mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting source data via multicast to a plurality of devices in a wireless local area network, said method comprising: receiving channel condition feedback from a first device over a wireless channel; determining, based on said received channel condition feedback, whether said first device can be served; determining on the condition that said first device can be served, if a currently used forward error correction coding rate is sufficient for said first device to recover lost data; adjusting said currently used forward error correction coding rate without determining if a time interval has expired when determined that said currently used forward error correction coding rate is not sufficient for said first device to recover lost data; adjusting said forward error correction coding rate responsive to receiving feedback from multiple devices in a receiver quality of service class after a time interval has expired; generating forward error correction packets using said adjusted forward error correction coding rate from said source data; determining a physical layer mode of operation and a packet size for said source data based on said feedback from multiple devices in said receiver quality of service class; packetizing said source data responsive to said determined packet size; wirelessly transmitting (640, 645, 655, 660) to a plurality of devices said source data and said forward error correcting packets in a plurality of multicast groups with different priorities. receiving channel condition feedback from a first device over a wireless channel; determining, based on said received channel condition feedback, whether said first device can be served; determining on the condition that said first device can be served, if a currently used forward error correction coding rate is sufficient for said first device to recover lost data; adjusting said currently used forward error correction coding rate without determining if a time interval has expired when determined that said currently used forward error correction coding rate is not sufficient for said first device to recover lost data; adjusting said forward error correction coding rate responsive to receiving feedback from multiple devices in a receiver quality of service class after a time interval has expired; generating forward error correction packets using said adjusted forward error correction coding rate from said source data; determining a physical layer mode of operation and a packet size for said source data based on said feedback from multiple devices in said receiver quality of service class; packetizing said source data responsive to said determined packet size; wirelessly transmitting (640, 645, 655, 660) to a plurality of devices said source data and said forward error correcting packets in a plurality of multicast groups with different priorities.
A 3D printing build material container comprising: a reservoir to hold build material; a build material outlet structure to allow build material to exit the reservoir; a gas inlet structure to allow a gas to enter the reservoir; and a reinforcement structure attached to the reservoir at at least one selected location; the reservoir and reinforcement structure being to permit reconfiguration of the container from a relatively flat configuration to an in-use configuration in which the reservoir is fillable with build material, wherein when the container is in the in-use configuration the reservoir, at least when in a filled and not collapsed state, comprises a non-converging upper section and a converging lower section, wherein the at least one selected location is comprised in the upper section, and wherein the reservoir is formed from a plastics material and the reinforcement structure is formed from cardboard. a reservoir to hold build material; a build material outlet structure to allow build material to exit the reservoir; a gas inlet structure to allow a gas to enter the reservoir; and a reinforcement structure attached to the reservoir at at least one selected location; the reservoir and reinforcement structure being to permit reconfiguration of the container from a relatively flat configuration to an in-use configuration in which the reservoir is fillable with build material, wherein when the container is in the in-use configuration the reservoir, at least when in a filled and not collapsed state, comprises a non-converging upper section and a converging lower section, wherein the at least one selected location is comprised in the upper section, and wherein the reservoir is formed from a plastics material and the reinforcement structure is formed from cardboard.
An apparatus for quickly determining a fault in an electric power system, which protects the electric power system by sensing current supplied to the electric power system, the apparatus comprising: a current transformer configured to detect the current supplied to the electric power system and output a current detection voltage; a current determination unit configured to respectively compare the current detection voltage and a first-order differential voltage of the current detection voltage with predetermined first and second reference voltages; and a fault determination unit configured to determine whether a fault occurs based on the compared result of the current determination unit and generate a trip signal when it is determined that the fault has occurred, the apparatus characterized by, the current determination unit configured to also compare a second-order differential voltage of the current detection voltage with a predetermined third reference voltage. a current transformer configured to detect the current supplied to the electric power system and output a current detection voltage; a current determination unit configured to respectively compare the current detection voltage and a first-order differential voltage of the current detection voltage with predetermined first and second reference voltages; and a fault determination unit configured to determine whether a fault occurs based on the compared result of the current determination unit and generate a trip signal when it is determined that the fault has occurred, the apparatus characterized by, the current determination unit configured to also compare a second-order differential voltage of the current detection voltage with a predetermined third reference voltage.
