mhurhangee/ep-ind-claims huggingface dataset:
An article comprising: a packaging container, or a portion thereof, having a metal substrate and a coating composition applied on at least a portion of the metal substrate, wherein the coating composition includes a polymer that is a reaction product of ingredients including: (i) an extender having at least two functional groups reactive with a cyclocarbonate group and (ii) a polycyclocarbonate compound; and wherein the extender comprises a polyhydric phenol.
Injection device intended for injecting a product into an eye, or for electroporation, comprising: - a needle in the form of an injection needle and/or of an invasive electrode (14 1, 14 2, 14 3; 14 1 ', 14 2 ', 14 3 '), - a support on which the needle is fixed or which is able to guide the sliding of the needle along the axis of the said needle, the device being characterized in that it comprises an identifying mark fixed to the support and arranged along an arc of a circle of a radius greater than 5 mm and less than 8 mm, the length of said arc of a circle being less than 20 mm, so that it can be brought into contact with a determined bearing region of the surface of the eye before the needle (14 1, 14 2, 14 3; 14 1 ', 14 2 ', 14 3 ') makes any contact with the said surface, and then be kept in contact with the said bearing region during a phase in which the said needle penetrates through the said surface of the eye, the bearing region being at least part of the margin of the cornea of the eye, the said penetration resulting from a rotation of the support about the identifying mark when the said needle is fixed on the support. - a needle in the form of an injection needle and/or of an invasive electrode (14 1, 14 2, 14 3; 14 1 ', 14 2 ', 14 3 '), - a support on which the needle is fixed or which is able to guide the sliding of the needle along the axis of the said needle,
A turbine vane for a turbine of a gas turbine engine, and capable of being cooled by cooling air, the turbine vane comprising: a vane body including: a vane surface; a cooling passage allowing the cooling air to flow into the vane body, and a plurality of film cooling holes formed in the vane surface on a front edge side of the vane body so as to communicate with the cooling passage to jet out the cooling air through the plurality of film cooling holes, a hole cross section perpendicular to a center line of each film cooling hole having a rectangular shape having a long side extending in a direction parallel to a cross section along a span direction of the vane body, a hole-center line of each film cooling hole tilting from a thickness direction of the vane body on a cross section of the vane surface along the span direction, and an exit-side and obtuse angle-side portion (11 e) of a hole wall surface of each film cooling hole tilting further from the thickness direction than the hole-center line on the cross section along the span direction. a vane surface; a cooling passage allowing the cooling air to flow into the vane body, and a plurality of film cooling holes formed in the vane surface on a front edge side of the vane body so as to communicate with the cooling passage to jet out the cooling air through the plurality of film cooling holes, a hole cross section perpendicular to a center line of each film cooling hole having a rectangular shape having a long side extending in a direction parallel to a cross section along a span direction of the vane body, a hole-center line of each film cooling hole tilting from a thickness direction of the vane body on a cross section of the vane surface along the span direction, and an exit-side and obtuse angle-side portion (11 e) of a hole wall surface of each film cooling hole tilting further from the thickness direction than the hole-center line on the cross section along the span direction.
A light modulation device for a microscope comprising a first active area of a wavefront modulator (10,10a) and a second active area of a wavefront modulator (10,10b), wherein the first active area and the second active area are configured to modulate a wavefront of a light beam, particularly a linearly polarized light beam, dependent on a polarization of the light beam, wherein the light modulation device is arranged such that a light path, along which the light beam propagates, intersects the first active area and the second active area and an order in which the light beam impinges on the first active area and the second active area is identical regardless of the polarization of the light beam, wherein the light modulation device comprises a first polarization switching element configured to rotate the polarization of the light beam between a first polarization direction and a second polarization direction upon receiving a switching signal to selectively modulate the wavefront of the light beam by the first active area or the second active area, wherein the first polarization direction is perpendicular to the second polarization direction, and wherein the first polarization switching element comprises a switching rate of at least 1 kHz, wherein - both the first active area and the second active area are configured to modulate the wavefront of the light beam if the light beam is polarized in the first polarization direction or both the first active area and the second active area are configured to modulate the wavefront of the light beam if the light beam is polarized in the second polarization direction, wherein the light modulation device comprises a polarization modifying element configured to rotate the polarization of the light beam, wherein the polarization modifying element is arranged in the light path between the first active area and the second active area, wherein the polarization modifying element is a passive polarization modifying element that modifies the polarization of the light beam without applying a switching signal, wherein - the first active area and the second active area are jointly formed by a single wavefront modulator. - both the first active area and the second active area are configured to modulate the wavefront of the light beam if the light beam is polarized in the first polarization direction or both the first active area and the second active area are configured to modulate the wavefront of the light beam if the light beam is polarized in the second polarization direction, wherein the light modulation device comprises a polarization modifying element configured to rotate the polarization of the light beam, wherein the polarization modifying element is arranged in the light path between the first active area and the second active area, wherein the polarization modifying element is a passive polarization modifying element that modifies the polarization of the light beam without applying a switching signal, wherein - the first active area and the second active area are jointly formed by a single wavefront modulator.
