mhurhangee/ep-ind-claims huggingface dataset:
A thermally conductive resin composition containing: an addition reaction type silicone resin; a thermally conductive filler; an alkoxysilane compound; and a carbodiimide compound the subcomponent of which is inactive to the alkoxysilane compound, wherein the thermally conductive resin composition contains 55 to 85% by volume of the thermally conductive filler. an addition reaction type silicone resin; a thermally conductive filler; an alkoxysilane compound; and a carbodiimide compound the subcomponent of which is inactive to the alkoxysilane compound, wherein the thermally conductive resin composition contains 55 to 85% by volume of the thermally conductive filler.
A non-transitory memory, storing a digital signature of a print cartridge where said digital signature indicates that an identifier and setting data are from a trusted source, characterized in that the setting data indicates how a printer should operate with the print cartridge, and said setting data includes a hash that represents information stored outside of said digital signature and in said non-transitory memory. a digital signature of a print cartridge where said digital signature indicates that an identifier and setting data are from a trusted source, characterized in that the setting data indicates how a printer should operate with the print cartridge, and said setting data includes a hash that represents information stored outside of said digital signature and in said non-transitory memory.
Yarn tensioning system for keeping at least one yarn which is taken from a yarn storage system in a first direction to a yarn take-off system of a weaving machine under tension, comprising a brake roller which is rotatably arranged in the yarn tensioning system and around which the yarn is at least partially wound in order to keep this yarn under tension between the brake roller and the yarn take-off system, wherein the yarn tensioning system comprises a motor for supplying a torque to the brake roller, in which this motor is actuable in generator operation to keep the yarn under tension and wherein the motor is actuable in motor operation to recuperate the yarn between the brake roller and the yarn take-off system in a second direction which is opposite to the first direction characterized in that the yarn tensioning system comprises time monitoring means to keep track of the time during which the motor operates in motor operation to recuperate the yarn and to compare this monitored time with a certain reference value.
A method for performing switchover in a redundant computer cluster, comprising at least a first computer unit, a second computer unit and a shared storage unit, wherein said first computer unit and said second computer unit interface said shared storage unit, characterized in that in said first computer unit are executed at least two service units and in said second computer unit are controlled replicas of said at least two service units, said service units comprising at least one software component; a first service unit among said at least two service units accesses at least one data storage resource comprised within said shared storage unit; when a switchover condition is detected associated with said first service unit executed in said first computer unit, access is released to said at least one data storage resource by said first computer unit; access is established to said at least one data storage resource by said second computer unit; and a replica of said first service unit is allowed to become active in said second computer unit.
A method of encoding a sequence of images into a bitstream using inter prediction, the method comprising: determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; encoding into the bitstream information about the target number for the slice; and performing, for each of one or more of the plurality of blocks in the slice encoded by an inter prediction mode, the steps of: generating a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, wherein the index information is encoded using a prefix type code comprising the bit '1' i times followed by a zero, where i indicates a value of an index of the selected motion information predictor, so that a number of bits in a longest code for the index information depends on the target number. determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; generating a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor,
Permanent-magnet electric machine, having: a stator, which has slots arranged next to one another along a circumference of the stator and spaced apart from one another in each case by a tooth of the stator, in which slots a stator winding is respectively arranged; and a rotor mounted rotatably about an axis of rotation in relation to the stator and arranged concentrically with respect to the stator, wherein, for each pole of the electric machine, the rotor has in each case a first magnet pocket with at least one first magnet element arranged therein and a second magnet pocket with at least one second magnet element arranged therein, wherein the first magnet pocket and the second magnet pocket each have a magnet pocket height, characterized in that a ratio of the magnet pocket height to a common pole arc of the first magnet pocket and the second magnet pocket is between 0.03 mm/°el. and 0.041 mm/°el, wherein the common pole arc refers to an angle between a first tangent, lying against a first outer edge of the first magnet pocket, and a second tangent, lying against a second outer edge of the second magnet pocket. a stator, which has slots arranged next to one another along a circumference of the stator and spaced apart from one another in each case by a tooth of the stator, in which slots a stator winding is respectively arranged; and a rotor mounted rotatably about an axis of rotation in relation to the stator and arranged concentrically with respect to the stator, wherein, for each pole of the electric machine, the rotor has in each case a first magnet pocket with at least one first magnet element arranged therein and a second magnet pocket with at least one second magnet element arranged therein, wherein the first magnet pocket and the second magnet pocket each have a magnet pocket height, characterized in that a ratio of the magnet pocket height to a common pole arc of the first magnet pocket and the second magnet pocket is between 0.03 mm/°el. and 0.041 mm/°el, wherein the common pole arc refers to an angle between a first tangent, lying against a first outer edge of the first magnet pocket, and a second tangent, lying against a second outer edge of the second magnet pocket.
