mhurhangee/ep-ind-claims huggingface dataset:
An aircraft hybrid propulsion system comprising: a heat engine configured to drive a heat engine shaft; an electric motor configured to drive a motor shaft; a transmission system connected to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power; a first lubrication/coolant system connected for circulating a first lubricant/coolant fluid through the heat engine; a second lubricant/coolant system in fluid isolation from the first lubrication/coolant system, wherein the second lubricant/coolant system is connected for circulating a second lubricant/coolant fluid through the electric motor; characterised in that the system comprises: a combining gearbox connected to the heat engine and to the electric motor for combining power from the heat engine and electric motor to provide output power; and a pressure pump operatively connected to be powered by the combining gearbox, wherein the pressure pump is connected in a coolant line of the second lubricant/coolant system between a sump tank and the electric motor for driving flow of the second lubricant/coolant from the sump tank to the electric motor. a heat engine configured to drive a heat engine shaft; an electric motor configured to drive a motor shaft; a transmission system connected to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power; a first lubrication/coolant system connected for circulating a first lubricant/coolant fluid through the heat engine; a second lubricant/coolant system in fluid isolation from the first lubrication/coolant system, wherein the second lubricant/coolant system is connected for circulating a second lubricant/coolant fluid through the electric motor; a combining gearbox connected to the heat engine and to the electric motor for combining power from the heat engine and electric motor to provide output power; and a pressure pump operatively connected to be powered by the combining gearbox, wherein the pressure pump is connected in a coolant line of the second lubricant/coolant system between a sump tank and the electric motor for driving flow of the second lubricant/coolant from the sump tank to the electric motor.
A method for controlling a diesel engine in a vehicle, the engine comprising an exhaust manifold, at least one cylinder, a fuel injector for each cylinder for injecting fuel into the respective cylinder, and a throttle valve for controlling the flow of air into the cylinder, characterised in that during a motor braking condition, adjusting the throttle valve so as to assume a not fully open position, if an amount of fuel injected into the at least one cylinder is equal to or less than a fuel injection threshold value, where the throttle valve is further adjusted to decrease a flow of relatively cold air through the cylinder, and through the exhaust manifold, if exhaust manifold temperature is above a predetermined temperature threshold.
A sole plate (250, 1400) for an article of footwear, comprising: a forward portion (302, 1402), an intermediate portion (304, 1404), and a rearward portion (306, 1406), defining a central longitudinal axis (309, 380, 1409, 1480) extending in a direction from the forward portion (302, 1402) to the rearward portion (306, 1406) bisecting the intermediate portion (304, 1404), the central longitudinal axis (380, 1480) being approximately aligned with a midline of the sole plate (250, 1400), and the central longitudinal axis (380, 1480) dividing the sole plate (250, 1400) into two opposing sides along a lateral axis (390, 1490), wherein the forward portion (302, 1402) is disposed substantially toward a first side (382, 1482) of the central longitudinal axis (380, 1480) relative to the rearward portion (306, 1406) such that the forward portion (302, 1402) and the rearward portion (306, 1406) are laterally offset with respect to one another; a compartment (202, 1470) disposed within the intermediate portion (304, 1404), wherein the compartment (202, 1470) comprises a cavity (275, 1472) surrounded by a perimeter; wherein the cavity (275, 1472) comprises four sidewalls and at least two tabs extending from the perimeter towards a center of the cavity (275, 1472), the at least two tabs positioned along the same one of the four sidewalls and aligned with one of the central longitudinal axis (380, 1480) and the lateral axis (390, 1490). a forward portion (302, 1402), an intermediate portion (304, 1404), and a rearward portion (306, 1406), defining a central longitudinal axis (309, 380, 1409, 1480) extending in a direction from the forward portion (302, 1402) to the rearward portion (306, 1406) bisecting the intermediate portion (304, 1404), the central longitudinal axis (380, 1480) being approximately aligned with a midline of the sole plate (250, 1400), and the central longitudinal axis (380, 1480) dividing the sole plate (250, 1400) into two opposing sides along a lateral axis (390, 1490), wherein the forward portion (302, 1402) is disposed substantially toward a first side (382, 1482) of the central longitudinal axis (380, 1480) relative to the rearward portion (306, 1406) such that the forward portion (302, 1402) and the rearward portion (306, 1406) are laterally offset with respect to one another; a compartment (202, 1470) disposed within the intermediate portion (304, 1404), wherein the compartment (202, 1470) comprises a cavity (275, 1472) surrounded by a perimeter; wherein the cavity (275, 1472) comprises four sidewalls and at least two tabs extending from the perimeter towards a center of the cavity (275, 1472), the at least two tabs positioned along the same one of the four sidewalls and aligned with one of the central longitudinal axis (380, 1480) and the lateral axis (390, 1490).
