mhurhangee/ep-ind-claims huggingface dataset:
A method for the diagnosis of colorectal cancer by determining the level of fatty acids present in a biological fluid sample, comprising the steps of: - adding a reference standard to the biological fluid sample to be analyzed, - selecting the fatty acids of interest from the thus additivated biological fluid sample, using an extractive mixture comprising at least one solvent, - derivatizing said sample using at least one chemical reagent, - injecting into the gas chromatograph an aliquot of the extracted fatty acids of interest, - implementing a gas chromatography separation, - subjecting the molecular species separated by the gas chromatograph to ionization, and analyzing the signals obtained in this manner by a detector, - processing the data obtained by said detector, to obtain values representative of the level of said fatty acids of interest within said biological fluid sample, and characterised in that said fatty acids of interest comprise the decanoic acid. - adding a reference standard to the biological fluid sample to be analyzed, - selecting the fatty acids of interest from the thus additivated biological fluid sample, using an extractive mixture comprising at least one solvent, - derivatizing said sample using at least one chemical reagent, - injecting into the gas chromatograph an aliquot of the extracted fatty acids of interest, - implementing a gas chromatography separation, - subjecting the molecular species separated by the gas chromatograph to ionization, and analyzing the signals obtained in this manner by a detector, - processing the data obtained by said detector, to obtain values representative of the level of said fatty acids of interest within said biological fluid sample,
A rechargeable electric battery for a vehicle, which comprises a housing, and which comprises a battery stack, which is arranged in the housing, with at least two substacks, each sub-stack consisting of at least two seriesconnected groups of batteries, which are stacked in a longitudinal direction of the electric battery, wherein the batteries in each group of batteries are connected in parallel via at least one leadframe, wherein the batteries further form an air duct which extends in the longitudinal direction of the electric battery from a first end of the housing to an opposite second end of the housing, wherein a BMS housing of a battery management system is arranged within the air duct which extends in the longitudinal direction of the housing from the first end of the housing to the opposite second end of the housing and which comprises BMS contacts which are each electrically connected to the leadframe or to the leadframes, wherein the air duct is provided for forming an air flow in the longitudinal direction, which flows around the batteries adjacent to the air duct.
A pogo effect corrector system for a feed system for feeding a rocket engine with liquid propellant, comprising: a feed pipe part for feeding liquid propellant that is configured to be connected at the upstream and the downstream thereof to a liquid propellant feed pipe of the feed system; and a hydraulic accumulator comprising a tank connected to the feed pipe part via at least one communication orifice; the corrector system being characterized in that: at least a portion of the feed pipe part is at least partly surrounded by the inner volume of the tank, each cross-section of said portion relative to its central axis being at least partly surrounded by the corresponding cross-section of the inner volume of the tank, in such a manner that the corresponding cross-section of the inner volume of the tank is off-center relative to said cross-section of said portion. a feed pipe part for feeding liquid propellant that is configured to be connected at the upstream and the downstream thereof to a liquid propellant feed pipe of the feed system; and a hydraulic accumulator comprising a tank connected to the feed pipe part via at least one communication orifice; the corrector system being characterized in that: at least a portion of the feed pipe part is at least partly surrounded by the inner volume of the tank, each cross-section of said portion relative to its central axis being at least partly surrounded by the corresponding cross-section of the inner volume of the tank, in such a manner that the corresponding cross-section of the inner volume of the tank is off-center relative to said cross-section of said portion. at least a portion of the feed pipe part is at least partly surrounded by the inner volume of the tank, each cross-section of said portion relative to its central axis being at least partly surrounded by the corresponding cross-section of the inner volume of the tank, in such a manner that the corresponding cross-section of the inner volume of the tank is off-center relative to said cross-section of said portion.
An array substrate comprising a display region, wherein at least two common electrode blocks are disposed at a periphery of the display region and are electrically interconnected via a pixel electrode bridge line pattern, characterized in that a metal layer bridge line pattern is disposed under the pixel electrode bridge line pattern, an active layer bridge line pattern is disposed under the metal layer bridge line pattern, an insulating layer is disposed under the active layer bridge line pattern and above the at least two common electrode blocks, the pixel electrode bridge line pattern electrically interconnects the at least two common electrode blocks through via holes (11a, 11b, 12a, 12b) disposed in the insulation layer.
