mhurhangee/ep-ind-claims huggingface dataset:
A method of mass spectrometry analysis based on electron transfer dissociation of multiply charged organic and/or biomolecular cations, the method comprising the steps of (a) introducing the multiply charged cations into an RF electric field ion containment device of a mass spectrometer; and introducing polycyclic aromatic hydrocarbon anions as gas-phase electron transfer reagents into the ion containment device, wherein the polycyclic aromatic hydrocarbon anions are anions of polycyclic aromatic hydrocarbons and then (b) mixing the introduced polycyclic aromatic hydrocarbon anions or derivative anions thereof, and the multiply charged cations or derivative multiply charged cations thereof, wherein the derivative anions and the derivative multiply charged cations are generated within the ion containment device during performance of the method, for electron transfer from the polycyclic aromatic hydrocarbon anions or the derivative anions thereof to the multiply charged cations or the derivative multiply charged cations thereof, to induce cleavage of covalent bonds and produce fragment and/or dissociation product cations; and (c) mass (m/z) analyzing and detecting said fragment and/or dissociation product cations or cations derived from the fragment and/or dissociation product cations for mass spectrometric analysis. characterized in that said polycyclic aromatic hydrocarbons are selected from the set consisting of azulene, homoazulene, acenaphthylene, a homodimer of any of azulene, homoazulene, or acenaphthylene, and a heterodimer comprising one each of azulene, homoazulene, or acenaphthylene; or any mixture thereof. (a) introducing the multiply charged cations into an RF electric field ion containment device of a mass spectrometer; and introducing polycyclic aromatic hydrocarbon anions as gas-phase electron transfer reagents into the ion containment device, wherein the polycyclic aromatic hydrocarbon anions are anions of polycyclic aromatic hydrocarbons and then (b) mixing the introduced polycyclic aromatic hydrocarbon anions or derivative anions thereof, and the multiply charged cations or derivative multiply charged cations thereof, wherein the derivative anions and the derivative multiply charged cations are generated within the ion containment device during performance of the method, for electron transfer from the polycyclic aromatic hydrocarbon anions or the derivative anions thereof to the multiply charged cations or the derivative multiply charged cations thereof, to induce cleavage of covalent bonds and produce fragment and/or dissociation product cations; and (c) mass (m/z) analyzing and detecting said fragment and/or dissociation product cations or cations derived from the fragment and/or dissociation product cations for mass spectrometric analysis. characterized in that said polycyclic aromatic hydrocarbons are selected from the set consisting of azulene, homoazulene, acenaphthylene, a homodimer of any of azulene, homoazulene, or acenaphthylene, and a heterodimer comprising one each of azulene, homoazulene, or acenaphthylene; or any mixture thereof.
Paste compositions containing and/or consisting of (a) at least one color pigment and/or a filler, (b) at least one alkoxylated compound, namely an alkoxylated carboxylic acid and/or an alkoxylated alcohol and/or a poloxamer, and optionally (c) at least one dispersant. (a) at least one color pigment and/or a filler, (b) at least one alkoxylated compound, namely an alkoxylated carboxylic acid and/or an alkoxylated alcohol and/or a poloxamer, and optionally an alkoxylated carboxylic acid and/or an alkoxylated alcohol and/or a poloxamer, (c) at least one dispersant.
A monoclonal antibody (mAb) that binds and neutralizes human basic fibroblast growth factor, wherein the mAb is chimeric, humanized, or human, and competes for binding to FGF2 with, and binds to the same epitope as, an antibody produced by hybridoma PTA-8864, and wherein the mAb inhibits growth of a human tumor xenograft in a mouse.
A glassware manufacturing system, comprising: an architectural installation having a forming floor 18 and no basement beneath the forming floor; a glassware forming machine carried on the forming floor; a molten glass feeder configured to provide molten glass to the glassware forming machine; and a glassware manufacturing waste handling system, including: a sump pit in the forming floor; a waste liquid trench substantially surrounding the glassware forming machine and flowing to the sump pit; and at least one of a cullet material handler or a molten waste glass sluice, configured to receive molten glass from the molten glass feeder 24 and hot glassware rejects from the glassware forming machine. an architectural installation having a forming floor 18 and no basement beneath the forming floor; a glassware forming machine carried on the forming floor; a molten glass feeder configured to provide molten glass to the glassware forming machine; and a glassware manufacturing waste handling system, including: a sump pit in the forming floor; a waste liquid trench substantially surrounding the glassware forming machine and flowing to the sump pit; and at least one of a cullet material handler or a molten waste glass sluice, configured to receive molten glass from the molten glass feeder 24 and hot glassware rejects from the glassware forming machine. a sump pit in the forming floor; a waste liquid trench substantially surrounding the glassware forming machine and flowing to the sump pit; and at least one of a cullet material handler or a molten waste glass sluice, configured to receive molten glass from the molten glass feeder 24 and hot glassware rejects from the glassware forming machine.
