mhurhangee/ep-ind-claims huggingface dataset:
A booster seat including a seat shell, which comprises a bottom side for supporting the seat shell on a seat and a top side, on which a seating surface as well as side plate and backrest areas (30a, 30b, 32) laterally and rearward bounding it are provided, as well as at least one first belt system (58a, 58b, 42a, 42b, 44a, 44b) for fixing the seat shell to a seat, wherein the first belt system (58a, 58b, 42a, 42b, 44a, 44b) includes a first, a second, a third, and a fourth eyelet (42a, 42b, 44a, 44b) with respective retaining web as well as a first and a second retaining belt (58a, 58b), wherein the first and the second eyelet (42a, 42b) are associated with the first retaining belt and the third and the fourth eyelet (44a, 44b) are associated with the second retaining belt, wherein the first and the second eyelet (42a, 42b) are arranged in the front exterior area of the respective side plate area (30a, 30b), wherein the third and the fourth eyelet (44a, 44b) are arranged in the rear exterior area of the respective side plate area (30a, 30b) or in the lateral exterior area of the back area, wherein the respective eyelet (42a, 42b, 44a, 44b) includes an eyelet trough with an interior area formed rounded, wherein the seat shell is formed as a foamed molded part, in which the respective eyelets (42a, 42b, 44a, 44b) are accommodated, wherein each eyelet (42a, 42b, 44a, 44b) comprises a web, which is coupled to the eyelet trough on the one hand, to a retaining anchor for retaining the eyelet (42a, 42b, 44a, 44b) in the foamed molded part on the other hand.
An ablation system, comprising: an ablation probe defining a fluid path for circulation of fluid therethrough; a generator configured to supply energy to the ablation probe for treating tissue; a pump configured to pump fluid through the fluid path of the ablation probe to cool the ablation probe; characterised in that the system further comprises: a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current. an ablation probe defining a fluid path for circulation of fluid therethrough; a generator configured to supply energy to the ablation probe for treating tissue; a pump configured to pump fluid through the fluid path of the ablation probe to cool the ablation probe; characterised in that the system further comprises: a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current. a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current.
A method of disseminating to where it is required a substance that is advantageously disseminated or applied after undergoing a heat-induced change of state or fluidification, the heating being supplied by induction heating, by providing electricity to a primary induction coil to generate state- or fluidification-inducing heat in a secondary induction coil, characterised in that the substance is provided in a container that comprises the secondary induction coil, the container being removably or replacably seated on a base which comprises the primary induction coil, the coils being in a heat-providing relationship when the container is seated on the base.
A method of evaluating the position along an optical fibre transmission link of a time-varying disturbance, the method including the steps of: copying, at least in part, an output optical signal from a source, such that there is a pair of optical signal copies; transmitting the signal copies onto the transmission link, wherein the signal copies of a pair travel in the same sense along the transmission link; receiving from the transmission link at least partially returned signal copies, returned by a process of distributed backscattering as the signal copies travel along the transmission link; and combining the received signal copies of a transmitted pair so as to produce a combination signal; and the method characterized in that, the signal copies have travelled beyond the position of the time-varying disturbance on the transmission link, the at least partially returned signal copies originate from the signal copies that have travelled beyond the position of the time-varying disturbance on the transmission link, and using a temporal characteristic in the combination signal of received returned signal copies of a transmitted pair which has been affected by the disturbance to evaluate the position of the disturbance on the optical fibre transmission link, wherein the temporal characteristic includes the time at which a disturbance occurs in the combination signal. copying, at least in part, an output optical signal from a source, such that there is a pair of optical signal copies; transmitting the signal copies onto the transmission link, wherein the signal copies of a pair travel in the same sense along the transmission link; receiving from the transmission link at least partially returned signal copies, returned by a process of distributed backscattering as the signal copies travel along the transmission link; and combining the received signal copies of a transmitted pair so as to produce a combination signal; and the method characterized in that, the signal copies have travelled beyond the position of the time-varying disturbance on the transmission link, the at least partially returned signal copies originate from the signal copies that have travelled beyond the position of the time-varying disturbance on the transmission link, and using a temporal characteristic in the combination signal of received returned signal copies of a transmitted pair which has been affected by the disturbance to evaluate the position of the disturbance on the optical fibre transmission link, wherein the temporal characteristic includes the time at which a disturbance occurs in the combination signal.
A beverage product comprising: at least one fruit juice; at least one natural non-nutritive sweetener; and homogenized citrus pulp comprising citrus pulp particles suspended in aqueous solution which do not separate out of suspension. at least one fruit juice; at least one natural non-nutritive sweetener; and homogenized citrus pulp comprising citrus pulp particles suspended in aqueous solution which do not separate out of suspension.
