mhurhangee/ep-ind-claims huggingface dataset:
Mechanical device for the sequential control of at least two levers of a timepiece mechanism, which includes motor means and release means for controlling the actuation of at least a first lever and a second lever to actuate, either respectively a first hammer and a second hammer, or pivoting parts, said at least a first lever and a second lever, which are each arranged to cooperate with a path (301; 302) of a contact surface comprised in said device said contact surface being movable under the action of motor means to transmit energy to said levers in the form of torque, in a sequence imposed by said paths (301; 302), wherein each of the levers (1; 2) changes in succession from a first torque consumption level (11; 21) to a second torque consumption level (12; 22) higher than said first level (11; 21) during a first increasing phase (14; 24) wherein said lever stores energy, then from said second level (12; 22) to said first level (11; 21) during a second decreasing phase (15; 25) in which said lever transmits energy to a mechanism using said energy, during which sequence said first lever transmits all of the energy that it has accumulated to a mechanism using said energy before, or at the latest at the moment when said second lever transmits all of the energy it has accumulated to a user mechanism, characterized in that said control device includes delaying means arranged to create, during the second decreasing phase of said first lever at least one stabilising stage at a third intermediate torque consumption level between said first level and said second level of torque consumption of said first lever, to prevent a peak in torque consumption by cumulating the torque consumptions of each of said levers, and characterized in that said contact surface is at the periphery of a wheel driven by said motor means of said timepiece mechanism or by motor means comprised in said device, and in that said contact surface controls said sequence of movements of said first lever and second lever which are each pivotally mounted about an axis parallel to that of said wheel and external thereto, by a first path including at least a first control cam for manoeuvring said first lever, and by a second path, distinct from said first path, including at least a second control cam for manoeuvring said second lever, said first control cam including a delay surface forming said delaying means, and further characterized in that said delay surface is formed either by a cylindrical sector whose axis coincides with that of said wheel, and which forms the largest diameter thereof in the area of travel of the first lever and second lever, or by a plane surface substantially tangent to such a cylindrical sector whose axis coincides with that of said wheel.
A paper or paperboard comprising: a paper or solid bleached sulfate paperboard substrate having a first side and a second side; and a first coating applied to said first side and a second coating applied to said second side to form a coated structure, said coated structure having a structure basis weight, a caliper thickness and a Parker Print Surf smoothness, said Parker Print Surf smoothness being at most about 2μm, characterised in that said structure basis weight is less than about Y 1, wherein Y 1 is a function of said caliper thickness in μm and is calculated as follows: Y 1 = 47.44 + 0.7656 X − 0.0001870 X 2 g / m 2 (Y 1 = 29.15 + 11.95X - 0.07415X 2 pounds per 3000 ft 2, where X is measured in points) and in that said substrate has a substrate basis weight of at least 105.8 g/m 2 (65 pounds per 3000 ft 2). a paper or solid bleached sulfate paperboard substrate having a first side and a second side; and a first coating applied to said first side and a second coating applied to said second side to form a coated structure, said coated structure having a structure basis weight, a caliper thickness and a Parker Print Surf smoothness, said Parker Print Surf smoothness being at most about 2μm, characterised in that said structure basis weight is less than about Y 1, wherein Y 1 is a function of said caliper thickness in μm and is calculated as follows: Y 1 = 47.44 + 0.7656 X − 0.0001870 X 2 g / m 2 (Y 1 = 29.15 + 11.95X - 0.07415X 2 pounds per 3000 ft 2, where X is measured in points) and in that said substrate has a substrate basis weight of at least 105.8 g/m 2 (65 pounds per 3000 ft 2).
A method for producing a peptide library including 1×10 6 or more peptides containing amino acids encoded by N 1 N 2 N 3, comprising: a step of preparing an mRNA library including mRNAs which encode peptides of the peptide library, respectively, and each contain a plurality of N 1 N 2 N 3 S; and a step of translating each of the mRNAs of the mRNA library in a cell-free translation system added with a tRNA containing an anticodon to any of N 1 N 2 N 3 codons and charged with an amino acid corresponding to the codon wherein N 1, N 2, and N 3 are each independently selected from adenine, guanine, cytosine, and uracil; and an arbitrary amino acid is reassigned to each N 1 N 2 N 3 and N 1 N 2 U codons are reassigned to only non-proteinogenic amino acids. a step of preparing an mRNA library including mRNAs which encode peptides of the peptide library, respectively, and each contain a plurality of N 1 N 2 N 3 S; and a step of translating each of the mRNAs of the mRNA library in a cell-free translation system added with a tRNA containing an anticodon to any of N 1 N 2 N 3 codons and charged with an amino acid corresponding to the codon wherein N 1, N 2, and N 3 are each independently selected from adenine, guanine, cytosine, and uracil; and an arbitrary amino acid is reassigned to each N 1 N 2 N 3 and N 1 N 2 U codons are reassigned to only non-proteinogenic amino acids.
