mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of urea ammonium nitrate comprising (a) subjecting ammonia and carbon dioxide to urea forming conditions so as to obtain an aqueous urea solution, (b) purifying the aqueous urea solution in a recovery section to remove residual ammonium carbamate so as to form a purified aqueous urea solution, and optionally subjecting at least part of the purified aqueous urea solution to evaporation so as to form concentrated urea liquid, (c) subjecting ammonia and nitric acid to ammonium nitrate forming conditions so as to form an aqueous ammonium nitrate solution; (d) combining said aqueous ammonium nitrate solution and at least a part of the purified aqueous urea solution and/or concentrated urea liquid in a urea ammonium nitrate section so as to obtain an aqueous solution of urea ammonium nitrate; (e) subjecting ammonia-containing off-gas resulting from the production of ammonium nitrate (AN off-gas) to condensation under acidic conditions so as to form an acidic condensate, and using at least part of the acidic condensate as an acidic scrubbing liquid in a finishing treatment section having a gas inlet in fluid communication with a gas outlet of a finishing section of a urea production unit, wherein the finishing section is adapted to solidify urea liquid, and wherein said finishing treatment section is adapted to subject ammonia-containing off-gas of the finishing section to treatment with an acidic scrubbing liquid. (a) subjecting ammonia and carbon dioxide to urea forming conditions so as to obtain an aqueous urea solution, (b) purifying the aqueous urea solution in a recovery section to remove residual ammonium carbamate so as to form a purified aqueous urea solution, and optionally subjecting at least part of the purified aqueous urea solution to evaporation so as to form concentrated urea liquid, (c) subjecting ammonia and nitric acid to ammonium nitrate forming conditions so as to form an aqueous ammonium nitrate solution; (d) combining said aqueous ammonium nitrate solution and at least a part of the purified aqueous urea solution and/or concentrated urea liquid in a urea ammonium nitrate section so as to obtain an aqueous solution of urea ammonium nitrate; (e) subjecting ammonia-containing off-gas resulting from the production of ammonium nitrate (AN off-gas) to condensation under acidic conditions so as to form an acidic condensate, and using at least part of the acidic condensate as an acidic scrubbing liquid in a finishing treatment section having a gas inlet in fluid communication with a gas outlet of a finishing section of a urea production unit, wherein the finishing section is adapted to solidify urea liquid, and wherein said finishing treatment section is adapted to subject ammonia-containing off-gas of the finishing section to treatment with an acidic scrubbing liquid.
A thermoplastic resin composition, comprising: 20 to 40 % by weight of a vinyl cyanide compound-conjugated diene rubber-aromatic vinyl compound graft copolymer; 10 to 35 % by weight of an α-methyl styrene-vinyl cyanide compound-aromatic vinyl compound copolymer; 5 to 30 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; 23 to 47 % by weight of a polycarbonate resin; and 3 to 17 % by weight of a polyester resin, wherein a weight of the copolymer is greater than or equal to a weight of the copolymer, and a weight ratio of the polycarbonate resin to the polyester resin is 2:1 to 6:1. 20 to 40 % by weight of a vinyl cyanide compound-conjugated diene rubber-aromatic vinyl compound graft copolymer; 10 to 35 % by weight of an α-methyl styrene-vinyl cyanide compound-aromatic vinyl compound copolymer; 5 to 30 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; 23 to 47 % by weight of a polycarbonate resin; and 3 to 17 % by weight of a polyester resin, wherein a weight of the copolymer is greater than or equal to a weight of the copolymer, and a weight ratio of the polycarbonate resin to the polyester resin is 2:1 to 6:1.
A method comprising: transmitting data to a base unit in a first transmission time interval, TTI, wherein the data are configured for transmission with a predetermined number of repetitions; receiving a control signal from the base unit in a second TTI; and determining whether the control signal corresponds to the data, wherein determining whether the control signal corresponds to the data comprises: identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, wherein the control signal corresponds to the data in response to the calculated TTI matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data. transmitting data to a base unit in a first transmission time interval, TTI, wherein the data are configured for transmission with a predetermined number of repetitions; receiving a control signal from the base unit in a second TTI; and determining whether the control signal corresponds to the data, wherein determining whether the control signal corresponds to the data comprises: identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, wherein the control signal corresponds to the data in response to the calculated TTI matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data. matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data.