A foreign object detection apparatus for a wireless charging system, wherein the detection apparatus comprises an excitation coil, detection coils (201, 202), and a processor, wherein the excitation coil is configured to provide a time-varying magnetic field; the detection coils (201, 202) are configured to detect whether a foreign object exists between a wireless charging transmitting apparatus and a wireless charging receiving apparatus; the detection coils (201, 202) comprise a first detection coil and a second detection coil, respective orthographic projections of the first detection coil, the second detection coil, and the excitation coil are all planar coils and are separated from each other on a same plane, the second detection coil is located between the first detection coil and the excitation coil, the first detection coil is located on an inner side of the second detection coil, and the excitation coil is located on an outer side of the second detection coil; and the processor is configured to: determine whether an induced voltage generated in the time-varying magnetic field by the first detection coil is equal to an induced voltage generated in the time-varying magnetic field by the second detection coil, and determine that a foreign object exists if two induced voltages are not equal, wherein a product of a quantity of turns of the first detection coil and an area encircled by the first detection coil is equal to a product of a quantity of turns of the second detection coil and an area encircled by the second detection coil. the excitation coil is configured to provide a time-varying magnetic field; the detection coils (201, 202) are configured to detect whether a foreign object exists between a wireless charging transmitting apparatus and a wireless charging receiving apparatus; the detection coils (201, 202) comprise a first detection coil and a second detection coil, respective orthographic projections of the first detection coil, the second detection coil, and the excitation coil are all planar coils and are separated from each other on a same plane, the second detection coil is located between the first detection coil and the excitation coil, the first detection coil is located on an inner side of the second detection coil, and the excitation coil is located on an outer side of the second detection coil; and the processor is configured to: determine whether an induced voltage generated in the time-varying magnetic field by the first detection coil is equal to an induced voltage generated in the time-varying magnetic field by the second detection coil, and determine that a foreign object exists if two induced voltages are not equal, wherein a product of a quantity of turns of the first detection coil and an area encircled by the first detection coil is equal to a product of a quantity of turns of the second detection coil and an area encircled by the second detection coil.
Process for the retreatment of solid radioactive waste comprising the steps of waste loading, smelting, separate tapping of slag and metal, products of the retreatment, from a melting chamber, wherein the waste to be retreated is submitted to a previous heating in a preheater by the heat of gases outgoing from the melting chamber at a temperature of 1600-1750°C, the heated solid radioactive waste is loaded into the melting chamber with the help of an air-tight device through an opening in a side wall of the chamber at a rate of 0.8-1.1 tons per hour per 1 m 2 of liquid melt surface, the waste smelting is carried out continuously in a fuel-oxygen slag lining melting chamber, the outgoing gases issued from the same being channeled to the preheater, a constant level of liquid metal in the lined metal pool of the chamber is maintained during the process of retreating the waste, pouring-off of "dirty" radioactive slag from the melting chamber is carried out at the melting section after accumulation of a slag layer 250-400 mm high on the surface of the metal melt, the casting of the metal obtained in the melting chamber being performed at a site separated from the melting section by a closed partition.
A signaling transmission method, wherein receiving, by a base station, an uplink reference signal sent by user equipment UE; determining, by the base station, a quantity of antenna ports, wherein the quantity of antenna ports is a quantity of antenna ports used by the UE to send the uplink reference signal; determining, by the base station, frequency domain resource information based on the quantity of antenna ports and based on a mapping relationship between the quantity of antenna ports and the frequency domain resource information, wherein the frequency domain resource information indicates at least one of a quantity of sub-bands and a sub-band bandwidth; determining, by the base station, a precoding matrix indicator PMI of each sub-band based on the frequency domain resource information; and sending, by the base station, the PMI of the sub-band to the UE.
