mhurhangee/ep-ind-claims huggingface dataset:
A minimally invasive medical instrument having a proximal end and a distal end and comprising a sensor arrangement arranged at the distal end of the medical instrument, the sensor arrangement comprising: - a sensor configured to generate sensor data in the form of an electrical sensor signal, - a data conversion device configured to convert the electrical sensor signal into an optical signal and comprising an electrical input for receiving the electrical sensor signal and an optical output for transmitting the optical signal, and - an optical fiber configured to transmit the optical signal from the distal end to the proximal end, the optical fiber coupled to the output of the data conversion device for receiving the optical signal, the optical fiber extending from the distal end to the proximal end of the instrument, characterized in that the instrument is a guide wire having an elongated guide wire core, and wherein the optical fiber forms the guide wire core. - a sensor configured to generate sensor data in the form of an electrical sensor signal, - a data conversion device configured to convert the electrical sensor signal into an optical signal and comprising an electrical input for receiving the electrical sensor signal and an optical output for transmitting the optical signal, and - an optical fiber configured to transmit the optical signal from the distal end to the proximal end, the optical fiber coupled to the output of the data conversion device for receiving the optical signal, the optical fiber extending from the distal end to the proximal end of the instrument, characterized in that the instrument is a guide wire having an elongated guide wire core, and wherein the optical fiber forms the guide wire core.
A system for machining materials by means of laser beam, comprising: a deflection device for deflecting the laser beam; and a wobble device configured to superimpose a wobble movement of said laser beam with a wobble figure and a wobble frequency onto a feed movement of said laser beam corresponding to a machining path by controlling said deflection device, characterized in that said wobble device is configured, for carrying out the wobble movement, to control said deflection device according to a compensated wobble movement, wherein control values for a deflection of said laser beam along the wobble figure are adapted and stored depending on the wobble frequency, and are used for controlling said deflection device according to the compensated wobble moment, and/or wherein a path speed of the wobble movement that varies along the wobble figure, is adapted and stored depending on a position of said laser beam in the wobble figure and on the wobble frequency, and is used for controlling the deflection device (40 according to the compensated wobble movement, and in that controlling said deflection device according to the compensated wobble movement comprises at least one of: compensating for a reduction in amplitude of at least a portion of the wobble figure depending on the wobble frequency; and compensating for a shape deviation of at least a portion of the wobble figure depending on the wobble frequency. a deflection device for deflecting the laser beam; and a wobble device configured to superimpose a wobble movement of said laser beam with a wobble figure and a wobble frequency onto a feed movement of said laser beam corresponding to a machining path by controlling said deflection device, characterized in that said wobble device is configured, for carrying out the wobble movement, to control said deflection device according to a compensated wobble movement, wherein control values for a deflection of said laser beam along the wobble figure are adapted and stored depending on the wobble frequency, and are used for controlling said deflection device according to the compensated wobble moment, and/or wherein a path speed of the wobble movement that varies along the wobble figure, is adapted and stored depending on a position of said laser beam in the wobble figure and on the wobble frequency, and is used for controlling the deflection device (40 according to the compensated wobble movement, and in that controlling said deflection device according to the compensated wobble movement comprises at least one of: compensating for a reduction in amplitude of at least a portion of the wobble figure depending on the wobble frequency; and compensating for a shape deviation of at least a portion of the wobble figure depending on the wobble frequency.
Method for estimating the current delivered by an alternator for a motor vehicle, comprising the calculation of an output value (IALT) representative of the current delivered by the alternator from a first input value (Iex) representative of an excitation current of the alternator on the one hand, and of a second input value representative of the speed of rotation of the alternator on the other hand, in which the calculation of the output value comprises the steps of: /a/ calculation (85, 86) of a first term substantially proportional to the first input value; /b/ calculation of a second term substantially inversely proportional to the second input value; and, /c/ subtraction of the second term from the first term to obtain the output value. /a/ calculation (85, 86) of a first term substantially proportional to the first input value; /b/ calculation of a second term substantially inversely proportional to the second input value; and, /c/ subtraction of the second term from the first term to obtain the output value.