A knitted dual-layer fabric, for use in underwear and sport, with improved breathable and thermal insulating properties, comprising: - a first inner layer adapted to be in contact with the skin of a user and having water repellent, that is hydrophobic, properties; - a second outer layer having water absorbent, that is hydrophilic, properties, and - a binding yarn connecting and binding together the inner layer and the outer layer; wherein said inner layer, hydrophobic, is made of discontinuous fiber polypropylene yarns (11 a), and wherein the knitted dual-layer fabric is characterised in that said outer layer, hydrophilic, is made of wool and/or wool/silk yarns, and wherein the wool and/or wool/silk yarns (12a, 12a") comprised in said outer layer, hydrophilic, are made with a spinning process of the compact type. - a first inner layer adapted to be in contact with the skin of a user and having water repellent, that is hydrophobic, properties; - a second outer layer having water absorbent, that is hydrophilic, properties, and - a binding yarn connecting and binding together the inner layer and the outer layer; wherein said inner layer, hydrophobic, is made of discontinuous fiber polypropylene yarns (11 a), and wherein the knitted dual-layer fabric is characterised in that said outer layer, hydrophilic, is made of wool and/or wool/silk yarns, and wherein the wool and/or wool/silk yarns (12a, 12a") comprised in said outer layer, hydrophilic, are made with a spinning process of the compact type.
A flue-gas desulfurization device, comprising a sump having a suspension solution, at least one recirculation line, at least one recirculation pump, spray nozzles, and gypsum dewatering, wherein at least one suspension-solution filter sieve basket is provided before the recirculation line and/or before the gypsum dewatering process in a flow direction of the suspension solution, wherein a predetermined breaking point is provided on the suspension-solution filter sieve basket, which predetermined breaking point is triggered when a suction load of the pump on the sieve body is exceeded, and thus relieves the sieve body of the forces, and the suspension-solution filter sieve basket has a sieve-basket cover, which is arranged on the top side of the suspension-solution filter sieve basket, and the predetermined breaking point causes at least partially opening of at least parts of the sieve-basket cover after the predetermined breaking point has been triggered, wherein the suspension-solution filter sieve basket has holes, wherein if the sieve-basket cover of the suspension-solution filter sieve basket breaks at the predetermined breaking point, the suspension solution filter sieve basket still acts as a grating that holds the mass of the solids back, and therefore only a small part of probably rather small solids enter the pump.
Insulin analogue selected from the group containing Arg, His, Gly, Arg, Arg - NH 2 - human insulin, Arg, Glu, His, Gly, Arg, Arg - NH 2 - human insulin, His, Gly, Arg, Arg - NH 2 - human insulin. Arg, His, Gly, Arg, Arg - NH 2 - human insulin, Arg, Glu, His, Gly, Arg, Arg - NH 2 - human insulin, His, Gly, Arg, Arg - NH 2 - human insulin.
A powder metal component formed from a mixture which includes a hard phase intermetallic material, the powder metal component having a chemical composition on a weight percent basis, consisting of about 0.5 % C; about 16.6 % Cr; about 4.0 % Mo; about 1.0 % S; about 0.2 % Ni; about 1.0 % Si; and the balance being substantially iron; said powder metal component having a microstructure which includes an intermetallic Laves phase. about 0.5 % C; about 16.6 % Cr; about 4.0 % Mo; about 1.0 % S; about 0.2 % Ni; about 1.0 % Si; and the balance being substantially iron;
An X-ray generating device comprising: an electron generator having an electron source emitting a linear electron beam suitable for generating a focal spot of linear shape, and a switching mechanism switching an extending direction of the electron source to either one of a first direction and a second direction perpendicular to the first direction while fixing a center position of the electron source; and a rotating anticathode with a disk shape or a columnar shape, having a circumferential surface portion suitable for being impinged by the electron beam from the electron source and emitting linear or dot-like X-ray beams (B2; B3), and configured to be rotatable about a rotation axis; wherein the electron generator and the rotating anticathode are fixedly arranged in a positional relationship in which the electron source and the surface portion face each other and the rotation axis is tilted with respect to the first direction and the second direction, characterized in that the rotation axis is tilted within a range of 30 to 60 degrees with respect to the first direction in a plane comprising the first direction and the second direction. an electron generator having an electron source emitting a linear electron beam suitable for generating a focal spot of linear shape, and a switching mechanism switching an extending direction of the electron source to either one of a first direction and a second direction perpendicular to the first direction while fixing a center position of the electron source; and a rotating anticathode with a disk shape or a columnar shape, having a circumferential surface portion suitable for being impinged by the electron beam from the electron source and emitting linear or dot-like X-ray beams (B2; B3), and configured to be rotatable about a rotation axis; wherein the electron generator and the rotating anticathode are fixedly arranged in a positional relationship in which the electron source and the surface portion face each other and the rotation axis is tilted with respect to the first direction and the second direction, characterized in that the rotation axis is tilted within a range of 30 to 60 degrees with respect to the first direction in a plane comprising the first direction and the second direction.
