mhurhangee/ep-ind-claims huggingface dataset:
Device for the continuous preparation of coated material comprising a drum mounted to rotate about its longitudinal axis, a burner and a mixer which is arranged under the drum so that the streams of material circulating respectively in the drum and in the mixer are reversed, the mixer comprising a rotary mixing means (182, 183) rotating independently of the drum, characterized in that the device comprises a thermal jacket arranged, on the one hand, partially around the drum over a part of the length thereof approximately at the location where the flame produced by the burner is situated and, on the other hand, partially between the drum and the mixer so as to make a connection between the drum and the mixer, the drum communicating with the mixer via the thermal jacket.
A process for hydrogenation of caprolactone and/or its oligomers or polymers to 1,6-hexanediol characterised in that said process is performed in liquid phase at a pressure between 260 and 300 bar and a temperature between 180-240 °C, and that said process is performed in the presence of a catalytically effective amount of at least one catalyst comprising Cu, Mn, Al, Cr, Zn, Ba and/or Zr and in the presence of at least one of the solvents methanol, isobutanol and/or 1,6-hexanediol.
A method for producing a nutritive protein sunflower concentrate, the method comprising: extraction of an oil with a solvent from a mass produced of sunflower kernels, distillation of the solvent from the mass, drying the concentrate, characterized in that the method comprises the following steps: the sunflower seeds are dried at a temperature of 40-70°C, shelling the sunflower seeds, separating the sunflower flakes from the kernel, the kernels are milled and directly thereafter the milled material is subjected to wet-heat treatment performed up to the moisture of 7-9% at a temperature of 70-85°C, after which the oil is extracted from a cake shell with an organic solvent at a temperature of 55-60°C, the solvent is distillated from the produced mass under the vacuum and at a temperature of 140°C in a medium of an overheated hexane during 20 mins, wherein the temperature of the product is not more than 70-80°C, after removal of the solvent the concentrate is dried at 65-70°C up to a moisture of 6-12% and cooled up to a temperature of 35-40°C.
A method of separating genomic DNA and plasmid DNA from each other, the method comprising: mixing a sample comprising genome DNA and plasmid DNA with a solution comprising a kosmotropic salt and a chaotropic salt to prepare a mixture having a pH ranging from 3 to 5; and selectively separating the genome DNA from the mixture, wherein selectively separating the genome DNA from the mixture comprises: contacting the mixture with a solid support capable of binding to genome DNA and separating the solid support from the mixture, wherein the solid support material comprises a bi-functional material, wherein the bi-functional material is positively charged and bound to nucleic acids at a first pH ranging from 2 to 5 and negatively charged and releases the bound nucleic acids at a second pH ranging from 7 to 12, characterized in that the bi-functional material is a polymer including at least one monomer selected from a group consisting of monomers represented by Formula M0, M1, M2, and M3 below, wherein the polymer includes at least one monomer having A moiety and at least one monomer having B moiety: wherein A is -OH, B is and wherein R 8 is ethyl, and R 9 and R 10 are hydrogen. mixing a sample comprising genome DNA and plasmid DNA with a solution comprising a kosmotropic salt and a chaotropic salt to prepare a mixture having a pH ranging from 3 to 5; and selectively separating the genome DNA from the mixture, wherein selectively separating the genome DNA from the mixture comprises: contacting the mixture with a solid support capable of binding to genome DNA and separating the solid support from the mixture, wherein the solid support material comprises a bi-functional material, wherein the bi-functional material is positively charged and bound to nucleic acids at a first pH ranging from 2 to 5 and negatively charged and releases the bound nucleic acids at a second pH ranging from 7 to 12, characterized in that the bi-functional material is a polymer including at least one monomer selected from a group consisting of monomers represented by Formula M0, M1, M2, and M3 below, wherein the polymer includes at least one monomer having A moiety and at least one monomer having B moiety: wherein A is -OH, B is and wherein R 8 is ethyl, and R 9 and R 10 are hydrogen. contacting the mixture with a solid support capable of binding to genome DNA and separating the solid support from the mixture, wherein the solid support material comprises a bi-functional material, wherein the bi-functional material is positively charged and bound to nucleic acids at a first pH ranging from 2 to 5 and negatively charged and releases the bound nucleic acids at a second pH ranging from 7 to 12, characterized in that the bi-functional material is a polymer including at least one monomer selected from a group consisting of monomers represented by Formula M0, M1, M2, and M3 below, wherein the polymer includes at least one monomer having A moiety and at least one monomer having B moiety: wherein A is -OH, B is and wherein R 8 is ethyl, and R 9 and R 10 are hydrogen.