An apparatus comprising: a code location component, configured to execute at least partially within an auxiliary execution environment, and further configured to locate a group of pages of a main memory having content corresponding to a first component configured to execute within a host execution environment, the auxiliary execution environment being securely partitioned from the host execution environment, the auxiliary execution environment further being configured to execute instructions independently and securely isolated from the host execution environment, and a micro-context manager, configured to execute within the auxiliary execution environment, coupled to the code location component and further configured to associate a micro-context identifier with the group of pages of the main memory to regulate access to the content from the host execution environment. a code location component, configured to execute at least partially within an auxiliary execution environment, and further configured to locate a group of pages of a main memory having content corresponding to a first component configured to execute within a host execution environment, the auxiliary execution environment being securely partitioned from the host execution environment, the auxiliary execution environment further being configured to execute instructions independently and securely isolated from the host execution environment, and a micro-context manager, configured to execute within the auxiliary execution environment, coupled to the code location component and further configured to associate a micro-context identifier with the group of pages of the main memory to regulate access to the content from the host execution environment.
A tool (100, 100') for installing a blind fastener (30, 30') including a core bolt (3, 3') and a core nut (5, 5'), the tool (100, 100') comprising: a driving member (122, 122'); a collet (116, 116') driven by the driving member (122, 122') configured to engage the core bolt (3, 3'); and an external sleeve (110, 110') configured to hold the core nut (5, 5') and configured to prevent the core nut (5, 5') from rotating during installation of the blind fastener (30, 30'), the tool characterized by: the external sleeve (110, 110') being movable between a first position in which the external sleeve (110, 110') is driven by the collet (116, 116') to rotate with the collet (116, 116') and a second position in which the external sleeve (110, 110') is stationary despite rotating action of the collet (116, 116'). a driving member (122, 122'); a collet (116, 116') driven by the driving member (122, 122') configured to engage the core bolt (3, 3'); and
Floor covering consisting of a plurality of boards (A, B) laid in combination, wherein, for differentiation purposes, A hereinafter indicates parts belonging to an A board and B indicates parts belonging to a B board, the head end and/or longitudinal sides of the boards (A, B) comprising projecting A-and B-interlocking strips (3, 3a, 3b, 3c, 10, 10a, 10b, 10c)arranged thereon, on whichinterlocking means are formed which engage with one another in an assembly position of adjacent boards (A, B) in a floor covering, while on an end face of a B-interlocking strip facing an adjacent board there are a plurality of B-projections (12, 12c, 12d, 12e) facing the adjacent board and spaced apart in the longitudinal direction of the end face, said B-projections defining a B-undercut which is intended to receive a plurality of A-projections facing the B-interlocking strip (10, 10a, 10b, 10c) and spaced apart in the longitudinal direction, the A- and B-projections (4, 12, 12c, 12d, 12e) of the adjacent boards (A, B) being adapted to be overlapped at least partially by a relative movement in the longitudinal direction, the A- and B-projections (4, 12, 12c, 12d, 12e) being intended to absorb forces at right-angles to the plane of laying, and the A- and B-interlocking strips (3, 3a, 3b, 3c, 10, 10a, 10b, 10c) being intended to absorb forces in the plane of laying, wherein the A- and B-projections (4, 12, 12c, 12d, 12e) extend in a single plane parallel to the visible side of the floor covering and are of wave-shaped configuration in the direction of this plane.
A multistage gas generator for an air bag, having a housing comprising a plurality of gas discharge ports formed in a side wall, a plurality of combustion chambers (50, 60) for accommodating gas generating means (52,62) provided in the housing, ignition means (51, 61) disposed in each of the combustion chambers (50, 60) for igniting and burning the gas generating means (52,62), wherein, in the housing, at least one of a plurality of the combustion chambers (50,60) is disposed inside of an inner shell provided eccentrically with respect to the center axis of the housing, wherein the inner shell is provided with an opening portion which opens by combustion of the gas generating means (52,62) in one of the combustion chambers (50,60), characterized in that the combustion, gas, having opened the opening portion, then flows through said opening portion and into an adjoining combustion chamber, wherein said housing and said side wall have a cylindrical shape, and wherein said opening portion comprises a hole that is closed by a breaking member before actuation and can be opened by detaching the breaking member only by actuation of the combustion chamber defined inside the inner shell.
Particles comprising a single organic or inorganic pigment core particle encapsulated by a polymer having monomer units of at least one polymerisable steric stabiliser, at least one co-monomer, optionally at least one charged co-monomer, and optionally at least one crosslinking co-monomer, and the particles comprise at least one surfactant.
