mhurhangee/ep-ind-claims huggingface dataset:
Twin-spool turbojet engine including a central shaft surrounded by a high-pressure spool that are coaxial and independent with respect to rotation, this turbojet engine including, from upstream to downstream considered in the direction of travel of the flow that passes through it when it is in service: - a fan driven by the central shaft; - a high-pressure compressor and a high-pressure turbine forming part of the high-pressure spool; - an interturbine casing; - a low-pressure turbine; - an exhaust casing; this turbojet engine further including: - a low-pressure rotor extending downstream of the central shaft and which comprises the low-pressure turbine; - a rotor bearing carried by the exhaust casing, and which rotationally guides the low-pressure rotor; - a reduction gear (22, 22') by means of which the low-pressure rotor drives the central shaft, this reduction gear being located upstream of the rotor bearing; - a downstream shaft bearing that rotationally guides the central shaft while being located upstream of the reduction gear (22, 22'). - a fan driven by the central shaft; - a high-pressure compressor and a high-pressure turbine forming part of the high-pressure spool; - an interturbine casing; - a low-pressure turbine; - an exhaust casing; - a low-pressure rotor extending downstream of the central shaft and which comprises the low-pressure turbine; - a rotor bearing carried by the exhaust casing, and which rotationally guides the low-pressure rotor; - a reduction gear (22, 22') by means of which the low-pressure rotor drives the central shaft, this reduction gear being located upstream of the rotor bearing; - a downstream shaft bearing that rotationally guides the central shaft while being located upstream of the reduction gear (22, 22').
A process for acylating a material, called solid, hydroxylated material, bearing hydroxyl groups (-OH), called reactogenic hydroxyls, accessible and capable of reacting with at least one fatty acid chloride in gaseous state, wherein: - said hydroxylated material is continuously run through an enclosure, called acylation enclosure, delimiting an internal space under a gaseous atmosphere; - a fatty acid chloride in liquid state is applied to the surface of said continuously run hydroxylated material; - the gaseous atmosphere of said acylation enclosure is heated so that the temperature of the gaseous atmosphere in contact with said continuously run hydroxylated material in said acylation enclosure is at a temperature, called grafting temperature (Tg), lower than the vaporization temperature of the fatty acid chloride and sufficient to allow an acylation of said hydroxylated material passing through said acylation enclosure; - a flow of a gaseous composition from downstream to upstream in said acylation enclosure countercurrently to said continuously run hydroxylated material is maintained; whereby: ∘ a continuously run material, called acylated material, is formed due to a covalent grafting acylation reaction occurring in said acylation enclosure between at least a portion of said reactogenic hydroxyls and fatty acid chloride in gaseous state, and; ∘ hydrochloric acid produced due to the acylation reaction is run from downstream to upstream by the flow of gaseous composition; characterised in that the flow of the gaseous composition is adjusted so that fatty acid chloride is maintained in the gaseous atmosphere of said acylation enclosure at a concentration such that the fatty acid chloride in gaseous state is present in the gaseous atmosphere of said acylation enclosure with a partial pressure substantially equal to the saturated vapor pressure of the fatty acid chloride at said grafting temperature (Tg). - said hydroxylated material is continuously run through an enclosure, called acylation enclosure, delimiting an internal space under a gaseous atmosphere; - a fatty acid chloride in liquid state is applied to the surface of said continuously run hydroxylated material; - the gaseous atmosphere of said acylation enclosure is heated so that the temperature of the gaseous atmosphere in contact with said continuously run hydroxylated material in said acylation enclosure is at a temperature, called grafting temperature (Tg), lower than the vaporization temperature of the fatty acid chloride and sufficient to allow an acylation of said hydroxylated material passing through said acylation enclosure; - a flow of a gaseous composition from downstream to upstream in said acylation enclosure countercurrently to said continuously run hydroxylated material is maintained; ∘ a continuously run material, called acylated material, is formed due to a covalent grafting acylation reaction occurring in said acylation enclosure between at least a portion of said reactogenic hydroxyls and fatty acid chloride in gaseous state, and; ∘ hydrochloric acid produced due to the acylation reaction is run from downstream to upstream by the flow of gaseous composition;
An electrochemical cell stack, comprising: a first electrochemical cell including a first current collector having a first surface and a second surface, the first surface of the first current collector having a semi-solid cathode material disposed thereon, the second surface of the first current collector being uncoated; a second electrochemical cell including a second current collector having a first surface and a second surface, the first surface of the second current collector having the semi-solid cathode material disposed thereon, the second surface of the second current collector being uncoated; and a spacer disposed between the second surface of the first current collector and the second surface of the second current collector, the second surface of the second current collector coupled to the second surface of the first current collector via the spacer. a first electrochemical cell including a first current collector having a first surface and a second surface, the first surface of the first current collector having a semi-solid cathode material disposed thereon, the second surface of the first current collector being uncoated; a second electrochemical cell including a second current collector having a first surface and a second surface, the first surface of the second current collector having the semi-solid cathode material disposed thereon, the second surface of the second current collector being uncoated; and a spacer disposed between the second surface of the first current collector and the second surface of the second current collector, the second surface of the second current collector coupled to the second surface of the first current collector via the spacer.
