mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for making a pizza disc starting from dough blanks, comprising a punch, bearing at least one pair of opposing and adjacent forming elements (2, 3) suitable for being placed in rotation according to a vertical axis and to be moved away from each other in a direction orthogonal to said rotation axis; each forming element (2, 3) being free to rotate along an axis parallel to the axis, the apparatus comprises at least one pair of dispensers (4, 5) mounted integral to each forming element (2, 3) which during rotation, progressively release detaching substances, wherein said dispensers (4, 5) are configured to release detaching substances on the surface portion of the corresponding forming element (2, 3) intended to come into contact with the dough blank and/or on the portion of dough blank intended to come into contact with the forming element (2, 3), characterized in that each forming element (2, 3) has a shape that includes a sphere portion (21, 31) or a cylindrical portion and a flat face (22, 32), wherein the flat face of one forming element is opposed to the corresponding flat face of the other forming element.
Work station for a packaging machine, comprising an upper tool and a lower tool, where said lower tool is guided for a closing motion that is directed along a vertical direction towards said upper tool; and a lifting mechanism which comprises a toggle lever mechanism which connects said lower tool to a support structure, wherein said lifting mechanism comprises a first actuator assembly which is configured to apply a first force for raising said lower tool and a second actuator assembly which is configured to apply a second force for raising said lower tool, and wherein said first actuator assembly acts upon said lower tool while bypassing said toggle lever mechanism and said second actuator assembly acts upon said toggle lever mechanism. an upper tool and a lower tool, where said lower tool is guided for a closing motion that is directed along a vertical direction towards said upper tool; and a lifting mechanism which comprises a toggle lever mechanism which connects said lower tool to a support structure, wherein said lifting mechanism comprises a first actuator assembly which is configured to apply a first force for raising said lower tool and a second actuator assembly which is configured to apply a second force for raising said lower tool, and wherein said first actuator assembly acts upon said lower tool while bypassing said toggle lever mechanism and said second actuator assembly acts upon said toggle lever mechanism.
A rotomoulded article comprising (i) at least one layer A comprising fibers embedded in a polymer resin; and (ii) at least one layer B comprising: • from 40 to 100 wt% of an aliphatic polyester, characterized in that said aliphatic polyester is poly(lactic acid), • from 0 to 60 wt% of a polyolefin, • from 0 to 20 wt% of a co- or ter-polymer comprising (a) 50 to 99.9 wt% of ethylene or styrene monomer, (b) 0.1 to 50 wt% of an unsaturated anhydride-, epoxide- or carboxylic acid-containing monomer, (c) 0 to 50 wt% of a (meth)acrylic ester monomer. (i) at least one layer A comprising fibers embedded in a polymer resin; and (ii) at least one layer B comprising: • from 40 to 100 wt% of an aliphatic polyester, characterized in that said aliphatic polyester is poly(lactic acid), • from 0 to 60 wt% of a polyolefin, • from 0 to 20 wt% of a co- or ter-polymer comprising (a) 50 to 99.9 wt% of ethylene or styrene monomer, (b) 0.1 to 50 wt% of an unsaturated anhydride-, epoxide- or carboxylic acid-containing monomer, (c) 0 to 50 wt% of a (meth)acrylic ester monomer. • from 40 to 100 wt% of an aliphatic polyester, characterized in that said aliphatic polyester is poly(lactic acid), • from 0 to 60 wt% of a polyolefin, • from 0 to 20 wt% of a co- or ter-polymer comprising (a) 50 to 99.9 wt% of ethylene or styrene monomer, (b) 0.1 to 50 wt% of an unsaturated anhydride-, epoxide- or carboxylic acid-containing monomer, (c) 0 to 50 wt% of a (meth)acrylic ester monomer. (a) 50 to 99.9 wt% of ethylene or styrene monomer, (b) 0.1 to 50 wt% of an unsaturated anhydride-, epoxide- or carboxylic acid-containing monomer, (c) 0 to 50 wt% of a (meth)acrylic ester monomer.
