mhurhangee/ep-ind-claims huggingface dataset:
A maintaining device for maintaining at least one air jet cooling tube, the air jet cooling tube being intended to cool an outer surface of a turbomachine casing, characterized in that the maintaining device comprises a first support, comprising a first inner face turned towards the cooling tube and at least one left tab for partially retaining towards the left the cooling tube, located on a side of the first inner face and fastened thereto, a second support, comprising a second inner face turned towards the cooling tube and at least one right tab for partially retaining towards the right the cooling tube, located on a side of the second inner face and fastened thereto, first fastening means for fastening the first support to a first flange of the casing, second fastening means for fastening the second support to a second flange of the casing, the second fastening means being distinct from the first fastening means.
A balloon for delivering a therapeutic agent to a vessel wall of a subject, the balloon comprising: a body having a working portion disposed between distal and proximal ends thereof; and a coating applied to at least a portion of the balloon, wherein the coating comprises zotarolimus, polyvinyl pyrrolidone, and glycerol, the coating having a coating thickness of between 1.5 μm to 10 μm. a body having a working portion disposed between distal and proximal ends thereof; and a coating applied to at least a portion of the balloon, wherein the coating comprises zotarolimus, polyvinyl pyrrolidone, and glycerol, the coating having a coating thickness of between 1.5 μm to 10 μm.
A method of forming a hydrophobic-icephobic coating over a substrate, comprising: mixing a monomer binder, a plurality of nanoparticles, a surface energy reducing additive, and an organic solvent to form a hydrophobic-icephobic composition; applying the hydrophobic-icephobic composition over the substrate; and curing the hydrophobic-icephobic composition to form a hydrophobic-icephobic coating over the substrate, the hydrophobic-icephobic coating comprising the monomer binder from 90 weight % to 98 weight %, the nanoparticles from 1 weight % to 5 weight %, and the surface energy reducing additive from 1% weight to 5 weight %, wherein the organic solvent does not etch the substrate. mixing a monomer binder, a plurality of nanoparticles, a surface energy reducing additive, and an organic solvent to form a hydrophobic-icephobic composition; applying the hydrophobic-icephobic composition over the substrate; and curing the hydrophobic-icephobic composition to form a hydrophobic-icephobic coating over the substrate, the hydrophobic-icephobic coating comprising the monomer binder from 90 weight % to 98 weight %, the nanoparticles from 1 weight % to 5 weight %, and the surface energy reducing additive from 1% weight to 5 weight %,
A headlamp assembly for an automotive vehicle comprising: a headlamp housing to be mounted to a body of the vehicle and including an airflow opening and an air catcher passage extending through the headlamp housing; characterised in that a light guide coupled to the housing forms a portion of the air catcher passage, said light guide extending from the airflow opening into an interior of the body of the vehicle; an LED light generating unit is positioned adjacent an end of the light guide to pass light from the light generating unit through the light guide wherein an outer surface of the light guide is etched with a light extracting visible design extending along a length of the air catcher passage, the light guide being configured to glow visibly the design with respect to the remainder of the surface when illuminated by the light emitted from the LED light generating unit. a headlamp housing to be mounted to a body of the vehicle and including an airflow opening and an air catcher passage extending through the headlamp housing; characterised in that a light guide coupled to the housing forms a portion of the air catcher passage, said light guide extending from the airflow opening into an interior of the body of the vehicle; an LED light generating unit is positioned adjacent an end of the light guide to pass light from the light generating unit through the light guide wherein an outer surface of the light guide is etched with a light extracting visible design extending along a length of the air catcher passage, the light guide being configured to glow visibly the design with respect to the remainder of the surface when illuminated by the light emitted from the LED light generating unit.
