mhurhangee/ep-ind-claims huggingface dataset:
Tubing for feeding a fluid to a patient or feeding a fluid out of a patient, and in particular a venous tubing of an extra-corporeal blood circuit which venous tubing has a venous puncturing canula, or an arterial tubing of an extra-corporeal blood circuit which arterial tubing has an arterial puncturing canula, comprising a device for fixing a segment of the tubing in the form of a loop, characterised in that the device for fixing a segment of the tubing, in combination, comprising: a guiding piece (28, 30) taking the form of an annular body for fixing the intersecting portions of the segment of tubing which forms an eye in such a way that the eye forms a loop which contracts under tractive stress, and a securing piece (29, 31) for fixing that portion of the segment of tubing forming the eye which is situated between the intersecting portions (27A, 27B) in such a way that, when the loop tightens, that portion of the segment of tubing forming the eye which is situated between the intersecting portions does not slip through the annular guiding piece (28, 30), the intersecting portions (27A, 27B) of that segment of the tubing which forms an eye being placed in the guiding piece taking the form of an annular body, the eye thus forming a loop which contracts under a tractive stress, and the securing piece fixing that portion of the segment of tubing forming the eye which is situated between the intersecting portions, so that that portion of the segment of tubing forming the eye which is situated between the intersecting portions does not slip through the annular guiding piece when the loop tightens. a guiding piece (28, 30) taking the form of an annular body for fixing the intersecting portions of the segment of tubing which forms an eye in such a way that the eye forms a loop which contracts under tractive stress, and a securing piece (29, 31) for fixing that portion of the segment of tubing forming the eye which is situated between the intersecting portions (27A, 27B) in such a way that, when the loop tightens, that portion of the segment of tubing forming the eye which is situated between the intersecting portions does not slip through the annular guiding piece (28, 30),
A compound or a pharmaceutically acceptable salt or hydrate thereof for use in the treatment of leiomyosarcoma, wherein the compound is 4,4,4-Trifluoro-N-[ -2-[[ -5-(2-hydroxyethyl)-6-oxo-7H-pyrido[2,3-d] benzazepin-7-yl]amino]-1-methyl-2-oxo -ethyl]butanamide.
A laser system configured to be thermally managed, the system comprising: a primary mirror configured to reflect laser energy as beam energy to be output from the laser system, the primary mirror comprising an aperture; a secondary mirror configured to function as a stop for the laser system and aligned substantially on-axis with respect to the primary mirror, wherein the aperture of the primary mirror is configured to allow the laser energy to pass through the primary mirror to the secondary mirror; a plurality of obscurations (210, 304, 404, 408) arranged so as to scatter back laser energy into the system; and a plurality of energy redirectors; wherein the laser system is configured such that: at least a portion of the laser energy passing through the aperture is reflected off a peripheral region of the secondary mirror, strikes the primary mirror, and is reflected off the primary mirror as the beam energy, and a portion of excess energy included in the laser energy is allowed to pass by edges of the secondary mirror and out of the laser system; and wherein each of the energy redirectors is configured to redirect energy, that would otherwise be scattered back into the system by a corresponding one of the obscurations, away from the corresponding obscuration (210, 304, 404, 408) and out of the laser system. a primary mirror configured to reflect laser energy as beam energy to be output from the laser system, the primary mirror comprising an aperture; a secondary mirror configured to function as a stop for the laser system and aligned substantially on-axis with respect to the primary mirror, wherein the aperture of the primary mirror is configured to allow the laser energy to pass through the primary mirror to the secondary mirror; a plurality of obscurations (210, 304, 404, 408) arranged so as to scatter back laser energy into the system; and a plurality of energy redirectors; wherein the laser system is configured such that: at least a portion of the laser energy passing through the aperture is reflected off a peripheral region of the secondary mirror, strikes the primary mirror, and is reflected off the primary mirror as the beam energy, and a portion of excess energy included in the laser energy is allowed to pass by edges of the secondary mirror and out of the laser system; and wherein each of the energy redirectors is configured to redirect energy, that would otherwise be scattered back into the system by a corresponding one of the obscurations, away from the corresponding obscuration (210, 304, 404, 408) and out of the laser system.
A chin-bar for a helmet, the chin-bar comprising a body, a top and a bottom, wherein the body includes vertical passageways extending from the bottom of the chin-bar to the top of the chin-bar, and characterised in that the passageways form a crumple zone.