An isolated polynucleotide modulating CDH17 expression or activity, wherein the nucleotide molecule is a short interfering RNA (siRNA) or a small hairpin RNA (shRNA) specific for a transcript of CDH17 that modulates CDH17 expression, and wherein the nucleotide molecule targets SEQ ID NO: 5 or SEQ ID NO: 6 or a complement thereof.
A method of generating an isolated population of non-GvHD inducing cells comprising a central memory T-lymphocyte (Tcm) phenotype, said cells being tolerance inducing cells and endowed with anti-viral activity, and capable of homing to the lymph nodes following transplantation, the method comprising: (a) treating peripheral blood mononuclear cells (PBMCs) with an agent capable of depleting CD4 +, CD56 + and CD45RA + cells, or with an agent capable of selecting CD45RO +, CD8 + cells, so as to obtain a population of cells comprising T cells comprising at least about 50-70 % memory T cells comprising a CD45RO + CD45RA - CD8 + phenotype; (b) contacting said population of cells resulting from step (a) with dendritic cells of the same donor as said memory T cells loaded with at least one viral antigen selected from the group consisting of Epstein-Barr virus peptide, a cytomegalovirus peptide and an Adenovirus (Adv) peptide in a cytokine-free culture supplemented with IL-21 for 2 - 5 days so as to allow enrichment of antigen reactive cells; and (c) culturing said cells resulting from step (b) in the presence of IL-21, IL-15 and IL-7 in an antigen free environment for 4 - 10 days so as to allow proliferation of cells comprising said Tcm phenotype, thereby generating the isolated population of non-GvHD inducing cells. (a) treating peripheral blood mononuclear cells (PBMCs) with an agent capable of depleting CD4 +, CD56 + and CD45RA + cells, or with an agent capable of selecting CD45RO +, CD8 + cells, so as to obtain a population of cells comprising T cells comprising at least about 50-70 % memory T cells comprising a CD45RO + CD45RA - CD8 + phenotype; (b) contacting said population of cells resulting from step (a) with dendritic cells of the same donor as said memory T cells loaded with at least one viral antigen selected from the group consisting of Epstein-Barr virus peptide, a cytomegalovirus peptide and an Adenovirus (Adv) peptide in a cytokine-free culture supplemented with IL-21 for 2 - 5 days so as to allow enrichment of antigen reactive cells; and (c) culturing said cells resulting from step (b) in the presence of IL-21, IL-15 and IL-7 in an antigen free environment for 4 - 10 days so as to allow proliferation of cells comprising said Tcm phenotype, thereby generating the isolated population of non-GvHD inducing cells.
Fire-resistant housing for a frequency converter, in particular for a frequency converter of a rail vehicle, wherein the housing is manufactured from a metallic material, comprising: - a heat insulation part made of a non-flammable material which is arranged on a housing part of the housing on an outer wall surface, in order, in the event of a fire in the interior space, to attenuate the heat flow into an adjacent exterior space, wherein - the heat insulation part is connected to the housing part by means of a substance-to-substance bond and a fire-resistant, form-fit connection, characterised in that the substance-to-substance bond is formed by an adhesive layer embodied over the whole surface between the outer wall surface and the surface of the heat insulation part facing the housing part. - a heat insulation part made of a non-flammable material which is arranged on a housing part of the housing on an outer wall surface, in order, in the event of a fire in the interior space, to attenuate the heat flow into an adjacent exterior space, wherein - the heat insulation part is connected to the housing part by means of a substance-to-substance bond and a fire-resistant, form-fit connection,
A computer-implemented method comprising: converting a first executable application binary into a dynamic library; bundling, in a managing application, the dynamic library, one or more resource files associated with the first executable application binary, a management policy, and a second executable application binary configured to invoke the dynamic library and manage operation of the dynamic library by applying the management policy during execution of the dynamic library; and providing the managing application to a computing device for installation. converting a first executable application binary into a dynamic library; bundling, in a managing application, the dynamic library, one or more resource files associated with the first executable application binary, a management policy, and a second executable application binary configured to invoke the dynamic library and manage operation of the dynamic library by applying the management policy during execution of the dynamic library; and providing the managing application to a computing device for installation.