An assembly comprising: - a turbomachine exhaust case, comprising two shrouds, respectively inner and outer, extending one inside the other concentrically around a turbomachine axis (X-X), and a plurality of arms extending radially between the shrouds, and - an annular part (120, 130) centered on the axis, mounted on a shroud of the exhaust case, downstream of said case with respect to an air flow in the turbomachine, the assembly being characterized in that the annular part (120, 130) and the shroud (111, 112) of the case on which it is mounted each include a circumferential thread (121, 131, 114, 115), said threads cooperating to allow mounting by screwing of the annular part on the shroud of the case. - a turbomachine exhaust case, comprising two shrouds, respectively inner and outer, extending one inside the other concentrically around a turbomachine axis (X-X), and a plurality of arms extending radially between the shrouds, and - an annular part (120, 130) centered on the axis, mounted on a shroud of the exhaust case, downstream of said case with respect to an air flow in the turbomachine,
An air battery, comprising: a cathode assembly comprising a porous cathode layer and an anode assembly that are disposed on mutually opposite sides of an electrolytic solution layer (β); and an electrically conductive cathode support plate that supports the porous cathode layer and comprises a ventilation area, wherein the porous cathode layer covers the ventilation area and further extends to a non-ventilation area outside the ventilation area, characterized in that the porous cathode layer comprises a dense portion in an outer edge part facing the non-ventilation area, wherein the dense portion (41 a) is formed by pressing the porous cathode layer against the cathode support plate while heating them so as to bond them to each other and then further pressing and heating the part where the dense portion is formed. a cathode assembly comprising a porous cathode layer and an anode assembly that are disposed on mutually opposite sides of an electrolytic solution layer (β); and an electrically conductive cathode support plate that supports the porous cathode layer and comprises a ventilation area, wherein the porous cathode layer covers the ventilation area and further extends to a non-ventilation area outside the ventilation area, characterized in that the porous cathode layer comprises a dense portion in an outer edge part facing the non-ventilation area, wherein the dense portion (41 a) is formed by pressing the porous cathode layer against the cathode support plate while heating them so as to bond them to each other and then further pressing and heating the part where the dense portion is formed.
Use of one or more stereoisomer(s) of the compound of formula for modifying and/or enhancing, preferably for enhancing, the olfactory impression of one or more odorant/odorants with a lily-of-the-valley note, wherein the or one or several odorant(s) is or are selected from the group consisting of 7-hydroxy-3,7-dimethyloctanal, 4-(4-hydroxy-4-methylpentyl)-3-cyclohexene-1-carboxaldehyde, 2,2-dimethyl-3-(3-methylphenyl)propanol, cis-4-(1-methylethyl)cyclohexanemethanol, 1-(4-isopropylcyclohexyl)ethanol, 3-methyl-4-phenylbutan-2-ol, dimethylphenyl propanol, and compound of formula, preferably wherein the odorant is a compound of formula. for modifying and/or enhancing, preferably for enhancing, the olfactory impression of one or more odorant/odorants with a lily-of-the-valley note, wherein the or one or several odorant(s) is or are selected from the group consisting of 7-hydroxy-3,7-dimethyloctanal, 4-(4-hydroxy-4-methylpentyl)-3-cyclohexene-1-carboxaldehyde, 2,2-dimethyl-3-(3-methylphenyl)propanol, cis-4-(1-methylethyl)cyclohexanemethanol, 1-(4-isopropylcyclohexyl)ethanol, 3-methyl-4-phenylbutan-2-ol, dimethylphenyl propanol, and compound of formula, preferably wherein the odorant is a compound of formula.
A system for providing via an output interface diagnostic fault information (PDTI) concerning a motor vehicle, which system comprises a first processing unit configured to receive fault codes from the vehicle, each fault code received being associated with a unique identity and being generated by a control unit (110, 130) with which the vehicle is already provided and whose function is at least partly implemented by a respective software, characterised in that the system comprises a first database comprising a range of information items, in which a certain information item describes how the control unit (110, 130) which originated a given fault code reacts when that fault code has been generated, the system comprises a second database (DB2, DB2') including data derived directly from said respective softwares, and the first processing unit is configured to generate diagnostic fault information (PDTI) concerning a certain fault code received, dynamically on the basis of the content of the first database and the content of the second database (DB2, DB2').
An adhesive composition comprising, by dry weight based on total dry weight of the adhesive composition, from 70% to 96%, a polyurethane dispersion, from 1% to 20%, an epoxy resin, and from 0.5% to 15%, an aliphatic amine crosslinker; wherein the polyurethane dispersion comprises a polyurethane prepolymer, and by dry weight based on total dry weight of the polyurethane dispersion, from 0.5% to 10%, an ionic surfactant, and from 0.1% to 8%, a polyamine.
