mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented process for the identification of the presence or absence of one or more chromosomal abnormalities in a fetus using a maternal sample comprising both fetal and maternal nucleic acids, the process comprising: i) providinga data set comprising frequency sequence data for a set of at least 16 loci from a single chromosome from two or more maternal samples each comprising both fetal and maternal nucleic acids, wherein each sample is identified by a sample index, and wherein the sequences of the dataset are determined in a single sequencing reaction; ii) normalizing the frequency of a sequence of individual loci within said dataset; wherein locus or loci refers to a nucleic acid region of known location in a genome, and wherein the normalizing comprises: subjecting the detected frequencies of a sequence from an individual locus across all samples to a mathematical transformation based on the frequencies of sequences of the at least 15 other loci across all samples within the data set, to reduce experimentally introduced variation, wherein the mathematical transformation comprises using a regression technique to normalize the frequency of the set of loci; and iii) identifying differences in sequence frequencies of a normalized locus from the fetal chromosome relative to sequence frequencies of loci of one or more other chromosomes in one or more of said maternal samples, thereby identifying the presence or absence of one or more chromosomal abnormalities in a fetus. i) providinga data set comprising frequency sequence data for a set of at least 16 loci from a single chromosome from two or more maternal samples each comprising both fetal and maternal nucleic acids, wherein each sample is identified by a sample index, and wherein the sequences of the dataset are determined in a single sequencing reaction; ii) normalizing the frequency of a sequence of individual loci within said dataset; wherein locus or loci refers to a nucleic acid region of known location in a genome, and wherein the normalizing comprises: subjecting the detected frequencies of a sequence from an individual locus across all samples to a mathematical transformation based on the frequencies of sequences of the at least 15 other loci across all samples within the data set, to reduce experimentally introduced variation, wherein the mathematical transformation comprises using a regression technique to normalize the frequency of the set of loci; and subjecting the detected frequencies of a sequence from an individual locus across all samples to a mathematical transformation based on the frequencies of sequences of the at least 15 other loci across all samples within the data set, to reduce experimentally introduced variation, wherein the mathematical transformation comprises using a regression technique to normalize the frequency of the set of loci; and iii) identifying differences in sequence frequencies of a normalized locus from the fetal chromosome relative to sequence frequencies of loci of one or more other chromosomes in one or more of said maternal samples, thereby identifying the presence or absence of one or more chromosomal abnormalities in a fetus.
A cell analysis method for analyzing, using a flow cytometer, cells obtained from a tissue specimen which is aldehyde-fixed and embedded in a water-insoluble embedding medium, the method comprising: (a) removing embedding medium from a sample obtained from the tissue specimen which is aldehyde-fixed and embedded in the water-insoluble embedding medium, thereby obtaining the sample comprising the tissue from which the embedding medium is removed; (b) heating the sample obtained from step (a) in the presence of a divalent carboxylic acid compound to obtain a heat-treated sample comprising the tissue; (c) contacting the heat-treated sample from step (b) with an enzyme having a cell dispersion activity to separate the sample into individual cells, thereby obtaining the sample comprising the individual cells dispersed in a solvent; (d) subjecting the separated cells from step (c) to flow cytometry to obtain optical information; and (e) analyzing the cells based on the optical information obtained in the step (d). (a) removing embedding medium from a sample obtained from the tissue specimen which is aldehyde-fixed and embedded in the water-insoluble embedding medium, thereby obtaining the sample comprising the tissue from which the embedding medium is removed; (b) heating the sample obtained from step (a) in the presence of a divalent carboxylic acid compound to obtain a heat-treated sample comprising the tissue; (c) contacting the heat-treated sample from step (b) with an enzyme having a cell dispersion activity to separate the sample into individual cells, thereby obtaining the sample comprising the individual cells dispersed in a solvent; (d) subjecting the separated cells from step (c) to flow cytometry to obtain optical information; and (e) analyzing the cells based on the optical information obtained in the step (d).
Dairy animal treatment system with a controllable robot arm which is connected to a control device and is configured for moving an animal treatment device to a part of a dairy animal, and with an object recognition device which is connected to the control device and which comprises a controllable light source, a first 3D-sensor with a two-dimensional arrangement of optical sensors and a signal processing device for processing signals supplied by the optical sensors, characterized in that the object recognition device comprises a second 3D-sensor with a two-dimensional arrangement of optical sensors, which is positioned at a distance from the first 3D-sensor, in particular at a horizontal distance, wherein a first central line of a first image field of the first 3D-sensor and a second central line of a second image field of the second 3D-sensor enclose an angle unequal to 0°, wherein the first and second central lines diverge, and enclose an angle which is smaller than a maximum angle of view of the first and the second image field, in particular in the horizontal plane, wherein the first and second central lines are each oriented upwardly with respect to the horizontal, in particular at an angle between 0° and 30° with the horizontal, horizontal, wherein at least one of the first and the second 3D-sensor is disposed on the robot arm under a covering of non-translucent material which projects beyond the respective 3D-sensor(s), in particular projects at least 100 mm beyond the respective 3D-sensors.
