mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a sialylated oligosaccharide in a bacterium comprising: providing a bacterium, said bacterium comprising an exogenous sialyl-transferase, a deficient sialic acid catabolic pathway, a sialic acid synthetic capability, and a functional lactose permease gene, wherein said deficient sialic acid catabolic pathway comprises an endogenous N-acetylneuraminate lyase gene (nanA) and an endogenous N-acetylmannosamine-6-phosphate epimerase gene (nanE), that are mutated and an endogenous N-acetylmannosamine kinase gene ( nanK) that is not mutated, and culturing said bacterium in the presence of lactose. providing a bacterium, said bacterium comprising an exogenous sialyl-transferase, a deficient sialic acid catabolic pathway, a sialic acid synthetic capability, and a functional lactose permease gene, wherein said deficient sialic acid catabolic pathway comprises an endogenous N-acetylneuraminate lyase gene (nanA) and an endogenous N-acetylmannosamine-6-phosphate epimerase gene (nanE), that are mutated and an endogenous N-acetylmannosamine kinase gene ( nanK) that is not mutated, and culturing said bacterium in the presence of lactose.
A vehicle with an exhaust emission control device having a particulate filter incorporated in an exhaust pipe for capturing particulates in exhaust gas and a selective reduction catalyst downstream of said particulate filter and capable of selectively reacting NO x with ammonia even in the presence of oxygen, urea water as reducing agent being addable between said selective reduction catalyst and said particulate filter, comprising, a communication passage arranged for guidance of the exhaust gas from an outlet end of the particulate filter to an inlet end of the selective reduction catalyst in a forward fold-back manner and urea water adding means provided midway of the communication passage for addition of urea water, characterized in that the particulate filter is arranged along a frame of a vehicle, laterally inward of the vehicle relative to the frame and in a fore-and-aft direction of the vehicle and in that the selective reduction catalyst is arranged in a vicinity of an inlet end of said particulate filter and is directed laterally outward of the vehicle, with the particulate filter and the selective reduction catalyst being arranged to form L-shape in plan view.
A process for producing triallyl isocyanurate comprising the steps of reacting allyl chloride with sodium cyanate to obtain allyl isocyanate and subjecting the thus obtained allyl isocyanate to trimerization, wherein the allyl chloride used as a raw material has a content of 1,3-dichloropropene (content of a cis-type compound, a trans-type compound or a mixture comprising the cis-type and trans-type compounds at an optional ratio) of not more than 200 ppm and is produced by subjecting an industrially used allyl chloride to rectification so that the number of theoretical plates in a distillation column used for the rectification is not less than 50 plates and the reflux ratio is not less than 5, wherein the triallyl isocyanurate contains an organic chlorine compound represented by the following chemical formula and the amount thereof is not more than 500 ppm: wherein a bond expressed by a wavy line indicates that the organic chlorine compound is a cis-type compound, a trans-type compound or a mixture comprising the cis-type and trans-type compounds at an optional ratio.
Autonomous mobile green area maintenance robot, comprising: - a first motor-driven treatment tool, - a second motor-driven treatment tool differing from the first treatment tool, and - an open protective housing with a lateral rim, - wherein the first treatment tool defines a first treatment zone and is arranged within the protective housing such that the first treatment zone is located in a safety zone of the protective housing, wherein the safety zone has a safety distance to the lateral rim, - wherein the second treatment tool defines a second treatment zone, wherein the second treatment zone is located at least partially beyond the safety zone, and - wherein the autonomous mobile green area maintenance robot has an autonomous operation mode, characterized in that - in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is smaller than a maximum kinetic energy (Ekin1) of the first motor-driven treatment tool, wherein in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is in a limit range from 5 to 25 Joules. - a first motor-driven treatment tool, - a second motor-driven treatment tool differing from the first treatment tool, and - an open protective housing with a lateral rim, - wherein the first treatment tool defines a first treatment zone and is arranged within the protective housing such that the first treatment zone is located in a safety zone of the protective housing, wherein the safety zone has a safety distance to the lateral rim, - wherein the second treatment tool defines a second treatment zone, wherein the second treatment zone is located at least partially beyond the safety zone, and - wherein the autonomous mobile green area maintenance robot has an autonomous operation mode, characterized in that - in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is smaller than a maximum kinetic energy (Ekin1) of the first motor-driven treatment tool, wherein in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is in a limit range from 5 to 25 Joules.
