mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a Si( 1-v-w-x)C w Al x N v substrate, comprising the steps of: preparing a Si base substrate; and growing a Si (1-v-w-x) C w Al x N v layer (0 < v < 1, 0 < w < 1, 0 < x < 1, 0 < v + w + x < 1, and 0 < v + x ≤ 0.1) on the Si base substrate at a temperature below 550°C. preparing a Si base substrate; and growing a Si (1-v-w-x) C w Al x N v layer (0 < v < 1, 0 < w < 1, 0 < x < 1, 0 < v + w + x < 1, and 0 < v + x ≤ 0.1) on the Si base substrate at a temperature below 550°C.
A method for implementing data transmission, wherein the method comprises: obtaining, by a sending device, a data packet in a target data flow; and sending, by the sending device, the data packet through each of at least two physical links between the sending device and a receiving device, wherein the data packet sent through each of the at least two physical links comprises a same sequence number, wherein the sequence number of the data packet is carried in an extended header of the data packet between a data link layer header and a network layer header, and wherein before the sending, by the sending device, the data packet through each of at least two physical links between the sending device and the receiving device, the method further comprises: adding, by the sending device, the sequence number to the data packet. obtaining, by a sending device, a data packet in a target data flow; and sending, by the sending device, the data packet through each of at least two physical links between the sending device and a receiving device, wherein the data packet sent through each of the at least two physical links comprises a same sequence number, wherein the sequence number of the data packet is carried in an extended header of the data packet between a data link layer header and a network layer header, and wherein before the sending, by the sending device, the data packet through each of at least two physical links between the sending device and the receiving device, the method further comprises: adding, by the sending device, the sequence number to the data packet.
An exosome comprising at least one fusion protein, wherein the at least one fusion protein comprises at least one Fc binding polypeptide, that can bind an Fc domain of a protein of interest, fused to at least one human exosomal polypeptide, and wherein the at least one Fc binding polypeptide is displayed on the outer surface of the exosome.
An exposure control apparatus for controlling an exposure adjustment mechanism on the basis of an image signal captured by a solid-state image pickup device, the exposure control apparatus comprising: face detecting means for detecting a face of a person appearing in a captured image on the basis of the captured image signal; histogram data determining means for determining as histogram data a sequence of frequency information corresponding to a plurality of brightness values by setting a face detection region in the captured image according to detection information obtained by the face detecting means and detecting at least a brightness value of the face detection region from the captured image signal; target brightness setting means for setting a target brightness range for desired brightness of the face; and exposure control amount determining means for, when the face detecting mean detects a face, determining an amount of control for the exposure adjustment mechanism on the basis of a comparison result obtained by comparing the target brightness range with a brightness value at a peak of the histogram data corresponding to the face detection region or a brightness region in the vicinity of the peak. face detecting means for detecting a face of a person appearing in a captured image on the basis of the captured image signal; histogram data determining means for determining as histogram data a sequence of frequency information corresponding to a plurality of brightness values by setting a face detection region in the captured image according to detection information obtained by the face detecting means and detecting at least a brightness value of the face detection region from the captured image signal; target brightness setting means for setting a target brightness range for desired brightness of the face; and exposure control amount determining means for, when the face detecting mean detects a face, determining an amount of control for the exposure adjustment mechanism on the basis of a comparison result obtained by comparing the target brightness range with a brightness value at a peak of the histogram data corresponding to the face detection region or a brightness region in the vicinity of the peak.
A compressed air braking system (DBA*) of a motor vehicle, which has a compressed air supply unit with a compressor and a plurality of brake circuits connected to the compressed air supply unit via a multiple circuit protection valve, including at least one parking brake circuit with parking brake cylinders (25.1, 25.2), characterized in that the parking brake cylinders (25.1, 25.2) per wheel or per vehicle axle can each be vented via a rapid bleeder valve connected to a connecting line as well as a changeover valve arranged downstream thereof alternately to the ambient atmosphere or to an additional reservoir.
A powertrain for a motor vehicle, including a gearbox driving the driven wheels, having two primary shafts (30, 34) each connected to the heat engine by an input clutch (32, 36), each primary shaft having synchronisation means adjusting the speed of this shaft before engaging a gear, the powertrain including in addition one or more accessory rotary machines which are connected by a connecting clutch to the primary shafts (30, 34) of the gearbox, the gearbox being of the dual clutch type, the two primary shafts (30, 34) being disposed concentrically, said powertrain being characterized in that the accessory rotary machine(s) are connected to the two primary shafts (30, 34) by free wheels (40, 42).
