mhurhangee/ep-ind-claims huggingface dataset:
A method of analyzing in vitro the electrophoretic mobility distribution of von Willebrand factor (vWF) multimers, comprising: electrophoretically separating vWF multimers by electrophoretic mobility in a sample medium comprising a plurality of vWF multimers by subjecting said sample medium to an electric field to provide separated vWF multimers; exposing said separated vWF multimers in said sample medium to a light source to produce scattered light; detecting said scattered light; and determining the electrophoretic mobility distribution of said separated vWF multimers from said detected scattered light, wherein exposing said separated vWF multimers in said sample medium to a light source to produce scattered light impinges energy on said sample medium to generate an energy interaction output; the method further comprising: determining an electrophoretic mobility distribution of vWF multimers in said sample medium based on said energy interaction output, and wherein impinging energy comprises impinging light energy on said sample medium, the method comprising determining an electrophoretic mobility distribution using electrophoretic quasi-elastic light scattering (EQELS) and/or capillary zone electrophoresis dynamic light scattering. electrophoretically separating vWF multimers by electrophoretic mobility in a sample medium comprising a plurality of vWF multimers by subjecting said sample medium to an electric field to provide separated vWF multimers; exposing said separated vWF multimers in said sample medium to a light source to produce scattered light; detecting said scattered light; and determining the electrophoretic mobility distribution of said separated vWF multimers from said detected scattered light, wherein exposing said separated vWF multimers in said sample medium to a light source to produce scattered light impinges energy on said sample medium to generate an energy interaction output; the method further comprising: determining an electrophoretic mobility distribution of vWF multimers in said sample medium based on said energy interaction output, and wherein impinging energy comprises impinging light energy on said sample medium, the method comprising determining an electrophoretic mobility distribution using electrophoretic quasi-elastic light scattering (EQELS) and/or capillary zone electrophoresis dynamic light scattering. determining an electrophoretic mobility distribution of vWF multimers in said sample medium based on said energy interaction output, and wherein impinging energy comprises impinging light energy on said sample medium, the method comprising determining an electrophoretic mobility distribution using electrophoretic quasi-elastic light scattering (EQELS) and/or capillary zone electrophoresis dynamic light scattering.
A device for entering the absolute position and orientation of an input element into a computer, the input element containing two permanent magnets, the input element being arranged so as to be freely movable in the effective range of sensors which are likewise part of the device, characterised in that - the dipole moments of the two permanent magnets of the input element are arranged in a non-collinear orientation to each other and - the sensors for measuring the magnetic flux density of the field generated by the two permanent magnets are arranged in two mutually orthogonal planes (5, 6), at least three sensors being arranged in each plane (5 or 6). - the dipole moments of the two permanent magnets of the input element are arranged in a non-collinear orientation to each other and - the sensors for measuring the magnetic flux density of the field generated by the two permanent magnets are arranged in two mutually orthogonal planes (5, 6), at least three sensors being arranged in each plane (5 or 6).
A compound selected from the group consisting of: 3-(2,3-Dimethyl-4-{[2-methyl-5-(trifluoromethoxy)-1-benzofuran-7-yl]methoxy}phenyl)propanoic acid; and a pharmaceutically acceptable salt thereof. 3-(2,3-Dimethyl-4-{[2-methyl-5-(trifluoromethoxy)-1-benzofuran-7-yl]methoxy}phenyl)propanoic acid; and a pharmaceutically acceptable salt thereof.