A snap-fit connection arrangement comprising a groove strip having a first attachment region extending along the groove for placement of the groove along a first component, the groove strip extending in a first longitudinal direction transversely to the cross section of the groove strip, and further comprising a tongue strip having a second attachment region extending along the tongue for placement of the tongue along a second component, the tongue strip extending in a second longitudinal direction transversely to the cross section of the tongue strip, the cross-sectional contours of the tongue and the groove being configured to correspond to each other through the use of latching elements (304, 204) so that a snap-fit connection can be established between the tongue and the groove as the tongue is inserted in a joining direction into the groove, the snap-fit connection allowing for relative movement between the tongue strip and the groove strip along one of the longitudinal directions and preventing relative movement between the tongue strip and the groove strip transversely to any of the longitudinal directions, and wherein the two attachment regions (302, 202) lie in a common plane or in two different planes that intersect each other, characterized in that the tongue includes a latching recess that extends along and within the tongue, the latching recess comprising an undercut and the latching recess is intended for latching engagement with the rib of a rib strip.
A fan track liner assembly for a gas turbine engine, the assembly comprising a radially inner casing liner member, a radially outer casing liner member adjacent to the radially inner casing liner member, a septum interposed between the radially inner and radially outer casing liner members which bonds together the radially inner and radially outer casing liner members, the septum including predetermined weakened regions which permit penetration of the septum in use by a detached rotor blade, characterised in that the weakened regions are in the form of lines of weakness and these lines of weakness are configured and arranged across the septum so that they correspond to the typical impact footprint of the detached rotor blade.
A system for operating a gearbox, comprising: - a first shaft having a first longitudinal axis; - a first actuator assembly operatively connected to the first shaft; - a second shaft having a second longitudinal axis; - a second actuator assembly operatively connected to the second shaft; and - a plurality of engagement elements (10, 12, 14) connected in rotation to said second shaft; wherein: - the first shaft is hollow, is fitted on said second shaft, and is axially movable relative to the second shaft; - said plurality of engagement elements (10, 12, 14) are moreover connected in translation to said first shaft and are axially movable therewith along said first longitudinal axis and relative to the second shaft; - the first actuator assembly is configured for imparting on said first shaft a movement of translation along the first longitudinal axis, said movement of translation being transferred to the plurality of engagement elements (10, 12, 14) connected in translation to the first shaft; and - the second actuator assembly is configured for imparting on said second shaft a movement of rotation about the second longitudinal axis, said movement of rotation being transferred to said plurality of engagement elements (10, 12, 14), which are moreover connected in rotation to the second shaft. - a first shaft having a first longitudinal axis; - a first actuator assembly operatively connected to the first shaft; - a second shaft having a second longitudinal axis; - a second actuator assembly operatively connected to the second shaft; and - a plurality of engagement elements (10, 12, 14) connected in rotation to said second shaft; - the first shaft is hollow, is fitted on said second shaft, and is axially movable relative to the second shaft; - said plurality of engagement elements (10, 12, 14) are moreover connected in translation to said first shaft and are axially movable therewith along said first longitudinal axis and relative to the second shaft; - the first actuator assembly is configured for imparting on said first shaft a movement of translation along the first longitudinal axis, said movement of translation being transferred to the plurality of engagement elements (10, 12, 14) connected in translation to the first shaft; and - the second actuator assembly is configured for imparting on said second shaft a movement of rotation about the second longitudinal axis, said movement of rotation being transferred to said plurality of engagement elements (10, 12, 14), which are moreover connected in rotation to the second shaft.
Gas filter system (10; 10'; 10") comprising - an outer filter element having a first filter medium arranged between a first end cap and a second end cap; and - an inner filter element having a second filter medium arranged between a third end cap and a fourth end cap; the first filter medium being arrangeable to surround the second filter medium; wherein the first, third and fourth end caps (24, 34, 36) are open; wherein the outer filter element is closed at the second end cap; wherein the outer filter element has an axial protrusion at the second end cap, which protrusion protrudes into the inner filter element and which exhibits a radially outward facing sealing surface; and wherein the forth end cap of the inner filter element has a second sealing section for sealing abutment against the sealing surface of the protrusion. - an outer filter element having a first filter medium arranged between a first end cap and a second end cap; and - an inner filter element having a second filter medium arranged between a third end cap and a fourth end cap; the first filter medium being arrangeable to surround the second filter medium; wherein the first, third and fourth end caps (24, 34, 36) are open; wherein the outer filter element is closed at the second end cap; wherein the outer filter element has an axial protrusion at the second end cap, which protrusion protrudes into the inner filter element and which exhibits a radially outward facing sealing surface; and wherein the forth end cap of the inner filter element has a second sealing section for sealing abutment against the sealing surface of the protrusion.
