mhurhangee/ep-ind-claims huggingface dataset:
A system for the contact-free transmission of energy to a vehicle, in particular to a vehicle with an energy store, from which the drive of the vehicle can be supplied, wherein the system has a stationary portion, in particular an arrangement arranged on the ground, with a primary-conductor winding for inductive transmission of energy to a secondary winding arranged on the vehicle, the arrangement has an antenna, wherein the antenna, in particular the wound areas of the antenna, being arranged in the region wound by the primary-conductor winding, characterised in that the antenna has at least two winding sections, the number of windings, sense of winding and wound area in each case of which is selected such that the total of the voltages induced in the two winding sections by the alternating magnetic field produced by the primary-conductor winding is substantially zero, the antenna, in particular the wound areas of the antenna, being arranged in the region wound by the primary-conductor winding, the antenna and/or the primary-conductor winding being connected, in particular being connected in each case, to an electronic circuit, with ferrite material (3, 8, 11) being arranged between the antenna and/or primary-conductor winding and the electronic circuit, with a layer of ferrite material (3,8, 11) being arranged on the side of the primary-conductor winding which is remote from the vehicle, with the primary-conductor winding being embedded with ferrite material (3, 8, 11) by means of casting compound and concrete, in particular concrete polymer, being cast onto the module part thus formed, with the module part, in particular a section of the module part which is made from concrete, having a centring slope, in particular on a side of the module part.
Catalyst for removal of halogenated and non-halogenated hydrocarbons in effluent and process gases said catalyst comprising a porous support material which is aluminium, silicon, titanium or zirconium oxide or zeolite or a mixture of these and the amount of support material is 10 - 600 g/dm 3 catalyst structure, characterised in that on the surface of which support material there are: - one or several noble metals chosen from the group of Pt, Pd, Rh, Ru and/or Ir having total concentration 0.5 - 3%, in the support material; and - V having total concentration 1 - 5% in the support material; and - one 1. additive, which is Cr having total concentration in the support material 0.1 - 2%; and - one 2. additive, which is W having total concentration in the support material 1 - 35%. - one or several noble metals chosen from the group of Pt, Pd, Rh, Ru and/or Ir having total concentration 0.5 - 3%, in the support material; and - V having total concentration 1 - 5% in the support material; and - one 1. additive, which is Cr having total concentration in the support material 0.1 - 2%; and - one 2. additive, which is W having total concentration in the support material 1 - 35%.
A smart metering module (100, 100a, 100b), comprising: a wireless reporting portion comprising a helical coil radiator, the helical coil radiator being coupled to an RF transmission path, the RF transmission path configured to couple the helical coil radiator to an RF transceiver integrated circuit; an enclosure configured to house the RF transceiver integrated circuit, the enclosure further comprising a distribution portion comprising one or more meter sensing electronics, the smart metering module (100, 100a, 100b) being characterized in that the distribution portion is configured to be galvanically separated from the wireless reporting portion; and in that the smart meter module (100, 100a, 100b) further comprises a utility line port, the utility line port being configured to position a utility line constructed from a conductive material, adjacent and parallel with a longitudinal axis of the helical coil radiator. a wireless reporting portion comprising a helical coil radiator, the helical coil radiator being coupled to an RF transmission path, the RF transmission path configured to couple the helical coil radiator to an RF transceiver integrated circuit; an enclosure configured to house the RF transceiver integrated circuit, the enclosure further comprising a distribution portion comprising one or more meter sensing electronics, the smart metering module (100, 100a, 100b) being characterized in that the distribution portion is configured to be galvanically separated from the wireless reporting portion; and in that the smart meter module (100, 100a, 100b) further comprises the distribution portion is configured to be galvanically separated from the wireless reporting portion; and in that the smart meter module (100, 100a, 100b) further comprises a utility line port, the utility line port being configured to position a utility line constructed from a conductive material, adjacent and parallel with a longitudinal axis of the helical coil radiator.
