mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication, comprising: determining an availability of a wireless wide area network, WWAN, subframe; and utilizing the WWAN subframe for peer-to-peer communication when the WWAN subframe is available, wherein the determining the availability of the WWAN subframe comprises: determining an energy of a second WWAN subframe, and determining whether use of the WWAN subframe will cause interference to WWAN communication based on the determined energy of the second WWAN subframe. determining an availability of a wireless wide area network, WWAN, subframe; and utilizing the WWAN subframe for peer-to-peer communication when the WWAN subframe is available, wherein the determining the availability of the WWAN subframe comprises: determining an energy of a second WWAN subframe, and determining whether use of the WWAN subframe will cause interference to WWAN communication based on the determined energy of the second WWAN subframe. determining an energy of a second WWAN subframe, and determining whether use of the WWAN subframe will cause interference to WWAN communication based on the determined energy of the second WWAN subframe.
A passenger seat recline mechanism, comprising: a seat back pivotably connected at a rearward end of a seat pan; a seat base including a supportive base and a lateral side plate including first and second non-intersecting seat path guide slots (20, 22); a seat pan drive rail translatable relative to the seat base wand pivotably connected at a forward end thereof to a forward end of the seat pan; a translation guide assembly having spaced-apart first and second guides (42, 44) that travel in the first and second guide slots (20, 22), respectively, the translation guide assembly further being pivotably connected to the rearward end of the seat pan; and a seat back drive link pivotably interconnecting the translation guide assembly with the seat back; wherein movement of the drive rail with respect to the seat base causes movement of the seat pan and movement of the translation guide assembly with respect to the first and second guide slots (20, 22) to adjust seat back and seat pan angles. a seat back pivotably connected at a rearward end of a seat pan; a seat base including a supportive base and a lateral side plate including first and second non-intersecting seat path guide slots (20, 22); a seat pan drive rail translatable relative to the seat base wand pivotably connected at a forward end thereof to a forward end of the seat pan; a translation guide assembly having spaced-apart first and second guides (42, 44) that travel in the first and second guide slots (20, 22), respectively, the translation guide assembly further being pivotably connected to the rearward end of the seat pan; and a seat back drive link pivotably interconnecting the translation guide assembly with the seat back;
A method performed by a user equipment, UE, of receiving a paging message for the method comprising: receiving a paging record delivery rule; entering into a power saving mode; determining a bandwidth part. BWP, according to the PR delivery rule, a discontinuous reception, DRX, cycle and an identification_ID, of the UE, determining whether the UE is located under a cell which corresponds to the BWP; re-selecting a cell which corresponds to the BWP which has been determined in response to the UE not being located under a cell which corresponds to the BWP; and receiving a paging message transmitted through the BWP by the cell. receiving a paging record delivery rule; entering into a power saving mode; determining a bandwidth part. BWP, according to the PR delivery rule, a discontinuous reception, DRX, cycle and an identification_ID, of the UE, determining whether the UE is located under a cell which corresponds to the BWP; re-selecting a cell which corresponds to the BWP which has been determined in response to the UE not being located under a cell which corresponds to the BWP; and receiving a paging message transmitted through the BWP by the cell.
A method for making tubing, comprising: providing an inner tube comprising a polymeric material; providing an outer tube comprising a material having a greater yield strength than the polymeric material; inserting at least a portion of the inner tube into the outer tube; and bonding the inner tube to the outer tube, wherein bonding comprises melting at least a first portion of the polymeric material of the inner tube after inserting and extracting heat from an interior surface of the inner tube during melting, wherein extracting heat comprises extracting sufficient heat to maintain a passageway through a lumen defined by the interior surface of the inner tube by flowing a fluid through the lumen of the inner tube, with the fluid being an inert gas. providing an inner tube comprising a polymeric material; providing an outer tube comprising a material having a greater yield strength than the polymeric material; inserting at least a portion of the inner tube into the outer tube; and bonding the inner tube to the outer tube, melting at least a first portion of the polymeric material of the inner tube after inserting and extracting heat from an interior surface of the inner tube during melting, wherein extracting heat comprises extracting sufficient heat to maintain a passageway through a lumen defined by the interior surface of the inner tube by flowing a fluid through the lumen of the inner tube, with the fluid being an inert gas.