A method of performing, by user equipment to which a plurality of serving cells based on Time Division Duplex, TDD, have been allocated, a hybrid automatic repeat request, HARQ, in a long term evolution, LTE, system, the method comprising: receiving, through a first serving cell, an uplink grant for a first subframe of a second serving cell, wherein the first serving cell and the second serving cell use different UL-DL configurations, and each of the UL-DL configurations is information on which each subframe within a TDD frame, used in the first servving cell or the second serving cell, is configured as an UL subframe, a DL subframe or a special subframe; and transmitting UL data in the first subframe of the second serving cell based on the uplink grant, wherein if a not-acknowledgement, NACK, for the UL data is received through a physical HARQ indicator channel, PHICH, in a second subframe of the first serving cell based on the different UL-DL configurations, a non-adaptive retransmission for the UL data is performed in a third subframe of the second serving cell, and wherein if a PHICH resource corresponding to the UL data is not present in the second subframe of the first serving cell based on the different UL-DL configurations, the non-adaptive retransmission is not allowed in the third subframe of the second serving cell. receiving, through a first serving cell, an uplink grant for a first subframe of a second serving cell, wherein the first serving cell and the second serving cell use different UL-DL configurations, and each of the UL-DL configurations is information on which each subframe within a TDD frame, used in the first servving cell or the second serving cell, is configured as an UL subframe, a DL subframe or a special subframe; and transmitting UL data in the first subframe of the second serving cell based on the uplink grant, wherein if a not-acknowledgement, NACK, for the UL data is received through a physical HARQ indicator channel, PHICH, in a second subframe of the first serving cell based on the different UL-DL configurations, a non-adaptive retransmission for the UL data is performed in a third subframe of the second serving cell, and wherein if a PHICH resource corresponding to the UL data is not present in the second subframe of the first serving cell based on the different UL-DL configurations, the non-adaptive retransmission is not allowed in the third subframe of the second serving cell.
Marking device to define a position marker on a support surface for a workpiece, - with a marking lamp with a holder to create a light marker, and - with a gear unit to convert a rotational movement of the drive unit into a pivoting movement of the marking lamp, the gear unit having a coupling member, - the marking lamp having a guide area for guiding a translation of a portion of the gear unit, characterized in that - the coupling member is, at one of its ends, non-rotationally connected to the drive unit and, at the opposing end, is movably mounted in the guide area of the marking lamp, and - the drive unit is operatively connected, via the gear unit, with the marking lamp in such a way that a resulting movement of the position marker on the support surface depends linearly on an angle of rotation of the rotational movement of the drive unit with a deviation of less than 10%. - with a marking lamp with a holder to create a light marker, and - with a gear unit to convert a rotational movement of the drive unit into a pivoting movement of the marking lamp, the gear unit having a coupling member, - the marking lamp having a guide area for guiding a translation of a portion of the gear unit, - the coupling member is, at one of its ends, non-rotationally connected to the drive unit and, at the opposing end, is movably mounted in the guide area of the marking lamp, and - the drive unit is operatively connected, via the gear unit, with the marking lamp in such a way that a resulting movement of the position marker on the support surface depends linearly on an angle of rotation of the rotational movement of the drive unit with a deviation of less than 10%.