Method for the planning of bus subscribers (G1 - G4) of a bus-oriented programmable electrical installation, the method comprising: generating planning data for an application program of a bus subscriber (G1 - G4) by way of a configuration program, wherein the planning data comprises parameters and communication objects; allocating the parameters and communication objects to channels (K1 - K4,K1',K2') of the bus subscriber (G1 - G4), wherein the allocation of the parameters and communication objects to the channels (K1 - K4,K1',K2') of the respective bus subscriber (G1 - G4) is based on a defined channel allocation scheme, wherein the channel allocation scheme contains an allocation specification for the allocation of channels of source devices, in the form of bus subscribers (G1 - G4), to the channels of target devices, in the form of bus subscribers (G1 - G4), and wherein the planning data for the application program of the bus subscriber (G1 - G4), based on the defined channel allocation scheme, is used for a further bus subscriber (G1 - G4). generating planning data for an application program of a bus subscriber (G1 - G4) by way of a configuration program, wherein the planning data comprises parameters and communication objects; allocating the parameters and communication objects to channels (K1 - K4,K1',K2') of the bus subscriber (G1 - G4), wherein the allocation of the parameters and communication objects to the channels (K1 - K4,K1',K2') of the respective bus subscriber (G1 - G4) is based on a defined channel allocation scheme, wherein the channel allocation scheme contains an allocation specification for the allocation of channels of source devices, in the form of bus subscribers (G1 - G4), to the channels of target devices, in the form of bus subscribers (G1 - G4), and wherein the planning data for the application program of the bus subscriber (G1 - G4), based on the defined channel allocation scheme, is used for a further bus subscriber (G1 - G4).
A patch comprising a backing layer and an adhesive layer disposed on the backing layer and compounded with an adhesive agent and oxybutynin and/or a pharmaceutically acceptable salt thereof, wherein the adhesive agent comprises an acrylic polymer substantially free of both carboxyl group and hydroxyl group in the molecule, and a rubber polymer, and a weight ratio of the content of the acrylic polymer to the content of the rubber polymer is from 1:4 to 1:19, the acrylic polymer is at least one kind selected from 2-ethylhexyl acrylate - N-vinyl-2-pyrrolidone - 1,6-hexane glycol dimethacrylate terpolymer and 2-ethylhexyl acrylate - vinyl acetate copolymer, the rubber polymer is styrene-isoprene-styrene block copolymer, with the proviso that the following compositions are excluded: styrene-isoprene-styrene block copolymer 20.0 wt% 2-ethylhexyl acrylate - vinyl acetate copolymer 3.0 wt% alicyclic saturated hydrocarbon resin (ARKON P-100) 39.0 wt% liquid paraffin 25.0 wt% sodium acetate 3.0 wt% oxybutynin hydrochloride 10.0 wt%; styrene-isoprene-styrene block copolymer 19.5 wt% 2-ethylhexyl acrylate - N-vinyl-2-pyrrolidone - 1,6-hexane glycol dimethacrylate copolymer 4.0 wt% alicyclic saturated hydrocarbon resin (ARKON P-100) 24.0 wt% liquid paraffin 35.0 wt% citric acid 1.5 wt% sodium acetate 6.0 wt% oxybutynin hydrochloride 10.0 wt% and styrene-isoprene-styrene block copolymer 19.5 wt% 2-ethylhexyl acrylate - vinyl acetate copolymer 4.0 wt% alicyclic saturated hydrocarbon resin (ARKON P-100) 24.0 wt% liquid paraffin 35.0 wt% citric acid 1.5 wt% sodium acetate 6.0 wt% oxybutynin hydrochloride 10.0 wt%
A blanket assembly, comprising: an attachment frame; and a thermal protection blanket that comprises: an inner fabric layer; a batting layer carried by said inner fabric layer; and at least one outer fabric layer provided around said batting layer, the blanket assembly characterized in that; the blanket assembly further comprises: a shear fabric, the attachment frame wrapped in said shear fabric and the inner fabric layer carried by said shear fabric. an attachment frame; and a thermal protection blanket that comprises: an inner fabric layer; a batting layer carried by said inner fabric layer; and at least one outer fabric layer provided around said batting layer, the blanket assembly characterized in that; an inner fabric layer; a batting layer carried by said inner fabric layer; and at least one outer fabric layer provided around said batting layer, the blanket assembly characterized in that; the blanket assembly further comprises: a shear fabric, the attachment frame wrapped in said shear fabric and the inner fabric layer carried by said shear fabric. a shear fabric, the attachment frame wrapped in said shear fabric and the inner fabric layer carried by said shear fabric.
