mhurhangee/ep-ind-claims huggingface dataset:
Pump to dispense a dose of fluid product, comprising: - a tubular body extending along a central axis between a first and a second ends and including an intake orifice near the first end, - an end member having a central opening and associated with the second end of the body, the end member having a tubular wall that extends along the central axis and that having an outer surface and an inner surface, the end member including a rest abutment and an end-of-stroke abutment, - a compression member mounted so as to move inside the body along an axial stroke between a rest position, away from the intake orifice and in which said compression member is in abutment against the rest abutment, and an end-of-stroke position, close to the intake orifice and in which said compression member is in abutment against the end-of-stroke abutment, said compression member being elastically returned toward the rest position and including a stem extending in the central opening of the end member, a piston sliding inside the body and an exhaust orifice, - a metering chamber formed between the intake orifice and the exhaust orifice and delimited by the body and the compression member, - an intake valve and an exhaust valve adapted to selectively close off the intake orifice and the exhaust orifice, respectively, said pump being characterised in that the end-of-stroke abutment is formed by a shoulder provided on the inner surface of the end member, the stem having a collar that can move in the end member facing the inner surface of said end member, the collar being adapted to be in abutment against the shoulder in the end-of stroke position. - a tubular body extending along a central axis between a first and a second ends and including an intake orifice near the first end, - an end member having a central opening and associated with the second end of the body, the end member having a tubular wall that extends along the central axis and that having an outer surface and an inner surface, the end member including a rest abutment and an end-of-stroke abutment, - a compression member mounted so as to move inside the body along an axial stroke between a rest position, away from the intake orifice and in which said compression member is in abutment against the rest abutment, and an end-of-stroke position, close to the intake orifice and in which said compression member is in abutment against the end-of-stroke abutment, said compression member being elastically returned toward the rest position and including a stem extending in the central opening of the end member, a piston sliding inside the body and an exhaust orifice, - a metering chamber formed between the intake orifice and the exhaust orifice and delimited by the body and the compression member, - an intake valve and an exhaust valve adapted to selectively close off the intake orifice and the exhaust orifice, respectively,
A method for forming a field-effect transistor sensor, the method comprising: a. providing a substrate having a substrate region comprising a gate dielectric and optionally a nanocavity, b. providing a sacrificial element over the substrate region, c. providing one or more layers over the sacrificial element, d. opening an access to the sacrificial element through the one or more layers, and e. selectively removing the sacrificial element, thereby opening a sensor cavity over the substrate region, characterized in that the sacrificial element provided in step b is removable by a peroxide-based wet-etching at a temperature of 40°C or below, the one or more layers have a combined thickness of at least 100 nm over the sacrificial element, and the sacrificial element is removed in step e by a peroxide-based wet-etching at a temperature of 40°C or below, further characterized in that during step e, an intermediate obtained after step d comprises an exposed material selected from Al, Al 2 O 3, Ti and Ti x O y and wherein step e is performed selectively with respect to said material. a. providing a substrate having a substrate region comprising a gate dielectric and optionally a nanocavity, b. providing a sacrificial element over the substrate region, c. providing one or more layers over the sacrificial element, d. opening an access to the sacrificial element through the one or more layers, and e. selectively removing the sacrificial element, thereby opening a sensor cavity over the substrate region, characterized in that the sacrificial element provided in step b is removable by a peroxide-based wet-etching at a temperature of 40°C or below, the one or more layers have a combined thickness of at least 100 nm over the sacrificial element, and the sacrificial element is removed in step e by a peroxide-based wet-etching at a temperature of 40°C or below, further characterized in that during step e, an intermediate obtained after step d comprises an exposed material selected from Al, Al 2 O 3, Ti and Ti x O y and wherein step e is performed selectively with respect to said material.
Magnetic-inductive flowmeter for measuring the flow of a flowing medium with a measuring tube, with a magnetic field generating device for generating a magnetic field at least partially penetrating the measuring tube, with two electrodes for tapping a measuring voltage induced in the flowing medium and with a housing receiving the measuring tube, the magnetic field generating device and the electrodes, wherein the measuring tube has a variable flow cross-sectional area over its length and the flow cross-sectional area in the middle region of the measuring tube is smaller than at the beginning of the measuring tube and at its end, preferably the flow cross-sectional area of the measuring tube in its middle region is rectangular, optionally also square, characterized in that the wall thickness of the measuring tube is smaller in the central region than at the beginning of the measuring tube and at its end, and in that the measuring tube is provided with stiffening ribs in the central region.