A compound of formula {[(diene)Ru(OOCR 2) 2] n v} (I') wherein n is 1 or 2; v is 0, 1 or 2; S is a coordinated molecule of a polar aprotic solvent or water; "diene" represents a linear or branched C 4 -C 15 hydrocarbon group comprising two carbon-carbon double bonds or a cyclic C 7 -C 20 hydrocarbon group comprising two carbon-carbon double bonds; and R 2 represents - a branched C 2-18 alkyl group comprising in the α position a tertiary or quaternary carbon atom and/or in the β position a quaternary carbon atom; said group optionally comprising a OH, amino or ether functional group; said group being optionally substituted by a one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; or - a CHR 3 Ph group, wherein R 3 is a OH or NH 2 group and Ph is a phenyl group optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups. wherein n is 1 or 2; v is 0, 1 or 2; S is a coordinated molecule of a polar aprotic solvent or water; "diene" represents a linear or branched C 4 -C 15 hydrocarbon group comprising two carbon-carbon double bonds or a cyclic C 7 -C 20 hydrocarbon group comprising two carbon-carbon double bonds; and R 2 represents - a branched C 2-18 alkyl group comprising in the α position a tertiary or quaternary carbon atom and/or in the β position a quaternary carbon atom; said group optionally comprising a OH, amino or ether functional group; said group being optionally substituted by a one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; or - a CHR 3 Ph group, wherein R 3 is a OH or NH 2 group and Ph is a phenyl group optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups. - a branched C 2-18 alkyl group comprising in the α position a tertiary or quaternary carbon atom and/or in the β position a quaternary carbon atom; said group optionally comprising a OH, amino or ether functional group; said group being optionally substituted by a one phenyl group, the phenyl group being optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups; or - a CHR 3 Ph group, wherein R 3 is a OH or NH 2 group and Ph is a phenyl group optionally substituted by one to five halogen atoms and/or by C 1-4 alkyl or alkoxyl groups.
A resonator comprising: a translator including a first set of translator electrodes (a) commonly connected to a first translator voltage (Φa) and a second set of translator electrodes (b) commonly connected to a second translator voltage (Φb), wherein the first set of translator electrodes (a) are arranged on the translator alternatively with the second set of translator electrodes (b); a stator including a first set of stator electrodes commonly connected to a first stator voltage (ΦA), a second set of stator electrodes commonly connected to a second stator voltage (ΦB), and a third set of stator electrodes commonly connected to a third stator voltage (ΦC), wherein the first set of stator electrodes are arranged on the stator alternatively with the second and third sets of stator electrodes (B, C); and a control circuit configured to provide the first and second translator voltages (Φa, Φb) and first through third stator voltages (ΦA, ΦB, ΦC) so as to cause the translator to move with respect to the stator at a resonant frequency of the resonator in response to the control circuit. a translator including a first set of translator electrodes (a) commonly connected to a first translator voltage (Φa) and a second set of translator electrodes (b) commonly connected to a second translator voltage (Φb), wherein the first set of translator electrodes (a) are arranged on the translator alternatively with the second set of translator electrodes (b); a stator including a first set of stator electrodes commonly connected to a first stator voltage (ΦA), a second set of stator electrodes commonly connected to a second stator voltage (ΦB), and a third set of stator electrodes commonly connected to a third stator voltage (ΦC), wherein the first set of stator electrodes are arranged on the stator alternatively with the second and third sets of stator electrodes (B, C); and a control circuit configured to provide the first and second translator voltages (Φa, Φb) and first through third stator voltages (ΦA, ΦB, ΦC) so as to cause the translator to move with respect to the stator at a resonant frequency of the resonator in response to the control circuit.
A device for collecting air in a pipe, the device being installed at one side of the pipe, the device comprising: a collecting pipe provided at one side of the pipe to collect air in the pipe; a diaphragm check valve provided under the collecting pipe and configured to operate as a pressure balance is broken by an air layer existing in the pipe, wherein the diaphragm check valve has a diaphragm in which holes for collecting air are formed and wherein fine dents are formed in the holes; and a collected air storing unit configured to store the air coming through the diaphragm check valve and the collecting pipe. a collecting pipe provided at one side of the pipe to collect air in the pipe; a diaphragm check valve provided under the collecting pipe and configured to operate as a pressure balance is broken by an air layer existing in the pipe, wherein the diaphragm check valve has a diaphragm in which holes for collecting air are formed and wherein fine dents are formed in the holes; and a collected air storing unit configured to store the air coming through the diaphragm check valve and the collecting pipe.
