mhurhangee/ep-ind-claims huggingface dataset:
A honeycomb structure comprising: a tubular honeycomb structure body having porous partition walls to define and form a plurality of cells as through channels of a fluid which extend from a first end surface as one end surface to a second end surface as the other end surface, and an outer peripheral wall positioned on the outermost periphery; and a pair of electrode sections disposed on a side surface of the honeycomb structure body, wherein an electrical resistivity of the honeycomb structure body is from 1 to 200 Ωcm, each of the pair of electrode sections is formed into a band shape extending in an extending direction of the cells of the honeycomb structure body, in a cross section perpendicular to the extending direction of the cells, the one electrode section in the pair of electrode sections is disposed on a side opposite to the other electrode section in the pair of electrode sections via the center of the honeycomb structure body, the electrode section comprises a porous body in which particles made of silicon carbide as an aggregate are bound by a binding material, silicon carbide as the aggregate constituting the electrode section contains β-SiC having a stacking fault of 2% or less, and the binding material constituting the electrode section contains silicon and a metal silicide. a tubular honeycomb structure body having porous partition walls to define and form a plurality of cells as through channels of a fluid which extend from a first end surface as one end surface to a second end surface as the other end surface, and an outer peripheral wall positioned on the outermost periphery; and a pair of electrode sections disposed on a side surface of the honeycomb structure body, wherein an electrical resistivity of the honeycomb structure body is from 1 to 200 Ωcm, each of the pair of electrode sections is formed into a band shape extending in an extending direction of the cells of the honeycomb structure body, in a cross section perpendicular to the extending direction of the cells, the one electrode section in the pair of electrode sections is disposed on a side opposite to the other electrode section in the pair of electrode sections via the center of the honeycomb structure body, the electrode section comprises a porous body in which particles made of silicon carbide as an aggregate are bound by a binding material, silicon carbide as the aggregate constituting the electrode section contains β-SiC having a stacking fault of 2% or less, and the binding material constituting the electrode section contains silicon and a metal silicide.
Luminaire (100, 200) comprising at least one illuminant {130, 230), a reflector insert (140, 240) comprising at least one chamber (142, 242) partially or completely embedded therein, as well as a lens (110, 210), wherein the lens (110, 210) has at least a head part (114, 214), a transition region (116, 216) and a side part (118, 218), wherein the head part (114, 214) of the lens (110, 210) comprises a reflector strip (122, 222) extending centrally above the head part (114, 214), and the lens (110, 210) comprises, at least in the transition region (116, 216) connecting the head part (114, 214) to the side part (118, 218) of the lens (110, 210), a plurality of bars (120, 220) which extend with their longitudinal extension substantially from the side part (118, 218) in the direction of the head part (114, 214), wherein the bars (120, 220) comprise a bar inner side (121.1, 221.1) and a bar outer side (121.2, 221.2) which are arranged opposite each other, wherein the bar inner side (121.1, 221.1) is convex and the bar outer side (121.2, 221.2) is concave.
Process for producing asphalt from a bulk solid having a residual moisture and bitumen comprising the steps of: a. treating the bulk solid with superheated steam in a drying space to reduce the residual moisture in the bulk solid; b. mixing the bulk solid having reduced residual moisture with bitumen to obtain asphalt, wherein the superheated steam is cooled by absorption of residual moisture in the bulk solid and discharged from the drying space at a temperature of at least 100°C, preferably at least 105°C, thus reducing the residual moisture in the bulk solid. a. treating the bulk solid with superheated steam in a drying space to reduce the residual moisture in the bulk solid; b. mixing the bulk solid having reduced residual moisture with bitumen to obtain asphalt,
Arrangement for mixing of a medium, having an element for generating a movement in the medium and having a drive, with the element being connected to the drive, where the drive comprises a first material for performing a thermal change in the geometric dimensions, which is connected to the element for changing the shape, where the change in the shape brings about mixing of the medium, characterized in that the drive comprises a second material for oxidation which is connected for the transfer of heat to the first material for performing the thermal change in the geometric dimensions.