A wireless relay apparatus for relaying data to be transmitted and received, between at least two communication apparatuses among communication apparatuses that communicate with each other wirelessly, said wireless relay apparatus comprising: a communication unit configured to transmit and receive data wirelessly; a communication failure determining unit configured to determine whether or not a communication failure is caused in said wireless relay apparatus by a radio wave interference; a data flow determining unit configured to determine, when said communication failure determining unit determines that there is the communication failure, whether or not flows intersect each other in said wireless relay apparatus, by identifying a flow of data transmitted to and received from said communication unit; and an adjustment unit configured to adjust transmission characteristics of a type according to a result of the determination by said data flow determining unit, among types of transmission characteristics of radio used in at least one of said communication unit and the communication apparatuses. a communication unit configured to transmit and receive data wirelessly; a communication failure determining unit configured to determine whether or not a communication failure is caused in said wireless relay apparatus by a radio wave interference; a data flow determining unit configured to determine, when said communication failure determining unit determines that there is the communication failure, whether or not flows intersect each other in said wireless relay apparatus, by identifying a flow of data transmitted to and received from said communication unit; and an adjustment unit configured to adjust transmission characteristics of a type according to a result of the determination by said data flow determining unit, among types of transmission characteristics of radio used in at least one of said communication unit and the communication apparatuses.
Air-conditioning device for air-conditioning a passenger compartment and/or at least one component of an electric vehicle, wherein the air-conditioning device has a plurality of fluid circuits (81, 82, 83, 84, 85) with respective working media and is configured to heat and to cool the electric vehicle, wherein a first fluid circuit from a first pump via a heat source (2, 3), on via a four-way valve and via a first heat exchanger, on via a third heat exchanger and via a first three-way valve and back again to the first pump can be switched on and is designed to heat the passenger compartment of the electric vehicle by means of the first heat exchanger; wherein a second fluid circuit from the first pump via the heat source (2, 3), on via the four-way valve and a second heat exchanger with a first vaporizer and back again to the first motor-driven pump can be switched on and is designed to heat the first vaporizer; wherein a third fluid circuit from the first vaporizer of the second heat exchanger via an internal heat exchanger, on via a compressor and a second pump, via the third heat exchanger with a second vaporizer, via a spring-loaded non-return valve, and on via the internal heat exchanger and a first choke, and on via a second three-way valve and in a first position and back again to the second heat exchanger can be switched on and is designed to heat the third heat exchanger, wherein the third fluid circuit with the second three-way valve in a second position and with an open straight-way valve has a fifth heat exchanger instead of the spring-loaded non-return valve and a fourth heat exchanger instead of the second heat exchanger and is designed to cool the passenger compartment of the electric vehicle by means of the fourth heat exchanger; wherein a fourth fluid circuit from the third heat exchanger via the first three-way valve and a third pump to the first heat exchanger and back to the third heat exchanger can be switched on, and is designed to use a quantity of heat received from the third fluid circuit via the third heat exchanger to heat the passenger compartment of the electric vehicle by means of the first heat exchanger; and wherein a fifth fluid circuit from the first motor-driven pump, via the heat source (2, 3), on via the four-way valve and a sixth heat exchanger, and on via the second heat exchanger and back again to the first motor-driven pump can be switched on and is designed to cool the heat source (2, 3) of the at least one component of the electric vehicle.
A motor vehicle having: - a door or flap which is arranged at the rear and hinged in an outwardly pivotable manner, - a drive device connected to said door or flap, which opens said door or flap automatically when a corresponding switching device is actuated, - a control unit controlling said drive device and at least one distance sensor connected to said control unit, wherein said control unit presets, as a function of a distance from a roof-side obstacle located above the motor vehicle determined by means of said distance sensor, a maximum possible pivot angle (α) and/or the maximum possible height of the open door or flap, wherein as a result, said door or flap can be pivoted outwards by said drive device until the maximal possible pivot angle (α) and/or the maximum possible height is reached, characterised in that said distance sensor is arranged below a reversibly movable shield of an air deflector device, in particular a rear spoiler, wherein to determine the distance from the obstacle said shield can be moved far enough for said distance sensor to be exposed. - a door or flap which is arranged at the rear and hinged in an outwardly pivotable manner, - a drive device connected to said door or flap, which opens said door or flap automatically when a corresponding switching device is actuated, - a control unit controlling said drive device and at least one distance sensor connected to said control unit, wherein said control unit presets, as a function of a distance from a roof-side obstacle located above the motor vehicle determined by means of said distance sensor, a maximum possible pivot angle (α) and/or the maximum possible height of the open door or flap,
Gas turbine with at least one combustion chamber and a first guide vane row of a turbine arranged substantially immediately downstream thereof, wherein the radially outer and/or radially inner delimitation of the combustion chamber is formed by at least one outer or inner heat shield respectively which is attached to at least one combustion chamber structure arranged radially outside or radially inside respectively, and wherein the flow path of the hot gases in the region of the guide vane row is delimited radially outwardly and/or radially inwardly by an outer or inner vane platform respectively which is attached at least indirectly to at least one turbine carrier, characterised in that a plurality of platform-like mini heat shields is arranged on a widening of the turbine carrier extending upstream, or on a turbine carrier element arranged upstream of the turbine carrier and attached thereto, upstream of the first guide vane row and substantially adjacent to the vane platform and in the flow direction between the heat shield and the vane platform, and between these, forming the flow wall, in the form of a course adapted to the flow, wherein an upstream gap is present between the mini heat shields and the heat shields.