A wearable device including a wireless charging device, comprising: a housing of the wearable device; a first strap and a second strap connected to the housing; a first buckle and a second buckle provided on the first strap and the second strap; a first reception resonator and a second reception resonator configured to wirelessly receive power transmitted from the outside; and a wireless power reception circuit configured to be electrically connected to the first reception resonator and the second reception resonator, wherein the wireless power reception circuit is mounted in the housing; the first reception resonator is mounted in the first strap, and the second reception resonator is mounted in the second strap. a housing of the wearable device; a first strap and a second strap connected to the housing; a first buckle and a second buckle provided on the first strap and the second strap; a first reception resonator and a second reception resonator configured to wirelessly receive power transmitted from the outside; and a wireless power reception circuit configured to be electrically connected to the first reception resonator and the second reception resonator, wherein the wireless power reception circuit is mounted in the housing; the first reception resonator is mounted in the first strap, and the second reception resonator is mounted in the second strap.
A method of generating genetically modified cells, wherein the genetically modified cells are selected from T cell receptor T cells (T-TCR), chimeric antigen receptor T cells (T-CAR) and cytokine induced killer cells expressing one or more T cell receptors (CIK-TCR) or chimeric antigen receptors (CIK-CAR), the method comprising: (a) non-viral transfer of one or more exogenous nucleic acids encoding antigen receptors, T cell receptors, chimeric antigen receptors, suicide genes or genes encoding an inducible Caspase 9 system, or combinations thereof into a population of mononuclear cells in a cell culture; (b) addition of one or more differentiating agents to the cell culture after the transfer of nucleic acids, wherein the differentiating agents differentiate the mononuclear cells in the cell culture into T cells and/or cytokine induced killer cells; (c) addition of antigen presenting cells to the cell culture within 5 days after the transfer of nucleic acids; (d) addition of one or more stimulating agents to the cell culture within 5 days after the transfer of nucleic acids; optionally step (e), addition of one or more stimulating and expanding agents to the cell culture after the transfer of nucleic acids; and optionally step (f) isolating the cells from the cell culture to obtain a cell population comprising the modified cells; wherein: - said stimulating agent is selected from: CD3+ cells; anti-CD3 antibodies; OKT3; anti-CD28 antibodies; anti-TCR antibodies; CD3/CD28; PHA, PMA and ionomycin; anti-TCR-loaded artificial antigen presenting cells; irradiated OKT3-loaded K562-derived artificial antigen presenting cells; - said differentiating agents comprise cytokines, IFN-γ, IL-4, IFN-α, IL-10, IL-12, IL-6, IL-21, IL-23, IL-Iβ, TGF-β or combinations thereof; - said stimulating and expanding agents comprise cytokines, IL-2, IL-7, IL15, IL-21 or combinations thereof. (a) non-viral transfer of one or more exogenous nucleic acids encoding antigen receptors, T cell receptors, chimeric antigen receptors, suicide genes or genes encoding an inducible Caspase 9 system, or combinations thereof into a population of mononuclear cells in a cell culture; (b) addition of one or more differentiating agents to the cell culture after the transfer of nucleic acids, wherein the differentiating agents differentiate the mononuclear cells in the cell culture into T cells and/or cytokine induced killer cells; (c) addition of antigen presenting cells to the cell culture within 5 days after the transfer of nucleic acids; (d) addition of one or more stimulating agents to the cell culture within 5 days after the transfer of nucleic acids; - said stimulating agent is selected from: CD3+ cells; anti-CD3 antibodies; OKT3; anti-CD28 antibodies; anti-TCR antibodies; CD3/CD28; PHA, PMA and ionomycin; anti-TCR-loaded artificial antigen presenting cells; irradiated OKT3-loaded K562-derived artificial antigen presenting cells; - said differentiating agents comprise cytokines, IFN-γ, IL-4, IFN-α, IL-10, IL-12, IL-6, IL-21, IL-23, IL-Iβ, TGF-β or combinations thereof; - said stimulating and expanding agents comprise cytokines, IL-2, IL-7, IL15, IL-21 or combinations thereof.