An epoxy resin composition, comprising: a component; a component; and a component, wherein component: an epoxy resin that does not include a sulfur atom in the molecule, component: an imidazole compound represented by formula below, and component: an imidazole compound represented by formula below. (In the formula, R 1 indicates a straight-chain or branched-chain alkyl group or hydroxymethyl group having 1∼5 carbon atoms, and R 2 indicates a hydrogen atom or a straight-chain or branched-chain alkyl group having 1∼5 carbon atoms.) (In the formula, R 3 indicates an organic group containing at least one carbon atom, and R 4 ∼R 6 indicate a hydrogen atom, a methyl group or an ethyl group.) a component; a component; and a component, component: an epoxy resin that does not include a sulfur atom in the molecule, component: an imidazole compound represented by formula below, and component: an imidazole compound represented by formula below. (In the formula, R 1 indicates a straight-chain or branched-chain alkyl group or hydroxymethyl group having 1∼5 carbon atoms, and R 2 indicates a hydrogen atom or a straight-chain or branched-chain alkyl group having 1∼5 carbon atoms.) (In the formula, R 3 indicates an organic group containing at least one carbon atom, and R 4 ∼R 6 indicate a hydrogen atom, a methyl group or an ethyl group.)
System for a building wall in the basement area of a house, having a light well and thermal insulation, which is arranged on the building wall, the insulation having fixing points (4.1), at which the light well is fitted, characterized in that the thermal insulation supports the light well completely.
A plasma transferred wire arc thermal spray apparatus for applying a coating to a surface, comprising a section for feeding a wire acting as a first electrode, a source of plasma gas providing plasma gas, a nozzle orifice of a nozzle directing a plasma gas jet to the free end of the wire, a second electrode located in the plasma gas stream towards the nozzle orifice, and the nozzle is electrically insulated to the first electrode characterized in that the nozzle is made of electrically insulating material.
An orthopaedic surgical instrument system, comprising: a stem trial component, wherein the stem trial component comprises: an outer sleeve including a proximal end, a distal end, and a passageway extending from an opening defined in the proximal end to an opening defined in the distal end, and a central rod including an elongated body positioned in the passageway of the outer sleeve, an end positioned adjacent to the proximal end of the outer sleeve, a distal tip positioned adjacent to the distal end of the outer sleeve, and an annular shoulder wall defined between the elongated body and the distal tip that is configured to engage a rim wall surrounding the opening defined in the distal end of the outer sleeve, wherein the passageway of the outer sleeve extends along a longitudinal axis, and the central rod is configured to slide along the longitudinal axis to advance the annular shoulder wall into and out of engagement with the rim wall, and characterized in that the end of the central rod is threaded, and in that the threaded end of the central rod is configured to be received in a threaded aperture of a surgical reamer to couple the stem trial component to the surgical reamer. a stem trial component, wherein the stem trial component comprises: an outer sleeve including a proximal end, a distal end, and a passageway extending from an opening defined in the proximal end to an opening defined in the distal end, and a central rod including an elongated body positioned in the passageway of the outer sleeve, an end positioned adjacent to the proximal end of the outer sleeve, a distal tip positioned adjacent to the distal end of the outer sleeve, and an annular shoulder wall defined between the elongated body and the distal tip that is configured to engage a rim wall surrounding the opening defined in the distal end of the outer sleeve, an outer sleeve including a proximal end, a distal end, and a passageway extending from an opening defined in the proximal end to an opening defined in the distal end, and a central rod including an elongated body positioned in the passageway of the outer sleeve, an end positioned adjacent to the proximal end of the outer sleeve, a distal tip positioned adjacent to the distal end of the outer sleeve, and an annular shoulder wall defined between the elongated body and the distal tip that is configured to engage a rim wall surrounding the opening defined in the distal end of the outer sleeve, wherein the passageway of the outer sleeve extends along a longitudinal axis, and the central rod is configured to slide along the longitudinal axis to advance the annular shoulder wall into and out of engagement with the rim wall, and characterized in that the end of the central rod is threaded, and in that the threaded end of the central rod is configured to be received in a threaded aperture of a surgical reamer to couple the stem trial component to the surgical reamer.