Medical spray device, in particular a lavage system, comprising a compressed gas supply conduit for generating a gas flow, a liquid supply conduit for supplying a liquid, a dispensing tube having an open tube end for spraying fine droplets or a spray mist of a liquid-gas mixture, and an operable valve element that is arranged in the compressed gas supply conduit, wherein a constriction of the cross-sectional area is provided in the dispensing tube and a merging site is arranged in the region of the constriction through which the liquid merges into the gas flow from the compressed gas supply conduit, whereby the constriction forms a nozzle in the dispensing tube, characterised in that a second nozzle is arranged at the end of the compressed gas supply conduit through which the flowing gas exits from the compressed gas supply conduit in the direction of the constriction
A memory structure for use in a memory device comprising at least one first layer and at least one second layer: the at least one first layer comprises a plurality of a first metal oxide element, and the at least one second layer comprises a plurality of a second metal oxide element; and, wherein the memory structure has an electrical resistive state that can be changed in response to an electromotive force being applied thereto and characterised in that the elements are in the form of metal oxide nanocubes. the at least one first layer comprises a plurality of a first metal oxide element, and the at least one second layer comprises a plurality of a second metal oxide element; and, wherein the memory structure has an electrical resistive state that can be changed in response to an electromotive force being applied thereto and characterised in that the elements are in the form of metal oxide nanocubes.
Seat device for a tilting vehicle, in particular a tilting vehicle comprising a boxer engine, having at least one seat bench, having at least one holding means, by means of which the seat bench can be arranged or is arranged on a vehicle component of the tilting vehicle or on a vehicle frame on a side facing the direction of travel, and by means of which movement of the seat bench parallel to the vertical axis and to the transverse axis can be limited, and having at least one coupling unit, which can be fixed or is fixed on a side of the seat bench facing away from the direction of travel, by means of which coupling unit the seat bench can be fixed or is fixed indirectly or directly to the vehicle frame so as to be movable to a limited extent, and which comprises at least one first coupling means fixed indirectly or directly to the seat bench, at least one second coupling means fixed to the vehicle frame, and at least one first movement clearance means which is arranged between the first coupling means and second coupling means and by means of which the seat bench is movable to a limited extent relative to the vehicle frame, at least in or transversely to the transverse axis of the tilting vehicle, by means of movement of the first coupling means relative to the second coupling means, characterized in that the coupling unit comprises at least one rod- or strip-shaped, flexurally rigid spacer means which can be used to fix the seat bench indirectly or directly to the vehicle frame, and which is arranged between the seat bench and the vehicle frame and at the one end of which the first coupling means or the second coupling means is arranged.
An immunosuppressive medicament for use in the treatment of a condition in a subject in need of immunosuppressive medicament therapy, wherein the subject has a decreased risk of progressive multifocal leukoencephalopathy due to an infection of the brain by John Cunningham virus, wherein the subject's decreased risk is due to the absence of a genomic variation selected from the group consisting of: chr1:57409459, C>A, chr22:35806756, G>A and chr21:45708278, G>A, wherein chromosome position of the genomic variation is defined with respect to UCSC hg19. wherein the subject has a decreased risk of progressive multifocal leukoencephalopathy due to an infection of the brain by John Cunningham virus, wherein the subject's decreased risk is due to the absence of a genomic variation selected from the group consisting of: chr1:57409459, C>A, chr22:35806756, G>A and chr21:45708278, G>A, wherein chromosome position of the genomic variation is defined with respect to UCSC hg19.