A two-component coating composition with a resin component, which contains at least one epoxy resin as a hardenable component, and a hardener component, which contains an amine hardener system as the hardening agent for the epoxy resin of the resin component, wherein the hardener component furthermore contains water and at least one cellulose derivative, and wherein the cellulose derivative has a Brookfield viscosity, determined by means of a Brookfield rotation viscometer at 25 °C, 60 rpm, spindle 2, on a 5 % solution in water, of 2000 mPa·s or less, and the ratio by weight of water to the cellulose derivative in the hardener component is 10:1 to 20:1. the hardener component furthermore contains water and at least one cellulose derivative, and wherein the cellulose derivative has a Brookfield viscosity, determined by means of a Brookfield rotation viscometer at 25 °C, 60 rpm, spindle 2, on a 5 % solution in water, of 2000 mPa·s or less, and the ratio by weight of water to the cellulose derivative in the hardener component is 10:1 to 20:1.
An air conditioning apparatus provided with a casing in which an intake port (73a, 74a, 76a) is formed and a blow-off port is formed in a top surface section, and a heat exchanger and a blower housed in the casing, and configured so that the blower is caused to rotate while a flammable refrigerant flows to the heat exchanger during an operation, an air is taken into the casing from the intake port, a heat exchange is carried out between the flammable refrigerant and the intake air in the heat exchanger, and the heat-exchanged air is blown out from the blow-off port to an exterior of the casing, wherein the intake port (73a, 74a, 76a) is formed below the blow-off port among a side surface section (73 to 76) of the casing, characterized in that a first refrigerant sensor for detecting the flammable refrigerant is disposed on a downwind side of the heat exchanger inside the casing, and a second refrigerant sensor for detecting the flammable refrigerant is provided to a bottom surface section of the casing.
A method for determining the history of a droplet, comprising: exposing a microfluidic droplet to a first condition; adding a first nucleic acid to the droplet, wherein the first nucleic acid encodes the step of exposing a microfluidic droplet to the first condition; exposing the microfluidic droplet to a second condition; adding a second nucleic acid to the droplet, wherein the second nucleic acid encodes the step of exposing the microfluidic droplet to the second condition; and amplifying the first nucleic acid and the second nucleic acid within the microfluidic droplet to produce an amplified nucleic acid; and sequencing the amplified nucleic acid to determine the history of the droplet. exposing a microfluidic droplet to a first condition; adding a first nucleic acid to the droplet, wherein the first nucleic acid encodes the step of exposing a microfluidic droplet to the first condition; exposing the microfluidic droplet to a second condition; adding a second nucleic acid to the droplet, wherein the second nucleic acid encodes the step of exposing the microfluidic droplet to the second condition; and amplifying the first nucleic acid and the second nucleic acid within the microfluidic droplet to produce an amplified nucleic acid; and sequencing the amplified nucleic acid to determine the history of the droplet.
Food product for its use in therapy, ready to use, and not requiring any dilution before consumption, comprising, in weight percentages based on the total weight of said foodstuff, 5 to 45% of a flour of one or several cereals and/or of a powder of one or several legumes and/or one or several tubercles and/or one or several roots, 10 to 35% of powdered milk, 10 to 30% of sugar, 15 to 35% of animal milk fat or of animal origin, 0 to 20% of proteins in powder, 0 to 10% of one or several emulsifiers.
A hydraulic cylinder unit for a motor vehicle clutch, which has a cylinder housing which has at least one bayonet-type fastening geometry (12, 28) on a lateral surface for connecting the cylinder unit to a motor vehicle-side or clutch-side holding structure, wherein a separately formed plate is attached to the fastening geometry (12, 28) and can be fixed in an axial direction, characterised in that a clip formed separately from the cylinder housing is attached as an axial end stop for the plate and can be arranged in different axial positions along the cylinder housing.