An agricultural plough comprising: a reversible frame that is transferrable between a first configuration and a second configuration; a first ground engaging tool that is connected to the frame such that the first ground engaging tool is in an active position when the frame is in its first configuration; a second ground engaging tool that is connected to the frame such that the second ground engaging tool is in an active position when the frame is in its second configuration; an actuator mechanism that is configured to control reversal of the frame between its first configuration and second configuration; and a controller that is configured to: receive end-stop-position-data that is representative of a desired roll-angle of the frame in its first and/or second configuration; determine an actuator-control-signal for the actuator mechanism based on the end-stop-position-data, wherein the actuator-control-signal is for setting the desired roll-angle of the frame in its first and/or second configuration; provide the actuator-control-signal to the actuator mechanism during reversal of the frame between its first and second configurations. a reversible frame that is transferrable between a first configuration and a second configuration; a first ground engaging tool that is connected to the frame such that the first ground engaging tool is in an active position when the frame is in its first configuration; a second ground engaging tool that is connected to the frame such that the second ground engaging tool is in an active position when the frame is in its second configuration; an actuator mechanism that is configured to control reversal of the frame between its first configuration and second configuration; and a controller that is configured to: receive end-stop-position-data that is representative of a desired roll-angle of the frame in its first and/or second configuration; determine an actuator-control-signal for the actuator mechanism based on the end-stop-position-data, wherein the actuator-control-signal is for setting the desired roll-angle of the frame in its first and/or second configuration; provide the actuator-control-signal to the actuator mechanism during reversal of the frame between its first and second configurations. receive end-stop-position-data that is representative of a desired roll-angle of the frame in its first and/or second configuration; determine an actuator-control-signal for the actuator mechanism based on the end-stop-position-data, wherein the actuator-control-signal is for setting the desired roll-angle of the frame in its first and/or second configuration; provide the actuator-control-signal to the actuator mechanism during reversal of the frame between its first and second configurations.
An apparatus for providing a processed audio signal representation on the basis of input audio signal representation, wherein the apparatus is configured to apply an un-windowing, in order to provide the processed audio signal representation on the basis of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on one or more signal characteristics (140, 140 1 to 140 4) and/or in dependence on one or more processing parameters (150, 150 1 to 150 4) used for a provision of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on a DC component of the input audio signal representation, wherein the un-windowing at least partially reverses an analysis windowing used for a provision of the input audio signal representation. wherein the apparatus is configured to apply an un-windowing, in order to provide the processed audio signal representation on the basis of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on one or more signal characteristics (140, 140 1 to 140 4) and/or in dependence on one or more processing parameters (150, 150 1 to 150 4) used for a provision of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on a DC component of the input audio signal representation, wherein the un-windowing at least partially reverses an analysis windowing used for a provision of the input audio signal representation.
A sensor device, comprising: a sensor element whose electric characteristics vary according to a physical quantity; a signal processing circuit for processing an output signal of the sensor element; a first transistor element for supplying currents to the sensor element and the signal processing circuit; a control circuit for controlling a base current of the first transistor element; a power supply terminal; and a ground terminal, wherein the control circuit includes a second transistor element for sending a current toward the ground terminal and a restriction part for restricting a current flowing from the ground terminal toward a base terminal of the first transistor element; wherein the first transistor element includes a first N-type well, the signal processing circuit includes a second N-type well, the sensor device includes a P-type substrate or a P-type well, and an isolation region is provided between the first N-type well and the second N-type well so that a current gain α of a parasitic bipolar transistor comprised of the first N-type well, the second N-type well, and either of the P-type substrate or the P-type well becomes less than or equal to 0.5, wherein a length of isolation region W is determined by a formula 1 wherein the formula 1 is α = 1 / cosh W / LN / 1 + σ B / σE * W / LP, wherein σB and σE are conduction ratios of a base and an emitter of the parasitic bipolar transistor, respectively, and LN and LP are diffusion lengths of minority carriers in the base and the emitter, respectively. a sensor element whose electric characteristics vary according to a physical quantity; a signal processing circuit for processing an output signal of the sensor element; a first transistor element for supplying currents to the sensor element and the signal processing circuit; a control circuit for controlling a base current of the first transistor element; a power supply terminal; and a ground terminal, wherein the control circuit includes a second transistor element for sending a current toward the ground terminal and a restriction part for restricting a current flowing from the ground terminal toward a base terminal of the first transistor element; wherein the first transistor element includes a first N-type well, the signal processing circuit includes a second N-type well, the sensor device includes a P-type substrate or a P-type well, and an isolation region is provided between the first N-type well and the second N-type well so that a current gain α of a parasitic bipolar transistor comprised of the first N-type well, the second N-type well, and either of the P-type substrate or the P-type well becomes less than or equal to 0.5, wherein a length of isolation region W is determined by a formula 1 wherein the formula 1 is α = 1 / cosh W / LN / 1 + σ B / σE * W / LP, wherein σB and σE are conduction ratios of a base and an emitter of the parasitic bipolar transistor, respectively, and LN and LP are diffusion lengths of minority carriers in the base and the emitter, respectively.