A method of performing size exclusion chromatography comprising the steps of a) providing a housing having at least one wall defining a chamber having an entrance and an exit; and a stationary phase material comprising a core and surface composition held in said chamber; wherein said stationary phase material comprises particles having a mean size, i.e. diameter, of less than 2.0 micrometers and wherein the housing comprises a wide bore column of a bore size of 7.8 mm inner diameter, i.d., or more; b) loading a sample on said stationary phase material in said chamber at a column inlet pressure of greater than 3 MPa (500 psi) and flowing the sample through said stationary phase material; and c) separating the sample into one or more biomolecule analytes by size, wherein the flowing the sample through said stationary phase material is carried out at a flow rate of about 1mL/min or more a) providing a housing having at least one wall defining a chamber having an entrance and an exit; and a stationary phase material comprising a core and surface composition held in said chamber; wherein said stationary phase material comprises particles having a mean size, i.e. diameter, of less than 2.0 micrometers and wherein the housing comprises a wide bore column of a bore size of 7.8 mm inner diameter, i.d., or more; b) loading a sample on said stationary phase material in said chamber at a column inlet pressure of greater than 3 MPa (500 psi) and flowing the sample through said stationary phase material; and c) separating the sample into one or more biomolecule analytes by size, wherein the flowing the sample through said stationary phase material is carried out at a flow rate of about 1mL/min or more
A method for processing a network packet, comprising: obtaining, by a physical host, a correspondence between MAC address of each virtual machine in a virtual local area network and a security domain, wherein the security domain refers to a set of computers trusting each other and capable of communicating with each other; receiving, by the physical host through a virtual bridge in the physical host, a network packet sent by a source virtual machine in the physical host, wherein the network packet carries a source MAC address and a target MAC address, wherein the source MAC address is a MAC address of the source virtual machine, and the target MAC address is a MAC address of a target virtual machine, and wherein the virtual bridge corresponds to a security domain; obtaining, by the physical host according to the source MAC address by querying the correspondence between MAC address of each virtual machine in the virtual local area network and the security domain, a security domain to which the source virtual machine corresponds; and controlling, by the physical host, the virtual bridge to discard the network packet, when the security domain to which the source virtual machine corresponds is different from the security domain corresponding to the virtual bridge. obtaining, by a physical host, a correspondence between MAC address of each virtual machine in a virtual local area network and a security domain, wherein the security domain refers to a set of computers trusting each other and capable of communicating with each other; receiving, by the physical host through a virtual bridge in the physical host, a network packet sent by a source virtual machine in the physical host, wherein the network packet carries a source MAC address and a target MAC address, wherein the source MAC address is a MAC address of the source virtual machine, and the target MAC address is a MAC address of a target virtual machine, and wherein the virtual bridge corresponds to a security domain; obtaining, by the physical host according to the source MAC address by querying the correspondence between MAC address of each virtual machine in the virtual local area network and the security domain, a security domain to which the source virtual machine corresponds; and controlling, by the physical host, the virtual bridge to discard the network packet, when the security domain to which the source virtual machine corresponds is different from the security domain corresponding to the virtual bridge.
A device for the observation, by reflection or transmission, of millimetric or submillimetric structural details of an object, exhibiting a behaviour that is at least partially specular, located in an exposure zone, characterised in that the device includes: - at least one radiation source with a real or virtual emission surface that diffuses the radiation from the source and that possesses at least two distinct regions (8, 9) emitting streams of radiation, where at least one of the characteristics of the radiation differs from one region to the next, - an optical projection system that is located in the path of the radiation, in line with the radiation source in relation to the exposure zone, wherein this optical projection system includes an entry aperture, - an optical exposure system positioned between the radiation source and the exposure zone and designed to optically conjugate the entry aperture of the optical projection system and the emission surface of the radiation source, - a projection surface located in line with the exposure zone in relation to the optical projection system, and that is conjugated optically with the object in the exposure zone by the optical projection system, and whose received radiation depends on the deflection on the object. - at least one radiation source with a real or virtual emission surface that diffuses the radiation from the source and that possesses at least two distinct regions (8, 9) emitting streams of radiation, where at least one of the characteristics of the radiation differs from one region to the next, - an optical projection system that is located in the path of the radiation, in line with the radiation source in relation to the exposure zone, wherein this optical projection system includes an entry aperture, - an optical exposure system positioned between the radiation source and the exposure zone and designed to optically conjugate the entry aperture of the optical projection system and the emission surface of the radiation source, - a projection surface located in line with the exposure zone in relation to the optical projection system, and that is conjugated optically with the object in the exposure zone by the optical projection system, and whose received radiation depends on the deflection on the object.