An inkjet printer for the labeling of goods, - comprising a main device having at least one outlet opening for ink, in particular for ink droplets, - comprising at least one storage container for a liquid flowing through the outlet opening, such as, for example, ink, pigments or solvents, the storage container being detachably connected to the main device, - comprising a liquid coupling having a first coupling portion on the main device and a second coupling portion on the storage container, and - comprising a mechanical coupling having a first coupling means on the main device and a second coupling means on the storage container, characterized in that the storage container comprises a ring-shaped transponder having a ring-shaped second antenna extending about the second coupling portion, and a control unit in which data on the liquid contained in the storage container are stored. - comprising a main device having at least one outlet opening for ink, in particular for ink droplets, - comprising at least one storage container for a liquid flowing through the outlet opening, such as, for example, ink, pigments or solvents, the storage container being detachably connected to the main device, - comprising a liquid coupling having a first coupling portion on the main device and a second coupling portion on the storage container, and - comprising a mechanical coupling having a first coupling means on the main device and a second coupling means on the storage container,
An accelerometer arrangement configured for determining accelerations along three orthogonal axes during an operation that exposes the accelerometer arrangement to a mechanical shock and vibration environment, wherein said operation is not an inground operation of an inground tool, said accelerometer arrangement comprising: a first MEMS triaxial accelerometer and a second MEMS triaxial accelerometer, each of which includes a set of three orthogonally arranged accelerometer sensing axes including a pair of in-plane sensing axes and a normal sensing axis with the normal sensing axis having a higher rate of failure responsive to mechanical shock and vibration than the in-plane sensing axes; a support structure (50, 52) for supporting the first and second triaxial accelerometers such that the normal sensing axis of the first triaxial accelerometer is at least generally orthogonal to the normal sensing axis of the second triaxial accelerometer; and a processor for determining the accelerations along said three orthogonal axes based on a combination of sensing axis outputs from the first and second triaxial accelerometers without using the normal sensing axis output of each of the first and second triaxial accelerometers. a first MEMS triaxial accelerometer and a second MEMS triaxial accelerometer, each of which includes a set of three orthogonally arranged accelerometer sensing axes including a pair of in-plane sensing axes and a normal sensing axis with the normal sensing axis having a higher rate of failure responsive to mechanical shock and vibration than the in-plane sensing axes; a support structure (50, 52) for supporting the first and second triaxial accelerometers such that the normal sensing axis of the first triaxial accelerometer is at least generally orthogonal to the normal sensing axis of the second triaxial accelerometer; and a processor for determining the accelerations along said three orthogonal axes based on a combination of sensing axis outputs from the first and second triaxial accelerometers without using the normal sensing axis output of each of the first and second triaxial accelerometers.
A method for detecting the occurrence of ammonia slips downstream of an exhaust-gas after-treatment line comprising at least one selective-catalytic-reduction nitrogen-oxide treatment element (SCRoF, SCRuF), wherein the after-treatment line comprises a first nitrogen-oxide-concentration sensor upstream of said at least one selective-catalytic-reduction nitrogen-oxide treatment element (SCRoF, SCRuF), and a second nitrogen-oxide-concentration sensor downstream of said at least one selective-catalytic-reduction nitrogen-oxide treatment element (SCRoF, SCRuF), the method comprising: - determining a reference function (NOx FR (t)) that defines a relation between a temporal nitrogen-oxide-concentration signal (NOx DSmeasd (t)) coming from said second nitrogen-oxide-concentration sensor and a temporal nitrogen-oxide-concentration signal (NOx USmeasd (t)) coming from said first nitrogen-oxide-concentration sensor; - subjecting said reference function (NOx FR (t)) to a first filtering (LP1, HP1) to obtain a first temporal signal (Nox FR Fild LP/HP) representative of a component of said reference function having a first frequency range; - subjecting said reference function (NOx FR (t)) to a second filtering (HP2, LP2) to obtain a second temporal signal (Nox FR Fild HP/LP) representative of a component of said reference function (Nox FR (t)), which has a second frequency range, said second frequency range having values higher than said first frequency range; - calculating an amplitude ratio between said first temporal signal (NOx FR Fild LP/HP) and said second temporal signal (NOx FR Fild HP/LP); and - comparing said amplitude ratio with a threshold value. wherein, when said amplitude ratio is higher than said threshold value, an ammonia slip downstream of said after-treatment line occurs. - determining a reference function (NOx FR (t)) that defines a relation between a temporal nitrogen-oxide-concentration signal (NOx DSmeasd (t)) coming from said second nitrogen-oxide-concentration sensor and a temporal nitrogen-oxide-concentration signal (NOx USmeasd (t)) coming from said first nitrogen-oxide-concentration sensor; - subjecting said reference function (NOx FR (t)) to a first filtering (LP1, HP1) to obtain a first temporal signal (Nox FR Fild LP/HP) representative of a component of said reference function having a first frequency range; - subjecting said reference function (NOx FR (t)) to a second filtering (HP2, LP2) to obtain a second temporal signal (Nox FR Fild HP/LP) representative of a component of said reference function (Nox FR (t)), which has a second frequency range, said second frequency range having values higher than said first frequency range; - calculating an amplitude ratio between said first temporal signal (NOx FR Fild LP/HP) and said second temporal signal (NOx FR Fild HP/LP); and - comparing said amplitude ratio with a threshold value.
