mhurhangee/ep-ind-claims huggingface dataset:
Wind turbine with a Lightning transmission element comprising. first conduction means formed by a first bar of conductor material that comprises: a first end that has a first front surface opposite a metal band located at the root of each blade of the wind turbine, at a first distance to ensure a flashover from the metal band to the first end; a second end that has a second front surface opposite a gutter of a nacelle of the wind turbine, at a second distance to ensure a flashover from the second end to the gutter; and a second bar, of electrical insulation material capable of withstanding a temperature generated by a flashover, with said second bar supporting the first bar and comprising: a first section which includes first fixture devices for connection to a hub of the wind turbine; and a second section which comprises second fixture devices for the connection of the first bar to the second bar in a substantially perpendicular position. a first end that has a first front surface opposite a metal band located at the root of each blade of the wind turbine, at a first distance to ensure a flashover from the metal band to the first end; a second end that has a second front surface opposite a gutter of a nacelle of the wind turbine, at a second distance to ensure a flashover from the second end to the gutter; and a second bar, of electrical insulation material capable of withstanding a temperature generated by a flashover, with said second bar supporting the first bar and comprising: a first section which includes first fixture devices for connection to a hub of the wind turbine; and a second section which comprises second fixture devices for the connection of the first bar to the second bar in a substantially perpendicular position.
Use of a chlorinated vinyl chloride (CPVC) compound comprising at least one high molecular weight chlorinated vinyl chloride homopolymer resin (CPVC resin), wherein said high molecular weight CPVC homopolymer resin is prepared by chlorinating a vinyl chloride resin having an inherent viscosity of about 1.02 or greater, to improve resistance to environmental stress cracking of an extruded pipe.
A method implemented in an encoder for encoding a video bitstream that comprises coded data for a plurality of pictures, each of the plurality of pictures comprises at least one slice, wherein the method comprises: encoding, by a processor of the encoder, a flag that indicates whether tile information for a picture is present in a picture parameter set or present in a slice header; wherein the tile information indicates an address or a location of a slice within the picture and the number of tiles in the slice; encoding, by the processor, the tile information in only the picture parameter set when the flag indicates that the tile information for the picture is encoded in the picture parameter set; encoding, by the processor, the tile information in only the slice header when the flag indicates that the tile information for the picture is encoded in the slice header; encoding, by the processor, data of the picture in the video bitstream based on the tile information. encoding, by a processor of the encoder, a flag that indicates whether tile information for a picture is present in a picture parameter set or present in a slice header; wherein the tile information indicates an address or a location of a slice within the picture and the number of tiles in the slice; encoding, by the processor, the tile information in only the picture parameter set when the flag indicates that the tile information for the picture is encoded in the picture parameter set; encoding, by the processor, the tile information in only the slice header when the flag indicates that the tile information for the picture is encoded in the slice header; encoding, by the processor, data of the picture in the video bitstream based on the tile information.
A steering wheel for a vehicle, in particular for a commercial vehicle, with a steering wheel hub and an outer steering wheel rim, wherein the steering wheel hub has a hub base element to which, as an integral part of the steering wheel hub, a further hub element which can be repositioned relative to the hub base element is connected in such a manner that, in a repositioning or use position, the further hub element together with the hub base element forms a substantially flat supporting surface as a writing pad, and wherein, in the repositioning or use position, the further hub element is supported with a hub-side supporting region on the steering wheel rim, characterized in that the hub-side supporting region is formed by a trough-shaped recess in which, in the repositioned state of the further hub element, an associated steering wheel rim partial region lies and/or is accommodated in a contour-matched manner.
A combination for use in medicine comprising: (a) an ellagitannin composition; and (b) an enzymatic composition comprising an ellagitannin-enzyme-synthesizing microbe or an extract thereof and one or more ellagitannin enzymes, wherein the EES microbe is Lactobacillus plantarum; wherein the one or more ellagitannin enzymes are selected from the group consisting of a tannin acyl hydrolase enzyme, a gallate decarboxylase enzyme, and a combination thereof. (a) an ellagitannin composition; and (b) an enzymatic composition comprising an ellagitannin-enzyme-synthesizing microbe or an extract thereof and one or more ellagitannin enzymes, wherein the EES microbe is Lactobacillus plantarum; wherein the one or more ellagitannin enzymes are selected from the group consisting of a tannin acyl hydrolase enzyme, a gallate decarboxylase enzyme, and a combination thereof.
