mhurhangee/ep-ind-claims huggingface dataset:
A casting core containing sand, binder and resorcinol-formaldehyde aerogel granules, wherein the proportion of the aerogel granules is within a range of from 0.18 to 0.93% by weight, and the proportions of sand, binder, aerogel granules and optionally the proportions of further ingredients add up to 100% by weight.
A blade for a turbomachine bladed wheel, the blade comprising an airfoil having a pressure side and a platform extending from one of the ends of the airfoil in a direction that is generally perpendicular to a longitudinal direction of the airfoil, the platform including at least one air injection passage, said blade being characterized in that the platform includes a groove (40, 140, 240) running along the pressure side in the vicinity at least of a downstream portion thereof, said at least one air injection passage being formed in said groove.
A method for waveform shaping in a wireless communications device, comprising: shifting a first plurality of tones and a second plurality of tones of a multi-tone carrier in frequency; transforming the first plurality of tones from frequency domain to time domain; transforming the second plurality of tones from frequency domain to time domain, wherein the second plurality of tones does not overlap with the first plurality of tones; transforming a third plurality of tones of the multi-tone carrier from frequency domain to time domain, wherein the third plurality of tones is between the first and second pluralities of tones; processing the transformed first plurality of tones using a first waveform shaping characteristic to provide a first sub-symbol; processing the transformed second plurality of tones using a second waveform shaping characteristic to provide a second sub-symbol, wherein the first and second waveform shaping characteristics are different from each other; rotating the first sub-symbol and the second sub-symbol in phase; processing the transformed third plurality of tones using a third waveform shaping characteristic to provide a third sub-symbol; and combining the rotated first sub-symbol, the rotated second sub-symbol, and the third sub-symbol to provide an output symbol. shifting a first plurality of tones and a second plurality of tones of a multi-tone carrier in frequency; transforming the first plurality of tones from frequency domain to time domain; transforming the second plurality of tones from frequency domain to time domain, wherein the second plurality of tones does not overlap with the first plurality of tones; transforming a third plurality of tones of the multi-tone carrier from frequency domain to time domain, wherein the third plurality of tones is between the first and second pluralities of tones; processing the transformed first plurality of tones using a first waveform shaping characteristic to provide a first sub-symbol; processing the transformed second plurality of tones using a second waveform shaping characteristic to provide a second sub-symbol, wherein the first and second waveform shaping characteristics are different from each other; rotating the first sub-symbol and the second sub-symbol in phase; processing the transformed third plurality of tones using a third waveform shaping characteristic to provide a third sub-symbol; and combining the rotated first sub-symbol, the rotated second sub-symbol, and the third sub-symbol to provide an output symbol.
The cosmetic use of a compound chosen from the compounds of following formula and salts thereof, in their dextrorotatory (+) form: in which R 4 represents a hydrogen atom, an n-butyl radical, an unsubstituted phenyl radical, an unsubstituted phenethyl radical or a COOR group, where R = Na, H, methyl or ethyl, and R 5 is chosen from a hydrogen atom, the methyl, ethyl, isopropyl, n-propyl, n-butyl, i-butyl and t-butyl radicals, the -C 5 H 11 radical, the -C 9 H 19 radical, CH 2 CCH, Ph, PhCH 2, PhCH 2 CH 2, a (linear C 3 to C 12 alkyl)-CF 3 radical, a linear C 2 to C 13 alkyl radical with an unsaturation, in the terminal or non-terminal position, and (CH 2) 13 COR 6 where R 6 = OCH 3, OH or CH 3, and the compounds of formula and salts thereof, in their levorotatory (-) form, in which R 4 is as previously described and R 5 is a linear or branched C 1 to C 5 alkyl radical, as an agent for depigmenting the skin and/or the appendages. in which R 4 represents a hydrogen atom, an n-butyl radical, an unsubstituted phenyl radical, an unsubstituted phenethyl radical or a COOR group, where R = Na, H, methyl or ethyl, and R 5 is chosen from a hydrogen atom, the methyl, ethyl, isopropyl, n-propyl, n-butyl, i-butyl and t-butyl radicals, the -C 5 H 11 radical, the -C 9 H 19 radical, CH 2 CCH, Ph, PhCH 2, PhCH 2 CH 2, a (linear C 3 to C 12 alkyl)-CF 3 radical, a linear C 2 to C 13 alkyl radical with an unsaturation, in the terminal or non-terminal position, and (CH 2) 13 COR 6 where R 6 = OCH 3, OH or CH 3,
System for driving motors for operating switching units, in particular for an electrical supply substation, comprising control units (1000, 1001, 1002, 1003, 1004, 1005,...) for controlling said motors, characterized in that it comprises, to have only one of said motors in operation at a time, a device for managing the priority of operation of the motors which is provided with a first line, referred to as the parallel line, carrying a binary datum comprising a first state representative of the stopping of all of the motors and a second state representative of the operation of any one of the motors, to which the units are connected in parallel, said parallel line being connected to a device for preventing the starting of the motor of each of the units and a second line, referred to as the series line, to which the units (1001, 1002, 1003,...) are connected in series in an upstream/downstream chain, said series line constituting a means for inhibiting the operation of the motors downstream of said any one of said motors on detection of a signal for starting said any one of said motors, to which the units are connected in series, said series line being connected to a device (106A, 106B, 106C) for inhibiting the operation of the motor of each of the units.