An electrophotographic member comprising an electro-conductive substrate, an electro-conductive layer on the substrate and insulating parts, wherein the electrophotographic member has a surface having an electrical insulating first region and an electro-conductive second region, the first region and the second region are adjacent to each other, characterized in that, assuming that a square region 1000 μm on a side, is put on an outer surface of the electrophotographic member so that one side of the square region is parallel to a longer direction of the electrophotographic member being orthogonal to a circumferential direction thereof, a total area of the second region in the square region is 30% or more to 80% or less of an area of the square region; and assuming that 200 straight lines are drawn in the square region at an interval of 5 μm in the circumferential direction of the electrophotographic member, two or more of the 200 straight lines pass the second region at least once, and when in each of the straight lines passing the second region at least once, a portion overlapping with the second region is defined as a line segment, the number of the line segment having a length of 200 μm or more is 5% or less of the total number of the line segment. wherein the electrophotographic member has a surface having an electrical insulating first region and an electro-conductive second region, the first region and the second region are adjacent to each other, characterized in that, assuming that a square region 1000 μm on a side, is put on an outer surface of the electrophotographic member so that one side of the square region is parallel to a longer direction of the electrophotographic member being orthogonal to a circumferential direction thereof, a total area of the second region in the square region is 30% or more to 80% or less of an area of the square region; and assuming that 200 straight lines are drawn in the square region at an interval of 5 μm in the circumferential direction of the electrophotographic member, two or more of the 200 straight lines pass the second region at least once, and when in each of the straight lines passing the second region at least once, a portion overlapping with the second region is defined as a line segment, the number of the line segment having a length of 200 μm or more is 5% or less of the total number of the line segment.
A process of oxidizing an ethoxylated alcohol of formula for the production of its corresponding carbonyl compounds R 1 (OCH 2 CHR 2) n OCH 2 CH 2 OH wherein: R 1 represents an alkyl radical having 1 to 22 carbon atoms or a monounsaturated or polyunsaturated linear or branched alkenyl radical having 2 to 22 carbon atoms, optionally comprising at least a substituent and/or a heteroatom; R 2 represents a hydrogen atom or a methyl group or a mixture thereof in the individual molecule; and n has an average number between 2 and 20, wherein the oxidation is performed with oxygen or gases containing oxygen, in the presence of a catalyst comprising at least a gold compound and a copper compound.
A flexible device, comprising: a substrate including a first region and a second region, the first region having a first elastic modulus and the second region having a second elastic modulus that is lower than the first elastic modulus; a plurality of pixel circuits spaced apart on the substrate; and a plurality of unit devices that are each electrically connected to a separate pixel circuit of the plurality of pixel circuits, wherein each pixel circuit of the plurality of pixel circuits includes a plurality of thin film transistors, wherein a first portion of the plurality of thin film transistors is on the first region of the substrate, and characterised in that, a second portion of the plurality of thin film transistors is on the second region of the substrate. a substrate including a first region and a second region, the first region having a first elastic modulus and the second region having a second elastic modulus that is lower than the first elastic modulus; a plurality of pixel circuits spaced apart on the substrate; and a plurality of unit devices that are each electrically connected to a separate pixel circuit of the plurality of pixel circuits, wherein each pixel circuit of the plurality of pixel circuits includes a plurality of thin film transistors, wherein a first portion of the plurality of thin film transistors is on the first region of the substrate, and characterised in that, a second portion of the plurality of thin film transistors is on the second region of the substrate.
A sealing gasket for a food pressure-cooking appliance, said appliance comprising a bowl ending at its upper part with a flange of bowl, as well as a lid intended to be added on said bowl to define a cooking chamber, said gasket being designed to be interposed between the lid and the flange of the bowl to ensure the tightness of said cooking chamber and including a heel from which extends at least one first lip comprising a bearing surface ending with a terminal edge intended to rest on the flange of the bowl, said gasket being characterized in that the first lip is pierced with at least one through-opening arranged in the bearing surface, remote from the terminal edge, such that said first lip can, on the one hand, rest on the flange of the bowl through its bearing surface when the pressure inside the cooking chamber does not exceed a predetermined threshold, and on the other hand, creep towards the heel when the pressure inside the cooking chamber exceeds the predetermined threshold, so as to place at least one through-opening in communication with the outside of the chamber, whereas the terminal edge rests on the flange of the bowl.
A method for performing, by a user equipment, UE, multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, in a wireless communication system, the method comprising: receiving, by the UE, a MBMS-MDT configuration from a network; selecting, by the UE, a subset of multicast broadcast single frequency network, MBSFN, areas among multiple MBSFN areas providing interested MBMS services based on the MBMS-MDT configuration; and performing, by the UE, MBMS-MDT only for the selected subset of MBSFN areas, wherein the subset of MBSFN areas is selected based on priorities of the multiple MBSFN areas providing interested MBMS service, and wherein the MBMS-MDT configuration includes a maximum number of MBSFN areas on which the MBMS-MDT is to be performed. receiving, by the UE, a MBMS-MDT configuration from a network; selecting, by the UE, a subset of multicast broadcast single frequency network, MBSFN, areas among multiple MBSFN areas providing interested MBMS services based on the MBMS-MDT configuration; and performing, by the UE, MBMS-MDT only for the selected subset of MBSFN areas, wherein the subset of MBSFN areas is selected based on priorities of the multiple MBSFN areas providing interested MBMS service, and wherein the MBMS-MDT configuration includes a maximum number of MBSFN areas on which the MBMS-MDT is to be performed.