A fan assembly for a gas turbine engine, comprising: a fan including a plurality of fan blades, each fan blade extending radially outwardly from a fan hub to a blade tip, the plurality of blade tips defining a fan diameter; a nacelle surrounding the fan and defining a fan inlet upstream of the fan, relative to an airflow direction into the fan, the nacelle having a forwardmost edge defining an inlet length from the forwardmost edge to a leading edge of a fan blade of the plurality of fan blades, a ratio of inlet length to fan diameter (L/D) between 0.20 and 0.45; and a nacelle inner surface defining a nacelle flowpath, the nacelle flowpath having a convex throat portion and a diffusion portion between the throat portion and the leading edge of the fan blade at a topmost portion of the nacelle, characterized in that the throat portion has a minimum throat radius measured from a fan central axis greater than a fan blade tip radius measured relative to the fan central axis. a fan including a plurality of fan blades, each fan blade extending radially outwardly from a fan hub to a blade tip, the plurality of blade tips defining a fan diameter; a nacelle surrounding the fan and defining a fan inlet upstream of the fan, relative to an airflow direction into the fan, the nacelle having a forwardmost edge defining an inlet length from the forwardmost edge to a leading edge of a fan blade of the plurality of fan blades, a ratio of inlet length to fan diameter (L/D) between 0.20 and 0.45; and a nacelle inner surface defining a nacelle flowpath, the nacelle flowpath having a convex throat portion and a diffusion portion between the throat portion and the leading edge of the fan blade at a topmost portion of the nacelle, characterized in that the throat portion has a minimum throat radius measured from a fan central axis greater than a fan blade tip radius measured relative to the fan central axis.
A suspension ring for a multistrand lifting tackle, the suspension ring comprising two parallel rectilinear legs, the respective ends thereof are connected to one another by arcuate connecting legs, wherein the lower connecting leg is formed symmetrically with respect to the longitudinal center line (M-M) of the suspension ring, and extends as a curve shaped in form of a segment of a circle, both in the central region of the lower connecting leg extent and in the two transition regions in which the lower connecting leg transits into the respective one of the two legs, and wherein on the inside of the suspension ring the radii (r 1, r 2) of the curves are greater than half the diameter (d) of the legs and the radii (r 2) of the curves at the transitions of the lower connecting leg into the two legs are smaller than half the internal width of the suspension ring, characterized in that on the inside of the suspension ring the radius (r 1) of the segment of circle shaped central region is equally less than half the internal width of the suspension ring, and, at each of its ends, the central region is connected to the respective transitional region, which is segment of circle shaped and transits into the adjacent leg there, via a rectilinear intermediate segment of the connecting leg, which intermediate segment is angled to the longitudinal center line (M-M) of the suspension ring at an angle ( δ) in a range of from 50° to 75°.
A capsule containing a beverage ingredient, adapted to be functionally inserted in a food preparation machine, said capsule comprising walls that define a cavity wherein said beverage is prepared by mixing said ingredient with a fluid injected therein under pressure by said machine, said capsule further comprising a dispensing opening, and opening means that open upon effect of the rise of pressure within said cavity, characterized in that said opening means comprise a flow-conducting channel able to connect the capsule cavity to the dispensing opening and a spring-mounted piston plug that is movable in said channel between: (i) a closed position where said cavity pressure is below a first predetermined pressure P C, the piston spring is at rest, and the piston plug seals against a sealing portion of the channel walls, (ii) a dispensing position where said cavity pressure is equal or superior to P C, the piston spring is elastically deformed and the piston plug is moved away from the channel walls so that beverage can flow outside of said capsule through said channel. (i) a closed position where said cavity pressure is below a first predetermined pressure P C, the piston spring is at rest, and the piston plug seals against a sealing portion of the channel walls, (ii) a dispensing position where said cavity pressure is equal or superior to P C, the piston spring is elastically deformed and the piston plug is moved away from the channel walls so that beverage can flow outside of said capsule through said channel.
Oil-lubricated rotary vane vacuum pump with a rotary vane unit, comprising a rotary vane chamber and a rotary vane rotor, and with an oil separating device, wherein a separation of gas and oil takes place in the oil separating device by means of an air oil separator element, the air-oil separator element having a filter element which, at an end which can be plugged in on the housing side, has a plug-in ring which is designed for radial sealing and axial displaceability in an associated housing receptacle, and the filter element, facing the end associated with the outer wall, has a shaped portion for bayonet mounting, characterized in that a retaining wall of the housing is formed to cooperate with the shaped portion of the filter element and to form the bayonet mounting, said retaining wall extending at a distance from the outer wall of the housing, in that a separate cover is provided which allows a mounting opening assigned to the filter element to be closed in the outer wall of the housing, and in that the cover interacts in a form-fitting manner with the filter element in order to prevent the filter element from rotating.