A computer implemented method for seismic exploration of an underground formation including at least one anisotropic layer, the method comprising: receiving seismic data acquired by detecting seismic excitations traveling through the underground formation; grouping the seismic data in azimuthal angle stacks; performing a joint velocity-variation-with-azimuth, VVAz, and amplitude-variation-with-azimuth, AVAz, inversion using the azimuthal angle stacks to obtain a structural representation of the underground formation; and generating scenarios for exploiting resources in at least one layer of the underground formation based on the structural representation. receiving seismic data acquired by detecting seismic excitations traveling through the underground formation; grouping the seismic data in azimuthal angle stacks; performing a joint velocity-variation-with-azimuth, VVAz, and amplitude-variation-with-azimuth, AVAz, inversion using the azimuthal angle stacks to obtain a structural representation of the underground formation; and generating scenarios for exploiting resources in at least one layer of the underground formation based on the structural representation.
An olefin polymer which is a polymer of at least one olefin selected from olefins of 3 to 20 carbon atoms, has a number-average molecular weight of not less than 500 and Mw/Mn (Mw: weight-average molecular weight, Mn: number-average molecular weight) of not more than 1.5, has a melting point of not lower than 70°C, and has a racemic diad (r), as measured by 13 C-NMR, of not less than 0.85, wherein the polymer of at least one olefin selected from olefins of 3 to 20 carbon atoms is a polymer of propylene or 1-butene; wherein the weight-average molecular weight, the number-average molecular weight and Mw/Mn (Mw: weight-average molecular weight, Mn: number-average molecular weight) are measured in orthodichlorobenzene solvent at 140°C by means of GPC (gel permeation chromatography) and converted to a molecular weight in terms of polystyrene by a universal method, wherein the molecular weight is calculated in terms of polypropylene, using the following parameters: Polystyrene standard sample: K=0.000137, α=0. 686 Polypropylene: K=0.0001, α=0.8. Polystyrene standard sample: K=0.000137, α=0. 686 Polypropylene: K=0.0001, α=0.8.
A method of using an absorptive sensor element, the method comprising the steps: a) providing the absorptive sensor element, wherein the absorptive sensor element comprises: a first member, a second member, and a detection layer comprising a polymer of intrinsic microporosity disposed between and contacting the first member and the second member; b) heating the absorptive sensor element to a temperature in a range of from 30°C to 100°C; c) exposing the absorptive sensor element to an analyte vapor, while the absorptive sensor element is at the elevated temperature; and d) measuring at least one of: i) a capacitance-related property of the absorptive sensor element, wherein the first member and the second member are conductive, and wherein the detection layer is dielectric; ii) at least one spectral feature of reflected light, wherein the first member is reflective, the second member is semi-reflective, and the detection layer is optically transmissive, wherein a portion of the reflected light is reflected by the first member and wherein a portion of the reflected light is reflected by the second member; or iii) both i) and ii). a) providing the absorptive sensor element, wherein the absorptive sensor element comprises: a first member, a second member, and a detection layer comprising a polymer of intrinsic microporosity disposed between and contacting the first member and the second member; b) heating the absorptive sensor element to a temperature in a range of from 30°C to 100°C; c) exposing the absorptive sensor element to an analyte vapor, while the absorptive sensor element is at the elevated temperature; and d) measuring at least one of: i) a capacitance-related property of the absorptive sensor element, wherein the first member and the second member are conductive, and wherein the detection layer is dielectric; ii) at least one spectral feature of reflected light, wherein the first member is reflective, the second member is semi-reflective, and the detection layer is optically transmissive, wherein a portion of the reflected light is reflected by the first member and wherein a portion of the reflected light is reflected by the second member; or iii) both i) and ii). i) a capacitance-related property of the absorptive sensor element, wherein the first member and the second member are conductive, and wherein the detection layer is dielectric; ii) at least one spectral feature of reflected light, wherein the first member is reflective, the second member is semi-reflective, and the detection layer is optically transmissive, wherein a portion of the reflected light is reflected by the first member and wherein a portion of the reflected light is reflected by the second member; or iii) both i) and ii).