Process for hydroformylating C2 to C5 olefins, wherein the hydroformylation comprises one or more hydroformylation steps, characterized in that in at least one hydroformylation step a feed mixture comprising the C2 to C5 olefins is subjected to a hydroformylation with synthesis gas in the presence of a catalyst system comprising a metal from group 8 or 9 of the Periodic Table of the Elements, at least one organic phosphorus-containing ligand and a stabilizer, in a reaction zone, wherein the feed mixture and the synthesis gas are passed over a support composed of a porous ceramic material on which the catalyst system is in heterogenized form, the catalyst system does not comprise any ionic liquid; and the support is a monolith, i.e. a block of a ceramic material, to which a washcoat composed of the same or a different ceramic material with respect to the ceramic material of the support is applied, wherein the stabilizer is an organic amine compound containing at least one 2,2,6,6-tetramethylpiperidine unit of formula: in at least one hydroformylation step a feed mixture comprising the C2 to C5 olefins is subjected to a hydroformylation with synthesis gas in the presence of a catalyst system comprising a metal from group 8 or 9 of the Periodic Table of the Elements, at least one organic phosphorus-containing ligand and a stabilizer, in a reaction zone, wherein the feed mixture and the synthesis gas are passed over a support composed of a porous ceramic material on which the catalyst system is in heterogenized form, the catalyst system does not comprise any ionic liquid; and the support is a monolith, i.e. a block of a ceramic material, to which a washcoat composed of the same or a different ceramic material with respect to the ceramic material of the support is applied, wherein the stabilizer is an organic amine compound containing at least one 2,2,6,6-tetramethylpiperidine unit of formula:
A holding device for fixing and pre-sorting glass fibre cables (7a, 7b) including a mounting plate and a frame member with two opposed, spaced wall sections and two pivotable flaps attached at right-angles to the wall sections, which, in the closed state, close the open sides of the frame member, wherein projecting from the lateral edges of the wall sections there are teeth, between which respective grooves remain, into which a glass fibre cable may be inserted, characterised in that the holding device has two foot sections integrally formed on the frame member, which are fastened to the mounting plate so that the frame member is mounted in an upright position on the mounting plate standing on the foot sections, that fastened in the frame member on both sides to a wall extending in the transverse direction there is a respective insert of an elastic material extending in the transverse direction, which is fastened centrally in the frame member between the wall sections, that the inserts are so thick that they project above the bases of the grooves and that the pivotable flaps pass inbetween the teeth in the closed state and press received glass fibre cables (7a, 7b) against the inserts.
A pneumatic fender, comprising hemispherical portions each having a bowl shape at both ends of a body portion having a cylindrical shape; and the body portion and a predetermined range in the longitudinal direction of the fender of the respective hemispherical portions being configured by layering a plurality of reinforcing layers (3, 5) between an inner layer rubber and an outer layer rubber, wherein a reinforcing layer of the plurality of reinforcing layers of the body portion is a cord layer formed by aligning a number of cords (3a, 3b) in parallel, said cords (3a, 3b) layered adjacent to each other meeting and being disposed at a predetermined cord angle with respect to a longitudinal direction of the fender, and in a neutral state without expansion the cord angle being set to from 15° to 45°, and wherein a reinforcing layer of the plurality of reinforcing layers of the predetermined range of each of the hemispherical portions near a boundary with the body portion is a cord layer formed by aligning a number of cords (5a, 5b) in parallel, said cords (5a, 5b) layered adjacent to each other meeting and being disposed at a predetermined cord angle with respect to the longitudinal direction of the fender, and in the neutral state without expansion the cord angle being set to from 15° to 45°, characterized in that the cord angle in the neutral state of the reinforcing layer constituting the body portion is set smaller than the cord angle in the neutral state of the reinforcing layer in the predetermined range of each of the hemispherical portions. hemispherical portions each having a bowl shape at both ends of a body portion having a cylindrical shape; and the body portion and a predetermined range in the longitudinal direction of the fender of the respective hemispherical portions being configured by layering a plurality of reinforcing layers (3, 5) between an inner layer rubber and an outer layer rubber, wherein a reinforcing layer of the plurality of reinforcing layers of the body portion is a cord layer formed by aligning a number of cords (3a, 3b) in parallel, said cords (3a, 3b) layered adjacent to each other meeting and being disposed at a predetermined cord angle with respect to a longitudinal direction of the fender, and in a neutral state without expansion the cord angle being set to from 15° to 45°, and wherein a reinforcing layer of the plurality of reinforcing layers of the predetermined range of each of the hemispherical portions near a boundary with the body portion is a cord layer formed by aligning a number of cords (5a, 5b) in parallel, said cords (5a, 5b) layered adjacent to each other meeting and being disposed at a predetermined cord angle with respect to the longitudinal direction of the fender, and in the neutral state without expansion the cord angle being set to from 15° to 45°, characterized in that the cord angle in the neutral state of the reinforcing layer constituting the body portion is set smaller than the cord angle in the neutral state of the reinforcing layer in the predetermined range of each of the hemispherical portions.