Device for attaching a guide unit to a first furniture part which is guided so as to be movable in relation to a second furniture part, wherein the guide unit comprises a basic unit rail arranged on the second furniture part and a motion rail arranged on the first furniture part, wherein two bearing portions (10, 15) are arranged so as to be spaced apart from one another on a lower edge (3g, 8) of the device, which is provided for arrangement on the motion rail, wherein each of the bearing portions (10, 15) is formed on a side which faces the respective other bearing portion (10, 15), so that the motion rail can be arranged between the bearing portions (10, 15), characterised in that the bearing portions (10, 15) are mounted adjustably on the device such that the positions of the bearing portions (10, 15) on the device can be adjusted independently of one another so as to be able to align the first furniture part in the assembled state in a horizontal direction in relation to the motion rail.
A device comprising: a flowcell comprising a fluidic channel, an inlet port, and an outlet port, wherein the fluidic channel comprises a ceiling, a first sidewall, and a fluidic channel bottom, wherein the ceiling and the first sidewall form a ceiling-first sidewall edge, and wherein the bottom and the first sidewall form a bottom-first sidewall edge, wherein the bottom of the fluidic channel comprises a substrate which comprises a plurality of microwells, and wherein the inlet port and the outlet port are in fluid communication with the flowcell via the fluidic channel, characterized in that the ceiling comprises a central portion that is offset from the ceiling-first sidewall edge, thereby forming an offset from the ceiling-first sidewall edge, wherein the central portion is more hydrophilic than the offset, a flowcell comprising a fluidic channel, an inlet port, and an outlet port, wherein the fluidic channel comprises a ceiling, a first sidewall, and a fluidic channel bottom, wherein the ceiling and the first sidewall form a ceiling-first sidewall edge, and wherein the bottom and the first sidewall form a bottom-first sidewall edge, wherein the bottom of the fluidic channel comprises a substrate which comprises a plurality of microwells, and wherein the inlet port and the outlet port are in fluid communication with the flowcell via the fluidic channel, characterized in that the ceiling comprises a central portion that is offset from the ceiling-first sidewall edge, thereby forming an offset from the ceiling-first sidewall edge, wherein the central portion is more hydrophilic than the offset,
A thermal desorber assembly comprising: a housing; a desorption heater element mounted in the housing with a sample cavity defined between the desorption heater element and an inner wall of the housing; an outlet port defined in the housing; and a flow channel connecting the sample cavity in fluid communication with the outlet port for conveying analytes from the sample cavity to the outlet port for introducing the analytes to a spectrometer wherein the desorption heater element includes a metallic resistive heater; wherein the flow channel is defined in the desorption heater element from a radially outward port on a lateral surface of the desorption heater element that is connected to a main flow channel portion extending in an axial direction within the desorption heater element; wherein the housing includes a glass tube, wherein the sample cavity is defined between an outward facing surface of the desorption heater element and an inward facing surface of the glass tube; and wherein the glass tube is flush with an outward facing end surface of the housing, and wherein the desorption heater element is recessed relative to the end surface. a housing; a desorption heater element mounted in the housing with a sample cavity defined between the desorption heater element and an inner wall of the housing; an outlet port defined in the housing; and a flow channel connecting the sample cavity in fluid communication with the outlet port for conveying analytes from the sample cavity to the outlet port for introducing the analytes to a spectrometer wherein the desorption heater element includes a metallic resistive heater; wherein the flow channel is defined in the desorption heater element from a radially outward port on a lateral surface of the desorption heater element that is connected to a main flow channel portion extending in an axial direction within the desorption heater element; wherein the housing includes a glass tube, wherein the sample cavity is defined between an outward facing surface of the desorption heater element and an inward facing surface of the glass tube; and wherein the glass tube is flush with an outward facing end surface of the housing, and wherein the desorption heater element is recessed relative to the end surface.