An analysis method for analyzing particles, in particular particles of diameter less than 1 μm, the method being characterized in that it comprises the following steps: a) providing a cold plasma at a pressure less than 10 hPa (mbar), and preferably less than 1 hPa (mbar); b) firing laser shots into the cold plasma; c) using an optical spectrometer device, acquiring emission spectra of the light emitted by the plasma as a result of the laser shots, in such a manner that for each acquired spectrum, an acquisition period begins no later than 100 ns after the laser shot; and d) analyzing the particles present in the plasma on the basis of said emission spectra. a) providing a cold plasma at a pressure less than 10 hPa (mbar), and preferably less than 1 hPa (mbar); b) firing laser shots into the cold plasma; c) using an optical spectrometer device, acquiring emission spectra of the light emitted by the plasma as a result of the laser shots, in such a manner that for each acquired spectrum, an acquisition period begins no later than 100 ns after the laser shot; and d) analyzing the particles present in the plasma on the basis of said emission spectra.
An imaging reader for imaging targets, comprising: a solid-state imager supported by the reader and having an array of image sensors for capturing return light from a target over a field of view, and for generating image data corresponding to the target; an application specific integrated circuit (ASIC) operatively connected to the imager via an image data bus over which the image data is transmitted from the imager to the ASIC, and via a system bus over which system data for controlling operation of the reader is transmitted, the ASIC being operative for combining the image data and the system data to form combined data in one frame; a controller operatively connected to the ASIC, for receiving the combined data in one frame when a signal received by the controller indicates that the one frame is valid, and for processing the combined data from the ASIC; and wherein the system data includes at least one of data specifying an exposure time period for the imager, data specifying a gain for the imager, data specifying a focal length for an imaging lens assembly, data specifying an illumination time period for the illumination light, data specifying an intensity level for an illumination light, data specifying an aiming time period for an aiming light, data specifying an intensity level for an aiming light, and data specifying a decode restriction. a solid-state imager supported by the reader and having an array of image sensors for capturing return light from a target over a field of view, and for generating image data corresponding to the target; an application specific integrated circuit (ASIC) operatively connected to the imager via an image data bus over which the image data is transmitted from the imager to the ASIC, and via a system bus over which system data for controlling operation of the reader is transmitted, the ASIC being operative for combining the image data and the system data to form combined data in one frame; a controller operatively connected to the ASIC, for receiving the combined data in one frame when a signal received by the controller indicates that the one frame is valid, and for processing the combined data from the ASIC; and wherein the system data includes at least one of data specifying an exposure time period for the imager, data specifying a gain for the imager, data specifying a focal length for an imaging lens assembly, data specifying an illumination time period for the illumination light, data specifying an intensity level for an illumination light, data specifying an aiming time period for an aiming light, data specifying an intensity level for an aiming light, and data specifying a decode restriction.
A tubesheet comprising: a polymer component; wherein said polymer component includes a thermosetting resin-based material and a fill component disposed within said polymer component, wherein said fill component comprises aluminium, wherein said fill component comprises between 5% and 20% by volume of said tubesheet. a polymer component; wherein said polymer component includes a thermosetting resin-based material and a fill component disposed within said polymer component, wherein said fill component comprises aluminium, wherein said fill component comprises between 5% and 20% by volume of said tubesheet.
Oil separator for an internal combustion engine, the oil separator being intended to be arranged on a cylinder block of such an internal combustion engine, characterized in that the oil separator comprises: a chamber independent of the separation, an inlet formed in the chamber intended to admit fresh air, notably fresh air tapped from downstream of an air filter and/or upstream of a turbocharger, and an outlet formed in the chamber intended to send fresh air into a cylinder block, notably into the lower part of a crank case, so as to expel blowby gases and/or oil vapors from such a cylinder block. a chamber independent of the separation, an inlet formed in the chamber intended to admit fresh air, notably fresh air tapped from downstream of an air filter and/or upstream of a turbocharger, and an outlet formed in the chamber intended to send fresh air into a cylinder block, notably into the lower part of a crank case, so as to expel blowby gases and/or oil vapors from such a cylinder block.
A binder composition for secondary batteries, wherein conjugated diene latex particles having an average particle diameter of 50 nm or more and 200 nm or less and acrylic copolymer latex particles having an average particle diameter of 300 nm or more and 700 nm or less are present as an independent phase, and the acrylic copolymer latex particles are comprised in an amount of 1% to 30% by weight based on a mass of a solid of the composition, wherein the conjugated latex particles comprise a polymer of (a) a conjugated diene-based monomer or a conjugated diene-based polymer, (b) at least one monomer selected from the group consisting of an acrylate-based monomer, a vinyl-based monomer, a (meth)acrylamide-based monomer and a nitrile-based monomer, and (c) at least one monomer selected from the group consisting of unsaturated carbonic acid-based monomers, and wherein (a) the conjugated diene-based monomer or the conjugated diene-based polymer is comprised in an amount of 10% to 97.9% by weight, the monomer of (b) is comprised in an amount of 1% to 60% by weight, and (c) the unsaturated carbonic acid-based monomer is comprised in an amount of 1 % to 20% by weight.
