mhurhangee/ep-ind-claims huggingface dataset:
A cladding system for a roof covering wherein the pattern of the covering mantle has a three-dimensional effect, said cladding system comprising laminated bituminous tiles, wherein each laminated bituminous tile (10, 20, 30, 40) is of the type composed of two composite layers having the same length and height, coupled and overlapping staggered in the longitudinal direction, said two composite layers being respectively, the band (100, 200, 300, 400), consisting of at least one support material on which is deposited a layer of organic or inorganic waterproof material coated with a finishing layer with properties of UV protection of the waterproofing layer, and the decorative fret (110, 210, 310, 410), said first and second composite layer having lateral edges forming opposite tile heads (11,12),said first and second composite layer being coupled so as to be staggered with respect to the longitudinal direction of said laminated bituminous tile (10, 20, 30, 40) so as to obtain for each head (11, 12) an out-edging lip (108, 118), (208, 218), (308, 318), (408, 418), respectively a fret lip (118, 218, 318, 418) in correspondence of a first head, and a band lip (108, 208, 308, 408) in correspondence of the opposite head, wherein said cladding system and its covering mantle is obtained by combining sideways and overlapping the lip (108, 118), (208, 218), (308, 318), (408, 418) of at least the band (100, 200, 300, 400) and the fret (110, 210, 310, 410) of each contiguous laminated bituminous tile (10, 20 30, 40) of the same type in a first course of laminated bituminous tile contiguous (10, 20, 30, 40) and wherein said first course of contiguous laminated bituminous tiles (10, 20, 30, 40), upstream of the line of pose, is superimposed by a same second upstream course of laminated contiguous bituminous tiles (10, 20, 30, 40), in such a way that the area of exposure of each laminated bituminous tile (10, 20, 30, 40) of said first downstream course, is greater than 55% of the total area of each laminated bituminous tile (10, 20, 30, 40), characterised in that at least one of said band lip (108, 208, 308, 408) and said fret lip (118, 218, 318, 418) is provided with an adhesive pad for sealing said overlap between the fret lip and the band lip of two contiguous laminated bituminous tiles.
Method for generating a software component for an electronic computing device of a motor vehicle by means of a motor-vehicle-external updating system, in which method the software component is generated on the basis of a configuration write sequence, a configuration read sequence and a configuration rule system by means of a motor-vehicle-external electronic computing device of the motor-vehicle-external updating system, wherein the configuration rule system is generated on the basis of a configuration data set, wherein the configuration data set is generated on the basis of a vehicle equipment options list and a technical feature composition for the motor vehicle.
A hydraulic down-the-hole hammer comprising: an elongate shaft; a piston having a central bore therethrough, the piston slidably mounted for reciprocal movement on the shaft and arranged to impact a percussion bit, wherein forward and rear drive chambers for the piston are disposed between the piston and the shaft and wherein the forward chamber is separated from the rear chamber by an annular shoulder formed internally of the piston bore; and a control valve to control reciprocation of the piston, wherein the control valve is arranged within the central bore of the piston. an elongate shaft; a piston having a central bore therethrough, the piston slidably mounted for reciprocal movement on the shaft and arranged to impact a percussion bit, wherein forward and rear drive chambers for the piston are disposed between the piston and the shaft and wherein the forward chamber is separated from the rear chamber by an annular shoulder formed internally of the piston bore; and a control valve to control reciprocation of the piston, wherein the control valve is arranged within the central bore of the piston.