An actuator comprising: - an actuating part, - a calibration mechanism (5, 11), - a pre-set mechanism (12, 13) arranged to allow a setting of the actuator to be adjusted, and - a calibration/pre-set manipulator arranged to cooperate with the calibration mechanism (5, 11) and the pre-set mechanism (12, 13) in a manner which allows an operator to activate the calibration mechanism (5, 11) or adjust the setting of the actuator, via the calibration/pre-set manipulator characterized in that the actuator further comprises a motor arranged to drive the actuating part, and in that the calibration mechanism (5, 11) upon activation initiates calibration of the actuator. - an actuating part, - a calibration mechanism (5, 11), - a pre-set mechanism (12, 13) arranged to allow a setting of the actuator to be adjusted, and - a calibration/pre-set manipulator arranged to cooperate with the calibration mechanism (5, 11) and the pre-set mechanism (12, 13) in a manner which allows an operator to activate the calibration mechanism (5, 11) or adjust the setting of the actuator, via the calibration/pre-set manipulator
An automotive interior parts, comprising a thermoplastic resin composition comprising an acetone insoluble fraction as determined in the experimental section of the specification and an acetone soluble fraction as determined in the experimental section of the specification, wherein a content of the acetone insoluble fraction is 5 to 18% by mass based on 100% by mass of a sum of the acetone insoluble fraction and the acetone soluble fraction, the acetone insoluble fraction comprises one, two or more resins having different constitutional units, the constitutional units of all the resins comprised in the acetone insoluble fraction comprise at least a rubber component unit having a mass average particle size of 0.1 to 0.35 μm, an aromatic vinyl monomer unit and an unsaturated nitrile monomer unit, the acetone insoluble fraction comprises a graft copolymer in which at least the unsaturated nitrile monomer unit is grafted onto the rubber component unit, a content of the unsaturated nitrile monomer unit comprised in the graft copolymer is 15 to 28% by mass based on 100% by mass of all grafted constitutional units, the acetone soluble fraction comprises one, two or more resins having different constitutional units, and the constitutional units of all the resins comprised in the acetone soluble fraction comprise at least an aromatic vinyl monomer unit, an unsaturated nitrile monomer unit, a methacrylate monomer unit and a maleimide-based monomer unit, and a content of the methacrylate monomer unit is 45 to 60% by mass based on 100% by mass of the constitutional units of all the resins comprised in the acetone soluble fraction.
A system for forming a multiple layer object, the system comprising: a spreader to form a layer of polymer particles, the polymer particles having a melting temperature (Tm) of at least 250° C; a fluid ejection head configured to selectively deposit a first fusing agent on a first portion of the layer and selectively deposit a second fusing agent on a second portion of the layer and not deposit a fusing agent on a third portion of the layer; and a heat source to heat the first portion and second portion, wherein the first portion is part of the multiple layer object and the second portion is not part of the multiple layer object and wherein the second portion reduces a thermal gradient between the first portion and other portions of the layer that will not be part of the formed object, and raises a temperature of polymer particles in a subsequent layer. a fluid ejection head configured to selectively deposit a first fusing agent on a first portion of the layer and selectively deposit a second fusing agent on a second portion of the layer and not deposit a fusing agent on a third portion of the layer; and a heat source to heat the first portion and second portion, wherein the first portion is part of the multiple layer object and the second portion is not part of the multiple layer object and wherein the second portion reduces a thermal gradient between the first portion and other portions of the layer that will not be part of the formed object, and raises a temperature of polymer particles in a subsequent layer.
A polymer composition, comprising: (a) 20 to 70 volume percent of at least one polymer; (b) 10 to 35 volume percent of at least one coated carbon particle selected from the group consisting of coated graphite, coated carbon fiber, coated glass carbon, coated amorphous carbon, and mixtures of these; (c) 7 to 35 volume percent of at least one electrically insulating, inorganic platy filler having a maximum length of longest dimension of 20 microns and selected from the group consisting of metal oxides, metal carbonates, carbonate minerals, metal hydroxides, metal nitrides, metal sulfides, phosphate minerals, clay minerals, silicate minerals, glass materials, and mixtures of these; and (d) optionally, 0.5 to 25 volume percent of a copolyester elastomer; wherein: the volume percent of each component (a) to (d) is based on the total volume of the polymer composition; and, when molded, the polymer composition has: a volume resistivity of greater than 1x10 14 Ω·cm, when measured according to ASTM D-257 at 100 Volts; and a thermal conductivity of at least 2.0 W/mK, when measured according to ASTM E-1461. (a) 20 to 70 volume percent of at least one polymer; (b) 10 to 35 volume percent of at least one coated carbon particle selected from the group consisting of coated graphite, coated carbon fiber, coated glass carbon, coated amorphous carbon, and mixtures of these; (c) 7 to 35 volume percent of at least one electrically insulating, inorganic platy filler having a maximum length of longest dimension of 20 microns and selected from the group consisting of metal oxides, metal carbonates, carbonate minerals, metal hydroxides, metal nitrides, metal sulfides, phosphate minerals, clay minerals, silicate minerals, glass materials, and mixtures of these; and (d) optionally, 0.5 to 25 volume percent of a copolyester elastomer; wherein: the volume percent of each component (a) to (d) is based on the total volume of the polymer composition; and, when molded, the polymer composition has: a volume resistivity of greater than 1x10 14 Ω·cm, when measured according to ASTM D-257 at 100 Volts; and a thermal conductivity of at least 2.0 W/mK, when measured according to ASTM E-1461. the volume percent of each component (a) to (d) is based on the total volume of the polymer composition; and, when molded, the polymer composition has: a volume resistivity of greater than 1x10 14 Ω·cm, when measured according to ASTM D-257 at 100 Volts; and a thermal conductivity of at least 2.0 W/mK, when measured according to ASTM E-1461. a volume resistivity of greater than 1x10 14 Ω·cm, when measured according to ASTM D-257 at 100 Volts; and a thermal conductivity of at least 2.0 W/mK, when measured according to ASTM E-1461.