A power transmitter for wirelessly providing power to a power receiver using an inductive power signal; the power transmitter comprising: a variable resonance circuit for generating the inductive power signal in response to a drive signal, the variable resonance circuit having a resonance frequency being a variable resonance frequency; a driver for generating the drive signal for the variable resonance circuit, the drive signal having an operating frequency; a load modulation receiver for demodulating load modulation of the inductive power signal by the power receiver; and an adaptor for adapting the operating frequency and the resonance frequency to converge, characterized in the load modulation receiver being arranged for generating a demodulation quality measure, and the adaptation of the operating frequency and the resonance frequency further being in response to the demodulation quality measure; wherein the demodulation quality measure comprises a modulation depth measure reflecting a difference measure for measurements of at least one of a current and a voltage of the variable resonance circuit for different modulation loads of the inductive power transfer. a variable resonance circuit for generating the inductive power signal in response to a drive signal, the variable resonance circuit having a resonance frequency being a variable resonance frequency; a driver for generating the drive signal for the variable resonance circuit, the drive signal having an operating frequency; a load modulation receiver for demodulating load modulation of the inductive power signal by the power receiver; and an adaptor for adapting the operating frequency and the resonance frequency to converge, characterized in
Vehicle light, in particular for illuminating the interior of the vehicle, with - at least two light sources (4, 5) and - a light guide body, which comprises at least one first light coupling-in surface for coupling in the light emission of the first light source, a second light coupling-in surface for coupling in the light emission of the second light source, and a plurality of light coupling-out structures, wherein the coupled-in light is reflected to exit the light guide body at a light coupling-out surface, characterized in that - each light coupling-out structure comprises a first region on which, when the first light source is switched on, a part of the light emission of this first light source impinges, and comprises a second region on which, when the second light source is switched on, a part of the light emission of this second light source impinges, and - wherein the coupled-out light generated by means of the first region has a different emission characteristic than the coupled-out light generated by means of the second region. - at least two light sources (4, 5) and - a light guide body, which comprises at least one first light coupling-in surface for coupling in the light emission of the first light source, a second light coupling-in surface for coupling in the light emission of the second light source, and a plurality of light coupling-out structures, wherein the coupled-in light is reflected to exit the light guide body at a light coupling-out surface, characterized in that - each light coupling-out structure comprises a first region on which, when the first light source is switched on, a part of the light emission of this first light source impinges, and comprises a second region on which, when the second light source is switched on, a part of the light emission of this second light source impinges, and - wherein the coupled-out light generated by means of the first region has a different emission characteristic than the coupled-out light generated by means of the second region.
A method for level measurement, point level measurement, pressure measurement or flow measurement and for acquiring and processing measurement data, comprising the steps of: Activating a processor; Activating a buffer module; receiving digital signals corresponding to sensed measurement data from an analog-to-digital converter circuit at a first data rate in the buffer module; reading the buffer memory device at a second data rate, which is lower than the first data rate, by the processor; deactivating the buffer memory device; outputting, by the processor, a measurement value calculated from the digital signals by the processor and/or the buffer memory device; putting the processor in a sleep mode. Activating a processor; Activating a buffer module; receiving digital signals corresponding to sensed measurement data from an analog-to-digital converter circuit at a first data rate in the buffer module; reading the buffer memory device at a second data rate, which is lower than the first data rate, by the processor; deactivating the buffer memory device; outputting, by the processor, a measurement value calculated from the digital signals by the processor and/or the buffer memory device; putting the processor in a sleep mode.
A steel sheet member combination structure comprising: a first steel sheet member having a main wall portion, a standing wall portion that stands from an end edge of the main wall portion, and a flange portion that extends parallel to the main wall portion from an end edge of the standing wall portion; and a second steel sheet member that is joined to at least one of an inner surface or an outer surface of the first steel sheet member and has a horizontal wall portion that abuts the main wall portion and a side wall portion that abuts the standing wall portion, wherein, when larger one of a distance between an outer surface of the flange portion and an outer surface of the main wall portion and a distance between the outer surface of the flange portion and an outer surface of the horizontal wall portion is defined as H (mm), a sum of a sheet thickness of the standing wall portion and a sheet thickness of the side wall portion is defined as t (mm), and larger one of a distance between a tip end surface of the side wall portion and the outer surface of the main wall portion and a distance between the tip end surface of the side wall portion and the outer surface of the horizontal wall portion is defined as H1 (mm), characterized in that, the first steel sheet member and the second steel sheet member satisfy Expression 1 and Expression 2: H/t ≤ 12.5 0.7 ≤ H 1 /H ≤ 0.9 wherein each of the first steel sheet member and the second steel sheet member has a tensile strength of 980 MPa or higher. a first steel sheet member having a main wall portion, a standing wall portion that stands from an end edge of the main wall portion, and a flange portion that extends parallel to the main wall portion from an end edge of the standing wall portion; and a second steel sheet member that is joined to at least one of an inner surface or an outer surface of the first steel sheet member and has a horizontal wall portion that abuts the main wall portion and a side wall portion that abuts the standing wall portion, wherein, when larger one of a distance between an outer surface of the flange portion and an outer surface of the main wall portion and a distance between the outer surface of the flange portion and an outer surface of the horizontal wall portion is defined as H (mm), a sum of a sheet thickness of the standing wall portion and a sheet thickness of the side wall portion is defined as t (mm), and larger one of a distance between a tip end surface of the side wall portion and the outer surface of the main wall portion and a distance between the tip end surface of the side wall portion and the outer surface of the horizontal wall portion is defined as H1 (mm), characterized in that, the first steel sheet member and the second steel sheet member satisfy Expression 1 and Expression 2: H/t ≤ 12.5 0.7 ≤ H 1 /H ≤ 0.9 wherein each of the first steel sheet member and the second steel sheet member has a tensile strength of 980 MPa or higher.