Measuring arrangement with - at least two measurement inputs (22a-c) for the capture of signals of alternating electrical magnitudes; - a sampling apparatus that is arranged following the measurement inputs (22a-c) with which a sampling of the signals is performed while forming digital sample values; and - a clock tracking apparatus that performs an adaptation of a sampling clock used by the sampling apparatus for the sampling in the light of the frequency of the signal to be sampled; wherein - the sampling apparatus is configured to sample at least two of the signals, each with its own sampling clock, wherein the clock tracking apparatus is configured to perform an adaptation of the sampling clock in the light of the frequency of the signal to be sampled simultaneously for each of these at least two signals, wherein - the measuring arrangement is part of a device for the observation, monitoring and/or protection of an electrical energy supply network; characterized in that - the measurement inputs (22a-c) are divided into different tracking groups, wherein respective measurement inputs (22a-c) of such signals whose frequencies, as a result of the particular features of the energy supply network, match are grouped into the same tracking group; and - the clock tracking apparatus is configured to perform an adaptation of the sampling clock for each tracking group. - at least two measurement inputs (22a-c) for the capture of signals of alternating electrical magnitudes; - a sampling apparatus that is arranged following the measurement inputs (22a-c) with which a sampling of the signals is performed while forming digital sample values; and - a clock tracking apparatus that performs an adaptation of a sampling clock used by the sampling apparatus for the sampling in the light of the frequency of the signal to be sampled; wherein - the sampling apparatus is configured to sample at least two of the signals, each with its own sampling clock, wherein the clock tracking apparatus is configured to perform an adaptation of the sampling clock in the light of the frequency of the signal to be sampled simultaneously for each of these at least two signals, wherein - the measuring arrangement is part of a device for the observation, monitoring and/or protection of an electrical energy supply network; characterized in that - the measurement inputs (22a-c) are divided into different tracking groups, wherein respective measurement inputs (22a-c) of such signals whose frequencies, as a result of the particular features of the energy supply network, match are grouped into the same tracking group; and - the clock tracking apparatus is configured to perform an adaptation of the sampling clock for each tracking group.
An oven comprising: a main body; a cooking chamber provided inside the main body and having an open front surface; a door rotatably installed on the main body to open or close the cooking chamber; and a contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) formed on a part of an inner surface of the cooking chamber to prevent contamination of the cooking chamber, and characterized in that the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) has a lipophilic property, and the remaining portions of the inner surface of the cooking chamber except for the portions in which the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) is formed are coated with a material having oil repellency so that the contaminants are concentrated in the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400). a main body; a cooking chamber provided inside the main body and having an open front surface; a door rotatably installed on the main body to open or close the cooking chamber; and a contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) formed on a part of an inner surface of the cooking chamber to prevent contamination of the cooking chamber, and characterized in that the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) has a lipophilic property, and the remaining portions of the inner surface of the cooking chamber except for the portions in which the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400) is formed are coated with a material having oil repellency so that the contaminants are concentrated in the contaminant collection layer (300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300, 1400).