A method for maintaining an electrospray ionization tip (116, 424, 1824) at a constant voltage relative to ground while performing a separation reaction, the method comprising: a) applying a first voltage to a proximal end of a separation channel (112, 418), wherein a distal end of the separation channel (112, 418) is in fluid and electrical communication with the ESI tip (116, 424, 1824); b) applying a second voltage to a proximal end of an auxiliary fluid channel (105, 111, 406, 438), wherein a distal end of the auxiliary fluid channel (105, 111, 406, 438) is in fluid and electrical communication with the distal end of the separation channel (112, 418); c) performing the separation reaction to separate a mixture of analytes, wherein the separation reaction takes place within the separation channel (112, 418); and d) monitoring a change in resistance of the separation channel (112, 418) or a change in voltage at the ESI tip (116, 424, 1824) in a feedback loop that adjusts the first and second voltages to maintain a constant voltage drop across the separation channel (112, 418) and a constant voltage at the ESI tip (116, 424, 1824). a) applying a first voltage to a proximal end of a separation channel (112, 418), wherein a distal end of the separation channel (112, 418) is in fluid and electrical communication with the ESI tip (116, 424, 1824); b) applying a second voltage to a proximal end of an auxiliary fluid channel (105, 111, 406, 438), wherein a distal end of the auxiliary fluid channel (105, 111, 406, 438) is in fluid and electrical communication with the distal end of the separation channel (112, 418); c) performing the separation reaction to separate a mixture of analytes, wherein the separation reaction takes place within the separation channel (112, 418); and d) monitoring a change in resistance of the separation channel (112, 418) or a change in voltage at the ESI tip (116, 424, 1824) in a feedback loop that adjusts the first and second voltages to maintain a constant voltage drop across the separation channel (112, 418) and a constant voltage at the ESI tip (116, 424, 1824).
A composition comprising: (a) Centella asiatica extract, Vitis vinifera seed extract, Magnolia bark extract, and Camellia sinensis extract, wherein the Magnolia bark extract is Magnolia grandiflora bark extract that includes honokiol and magnolol, wherein the Centella asiatica extract includes asiaticoside, madecassic acid, and asiatic acid, wherein the Camellia sinensis extract is Camellia sinensis leaf extract that includes epigallocatechin gallate, and wherein the Vitis vinifera seed extract includes polyphenols; and (b) dihydroxymethylchromone for use in a method of treating telangiectasia comprising topically applying to skin in need of treatment said composition. (a) Centella asiatica extract, Vitis vinifera seed extract, Magnolia bark extract, and Camellia sinensis extract, wherein the Magnolia bark extract is Magnolia grandiflora bark extract that includes honokiol and magnolol, wherein the Centella asiatica extract includes asiaticoside, madecassic acid, and asiatic acid, wherein the Camellia sinensis extract is Camellia sinensis leaf extract that includes epigallocatechin gallate, and wherein the Vitis vinifera seed extract includes polyphenols; and (b) dihydroxymethylchromone
A negative electrode active material for a lithium secondary battery which comprises: silicon particles; and a coating layer surrounding the silicon particles, wherein the silicon particles have a full width at half maximum (FWHM) of peak ranging from 2 to 10 in the particle diameter distribution having an average particle diameter (D 50) of 1~30 μm as determined by laser diffraction particle distribution analysis, and the coating layer comprises at least one of carbon and a polymer. silicon particles; and a coating layer surrounding the silicon particles, wherein the silicon particles have a full width at half maximum (FWHM) of peak ranging from 2 to 10 in the particle diameter distribution having an average particle diameter (D 50) of 1~30 μm as determined by laser diffraction particle distribution analysis, and the coating layer comprises at least one of carbon and a polymer.