A method for producing high-purity trichlorosilane by removing methyldichlorosilane from a mixture containing methyldichlorosilane (CH 3 HSiCl2), tetrachlorosilane (SiCl 4), and trichlorosilane (HSiCl 3), comprising the following procedures A, B, and C: A: a procedure of distilling the mixture so as to fractionate a fraction (Mhm) having a higher content of methyldichlorosilane in comparison with the mixture; B: a procedure of adding a tetrachlorosilane to the fraction (Mhm) and treating a resulting mixture (Mmt) with a catalyst for redistributing chlorine atoms to redistribute chlorine atoms between methyldichlorosilane and tetrachlorosilane so as to convert methyldichlorosilane and tetrachlorosilane into trichlorosilane and methyltrichlorosilane (CH 3 SiCl 3); and C: a procedure of distilling the mixture (Mdc) obtained in the procedure B so as to separate and remove a fraction containing methyltrichlorosilane at a high concentration, wherein a tertiary amine is used as the catalyst for redistributing the chlorine atoms under conditions at a temperature of 40 to 80°C in the procedure B. A: a procedure of distilling the mixture so as to fractionate a fraction (Mhm) having a higher content of methyldichlorosilane in comparison with the mixture; B: a procedure of adding a tetrachlorosilane to the fraction (Mhm) and treating a resulting mixture (Mmt) with a catalyst for redistributing chlorine atoms to redistribute chlorine atoms between methyldichlorosilane and tetrachlorosilane so as to convert methyldichlorosilane and tetrachlorosilane into trichlorosilane and methyltrichlorosilane (CH 3 SiCl 3); and C: a procedure of distilling the mixture (Mdc) obtained in the procedure B so as to separate and remove a fraction containing methyltrichlorosilane at a high concentration, wherein
A steel sheet consisting of, as a chemical composition, by mass%: C: 0.040% to 0.105%; Mn: 1.00% to 2.30%; Si: 0.005% to 1.500%; Al: 0.005% to 0.700%; P: 0.100% or less; S: 0.0200% or less; N: 0.0150% or less; O: 0.0100% or less; Cr: 0% to 0.80%; Mo: 0% to 0.16%; Ti: 0% to 0.100%; B: 0% to 0.0100%; Nb: 0% to 0.060%; V: 0% to 0.50%; Ni: 0% to 1.00%; Cu: 0% to 1.00%; W: 0% to 1.00%; Sn: 0% to 1.00%; Sb: 0% to 0.200%; Ca: 0% to 0.0100%; Mg: 0% to 0.0100%; Zr: 0% to 0.0100%; REM: 0% to 0.0100%; and a remainder: Fe and impurities, wherein ΔC that is calculated from C 20, which is a C content at a 20 μm depth position from a surface, C 60, which is a C content at a 60 μm depth position from the surface, and the following expression is in a range of 0.20 to 0.90 mass%/mm, and a tensile strength is 500 MPa or more, ΔC = C 60 − C 20 / 0.04 wherein C 60 and C 20 are determined in accordance with the description. C: 0.040% to 0.105%; Mn: 1.00% to 2.30%; Si: 0.005% to 1.500%; Al: 0.005% to 0.700%; P: 0.100% or less; S: 0.0200% or less; N: 0.0150% or less; O: 0.0100% or less; Cr: 0% to 0.80%; Mo: 0% to 0.16%; Ti: 0% to 0.100%; B: 0% to 0.0100%; Nb: 0% to 0.060%; V: 0% to 0.50%; Ni: 0% to 1.00%; Cu: 0% to 1.00%; W: 0% to 1.00%; Sn: 0% to 1.00%; Sb: 0% to 0.200%; Ca: 0% to 0.0100%; Mg: 0% to 0.0100%; Zr: 0% to 0.0100%; REM: 0% to 0.0100%; and a remainder: Fe and impurities, wherein ΔC that is calculated from C 20, which is a C content at a 20 μm depth position from a surface, C 60, which is a C content at a 60 μm depth position from the surface, and the following expression is in a range of 0.20 to 0.90 mass%/mm, and a tensile strength is 500 MPa or more, ΔC = C 60 − C 20 / 0.04
A method for producing a phenylacetamide compound represented by formula: wherein Q represents a hydrogen atom or a halogen atom, and Ar represents a phenyl group which may be unsubstituted or substituted with alkyl having 1 to 4 carbon atoms or halogen; comprising reacting a mandelonitrile compound represented by formula: wherein Q and Ar have the same meanings as defined above; with 0.1 to 1 mol of hydrogen chloride and 1 to 4 mol of water, based on 1 mol of the mandelonitrile compound. wherein Q and Ar have the same meanings as defined above; with 0.1 to 1 mol of hydrogen chloride and 1 to 4 mol of water, based on 1 mol of the mandelonitrile compound.