A blanking tool for cutting a number of blanks (6") from a sheet of material (8") to subsequently form cups and containers from the blanks, said sheet of material including a product area corresponding to the area of said material where said blanks are located, and a web area corresponding to the area of said material between said blanks, said blanking tool comprising: a shear including a first side, a second side disposed opposite the first side, an outer edge which defines an outer diameter, and an inner edge which defines an inner diameter and a thru hole, the outer edge concentric with the inner edge; characterised in that the shear includes: a plurality of contact surfaces (118, 120, 122, 124, 126, 128) disposed on the second side of said shear between the inner edge and the outer edge, the contact surfaces constitute high points, or locations, which extend outwardly from the second side of the shear, wherein every contact surface (118, 120, 122, 124, 126, 128) of said shear has a first arcuate side generally flush with respect to the inner edge, and wherein said contact surfaces are structured to engage only said web of said material. a shear including a first side, a second side disposed opposite the first side, an outer edge which defines an outer diameter, and an inner edge which defines an inner diameter and a thru hole, the outer edge concentric with the inner edge; characterised in that the shear includes: a plurality of contact surfaces (118, 120, 122, 124, 126, 128) disposed on the second side of said shear between the inner edge and the outer edge, the contact surfaces constitute high points, or locations, which extend outwardly from the second side of the shear, wherein every contact surface (118, 120, 122, 124, 126, 128) of said shear has a first arcuate side generally flush with respect to the inner edge, and wherein said contact surfaces are structured to engage only said web of said material. a plurality of contact surfaces (118, 120, 122, 124, 126, 128) disposed on the second side of said shear between the inner edge and the outer edge, the contact surfaces constitute high points, or locations, which extend outwardly from the second side of the shear, wherein every contact surface (118, 120, 122, 124, 126, 128) of said shear has a first arcuate side generally flush with respect to the inner edge, and wherein said contact surfaces are structured to engage only said web of said material.
Connection piece for connecting a surface-structured end of a hose extending along a longitudinal direction, having at least one recess in its surface, with a fluid outlet, characterised by a casting space, into which the end of the hose can be inserted, and a casting material arranged in the casting space, which • can be sufficiently fluidised in a first processing condition, so that a part of the casting material located in the casting space can flow into the recess when the end of the hose is inserted, and • can be cured in a second processing condition, so that the part of the casting material that has flowed into the recess and the remaining part of the casting material can hold back the end of the hose by positively engaging the casting material in the recess against traction forces acting along the longitudinal axis of the hose in the casting space, so that the hose is fixed to the connection piece. • can be sufficiently fluidised in a first processing condition, so that a part of the casting material located in the casting space can flow into the recess when the end of the hose is inserted, and • can be cured in a second processing condition, so that the part of the casting material that has flowed into the recess and the remaining part of the casting material can hold back the end of the hose by positively engaging the casting material in the recess against traction forces acting along the longitudinal axis of the hose in the casting space, so that the hose is fixed to the connection piece.
Ni-based alloy having a composition consisting of, by mass %, Cr: 14.0% to 17.0%, Fe: 5.0% to 9.0%, Ti: 2.2% to 2.8%, Al: 0.40% to 1.00%, a total amount of Nb + Ta: 0.7% to 1.2%, B: 0.001% to 0.010%, Zr: 0.01% to 0.15%, Mg: 0.001% to 0.050%, Mn: 0.01% to 0.20%, Cu: 0.005% to 0.300%, Mo: 0.01% to 0.30%, C: 0.01% to 0.05%, and the balance of Ni with inevitable impurities.
Method for producing a reinforced part (4, 104, 204, 304), which comprises the lay-up of continuous unidirectional fibres (31-34; 131-134; 231, 232; 331, 332) on a rigid intermediate part (1, 201, 301) obtained from at least a first thermoplastic polymer, said fibres being pre-impregnated with at least a second thermoplastic polymer, said lay-up being carried out by automated placement of the pre-impregnated fibres on the intermediate part, by means of a compaction roller and by heating, by a heating system, of the continuous pre-impregnated fibres to be laid up and the intermediate part just upstream of the roller, at a temperature at least equal to or greater than the melting temperature of the second polymer and the melting temperature of the first polymer, in order to weld the pre-impregnated fibres to the intermediate part, said pre-impregnated fibres being laid up in the direction(s) of the principal stresses of the reinforced part.