A reactive aluminosilicate glass composition comprising: (a) 10 - 35% by weight of silica; (b) 10 - 35% by weight of alumina; (c) 3 - 30% by weight of zinc oxide; (d) 4 - 30% by weight P 2 O 5; and (e) 3 - 25% by weight of fluoride, which contains at most 2 % by weight of alkaline metals calculated as M 2 O, wherein M is Li, Na, and/or K, and wherein the weight ratio of the sum of zinc oxide and fluoride to P 2 O 5 of from 0.8 to 3.0, and wherein the weight ratio between silica and alumina is from 1.2 to 0.8. (a) 10 - 35% by weight of silica; (b) 10 - 35% by weight of alumina; (c) 3 - 30% by weight of zinc oxide; (d) 4 - 30% by weight P 2 O 5; and (e) 3 - 25% by weight of fluoride,
A calculator comprising: an input unit; a display; and a processor, wherein the processor is configured to perform following processes: receiving a selection of a calculation function type according to a user's operation; receiving an input of calculation object data according to the selected calculation function type, according to a user's operation; characterized by converting at least one of the calculation object data and calculation result data obtained by a calculation based on the input calculation object data into a two-dimensional code according to the selected calculation function type; and displaying the two-dimensional code as image data on the display. an input unit; a display; and a processor, wherein the processor is configured to perform following processes: receiving a selection of a calculation function type according to a user's operation; receiving an input of calculation object data according to the selected calculation function type, according to a user's operation; characterized by converting at least one of the calculation object data and calculation result data obtained by a calculation based on the input calculation object data into a two-dimensional code according to the selected calculation function type; and displaying the two-dimensional code as image data on the display. receiving a selection of a calculation function type according to a user's operation; receiving an input of calculation object data according to the selected calculation function type, according to a user's operation; characterized by converting at least one of the calculation object data and calculation result data obtained by a calculation based on the input calculation object data into a two-dimensional code according to the selected calculation function type; and displaying the two-dimensional code as image data on the display.
A computer-implemented method comprising: receiving an image comprising a plurality of pixels and pixel information for each respective pixel, wherein the pixel information is received from a neural network, and wherein a plurality of bounding boxes is generated by the neural network for each identified object within the image, and wherein each pixel information indicates a bounding box corresponding to an identified object within the image associated with the respective pixel and a confidence score associated with the bounding box for the respective pixel; iteratively filtering, from the plurality of pixels, pixels that do not correspond to a center of at least one of the bounding boxes, until a subset of pixels each of which correspond to the center of at least one of the bounding boxes is obtained; and determining, based on the subset of pixels, a final bounding box associated with each identified object of the image based on an overlapping of the bounding boxes of the subset of pixels and the associated confidence scores. receiving an image comprising a plurality of pixels and pixel information for each respective pixel, wherein the pixel information is received from a neural network, and wherein a plurality of bounding boxes is generated by the neural network for each identified object within the image, and wherein each pixel information indicates a bounding box corresponding to an identified object within the image associated with the respective pixel and a confidence score associated with the bounding box for the respective pixel; iteratively filtering, from the plurality of pixels, pixels that do not correspond to a center of at least one of the bounding boxes, until a subset of pixels each of which correspond to the center of at least one of the bounding boxes is obtained; and determining, based on the subset of pixels, a final bounding box associated with each identified object of the image based on an overlapping of the bounding boxes of the subset of pixels and the associated confidence scores.
Process for separating a hydrocarbon mixture (reference numeral C) at least partly obtained by steamcracking which contains at least hydrocarbons having one, two and three carbon atoms, including ethane and ethylene, wherein initially obtained from the hydrocarbon mixture by at least partial removal of other components is a first fraction (reference numeral C2-) which contains the predominant portion of the hydrocarbons having two or fewer carbon atoms previously contained in the hydrocarbon mixture, wherein subsequently obtained from the first fraction (C2-) are further fractions (reference numerals C1, C2, C2H4, C2H6), characterized in that the further fractions (C1, C2, C2H4, C2H6) comprise ethane (reference numeral C2H6) which is returned to the steamcracking as a recycle stream and that simultaneously with or after the at least partial removal of the other components from the hydrocarbon mixture and before the obtaining of the further fractions (C1, C2, C2H4, C2H6) from the first fraction furthermore from the hydrocarbon mixture or the first fraction (C2-) an ethane-containing fraction (reference numeral S) is removed in an amount which reduces the ethane content in the first fraction (C2-) to less than 25%, wherein the ethane-containing fraction contains not more than 10 mol percent of the other hydrocarbons having two carbon atoms, wherein the other hydrocarbons having two carbon atoms are obtained from the first fraction (C2-) in downstream separating steps.