A ventilation arrangement for preventing humid damages behind a moisture barrier, especially in a transition between a floor (4,5) and a wall with a panel behind said moisture barrier, wherein said ventilation arrangement comprises the following features: - a hollow extended profile moulding for mounting along a sill along a wet utility room wall at said floor (4,5), - wherein said moisture barrier covers at least a wide portion of the transition between said floor (4, 5) and the wet utility room wall, - a vent coupling for air from the profile moulding mainly by a vent pipe to a ventilation fan to an outlet. characterized in that - wherein said profile moulding is arranged with a longitudinal shoulder arranged to support the lower edge of said panel, - wherein said profile moulding is arranged with holes in a longitudinal ventilation duct formed under said longitudinal shoulder, above said floor (4, 5) and behind said moisture barrier, wherein said holes have their Inlet from said longitudinal ventilation duct, - a hollow extended profile moulding for mounting along a sill along a wet utility room wall at said floor (4,5), - wherein said moisture barrier covers at least a wide portion of the transition between said floor (4, 5) and the wet utility room wall, - a vent coupling for air from the profile moulding mainly by a vent pipe to a ventilation fan to an outlet. characterized in that - wherein said profile moulding is arranged with a longitudinal shoulder arranged to support the lower edge of said panel, - wherein said profile moulding is arranged with holes in a longitudinal ventilation duct formed under said longitudinal shoulder, above said floor (4, 5) and behind said moisture barrier, wherein said holes have their Inlet from said longitudinal ventilation duct,
A forklift comprising: forks for holding a load; cylinders for causing the forks to perform an ascending/descending operation at an ascending/descending speed in accordance with a flow rate of hydraulic oil; a first valve for controlling the flow rate of hydraulic oil in accordance with an energizing current; a second valve for regulating the flow rate of hydraulic oil between the cylinders and the first valve in accordance with cylinder pressure on the cylinders; a control portion (7, 17) for supplying the energizing current to the first valve; an operating portion for stopping the ascending/descending operation; and a pressure sensor for detecting the cylinder pressure, wherein the control portion (7, 17) is adapted to calculate the flow rate to be regulated by the second valve based on the cylinder pressure, the control portion (7, 17) is adapted to calculate a current command value for the energizing current, with the flow rate to be controlled by the first valve being set equal to the regulated flow rate, and the control portion (7, 17) is adapted to change the energizing current in two stages, with the current command value being set as an upper limit of the energizing current, thereby decelerating the forks in two stages when stopping the ascending/descending operation. forks for holding a load; cylinders for causing the forks to perform an ascending/descending operation at an ascending/descending speed in accordance with a flow rate of hydraulic oil; a first valve for controlling the flow rate of hydraulic oil in accordance with an energizing current; a second valve for regulating the flow rate of hydraulic oil between the cylinders and the first valve in accordance with cylinder pressure on the cylinders; a control portion (7, 17) for supplying the energizing current to the first valve; an operating portion for stopping the ascending/descending operation; and a pressure sensor for detecting the cylinder pressure, wherein the control portion (7, 17) is adapted to calculate the flow rate to be regulated by the second valve based on the cylinder pressure, the control portion (7, 17) is adapted to calculate a current command value for the energizing current, with the flow rate to be controlled by the first valve being set equal to the regulated flow rate, and the control portion (7, 17) is adapted to change the energizing current in two stages, with the current command value being set as an upper limit of the energizing current, thereby decelerating the forks in two stages when stopping the ascending/descending operation.
A wax inhibitor composition comprising A) the reaction product obtainable by reaction of i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, B) a polymeric wax inhibitor, and C) an organic solvent. A) the reaction product obtainable by reaction of i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, i) a carboxylic acid containing an optionally substituted cycloaliphatic hydrocarbyl residue with ii) an alkylene polyamine, B) a polymeric wax inhibitor, and C) an organic solvent.
Fillable closure with push-button to initiate the emptying of capsule which is moulded into this closure, and which capsule is separately fillable, has deformable side walls and is sealable with an oxygen tight laminate foil, for pouring the contents of the capsule into a liquid container which is closed with this closure, whereby the capsule is reducible in its volume by putting on pressure from above by deformation of its sidewalls for cutting open or bursting the laminate foil, characterized in that that the capsule is provided either on the inside, or on the outside, or on both sides, by a plasma assisted physical vapour deposition process under an atmosphere near vacuum with a smooth mirror-finish coating of metal or quartz glass (silicon dioxide) with a coating thickness of between 60 nm to 80 nm, and that after filling, said capsule is sealable with an oxygen-impermeable sealing foil completely oxygen tight.
A peptide which is capable of binding to an MHC molecule in vitro and being presented to a T cell without antigen processing, wherein said peptide is selected from the following myelin oligodendrocyte glycoprotein peptides: MOG 41-55 (SEQ ID NO: 1), 43-57 (SEQ ID NO: 2), 44-58 (SEQ ID NO: 3) and 45-59 (SEQ ID NO: 4) for use in the treatment and/or prevention of a demyelinating disease by binding class II MHC on antigen presenting cells (APCs) and inducing T cell anergy and tolerance.