A gesture-based object measurement method comprising: • collecting image information of a to-be-measured object; • collecting information about a gesture (step 300); • when the gesture meets a set condition, determining a measurement positioning point of the to-be-measured object according to the gesture (step 310); • obtaining three-dimensional coordinate values obtained after the measurement positioning point is mapped to three-dimensional space (step 320); • determining a gesture type of the gesture; • searching a preset correspondence among a plurality of correspondences between a gesture type and a measurement parameter for a preset measurement parameter corresponding to the determined gesture type, and using the preset measurement parameter as a measurement parameter of the to-be-measured object (step 330); and • calculating a value of the preset measurement parameter of the to-be-measured object according to the preset measurement parameter and the three-dimensional coordinate values (step 340). • collecting image information of a to-be-measured object; • collecting information about a gesture (step 300); • when the gesture meets a set condition, determining a measurement positioning point of the to-be-measured object according to the gesture (step 310); • obtaining three-dimensional coordinate values obtained after the measurement positioning point is mapped to three-dimensional space (step 320); • determining a gesture type of the gesture; • searching a preset correspondence among a plurality of correspondences between a gesture type and a measurement parameter for a preset measurement parameter corresponding to the determined gesture type, and using the preset measurement parameter as a measurement parameter of the to-be-measured object (step 330); and • calculating a value of the preset measurement parameter of the to-be-measured object according to the preset measurement parameter and the three-dimensional coordinate values (step 340).
Braking system with master cylinder and electric brake booster, comprising an actuator piston operated by the brake booster and acting on the master cylinder via a push rod pressed against a reaction disc likewise subjected to the direct action of the plunger piston retained by a rear stop in the booster piston driven by the actuator piston, characterized in that - the booster piston is guided in the actuator piston forming a guide cylinder, - the booster piston comprises a bearing collar for a return spring of which the other end is pressed against the housing of the master cylinder and which acts in the return direction of the booster piston, - the booster piston comprises at its front end a collar forming a stop and the actuator piston comprises a shoulder at the front of the guide surface for the booster piston and forming a stop for the one-directional driving of the booster piston by the actuator piston. - the booster piston is guided in the actuator piston forming a guide cylinder, - the booster piston comprises a bearing collar for a return spring of which the other end is pressed against the housing of the master cylinder and which acts in the return direction of the booster piston, - the booster piston comprises at its front end a collar forming a stop and the actuator piston comprises a shoulder at the front of the guide surface for the booster piston and forming a stop for the one-directional driving of the booster piston by the actuator piston.
A Ruthenium-based complex catalysts according to general formula wherein X 1, X 2 are identical or different and represent anionic ligands, X 3 represents a non-coordinating anion, t is 1, t' is either 0 or 1, u is 1, and L 1, L 2, L 3 represent identical or different ligands, wherein at least one of L 1, L 2 and L 3 represents either a ligand having the general structure (Ia) or (Ib) or a ligand having the general structure (Ic) or (Id) in which formulae (Ia), (Ib), (Ic) and (Id) n is identical or different and represents an integer in the range of from 1 to 20, D is identical or different and represents hydroxy, alkoxy, aryloxy, thiol, thiolate, thioether, sulfoxide, sulfone, phosphine oxide, phosphine sulfide, ketone or ester, R is identical or different and represents H, alkyl or aryl, and E is identical or different and represents a divalent moiety selected from the group consisting of -O-, -S-, -Se-, -N -, -P -, -As -, -S(=O)-, - PR(=S)-, -PR(=O)-, -C(=O)-, -C(=S)-, 2,6-pyridylene or substituted 2,6-pyridylene. X 1, X 2 are identical or different and represent anionic ligands, X 3 represents a non-coordinating anion, t is 1, t' is either 0 or 1, u is 1, and L 1, L 2, L 3 represent identical or different ligands, wherein at least one of L 1, L 2 and L 3 represents either a ligand having the general structure (Ia) or (Ib) or a ligand having the general structure (Ic) or (Id) in which formulae (Ia), (Ib), (Ic) and (Id) n is identical or different and represents an integer in the range of from 1 to 20, D is identical or different and represents hydroxy, alkoxy, aryloxy, thiol, thiolate, thioether, sulfoxide, sulfone, phosphine oxide, phosphine sulfide, ketone or ester, R is identical or different and represents H, alkyl or aryl, and E is identical or different and represents a divalent moiety selected from the group consisting of -O-, -S-, -Se-, -N -, -P -, -As -, -S(=O)-, - PR(=S)-, -PR(=O)-, -C(=O)-, -C(=S)-, 2,6-pyridylene or substituted 2,6-pyridylene. n is identical or different and represents an integer in the range of from 1 to 20, D is identical or different and represents hydroxy, alkoxy, aryloxy, thiol, thiolate, thioether, sulfoxide, sulfone, phosphine oxide, phosphine sulfide, ketone or ester, R is identical or different and represents H, alkyl or aryl, and E is identical or different and represents a divalent moiety selected from the group consisting of -O-, -S-, -Se-, -N -, -P -, -As -, -S(=O)-, - PR(=S)-, -PR(=O)-, -C(=O)-, -C(=S)-, 2,6-pyridylene or substituted 2,6-pyridylene.