A multi-cavity oven comprising: a housing having inner walls (19, 21) defining an oven cavity; at least one removable shelf fitting within the oven cavity and providing an upper and lower passageway through the removable shelf communicating respectively with upwardly directed and downwardly directed air jets of the removable shelf, the shelf separating the oven cavity into an upper and lower cooking chamber (20a, 20b); a first and second air outlet (42, 44) through an inner wall of the oven cavity and communicating with the upper and lower passageways of the removable shelf respectively when the removable shelf is installed within the oven cavity, wherein: said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets. a housing having inner walls (19, 21) defining an oven cavity; at least one removable shelf fitting within the oven cavity and providing an upper and lower passageway through the removable shelf communicating respectively with upwardly directed and downwardly directed air jets of the removable shelf, the shelf separating the oven cavity into an upper and lower cooking chamber (20a, 20b); a first and second air outlet (42, 44) through an inner wall of the oven cavity and communicating with the upper and lower passageways of the removable shelf respectively when the removable shelf is installed within the oven cavity, wherein: said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets. said upper and lower passageways are horizontally extending passageways; and said air jets are directed outwardly along one horizontal surface of the removable shelf; characterized in that said multi-cavity oven further comprises: a removable baffle plate fitting within the removable shelf to define one side of a horizontally extending passageway, the baffle plate when fit within the removable shelf having a curve to provide a reduced cross-sectional area of the horizontally extending passageway as one moves away from the air outlet to provide more uniform airflow through the air jets.
A hair styling device (10; 210) comprising a first member (12; 212) and a second member (14; 214), the first and second members being moveable relative to one another between an operative condition and an inoperative condition, the first member (12; 212) having a first heating panel (16; 116; 216) and the second member (14; 214) having a second heating panel (18; 118; 218), the first and second heating panels (16, 18; 116, 118; 216, 218) being corrugated with the peaks and troughs of the first heating panel (16; 116; 216) facing the troughs and peaks respectively of the second heating panel (18; 118; 218), the first and second heating panels being adapted to heat a length of hair as the length of hair moves therebetween in use, the first and second heating panels (16,18; 116,118; 216,218) being closer together in the operative condition than in the inoperative condition, characterised in that the first and second heating panels are spaced apart in the operative condition, in that the first member (12; 212) also has a first pressing panel (26; 126; 226) and the second member (14; 214) also has a second pressing panel (28; 128; 228), and in that the first and second pressing panels are closer together than the heating panels in the operative condition.
A method of communication, comprising: determining transmission parameters for communication with an apparatus, wherein the determined transmission parameters comprise a number of spatial streams, a bandwidth, and a modulation and coding scheme; identifying a table of a set of tables of transmission parameters, wherein the identification of the table is based on the number of spatial streams and the bandwidth; determining an index from the identified table, wherein the determination of the index is based on the modulation and coding scheme, MCS; the method being characterised by: transmitting a frame to the apparatus, wherein the frame contains indications of: the index, the number of spatial streams, and the bandwidth, wherein: the frame comprises a Rate Identification field; the Rate Identification field comprises a first field and a second field; and the first field indicates whether the second field specifies the index in accordance with an IEEE 802.11 High Throughput, HT, MCS or in accordance with an IEEE 802.11 Very High Throughput,VHT, format, and wherein, for VHT, the index indicates the number of spatial streams and the MCS index determining transmission parameters for communication with an apparatus, wherein the determined transmission parameters comprise a number of spatial streams, a bandwidth, and a modulation and coding scheme; identifying a table of a set of tables of transmission parameters, wherein the identification of the table is based on the number of spatial streams and the bandwidth; determining an index from the identified table, wherein the determination of the index is based on the modulation and coding scheme, MCS; transmitting a frame to the apparatus, wherein the frame contains indications of: the index, the number of spatial streams, and the bandwidth, wherein: the frame comprises a Rate Identification field; the Rate Identification field comprises a first field and a second field; and the first field indicates whether the second field specifies the index in accordance with an IEEE 802.11 High Throughput, HT, MCS or in accordance with an IEEE 802.11 Very High Throughput,VHT, format, and wherein, for VHT, the index indicates the number of spatial streams and the MCS index the frame comprises a Rate Identification field; the Rate Identification field comprises a first field and a second field; and the first field indicates whether the second field specifies the index in accordance with an IEEE 802.11 High Throughput, HT, MCS or in accordance with an IEEE 802.11 Very High Throughput,VHT, format, and wherein, for VHT, the index indicates the number of spatial streams and the MCS index