Method for determining a calibration specification for use with an NMR measuring device, the calibration specification specifying a functional relationship between an NMR measurement variable A, which can be determined using the NMR measuring device, of a material to be analysed and a humidity θ contained in the material to be analysed, characterized by at least the following method steps carried out by the NMR measuring device or on a computer: • providing a relaxation curve s(t,θ ref) of the material having a known humidity θ ref; • determining a relaxation time distribution ρ(θ ref) from the relaxation curve s(t,θ ref) provided; • determining an approximated relaxation time distribution ρ(θ i) relating to at least one humidity θ i, with θ i < θ ref; • reconstructing a relaxation curve s(t,θ i) from the approximated relaxation time distribution ρ(θ i); • determining an expected NMR measurement variable A i from the reconstructed relaxation curve s(t,θ i) for the humidity θ i; • determining the calibration specification as a function θ describing the humidity θ as a function of the NMR measurement variable A. • providing a relaxation curve s(t,θ ref) of the material having a known humidity θ ref; • determining a relaxation time distribution ρ(θ ref) from the relaxation curve s(t,θ ref) provided; • determining an approximated relaxation time distribution ρ(θ i) relating to at least one humidity θ i, with θ i < θ ref; • reconstructing a relaxation curve s(t,θ i) from the approximated relaxation time distribution ρ(θ i); • determining an expected NMR measurement variable A i from the reconstructed relaxation curve s(t,θ i) for the humidity θ i; • determining the calibration specification as a function θ describing the humidity θ as a function of the NMR measurement variable A.
A process for the preparation of crystalline etoricoxib, characterized by PXRD pattern having peak reflections at 7.1, 9.7, 11.8, 15.5 and 22.7±0.2 degrees 2 theta comprising: a) treating etoricoxib with a solvent system comprising at least one solvent selected from the group consisting of glycols, polyalkylene glycols and mixtures thereof; and b) isolating the crystalline etoricoxib. a) treating etoricoxib with a solvent system comprising at least one solvent selected from the group consisting of glycols, polyalkylene glycols and mixtures thereof; and b) isolating the crystalline etoricoxib.
An offshore drilling or production vessel comprising a platform and a mooring system attached thereto, said mooring system comprising: i. a support frame with a winch-drum mounted thereon; ii. a mooring line for mooring said platform to the ocean floor, said mooring line comprising a first portion and a second portion; wherein in use said first portion is hauled on and paid off by said winch-drum; wherein in use said second portion is anchored to the ocean floor; characterized in that the mooring line is a single length mooring line comprising high strength polyolefin fibers; wherein the first portion of the mooring line has a first mass of polyolefin fibers per unit length and the second portion of the mooring line has a second mass of polyolefin fibers per unit length; wherein the ratio M1/M2 is greater than 1 and wherein said first portion extends continuously into said second portion through a tapered portion of the mooring line. i. a support frame with a winch-drum mounted thereon; ii. a mooring line for mooring said platform to the ocean floor, said mooring line comprising a first portion and a second portion; wherein in use said first portion is hauled on and paid off by said winch-drum; wherein in use said second portion is anchored to the ocean floor;
A tangible device having a surface comprising: at least one waffler, created by making an indentation to said surface; a first stabilizing film in said at least one waffler; a first nanoscale material having ferromagnetic properties when in nanoscale form, said first nanoscale material being applied to said at least one waffler on said surface of said device, said first nanoscale material being in powdered form and a predetermined amount of said first nanoscale material spread across said first stabilizing film, said first nanoscale material being a metal; a ferromagnetic powder mixed with said first nanoscale material; a second stabilizing film provided over said first nanoscale material and ferromagnetic powder mixture; a ceramic powder spread over said second stabilizing film; and a sealing agent material; wherein said first nanoscale material and said ferromagnetic powder are within said at least one waffler. at least one waffler, created by making an indentation to said surface; a first stabilizing film in said at least one waffler; a first nanoscale material having ferromagnetic properties when in nanoscale form, said first nanoscale material being applied to said at least one waffler on said surface of said device, said first nanoscale material being in powdered form and a predetermined amount of said first nanoscale material spread across said first stabilizing film, said first nanoscale material being a metal; a ferromagnetic powder mixed with said first nanoscale material; a second stabilizing film provided over said first nanoscale material and ferromagnetic powder mixture; a ceramic powder spread over said second stabilizing film; and a sealing agent material; wherein said first nanoscale material and said ferromagnetic powder are within said at least one waffler.
