer layer formed on the barrier film; and a fluoropolymer coating layer formed on the primer layer, wherein the primer layer includes a copolymer having compatibility with a fluoropolymer, and the copolymer having compatibility with the fluoropolymer includes a functional group formed by copolymerization with a silane coupling agent, a titanium-based coupling agent, a zirconium-based coupling agent, or an aluminum-based coupling agent, wherein the copolymer of the primer layer is a copolymer of polymerizable monomer having compatibility with the fluoropolymer; and a silane coupling agent, a titanium-based coupling agent, a zirconium-based coupling agent, or an aluminum-based coupling agent, wherein a mixing ratio of the polymerizable monomer and the coupling agent is 40:60 to 90:10, based on the weight, wherein the primer layer is a coating layer of the copolymer having compatibility with the fluoropolymer, and wherein a Si-O, Ti-O, Zr-O or Al-O bond is formed at an interface of the barrier film and the primer layer.
A steer-by-wire steering system of a motor vehicle comprising: - a steering wheel, which is mounted non-rotatable to a steering shaft, - a feedback actuator for providing road feedback to a driver, wherein the feedback actuator has an electric motor with a rotor shaft and wherein the rotor shaft is connected to the steering shaft via a transmission, and - a rotor angle sensor, wherein the ratio of the transmission is a non-integer value; characterized in that an index sensor is arranged on the steering shaft, wherein the index sensor is a single turn sensor, which provides signal pulses, if the steering wheel angle is within predefined ranges and the predefined ranges are spaced in a pseudorandom encoding circumferentially around the steering shaft. - a steering wheel, which is mounted non-rotatable to a steering shaft, - a feedback actuator for providing road feedback to a driver, wherein the feedback actuator has an electric motor with a rotor shaft and wherein the rotor shaft is connected to the steering shaft via a transmission, and - a rotor angle sensor, wherein the ratio of the transmission is a non-integer value;
Process for the preparation of a mercapto-terminated liquid polymer comprising the steps of: a) reacting (para)formaldehyde with a halo-alcohol to form a reaction mixture comprising bis(2-dihaloalkyl)formal and b) reacting the reaction mixture of step a) with either (i) sodium polysulfide or (ii) a combination of sodium hydrosulfide and sulfur, wherein the process is performed in the presence of a branching agent selected from the group consisting of di-aldehydes and their corresponding actetals and hemiacetals. a) reacting (para)formaldehyde with a halo-alcohol to form a reaction mixture comprising bis(2-dihaloalkyl)formal and b) reacting the reaction mixture of step a) with either (i) sodium polysulfide or (ii) a combination of sodium hydrosulfide and sulfur,
An electrostatic charge image developing white toner comprising toner base particles comprising rutile type titanium oxide particles as colorant and a binder resin, wherein the rutile type titanium oxide particles are composed of two groups Ga and Gb of rutile type titanium oxide particles having different volume particle size distribution, and a volume particle size distribution curve of the rutile type titanium oxide particles represents diameter on a horizontal axis and volume ratio on a vertical axis and has two main peaks, wherein diameters Da and Db of peak top positions of the two main peaks are respectively within a range of 100 to 500 nm, and satisfy following Relational expressions: 25 nm ≦ Db − Da ≦ 200 nm mass of Ga: mass of Gb = 5: 95 to 30: 70 wherein the mass of Ga and the mass of Gb are determined according to the method disclosed in the description.
A motor control center system comprising: an enclosure having multiple internal units covered by one or more doors; automation components located and interconnected in the internal units and provided with power and data connections for receiving input power and providing output power to one or more motors; a wireless polling system disposed in the enclosure and configured to output polling signals, wherein the polling signals encode locations within the enclosure; a plurality of wireless asset tags associated with the automation components and responsive to the polling signals, each asset tag storing data indicative of the respective associated automation component, the asset tags being configured to wirelessly output component data signals indicative of the stored data and location data derived from the polling signals; and a wireless receiver disposed outside the enclosure that, in operation, receives the output component data signals from the asset tags. an enclosure having multiple internal units covered by one or more doors; automation components located and interconnected in the internal units and provided with power and data connections for receiving input power and providing output power to one or more motors; a wireless polling system disposed in the enclosure and configured to output polling signals, wherein the polling signals encode locations within the enclosure; a plurality of wireless asset tags associated with the automation components and responsive to the polling signals, each asset tag storing data indicative of the respective associated automation component, the asset tags being configured to wirelessly output component data signals indicative of the stored data and location data derived from the polling signals; and a wireless receiver disposed outside the enclosure that, in operation, receives the output component data signals from the asset tags.
A consumer product comprising an organoleptic compound selected from the group consisting of: -1-((1R,6R)-4,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1S,6S)-3,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1R,6S)-4,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1S,6R)-3,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; and a mixture thereof. -1-((1R,6R)-4,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1S,6S)-3,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1R,6S)-4,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; -1-((1S,6R)-3,6-dimethylcyclohex-3-en-1-yl)-2-methylpent-1-en-3-one; and a mixture thereof.