A multi-step method of making mammalian subcutaneous medical implants for releasing at least one self-contained drug on a controlled basis over at least a 3 day period or medical non-implant products, such as tablets, for releasing self-contained drugs on a controlled basis over at least a 12 hour time period wherein the method comprises depositing at least portions of individual layers of the implant by at least one computer controlled 3-D printer; wherein multiple implants or non-implants are formed at the same time and where more than one layer of each of the implants or non-implants are created at least in part by 3-D printing via 3-D nozzle arrays; wherein each implant or non-implant is built layer-by-layer by moving it along a path having more than one enclosed clean chamber wherein at least a portion of the 3-D printing is performed; wherein the process involves multiple pass or sequential deposition of the same or different functional materials including at least one active pharmaceutical ingredient and separating into individual implants or non-implants.
A branching pipe joint for distributing a refrigerant flowing within a main pipe (51, 53) to two flows, comprising: a substantially Y-pipe shaped branch part comprising an inlet pipe part wherethrough flows the refrigerant that flows in from said main pipe, and a first outlet pipe part and a second outlet pipe part wherethrough flows the refrigerant along a first direction, which is the flow direction of the refrigerant that flows through said inlet pipe part, and along said first direction in directions substantially symmetric to a centerline (O-O) of said inlet pipe part; a first branch nozzle part connected to said first outlet pipe part and extending along said first direction; a second branch nozzle part connected to said second outlet pipe part and extending along said first direction; and a first branch pipe that is a pipe member, wherein one end part is connected to a tip part of said first branch nozzle during plumbing work, and that is bent so that the other end part faces a direction that intersects said first direction in a state connected to said first branch nozzle part, characterized in that said first branch nozzle part and said second branch nozzle part are disposed so that the spacing between the portion of the tip part of said first branch nozzle part nearest said second branch nozzle part side and the portion of said second branch nozzle part nearest the tip part of said first branch nozzle part is less than or equal to 40 mm, and in that the tip part of said second branch nozzle part protrudes further than the tip part of said first branch nozzle part toward said first direction side. a substantially Y-pipe shaped branch part comprising an inlet pipe part wherethrough flows the refrigerant that flows in from said main pipe, and a first outlet pipe part and a second outlet pipe part wherethrough flows the refrigerant along a first direction, which is the flow direction of the refrigerant that flows through said inlet pipe part, and along said first direction in directions substantially symmetric to a centerline (O-O) of said inlet pipe part; a first branch nozzle part connected to said first outlet pipe part and extending along said first direction; a second branch nozzle part connected to said second outlet pipe part and extending along said first direction; and a first branch pipe that is a pipe member, wherein one end part is connected to a tip part of said first branch nozzle during plumbing work, and that is bent so that the other end part faces a direction that intersects said first direction in a state connected to said first branch nozzle part, characterized in that said first branch nozzle part and said second branch nozzle part are disposed so that the spacing between the portion of the tip part of said first branch nozzle part nearest said second branch nozzle part side and the portion of said second branch nozzle part nearest the tip part of said first branch nozzle part is less than or equal to 40 mm, and in that the tip part of said second branch nozzle part protrudes further than the tip part of said first branch nozzle part toward said first direction side.
A supported metal catalyst, wherein the catalyst comprises at least one metal selected from Group VIII or IB of the Periodic Table, the catalyst is modified by at least one amine, and wherein the catalyst comprises faceted particles, provided that when the metal is Pt and the support is Al 2 O 3, the amine is not: a) S-benzyl-L-cysteine; b) N-benzyl-S-benzyl-L-cysteine; c) L-cysteine ethyl ester; d) S-benzyl-L-cysteine ethyl ester; e) N-benzyl-S-benzyl-L-cysteine ethyl ester; f) S-phenyl-L-cysteine ethyl ester; or g) N-benzyl-S-phenyl-L-cysteine ethyl ester. a) S-benzyl-L-cysteine; b) N-benzyl-S-benzyl-L-cysteine; c) L-cysteine ethyl ester; d) S-benzyl-L-cysteine ethyl ester; e) N-benzyl-S-benzyl-L-cysteine ethyl ester; f) S-phenyl-L-cysteine ethyl ester; or g) N-benzyl-S-phenyl-L-cysteine ethyl ester.
Separator for separating sand and rock particles upon the conveyance of liquids or gases from rock boreholes, comprising a plurality of annular disks that are stacked on each other and axially braced by spring elements by means of a support structure and consist of a brittle-hard material, wherein the top side of the disks has at least three spacers that are evenly distributed over the circumference of the disks, wherein the disks are stacked on each other such that the spacers each lie on each other, and there is a separating gap with a height of 0.05-1 mm, preferably 0.2-0.5 mm, between each of the individual disks, wherein the bracing by spring elements prevents the separating gap from widening, and wherein the brittle-hard material of the annular disks is selected from oxide and non-oxide ceramic materials, mixed ceramics of these materials, ceramic materials with added secondary phases, mixed materials with portions of ceramic hard materials and with a metal binder phase, precipitation-hardened casting materials, powder metallurgical materials with hard material phases formed in situ, and long and/or short fiber-reinforced ceramic materials.