Capsule which is intended to receive a substance for the preparation of a beverage when the capsule is installed in a machine of the coffee or infusion machine type in order to be retained at that location by a piston while the extraction liquid passes through the capsule and the substance which it contains after the base has been pierced by the spikes of the piston which are distributed in a circle centred on the axis of the housing which receives the capsule, * the capsule having a base and a lateral wall which are generally inscribed within a truncated cone and a rim which is covered by a lid after the substance has been loaded into the capsule, and the base is formed by - a reinforced central disc, - a reinforced external ring which is connected to the lateral wall by a base cone, which capsule is characterised in that the base is also formed by - an intermediate ring between the central disc and the outer ring formed by a wall of reduced thickness compared with the reinforced thickness of the central disc and the external ring, in the annular ring in which the spikes of the piston of the machine are located, - radial ribs which connect the central disc and the external ring whilst being fixedly joined to the inner side of the intermediate ring without exceeding the outer surface of the base, in which surface the external edge of the ribs is integrated. * the capsule having a base and a lateral wall which are generally inscribed within a truncated cone and a rim which is covered by a lid after the substance has been loaded into the capsule, and the base is formed by - a reinforced central disc, - a reinforced external ring which is connected to the lateral wall by a base cone, which capsule is characterised in that the base is also formed by - an intermediate ring between the central disc and the outer ring formed by a wall of reduced thickness compared with the reinforced thickness of the central disc and the external ring, in the annular ring in which the spikes of the piston of the machine are located, - radial ribs which connect the central disc and the external ring whilst being fixedly joined to the inner side of the intermediate ring without exceeding the outer surface of the base, in which surface the external edge of the ribs is integrated. - a reinforced central disc, - a reinforced external ring which is connected to the lateral wall by a base cone, - an intermediate ring between the central disc and the outer ring formed by a wall of reduced thickness compared with the reinforced thickness of the central disc and the external ring, in the annular ring in which the spikes of the piston of the machine are located, - radial ribs which connect the central disc and the external ring whilst being fixedly joined to the inner side of the intermediate ring without exceeding the outer surface of the base, in which surface the external edge of the ribs is integrated.
A fuel cell, comprising: a membrane electrode assembly including an electrolyte membrane, an anode disposed on one side of the electrolyte membrane, and a cathode disposed on the other side of the electrolyte membrane; a porous passage that is disposed on at least one side of the membrane electrode assembly, and through which a fuel gas is supplied to the anode or an oxidant gas is supplied to the cathode; and a manifold portion (18a, 20a), through which the fuel gas or the oxidant gas is supplied to the porous passage, and that is provided so as to pass through the fuel cell in a stacking direction, in which the electrolyte membrane, the anode, the cathode, and the porous passage are stacked, wherein a manifold portion-side end portion of the porous passage has a gas inlet at at least one of stacking surfaces of the porous passage that face in the stacking direction, the fuel cell characterized by further comprising: a sealing member that is disposed between an outer end surface of the membrane electrode assembly and the manifold portion (18a, 20a); and a shield member that is disposed between the sealing member and the porous passage, wherein a manifold portion-side end portion of the shield member extends further outward, with respect to the fuel cell, than a manifold portion-side end portion of the sealing member. a membrane electrode assembly including an electrolyte membrane, an anode disposed on one side of the electrolyte membrane, and a cathode disposed on the other side of the electrolyte membrane; a porous passage that is disposed on at least one side of the membrane electrode assembly, and through which a fuel gas is supplied to the anode or an oxidant gas is supplied to the cathode; and a manifold portion (18a, 20a), through which the fuel gas or the oxidant gas is supplied to the porous passage, and that is provided so as to pass through the fuel cell in a stacking direction, in which the electrolyte membrane, the anode, the cathode, and the porous passage are stacked, wherein a manifold portion-side end portion of the porous passage has a gas inlet at at least one of stacking surfaces of the porous passage that face in the stacking direction, the fuel cell characterized by further comprising: a sealing member that is disposed between an outer end surface of the membrane electrode assembly and the manifold portion (18a, 20a); and a shield member that is disposed between the sealing member and the porous passage, wherein a manifold portion-side end portion of the shield member extends further outward, with respect to the fuel cell, than a manifold portion-side end portion of the sealing member. a sealing member that is disposed between an outer end surface of the membrane electrode assembly and the manifold portion (18a, 20a); and a shield member that is disposed between the sealing member and the porous passage, wherein a manifold portion-side end portion of the shield member extends further outward, with respect to the fuel cell, than a manifold portion-side end portion of the sealing member.