Extractor hood for extracting exhaust air and separating fat droplets from exhaust air, comprising at least one exhaust air inlet, a fan for generating an exhaust air flow, and at least one exhaust air outlet, the at least one exhaust air inlet having an exhaust air duct for a first separation of fat droplets from the exhaust air stream, and the exhaust air duct being configured to progressively deflect the exhaust air stream, such that fat droplets contained in the exhaust air stream and having exceeded a certain mass, due to their inertia, are deposited on a wall of the exhaust air duct, characterized in that the extractor hood further comprises a plurality of deposition units configured for a second removal of fat droplets from the exhaust air stream, wherein each deposition unit of the plurality of deposition units has a v-shaped form and the plurality of deposition units is such arranged that the exhaust air flow is divided into a number of partial flow streams routed between the deposition units and that by way of the v-shaped form of the deposition units turbulences in the partial flows are established leading to a conglomeration of the fat droplets still contained in the exhaust air stream.
A solar cell comprising, on a first main surface of a semiconductor substrate having a first conductivity type: a base layer which has the first conductivity type; and an emitter layer which is adjacent to the base layer and has a second conductivity type which is a conductivity type opposite to the first conductivity type, and further comprising a base collecting electrode provided on at least the base layer, characterized in that a part of the base collecting electrode is also arranged on the emitter layer so as to be in contact with the emitter layer adjacent to the base layer on which the base collecting electrode is arranged, further wherein a film thickness of the base collecting electrode arranged on the emitter layer is 0.1 to 10 μm.
A device for damping movement of a strut, the damping device caracterised in that it comprises: a housing with associated reservoirs on the side of the housing; at least a pair of reciprocating spaced vertically apart struts (42, 142) received by the housing, each of the struts (42, 142) being linearly moveable to extend and retract relative to the housing; a toothed rack on at least a portion of each of the struts (42, 142); at least a pair of axles, each of the axles having a pinion gear thereon and extending into the reservoirs on the side of the housing, wherein each of the pinion gears is cooperatively positioned for engaging the toothed rack of one of the struts (42, 142), wherein teeth of the racks mate with teeth of the corresponding pinion gears; spaced disks on each of the axles inside the reservoirs of the housing, and a viscous fluid retained in the reservoirs, with spaced static plates adjacent to the spaced disks on each of the axles to dampen movement of each of the struts (42, 142). a housing with associated reservoirs on the side of the housing; at least a pair of reciprocating spaced vertically apart struts (42, 142) received by the housing, each of the struts (42, 142) being linearly moveable to extend and retract relative to the housing; a toothed rack on at least a portion of each of the struts (42, 142); at least a pair of axles, each of the axles having a pinion gear thereon and extending into the reservoirs on the side of the housing, wherein each of the pinion gears is cooperatively positioned for engaging the toothed rack of one of the struts (42, 142), wherein teeth of the racks mate with teeth of the corresponding pinion gears; spaced disks on each of the axles inside the reservoirs of the housing, and a viscous fluid retained in the reservoirs, with spaced static plates adjacent to the spaced disks on each of the axles to dampen movement of each of the struts (42, 142).
Rotor for a brushless electric machine, comprising a cylinder head, a motor magnet, and a piston, the motor magnet having an internal diameter DA, the cylinder head having an external diameter DC2, the piston having an external diameter DP, such that DA is greater than the diameters DC2 and DP, the motor magnet being bonded to the cylinder head and to the piston by an adhesive seal distributed between the diameters DA and DC2 and between DA and DP, the cylinder head having a plurality of diameters denoted DC1 at a first end, DC2 on the largest axial part and DC3 on a second end, a bead of the adhesive seal being placed on the cylinder head in the housing generated by the differences between the diameters DC1, DC2 and DA at the first end of the rotor, characterized in that DC3>DC2>DC1, in that the motor magnet is resting on the cylinder head on a surface defined by the difference between the diameters DC3 and DC2 of the cylinder head, the cylinder head is extended on its second end by a nose used to facilitate attaching the cylinder head on the shaft, and a coding magnet is bonded to the cylinder head on a reference surface orthogonal to the axis of rotation of the rotor and generated by the difference between the diameter DC3 and the external diameter of the nose used to attach the mechanical shaft to the cylinder head.
A supercapacitor comprising: two or more electrodes, wherein at least one electrode comprises a functionalized carbon electrode comprising a carbon substrate and a conducting polymer forming one or more hollow nanotubes disposed on the carbon substrate, wherein the conducting polymer comprises polyaniline, poly(p-phenylene oxide), poly(p-phenylene sulfide), poly(3,4-ethylenedioxythiophene), polypyrrole, polythiophene, poly(3-alkythiophene), poly(3-methylthiophene), poly(3-hexylthiophene), or any combination thereof; a current collector; and a redox electrolyte. two or more electrodes, wherein at least one electrode comprises a functionalized carbon electrode comprising a carbon substrate and a conducting polymer forming one or more hollow nanotubes disposed on the carbon substrate, wherein the conducting polymer comprises polyaniline, poly(p-phenylene oxide), poly(p-phenylene sulfide), poly(3,4-ethylenedioxythiophene), polypyrrole, polythiophene, poly(3-alkythiophene), poly(3-methylthiophene), poly(3-hexylthiophene), or any combination thereof; a current collector; and a redox electrolyte.