A method of modifying a specific lysine residue in a polypeptide comprising at least two lysine residues, said method comprising (a) providing a polypeptide comprising a target lysine residue, protected by a first protecting group, and at least one further lysine residue; wherein providing the polypeptide comprises (i) providing a nucleic acid encoding the polypeptide which nucleic acid comprises an orthogonal codon encoding the target lysine; (ii) translating said nucleic acid in the presence of an orthogonal tRNA. synthetase/tRNA pair capable of recognising said orthogonal codon and incorporating said target lysine residue protected by a first protecting group into the polypeptide chain; (b) treating the polypeptide to protect said further lysine residue(s), wherein the protecting group for said further lysine residues is different to the protecting group for the target lysine residue; (c) selectively deprotecting the target lysine residue; and (d) modifying the deprotected lysine residue of (c). (a) providing a polypeptide comprising a target lysine residue, protected by a first protecting group, and at least one further lysine residue; wherein providing the polypeptide comprises (i) providing a nucleic acid encoding the polypeptide which nucleic acid comprises an orthogonal codon encoding the target lysine; (ii) translating said nucleic acid in the presence of an orthogonal tRNA. synthetase/tRNA pair capable of recognising said orthogonal codon and incorporating said target lysine residue protected by a first protecting group into the polypeptide chain; (i) providing a nucleic acid encoding the polypeptide which nucleic acid comprises an orthogonal codon encoding the target lysine; (ii) translating said nucleic acid in the presence of an orthogonal tRNA. synthetase/tRNA pair capable of recognising said orthogonal codon and incorporating said target lysine residue protected by a first protecting group into the polypeptide chain; (b) treating the polypeptide to protect said further lysine residue(s), wherein the protecting group for said further lysine residues is different to the protecting group for the target lysine residue; (c) selectively deprotecting the target lysine residue; and (d) modifying the deprotected lysine residue of (c).
A method for producing a purified carbon dioxide product suitable for enhanced oil recovery and surplus electricity from a vaporous hydrocarbon feed using a SOFC system, the method comprising the steps of: introducing the vaporous hydrocarbon into the SOFC system; introducing steam into a pre-reformer of the SOFC system; and operating the SOFC system such that a desulfurized process gas forms and passes into a pre-reformer; a reformed process gas forms in the pre-reformer by converting the non-methane alkanes in the desulfurized process gas into methane and carbon oxides in the presence of a pre-reforming catalyst; the reformed process gas passes from the pre-reformer into the solid oxide fuel cell; a water-gas shift reactor coupled to, and receiving off-gas as a feed from, the solid oxide fuel cell, converting carbon monoxide and water into carbon dioxide and hydrogen; and the purified carbon dioxide product and surplus electricity are produced; where the SOFC system receives the vaporous hydrocarbon feed and produces the desulfurized process gas, the purified carbon dioxide product and surplus electricity, and where the SOFC system includes the pre-reformer that fluidly couples to an upstream side of the solid oxide fuel cell and receives the desulfurized process gas and converts the non-methane alkanes using steam in the presence of an active metal pre-reforming catalyst into methane and carbon oxides, and the solid oxide fuel cell produces electricity. introducing the vaporous hydrocarbon into the SOFC system; introducing steam into a pre-reformer of the SOFC system; and operating the SOFC system such that a desulfurized process gas forms and passes into a pre-reformer; a reformed process gas forms in the pre-reformer by converting the non-methane alkanes in the desulfurized process gas into methane and carbon oxides in the presence of a pre-reforming catalyst; the reformed process gas passes from the pre-reformer into the solid oxide fuel cell; a water-gas shift reactor coupled to, and receiving off-gas as a feed from, the solid oxide fuel cell, converting carbon monoxide and water into carbon dioxide and hydrogen; and the purified carbon dioxide product and surplus electricity are produced;
An inlet filter housing, comprising: a plurality of components (150A-H, 180A-I, 194A-C) that collectively form a filtering and conditioning system for filtering and conditioning a fluid along a housing flow path, wherein each component (150A-H, 180A-I, 194A-C) is configured to fit within an external structure of an International Organization of Standards shipping container (152,182, 196) which provides a rectangular cuboid enclosure, wherein each component (150A-H, 180A-I, 194A-C) includes operative structure of at least one of: a) only a portion of an axial extent of the filtering and conditioning system, and b) only a portion of a lateral cross-sectional area of the housing flow path; characterized in that the plurality of components (150A-H, 180A-I, 194A-C) collectively define an outer enclosure of the inlet filter housing that defines the housing flow path, and the ISO shipping container (152A-H, 182A, 196A-C) of each component (150A-H, 180A-I, 194A-C) of the plurality of components (150A-H, 180A-I, 194A-C) defines at most only a portion of the outer enclosure, with no interior walls remaining from the shipping containers segmenting the housing flow path. a plurality of components (150A-H, 180A-I, 194A-C) that collectively form a filtering and conditioning system for filtering and conditioning a fluid along a housing flow path, wherein each component (150A-H, 180A-I, 194A-C) is configured to fit within an external structure of an International Organization of Standards shipping container (152,182, 196) which provides a rectangular cuboid enclosure, wherein each component (150A-H, 180A-I, 194A-C) includes operative structure of at least one of: a) only a portion of an axial extent of the filtering and conditioning system, and b) only a portion of a lateral cross-sectional area of the housing flow path; characterized in that the plurality of components (150A-H, 180A-I, 194A-C) collectively define an outer enclosure of the inlet filter housing that defines the housing flow path, and the ISO shipping container (152A-H, 182A, 196A-C) of each component (150A-H, 180A-I, 194A-C) of the plurality of components (150A-H, 180A-I, 194A-C) defines at most only a portion of the outer enclosure, with no interior walls remaining from the shipping containers segmenting the housing flow path.