Process for the preparation of abiraterone or abiraterone acetate which comprises the following steps: a) conversion of prasterone trifluoroacetate to the triflate b) optional crystallisation of; c) conversion of to abiraterone; d) optional conversion of abiraterone to abiraterone acetate. a) conversion of prasterone trifluoroacetate to the triflate b) optional crystallisation of; c) conversion of to abiraterone; d) optional conversion of abiraterone to abiraterone acetate.
SYSTEM FOR IMPELLING A FLUID BY RECIRCULATION FROM A LOW-PRESSURE MEDIUM TO A HIGH-PRESSURE MEDIUM, which, having the aim of recovering the energy contained in the fluid at high pressure in order to aid pumping from low to high pressure, thereby reducing the energy contribution required, comprises a recirculator with an elongated cylindrical configuration, with a flexible tubular membrane, concentric with the same, establishing two independent and sealed chambers, an outer one connected to an intake for the entrance of fluid and an inner one connected by one end to the impeller conduit for the processed fluid to the outside, while the other end of said inner chamber is connected to a heat exchanger or reactor of any kind, in turn connected to the outer chamber in order to permit the establishment of the distribution and processing of the fluid from its intake to the outlet conduit.
A crosslinking composition comprising an epichlorohydrin based polymer (a), a triazine type crosslinking agent (b), magnesium carbonate (c), and a polyhydric alcohol (d).
Printing machine comprising at least one guiding roller for guiding a material web through components of the printing machine, wherein the guiding roller is rotatable in a direction of rotation about its main axis, having a guiding roller body which comprises in its outer periphery at least one groove and at least one web, wherein the web is formed by regions of the outer surface of the guiding roller, into which no groove is introduced, wherein the web comprises at least in some regions local indentations, which are adjacent to plateau surfaces, wherein the plateau surfaces form the proportion of the web which is not occupied by indentations, wherein the plateau surfaces have a greater radial spacing to the main axis than the local indentations characterized in that the groove has a greater width than depth, that the width of the local indentations is maximum 50% of the width of the groove and that the depth of the local indentations is maximum 50% of the depth of the groove. that the groove has a greater width than depth, that the width of the local indentations is maximum 50% of the width of the groove and that the depth of the local indentations is maximum 50% of the depth of the groove.
A method of preparing a murine tumor model system comprising: a) providing the WDR13 gene of Seq Id.No.1 b) preparing WDR13 targeting construct having Seq Id.No. 2 c) electroporating WDR13 targeting construct of step b in murine ES cells, d) selecting targeted murine ES cell clones obtained in step c by southern blot, e) generating knockout mice from targeted murine ES cell clones obtained in step d. a) providing the WDR13 gene of Seq Id.No.1 b) preparing WDR13 targeting construct having Seq Id.No. 2 c) electroporating WDR13 targeting construct of step b in murine ES cells, d) selecting targeted murine ES cell clones obtained in step c by southern blot, e) generating knockout mice from targeted murine ES cell clones obtained in step d.
A method of separating an ethylene oligomerization effluent, suitable for use in separation and purification of a product obtained through ethylene polymerization, the method comprising: cooling a residual reaction product, which is discharged from a C2/C4 separation tower for separating both unreacted ethylene and 1-butene of a reaction product or a C4 separation tower for separating 1-butene and is supplied as a feed for a C6 separation tower; and sequentially transferring the cooled residual reaction product to the C6 separation tower, a solvent separation tower, a C8 separation tower and a C10 separation tower, wherein the residual reaction product is cooled by a heat exchanger that is included in the reboiler connected to the C6 separation tower while being located between the C2/C4 separation tower or the C4 separation tower and the C6 separation tower, wherein heat generated by cooling the residual reaction product discharged from the C2/C4 separation tower or the C4 separation tower is supplied to a reboiler of the C6 separation tower and thus used. cooling a residual reaction product, which is discharged from a C2/C4 separation tower for separating both unreacted ethylene and 1-butene of a reaction product or a C4 separation tower for separating 1-butene and is supplied as a feed for a C6 separation tower; and sequentially transferring the cooled residual reaction product to the C6 separation tower, a solvent separation tower, a C8 separation tower and a C10 separation tower, wherein the residual reaction product is cooled by a heat exchanger that is included in the reboiler connected to the C6 separation tower while being located between the C2/C4 separation tower or the C4 separation tower and the C6 separation tower, wherein heat generated by cooling the residual reaction product discharged from the C2/C4 separation tower or the C4 separation tower is supplied to a reboiler of the C6 separation tower and thus used.