Fuel injection device, particularly a fuel injection device for a fuel reformer for generating hydrogen rich gas from hydrocarbon fuel, having a heating device for heating the hydrocarbon fuel, characterized in that the fuel injection device further comprises a cooling device (26, 28, 30, 32) for cooling the outside of the fuel injection device, a fuel injection device inlet for receiving hydrocarbon fuel, a fuel injection device socket, which is preferably adapted to be mounted to a fuel reformer, and a fuel injection device outlet for releasing hydrocarbon fuel, preferably into a fuel reformer, wherein the fuel injection device further comprise a fuel directing element for directing a hydrocarbon fuel flow from the fuel injection device inlet to the fuel injection device outlet, wherein the heating device and the cooling device (26, 28, 30, 32) are simultaneously operable so that a temperature of the hydrocarbon fuel is controllable to be within a predetermined temperature range, and wherein the heating device is covered by a cover element and the cooling device (26, 28, 30, 32) is arranged outside of the cover element, wherein a thermal insulation layer is arranged between the heating device and the cover element, which is adapted to thermally insulate the heating device from the cooling device (26, 28, 30, 32).
A method for preparing a ceramic powder from a mixture of precursors of said powder and in the presence of at least one carbon source, comprising at least the following steps: a) homogenizing precursor particles - via solvent route using a mechanofusion device by HOSOKAWA Japan, in the presence of the carbon source and of a solvent to obtain an intimate mixture - able to result in a ceramic via heat treatment; b) removing the solvent from the intimate mixture obtained at step a); and c) carbonizing the residual carbon source present in the intimate mixture of precursors obtained at step b) when the carbon source is not essentially composed of carbon, by heat treatment of said intimate mixture obtained at step b), to obtain a ceramic powder; and d) removing residual carbon from the ceramic powder in the presence of an oxygen source. a) homogenizing precursor particles - via solvent route using a mechanofusion device by HOSOKAWA Japan, in the presence of the carbon source and of a solvent to obtain an intimate mixture - able to result in a ceramic via heat treatment; b) removing the solvent from the intimate mixture obtained at step a); and c) carbonizing the residual carbon source present in the intimate mixture of precursors obtained at step b) when the carbon source is not essentially composed of carbon, by heat treatment of said intimate mixture obtained at step b), to obtain a ceramic powder; and d) removing residual carbon from the ceramic powder in the presence of an oxygen source.
A method for destroying at least one pyrotechnic compound, comprising thermally treating a charge consisting essentially of said at least one pyrotechnic compound or of an aqueous sludge containing said at least one pyrotechnic compound or of an aqueous solution containing said at least one pyrotechnic compound, said sludge or aqueous solution being capable of further containing organic materials, such that it comprises: - forming a mixture by adding to said charge a powder material in a suitable amount for ensuring the inerting of said at least one pyrotechnic compound present, considered in the dry state, the mass of said amount representing at least 85% of the sum of the masses of said at least one dry pyrotechnic compound and of said added powder material; said powder material having a melting or decomposition temperature higher than the maximum implementation temperature of said method, and - thermally treating said mixture in a furnace, at a sufficiently high temperature to lead to the destruction of said at least one pyrotechnic compound; said thermal treatment being carried out, according to a first variant, under aerobic conditions at a temperature at least 100°C higher than the decomposition temperature of said at least one pyrotechnic compound, said powder material being in this case a mineral material, or, according to a second variant, under anaerobic or near-anaerobic conditions, at a temperature equal to or slightly higher than, by at most 50°C, the decomposition temperature of said at least one pyrotechnic compound, said powder material being in this case a mineral and/or organic material. - forming a mixture by adding to said charge a powder material in a suitable amount for ensuring the inerting of said at least one pyrotechnic compound present, considered in the dry state, the mass of said amount representing at least 85% of the sum of the masses of said at least one dry pyrotechnic compound and of said added powder material; said powder material having a melting or decomposition temperature higher than the maximum implementation temperature of said method, and - thermally treating said mixture in a furnace, at a sufficiently high temperature to lead to the destruction of said at least one pyrotechnic compound; said thermal treatment being carried out, according to a first variant, under aerobic conditions at a temperature at least 100°C higher than the decomposition temperature of said at least one pyrotechnic compound, said powder material being in this case a mineral material, or, according to a second variant, under anaerobic or near-anaerobic conditions, at a temperature equal to or slightly higher than, by at most 50°C, the decomposition temperature of said at least one pyrotechnic compound, said powder material being in this case a mineral and/or organic material.