A method for making a cell culture composition, the method comprising inoculating a cell culture with stem cell aggregates and expanding the inoculated aggregates in non-static cell culture conditions so that expansion produces a cell density of 5x10 4 cells/ml to 10 8 cell/ml, wherein the aggregate of cells comprises cells that are not embryonic stem cells, embryonic germ cells, or germ cells and can differentiate into cell types of at least two of the endodermal, ectodermal and mesodermal embryonic lineages.
Assembly for positioning large-format boards on a top surface, the assembly comprises means for fixing-and-separating for positioning a board on top surface and setting the gap between an adjacent board, and additionally comprises retaining wedge that is mounted to the means for fixing and separating enabling adjacent boards to be evenly placed on the top surface at such a distance in relation to each other determined by the thickness of the means for fixing-and-separating, wherein the means for fixing-and-separating comprise a base formed as resilient foot, which is adapted to be placed under the adjacent boards wherein a grip extends from the base at an angle of 90° whose thickness is adapted to the intended gap between the adjacent boards, wherein within the grip a narrowing (Pr) is formed close to the base, wherein the means for fixing-and-separating and the retaining wedge are mutually shaped so that the retaining wedge is adapted to hitch a catch that is formed on the means for fixing-and-separating so that the retaining wedge presses the adjacent boards to the base after adjacent board have been placed on the top surface and wherein the catch for the retaining wedge is formed on the grip in the opposite direction with regard to the base, wherein the retaining wedge is shaped making adapted to hitch the catch in such a way that, after engaging the catch, the retaining wedge presses the adjacent boards to the base surface, characterized in that on the grip a pressing clip is formed, wherein the shape of the clip is adapted so as to stably press the upper surface of the board that is fixed to the top surface.
Cosmetic use of a composition comprising a peptide hydrolysate obtained from the hydrolysis of yeasts of the Saccharomyces genus, and more particularly the species Saccharomyces cerevisiae, and enriched with bioactive peptides having a molecular weight less than 6 kDa, comprising 3 to 5 amino acids, each bioactive peptide comprising at least one aspartic acid residue, one cysteine residue and one arginine residue and a cosmetically acceptable medium, for increasing the proteasome activity and enhancing the degradation by proteasome of damaged proteins involved in melanogenesis.