A method of wireless communication, comprising: receiving, at a first wireless device, a reference signal from an associated access point, the reference signal indicative of a time of joint transmission with at least a second wireless device, the reference signal comprising one or more station information fields, a frame check sequence, FCS, and one or more padding bits between a final station information field and the FCS; and transmitting a first communication to the access point based on the reference signal, the communication utilizing a first subset of wireless frequencies available for use, the first communication being concurrent with a second communication, from the second wireless device, utilizing a second subset of wireless frequencies, the second subset excluding the first subset. receiving, at a first wireless device, a reference signal from an associated access point, the reference signal indicative of a time of joint transmission with at least a second wireless device, the reference signal comprising one or more station information fields, a frame check sequence, FCS, and one or more padding bits between a final station information field and the FCS; and transmitting a first communication to the access point based on the reference signal, the communication utilizing a first subset of wireless frequencies available for use, the first communication being concurrent with a second communication, from the second wireless device, utilizing a second subset of wireless frequencies, the second subset excluding the first subset.
An airfoil element, in particular a wing, comprising a movable airfoil element, in particular a leading edge slat, adapted to the airfoil element and connected to the latter by interface fittings (222, 422), which airfoil element is subjected during the use thereof to an aerodynamic loading, the aircraft defining a reference frame comprising a fuselage main axis x and a span axis y, the airfoil element providing lift along an axis z, perpendicular to each other, the airfoil element being deformed under the effect of the aerodynamic loading primarily in the form of a bending imparting a deflection along the axis z and a deformation substantially in the plane y-z moving the interface fittings (422, 222) along the axis z, the bending deformed shape of the movable airfoil element under the effect of the aerodynamic loading forming archs between the interface fittings (222, 422) with a deflection parallel to z, said movable airfoil element consisting of a box structure and comprising a ribbed extrados skin comprising a trailing edge skin, a spar extending along the y axis assembled to the extrados skin, an internal skin assembled to the trailing edge skin and to the spar, wherein boxes delimited by the ribs distributed along the y axis, extending between the trailing edge skin and the internal skin, said ribs cooperating with ribs of the spar and the interface fittings for the connection with the wing, characterised in that the trailing edge skin of the extrados skin is stiffened by stiffeners with a biomimetic shape comprising stiffening patterns (511, 512) distributed over the entire surface of the trailing edge skin, said stiffeners being configured so as to form, between two ribs connected to the interface fittings, by the stiffening obtained in this manner, at least one discontinuity area, not stiffened, formed between two stiffening patterns separated from each other and centred on the area of cancellation of the bending moment generated by the aerodynamic loading of the movable airfoil element.
A systemic formulation containing (S,E)-methyl-7-(1-(2-(2-ethylbutylamino)-2-oxoethyl)-2-oxo-1,2-dihydro-pyridin-3-ylamino)-6-(1-methyl-1H-imidazole-5-carboxamido)-7-oxohept-2-enoate of the formula: or an enantiomer, a solvate, a hydrate or a pharmaceutically acceptable salt thereof for use in the prophylaxis and/or treatment of coeliac disease, wherein the systemic formulation comprises at least one acidifier.
Support tripod for video-photographic equipment comprising a cross-piece which is provided with engaging means for a piece of video-photographic equipment, a plurality of support legs which can be pivoted with respect to the cross-piece in order to open/close the tripod, each leg comprising a first leg portion which is articulated to a corresponding hinge element which is provided on the cross-piece in such a manner that the leg can be pivoted between a closed configuration, in which the legs are arranged almost parallel with each other, and at least one operative configuration (K, K1), in which the legs are apart with respect to the cross-piece, and a second leg portion which is intended to be supported on a support surface of the tripod, which is parallel with the first leg portion and which is connected to the first leg portion, the second leg portion having a member which extends mainly along a longitudinal axis, wherein the second leg portion can slide along the longitudinal axis in order to be moved with respect to the first leg portion in order to release the leg from the cross-piece in order to make the leg pivotable with respect to the cross-piece, wherein the tripod further comprises a blocking device which is received in the second leg portion and which is fixed to the second leg portion in order to be moved together therewith along the longitudinal axis, the blocking device being intended to block the leg at least in the first operative configuration characterised in that the blocking device comprises a blocking pin which extends along the longitudinal axis Y of the leg and which has a first portion which is fixed to the second leg portion and an opposing free end which is intended to interact with the cross-piece in order to block the leg.