A wind turbine blade and blade element combination comprising: - a wind turbine blade having a longitudinal direction and a chord extending transversely to the longitudinal direction between a leading edge and a trailing edge, the blade comprising an airfoil profile with a thickness between a suction side and a pressure side along at least a part of the longitudinal direction and with a position of maximum thickness between the leading edge and the trailing edge, and - a blade element (42; 44; 46; 48; 150; 250; 350) mounted at the trailing edge of the blade In a first longitudinal part of the wind turbine blade, characterised in that the blade element has a shape so that, when mounted In a first longitudinal part of the wind turbine blade, It changes the profile of the first longitudinal part from a first airfoil profile (100; 200; 300) with an essentially pointed trailing edge (100; 200; z300) and a first chord length (c 11; c 21; c 31) to a changed airfoil profile with a blunt trailing edge (153; 253; 353), the changed airfoil profile being a truncated profile of an Imaginary airfoil profile (160; 260; 360) with an essentially pointed trailing edge and a second chord length (c 12; c 22; c 32) being larger than the first chord length (c 11; c 21; c 31). - a wind turbine blade having a longitudinal direction and a chord extending transversely to the longitudinal direction between a leading edge and a trailing edge, the blade comprising an airfoil profile with a thickness between a suction side and a pressure side along at least a part of the longitudinal direction and with a position of maximum thickness between the leading edge and the trailing edge, and - a blade element (42; 44; 46; 48; 150; 250; 350) mounted at the trailing edge of the blade In a first longitudinal part of the wind turbine blade, characterised in that the blade element has a shape so that, when mounted In a first longitudinal part of the wind turbine blade, It changes the profile of the first longitudinal part from a first airfoil profile (100; 200; 300) with an essentially pointed trailing edge (100; 200; z300) and a first chord length (c 11; c 21; c 31) to a changed airfoil profile with a blunt trailing edge (153; 253; 353), the changed airfoil profile being a truncated profile of an Imaginary airfoil profile (160; 260; 360) with an essentially pointed trailing edge and a second chord length (c 12; c 22; c 32) being larger than the first chord length (c 11; c 21; c 31).
A method of deconvoluting genomes of prokaryotic organisms in a microbiome sample, said method comprising the steps of: a) sequencing nucleic acids of the prokaryotic organisms comprised in a sample obtained from a subject using single-molecule long reads sequencing technology, wherein the sequencing comprises the step of identifying methylated nucleotides, and at least one of the steps of: i. sequencing single molecule reads of nucleic acids; ii. assembling contigs from single molecule reads of the nucleic acids; and b) assigning a methylation score reflecting the extent of methylation for sequence motifs of the nucleic acids on the assembled contig and/or the single molecule read; c) applying motif filtering to identify sequence motifs with methylation scores indicating methylation on the assembled contigs and/or the single molecule reads; d) determining nucleic acid methylation profiles of the assembled contigs or the single molecule reads in the microbiome sample based on motifs identified in step (c); e) separating the assembled contigs and/or the single molecule reads into bins corresponding to distinct prokaryotic organisms based on the methylation profiles of step (d); f) assembling the bins of step (e), thereby obtaining assembled genomes of the distinct bacterial organisms in the microbiome sample, thereby deconvoluting genomes of the prokaryotic organisms in a microbiome sample. a) sequencing nucleic acids of the prokaryotic organisms comprised in a sample obtained from a subject using single-molecule long reads sequencing technology, wherein the sequencing comprises the step of identifying methylated nucleotides, and at least one of the steps of: i. sequencing single molecule reads of nucleic acids; ii. assembling contigs from single molecule reads of the nucleic acids; and i. sequencing single molecule reads of nucleic acids; ii. assembling contigs from single molecule reads of the nucleic acids; and b) assigning a methylation score reflecting the extent of methylation for sequence motifs of the nucleic acids on the assembled contig and/or the single molecule read; c) applying motif filtering to identify sequence motifs with methylation scores indicating methylation on the assembled contigs and/or the single molecule reads; d) determining nucleic acid methylation profiles of the assembled contigs or the single molecule reads in the microbiome sample based on motifs identified in step (c); e) separating the assembled contigs and/or the single molecule reads into bins corresponding to distinct prokaryotic organisms based on the methylation profiles of step (d); f) assembling the bins of step (e), thereby obtaining assembled genomes of the distinct bacterial organisms in the microbiome sample,