Forming device for plastically deforming a structural element, in particular a sheet metal structural element, which is fixable between a top part and a bottom part comprising a bending rail of the forming device and is deformable by a relative movement between the bottom part and the top part of the forming device, wherein the bending rail includes at least a first area facing the structural element and forming an edge at least in certain areas as well as a second area and in addition at least one deforming component, by means of which at least the first area is elastically deformable at least in certain areas, characterized in that the bending rail has a slit, which spaces the first area from the second area at least over a substantial area of a longitudinal extension of the bending rail, and the bending rail includes at least one recess between the first area and the second area, in which the deforming component is disposed.
An ophthalmic lens comprising a substrate with a front main face and a rear main face, the rear main face being coated with a multilayered antireflective coating comprising a stack of at least one layer having a refractive index higher than 1.6 and of at least one layer having a refractive index lower than 1.5, wherein: the refractive index is expressed at a wavelength of 550 nm, the mean reflection factor on the rear face in the visible region R m is lower than or equal to 1.15%; the mean light reflection factor on the rear face in the visible region R v is lower than or equal to 1%; the mean reflection factor R UV on the rear face between 280 nm and 380 nm, weighted by the function W(λ) defined in the ISO 13666:1998 standard, is lower than 5%, for both an angle of incidence of 30° and for an angle of incidence of 45°; the multilayered antireflective coating comprises from 3 to 7 layers; the multilayered antireflective coating does not comprise any layer with a thickness higher than 15 nm based on indium oxide; and the multilayered antireflective coating outer layer is a silica-based layer, wherein (a) the mean reflection factor on the rear face for at least one wavelength in the 280-295 nm range for both an angle of incidence of 30° and an angle of incidence of 45° is higher than 5%, or (b) the mean reflection factor on the rear face over at least 70% of the 280-290 nm wavelength range, for an angle of incidence of 15° is higher than 10%. the mean reflection factor on the rear face in the visible region R m is lower than or equal to 1.15%; the mean light reflection factor on the rear face in the visible region R v is lower than or equal to 1%; the mean reflection factor R UV on the rear face between 280 nm and 380 nm, weighted by the function W(λ) defined in the ISO 13666:1998 standard, is lower than 5%, for both an angle of incidence of 30° and for an angle of incidence of 45°; the multilayered antireflective coating comprises from 3 to 7 layers; the multilayered antireflective coating does not comprise any layer with a thickness higher than 15 nm based on indium oxide; and the multilayered antireflective coating outer layer is a silica-based layer, wherein (a) the mean reflection factor on the rear face for at least one wavelength in the 280-295 nm range for both an angle of incidence of 30° and an angle of incidence of 45° is higher than 5%, or (b) the mean reflection factor on the rear face over at least 70% of the 280-290 nm wavelength range, for an angle of incidence of 15° is higher than 10%. (a) the mean reflection factor on the rear face for at least one wavelength in the 280-295 nm range for both an angle of incidence of 30° and an angle of incidence of 45° is higher than 5%, or (b) the mean reflection factor on the rear face over at least 70% of the 280-290 nm wavelength range, for an angle of incidence of 15° is higher than 10%.