A clock generator, comprising: a multi-phase controllable oscillator, having a plurality of phase nodes (P[i]) at which a plurality of clock signals (CKOUT[i]) with a plurality of different phases are generated, respectively, the multi-phase controllable oscillator comprising: a plurality of oscillator core circuits (122[i]), each comprising: a resistive component, coupled between a first phase node and a second phase node of the multi-phase controllable oscillator, wherein clock signals generated at the first phase node and the second phase node have adjacent phases of the multi-phase controllable oscillator; and an inverter, configured to receive an input feedback clock signal from one phase node of the multi-phase controllable oscillator, and generate an output feedback clock signal to the second phase node according to the input feedback clock signal; wherein resistive components (202[n]) of the oscillator core circuits are cascaded in a ring configuration, characterized in that the entirety of inverters of the plurality of oscillator core circuits (122[i]) are connected in series. a multi-phase controllable oscillator, having a plurality of phase nodes (P[i]) at which a plurality of clock signals (CKOUT[i]) with a plurality of different phases are generated, respectively, the multi-phase controllable oscillator comprising: a plurality of oscillator core circuits (122[i]), each comprising: a resistive component, coupled between a first phase node and a second phase node of the multi-phase controllable oscillator, wherein clock signals generated at the first phase node and the second phase node have adjacent phases of the multi-phase controllable oscillator; and an inverter, configured to receive an input feedback clock signal from one phase node of the multi-phase controllable oscillator, and generate an output feedback clock signal to the second phase node according to the input feedback clock signal; a resistive component, coupled between a first phase node and a second phase node of the multi-phase controllable oscillator, wherein clock signals generated at the first phase node and the second phase node have adjacent phases of the multi-phase controllable oscillator; and an inverter, configured to receive an input feedback clock signal from one phase node of the multi-phase controllable oscillator, and generate an output feedback clock signal to the second phase node according to the input feedback clock signal; wherein resistive components (202[n]) of the oscillator core circuits are cascaded in a ring configuration, characterized in that the entirety of inverters of the plurality of oscillator core circuits (122[i]) are connected in series.
A photodetector comprising at least a portion of a semiconductor layer (33, 39) formed directly on at least a portion of a reflective layer (31, 47) and intended to be illuminated by a light beam (35, 41), a plurality of pads (37, 43, 45) being formed on the portion of the semiconductor layer (33, 39), opposite to the reflective layer portion, the pads and the portion of the reflective layer being metallic or made of a material having a negative permittivity, the optical cavity formed between said at least a portion of the reflective layer and said pads having a thickness strictly smaller than one quarter of the ratio between the wavelength of the light beam and the optical index of the semiconductor layer, preferably in the order of one tenth of this ratio, the semiconductor layer being a layer of constant thickness, wherein the pads, square or rectangular in shape, are formed periodically at the surface of the portion of the semiconductor layer (33, 39) and the pads are periodically arranged according to a period less than 0.75 λ/n, λ being the wave length of said light beam, n being the optical index of the semiconductor layer.
An anti-Motile Sperm Domain containing Protein 2 (MOSPD2) antibody or antigen binding fragment thereof for use in treating or preventing cancer, wherein MOSPD2 is expressed by said cancer.