Transmission shaft comprising a composite body and a hollow coupling piece positioned around the body at one end thereof, said coupling piece including, on its inner surface, splines extending parallel to the longitudinal axis of the body so as to optimize the torsional loadbearing, characterized in that said coupling piece includes, on its inner surface, a transverse groove extending in a direction perpendicular to the splines, said composite body filling the entirety of the splines and the transverse groove so as to have contact at all points between the body and the coupling part not allowing any gaps to remain.
A method of preparing a poloxamer for use in a cell culture medium, comprising the steps of: (a) heating a solid poloxamer to at least 60°C to form a liquid poloxamer; wherein a1) the poloxamer is heated to between 157°C and 185°C for at least 1 minute; or a2) the poloxamer is heated to between 134°C and 157°C for at least 30 minutes; or a3) the poloxamer is heated to between 120°C and 134°C for at least 62 minutes; or a4) the poloxamer is heated to between 100°Cand 120°C for at least 98 minutes; or a5) the poloxamer is heated to between 80°C and 100°C for at least 122 minutes; or a6) the poloxamer is heated to between 60°C and 80°C for at least 143 minutes; and (b) cooling the liquid poloxamer to a temperature below 50°C to form a solid heat-treated poloxamer, wherein the cooling is not conducted in a prilling or milling device, wherein the poloxamer comprises a copolymer of ethylene oxide and propylene oxide, wherein cell viability in a cell culture medium comprising the heat-treated poloxamer is increased by at least 10% as compared to cell viability in a cell culture medium comprising the poloxamer before step (a), wherein cell viability in a cell culture medium comprising an untreated poloxamer is below 80%, and wherein the cell viability is measured as in the description. (a) heating a solid poloxamer to at least 60°C to form a liquid poloxamer; wherein a1) the poloxamer is heated to between 157°C and 185°C for at least 1 minute; or a2) the poloxamer is heated to between 134°C and 157°C for at least 30 minutes; or a3) the poloxamer is heated to between 120°C and 134°C for at least 62 minutes; or a4) the poloxamer is heated to between 100°Cand 120°C for at least 98 minutes; or a5) the poloxamer is heated to between 80°C and 100°C for at least 122 minutes; or a6) the poloxamer is heated to between 60°C and 80°C for at least 143 minutes; and a1) the poloxamer is heated to between 157°C and 185°C for at least 1 minute; or a2) the poloxamer is heated to between 134°C and 157°C for at least 30 minutes; or a3) the poloxamer is heated to between 120°C and 134°C for at least 62 minutes; or a4) the poloxamer is heated to between 100°Cand 120°C for at least 98 minutes; or a5) the poloxamer is heated to between 80°C and 100°C for at least 122 minutes; or a6) the poloxamer is heated to between 60°C and 80°C for at least 143 minutes; and (b) cooling the liquid poloxamer to a temperature below 50°C to form a solid heat-treated poloxamer, wherein the cooling is not conducted in a prilling or milling device, wherein the poloxamer comprises a copolymer of ethylene oxide and propylene oxide,
A treatment compound for use in a method of treating colorectal cancer, wherein the treatment compound is represented by (i) Formula I: where each n is independently from 1 to 303; (ii) Formula II: where each n is independently from 1 to 227; or (iii) Formula III: where each n is independently from 1 to 303 (i) Formula I: where each n is independently from 1 to 303; (ii) Formula II: where each n is independently from 1 to 227; or (iii) Formula III: where each n is independently from 1 to 303
An apparatus for reducing an exhaust gas that is provided on one end portion of an exhaust pipe of which the other end portion is connected to an engine mounted on a main frame of heavy equipment, comprising: a cowl frame for mounting on one side of the main frame that is adjacent to the engine to reduce an influence due to vibration of the engine; a diesel particulate filter having one end portion adapted to communicate with the other end portion of the exhaust pipe and is mounted on an upper end portion of the cowl frame, having a diesel oxidation catalyst provided therein, and capturing particulate matters; a mixing pipe having one end portion that communicates with the other end portion of the diesel particulate filter, one side of which communicates with an injection device injecting a reducing agent; and a selective catalytic reduction device mounted on an upper end portion of the cowl frame to communicate with the other end portion of the mixing pipe to accelerate a reduction reaction between the injected reducing agent and nitrogen oxides (NOx) in the exhaust gas, characterized in that engagement of the cowl frame with the diesel particulate filter and the selective catalytic reduction device is performed through a fixing portion that includes an elastic support member fixed to the upper end portion of the cowl frame to support lower end portions of the diesel particulate filter and the selective catalytic reduction device, and fastening bands provided on both end portions of the support member to surround and fix outer peripheries of the diesel particulate filter and the selective catalytic reduction device. a cowl frame for mounting on one side of the main frame that is adjacent to the engine to reduce an influence due to vibration of the engine; a diesel particulate filter having one end portion adapted to communicate with the other end portion of the exhaust pipe and is mounted on an upper end portion of the cowl frame, having a diesel oxidation catalyst provided therein, and capturing particulate matters; a mixing pipe having one end portion that communicates with the other end portion of the diesel particulate filter, one side of which communicates with an injection device injecting a reducing agent; and a selective catalytic reduction device mounted on an upper end portion of the cowl frame to communicate with the other end portion of the mixing pipe to accelerate a reduction reaction between the injected reducing agent and nitrogen oxides (NOx) in the exhaust gas, characterized in that engagement of the cowl frame with the diesel particulate filter and the selective catalytic reduction device is performed through a fixing portion that includes an elastic support member fixed to the upper end portion of the cowl frame to support lower end portions of the diesel particulate filter and the selective catalytic reduction device, and fastening bands provided on both end portions of the support member to surround and fix outer peripheries of the diesel particulate filter and the selective catalytic reduction device.