A method of preparing a superabsorbent polymer, the method comprising: A) performing crosslinking polymerization of water-soluble ethylene-based unsaturated monomers having acidic groups which are at least partially neutralized, in the presence of an internal crosslinking agent, to form a water-containing gel polymer including a crosslinked polymer; B) drying, pulverizing, and size-sorting the water-containing gel polymer to form a base polymer powder; C) performing surface-crosslinking of the base polymer powder by heat treatment in the presence of a surface crosslinking agent to form superabsorbent polymer particles; D) adding an aggregation inhibitor and water to the superabsorbent polymer particles; and E) evaporating the water; wherein the aggregation inhibitor includes a polycarboxylic acid-based copolymer, and wherein an aging process is performed at a temperature of 50 °C to 120 °C and a pressure of 100 mm H 2 O to less than 1500 mm H 2 O for 5 minutes to 2 hours, after adding water and the aggregation inhibitor. A) performing crosslinking polymerization of water-soluble ethylene-based unsaturated monomers having acidic groups which are at least partially neutralized, in the presence of an internal crosslinking agent, to form a water-containing gel polymer including a crosslinked polymer; B) drying, pulverizing, and size-sorting the water-containing gel polymer to form a base polymer powder; C) performing surface-crosslinking of the base polymer powder by heat treatment in the presence of a surface crosslinking agent to form superabsorbent polymer particles; D) adding an aggregation inhibitor and water to the superabsorbent polymer particles; and E) evaporating the water;
A control unit for an electric motor, the control unit having a signaling device for displaying at least two different operating states of the motor, with at least six electric illuminants (A1-A6) which are switched in a flashing manner when the motor is running, characterized in that the at least six illuminants (A1-A6) are provided, arranged in an annular manner, as a ring of illuminants which are switched in a flashing manner synchronously to one another but successively in a time-shifted manner in pairs in a clockwise or anticlockwise direction when the motor is running, wherein two of the illuminants (A1-A6), which are diametrically opposite in the ring, are switched on as an illuminant pair (A1, A4; A2, A5; A3, A6), wherein in case one illuminant fails, the whole display does not fail, but rather then still remains in operation for this illuminant pair using one illuminant.
Method for generating sewing control data for processing a sewing program depending on the garment size in the course of which a seam comprising a plurality of successive seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...) is sewn, the method comprising the following steps: - selecting a garment base size, - generating sewing control data for the base size, said sewing control data including the lengths of the seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...), - generating sewing control data for the other garment sizes (G1 to G3, G5 to G10) that deviate from the base size, said process comprising the following sub-steps: -- presetting a total grading value by which the entire seam lengthens in successive garment sizes (G1/G2, G2/G3, G3/G4,...), -- calculating (and presetting), depending on the total grading value, sectional grading values by which at least some seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...) lengthen in the successive garment sizes (G1/G2, G2/G3, G3/G4,...). - selecting a garment base size, - generating sewing control data for the base size, said sewing control data including the lengths of the seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...), - generating sewing control data for the other garment sizes (G1 to G3, G5 to G10) that deviate from the base size, said process comprising the following sub-steps: -- presetting a total grading value by which the entire seam lengthens in successive garment sizes (G1/G2, G2/G3, G3/G4,...), -- calculating (and presetting), depending on the total grading value, sectional grading values by which at least some seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...) lengthen in the successive garment sizes (G1/G2, G2/G3, G3/G4,...). -- presetting a total grading value by which the entire seam lengthens in successive garment sizes (G1/G2, G2/G3, G3/G4,...), -- calculating (and presetting), depending on the total grading value, sectional grading values by which at least some seam sections (a1/a2, b1/b2, c1/c2, d1/d2,...) lengthen in the successive garment sizes (G1/G2, G2/G3, G3/G4,...).