A method of decoding video data, the method comprising: decoding a picture layer syntax element in a picture layer parameter set, the picture layer syntax element indicating whether deblocking filter parameters are present in the picture layer parameter set; in the case that the picture layer syntax element indicates that deblocking filter parameters are present in the picture layer parameter set, decoding a slice layer syntax element in a slice header defined to indicate whether to use a first set of deblocking filter parameters included in the picture layer parameter set or a second set of deblocking filter parameters included in the slice header to define a deblocking filter applied to a current video slice; and otherwise determining that the slice layer syntax element is not present in the slice header to be decoded. decoding a picture layer syntax element in a picture layer parameter set, the picture layer syntax element indicating whether deblocking filter parameters are present in the picture layer parameter set; in the case that the picture layer syntax element indicates that deblocking filter parameters are present in the picture layer parameter set, decoding a slice layer syntax element in a slice header defined to indicate whether to use a first set of deblocking filter parameters included in the picture layer parameter set or a second set of deblocking filter parameters included in the slice header to define a deblocking filter applied to a current video slice; and otherwise determining that the slice layer syntax element is not present in the slice header to be decoded.
A method for producing a composite of metal oxide nanoparticles and carbon in which shear stress and centrifugal force is applied to a solution including a starting material of metal oxide and carbon powder in a rotating reactor to allow reaction and obtain a composite powder in which highly dispersed metal oxide nanoparticle precursors are supported on carbon, and the composite powder is rapidly heated under nitrogen atmosphere for 3 to 5 minutes to 400 - 1000 °C to allow progression of crystallization of metal oxide so that metal oxide nanoparticles having a crystal structure having a thickness of 1 nm or less at 2 - 5 atomic layers level highly dispersed and supported by the carbon are formed.
A charging member comprising: an electro-conductive support; and an elastic player; wherein the elastic layer is a surface layer of the charging member, and is constituted by a mono layer, the elastic layer includes domains and a matrix, the domains each containing carbon black and rubber, the matrix containing rubber and having an electrical resistance higher than that of the domains, an outer surface of the charging member is constituted by a surface of the matrix and surfaces of the domains, and the charging member has concave portions on the outer surface, the domains exist at bottom portions of the respective concave portions and are exposed to the outer surface of the charging member only at the bottom portions of the respective concave portions, the elastic layer has a volume resistivity of 1 × 10 5 Ωcm or more and 1 × 10 8 Ωcm or less, and when A1 is defined as a current value at the time of applying a direct current voltage of 80 V between the electro-conductive support and a cantilever of an atomic force microscope in contact with a surface of the matrix constituting the outer surface of the charging member and A2 is defined as a current value at the time of applying a DC voltage of 80 V between the electro-conductive support and the cantilever of the atomic force microscope in contact with surfaces of the respective domains constituting the outer surface of the charging member, A1 and A2 being measured according to the description of paragraphs 83 to 86, A2 is 20 times or more of A1. an electro-conductive support; and an elastic player; wherein the elastic layer is a surface layer of the charging member, and is constituted by a mono layer, the elastic layer includes domains and a matrix, the domains each containing carbon black and rubber, the matrix containing rubber and having an electrical resistance higher than that of the domains, an outer surface of the charging member is constituted by a surface of the matrix and surfaces of the domains, and the charging member has concave portions on the outer surface, the domains exist at bottom portions of the respective concave portions and are exposed to the outer surface of the charging member only at the bottom portions of the respective concave portions, the elastic layer has a volume resistivity of 1 × 10 5 Ωcm or more and 1 × 10 8 Ωcm or less, and when A1 is defined as a current value at the time of applying a direct current voltage of 80 V between the electro-conductive support and a cantilever of an atomic force microscope in contact with a surface of the matrix constituting the outer surface of the charging member and A2 is defined as a current value at the time of applying a DC voltage of 80 V between the electro-conductive support and the cantilever of the atomic force microscope in contact with surfaces of the respective domains constituting the outer surface of the charging member, A1 and A2 being measured according to the description of paragraphs 83 to 86, A2 is 20 times or more of A1.