Selective catalytic reduction system for reducing nitric oxides emission levels from a compression ignition engine, comprising a first reductant injector located upstream a first catalyst comprising a selective catalytic reduction coating; a second reductant injector located downstream the first catalyst; and a second catalyst placed downstream the second reductant injector and comprising a selective catalytic reduction coating; characterized by the first catalyst comprising a filter function to trap particles formed by the compression ignition combustion; and by a means located upstream any of the components (210, 200, 300, 310) comprised in the selective catalytic reduction system, said means being arranged to manage the temperature, and thus the performance window, of the selective catalytic reduction system.
An expression style processing method for a portable radio communication terminal which transmits/receives a multimedia content formed from an object having character data, image data, or voice data through a network (2, 5) including a radio data communication network, comprising the steps of: storing a plurality of objects; generating an expression style format for expressing the stored objects; and storing the generated expression style format, characterized in that said method further comprises the steps of downloading a description language including a superposition expression of a plurality of objects through the network, superposing and displaying a plurality of objects each formed from at least one of image data and character data and the objects used in the superposition expression of the downloaded description language in a single window, and synthesizing the plurality of objects and objects superposed and displayed to generate one new image data, and the step of storing a plurality of objects comprises the step of storing the image data obtained by synthesis as a new object. storing a plurality of objects; generating an expression style format for expressing the stored objects; and storing the generated expression style format, characterized in that said method further comprises the steps of downloading a description language including a superposition expression of a plurality of objects through the network, superposing and displaying a plurality of objects each formed from at least one of image data and character data and the objects used in the superposition expression of the downloaded description language in a single window, and synthesizing the plurality of objects and objects superposed and displayed to generate one new image data, and the step of storing a plurality of objects comprises the step of storing the image data obtained by synthesis as a new object.
An arrangement for recycling mineral wool waste to mineral wool production comprising a. at least one melting furnace (12, 12', 12", 12′′′) for melting virgin mineral wool raw material, the melting furnace comprising an inlet for virgin mineral wool raw material and an outlet for molten mineral wool material, b. a production line connected to the outlet for molten mineral wool material for producing a mineral wool product from the molten mineral wool material, wherein the production line comprises a curing oven, c. a fluidized bed reactor (32, 76) comprising an exhaust gas duct, an inlet for predetermined primary fuel, an inlet for predetermined bed material and an outlet for an ash material, the ash material comprising bottom ash discharged via a bottom outlet from the fluidized bed reactor (32, 76) or fly ash separated by a particle separator from exhaust gas in the exhaust gas duct or a mixture of the bottom ash and the fly ash, together with particles of bed material removed from the fluidized bed reactor, characterized in that the fluidized bed reactor comprises an inlet for mineral wool waste, whereby the ash material comprises fine mineral wool material powdered from the mineral wool waste in the fluidized bed reactor (32, 76), and the melting furnace (12, 12', 12", 12′′′) has a further inlet for the ash material so as to use the ash