A sensor for measuring a temperature profile of a fluid within a vessel, the sensor comprising: an array of elements, each element having a temperature-dependent parameter, the array being capable of deployment within or adjacent the vessel such that the array extends along the vessel whereby to measure the temperature profile of a fluid in the vessel, wherein the elements of the array are coupled together between an input and an output, the input capable of being coupled to a driving source for driving the sensors, and the output capable of being coupled to a detector for measuring an aggregate of the temperature-dependent parameter from the array of elements; characterised in that: at least one of the elements in the array comprises a fixed value resistor connected in parallel with a Positive Temperature Coefficient resistor or Negative Temperature Coefficient resistor. an array of elements, each element having a temperature-dependent parameter, the array being capable of deployment within or adjacent the vessel such that the array extends along the vessel whereby to measure the temperature profile of a fluid in the vessel, wherein the elements of the array are coupled together between an input and an output, the input capable of being coupled to a driving source for driving the sensors, and the output capable of being coupled to a detector for measuring an aggregate of the temperature-dependent parameter from the array of elements; characterised in that: at least one of the elements in the array comprises a fixed value resistor connected in parallel with a Positive Temperature Coefficient resistor or Negative Temperature Coefficient resistor.
A method of operating a cryogenic pump that controls discharge temperature of a heat exchanger (140,141,142) that vaporizes a process fluid received from the cryogenic pump with heat from a working fluid, the cryogenic pump comprising a piston reciprocatable in a cylinder between a proximate cylinder head and a distal cylinder head, the method comprising: monitoring at least one of process fluid temperature and working fluid temperature; retracting the piston during an intake stroke from the proximate cylinder head to the distal cylinder head; and characterized by extending the piston in a plurality of incremental discharge strokes until the piston travels from the distal cylinder head back to the proximate cylinder head; wherein at least one of the number of incremental discharge strokes, a length of incremental discharge strokes and a rest period between incremental discharge strokes is selected such that at least one of the process fluid temperature and working fluid temperature is maintained above a predetermined level. monitoring at least one of process fluid temperature and working fluid temperature; retracting the piston during an intake stroke from the proximate cylinder head to the distal cylinder head; and characterized by extending the piston in a plurality of incremental discharge strokes until the piston travels from the distal cylinder head back to the proximate cylinder head; wherein at least one of the number of incremental discharge strokes, a length of incremental discharge strokes and a rest period between incremental discharge strokes is selected such that at least one of the process fluid temperature and working fluid temperature is maintained above a predetermined level.
A method for wireless communication, comprising: identifying, at a user equipment, UE, that the UE has data in a buffer to be transmitted to a base station; determining a priority level for the data in the buffer to be transmitted to the base station based at least in part on a logical channel for the data, or a data type associated with the data, or a combination thereof; determining, that the priority level exceeds a threshold; and transmitting, to the base station, a scheduling request, SR, that indicates the priority level for the data, wherein transmitting the SR is based at least in part on the determining that the priority level exceeds a threshold. identifying, at a user equipment, UE, that the UE has data in a buffer to be transmitted to a base station; determining a priority level for the data in the buffer to be transmitted to the base station based at least in part on a logical channel for the data, or a data type associated with the data, or a combination thereof; determining, that the priority level exceeds a threshold; and transmitting, to the base station, a scheduling request, SR, that indicates the priority level for the data, wherein transmitting the SR is based at least in part on the determining that the priority level exceeds a threshold.