A process for producing cumene comprising feeding raw materials including benzene and is propanol in a gas-liquid downward concurrent flow mode to a fixed-bed reactor packed with a solid acid catalyst thereby to produce cumene, wherein the raw materials are fed to the reactor in a stream of a gas, and the reaction gas flow rate defined by Equation below is in the range of 0.05 to 0.6 at an entrance of a solid acid catalyst layer: ρg ⋅ ug ⋅ ρair ⋅ ρwater/ ρg ⋅ ρl 1 / 2 kgm − 2 s − 1 wherein ρg is the density of the reaction gas, ρl is the density of the reaction liquid, ρair is the gas density of air, pwater is the gas density of water, and ug is the superficial velocity of the reaction gas, and wherein the flow state in the reactor is in a trickle-bed zone, and wherein the reaction pressure is in the range of 2 to 5 MPaG.
An oral dosage form comprising a composition having an enteric- or pH-sensitive coating or layer surrounding same, said composition comprising: a therapeutically-effective amount of a polar agent having at least one group that confers a degree of partial or permanent charge on the polar agent that is greater than or equal to the charge of a hydroxyl group, a carboxyl group, an imidazole group, an amino group, a guanidine group, a phosphate group, or a sulfate group, and a permeability-enhancing amount of a permeability enhancer comprising glycerol or dimethylpalmityl-ammonio propanesulfonate, wherein the permeability enhancer is present in the composition at a concentration from 5% to 95% of the combined weight of the polar agent and the permeability enhancer and the amount of the polar agent transported across a Caco-2 cell membrane by said oral dosage form is increased by at least 150% relative to the amount transported across the Caco-2 cell membrane in the absence of the permeability enhancer. a therapeutically-effective amount of a polar agent having at least one group that confers a degree of partial or permanent charge on the polar agent that is greater than or equal to the charge of a hydroxyl group, a carboxyl group, an imidazole group, an amino group, a guanidine group, a phosphate group, or a sulfate group, and a permeability-enhancing amount of a permeability enhancer comprising glycerol or dimethylpalmityl-ammonio propanesulfonate, wherein the permeability enhancer is present in the composition at a concentration from 5% to 95% of the combined weight of the polar agent and the permeability enhancer and the amount of the polar agent transported across a Caco-2 cell membrane by said oral dosage form is increased by at least 150% relative to the amount transported across the Caco-2 cell membrane in the absence of the permeability enhancer.
A method of a User Equipment, in the following also referred to as UE, for performing random access procedure, comprising: the UE receives a first back-off information from a network in a dedicated message, wherein the first back-off information includes a granularity information; the UE transmits a first preamble to the network; the UE determines a back-off interval based on the first back-off information and a second back-off information, wherein the second back-off information is received when the UE monitors a response for the first preamble; and the UE transmits a second preamble to the network after a back-off time, wherein the back-off time is randomly selected within the back-off interval. the UE receives a first back-off information from a network in a dedicated message, wherein the first back-off information includes a granularity information; the UE transmits a first preamble to the network; the UE determines a back-off interval based on the first back-off information and a second back-off information, wherein the second back-off information is received when the UE monitors a response for the first preamble; and the UE transmits a second preamble to the network after a back-off time, wherein the back-off time is randomly selected within the back-off interval.
A computed radiography system for imaging an object, the CR system comprising: a radiation source; a storage phosphor screen, wherein the radiation source is configured to irradiate the storage phosphor screen through the object, and wherein the storage phosphor screen is configured to store a radiation energy pattern of the object; an illumination source configured to illuminate at least a sub-area of a storage phosphor screen to stimulate emission of a plurality of photons from the storage phosphor screen; a two dimensional imager configured to capture at least one two dimensional image from at least a sub-area of the storage phosphor screen using at least the stimulated emission photons; wherein the storage phosphor screen is further configured to emit a plurality of prompt emission photons upon irradiation, and wherein the 2D imager is further configured to receive the prompt emission photons from the storage phosphor screen; and a dichroic filter positioned between the illumination source and the storage phosphor screen and configured to pass stimulating illumination from the illumination source to the storage phosphor screen and to reflect the stimulated emission photons from the storage phosphor screen, wherein the 2D imager is further configured to receive the stimulated emission photons reflected by the dichroic filter; wherein the CR system is configured as a front lit CR system. a radiation source; a storage phosphor screen, wherein the radiation source is configured to irradiate the storage phosphor screen through the object, and wherein the storage phosphor screen is configured to store a radiation energy pattern of the object; an illumination source configured to illuminate at least a sub-area of a storage phosphor screen to stimulate emission of a plurality of photons from the storage phosphor screen; a two dimensional imager configured to capture at least one two dimensional image from at least a sub-area of the storage phosphor screen using at least the stimulated emission photons; wherein the storage phosphor screen is further configured to emit a plurality of prompt emission photons upon irradiation, and wherein the 2D imager is further configured to receive the prompt emission photons from the storage phosphor screen; and a dichroic filter positioned between the illumination source and the storage phosphor screen and configured to pass stimulating illumination from the illumination source to the storage phosphor screen and to reflect the stimulated emission photons from the storage phosphor screen, wherein the 2D imager is further configured to receive the stimulated emission photons reflected by the dichroic filter; wherein the CR system is configured as a front lit CR system.
