mhurhangee/ep-ind-claims huggingface dataset:
An agent for: - the oxidative coloring of keratin fibers, comprising at least one oxidative dye precursor, or - the simultaneously lightening and coloring of keratin fibers, comprising at least one bleaching agent and at least one dye which is stable in the presence of the used oxidizing agent, or - the bleaching of keratin fibers, comprising at least one bleaching agent; or - for the simultaneously lightening and coloring of keratin fibers, which is mixed with an oxidizing agent prior to use, comprising at least one dye which is stable in the presence of the used oxidizing agent; characterized in that the agent comprises at least one anionic acrylic thickener obtained by polymerization of (i) 5 to 95 molar percent of at least one monomer performing a weak acid function, wherein the monomer performing a weak acid function is selected from the group consisting of acrylic acid, methacrylic acid, itaconic acid, crotonic acid, maleic acid and fumaric acid, and of (ii) 5 to 95 molar percent of at least one monomer performing a strong acid function, wherein the monomer performing a strong acid function is selected from the group consisting of monomers having a function of the sulfonic acid type or phosponic acid type, preferably 2-acrylamido-2-methylpropane sulfonic acid, wherein such composition exhibits a fraction of water-soluble polymers ranging from 5 to 50 percent by weight of the total polymer. - the oxidative coloring of keratin fibers, comprising at least one oxidative dye precursor, or - the simultaneously lightening and coloring of keratin fibers, comprising at least one bleaching agent and at least one dye which is stable in the presence of the used oxidizing agent, or - the bleaching of keratin fibers, comprising at least one bleaching agent; or - for the simultaneously lightening and coloring of keratin fibers, which is mixed with an oxidizing agent prior to use, comprising at least one dye which is stable in the presence of the used oxidizing agent;
A method performed by a user equipment for communicating with a network node comprised in a cellular communication system, wherein the user equipment is configured to support a first frequency band but has not been configured to support a second frequency band, and wherein the network node is configured to operate in the second frequency band, wherein the first frequency band is a harmonized frequency band and the second frequency band is a sub-band of the first frequency band or overlaps with the first frequency band, the method CHARACTERIZED IN comprising - reporting to the network node that the user equipment has first frequency band capability; - receiving, in response to reporting the first frequency band capability, at least one parameter corresponding to the second frequency band from the network node, - determining the second frequency band to which the received at least one parameter corresponds according to a set of rules in the user equipment enabling identification of the second frequency band and of a channel numbering scheme corresponding to the second frequency band based on the at least one parameter, - implementing the channel numbering scheme corresponding to the second frequency band, thereby enabling the user equipment to use said channel numbering scheme; and - communicating with the network node on the second frequency band using said channel numbering scheme. - reporting to the network node that the user equipment has first frequency band capability; - receiving, in response to reporting the first frequency band capability, at least one parameter corresponding to the second frequency band from the network node, - determining the second frequency band to which the received at least one parameter corresponds according to a set of rules in the user equipment enabling identification of the second frequency band and of a channel numbering scheme corresponding to the second frequency band based on the at least one parameter, - implementing the channel numbering scheme corresponding to the second frequency band, thereby enabling the user equipment to use said channel numbering scheme; and - communicating with the network node on the second frequency band using said channel numbering scheme.
A method for estimating motion of an X-ray focal spot, comprising: acquiring image data by emitting X-rays from the X-ray focal spot toward a radiation detector comprising a plurality of pixels, each pixel corresponding to a channel (Ch-1, Ch-2, Ch-3) of the radiation detector, wherein a first subset of the channels (Ch-2) each have a collimator blade positioned above the respective channel and a second subset of channels (Ch-1, Ch-3) are unobstructed by collimator blades; for at least one respective channel of the first subset: estimating a relative channel gain for the respective channel; and estimating X-ray focal spot motion using the relative channel gain and an X-ray focal spot motion sensitivity ratio for the respective channel, wherein the relative channel gain for the respective channel comprises a ratio of a summed signal measured at the respective channel for N image slices over, for the N image slices, a summed average of signal measured at adjacent channels that are in the second subset, and wherein the X-ray focal spot motion sensitivity ratio for the respective channel comprises a ratio of signal measured at the respective channel over an average of signal measured at adjacent channels that are in the second subset. acquiring image data by emitting X-rays from the X-ray focal spot toward a radiation detector comprising a plurality of pixels, each pixel corresponding to a channel (Ch-1, Ch-2, Ch-3) of the radiation detector, wherein a first subset of the channels (Ch-2) each have a collimator blade positioned above the respective channel and a second subset of channels (Ch-1, Ch-3) are unobstructed by collimator blades; for at least one respective channel of the first subset: estimating a relative channel gain for the respective channel; and estimating X-ray focal spot motion using the relative channel gain and an X-ray focal spot motion sensitivity ratio for the respective channel, wherein the relative channel gain for the respective channel comprises a ratio of a summed signal measured at the respective channel for N image slices over, for the N image slices, a summed average of signal measured at adjacent channels that are in the second subset, and wherein the X-ray focal spot motion sensitivity ratio for the respective channel comprises a ratio of signal measured at the respective channel over an average of signal measured at adjacent channels that are in the second subset. estimating a relative channel gain for the respective channel; and estimating X-ray focal spot motion using the relative channel gain and an X-ray focal spot motion sensitivity ratio for the respective channel, wherein the relative channel gain for the respective channel comprises a ratio of a summed signal measured at the respective channel for N image slices over, for the N image slices, a summed average of signal measured at adjacent channels that are in the second subset, and wherein the X-ray focal spot motion sensitivity ratio for the respective channel comprises a ratio of signal measured at the respective channel over an average of signal measured at adjacent channels that are in the second subset.