A refrigerator including: an insulated cabinet constructed into a box shape and having an insulating material between outer plates constituting outer surfaces and inner plates constituting inner surfaces; a pair of reinforcing member mounting portions (41, 43, 81) provided on a pair of the inner plates opposed to each other in an interior; and a bridge-shaped reinforcing member (9, 71) having one of two ends connected to one of the paired reinforcing member mounting portions (41, 43, 81) and the other end connected to the other of the paired reinforcing member mounting portions (41, 43, 81), wherein the bridge-shaped reinforcing member (9, 71) is fixed to at least middle portions of the inner plates in a front-back direction; characterised in that the insulating material of the insulated cabinet includes a vacuum insulation panel (26, 28, 29, 32); the paired reinforcing member mounting portions (41, 43, 81) include a screw passing hole or an arrangement hole, said hole (41e, 43d) being elongated in a direction orthogonal to the inner plates opposed to each other; and the bridge-shaped reinforcing member (9, 71) is connected to the paired reinforcing member mounting portions (41, 43, 81) by inserting a screw into the screw passing hole or by inserting a protrusion into the arrangement hole portion so that a connecting position of the reinforcing member (9, 71) in a direction orthogonal to the inner plates is adjustable. an insulated cabinet constructed into a box shape and having an insulating material between outer plates constituting outer surfaces and inner plates constituting inner surfaces; a pair of reinforcing member mounting portions (41, 43, 81) provided on a pair of the inner plates opposed to each other in an interior; and a bridge-shaped reinforcing member (9, 71) having one of two ends connected to one of the paired reinforcing member mounting portions (41, 43, 81) and the other end connected to the other of the paired reinforcing member mounting portions (41, 43, 81), wherein the bridge-shaped reinforcing member (9, 71) is fixed to at least middle portions of the inner plates in a front-back direction; characterised in that the insulating material of the insulated cabinet includes a vacuum insulation panel (26, 28, 29, 32); the paired reinforcing member mounting portions (41, 43, 81) include a screw passing hole or an arrangement hole, said hole (41e, 43d) being elongated in a direction orthogonal to the inner plates opposed to each other; and the bridge-shaped reinforcing member (9, 71) is connected to the paired reinforcing member mounting portions (41, 43, 81) by inserting a screw into the screw passing hole or by inserting a protrusion into the arrangement hole portion so that a connecting position of the reinforcing member (9, 71) in a direction orthogonal to the inner plates is adjustable.
Method for aligning a first shaft relative to a second shaft which are connected via two universal joints (36, 37) and a third shaft, using an optoelectronic alignment device which in a first and a second measurement head (40, 41) contains at least one light source for emitting a straight-line or fanned out light beam and at least one detector which can be read out two-dimensionally for receiving the light beam, the first measurement head being mounted on the first shaft and the second measurement head being mounted on the second shaft with a respective clamping device, comprising the following steps: a) determining a plane in which the first, second and third shafts (34, 35, 38) lie and a first measurement position in the plane of the three shafts (34, 35, 38), b) emitting a straight-line or fanned out light beam from said at least one light source and measuring a point or points of impact of the light beam or beams on said least one detector with the measurement heads (40, 41) of the optoelectronic alignment device in a first measurement position, c) turning the first, second and third shafts (34, 35, 38) and the clamping devices around the first and the second shafts (34, 35) into a second measurement position which is 180° away from the first measurement position, and moving at least one of the first measurement head and second measurement head on the respective clamping device in a radial direction relative to the respective shaft (34, 35) so that at least one light beam strikes at least one detector, d) measuring a point or points of impact of the light beam or beams with the measurement heads (40, 41) of the laser alignment device in the second measurement position, and e) determining an angular offset between the first and the second shafts (34, 35) from the measured values of the points of impact. a) determining a plane in which the first, second and third shafts (34, 35, 38) lie and a first measurement position in the plane of the three shafts (34, 35, 38), b) emitting a straight-line or fanned out light beam from said at least one light source and measuring a point or points of impact of the light beam or beams on said least one detector with the measurement heads (40, 41) of the optoelectronic alignment device in a first measurement position, c) turning the first, second and third shafts (34, 35, 38) and the clamping devices around the first and the second shafts (34, 35) into a second measurement position which is 180° away from the first measurement position, and moving at least one of the first measurement head and second measurement head on the respective clamping device in a radial direction relative to the respective shaft (34, 35) so that at least one light beam strikes at least one detector, d) measuring a point or points of impact of the light beam or beams with the measurement heads (40, 41) of the laser alignment device in the second measurement position, and e) determining an angular offset between the first and the second shafts (34, 35) from the measured values of the points of impact.