material as a further mineral wool raw material. a. at least one melting furnace (12, 12', 12", 12′′′) for melting virgin mineral wool raw material, the melting furnace comprising an inlet for virgin mineral wool raw material and an outlet for molten mineral wool material, b. a production line connected to the outlet for molten mineral wool material for producing a mineral wool product from the molten mineral wool material, wherein the production line comprises a curing oven, c. a fluidized bed reactor (32, 76) comprising an exhaust gas duct, an inlet for predetermined primary fuel, an inlet for predetermined bed material and an outlet for an ash material, the ash material comprising bottom ash discharged via a bottom outlet from the fluidized bed reactor (32, 76) or fly ash separated by a particle separator from exhaust gas in the exhaust gas duct or a mixture of the bottom ash and the fly ash, together with particles of bed material removed from the fluidized bed reactor,
A molecular sieve SCM-15, characterized in that the molecular sieve, particularly in its prepared form or calcined form, has an X-ray diffraction spectrum including the peaks as shown in Table A-1 or Table A-2 below, TABLE A-1 2θ (°) (a) d-distance (Å) (b) Relative intensity (I/I 0 ×100) 4.811 18.353 w 6.571 13.441 m-vs 6.888 12.823 m-s 9.675 9.134 m-vs 9.894 8.933 m-vs 19.888 4.461 w-m (a)=±0.3°, (b) is a function of 2θ, TABLE A-2 2θ (°) (a) d-distance (Å) Relative intensity (I/I 0 ×100) 4.811 18.424±1.148 w 6.571 13.468±0.614 m-vs 6.888 12.847±0.559 m-s 9.675 9.143±0.283 m-vs 9.894 8.941±0.270 m-vs 19.888 4.462±0.067 w-m (a) = ±0.3°, wherein the molecular sieve has a schematic chemical composition of formula "SiO 2 ·GeO 2 ", wherein the molar ratio of silicon to germanium satisfies SiO 2 /GeO 2 ≥1.
A method of fabricating individually fixed nanochains with a magnetically responsive photonic property comprising: coating a plurality of colloidal nanoclusters with a layer of silica; applying a magnetic field to the plurality of colloidal nanoclusters to assemble the colloidal nanoclusters into one or more photonic chains; and overcoating each of the one or more photonic chains with an additional layer of silica, which fixes and wraps each of the one or more photonic chains within a silica shell. coating a plurality of colloidal nanoclusters with a layer of silica; applying a magnetic field to the plurality of colloidal nanoclusters to assemble the colloidal nanoclusters into one or more photonic chains; and overcoating each of the one or more photonic chains with an additional layer of silica, which fixes and wraps each of the one or more photonic chains within a silica shell.
A cold-rolled steel sheet comprising: 0.03 wt% to 0.06 wt% of carbon, 0.3 wt% or less of silicon (Si) and including 0 wt%, 2.0 wt% to 3.0 wt% of manganese (Mn), 0.01 wt% to 0.10 wt% of soluble aluminum (Sol.Al), 0.3 wt% to 1.2 wt% of chromium (Cr), 0.03 wt% to 0.08 wt% of titanium (Ti), 0.01 wt% to 0.05 wt% of niobium (Nb), 0.0010 wt% to 0.0050 wt% of boron, 0.001 wt% to 0.10 wt% of phosphorous, 0.010 wt% or less of sulfur and including 0 wt%, 0.010 wt% or less of nitrogen and including 0 wt%, and the balance being iron (Fe) and other impurities, and having a microstructure consisting of 75% or more to less than 87% by area of a transformed structure and 13% to 25% by area of ferrite, wherein the transformed structure consists of martensite and bainite, the martensite has an average particle diameter of 2 μm or less, the bainite has an average particle diameter of 3 μm or less, the bainite fraction of 3 μm or more is 5% or less, and the interphase hardness ratio is 1.4 or less, and wherein the interphase hardness ratio is a hardness ratio between the transformed structure and ferrite, and wherein the steel sheet has a yield ratio of 0.8 or more, tensile strength of 780 MPa or more, yield strength of 650 MPa or more, elongation of 12% or more, R/t of 0.5 or less and a hole expansion ratio of 65% or more, wherein all mechanical properties are measured according to the description.