A method for preparing a monolithic structure catalyst for producing ethylene glycol by hydrogenation of dimethyl oxalate, comprising the steps of: a) dissolving 15.5g of the soluble copper precursor Cu (NO 3) 2 ·5H 2 O with 150 mL water to yield 0.37 M solution A; b) employing 25 wt.% ammonia aqueous solution as the precipitant and mixing with the solution A which is the copper ammonia complex; c) adding the silicate precursor, 45 mL of 30 wt. % silica sol, into the solution A, the copper ammonia complex, stirring for 4 hours, heating to 95°C for precipitating the copper and silicate, stopping heating when a pH of the solution is less than 7, filtering, washing with deionized water for 3 times, drying at 120°C for 12 hours, and calcinating a resulting precipitate at 450°C for 4 hours to obtain the catalyst powder B; d) squeezing, granulating and sieving part of the catalyst powder B to form the granular catalyst C having 40-60 meshes, mechanically mixing another part of catalyst powder B in quantity of 8.0g, 8.0g of the squeezed granular catalyst C, 0.5g of pseudoboehmite, and 50mL of water to form the catalyst slurry D, mixing time being 2 hours, rotating speed is 200 rpm; e) impregnating cordierite honeycomb of 400 cpsi, having particle size φ 15 × 25mm, in the catalyst slurry D for 5 min, blowing off the extra slurry from the carrier and then coating the catalyst slurry D onto the cordierite honeycomb using a dip coating method, drying at 120°C for 12 hours, and calcinating at 450°C for 6 hours to form the monolithic catalyst E denoted as Cu/SiO 2 /cordierite. a) dissolving 15.5g of the soluble copper precursor Cu (NO 3) 2 ·5H 2 O with 150 mL water to yield 0.37 M solution A; b) employing 25 wt.% ammonia aqueous solution as the precipitant and mixing with the solution A which is the copper ammonia complex; c) adding the silicate precursor, 45 mL of 30 wt. % silica sol, into the solution A, the copper ammonia complex, stirring for 4 hours, heating to 95°C for precipitating the copper and silicate, stopping heating when a pH of the solution is less than 7, filtering, washing with deionized water for 3 times, drying at 120°C for 12 hours, and calcinating a resulting precipitate at 450°C for 4 hours to obtain the catalyst powder B; d) squeezing, granulating and sieving part of the catalyst powder B to form the granular catalyst C having 40-60 meshes, mechanically mixing another part of catalyst powder B in quantity of 8.0g, 8.0g of the squeezed granular catalyst C, 0.5g of pseudoboehmite, and 50mL of water to form the catalyst slurry D, mixing time being 2 hours, rotating speed is 200 rpm; e) impregnating cordierite honeycomb of 400 cpsi, having particle size φ 15 × 25mm, in the catalyst slurry D for 5 min, blowing off the extra slurry from the carrier and then coating the catalyst slurry D onto the cordierite honeycomb using a dip coating method, drying at 120°C for 12 hours, and calcinating at 450°C for 6 hours to form the monolithic catalyst E denoted as Cu/SiO 2 /cordierite.
A liquid valve comprising a housing, that defines a circular cylindrical valve chamber having at least two valve ports (12, 13) along a circumferential chamber wall, and a rotor, that is rotatably seated inside said valve chamber and comprises a peripheral arc portion able to sealingly contact the circumferential chamber wall and to totally block one of said valve ports (12, 13) in the circumferential chamber wall at a time, wherein said housing is made of a metal alloy, wherein said rotor is made of a metal alloy, whereby the sealing contact is between metal alloys, and wherein said rotor is seated in such a way inside said valve chamber that said peripheral arc portion of said rotor is permanently biased into abutment against the circumferential chamber wall of said housing, characterized in that said arc portion comprises means at least minimizing the metallic contact between microstructurally alike areas of said circumferential chamber wall of said housing and said peripheral arc portion of said rotor.