A method of producing a fermented food, wherein a food raw material is combined with a starter culture for fermentation, characterized in that at least one microorganism of the genus Bacteroides is used as starter culture, comprising the following steps: - inoculating the food raw material with the starter culture; and - incubating the inoculated food raw material under aerobic conditions at 30 to 50°C. - inoculating the food raw material with the starter culture; and - incubating the inoculated food raw material under aerobic conditions at 30 to 50°C.
A method of additive manufacturing of an implant for repairing a joint of a patient, the implant having one or more articular surfaces and one or more bone-facing surfaces, the method comprising: aligning a design for the implant relative to a substrate (30, 120) in a manufacturing apparatus; providing one or more support structures (110, 115, 160, 200) during manufacture of the implant and removing the one or more support structures from the implant, characterised in that the one or more support structures contact one or more portions of the implant to be supported, wherein the one or more support structures do not contact the one or more articular surfaces. aligning a design for the implant relative to a substrate (30, 120) in a manufacturing apparatus; providing one or more support structures (110, 115, 160, 200) during manufacture of the implant and removing the one or more support structures from the implant, characterised in that the one or more support structures contact one or more portions of the implant to be supported, wherein the one or more support structures do not contact the one or more articular surfaces.
A wireless communication method, comprising: determining, by a terminal device, a first physical uplink shared channel, PUSCH, repetition to which at least one data transport block, TB, is mapped, wherein the first PUSCH repetition consists of at least two second PUSCH repetitions and at least one of the at least two second PUSCH repetitions is obtained by dividing a third PUSCH repetition crossing a slot boundary; and transmitting, by the terminal device, the at least one data TB on the first PUSCH repetition; the wireless communication method being characterized by comprising: if each of the at least two second PUSCH repetitions does not meet a first rule that a time domain length of a second PUSCH repetition is less than or equal to a first threshold value, transmitting, by the terminal device, a data TB of the at least one data TB on each of the at least two second PUSCH repetitions independently. determining, by a terminal device, a first physical uplink shared channel, PUSCH, repetition to which at least one data transport block, TB, is mapped, wherein the first PUSCH repetition consists of at least two second PUSCH repetitions and at least one of the at least two second PUSCH repetitions is obtained by dividing a third PUSCH repetition crossing a slot boundary; and transmitting, by the terminal device, the at least one data TB on the first PUSCH repetition; the wireless communication method being characterized by comprising: if each of the at least two second PUSCH repetitions does not meet a first rule that a time domain length of a second PUSCH repetition is less than or equal to a first threshold value, transmitting, by the terminal device, a data TB of the at least one data TB on each of the at least two second PUSCH repetitions independently.
Method of manufacturing a plastic container having a curled rim, comprising the steps of: - providing a sheet of plastic material; - drawing a portion thereof into a mould to form a bottom (310") and wall of the container, leaving a surrounding portion of material to form a rim of the container; - cutting the rim loose from a remaining portion of material; and - curling the rim, characterised in: - that the method further comprises an initial shaping step preceding the curling step, in which an outer part of the rim is shaped to comprise a depending edge portion (322"), wherein the outer part is supported from below by an outer supporting member; - that the method further comprises an intermediate step between the initial shaping step and the curling step, in which the outer supporting member is removed from under the outer part; - that in the curling step, an inner part of the rim is supported by an inner supporting member while the outer part is pressed by a pressing member moving relative to the inner supporting member for the initially shaped rim to be bent around the inner supporting member for the outer part to be at least partially positioned under the inner part. - providing a sheet of plastic material; - drawing a portion thereof into a mould to form a bottom (310") and wall of the container, leaving a surrounding portion of material to form a rim of the container; - cutting the rim loose from a remaining portion of material; and - curling the rim, - that the method further comprises an initial shaping step preceding the curling step, in which an outer part of the rim is shaped to comprise a depending edge portion (322"), wherein the outer part is supported from below by an outer supporting member; - that the method further comprises an intermediate step between the initial shaping step and the curling step, in which the outer supporting member is removed from under the outer part; - that in the curling step, an inner part of the rim is supported by an inner supporting member while the outer part is pressed by a pressing member moving relative to the inner supporting member for the initially shaped rim to be bent around the inner supporting member for the outer part to be at least partially positioned under the inner part.
A composition for use in a method for treating or preventing diarrhoea caused by a bacterial infection in a new born mammal wherein the composition comprises at least one lactic acid bacterium from the strain deposited at Spanish Type Cultures Collection with deposit number CECT 8350 (AqSynJ59); and wherein the composition is administered within the first 14 days after birth.