A pre-stressed substrate for an inkjet photographic paper, comprising: (a) a base paper having a front surface and a back surface, (b) a top pre-stress coat on said front surface, said top pre-stress coat comprising a first pre-stress mixture containing at least a first pigment, a first binding material (TBM 1) comprising a first water dispersible binder (WDB 1) and 0 wt% to 50 wt% of a first water soluble binder (WSB 1); and (c) a back pre-stress coat on said back surface, said back pre-stress coating comprising a second pre-stress mixture containing at least a second pigment, a second binding material (TBM 2) comprising 50 wt% to 100 wt% of a second water soluble binder (WSB 2) and, optionally, a second water dispersible binder (WDB 2), wherein the weight % of WSB 1 in the TBM 1 is less than the weight % of WSB 2 in the TBM 2, wherein said back pre-stress coat comprises a coat weight 1-3 times greater than that of said top pre-stress coat, and wherein said pre-stressed substrate has a predetermined degree of curvature toward the back surface and is capable of countering curling forces that occur during image receiving layer coating and final product use. (a) a base paper having a front surface and a back surface, (b) a top pre-stress coat on said front surface, said top pre-stress coat comprising a first pre-stress mixture containing at least a first pigment, a first binding material (TBM 1) comprising a first water dispersible binder (WDB 1) and 0 wt% to 50 wt% of a first water soluble binder (WSB 1); and (c) a back pre-stress coat on said back surface, said back pre-stress coating comprising a second pre-stress mixture containing at least a second pigment, a second binding material (TBM 2) comprising 50 wt% to 100 wt% of a second water soluble binder (WSB 2) and, optionally, a second water dispersible binder (WDB 2), wherein the weight % of WSB 1 in the TBM 1 is less than the weight % of WSB 2 in the TBM 2,
Device for supplying at least one receiving surface between two successive stations in an industrial line for processing mass-produced products, having a pick-up zone from where the products are transferred to said surface, and comprising an input conveyer for receiving and maintaining a compact flow of products received from the upstream station, a receiving conveyer, extending along a conveying direction in the pick-up zone to receive therein and stop therein the flow of products supplied by the input conveyer, and a transfer means, for displacing, transversely to the conveying direction, to the receiving surface, the products stopped in the pick-up zone, characterized in that it further comprises at least one buffer conveying means, capable of, on the one hand, receiving the compact flow of products from the input conveyer when the products are stopped on the receiving conveyer for their transfer, and, on the other hand, conserving the compactness of said flow, that is to say conserving the spacing between the products.
A sprinkler system comprising a sprinkler (10,110,610) and a pipeline (14,614) having a central axis, the sprinkler (10,110,610) attached to the pipeline (14,614) such that there is fluid communication therebetween, the sprinkler (10,110,610) having a first inlet portion, a second inlet portion and an outlet (36,136,436), wherein the sprinkler (10,110,610) extends into the pipeline (14,614) such that at least a portion of the first inlet portion is in the centre of the pipeline (14,614), that is within 15% of the central axis of the pipeline (14,614), based on the diameter of the pipeline (14,614); and wherein the second inlet portion is within the pipeline (14,614) but off-centre and so outside the centre of the pipeline (14,614), the second inlet portion comprising a particulate filter with at least one linear aperture therein.
A gas burner, preferably a premix burner, comprising a support having a central gas inlet port for supply of gas into a gas supply chamber, said gas supply chamber being enclosed by a cylindrical perforated metal plate, said cylindrical perforated metal plate connected at the bottom to said support through a base section, said perforation in said cylindrical perforated metal plate providing a burner deck, characterised in that said burner deck has an overall porosity being equal to or lower than 11 %; wherein more than 50% of the burner deck has a porosity being equal to or lower than 9% and wherein up to 50% of the burner deck has a porosity being higher than 11%.