A multi-protocol wireless sensor network comprising: a first field device configured to operate using a first protocol; a second field device configured to operate using a second protocol; a first-access point configured to communicate with the first field device using the first protocol and the second field device using the second protocol; a second access point configured to communicate with the first field device and the second field device in a secondary role, each of the first access point and the second access point concurrently communicate using the first protocol and the second protocol with the first field device and the second field device; and a first programmable logic controller 'PLC' configured to control the first field device using the first protocol and the second field device using the second protocol, through the first and second access points, wherein the network including the first 'PLC' as a primary 'PLC' and a redundant 'PLC' as secondary 'PLC' with redundant field device access points 'FDAPs', including the first and second access point, having redundant links to at least one field device 'FD' including the first field device and the second field device, the primary 'PLC' synchronizes process values, status, diagnostics of the field devices to the secondary 'PLC' a first field device configured to operate using a first protocol; a second field device configured to operate using a second protocol; a first-access point configured to communicate with the first field device using the first protocol and the second field device using the second protocol; a second access point configured to communicate with the first field device and the second field device in a secondary role, each of the first access point and the second access point concurrently communicate using the first protocol and the second protocol with the first field device and the second field device; and a first programmable logic controller 'PLC' configured to control the first field device using the first protocol and the second field device using the second protocol, through the first and second access points, wherein the network including the first 'PLC' as a primary 'PLC' and a redundant 'PLC' as secondary 'PLC' with redundant field device access points 'FDAPs', including the first and second access point, having redundant links to at least one field device 'FD' including the first field device and the second field device, the primary 'PLC' synchronizes process values, status, diagnostics of the field devices to the secondary 'PLC'
A method for predicting a position of a mobile user, comprising: Determining an occurrence probability of a current behavioral activity of a mobile user, comprising acquiring a background voice of a current geographical position of the mobile user, and determining the occurrence probability of the current behavioral activity of the mobile user according to the background voice; Determining an occurrence probability of a target behavioral activity of the mobile user according to the occurrence probability of the current behavioral activity of the mobile user, a historical activity migration rule of the mobile user, and a public activity migration rule; Determining the target behavioral activity of the mobile user according to the occurrence probability of the target behavioral activity of the mobile user; and Predicting a target geographical position of the mobile user according to the determined target behavioral activity of the mobile user, wherein the historical activity migration rule comprises an occurrence probability, determined according to a historical behavioral activity of the mobile user, that the mobile user is converted from the current behavioral activity to the target behavioral activity, and a weighting factor of the historical behavioral activity; and the public activity migration rule comprises an occurrence probability, determined according to a historical behavioral activity of another mobile user, that the mobile user is converted from the current behavioral activity to the target behavioral activity, and a weighting factor of a public behavioral activity. Determining an occurrence probability of a current behavioral activity of a mobile user, comprising acquiring a background voice of a current geographical position of the mobile user, and determining the occurrence probability of the current behavioral activity of the mobile user according to the background voice; Determining an occurrence probability of a target behavioral activity of the mobile user according to the occurrence probability of the current behavioral activity of the mobile user, a historical activity migration rule of the mobile user, and a public activity migration rule; Determining the target behavioral activity of the mobile user according to the occurrence probability of the target behavioral activity of the mobile user; and Predicting a target geographical position of the mobile user according to the determined target behavioral activity of the mobile user, wherein the historical activity migration rule comprises an occurrence probability, determined according to a historical behavioral activity of the mobile user, that the mobile user is converted from the current behavioral activity to the target behavioral activity, and a weighting factor of the historical behavioral activity; and the public activity migration rule comprises an occurrence probability, determined according to a historical behavioral activity of another mobile user, that the mobile user is converted from the current behavioral activity to the target behavioral activity, and a weighting factor of a public behavioral activity.
Absorbate, characterized in that it includes - at least one carrier material chosen from the group consisting of precipitated silicas, pyrogenic silicas, silica gels, natural clays, modified natural clays and diatomaceous earths, and - at least one liquid plant protection composition active substance or a mixture of substances comprising at least one liquid plant protection composition active substance, and - that the proportion of the liquid plant protection composition active substance or, in mixtures of at least two liquid plant protection composition active substances, the total amount of the liquid plant protection composition active substances, X stand., is 70% to 99%, and the carrier material exhibits a proportion of micropore volume, based on the total pore volume, of less than or equal to 10% by volume. - at least one carrier material chosen from the group consisting of precipitated silicas, pyrogenic silicas, silica gels, natural clays, modified natural clays and diatomaceous earths, and - at least one liquid plant protection composition active substance or a mixture of substances comprising at least one liquid plant protection composition active substance, and - that the proportion of the liquid plant protection composition active substance or, in mixtures of at least two liquid plant protection composition active substances, the total amount of the liquid plant protection composition active substances, X stand., is 70% to 99%, and the carrier material exhibits a proportion of micropore volume, based on the total pore volume, of less than or equal to 10% by volume.