A method of detecting whether a foreign object is near a transmit coil in a wireless power transfer system (WPTS), said method being characterized by: applying a pseudo-random signal to the transmit coil; while the pseudo-random signal is being applied to the transmit coil, recording one or more signals produced within the WPTS in response to the applied pseudo-random signal; by using the one or more recorded signals, generating a dynamic system model for some aspect of the WPTS; and using the generated dynamic system model in combination with stored training data to determine whether an object having characteristics recognizable from the stored training data as characteristic of the foreign object is near the transmit coil. applying a pseudo-random signal to the transmit coil; while the pseudo-random signal is being applied to the transmit coil, recording one or more signals produced within the WPTS in response to the applied pseudo-random signal; by using the one or more recorded signals, generating a dynamic system model for some aspect of the WPTS; and using the generated dynamic system model in combination with stored training data to determine whether an object having characteristics recognizable from the stored training data as characteristic of the foreign object is near the transmit coil.
A single-use mixer, homogeniser, extractor, fractionater, or slurry producer of substances, in particular infectious, malodorous or chemically corrosive substances, or substances that are to be kept sterile, comprising a vessel and a processing means, a sieve being inserted in the vessel as a cutter and being located at a distance from the floor of the vessel, forming a collection chamber, characterised in that, through the vessel opening, a rotatably supported, resilient compression element protrudes into the vessel to compress the substance that is to be processed against the sieve.
Method for integrating structures in a support, the method comprising the following steps: a) supplying a support provided with two main faces designated, respectively, front face and rear face, the support comprising through cavities each delimited by a wall designated through wall; b) inserting into each of the through cavities at least one structure, the at least one structure being provided with two faces, designated respectively, first face and second face connected by a contour, the insertion of the at least one structure being carried out such that the first face and the front face are coplanar, the through cavities and/or the structures being laid out to leave, around each of the structures, a peripheral through space delimited by the through wall and the contour; c) filling the peripheral space with a sealing material so as to maintain the structures to the support; the method being characterised in that the peripheral space has a radial extension length which decreases from the rear face to the front face and in that the sealing material comprises a first sealing material and a second sealing material different from the first sealing material, step c) comprises the filling by the first sealing material of a section, designated first section, of the peripheral space, then by the second sealing material of another section, designated second section, of the peripheral space. a) supplying a support provided with two main faces designated, respectively, front face and rear face, the support comprising through cavities each delimited by a wall designated through wall; b) inserting into each of the through cavities at least one structure, the at least one structure being provided with two faces, designated respectively, first face and second face connected by a contour, the insertion of the at least one structure being carried out such that the first face and the front face are coplanar, the through cavities and/or the structures being laid out to leave, around each of the structures, a peripheral through space delimited by the through wall and the contour; c) filling the peripheral space with a sealing material so as to maintain the structures to the support;
Texture curing machine for the subsequent treatment of freshly produced concrete layers of a specified width, in particular concrete pavements extending longitudinally in working direction, comprising a machine frame supported by ground-engaging units, where - working devices are attached at the machine frame in a stationary fashion or movable transverse to the working direction, and - the working devices comprise texturing devices (3, 5) for applying a texture into the not yet hardened surface of the concrete layer and/or spraying devices (6, 7) for discharging a curing agent, said working devices treating the concrete layer in longitudinal direction or in transverse direction to the working direction, wherein either the working devices (3, 5) for applying a texture or the working devices (6, 7) for applying a curing agent comprise both a working device (5, 7) working in longitudinal direction relative to the working direction and stationary in operation and a working device (3, 6) working transverse to the working direction and movable to and fro in operation across the width of the concrete layer, where each is alternately transferable from a resting position into an operating position in which the working devices (3, 5, 6, 7) do not collide with one another. - working devices are attached at the machine frame in a stationary fashion or movable transverse to the working direction, and - the working devices comprise texturing devices (3, 5) for applying a texture into the not yet hardened surface of the concrete layer and/or spraying devices (6, 7) for discharging a curing agent, said working devices treating the concrete layer in longitudinal direction or in transverse direction to the working direction,