An improved Cell-Permeable Cre (iCP-Cre) recombinant protein, which comprises a Cre protein and an advanced macromolecule transduction domain (aMTD) being composed of 9 to 13 amino acid sequences and having improved cell or tissue permeability, wherein the aMTD is fused to one end or both ends of the Cre protein and has the following features of: (a) being composed of 3 or more amino acids selected from the group consisting of Ala, Val, Ile, Leu, and Pro; (b) having proline as amino acids corresponding to any one or more of positions 5 to 8, and 12 of its amino acid sequence; and (c) having an instability index of 40 to 60; an aliphatic index of 180 to 220; and a grand average of hydropathy (GRAVY) of 2.1 to 2.6, as measured by Protparam, and wherein the aMTD has an amino acid sequence of SEQ ID NO: 131. (a) being composed of 3 or more amino acids selected from the group consisting of Ala, Val, Ile, Leu, and Pro; (b) having proline as amino acids corresponding to any one or more of positions 5 to 8, and 12 of its amino acid sequence; and (c) having an instability index of 40 to 60; an aliphatic index of 180 to 220; and a grand average of hydropathy (GRAVY) of 2.1 to 2.6, as measured by Protparam, and
A carbon fiber mat comprising: carbon fibers having an average fiber length of from 3 mm to 100 mm, wherein the carbon fiber mat has a mat shape having a fiber areal weight of from 25 to 10,000 g/m 2, the carbon fibers in the carbon fiber mat include carbon fiber bundles in an amount of from 40 Vol% to 99 Vol% to the total amount of carbon fibers in the carbon fiber mat, wherein each carbon fiber bundle is constituted by a critical single fiber number or more of single carbon filaments, wherein the critical single fiber number is defined by the following formula, and an average number of single filaments in the carbon fiber bundles satisfies the following formula: Critical single fiber number = 600 / D 2.0 × 10 5 / D 2 ≤ N < 8.0 × 10 5 / D 2 wherein D is an average fiber diameter (μm) of carbon fibers, and an average thickness of the carbon fiber bundles is 100 μm or less. carbon fibers having an average fiber length of from 3 mm to 100 mm, wherein the carbon fiber mat has a mat shape having a fiber areal weight of from 25 to 10,000 g/m 2, the carbon fibers in the carbon fiber mat include carbon fiber bundles in an amount of from 40 Vol% to 99 Vol% to the total amount of carbon fibers in the carbon fiber mat, wherein each carbon fiber bundle is constituted by a critical single fiber number or more of single carbon filaments, wherein the critical single fiber number is defined by the following formula, and an average number of single filaments in the carbon fiber bundles satisfies the following formula: Critical single fiber number = 600 / D 2.0 × 10 5 / D 2 ≤ N < 8.0 × 10 5 / D 2 wherein D is an average fiber diameter (μm) of carbon fibers, and an average thickness of the carbon fiber bundles is 100 μm or less.
Process for preparing a heat-treated pooled human platelet lysate, said process comprising the steps of: a) Providing a pooled human platelet lysate (pHPL), b) Heat-treating the pooled human platelet lysate at a temperature of 50°C to 70°C during 20 to 40 minutes, c) Purifying the heat-treated pooled human platelet lysate of step b). a) Providing a pooled human platelet lysate (pHPL), b) Heat-treating the pooled human platelet lysate at a temperature of 50°C to 70°C during 20 to 40 minutes, c) Purifying the heat-treated pooled human platelet lysate of step b).
A stator coil, comprising: - a coil conductor; and an insulating layer which is an insulating tape wound around the coil conductor, wherein the insulating tape is impregnated with a thermosetting resin composition, and wherein the impregnated insulating tape is molded by heating and pressurizing, wherein the thermosetting resin composition comprises: - an epoxy resin containing a curing agent; and - inorganic particles having a rutile-type crystal structure and an average particle diameter of 500 nm or less. - a coil conductor; and - an epoxy resin containing a curing agent; and - inorganic particles having a rutile-type crystal structure and an average particle diameter of 500 nm or less.
A wind power plant for converting wind energy to electrical energy at sea, comprising: - a plurality of wind turbines, - a floatable frame work including at least two support elements (3a-b) adapted to support the wind turbines and arranged so that an opening is formed between the support elements, and - an arrangement for connecting the frame work to a fundament arranged in the sea, said arrangement comprises: - an elongated beam extending through said opening in the frame work and protruding on both sides of the frame work, - a connection unit for connecting one end of the beam to the fundament, and - a plurality of wire cables (14a-i) arranged between said beam and said frame work in order to mechanically connect the beam to the frame work, wherein at least three of said wire cables (14 a-d) are arranged between one end of the beam and the frame work and at least three (14 e-h) of said wire cables are arranged between the opposite end of the beam and the frame work. - a plurality of wind turbines, - a floatable frame work including at least two support elements (3a-b) adapted to support the wind turbines and arranged so that an opening is formed between the support elements, and - an arrangement for connecting the frame work to a fundament arranged in the sea, said arrangement comprises: - an elongated beam extending through said opening in the frame work and protruding on both sides of the frame work, - a connection unit for connecting one end of the beam to the fundament, and - a plurality of wire cables (14a-i) arranged between said beam and said frame work in order to mechanically connect the beam to the frame work,
A packaging material which packages an endoscopic treatment system to be used in combination with an endoscope, wherein the endoscopic treatment system includes an endoscopic treatment device having an operating part with a distal end and a proximal end and a sheath which is connected to the distal end of the operating part and in which a lumen is formed, and a guide wire which has a coated region applied with coating at a distal end of the guide wire and is inserted into the lumen of the sheath, wherein the packaging material has a tray which holds the distal end side of the sheath in a state where a predetermined positional relationship between the sheath and the guide wire is held and the coated region of the guide wire is exposed from the distal end of the sheath, and wherein the tray has a sheath holding part which is configured to hold the sheath and a wire storage part which is placed closer to the distal end side of the sheath than the sheath holding part, and the tray holds the full length of the coated region of the guide wire exposed from the distal end of the sheath straight, wherein the tray holds only the distal end of the sheath, a part of the operating part, and a part of the guide wire holder which stores the guide wire, wherein the sheath holding part has an introduction part that is positioned at a proximal end of the sheath and a bottom surface that is positioned closer to the distal end of the sheath than the introduction part, and wherein the bottom surface is positioned lower than the introduction part in a depth direction of the tray.