A light-emitting element comprising: an EL layer including a light-emitting layer between an anode and a cathode; a first layer including a first hole-transporting substance and a first acceptor substance, provided in contact with the cathode between the cathode and the EL layer; a second layer including a first electron-transporting substance, provided in contact with the first layer; and a third layer including a second electron-transporting substance and an element, provided in contact with the second layer and the EL layer; wherein the first hole-transporting substance is selected from the group consisting of aromatic amine compounds, carbazole derivatives, aromatic hydrocarbons having a vinyl group, and high molecular compounds, and wherein the first electron-transporting substance is a perylene derivative or a nitrogen-containing condensed aromatic compound, the nitrogen-containing condensed aromatic compound being selected from pyrazino[2,3-f][1,10]phenanthroline-2,3-dicarbonitrile (PPDN), 2,3-diphenylpyrido[2,3-b]pyrazine (2PYPR), and 2,3-bis(4-fluorophenyl)pyrido[2,3-b]pyrazine (F2PYPR). an EL layer including a light-emitting layer between an anode and a cathode; a first layer including a first hole-transporting substance and a first acceptor substance, provided in contact with the cathode between the cathode and the EL layer; a second layer including a first electron-transporting substance, provided in contact with the first layer; and a third layer including a second electron-transporting substance and an element, provided in contact with the second layer and the EL layer; wherein the first hole-transporting substance is selected from the group consisting of aromatic amine compounds, carbazole derivatives, aromatic hydrocarbons having a vinyl group, and high molecular compounds, and wherein the first electron-transporting substance is a perylene derivative or a nitrogen-containing condensed aromatic compound, the nitrogen-containing condensed aromatic compound being selected from pyrazino[2,3-f][1,10]phenanthroline-2,3-dicarbonitrile (PPDN), 2,3-diphenylpyrido[2,3-b]pyrazine (2PYPR), and 2,3-bis(4-fluorophenyl)pyrido[2,3-b]pyrazine (F2PYPR).
Pneumatic spreading machine for seed and/or fertilizer, having at least one storage container for material to be spread, a dosing element in connection with the storage container, and a spreading head which is joined to the dosing element via at least one pneumatically charged delivery line, wherein the delivery line, at any point between the dosing element and the spreading head, is provided with at least one sieve-like air outlet opening, characterized in that an air conduit which surrounds the delivery line in an airtight manner and is executed as a releasably fixable collar is associated with the delivery line in the region of the at least one sieve-like air outlet opening; in that the collar has openings; and in that the collar is configured, by means of connecting pieces connecting to the openings, to discharge air exiting from the at least one sieve-like air outlet opening.
Fastening device with movable fixing points, wherein the fastening device has at least one rail (1, 13) having a substantially C-shaped cross-section, a back of the rail, edge strips (4, 4'), between which a front longitudinal groove is formed, and at least one slotted nut (6, 52) arranged in the rail (1, 13), the slotted nut being securely tensioned in the rail (1, 13) by means of at least one clamping element, characterised in that the clamping element abuts the back of the rail and the slotted nut (6, 52) abuts the edge strips (4, 4'), and a clamping force is produced via the clamping element, through which the slotted nut (6, 52) is pressed against the edge strips (4, 4'), wherein a suspension device (25, 39, 46, 51) is provided, which has at least one suspension element (26, 41, 60), and the slotted nut (6, 52) is in the shape of an elongated plate, in which a longitudinal opening (9, 55) having at least two portions is provided, one portion being wider than another portion, and the suspension element (26, 41, 60) being insertable through the opening (9, 55) into a gap between the back of the rail and the slotted nut (6, 52) and held through a rotational or sliding movement behind the slotted nut (6, 52).