A controller for an internal combustion engine, the controller being adapted for an internal combustion engine equipped with a variable valve actuation device that changes a valve timing of an intake valve by changing a phase of an intake camshaft with respect to a crankshaft, wherein the controller includes a controlling section configured to control the variable valve actuation device such that the phase becomes a target value, and the controlling section is configured to execute a process to increase an output torque of the engine by setting the target value of the phase to a steady state phase when an engine operating state is a steady state or by setting the target value of the phase to a transient state phase that is displaced away from the steady state phase when the engine operating state is a transient state, a process of calculating a load change rate as a predicted value of an increase rate of an engine load in a state in which the transient state phase is changed by a first change amount, and a process of setting a change amount of the transient state phase to the first change amount when the engine operating state is the transient state and the load change rate is greater than or equal to a predetermined threshold or to a second change amount that is less than the first change amount when the engine operating state is the transient state and the load change rate is less than the threshold. a process to increase an output torque of the engine by setting the target value of the phase to a steady state phase when an engine operating state is a steady state or by setting the target value of the phase to a transient state phase that is displaced away from the steady state phase when the engine operating state is a transient state, a process of calculating a load change rate as a predicted value of an increase rate of an engine load in a state in which the transient state phase is changed by a first change amount, and a process of setting a change amount of the transient state phase to the first change amount when the engine operating state is the transient state and the load change rate is greater than or equal to a predetermined threshold or to a second change amount that is less than the first change amount when the engine operating state is the transient state and the load change rate is less than the threshold.
A rotor blade assembly comprising: a rotor blade having a leading edge; and an erosion shield system extending spanwise along the leading edge of the rotor blade, the erosion shield system including a plurality of erosion shield segments (104, 106, 108, 110) positioned adjacent to one another forming cavities therebetween, characterized in that the cavities are filled with strain tolerant material to form joints (114, 116, 118, 120); wherein, the strain tolerant material is more pliant than the material from which the erosion shield segments (104, 106, 108, 110) are made; wherein, the joints (114, 116, 118, 120) extend chordwise along the rotor blade; wherein the joints (114, 116, 118, 120) are nonuniformly spaced spanwise along the rotor blade and are asymmetrically disposed on rotor blade about a mid span chord; wherein, the joints (114, 116, 118, 120) allow spanwise movement of the erosion shield segments (104, 106, 108, 110) relative to one another; and wherein, the joints (114, 116, 118, 120) are configured to deform responsive to strain experienced by the rotor blade, and thereby isolate the erosion shield segments (104, 106, 108, 110) from at least a portion of the strain experienced by the rotor blade. a rotor blade having a leading edge; and an erosion shield system extending spanwise along the leading edge of the rotor blade, the erosion shield system including a plurality of erosion shield segments (104, 106, 108, 110) positioned adjacent to one another forming cavities therebetween, characterized in that the cavities are filled with strain tolerant material to form joints (114, 116, 118, 120); wherein, the strain tolerant material is more pliant than the material from which the erosion shield segments (104, 106, 108, 110) are made; wherein, the joints (114, 116, 118, 120) extend chordwise along the rotor blade; wherein the joints (114, 116, 118, 120) are nonuniformly spaced spanwise along the rotor blade and are asymmetrically disposed on rotor blade about a mid span chord; wherein, the joints (114, 116, 118, 120) allow spanwise movement of the erosion shield segments (104, 106, 108, 110) relative to one another; and wherein, the joints (114, 116, 118, 120) are configured to deform responsive to strain experienced by the rotor blade, and thereby isolate the erosion shield segments (104, 106, 108, 110) from at least a portion of the strain experienced by the rotor blade.