A sealed fluid joint comprising: inner annular housing components (16A, 17A) positioned coaxially about a central longitudinal axis; an outer housing positioned coaxially about said inner annular housing components (16A, 17A), said outer housing arranged and designed to rotate relative to said inner annular housing components (16A, 17A) about said central longitudinal axis, said outer housing defining an annular groove cavity that has upper and lower surfaces; upper and lower annular seals (40, 41) for sealing between said inner annular housing components (16A, 17A) and said outer housing, wherein the upper and lower annular seals are disposed in upper and lower annular slots (61, 62) formed in said inner annular housing components or said outer housing; an inner housing inlet disposed in at least one of said inner annular housing components (16A, 17A) and arranged to provide fluid of pressure P to said annular groove cavity, the fluid allowed to fill a small space between the outer housing and inner annular housing components, and the fluid exerting a first force (F v1) longitudinally inwardly on an outer surface of said outer housing, and a second force (Fv 2) longitudinally outwardly on said upper and lower surfaces of said annular groove cavity, said second force (Fv 2) having a greater magnitude than said first force (Fv 1) so that said outer housing deflects longitudinally outwardly. inner annular housing components (16A, 17A) positioned coaxially about a central longitudinal axis; an outer housing positioned coaxially about said inner annular housing components (16A, 17A), said outer housing arranged and designed to rotate relative to said inner annular housing components (16A, 17A) about said central longitudinal axis, said outer housing defining an annular groove cavity that has upper and lower surfaces; upper and lower annular seals (40, 41) for sealing between said inner annular housing components (16A, 17A) and said outer housing, wherein the upper and lower annular seals are disposed in upper and lower annular slots (61, 62) formed in said inner annular housing components or said outer housing; an inner housing inlet disposed in at least one of said inner annular housing components (16A, 17A) and arranged to provide fluid of pressure P to said annular groove cavity, the fluid allowed to fill a small space between the outer housing and inner annular housing components, and the fluid exerting a first force (F v1) longitudinally inwardly on an outer surface of said outer housing, and a second force (Fv 2) longitudinally outwardly on said upper and lower surfaces of said annular groove cavity, said second force (Fv 2) having a greater magnitude than said first force (Fv 1) so that said outer housing deflects longitudinally outwardly.
An acrylic copolymer comprising: 45 to 89.5% by weight of structural units which are structural units derived from an acrylic acid ester having an alkyl group having 1 to 8 carbon atoms and/or structural units derived from an acrylic acid ester having an alkoxyalkyl group having 2 to 8 carbon atoms; 10 to 50% by weight of structural units derived from an alkyl methacrylate having an alkyl group having 3 to 16 carbon atoms; and 0.5 to 5% by weight of structural units derived from an ethylenically unsaturated dicarboxylic acid monoester, wherein the total content of the structural units, the structural units, and the structural units is 100% by weight in the acrylic copolymer. 45 to 89.5% by weight of structural units which are structural units derived from an acrylic acid ester having an alkyl group having 1 to 8 carbon atoms and/or structural units derived from an acrylic acid ester having an alkoxyalkyl group having 2 to 8 carbon atoms; 10 to 50% by weight of structural units derived from an alkyl methacrylate having an alkyl group having 3 to 16 carbon atoms; and 0.5 to 5% by weight of structural units derived from an ethylenically unsaturated dicarboxylic acid monoester,
A palladium catalyst for purifying an exhaust gas comprising a catalyst layer in which Pd is supported on a coat layer comprising an inorganic porous material comprising alumina, CeO 2 particles and an inorganic binder, the inorganic binder comprising alumina, the palladium catalyst additionally having a substrate, the catalyst being obtainable by mixing an inorganic porous material comprising alumina, ceria particle powder, a binder comprising alumina, and water, agitating the mixture into a slurry, immersing a substrate into the slurry, pulling up and calcining the resultant, thereby forming a catalyst layer on the substrate, and impregnating the catalyst layer with a Pd nitrate solution, blowing off extra droplets, and calcining under an air atmosphere to obtain a Pd catalyst, wherein 1) the mass ratio (Pd/CeO 2) of the content of the palladium contained in the catalyst layer to the content of the ceria particles contained in the catalyst layer is 0.0050 to 0.4000, 2) the content of the CeO 2 particles in the catalyst layer is 5 to 40 % by weight; 3) the average particle size of the palladium in the catalyst layer is 1.0 nm to 83.0 nm, wherein the average particle size is determined by calculating a diameter (by defining a Pd particle as a sphere) from the number of Pd particles and the Pd density; and 4) the BET specific surface area of the ceria particles used as a starting material is 40 to 130 m 2 /g, 1) the mass ratio (Pd/CeO 2) of the content of the palladium contained in the catalyst layer to the content of the ceria particles contained in the catalyst layer is 0.0050 to 0.4000, 2) the content of the CeO 2 particles in the catalyst layer is 5 to 40 % by weight; 3) the average particle size of the palladium in the catalyst layer is 1.0 nm to 83.0 nm, wherein the average particle size is determined by calculating a diameter (by defining a Pd particle as a sphere) from the number of Pd particles and the Pd density; and 4) the BET specific surface area of the ceria particles used as a starting material is 40 to 130 m 2 /g,
Vermicular or spheroidal graphite cast iron consisting of 4.0% to 4.50% by weight Si and 2.70% to 3.10% by weight C 4.50% to 4.80% by weight Al and 0.10% to 0.50% by weight Mo, optionally 0.10% to 0.20% by weight Mn and/or up to 0.10% by weight Cu and/or up to 0.04% by weight P and/or up to 0.10% by weight Cr and/or up to 0.10% by weight Ni, and balance Fe and inevitable impurities.