A heating device comprising: a rotator (20, 97, 120); an electrical conductor in contact with an inner surface of the rotator (20, 97, 120); a heater; a first facing member (24, 96, 260) having a first facing surface (24d, 24e, 96a, 260b1, 260d) facing a first surface of the conductor; and a second facing member (26, 24, 260, 261) having a second facing surface (26a, 24f, 260c, 260b2, 23e, 261b1, 260c) facing a second surface opposite the first surface of the conductor, wherein the first facing member (24, 96, 260) and the second facing member (26, 24, 260, 261) are configured to regulate inclination of the conductor; and wherein the second facing member includes a plurality of guide ribs each having a convex guide surface in contact with the inner surface of the rotator (20, 97, 120). a rotator (20, 97, 120); an electrical conductor in contact with an inner surface of the rotator (20, 97, 120); a heater; a first facing member (24, 96, 260) having a first facing surface (24d, 24e, 96a, 260b1, 260d) facing a first surface of the conductor; and a second facing member (26, 24, 260, 261) having a second facing surface (26a, 24f, 260c, 260b2, 23e, 261b1, 260c) facing a second surface opposite the first surface of the conductor, wherein the first facing member (24, 96, 260) and the second facing member (26, 24, 260, 261) are configured to regulate inclination of the conductor; and wherein the second facing member includes a plurality of guide ribs each having a convex guide surface in contact with the inner surface of the rotator (20, 97, 120).
A display (10, 30) having a display face providing a view of images, the display comprising: a waveguide (12, 42) having a photoluminescent image (16, 46) optically coupled to a surface of said waveguide; a first light source (14, 44) associated with said waveguide, said first light source adapted to transmit light at a wavelength less than 450 nm through said waveguide, causing said photoluminescent image to emit visible light; a second light source (22, 52) adapted, when activated, to illuminate at least one of an image or a physical object such that a second image is visible at the display face of said display, wherein the second image is at least one of provided by the image or provided by the physical object; and a light filter positioned between said waveguide and the at least one of the image or the physical object, wherein said light filter is configured to reduce visibility of the second image at the display face when said second light source is not activated. a waveguide (12, 42) having a photoluminescent image (16, 46) optically coupled to a surface of said waveguide; a first light source (14, 44) associated with said waveguide, said first light source adapted to transmit light at a wavelength less than 450 nm through said waveguide, causing said photoluminescent image to emit visible light; a second light source (22, 52) adapted, when activated, to illuminate at least one of an image or a physical object such that a second image is visible at the display face of said display, wherein the second image is at least one of provided by the image or provided by the physical object; and a light filter positioned between said waveguide and the at least one of the image or the physical object, wherein said light filter is configured to reduce visibility of the second image at the display face when said second light source is not activated.
A stabilized glycerin-in-oil emulsion comprising: (i) a continuous phase comprising one or more topically-acceptable oils, (ii) a discontinuous phase comprising glycerin as the major component, and (iii) a combination of trihydroxystearin and 12-hydroxystearic acid in an amount suitable to provide a viscosity for the emulsion at room temperature between 2000 centipoise and 3 million centipoise; wherein the weight ratio of trihydroxystearin to 12-hydroxystearic acid is from 5:1 to 1:2, wherein said emulsion has improved stability compared to an otherwise identical emulsion not containing trihydroxystearin and/or 12-hydroxystearic acid. (i) a continuous phase comprising one or more topically-acceptable oils, (ii) a discontinuous phase comprising glycerin as the major component, and (iii) a combination of trihydroxystearin and 12-hydroxystearic acid in an amount suitable to provide a viscosity for the emulsion at room temperature between 2000 centipoise and 3 million centipoise;