A nacelle for a gas turbine engine comprising: a nacelle housing surrounding a central axis; a pivotable door as part of said nacelle housing, said pivotable door defining at least part of an inner housing for surrounding internal components of a gas turbine engine, said at least part of said inner housing being pivotable as part of said pivotable door; characterised by an access door (142, 154) provided in the inner housing so as to be movable with said pivotable door and also being movable independent of said pivotable door to provide access to components within said inner housing. a nacelle housing surrounding a central axis; a pivotable door as part of said nacelle housing, said pivotable door defining at least part of an inner housing for surrounding internal components of a gas turbine engine, said at least part of said inner housing being pivotable as part of said pivotable door; characterised by an access door (142, 154) provided in the inner housing so as to be movable with said pivotable door and also being movable independent of said pivotable door to provide access to components within said inner housing.
A liquid syndiotactic polyalphaolefin, sPAO, being an oligomer or a polymer of one or more C 4 to C 24 alpha-olefin monomers, said sPAO having: a) a rr triad content of 5 to 50%, as measured by 13 C NMR; b) a mr triad content of 25 to 60%, as measured by 13 C NMR, where the mr to mm triad ratio is at least 1.0; c) a pour point of Z °C or less, where Z = 0.0648X-51.2, where X = kinematic viscosity at 100 °C as reported in centistokes (cSt); d) a kinematic viscosity at 100 °C of 100 cSt or more; e) a ratio of mr triads to rr triad, as determined by 13 C NMR, of less than 9; f) a ratio of vinylidene to 1,2-disubstituted olefins, as determined by 1 H NMR, of less than 8; g) a viscosity index of 120 or more; h) a Mn of 40,000 or less; and, i) an as-polymerized Bromine number of less than 2. a) a rr triad content of 5 to 50%, as measured by 13 C NMR; b) a mr triad content of 25 to 60%, as measured by 13 C NMR, where the mr to mm triad ratio is at least 1.0; c) a pour point of Z °C or less, where Z = 0.0648X-51.2, where X = kinematic viscosity at 100 °C as reported in centistokes (cSt); d) a kinematic viscosity at 100 °C of 100 cSt or more; e) a ratio of mr triads to rr triad, as determined by 13 C NMR, of less than 9; f) a ratio of vinylidene to 1,2-disubstituted olefins, as determined by 1 H NMR, of less than 8; g) a viscosity index of 120 or more; h) a Mn of 40,000 or less; and, i) an as-polymerized Bromine number of less than 2.
Drive system, consisting of at least one drive unit and at least one control device at least partially influencing the operation of the drive unit, which is connected to the drive unit along a connection area to form a thermal bridge, comprising at least one heat pipe to remove the waste heat generated during operation of the system inside the thermal bridge and caused by the respective operating temperatures of the drive unit and/or the control device, characterised in that the heat pipe is split at least into an evaporator area and a condenser area, and the evaporator area is arranged inside the connection area and the condenser area outside the latter, and the condenser area of the heat pipe is in heat-conducting contact with at least one heat exchanger which as a further unit part is an integral part of the drive system.
Drive unit for components of an internal combustion engine, comprising an electric motor having an output shaft protruding from its housing at its first axial end, the shaft being directly or indirectly coupled with a component to be driven, a plastic housing to which the electric motor is fastened and which radially surrounds the electric motor at least in part, and means for dissipating heat from the electric motor, characterized in that the means for dissipating heat are formed by a heat sink of metal, the open end of which is overmolded in the plastic housing, wherein the heat sink abuts on the second axial end of the electric motor opposite the output shaft and the electric motor is surrounded over its circumference by the heat sink in the region remote from the output shaft, wherein the heat sink radially fixes the second axial end of the electric motor at its B-bearing or at its B-bearing plate.