An organic light-emitting device including a plurality of pixels and comprising, on an insulating layer, a first lower electrode, an upper electrode, an organic compound layer disposed between the first lower electrode and the upper electrode, and a pixel isolation layer covering an edge of the first lower electrode, wherein the organic compound layer includes a first light-emitting layer, a second light-emitting layer disposed between the first light-emitting layer and the upper electrode, and a first organic compound layer disposed between the first light-emitting layer and the second light-emitting layer, wherein the first lower electrode includes a first region in contact with the organic compound layer and a second region in contact with the pixel isolation layer, wherein the first organic compound layer functions as a charge generation layer and includes a second organic compound layer containing an alkali metal, and a third organic compound layer disposed between the second organic compound layer and the upper electrode and containing a compound having a lowest unoccupied molecular orbital level of -5.0 eV or less, wherein the compound includes a hexaazatriphenylene compound, a radialene compound, or hexafluoroquinodimethane, and wherein an orthogonal projection of the first organic compound layer onto the insulating layer is smaller than an orthogonal projection of the first light-emitting layer onto the insulating layer, wherein the orthogonal projection of the first organic compound layer onto the insulating layer is smaller than an orthogonal projection of the first region onto the insulating layer. wherein the organic compound layer includes a first light-emitting layer, a second light-emitting layer disposed between the first light-emitting layer and the upper electrode, and a first organic compound layer disposed between the first light-emitting layer and the second light-emitting layer, wherein the first lower electrode includes a first region in contact with the organic compound layer and a second region in contact with the pixel isolation layer, wherein the first organic compound layer functions as a charge generation layer and includes a second organic compound layer containing an alkali metal, and a third organic compound layer disposed between the second organic compound layer and the upper electrode and containing a compound having a lowest unoccupied molecular orbital level of -5.0 eV or less, wherein the compound includes a hexaazatriphenylene compound, a radialene compound, or hexafluoroquinodimethane, and wherein an orthogonal projection of the first organic compound layer onto the insulating layer is smaller than an orthogonal projection of the first light-emitting layer onto the insulating layer, wherein the orthogonal projection of the first organic compound layer onto the insulating layer is smaller than an orthogonal projection of the first region onto the insulating layer.
Process for the preparation of colloidal suspensions for veterinary use with sizes ranging between 100 and 800 nm which carry cloxacillin benzathine with application in the treatment or prophylaxis of mastitis in animals during the dry period by intramammary administration, characterized in that said process comprises reservoir type coated nanocarriers containing an oily or pasty core of submicron dimensions covered by a polymeric membrane of chitosan which gives rise to nanoreservoirs, nanoshells and nanocarriers dispersed in an external aqueous medium, wherein the process comprises: - preparing a solution containing (a) a hydrophobic poly-s-caprolactone which is insoluble in water, (b) oil and (c) surfactant dissolved in water-miscible organic solvents; - preparing a neutral aqueous solution comprising cloxacillin benzathine and chitosan as cationic polymer in the form of water soluble salt; - the simultaneous combination of the aqueous and oily phase which forms nanodroplets that are coated with polymer film; further characterized in that the adsorption of the cationic polymer to the particle occurs by electrostatic attraction between the hydrophobic polymer and the cationic polymer to deliver particles with positive surface charge. - preparing a solution containing (a) a hydrophobic poly-s-caprolactone which is insoluble in water, (b) oil and (c) surfactant dissolved in water-miscible organic solvents; - preparing a neutral aqueous solution comprising cloxacillin benzathine and chitosan as cationic polymer in the form of water soluble salt; - the simultaneous combination of the aqueous and oily phase which forms nanodroplets that are coated with polymer film;
A submersible plant for producing electrical energy from a water stream, said plant comprising at least one turbine arrangement (9, 18, 19) secured in a structure by means of a wire, wherein the at least one turbine arrangement (9, 18, 19) comprises a turbine operatively connected to a generator arranged to produce electrical energy, wherein the generator is operatively connected to an electrical cable arranged to distribute said electrical energy, and wherein said electrical cable is integrated within or secured to the wire, characterized in that the turbine arrangement (9, 18, 19) is mounted to a stream-driven vehicle that is formed by at least one wing and that can move freely within a range of the wire, said vehicle being provided with steering means (16, 17) and a control unit, wherein the control unit is arranged to provide control signals to the steering means (16, 17) for steering the vehicle in a never ending trajectory at least partly crossing the direction of the water stream, wherein said vehicle is capable of, when steered in said trajectory, being driven by the water stream with a velocity which is higher than the streaming velocity of the water.
An optical component made of synthetic quartz glass for use in ArF excimer laser lithography with an applied wavelength of 193 nm, with a glass structure substantially without oxygen defect sites, a hydrogen content in the range of 0.1 x 10 16 molecules/cm 3 to 1.0 x 10 18 molecules/cm 3 and a content of SiH groups of less than 2 x 10 17 molecules/cm 3 and with a content of hydroxyl groups in the range between 0.1 and 100 wt. ppm, wherein the glass structure has a fictive temperature of less than 1070°C and reacts to irradiation with radiation of a wavelength of 193 nm with 5 x 10 9 pulses with a pulse width of 125 ns and an energy density of 500 μJ/cm 2 each time and a pulse repetition frequency of 2000 Hz with a laser-induced refractive-index change, the amount of which upon measurement with the applied wavelength of 193 nm yields a first measured value M 193nm and upon measurement with a measurement wavelength of 633 nm a second measured value M 633nm, where: M 193nm /M 633nm < 1.7.