A method for producing an anode suitable for a lithium-ion battery comprising: preparing a surface of a substrate material including copper wherein copper oxide is formed on the surface of the substrate material via oxidation; and forming a plurality of conductive tin (Sn) nanoneedles on the surface of the substrate material via electrodeposition without using a template wherein the tin nanoneedles individually have a base and a tip, wherein the individual tin nanoneedles are 2 μm to 5 μm in length between the base and the tip, 20 nm to 50 nm in width at the tip, and 50 nm to 200 nm in width at the base. preparing a surface of a substrate material including copper wherein copper oxide is formed on the surface of the substrate material via oxidation; and forming a plurality of conductive tin (Sn) nanoneedles on the surface of the substrate material via electrodeposition without using a template wherein the tin nanoneedles individually have a base and a tip, wherein the individual tin nanoneedles are 2 μm to 5 μm in length between the base and the tip, 20 nm to 50 nm in width at the tip, and 50 nm to 200 nm in width at the base.
A method of manufacture of flexible printed circuits having electrical contacts, the method comprising: - providing a rolled band of a flexible material, said band being virtually divided in a plurality of zones (i; j), - unrolling the band so that zones are moved the one(s) after the other (s) through a metallization cell, - forming a pattern of conducting material on the band of flexible material, the method being characterized by - forming on the band, in the metallization cell, at least five electrical contacts (9a-9g (or h)) per zone, said electrical contacts being made of electrically conductive material, each of said contact being connected to a common frame by a respective connection portion (11a- 11h), wherein each contact has a shape which encompasses a rectangle of length 2 millimeters (mm) and width 1.7 mm, wherein a summed surface area of the contacts is less than 127.01 mm 2, and wherein forming contacts includes applying an electrically conducting material following the pattern. - providing a rolled band of a flexible material, said band being virtually divided in a plurality of zones (i; j), - unrolling the band so that zones are moved the one(s) after the other (s) through a metallization cell, - forming a pattern of conducting material on the band of flexible material, - forming on the band, in the metallization cell, at least five electrical contacts (9a-9g (or h)) per zone, said electrical contacts being made of electrically conductive material, each of said contact being connected to a common frame by a respective connection portion (11a- 11h), wherein each contact has a shape which encompasses a rectangle of length 2 millimeters (mm) and width 1.7 mm, wherein a summed surface area of the contacts is less than 127.01 mm 2, and wherein forming contacts includes applying an electrically conducting material following the pattern.
A microfluidic cavity comprising a movable film (2521, 2541, 2551, 2561, 2601, 2801, 3001) separating two subcavities (2525, 2522, 2562, 2563, 2606. 2607, 2808, 2807) of the microfluidic cavity, said film 2521, 2541, 2551, 2561, 2601, 2801, 3001) is an overstretched film beyond the yield point and having low elasticity, characterized in that the film forms a blister within the cavity so as the surface area of the film is larger than the cross-sectional area of the microcavity.
A system for preventing oxygen inhibition of a light-initiated polymerization reaction at ambient conditions, said system comprising: an ultraviolet light source, a UV curing space for accepting a workpiece having a layer of UV curable material; means for purging oxygen from the UV curing space to facilitate, within the UV curing space, UV curing of the layer of UV curable material at times when the UV light source emits light onto the layer of UV curable material, wherein the means for purging oxygen includes a UV-transparent surface to planarize the layer of UV curable material and wherein the UV-transparent surface comprises a thin film in tension, a plate of solid material, or a combination of a thin film in tension and a plate of solid material; characterized in that a camera is arranged to evaluate reflective properties of the UV-transparent surface so as to determine whether contact has been achieved between the layer of UV curable material and the UV-transparent surface. an ultraviolet light source, a UV curing space for accepting a workpiece having a layer of UV curable material; means for purging oxygen from the UV curing space to facilitate, within the UV curing space, UV curing of the layer of UV curable material at times when the UV light source emits light onto the layer of UV curable material, wherein the means for purging oxygen includes a UV-transparent surface to planarize the layer of UV curable material and wherein the UV-transparent surface comprises a thin film in tension, a plate of solid material, or a combination of a thin film in tension and a plate of solid material; characterized in that a camera is arranged to evaluate reflective properties of the UV-transparent surface so as to determine whether contact has been achieved between the layer of UV curable material and the UV-transparent surface.