A liner panel (72; 74) for a combustor of a gas turbine engine, the liner panel comprising: a first heat transfer augmentation feature (120A-H) with a second heat transfer augmentation feature (122 A-H) stacked thereon; characterised in that: said first heat transfer augmentation feature (120 A-H) is a generally hemi-spherical protuberance.
A method for generating compounds with two or more carbon atoms (C 2+ compounds), comprising: (a) directing oxygen (O 2) and methane (CH 4) into an oxidative coupling of methane reactor that reacts said O 2 and CH 4 in an OCM process to yield a product stream comprising (i) C 2+ compounds including ethylene (C 2 H 4), ethane (C 2 H 6), and propylene (C 3 H 6), and (ii) C 1 compounds including un-reacted CH 4, CO 2, and CO; and (b) directing said product stream into a separations unit comprising a pressure swing absorber unit containing a metal organic framework or a temperature swing absorber unit containing a MOF that produce (i) a bottoms stream comprising said C 2+ compounds and (ii) an overhead stream comprising said C 1 compounds. (a) directing oxygen (O 2) and methane (CH 4) into an oxidative coupling of methane reactor that reacts said O 2 and CH 4 in an OCM process to yield a product stream comprising (i) C 2+ compounds including ethylene (C 2 H 4), ethane (C 2 H 6), and propylene (C 3 H 6), and (ii) C 1 compounds including un-reacted CH 4, CO 2, and CO; and (b) directing said product stream into a separations unit comprising a pressure swing absorber unit containing a metal organic framework or a temperature swing absorber unit containing a MOF that produce (i) a bottoms stream comprising said C 2+ compounds and (ii) an overhead stream comprising said C 1 compounds.
A hydraulic clutch assembly, comprising: a shaft defining a shaft channel, one or more hydraulic ports defined through the shaft, and one or more lubrication holes defined through the shaft; and a porting manifold disposed at least partially within the shaft channel, wherein the porting manifold includes a control pressure path in fluid communication with the one or more hydraulic ports and a lubrication flow path in fluid communication with the one or more lubrication holes, wherein the control pressure path and the lubrication path are fluidly isolated in the porting manifold; a backstop and a piston disposed on the shaft, wherein the backstop is fixed to the shaft, wherein the piston is slidably engaged to the shaft to move relative to the shaft and the backstop, wherein the backstop and the piston define a hydraulic cavity therebetween in fluid communication with the one or more hydraulic ports of the shaft, wherein the piston is configured to move between a retracted position and an engaged position wherein the piston engages a clutch pack, wherein the piston is slidably sealed to an outer diameter of the backstop; and characterized by: a balance dam fixed to the piston and disposed around a portion of the backstop to define a lubrication cavity between a back side of the backstop and the balance dam. a shaft defining a shaft channel, one or more hydraulic ports defined through the shaft, and one or more lubrication holes defined through the shaft; and a porting manifold disposed at least partially within the shaft channel, wherein the porting manifold includes a control pressure path in fluid communication with the one or more hydraulic ports and a lubrication flow path in fluid communication with the one or more lubrication holes, wherein the control pressure path and the lubrication path are fluidly isolated in the porting manifold; a backstop and a piston disposed on the shaft, wherein the backstop is fixed to the shaft, wherein the piston is slidably engaged to the shaft to move relative to the shaft and the backstop, wherein the backstop and the piston define a hydraulic cavity therebetween in fluid communication with the one or more hydraulic ports of the shaft, wherein the piston is configured to move between a retracted position and an engaged position wherein the piston engages a clutch pack, wherein the piston is slidably sealed to an outer diameter of the backstop; and characterized by: a balance dam fixed to the piston and disposed around a portion of the backstop to define a lubrication cavity between a back side of the backstop and the balance dam.