Wheel hub drive acting as a direct drive of a wheel of a vehicle, in particular a utility vehicle, having an electrical external rotor motor which is preferably constructed as a permanently excited synchronous motor and which is arranged substantially in the region inside the wheel, wherein for braking a rotating component of a friction brake is connected to the motor in a non-positive-locking and/or positive-locking and/or materially engaging manner, wherein the rotating component is operationally connected directly or indirectly to the rotor of the motor from outside the motor, characterised in that the motor has at the outer side/wheel side a removable flange, by removing which an inner space of a stator of the motor and consequently an internal inverter and/or an additional motor circuit and an electrical/electronic system are accessible.
A method comprising: encoding a plurality of first content segments according to a first segment duration parameter; determining an aggregate segment duration of the plurality of first content segments, wherein the aggregate segment duration comprises at least one of an average segment duration or a means-squared segment duration; encoding, when the aggregate segment duration exeeds a first threshold or falls below a second threshold, a plurality of second content segments according to a second segment duration parameter, wherein the second segment duration parameter indicates a duration lower than the aggregate segment duration when the aggregate segment duration exceeds the first threshold or the second segment duration parameter indicates a duration greater than the aggregate segment duration when the aggregate segment duration is below the second threshold; determining another aggregate segment duration of the plurality of first content segments and the plurality of second content segments; and wherein encoding of the plurality of second content segments comprises encoding of the plurality of second content segments until the other aggregate segment duration being below the first threshold and above the second threshold. encoding a plurality of first content segments according to a first segment duration parameter; determining an aggregate segment duration of the plurality of first content segments, wherein the aggregate segment duration comprises at least one of an average segment duration or a means-squared segment duration; encoding, when the aggregate segment duration exeeds a first threshold or falls below a second threshold, a plurality of second content segments according to a second segment duration parameter, wherein the second segment duration parameter indicates a duration lower than the aggregate segment duration when the aggregate segment duration exceeds the first threshold or the second segment duration parameter indicates a duration greater than the aggregate segment duration when the aggregate segment duration is below the second threshold; determining another aggregate segment duration of the plurality of first content segments and the plurality of second content segments; and wherein encoding of the plurality of second content segments comprises encoding of the plurality of second content segments until the other aggregate segment duration being below the first threshold and above the second threshold.
A non-oriented electrical steel sheet comprising, as a chemical composition, by mass%: C: 0.0030% or less; Si: 2.00% or less; Al: 1.00% or less; Mn: 0.10% to 2.00%; S: 0.0030% or less; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Nd, Pr, La, Ce, Zn, and Cd: 0.0015% to 0.0100% in total; a parameter Q represented by Formula 1 where [Si] denotes a Si content in terms of mass%, [Al] denotes an Al content in terms of mass%, and [Mn] denotes a Mn content in terms of mass%: 2.00 or less; Sn: 0.00% to 0.40%; Cu: 0.00% to 1.00%; and a remainder: Fe and impurities, wherein a parameter R represented by Formula 2 where I 100, I 310, I 411, I 521, I 111, I 211, I 332, and I 221 denote a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, and a crystal orientation intensity in a thickness middle portion, respectively, is 0.80 or greater, wherein the crystal orientation is measured as defined in the description. Q = Si + 2 × Al − Mn R = I 100 + I 310 + I 411 + I 521 / I 111 + I 211 + I 332 + I 221 C: 0.0030% or less; Si: 2.00% or less; Al: 1.00% or less; Mn: 0.10% to 2.00%; S: 0.0030% or less; one or more selected from the group consisting of Mg, Ca, Sr, Ba, Nd, Pr, La, Ce, Zn, and Cd: 0.0015% to 0.0100% in total; a parameter Q represented by Formula 1 where [Si] denotes a Si content in terms of mass%, [Al] denotes an Al content in terms of mass%, and [Mn] denotes a Mn content in terms of mass%: 2.00 or less; Sn: 0.00% to 0.40%; Cu: 0.00% to 1.00%; and a remainder: Fe and impurities, wherein a parameter R represented by Formula 2 where I 100, I 310, I 411, I 521, I 111, I 211, I 332, and I 221 denote a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, a crystal orientation intensity, and a crystal orientation intensity in a thickness middle portion, respectively, is 0.80 or greater, wherein the crystal orientation is measured as defined in the description. Q = Si + 2 × Al − Mn R = I 100 + I 310 + I 411 + I 521 / I 111 + I 211 + I 332 + I 221