A system for monitoring a wound comprising: a wound dressing configured to cover a wound surface of the wound; one or more sensing devices attached to the wound dressing, the one or more sensing devices comprising a pH meter; a network interface hardware; and a controller comprising: one or more processors; and one or more memory modules storing computer readable and executable instructions which, when executed by the one or more processors, cause the controller to: receive data measured by the one or more sensing devices along with times of measuring; determine whether a level of pH measured by the pH meter is increasing over time based on the data and times of measuring; determine that an infection is likely to occur when the level of the pH measured by the pH meter increases over time; and output an alert, through the network interface hardware, in response to determining that the infection is likely to occur. a wound dressing configured to cover a wound surface of the wound; one or more sensing devices attached to the wound dressing, the one or more sensing devices comprising a pH meter; a network interface hardware; and a controller comprising: one or more processors; and one or more memory modules storing computer readable and executable instructions which, when executed by the one or more processors, cause the controller to: receive data measured by the one or more sensing devices along with times of measuring; determine whether a level of pH measured by the pH meter is increasing over time based on the data and times of measuring; determine that an infection is likely to occur when the level of the pH measured by the pH meter increases over time; and output an alert, through the network interface hardware, in response to determining that the infection is likely to occur. one or more processors; and one or more memory modules storing computer readable and executable instructions which, when executed by the one or more processors, cause the controller to: receive data measured by the one or more sensing devices along with times of measuring; determine whether a level of pH measured by the pH meter is increasing over time based on the data and times of measuring; determine that an infection is likely to occur when the level of the pH measured by the pH meter increases over time; and output an alert, through the network interface hardware, in response to determining that the infection is likely to occur. receive data measured by the one or more sensing devices along with times of measuring; determine whether a level of pH measured by the pH meter is increasing over time based on the data and times of measuring; determine that an infection is likely to occur when the level of the pH measured by the pH meter increases over time; and output an alert, through the network interface hardware, in response to determining that the infection is likely to occur.
A computer-implemented method for detecting a flying spot on an edge of a depth image, comprising the steps of: collecting image data of the depth image; calculating a normal vector of each pixel of the depth image according to the image data; calculating (S 103), according to the normal vector, an edge point of the depth image with an edge detection operator; taking the edge point as a seed point and acquiring a first normal vector of the seed point; acquiring a second normal vector of each of neighboring pixels of the seed point; calculating an absolute value of a product of the first normal vector and the second normal vector; and determining whether the absolute value is less than a preset threshold; and determining the seed point as the flying spot based on a determination that the absolute value is less than the preset threshold. collecting image data of the depth image; calculating a normal vector of each pixel of the depth image according to the image data; calculating (S 103), according to the normal vector, an edge point of the depth image with an edge detection operator; taking the edge point as a seed point and acquiring a first normal vector of the seed point; acquiring a second normal vector of each of neighboring pixels of the seed point; calculating an absolute value of a product of the first normal vector and the second normal vector; and determining whether the absolute value is less than a preset threshold; and determining the seed point as the flying spot based on a determination that the absolute value is less than the preset threshold.
A method for amplification and allele detection of a biological sample wherein the biological sample comprises a first allele and a second allele of a target nucleic acid, the first allele being present in a higher concentration than the second allele, comprising the steps of adding a thermostable polymerase, a probe, and a pair of primers configured for amplification of the target nucleic acid in the biological sample, wherein the probe is configured to hybridize to the target nucleic acid without being extended by use of a blocker or mismatch and wherein the probe has a first Tm when hybridized to the first allele and second Tm when hybridized to the second allele, wherein the first Tm is higher than the second Tm, amplifying the target nucleic acid in the biological sample in the presence of the probe by thermal cycling between an annealing temperature and a denaturation temperature, wherein the annealing temperature is below the first Tm and above the second Tm such that the probe hybridizes to the first allele at the annealing temperature and inhibits amplification of the first allele and the second allele is preferentially amplified, and detecting the amplified second allele.