A material for pressure measurement, comprising: a color-forming layer having microcapsules containing a colorless electron-donating dye precursor; and an electron-accepting compound that reacts with the colorless electron-donating dye precursor to form color after breakage of at least one of the microcapsules, characterized in that, the material has a color density difference (ΔD) of 0.02 or more before and after pressurization at 0.05 MPa, wherein, when the median diameter of the microcapsules on a volume basis is A μm, 5000 to 30000 microcapsules having a diameter of (A + 5) μm or more are present per 2 cm × 2 cm area, wherein the median diameter A (μm) on a volume basis is 10 to 40 μm, and wherein the capsule wall of the microcapsules consists of polyurethane-urea and satisfies the following relationship: δ/A = from 1.0 × 10 -3 to 2.0 × 10 -2, where δ is a number-average wall thickness (μm) of the microcapsules, and A is the median diameter (μm) of the microcapsules on a volume basis. a color-forming layer having microcapsules containing a colorless electron-donating dye precursor; and an electron-accepting compound that reacts with the colorless electron-donating dye precursor to form color after breakage of at least one of the microcapsules, characterized in that, the material has a color density difference (ΔD) of 0.02 or more before and after pressurization at 0.05 MPa, wherein, when the median diameter of the microcapsules on a volume basis is A μm, 5000 to 30000 microcapsules having a diameter of (A + 5) μm or more are present per 2 cm × 2 cm area, wherein the median diameter A (μm) on a volume basis is 10 to 40 μm, and wherein the capsule wall of the microcapsules consists of polyurethane-urea and satisfies the following relationship: δ/A = from 1.0 × 10 -3 to 2.0 × 10 -2, where δ is a number-average wall thickness (μm) of the microcapsules, and A is the median diameter (μm) of the microcapsules on a volume basis.
An electrical energy storage and/or generation device having multiple electrical energy storage and/or generation elements (M1, M2, M3), where there are N such elements, each produced on a support (S1, S2, S3) and stacked one on top of another, characterised in that: - each support has, at the periphery of the thin layers (10, 11, 12, 13, 14) composing the supported element, multiple pads (1, 2, 3, 4) made from an electron-conductive material, where there are X*N such pads, traversing the said support, where there are X1 pads connected to the positive bus(es) of the supported element, and where there are X2 pads connected to the negative bus(es) of the supported element, and where the sum of X1 + X2 is equal to X, - all the pads (1, 2, 3, 4), where there are X*N such pads, are positioned with roughly the same relative mutual positioning, whatever the support (S1, S2, S3), - each pad connected to the bus, respectively positive and negative, of a support is positioned in a position which is different from a pad connected to the bus, respectively positive and negative, of another support, - all the supports, where there are N such supports, are stacked with the pads aligned with one another in a number equal to N in the stacking direction, where the pads aligned in a number equal to N are also connected to one another. - each support has, at the periphery of the thin layers (10, 11, 12, 13, 14) composing the supported element, multiple pads (1, 2, 3, 4) made from an electron-conductive material, where there are X*N such pads, traversing the said support, where there are X1 pads connected to the positive bus(es) of the supported element, and where there are X2 pads connected to the negative bus(es) of the supported element, and where the sum of X1 + X2 is equal to X, - all the pads (1, 2, 3, 4), where there are X*N such pads, are positioned with roughly the same relative mutual positioning, whatever the support (S1, S2, S3), - each pad connected to the bus, respectively positive and negative, of a support is positioned in a position which is different from a pad connected to the bus, respectively positive and negative, of another support, - all the supports, where there are N such supports, are stacked with the pads aligned with one another in a number equal to N in the stacking direction, where the pads aligned in a number equal to N are also connected to one another.