A method for processing a DNA, comprising fragmenting, end-repairing and dA-tailing the DNA in a first pre-mixed system to obtain a first product, wherein the first pre-mixed system comprises a pre-mixed enzyme comprising a DNA-fragmentation enzyme, a polynucleotide kinase and a DNA polymerase.
Electronic greeting card, comprising an audio output device and a metal-air cell as an energy source for the audio output device, wherein the metal-air cell comprises • an air cathode, a metal-based anode, a separator, • a housing, which encloses the air cathode, the metal-based anode and the separator and which has at least one inlet opening for atmospheric oxygen, as well as • a means for opening and closing the at least one inlet opening for atmospheric oxygen and wherein the means for opening and closing the at least one inlet opening is a flap, a valve or a slide valve and wherein the air cathode, the metal-based anode and the separator are respectively formed as a thin layer (the cathode layer, the anode layer and the separator layer) and the layers form a stack in which the separator layer is arranged between the anode layer and the cathode layer, and wherein the stack comprising the layers, possibly including the electrical discharge conductors, has a maximum thickness of between 200 μm and 1000 μm and wherein at least one of the members of the group comprising the air cathode, the anode and the separator is formed by a printing process. • an air cathode, a metal-based anode, a separator, • a housing, which encloses the air cathode, the metal-based anode and the separator and which has at least one inlet opening for atmospheric oxygen, as well as • a means for opening and closing the at least one inlet opening for atmospheric oxygen
Ophthalmological implant having a main body and at least one ligand immobilized on the main body, by means of which at least one fibrogen and/or cytokine is to be bound and/or deactivated when the ophthalmological implant has been implanted, wherein at least part of a surface of the main body has been coated with a layer system which comprises the immobilized ligand, wherein the layer system comprises at least two layers and wherein at least one of the layers comprises the immobilized ligand and at least one of the other layers comprises a polymer from the group consisting of polyethylenimines, polyamines and polyallylamines.
Modular panel for hospital environments, consisting of a front portion, a back and a central element, sandwiched between the front portion and the back, wherein the central element is a honeycomb structure, characterized in that the front portion and the back have a tray structure fitted with a main wall (11, 21) and bent edges which define side walls (12,22) projecting in relation to the main wall (11,21).
An adaptive voltage scaling circuit, wherein the adaptive voltage scaling circuit comprises a performance classification monitor and an adaptive controller, wherein the performance classification monitor is disposed inside a chip, and is configured to detect working performance of the chip at a current working voltage, and output a detection result signal to the adaptive controller; and the adaptive controller is connected to the performance classification monitor, and is configured to output a control signal to a power management module of the chip according to the detection result signal output by the performance classification monitor, wherein the control signal is used to control the power management module to adjust a working voltage of the chip; and characterized by that the performance classification monitor comprises a source signal generating circuit (111, 401, 501), a comparison reference circuit (112, 402, 502), at least one delay circuit, at least one comparison branch circuit, and at least one comparison detection circuit, wherein the source signal generating circuit (111, 401, 501) is configured to provide a source signal for the performance classification monitor; the comparison reference circuit (112, 402, 502) is configured to output a reference signal according to the source signal; the at least one delay circuit is configured to perform delay processing on the source signal to obtain a delayed source signal; the at least one comparison branch circuit is configured to output a comparison signal according to the delayed source signal; and the at least one comparison detection circuit is configured to output the detection result signal according to the reference signal and the comparison signal; wherein the comparison reference circuit (112, 402, 502) comprises a flip-flop, the at least one comparison branch circuit comprises a flip-flop and the at least one comparison detection circuit comprises an exclusive OR gate logic circuit.