A salt or cocrystal of (a) (1R,2R)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol, and L-(+)-tartaric acid. (a) (1R,2R)-3-(3-dimethylamino-1-ethyl-2-methyl-propyl)-phenol, and L-(+)-tartaric acid.
A plastic molded body having a surface comprising a non-fluororesin and a rough surface formed on the surface, wherein a fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the rough surface, and further wherein: (i) the rough surface has a primary irregular surface and a secondary irregular surface which is finer than the primary irregular surface and formed within the primary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the secondary irregular surface; and (ii) a much finer tertiary irregular surface is formed within the secondary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the tertiary irregular surface. (i) the rough surface has a primary irregular surface and a secondary irregular surface which is finer than the primary irregular surface and formed within the primary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the secondary irregular surface; and (ii) a much finer tertiary irregular surface is formed within the secondary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the tertiary irregular surface.
Apparatus for drying bulk goods, in particular of wood fibers and/or wood chips, comprising at least one dryer, in particular a drum dryer, at least one hot gas generator (31, 31', 5) and at least one heat exchanger, which is provided to indirectly heat a vapor gas mixture for drying the bulk goods in the dryer, said at least one heat exchanger is heated by exhaust gases produced by said at least one hot gas generator (31, 31', 5), at least one branch line, upstream, downstream and/or within the at least one heat exchanger to the at least one hot gas generator (31, 31', 5) to branch off a partial flow of the vapor gas mixture, and at least one line for the remaining partial flow to the dryer, characterized in that said at least one hot gas generator (31, 31', 5) comprises at least one solid fired hot gas generator (31, 31') and a multi-fuel burner in addition to the at least one solid fired hot gas generator (31, 31'), wherein the multi-fuel burner allows the combustion of fossil fuels or dust-like solids, wherein the at least one solid fired hot gas generator (31, 31') allows the combustion of combustible organic material in any particular form and is enabled to combust solid materials, which cannot be combusted in the multi-fuel burner, without the need of the supplying with fossil fuels, wherein the at least one solid fired hot gas generator (31, 31') and the multi-fuel burner are configured such that the at least one solid fired hot gas generator (31, 31') can be operated simultaneously or alternatively to the multi-fuel burner. at least one dryer, in particular a drum dryer, at least one hot gas generator (31, 31', 5) and at least one heat exchanger, which is provided to indirectly heat a vapor gas mixture for drying the bulk goods in the dryer, said at least one heat exchanger is heated by exhaust gases produced by said at least one hot gas generator (31, 31', 5), at least one branch line, upstream, downstream and/or within the at least one heat exchanger to the at least one hot gas generator (31, 31', 5) to branch off a partial flow of the vapor gas mixture, and at least one line for the remaining partial flow to the dryer, characterized in that said at least one hot gas generator (31, 31', 5) comprises at least one solid fired hot gas generator (31, 31') and a multi-fuel burner in addition to the at least one solid fired hot gas generator (31, 31'), wherein the multi-fuel burner allows the combustion of fossil fuels or dust-like solids, wherein the at least one solid fired hot gas generator (31, 31') allows the combustion of combustible organic material in any particular form and is enabled to combust solid materials, which cannot be combusted in the multi-fuel burner, without the need of the supplying with fossil fuels, wherein the at least one solid fired hot gas generator (31, 31') and the multi-fuel burner are configured such that the at least one solid fired hot gas generator (31, 31') can be operated simultaneously or alternatively to the multi-fuel burner.
A salt or salt-co-crystal of nicotine and orotic acid, wherein the salt is a mono-orotic acid salt or wherein the salt-co-crystal is a bis-orotic acid salt-co-crystal.