An autonomous cleaning apparatus, comprising: a chassis; a drive system disposed on the chassis and operable to enable movement of the cleaning apparatus; a controller in communication with the drive system, the controller including a processor operable to control the drive system to steer movement of the cleaning apparatus; and a cleaning system disposed on the chassis; a debris sensor (125; 125L; 125R; 125PS) for generating a debris signal; wherein the processor causes the cleaning apparatus to enter into a spot cleaning mode when a debris signal is generated, and characterized in that the spot cleaning mode consists in maneuvering the autonomous cleaning apparatus according to a spiraling algorithm in a self-bounded area which consists in an outward spiraling movement of the autonomous cleaning apparatus. a chassis; a drive system disposed on the chassis and operable to enable movement of the cleaning apparatus; a controller in communication with the drive system, the controller including a processor operable to control the drive system to steer movement of the cleaning apparatus; and a cleaning system disposed on the chassis; a debris sensor (125; 125L; 125R; 125PS) for generating a debris signal; wherein the processor causes the cleaning apparatus to enter into a spot cleaning mode when a debris signal is generated, and characterized in that the spot cleaning mode consists in maneuvering the autonomous cleaning apparatus according to a spiraling algorithm in a self-bounded area which consists in an outward spiraling movement of the autonomous cleaning apparatus.
Water treatment device comprising a water-softening means having a softening container containing a regenerable water softening agent, the softening container being provided with an inlet line for hard water and an outlet line for soft water, and a regeneration means for the water softening agent being provided with a regenerating agent line and a regenerating agent container, a valve means further being provided in such a way that, during a regeneration process for regenerating the water softening agent, regenerating agent passes into the softening container, the water treatment device comprising a water line for water, the water being able to flow through the water line in a flow direction, as well as a metering means for a water treatment agent, the metering means comprising a metered agent container and a feed line, the feed line being connected to the water line in such a way that water treatment agent can be outputted from the metered agent container into the water line, characterised in that a mixing means having a movable mixing element is arranged in the water line so as to mix the water with the water treatment agent, the feed line of the metering means opening into the water line upstream from the mixing means in the flow direction, a connection unit being provided which comprises a first pipeline for hard water, connected to the softening container via a first terminal of the connection unit, and a second pipeline for soft water, connected to the softening container via a second terminal of the connection unit, and the connection unit comprising a third terminal, to which the feed line of the metering means is connected, the third terminal being connected to the second pipeline, the connection unit having the mixing means in the second pipeline, the connection unit having a body which forms the first and second pipeline (39, 40) and the first, second and third terminal (41, 42, 43).
A method for controlling thermoacoustic instabilities in a combustor having a plurality of circumferentially positioned chamber sections (38A...38F), the method comprising: controlling fuel-to-air ratios in fuel flows and air flows supplied to each of the chamber sections (38A...38F) having among them a sequence of chamber sections successively positioned in the combustor with an end chamber section at each end of the sequence, charaterized in that the end chamber sections having fuel-to-air ratios that are larger than the fuel-to-air ratios of two further chamber sections, wherein each of the two further chamber sections are supplied with fuel and air and are positioned in the combustor adjacent to a corresponding one of the two opposite end chamber sections in the sequence of successive positioned chamber sections; and wherein the two further chamber sections have at least one additional chamber section from the plurality of chamber sections positioned between them in the combustor, the additional chamber section having a fuel to air ratio that is larger than the fuel-to-air ratio of the two further chamber sections. controlling fuel-to-air ratios in fuel flows and air flows supplied to each of the chamber sections (38A...38F) having among them a sequence of chamber sections successively positioned in the combustor with an end chamber section at each end of the sequence, charaterized in that the end chamber sections having fuel-to-air ratios that are larger than the fuel-to-air ratios of two further chamber sections, wherein each of the two further chamber sections are supplied with fuel and air and are positioned in the combustor adjacent to a corresponding one of the two opposite end chamber sections in the sequence of successive positioned chamber sections; and wherein the two further chamber sections have at least one additional chamber section from the plurality of chamber sections positioned between them in the combustor, the additional chamber section having a fuel to air ratio that is larger than the fuel-to-air ratio of the two further chamber sections.