A charging device comprising at least one region A composed of Ta or a Ta alloy having a Ta content of > 90% by mass, characterized in that the charging device comprises at least one region B composed of Mo, an Mo alloy having an Mo content of > 90% by mass, W, a W alloy having a W content of > 90% by mass or an Mo-W alloy having a total content of Mo + W of > 90% by mass.
The use of a copolymer which is formed from monomers comprising M1, M2, M4 and optionally M3, where M1 has the following general structure: in which R 1 and R 3 are each H; R 2 is -COOR 5; R 4 is -COOR 6; R 5 is H; and R 6 is C 6 -C 40 -hydrocarbyl; and M2 and M3 have the following general structures: in which R 9 and R 13 are the same or different and are each C 8 -C 48 -hydrocarbyl; and R 10, R 11, R 12, R 14 R 15 and R 16 are the same or different and are each H or methyl, with the proviso that M2 and M3 are not the same; and M4 has the following general structure: in which R 7 and R 8 are each H, wherein the molar ratio of copolymerized M1 to copolymerized M4 is 4:1 to 1:1; for lowering the CP value of fuel oils and lubricants. R 1 and R 3 are each H; R 2 is -COOR 5; R 4 is -COOR 6; R 5 is H; and R 6 is C 6 -C 40 -hydrocarbyl; and R 9 and R 13 are the same or different and are each C 8 -C 48 -hydrocarbyl; and R 10, R 11, R 12, R 14 R 15 and R 16 are the same or different and are each H or methyl, with the proviso that M2 and M3 are not the same; and M4 has the following general structure: in which R 7 and R 8 are each H, wherein the molar ratio of copolymerized M1 to copolymerized M4 is 4:1 to 1:1; for lowering the CP value of fuel oils and lubricants.
A generator (100, 200) comprising: an upper housing (111, 211) and a lower housing (150, 250); a water inlet (112, 212) and a water outlet provided in the upper housing (111, 211); an impeller (120, 220) rotatably fixed inside the upper housing (111,211); a magnet (140, 240) provided in the lower housing (150, 250), connected to a rotating shaft (130, 230) of the impeller (120, 220), and rotated integrally with the impeller (120, 220); and a bobbin (151, 251) positioned outside the magnet (140, 240), wherein a through-hole (117, 217) through which the rotating shaft (130, 230) passes is formed in the upper housing (111, 211) to have a larger diameter than the rotating shaft (130, 230), and the bobbin (151, 251) is formed integrally in the lower housing (150, 250) by injection molding, and wherein a bearing is disposed at the through-hole (117, 217), and one or more communication holes connecting a space for housing the impeller (120, 220) to a space for housing the magnet (140, 240) are disposed in an intermediate surface between the space for housing the impeller (120, 220) and the space for housing the magnet (140, 240). an upper housing (111, 211) and a lower housing (150, 250); a water inlet (112, 212) and a water outlet provided in the upper housing (111, 211); an impeller (120, 220) rotatably fixed inside the upper housing (111,211); a magnet (140, 240) provided in the lower housing (150, 250), connected to a rotating shaft (130, 230) of the impeller (120, 220), and rotated integrally with the impeller (120, 220); and a bobbin (151, 251) positioned outside the magnet (140, 240), wherein a through-hole (117, 217) through which the rotating shaft (130, 230) passes is formed in the upper housing (111, 211) to have a larger diameter than the rotating shaft (130, 230), and the bobbin (151, 251) is formed integrally in the lower housing (150, 250) by injection molding, and wherein a bearing is disposed at the through-hole (117, 217), and one or more communication holes connecting a space for housing the impeller (120, 220) to a space for housing the magnet (140, 240) are disposed in an intermediate surface between the space for housing the impeller (120, 220) and the space for housing the magnet (140, 240).