A decontamination assembly, in particular for pharmaceutical applications, comprising at least one chamber to be decontaminated, in particular an isolator chamber, preferably a manipulator chamber and/or a plenum chamber being separated from the manipulator chamber by a membrane, comprising a decontamination liquid storage tank by which several atomizers (A, B, C. D) disposed in the chamber to be decontaminated and preferably configured as two-component nozzles for producing a decontaminant aerosol can be supplied with decontamination liquid, preferably hydrogen peroxide, using valve means which can be controlled by means of electronic control means, the atomizers (A, B, C, D) being in fluid communication with a ring conduit having an inlet and a separate outlet by means of the valve means, decontamination liquid from the decontamination liquid storage tank being conveyable into the inlet of said ring conduit by means of a pump and decontamination liquid flowing out of the outlet of said ring conduit back into the decontamination liquid storage tank, and that pressure adjustment means for keeping the pressure in the ring conduit at a predefined liquid pressure range are assigned to the ring conduit, characterized in that measuring means for determining a total volume of decontamination liquid dispensed to the atomizers (A, B, C, D) during a decontamination cycle are provided, in particular comprising weighing means for determining a decontamination liquid volume in the decontamination liquid storage tank and that the atomizers (A, B, C, D) which are configured as two-component nozzles are connected to a gas pressure source, in particular a compressed air source, in a gas-conducting manner to generate a carrier gas flow for the decontaminant aerosol to be produced.
A system for use with a bed having a frame and a supporting surface supported by the frame, the system comprising: a sheet having a bottom surface adapted to be placed above the supporting surface of the bed and a top surface opposite the bottom surface, wherein the bottom surface has a low friction surface forming at least a portion of the bottom surface, and the top surface has a high friction surface forming at least a portion of the top surface, such that the top surface provides greater slipping resistance than the bottom surface, the sheet having a top edge configured to be positioned proximate a head of the bed, a bottom edge configured to be positioned proximate a foot of the bed, and opposed side edges located between the top and bottom edges; and a sliding member formed of a low friction material and connected to the bottom surface of the sheet, the sliding member having a fixed portion that is fixed to the bottom surface of the sheet and a free portion that is moveable over a range of movement with respect to the bottom surface of the sheet along a lateral direction extending between the side edges, wherein the sliding member is formed as a tubular structure connected to the bottom surface of the sheet at one or more connection lines, wherein the tubular structure has a central passage aligned with the longitudinal direction, wherein at least a portion of the bottom surface of the sheet is configured to slide against the sliding member within the range of movement of the sliding member when the sheet is moved along the lateral direction. a sheet having a bottom surface adapted to be placed above the supporting surface of the bed and a top surface opposite the bottom surface, wherein the bottom surface has a low friction surface forming at least a portion of the bottom surface, and the top surface has a high friction surface forming at least a portion of the top surface, such that the top surface provides greater slipping resistance than the bottom surface, the sheet having a top edge configured to be positioned proximate a head of the bed, a bottom edge configured to be positioned proximate a foot of the bed, and opposed side edges located between the top and bottom edges; and a sliding member formed of a low friction material and connected to the bottom surface of the sheet, the sliding member having a fixed portion that is fixed to the bottom surface of the sheet and a free portion that is moveable over a range of movement with respect to the bottom surface of the sheet along a lateral direction extending between the side edges, wherein the sliding member is formed as a tubular structure connected to the bottom surface of the sheet at one or more connection lines, wherein the tubular structure has a central passage aligned with the longitudinal direction, wherein at least a portion of the bottom surface of the sheet is configured to slide against the sliding member within the range of movement of the sliding member when the sheet is moved along the lateral direction.