Process for the production of a metal contact structure of a photovoltaic solar cell, comprising the following process steps: A application of an electrically non-conducting insulation layer to a surface of a semiconductor substrate, where appropriate to one or more intermediate layers covering that surface, B application of a metal contact layer to the insulation layer, where appropriate to one or more intermediate layers covering the insulation layer, and creation of one or more local electrically conducting connection(s) between the semiconductor substrate and the contact layer through the insulation layer and where appropriate further intermediate layers, wherein in process step B the metal contact layer is formed, comprising the following process steps: B1 a first paste containing metal particles is applied to a plurality of local regions, B2 a second paste containing metal particles is applied over the surface so as to cover at least some of at least the regions covered with the first paste and the regions located therebetween, and B3 global heating of the semiconductor substrate and at least the first and the second paste in a temperature step, wherein the first and second pastes (4a, 4b) and the temperature step or further temperature steps following process step B1 are such that the first paste (3a, 3b) penetrates through the insulation layer and forms an electrically conducting contact directly with the semiconductor substrate, whereas the second paste (4a, 4b) does not penetrate through the insulation layer and is in electrically conducting connection with the semiconductor substrate solely indirectly by way of the first paste (3a, 3b), characterised in that process step B additionally comprises a process step Ba, wherein in process step Ba a third paste containing metal particles is applied to at least a local sub-region, which paste is such that, after being acted upon by heat, the third paste forms a solderable metal structure, wherein the second and third pastes adjoin one another and form an electrically conducting connection and wherein the contact structure is formed on a rear side of the solar cell. A application of an electrically non-conducting insulation layer to a surface of a semiconductor substrate, where appropriate to one or more intermediate layers covering that surface, B application of a metal contact layer to the insulation layer, where appropriate to one or more intermediate layers covering the insulation layer, and creation of one or more local electrically conducting connection(s) between the semiconductor substrate and the contact layer through the insulation layer and where appropriate further intermediate layers, B1 a first paste containing metal particles is applied to a plurality of local regions, B2 a second paste containing metal particles is applied over the surface so as to cover at least some of at least the regions covered with the first paste and the regions located therebetween, and B3 global heating of the semiconductor substrate and at least the first and the second paste in a temperature step,
An apparatus for receiving and forwarding data packets, the apparatus comprising a controlling unit and a plurality of physically separate data receiving and forwarding elements each comprising: - means (20, 22) for receiving or accessing a data packet, - means for determining a point in time of receipt/access of the data packet, the determining means comprising clock means, the clock means of all determining means being synchronized, and - means for outputting first information comprising the point in time, the controlling unit comprising: - means for receiving the first information and deriving the point in time of receipt/access of the data packet, and - a clock synchronized with the clock means of the determining means, characterized in that: each receiving and forwarding element further comprises: - receiving means for receiving an address for storing at least part of the data packet, and - transfer means for facilitating storage of the at least part of the data packet at the address and that the controlling unit further comprises means for, for each piece of first information received, and at a point in time at or after the derived point in time of receipt/access added a predetermined time delay, determining the address and returning the address to the receiving means of the pertaining data receiving and forwarding element. - means (20, 22) for receiving or accessing a data packet, - means for determining a point in time of receipt/access of the data packet, the determining means comprising clock means, the clock means of all determining means being synchronized, and - means for outputting first information comprising the point in time, the controlling unit comprising: - means for receiving the first information and deriving the point in time of receipt/access of the data packet, and - a clock synchronized with the clock means of the determining means, - means for receiving the first information and deriving the point in time of receipt/access of the data packet, and - a clock synchronized with the clock means of the determining means, each receiving and forwarding element further comprises: - receiving means for receiving an address for storing at least part of the data packet, and - transfer means for facilitating storage of the at least part of the data packet at the address and that - receiving means for receiving an address for storing at least part of the data packet, and - transfer means for facilitating storage of the at least part of the data packet at the address and that the controlling unit further comprises means for, for each piece of first information received, and at a point in time at or after the derived point in time of receipt/access added a predetermined time delay, determining the address and returning the address to the receiving means of the pertaining data receiving and forwarding element.
A method for producing a photoresist pattern comprising: providing a photomask formed of a metal nanostructure for producing localized surface plasmon resonance, the metal nanostructure including a mask substrate having an irregular structure on a surface thereof and a metal film arranged on at least a protrusion of the irregular structure of the mask substrate; providing a photoresist film that is sensitive to light having a first wavelength, the photoresist being formed on a surface of a resist substrate; bringing the photomask into contact with the photoresist film; and transferring onto the photoresist film a pattern of the metal film of the photomask by generating a scattering component of light based on plasmon resonance at a surface of the metal film of the photomask by directing light having a second wavelength that is longer than the first wavelength and 50 nm to 200 nm shorter than a peak wavelength of a plasmon resonance band of the metal nanostructure. providing a photomask formed of a metal nanostructure for producing localized surface plasmon resonance, the metal nanostructure including a mask substrate having an irregular structure on a surface thereof and a metal film arranged on at least a protrusion of the irregular structure of the mask substrate; providing a photoresist film that is sensitive to light having a first wavelength, the photoresist being formed on a surface of a resist substrate; bringing the photomask into contact with the photoresist film; and transferring onto the photoresist film a pattern of the metal film of the photomask by generating a scattering component of light based on plasmon resonance at a surface of the metal film of the photomask by directing light having a second wavelength that is longer than the first wavelength and 50 nm to 200 nm shorter than a peak wavelength of a plasmon resonance band of the metal nanostructure.