A method of processing a multichannel signal, said method comprising: for each of a plurality of different frequency components of the multichannel signal, calculating a difference between a phase of the frequency component in a first channel of the multichannel signal and a phase of the frequency component in a second channel of the multichannel signal; based on information from the plurality of calculated phase differences, calculating a value of a first coherency measure that indicates a degree of coherence among the directions of arrival of at least the plurality of different frequency components in a first spatial sector and a value of a second coherency measure that indicates a degree of coherence among the directions of arrival of at least the plurality of different frequency components in a second spatial sector that is different than the first spatial sector; calculating a contrast of the first coherency measure by evaluating a relation between the calculated value of the first coherency measure and an average value of the first coherency measure over time; calculating a contrast of the second coherency measure by evaluating a relation between the calculated value of the second coherency measure and an average value of the second coherency measure over time; and indicating one among the first and second spatial sectors, based on which among the first and second coherency measures has the greatest contrast. for each of a plurality of different frequency components of the multichannel signal, calculating a difference between a phase of the frequency component in a first channel of the multichannel signal and a phase of the frequency component in a second channel of the multichannel signal; based on information from the plurality of calculated phase differences, calculating a value of a first coherency measure that indicates a degree of coherence among the directions of arrival of at least the plurality of different frequency components in a first spatial sector and a value of a second coherency measure that indicates a degree of coherence among the directions of arrival of at least the plurality of different frequency components in a second spatial sector that is different than the first spatial sector; calculating a contrast of the first coherency measure by evaluating a relation between the calculated value of the first coherency measure and an average value of the first coherency measure over time; calculating a contrast of the second coherency measure by evaluating a relation between the calculated value of the second coherency measure and an average value of the second coherency measure over time; and indicating one among the first and second spatial sectors, based on which among the first and second coherency measures has the greatest contrast.
A method comprising, on a mobile device: determining a first positioning parameter based, at least in part, on a wireless positioning signal received by said mobile device; determining a second positioning parameter based, at least in part, on a signal generated by a sensor of said mobile device; detecting whether an error condition has occurred based on a comparison of the first positioning parameter with the second positioning parameter; affecting an indication of uncertainty with regard to said first and second positioning parameters, and/or an indication of a position uncertainty with regard to the mobile device, based on the detection whether said error condition has occurred; and initiating an error recovery mechanism based on said indication of uncertainty, wherein initiating the error recovery mechanism further comprises determining whether a portion of available positioning assistance data contributes to the error condition, and deleting or ignoring all or part of the portion of available positioning assistance data from the available positioning assistance data. determining a first positioning parameter based, at least in part, on a wireless positioning signal received by said mobile device; determining a second positioning parameter based, at least in part, on a signal generated by a sensor of said mobile device; detecting whether an error condition has occurred based on a comparison of the first positioning parameter with the second positioning parameter; affecting an indication of uncertainty with regard to said first and second positioning parameters, and/or an indication of a position uncertainty with regard to the mobile device, based on the detection whether said error condition has occurred; and initiating an error recovery mechanism based on said indication of uncertainty, wherein initiating the error recovery mechanism further comprises determining whether a portion of available positioning assistance data contributes to the error condition, and deleting or ignoring all or part of the portion of available positioning assistance data from the available positioning assistance data.
A control system, wherein the control system comprises a hybrid combination of a classical computer and a quantum computer, wherein the control system is configured to receive input data at the classical computer from an apparatus, wherein the classical computer and the quantum computer are configured to exchange data therebetween, and to use a variational inference arrangement executed on the hybrid combination to process the input data to generate corresponding output data for use in controlling operation of the apparatus, wherein the variational inference arrangement uses at least one probabilistic graphical model (110, 120), wherein an approximate posterior distribution of unobserved discrete variables of the at least one probabilistic graphical model is modelled using a Born machine implemented using the quantum computer, and wherein the control system is configured to infer an operating condition of the apparatus from an error signal used to compensate for deviations in operation of the apparatus relative to a learnt representation of the apparatus, wherein the learnt representation of the apparatus is implemented using the at least one probabilistic graphical model (110, 120) of the variational inference arrangement, wherein the error signal is generated by determining a difference between the output data generated by the variational inference arrangement and system output data generated by the apparatus, and wherein the error signal provides a measure of the condition of the apparatus.
In vitro skin equivalent characterized in that it comprises at least one epidermis equivalent which comprises keratinocytes forming at least one basal layer and at least one superficial layer, and at least one dermis equivalent comprising a free lattice of collagen, in that said skin equivalent comprises melanocytes constitutively producing melanin and live fibroblasts, all the melanocytes being in the basal layer of the epidermis equivalent and distributed homogeneously in the epidermis equivalent, the distribution density of said melanocytes being substantially constant in a plane parallel to the surface of said equivalent.
A non-cyanic tin alloy plating solution comprising: i) tin ions, and ii) silver ions, characterized in that said tin alloy plating solution further comprises: iii) peptides with cysteine residues. i) tin ions, and ii) silver ions, iii) peptides with cysteine residues.