A gerotor pump (100, 200, 402, 600) for providing downhole artificial lift or surface pressure boosting in oil and gas production operations, the pump comprising: an inner rotor comprising a plurality of teeth, the inner rotor configured to rotate about a first longitudinal gerotor pump axis; a hollow outer rotor comprising a wall, the hollow outer rotor configured to engage with the plurality of teeth and to rotate about a second longitudinal gerotor pump axis; and a pump housing within which the inner rotor and the outer rotor are disposed, wherein an outer surface of the outer rotor defines a plurality of gaps between the pump housing and the outer rotor. an inner rotor comprising a plurality of teeth, the inner rotor configured to rotate about a first longitudinal gerotor pump axis; a hollow outer rotor comprising a wall, the hollow outer rotor configured to engage with the plurality of teeth and to rotate about a second longitudinal gerotor pump axis; and a pump housing within which the inner rotor and the outer rotor are disposed, wherein an outer surface of the outer rotor defines a plurality of gaps between the pump housing and the outer rotor.
A method to predict the predisposition to muscular and/or ligament injuries in a human individual comprising: a) assaying a genetic sample obtained from the human individual for the presence of at least one genetic variation in each of the following genes: ACTN3, COL5A1, MCT1, VEGF, HFE, to obtain a polymorphism profile; b) determining a regression function associated to the polymorphism profile; c) classifying the individual's predisposition to muscular and/or ligament injuries on the basis of the value of said regression function, wherein: - the genetic variation of ACTN3 is a C to T polymorphism in position 18705 of the gene corresponding to SNP rs1815739; - the genetic variation of COL5A1 is a C to T polymorphism in position 205765 of the gene corresponding to SNP rs12722; - the genetic variation of MCT1 is an A to T polymorphism in position 47005 of the gene corresponding to SNP rs1049434; - the genetic variation of VEGF is a C to G polymorphism in position 5398 of the gene corresponding to SNP rs2010963; - the genetic variation of HFE is a C to G polymorphism in position 8671 of the gene corresponding to SNP rs1799945. a) assaying a genetic sample obtained from the human individual for the presence of at least one genetic variation in each of the following genes: ACTN3, COL5A1, MCT1, VEGF, HFE, to obtain a polymorphism profile; b) determining a regression function associated to the polymorphism profile; c) classifying the individual's predisposition to muscular and/or ligament injuries on the basis of the value of said regression function, wherein: - the genetic variation of ACTN3 is a C to T polymorphism in position 18705 of the gene corresponding to SNP rs1815739; - the genetic variation of COL5A1 is a C to T polymorphism in position 205765 of the gene corresponding to SNP rs12722; - the genetic variation of MCT1 is an A to T polymorphism in position 47005 of the gene corresponding to SNP rs1049434; - the genetic variation of VEGF is a C to G polymorphism in position 5398 of the gene corresponding to SNP rs2010963; - the genetic variation of HFE is a C to G polymorphism in position 8671 of the gene corresponding to SNP rs1799945. - the genetic variation of ACTN3 is a C to T polymorphism in position 18705 of the gene corresponding to SNP rs1815739; - the genetic variation of COL5A1 is a C to T polymorphism in position 205765 of the gene corresponding to SNP rs12722; - the genetic variation of MCT1 is an A to T polymorphism in position 47005 of the gene corresponding to SNP rs1049434; - the genetic variation of VEGF is a C to G polymorphism in position 5398 of the gene corresponding to SNP rs2010963; - the genetic variation of HFE is a C to G polymorphism in position 8671 of the gene corresponding to SNP rs1799945.
A composition for a semiconductive layer of a cable, comprising (a) a copolymer of propylene with one or more comonomer(s), selected from ethylene or higher alpha-olefin comonomer(s), (b) a polar copolymer, (c) a solid conductive filler and (d) a polyolefin functionalised with a mono- or polycarboxylic acid compound or a derivative of a mono- or polycarboxylic acid compound, wherein the functionalised polyolefin (d) is different from the polar copolymer (b), and wherein the polymer composition has a Charpy Notch Impact Strength of at least 10 kJ/m 2 at -20 °C, measured in accordance with ISO 179-1eA:2000. (a) a copolymer of propylene with one or more comonomer(s), selected from ethylene or higher alpha-olefin comonomer(s), (b) a polar copolymer, (c) a solid conductive filler and (d) a polyolefin functionalised with a mono- or polycarboxylic acid compound or a derivative of a mono- or polycarboxylic acid compound, wherein the functionalised polyolefin (d) is different from the polar copolymer (b),
A method for providing an aerospace vehicle comprising a plurality of composite stiffeners, each stiffener of the plurality having a stack of plies of reinforcing fibers; at least some of the plies in the stack having reinforcing fibers oriented at ±α with respect to an axis of primary loading, where α is between 2 and 12 degrees; at least some of the plies having reinforcing fibers oriented at ±β with respect to the axis of primary loading, where β is between 50 and 85 degrees, wherein the stiffeners include webs, and wherein the fibers oriented at ±β are biased towards outer surfaces of the webs to increase stiffness in buckling and transverse bending, wherein the β fibers are arranged in plies biased away from a midplane towards the outer surfaces of the web, the method comprising the step of joining the plurality of composite stiffeners to the aerospace vehicle.