A group III nitride semiconductor element comprising a substrate; a first nitride semiconductor layer composed of AlN which is provided on the substrate; a second nitride semiconductor layer composed of Al x1 Ga 1-x1 N, 0 ≤ x1 ≤ 0.1, which is provided on the first nitride semiconductor layer; and a third nitride semiconductor layer composed of Al x2 Ga 1-x2 N, 0.02 ≤ x2 ≤ 0.5 and x1 + 0.02 ≤ x2, which is provided on the second nitride semiconductor layer, wherein said second nitride semiconductor layer is formed of an island-like structure in which crystals of different heights are arranged so as to be separated from one another.
A sensor arrangement comprising: at least two displaced first sensors arranged in parallel in a first plane and next to each other, and adapted to measure a quantity of a fluid flow; and a control unit adapted to determine, from the measured quantity of the fluid flow, information indicating at least a range of directions of the fluid flow in two dimensions, wherein the first sensors are hot wire, hot plate, constant temperature or constant current anemometers. at least two displaced first sensors arranged in parallel in a first plane and next to each other, and adapted to measure a quantity of a fluid flow; and a control unit adapted to determine, from the measured quantity of the fluid flow, information indicating at least a range of directions of the fluid flow in two dimensions, wherein the first sensors are hot wire, hot plate, constant temperature or constant current anemometers.
A method for switching a thyristor bridge (28, 34) of an electrical converter, the thyristor bridge (28, 34) being connected to at least one DC link and comprising at least one phase leg for each output phase (R, S, T) and each phase leg being composed of two series-connected thyristor arms, wherein the thyristor arms of the thyristor bridge (28, 34) are cyclically switched, characterized by: determining an upper bound for a firing angle of the thyristor bridge (28, 34), wherein the upper bound is determined from voltage and current measurements (74, 62); determining a firing angle for the thyristor bridge (28, 34), which firing angle determines a switching time of the thyristor arms, wherein the firing angle is determined, such that it is less or equal to the upper bound; wherein the upper bound for the firing angle is determined, such that the upper bound together with a time window (42, 46), which is at least the sum of a commutation time window and a recovery time window of a thyristor arm, is less or equal to 180° and that the time window (42, 56) is less or equal 360° divided by the number of cyclically switched thyristor arms. determining an upper bound for a firing angle of the thyristor bridge (28, 34), wherein the upper bound is determined from voltage and current measurements (74, 62); determining a firing angle for the thyristor bridge (28, 34), which firing angle determines a switching time of the thyristor arms, wherein the firing angle is determined, such that it is less or equal to the upper bound; wherein the upper bound for the firing angle is determined, such that the upper bound together with a time window (42, 46), which is at least the sum of a commutation time window and a recovery time window of a thyristor arm, is less or equal to 180° and that the time window (42, 56) is less or equal 360° divided by the number of cyclically switched thyristor arms.
An ink jet ink composition containing a color material, an organic solvent, and water, wherein the inkjet ink composition contains N-hydroxyethylpyrrolidone and N-vinyl-2-pyrrolidone as the organic solvent.
A method for writing information into nucleic acid sequences, the method comprising: (a) translating said information into a string of symbols, wherein each symbol in said string of symbols has one of two possible symbol values; (b) encoding said string of symbols to a plurality of identifiers, wherein an individual identifier of said plurality of identifiers comprises a corresponding plurality of components, wherein each component in said plurality of components comprises a distinct nucleic caid sequence with first and second ends, a first hybridization region on the first end of the distinct nucleic acid sequence and a second hybridization region on the second end of the distinct nucleic acid sequence, wherein the plurality of components are divided into M layers, wherein each layer of said M layers comprises a distinct set of components and wherein each said individual identifier of said plurality of identifiers corresponds to an individual symbol of said string of symbols; (c) constructing individual identifiers of said plurality of identifiers by depositing the corresponding plurality of components into a compartment and assembling, via one or more reactions, one component from each of the M layers in a fixed order; and (d) constructing an identifier library comprising said individual identifiers corresponding to said string of symbols, wherein the symbol value at each position of said string of symbols is represented by a presence or absence of a distinct identifier in the identifier library. (a) translating said information into a string of symbols, wherein each symbol in said string of symbols has one of two possible symbol values; (b) encoding said string of symbols to a plurality of identifiers, wherein an individual identifier of said plurality of identifiers comprises a corresponding plurality of components, wherein each component in said plurality of components comprises a distinct nucleic caid sequence with first and second ends, a first hybridization region on the first end of the distinct nucleic acid sequence and a second hybridization region on the second end of the distinct nucleic acid sequence, wherein the plurality of components are divided into M layers, wherein each layer of said M layers comprises a distinct set of components and wherein each said individual identifier of said plurality of identifiers corresponds to an individual symbol of said string of symbols; (c) constructing individual identifiers of said plurality of identifiers by depositing the corresponding plurality of components into a compartment and assembling, via one or more reactions, one component from each of the M layers in a fixed order; and (d) constructing an identifier library comprising said individual identifiers corresponding to said string of symbols, wherein the symbol value at each position of said string of symbols is represented by a presence or absence of a distinct identifier in the identifier library.