A dentifrice composition comprising the following components,, and: from 0.002 to 5% by mass of a fluoride ion supplying compound in terms of fluorine, from 25 to 65% by mass of a sugar alcohol, which is soluble in an amount of 5 to 30 g in 100 g of an aqueous solution at 20°C, from 10 to 25% by mass of water, and from 0.1 to 1.2% by mass of a binder, wherein the mass ratio of the component to the component, the mass ratio (B/C), is more than 1 and up to 3 or less and the viscosity (20°C) of the composition is 500 to 10000 dPa·s, the viscosity being measured with a B-type viscometer. from 0.002 to 5% by mass of a fluoride ion supplying compound in terms of fluorine, from 25 to 65% by mass of a sugar alcohol, which is soluble in an amount of 5 to 30 g in 100 g of an aqueous solution at 20°C, from 10 to 25% by mass of water, and from 0.1 to 1.2% by mass of a binder,
An intraocular lens injection instrument for injecting an intraocular lens into an eye, the intraocular lens comprising an optical part of a disk-like shape and a first support part extending outwardly from an outer circumferential part of the optical part, wherein the intraocular lens injection instrument comprises: a passage having a passage area gradually decreasing toward a tip end of the intraocular lens injection instrument; inner wall surfaces formed on both sides in a direction orthogonal to an axial direction of the passage, the direction being parallel to a radial direction of the optical part when the intraocular lens is placed in the passage; a ceiling surface and a bottom surface formed, respectively, on each of both sides in a direction orthogonal to the axial direction of the passage, the direction being parallel to an axial direction of the optical part when the intraocular lens is placed in the passage, a push member configured to push out the intraocular lens, the push member including a contact portion to be placed in contact with the intraocular lens; and a lens control mechanism to control an orientation of the intraocular lens in a circumferential direction of the optical part, characterized in that the intraocular lens injection instrument further comprises protrusions (32, 34) protruding from the ceiling surface toward the bottom surface and constituting wall surfaces of a guide portion provided on the ceiling surface to guide a push-out direction (Lp) of the push member, and the lens control mechanism is formed on an end side of the protrusion close to the tip end to protrude toward an inside of the guide portion, the lens control mechanism protrudes from the ceiling surface toward the bottom surface in the passage, the lens control mechanism being configured to direct movement of the contact portion of the push member toward one of the inner wall surfaces when or after the intraocular lens with the first support part positioned ahead of the optical part toward the tip end in the passage is pushed toward the tip end by the push member and then the first support part is folded so that a distal end portion of the first support part is disposed more inward than the outer circumferential part of the optical part. a passage having a passage area gradually decreasing toward a tip end of the intraocular lens injection instrument; inner wall surfaces formed on both sides in a direction orthogonal to an axial direction of the passage, the direction being parallel to a radial direction of the optical part when the intraocular lens is placed in the passage; a ceiling surface and a bottom surface formed, respectively, on each of both sides in a direction orthogonal to the axial direction of the passage, the direction being parallel to an axial direction of the optical part when the intraocular lens is placed in the passage, a push member configured to push out the intraocular lens, the push member including a contact portion to be placed in contact with the intraocular lens; and a lens control mechanism to control an orientation of the intraocular lens in a circumferential direction of the optical part, characterized in that
A bearing assembly comprising: a split inner race ring having first and second components (125, 130) configured to be installed and connected together on a shaft, each component (125, 130) of the split inner race ring defining two raceways (135, 140) for supporting rolling elements (150, 155) in a two-row orientation, and a central rib between the two raceways (135, 140); wherein the first and second components (125, 130) of the split inner race ring mate at a split line (390, 395), and wherein the central rib includes a rib face along which the rolling elements slide; a first split outer race ring (195, 200) having first and second components configured to be installed around the shaft, each component of the first split outer race ring (195, 200) defining a raceway for supporting a first row of the two rows of rolling elements; a second split outer race ring (210, 215) having first and second components configured to be installed around the shaft, each component of the second split outer race ring (210, 215) defining a raceway for supporting a second row of the two rows of rolling elements; and characterised in that at the split line (390, 395), the rib face has a relief formed at an outer diameter portion of the rib face that is larger than any relief formed at an inner diameter portion of the rib face. a split inner race ring having first and second components (125, 130) configured to be installed and connected together on a shaft, each component (125, 130) of the split inner race ring defining two raceways (135, 140) for supporting rolling elements (150, 155) in a two-row orientation, and a central rib between the two raceways (135, 140); wherein the first and second components (125, 130) of the split inner race ring mate at a split line (390, 395), and wherein the central rib includes a rib face along which the rolling elements slide; a first split outer race ring (195, 200) having first and second components configured to be installed around the shaft, each component of the first split outer race ring (195, 200) defining a raceway for supporting a first row of the two rows of rolling elements; a second split outer race ring (210, 215) having first and second components configured to be installed around the shaft, each component of the second split outer race ring (210, 215) defining a raceway for supporting a second row of the two rows of rolling elements; and characterised in that at the split line (390, 395), the rib face has a relief formed at an outer diameter portion of the rib face that is larger than any relief formed at an inner diameter portion of the rib face.