Device for putting a product under vacuum in a packaging, said device comprising a vacuum bell configured to receive said packaging, or the components of said packaging, containing said product, said vacuum bell being connected to a vacuum pump capable of creating the vacuum in said vacuum bell and in said packaging, said device being characterized in that between said vacuum bell and said vacuum pump is interposed at least one membrane module including a gas-separating membrane separating a retentate side, connected to said vacuum bell, from a permeate side connected to said vacuum pump.
A variable valve device comprising: a drive shaft member rotating synchronously with a crankshaft provided in an internal combustion engine; a cam shaft member including a cam lobe and rotatably provided about the drive shaft member; a drive arm portion provided on the drive shaft member and rotating together with the drive shaft member; and a control sleeve provided with an eccentric hole into which the drive shaft member is inserted, and arranged to vary a position of a central axis of the eccentric hole; characterized by a first rotary member including a first member connected to the drive arm portion and a second member connected to the cam shaft member, and rotating along an inner circumferential wall surface (8a1) of the eccentric hole, wherein the first rotary member rotates in a state where the first member and the second member are secured to each other, a relative position between the first member and the second member about a central axis line of the drive shaft member is variable. a drive shaft member rotating synchronously with a crankshaft provided in an internal combustion engine; a cam shaft member including a cam lobe and rotatably provided about the drive shaft member; a drive arm portion provided on the drive shaft member and rotating together with the drive shaft member; and a control sleeve provided with an eccentric hole into which the drive shaft member is inserted, and arranged to vary a position of a central axis of the eccentric hole; characterized by a first rotary member including a first member connected to the drive arm portion and a second member connected to the cam shaft member, and rotating along an inner circumferential wall surface (8a1) of the eccentric hole, wherein the first rotary member rotates in a state where the first member and the second member are secured to each other, a relative position between the first member and the second member about a central axis line of the drive shaft member is variable.
A lock for an all-glass door, with a lock housing, in which a knob follower is accommodated to be rotatably about an actuating axis, and wherein a spring element is provided, by means of which the knob follower in the rotating position about the actuating axis, may be brought back into a zero position, and wherein an adjusting unit is provided, by means of which the spring pretension in the spring element is adjustable, and the adjusting unit includes a screw element, which is connected to the spring element, such that, upon rotation of the screw element about an axis of rotation, the spring pretension in the spring element is adjustable, wherein the knob follower includes a lever arm, wherein the lever arm is configured for abutment against an abutment element, wherein the abutment element is in particular adjustable for setting the zero position of a door knob, which may be accommodated in the knob follower, wherein an impact element, against which the abutment element abuts, is fitted into the lever arm.
A composition comprising a compound represented by the following formula, wherein R 1 is a hydrogen atom, a C 1-6 -alkyl group, a C 1-6 -alkoxy group, a C 2-6 -alkenyloxy group, a halogen atom, a C 1-6 -haloalkyl group, a C 1-6 -haloalkoxy group, or a substituted or unsubstituted phenyl group; and R 2 is a hydrogen atom, a C 1-6 -alkyl group, a C 1-6 -alkoxy group, a C 2-6 -alkenyloxy group, a halogen atom, a C 1-6 -haloalkyl group, a C 1-6 -haloalkoxy group, or a substituted or unsubstituted phenyl group; or a salt thereof, or a solvate thereof, for use as an antipruritic agent. wherein R 1 is a hydrogen atom, a C 1-6 -alkyl group, a C 1-6 -alkoxy group, a C 2-6 -alkenyloxy group, a halogen atom, a C 1-6 -haloalkyl group, a C 1-6 -haloalkoxy group, or a substituted or unsubstituted phenyl group; and R 2 is a hydrogen atom, a C 1-6 -alkyl group, a C 1-6 -alkoxy group, a C 2-6 -alkenyloxy group, a halogen atom, a C 1-6 -haloalkyl group, a C 1-6 -haloalkoxy group, or a substituted or unsubstituted phenyl group; or a salt thereof, or a solvate thereof, for use as an antipruritic agent.
Method for the pasteurization of fine-cut tobacco, in particular laminar tobacco with a cut width of 0.5mm to 0.9mm, comprising the steps of: arranging the tobacco in a closed package, and heating the tobacco in the package such that the tobacco is pasteurized. arranging the tobacco in a closed package, and heating the tobacco in the package such that the tobacco is pasteurized.