A method comprising: tracking two or more animate objects in a video scene; when two or more tracked animate objects come close together, forming a single blob by combining into the single blob image data corresponding to said two or more tracked animate objects; forming a bounding box around said single blob; calculating a spatial and temporal entropy value for said bounding box; and determining whether said two or more tracked animate objects are involved in an activity by determining whether said entropy value is greater than a threshold (155, 165). tracking two or more animate objects in a video scene; when two or more tracked animate objects come close together, forming a single blob by combining into the single blob image data corresponding to said two or more tracked animate objects; forming a bounding box around said single blob; calculating a spatial and temporal entropy value for said bounding box; and
A device for measuring the temperature of a container placed over an inductor in a cooking hob, said device for measuring the temperature comprising a temperature sensor, a support member of said temperature sensor and a heat conductor in thermal contact with said temperature sensor, and said support member comprises two projections and said heat conductor comprises two holding components, each holding component comprising a recess configured to accommodate a protrusion of said support member, said heat conductor being of metal.
Head for the digital decoration of ceramic products, comprising: - a body inside which a channel is defined for the transit of at least a ceramic glaze and having an inlet port and an outlet port for the glaze; - at least a clogging element fitted inside said transit channel and alternatively moving between a closing position and an opening position of said outlet port, said clogging element comprising at least one ferromagnetic element (6a, 6b); - opening means which can be controlled between an active configuration, wherein they generate a first magnetic field able to attract said clogging element towards the opening position, and an inactive configuration, wherein they interrupt the first magnetic field itself; - return means able to generate a second permanent magnetic field to attract said clogging element towards the closing position with said opening means in an inactive configuration, wherein said clogging element comprises at least two ferromagnetic elements (6a, 6b) arranged spaced apart from one another, of which at least a first and a second ferromagnetic elements (6a, 6b) arranged, with said clogging element in closing position, in correspondence to said opening means and in the proximity of said return means, respectively. - a body inside which a channel is defined for the transit of at least a ceramic glaze and having an inlet port and an outlet port for the glaze; - at least a clogging element fitted inside said transit channel and alternatively moving between a closing position and an opening position of said outlet port, said clogging element comprising at least one ferromagnetic element (6a, 6b); - opening means which can be controlled between an active configuration, wherein they generate a first magnetic field able to attract said clogging element towards the opening position, and an inactive configuration, wherein they interrupt the first magnetic field itself; - return means able to generate a second permanent magnetic field to attract said clogging element towards the closing position with said opening means in an inactive configuration, wherein said clogging element comprises at least two ferromagnetic elements (6a, 6b) arranged spaced apart from one another, of which at least a first and a second ferromagnetic elements (6a, 6b) arranged, with said clogging element in closing position, in correspondence to said opening means and in the proximity of said return means, respectively.
A thermal sensor comprising an ionically conductive composition and a conductive layer, wherein said ionically conductive composition comprises an ionic liquid and a thermoplastic resin, wherein said ionic liquid is selected from the group consisting of 1-ethyl-3-methylimidazolium acetate, 1-ethyl-3-methylimidazolium methane sulfonate, 1-ethyl-3-methylimidazolium trifluormethane sulfonate, 1-ethyl-3-methylimidazolium chloride, 1-ethyl-3-methylimidazolium ethyl sulphate, 1-ethyl-3-methylimidazolium diethylphosphate, 1-ethyl-3-methylimidazolium thiocyanate, 1-ethyl-3-methylimidazolium dicyanamide, 1-ethyl-3-methylimidazolium benzoate, choline trifluormethanesulfonate, choline saccharinate, choline acesulfamate, choline N-cyclohexylsulfamate, tris(2-hydroxyethyl)methylammonium methyl sulphate, 1-allyl-3-methylimidazolium bis(trifluoromethylsulfonyl)imide, choline acetate and mixtures thereof and wherein said conductive layer is in contact with said ionically conductive composition.