Method for diagnosing the plausibility of drift of an air flow meter sensor adapted for direct measurement of the flow of fresh air entering an internal combustion engine associated with an air intake circuit and a burnt gas exhaust circuit having a partial exhaust gas recirculation circuit at the intake, the intake being controlled by an intake flap and the exhaust gas recirculation by a recirculation valve, the method comprising the following steps: - a step for measuring a first fresh air flow rate value in the intake line by said flow meter, - a step for estimating a second fresh air flow rate value in the intake line from a filling model applied to the total gas flow entering the engine and a first set of gas flows ancillary to the intake line, - a step for calculating a third fresh air flow rate value in the intake line from a Barré de Saint-Venant hydrodynamics equation at the intake flap terminals and a second set of gas flows ancillary to the intake line, - a step for calculating a fourth fresh air flow rate value in the intake line given by a fuel flow rate and a signal from a richness probe mounted in the engine exhaust circuit, the method not requiring the exhaust gas recirculation valve to be shut off, and the method further comprising a step for calculating the median of the first, second, third and fourth fresh air flow rate values, and a step for comparing the value returned by the air flow meter with the previously calculated median. - a step for measuring a first fresh air flow rate value in the intake line by said flow meter, - a step for estimating a second fresh air flow rate value in the intake line from a filling model applied to the total gas flow entering the engine and a first set of gas flows ancillary to the intake line, - a step for calculating a third fresh air flow rate value in the intake line from a Barré de Saint-Venant hydrodynamics equation at the intake flap terminals and a second set of gas flows ancillary to the intake line, - a step for calculating a fourth fresh air flow rate value in the intake line given by a fuel flow rate and a signal from a richness probe mounted in the engine exhaust circuit,
Passenger seat system comprising: - a backrest and - a seat, which comprises a first sub-portion having a first surface and a second, opposite surface to the first surface as well as a second sub-portion having a first surface and a second, opposite surface to the first surface, wherein the first sub-portion and the second sub-portion are movable relative to one another in order to adjust the seat between a first and a second operating position, and wherein the first sub-portion and the second sub-portion in the first operating position of the seat are positioned in relation to the backrest one behind the other in such a way that the first surface of the first sub-portion and the first surface of the second sub-portion form a usable total seat surface, and wherein the first sub-portion and the second sub-portion in the second operating position of the seat are positioned in relation to the backrest one above the other in such a way that one of the surfaces (18, 20) of the first sub-portion or one of the surfaces (24, 26) of the second sub-portion forms a usable partial seat surface, characterized by at least one armrest that is positionable in various positions along the longitudinal axis of the backrest. - a backrest and - a seat, which comprises a first sub-portion having a first surface and a second, opposite surface to the first surface as well as a second sub-portion having a first surface and a second, opposite surface to the first surface, wherein the first sub-portion and the second sub-portion are movable relative to one another in order to adjust the seat between a first and a second operating position, and wherein the first sub-portion and the second sub-portion in the first operating position of the seat are positioned in relation to the backrest one behind the other in such a way that the first surface of the first sub-portion and the first surface of the second sub-portion form a usable total seat surface, and wherein the first sub-portion and the second sub-portion in the second operating position of the seat are positioned in relation to the backrest one above the other in such a way that one of the surfaces (18, 20) of the first sub-portion or one of the surfaces (24, 26) of the second sub-portion forms a usable partial seat surface,