An optical modulator, comprising at least one resonator, the resonator having a light confining closed-loop structure and the resonator configured for modulating an optical signal of an optical waveguide coupled thereto, characterized in that said optical modulator further comprises at least two electrodes (1..5) associated with said light-confining structure and connected to receive input bits related to a digital electrical input signal, said modulating being in response to input bits appearing on said electrodes, the modulator further comprising a mapping unit, the mapping unit being a digital to digital converter, the mapping unit configured for mapping input electrical signals onto selected ones of said at least two electrodes to generate output points of a predetermined output format.
A system for forming a liquid liner of a cavity, the system comprising: a vessel having an outer wall; a rotating member positioned inside the vessel and rotatable about an axis of rotation, the rotating member comprising: i. a first end and a second end along the axis of rotation; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface; a rotating driver operationally coupled to the rotating member to rotate the rotating member; and a liquid medium in the vessel, the liquid medium at least partially filling the fluid passages and forming a liquid liner when the rotating member is rotating, an inner interface of the liquid liner defining a cavity coaxial with the axis of rotation, characterized by the inner interface being curved with respect to the axis of rotation such that the inner surface of the rotating member curves inwardly towards each of the first end and the second end. a vessel having an outer wall; a rotating member positioned inside the vessel and rotatable about an axis of rotation, the rotating member comprising: i. a first end and a second end along the axis of rotation; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface; i. a first end and a second end along the axis of rotation; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface; a rotating driver operationally coupled to the rotating member to rotate the rotating member; and a liquid medium in the vessel, the liquid medium at least partially filling the fluid passages and forming a liquid liner when the rotating member is rotating, an inner interface of the liquid liner defining a cavity coaxial with the axis of rotation, characterized by the inner interface being curved with respect to the axis of rotation such that the inner surface of the rotating member curves inwardly towards each of the first end and the second end.
Method for operating a steam turbine plant in combination with a thermal water treatment plant having the following steps: - condensing steam from the stream turbine plant to raw water in a first condenser, - adding a carrier gas and at least one fraction of the raw water to an evaporator, wherein mass transfer and heat exchange take place in the evaporator between the raw water and the carrier gas, - conducting the raw water and the carrier gas in counter flow in the evaporator, wherein the carrier gas heats up in the evaporator and takes up pure water from the raw water and the raw water cools and the contaminants concentrate, - collecting the raw water with the concentrated contaminants downstream of the evaporator in a tank, - conducting the carrier gas loaded with pure water into a second condenser, - condensing purified water from the carrier gas in the second condenser, wherein the second condenser is cooled by the raw water from the tank, - conducting the purified water into a steam circuit of the steam turbine plant, - conducting the preheated raw water from the second condenser to a first heater, wherein heat from the steam turbine plant or the steam circuit transfers to the preheated raw water, - conducting the preheated raw water from the heater into the evaporator. - condensing steam from the stream turbine plant to raw water in a first condenser, - adding a carrier gas and at least one fraction of the raw water to an evaporator, wherein mass transfer and heat exchange take place in the evaporator between the raw water and the carrier gas, - conducting the raw water and the carrier gas in counter flow in the evaporator, wherein the carrier gas heats up in the evaporator and takes up pure water from the raw water and the raw water cools and the contaminants concentrate, - collecting the raw water with the concentrated contaminants downstream of the evaporator in a tank, - conducting the carrier gas loaded with pure water into a second condenser, - condensing purified water from the carrier gas in the second condenser, wherein the second condenser is cooled by the raw water from the tank, - conducting the purified water into a steam circuit of the steam turbine plant, - conducting the preheated raw water from the second condenser to a first heater, wherein heat from the steam turbine plant or the steam circuit transfers to the preheated raw water, - conducting the preheated raw water from the heater into the evaporator.