Baking composite film (2, 44), in particular produced according to any one of claims 7 to 10, - with an aluminium foil layer (4, 24) and - with a baking paper layer (8, 28), - wherein the aluminium foil layer (4, 24) and the baking paper layer (8, 28) are adhered together by an adhesive layer (6, 32) arranged therebetween, characterised in that - a separation layer (10, 40) made of release wax is provided on the side of the baking paper layer (8, 28) facing away from the aluminium film layer (4, 24). - with an aluminium foil layer (4, 24) and - with a baking paper layer (8, 28), - wherein the aluminium foil layer (4, 24) and the baking paper layer (8, 28) are adhered together by an adhesive layer (6, 32) arranged therebetween, characterised in that - a separation layer (10, 40) made of release wax is provided on the side of the baking paper layer (8, 28) facing away from the aluminium film layer (4, 24).
A matrix spot processing device (100, 300, 800, 1100, 1200, 1300, 1400), comprising: a tubular plunger (34,1134,1234,1334,1434) having a body containing a first reservoir extending between a first end and a second end; an absorbent media (36, 336, 1136, 1236, 1336) positioned on the first end of the plunger (34, 1134, 1234, 1334, 1434) and configured to receive a blood sample spotted on a first side of the absorbent media (36, 336, 1136, 1236, 1336), wherein the first reservoir is located on a second side of the absorbent media (36, 336, 1136, 1236, 1336); and a tubular extraction solvent container including a second reservoir containing an extraction solvent, wherein the first end of the plunger (34,1134,1234,1334,1434) is configured to be inserted into the extraction solvent container, wherein the plunger (34, 1134, 1234, 1334, 1434) is configured to be compressed into the extraction solvent container such that the extraction solvent is transferred from the second reservoir through the absorbent media (36, 336, 1136, 1236, 1336) into the first reservoir to generate an extract from an interaction between the extraction solvent and the blood sample at the absorbent media. a tubular plunger (34,1134,1234,1334,1434) having a body containing a first reservoir extending between a first end and a second end; an absorbent media (36, 336, 1136, 1236, 1336) positioned on the first end of the plunger (34, 1134, 1234, 1334, 1434) and configured to receive a blood sample spotted on a first side of the absorbent media (36, 336, 1136, 1236, 1336), wherein the first reservoir is located on a second side of the absorbent media (36, 336, 1136, 1236, 1336); and a tubular extraction solvent container including a second reservoir containing an extraction solvent, wherein the first end of the plunger (34,1134,1234,1334,1434) is configured to be inserted into the extraction solvent container, wherein the plunger (34, 1134, 1234, 1334, 1434) is configured to be compressed into the extraction solvent container such that the extraction solvent is transferred from the second reservoir through the absorbent media (36, 336, 1136, 1236, 1336) into the first reservoir to generate an extract from an interaction between the extraction solvent and the blood sample at the absorbent media.
A ring rolling machine, comprising at least one forming tool, which can have a forming effect on a workpiece arranged in a working region of the ring rolling machine, characterised in that the ring rolling machine comprises a light section sensor, which is directed towards the working region of the ring rolling machine, the light section sensor being arranged on an axial frame of the ring rolling machine and thus being radially displaceable together with said axial frame, and represents an input variable for a forming control device which positions the at least one forming tool relative to the workpiece during forming, and the light section sensor is directed towards a forming region in which the forming tool has a forming effect.
A composition comprising: 20 to 80 weight percent polyvinyl chloride resin, based on the total weight of the composition; 1 to 30 weight percent compatibilizer, based on the total weight of the composition; and 10 to 40 weight percent, based on the total weight of the composition, biochemical plasticizers including epoxidized derivatives of vegetable oils, acetylated derivatives of vegetable oils or mixtures thereof, the biochemical plasticizers comprising at least 50 weight percent of the total plasticizer content of the composition; wherein the composition is substantially free of phthalate-based plasticizers and non-biochemical plasticizers; and wherein the term "biochemical plasticizers" as used herein means derivatives of plant oils. 20 to 80 weight percent polyvinyl chloride resin, based on the total weight of the composition; 1 to 30 weight percent compatibilizer, based on the total weight of the composition; and 10 to 40 weight percent, based on the total weight of the composition, biochemical plasticizers including epoxidized derivatives of vegetable oils, acetylated derivatives of vegetable oils or mixtures thereof, the biochemical plasticizers comprising at least 50 weight percent of the total plasticizer content of the composition;