mhurhangee/ep-ind-claims huggingface dataset:
A magnetic field formation device comprising: a plurality of power-supplying coils (111, 112, 113) each of which having a first current path on one coil end side and a second current path on the other coil end side and adapted to generate a variable magnetic field by receiving a variable current via the first current path and the second current path; for each of the power-supplying coils a resonance capacitor which is provided on at least one of the first current path and the second current path of the respective power-supplying coil; and a power-supplying coil short-circuit mechanism which is configured to cause at least one of the power-supplying coils (111, 112, 113) to function as a power supplying resonator by short-circuiting end portions (141a, 142a) of the respective first current path and the second current path; wherein the power-supplying coil short-circuit mechanism is arranged to stop supply of the variable current to a power-supplying coil (111, 112, 113) at the same time as that coil is short-circuited; characterized by an output target switching mechanism which is configured to output a variable current to one of predetermined output targets which are at least one of and not all of the power-supplying coils (111, 112, 113) and is configured to repeatedly switch between said output targets which the variable current is output. a plurality of power-supplying coils (111, 112, 113) each of which having a first current path on one coil end side and a second current path on the other coil end side and adapted to generate a variable magnetic field by receiving a variable current via the first current path and the second current path; for each of the power-supplying coils a resonance capacitor which is provided on at least one of the first current path and the second current path of the respective power-supplying coil; and a power-supplying coil short-circuit mechanism which is configured to cause at least one of the power-supplying coils (111, 112, 113) to function as a power supplying resonator by short-circuiting end portions (141a, 142a) of the respective first current path and the second current path; wherein the power-supplying coil short-circuit mechanism is arranged to stop supply of the variable current to a power-supplying coil (111, 112, 113) at the same time as that coil is short-circuited; characterized by an output target switching mechanism which is configured to output a variable current to one of predetermined output targets which are at least one of and not all of the power-supplying coils (111, 112, 113) and is configured to repeatedly switch between said output targets which the variable current is output.
A transportable cold storage container (1, 1A), comprising: a container portion (10, 10A) that defines an interior in which an article is accommodated, a door portion that closes an opening of the container portion (10, 10A), a plurality of Peltier elements (51, 52) that cools the interior, an interior fan that stirs air in the interior, an outer fan for cooling the Peltier elements (51, 52), and a control unit that controls the Peltier elements (51, 52); the transportable cold storage container (1, 1A) capable of being driven by a battery (61, 62) being attachable/detachable; wherein the Peltier elements (51, 52) are driven by a first power supply unit, the interior fan and the outer fan are driven by a second power supply unit (81, 82), and the first power supply unit and the second power supply unit (81, 82) are controlled independently of each other, wherein an output voltage of the first power supply unit or a voltage applied to the Peltier elements is configured to be changeable. a container portion (10, 10A) that defines an interior in which an article is accommodated, a door portion that closes an opening of the container portion (10, 10A), a plurality of Peltier elements (51, 52) that cools the interior, an interior fan that stirs air in the interior, an outer fan for cooling the Peltier elements (51, 52), and a control unit that controls the Peltier elements (51, 52); the transportable cold storage container (1, 1A) capable of being driven by a battery (61, 62) being attachable/detachable; wherein the Peltier elements (51, 52) are driven by a first power supply unit, the interior fan and the outer fan are driven by a second power supply unit (81, 82), and the first power supply unit and the second power supply unit (81, 82) are controlled independently of each other, wherein an output voltage of the first power supply unit or a voltage applied to the Peltier elements is configured to be changeable.
A sensor calibration method for a vehicle, the vehicle comprising: a vehicle body; an acceleration sensor capable of detecting three-axis acceleration; and a gyro sensor, a geometrical posture of the gyro sensor with respect to the acceleration sensor being known, the sensor calibration method comprising: calculating a mounting angle error of the acceleration sensor with respect to the vehicle body based on an output value of the acceleration sensor obtained when the vehicle is brought into a stationary state in a state where a reference yaw axis of the vehicle is made coincident with a vertical direction; an output value of the acceleration sensor obtained when the vehicle is inclined at an arbitrary angle in a roll direction from the state where the reference yaw axis of the vehicle is made coincident with the vertical direction and the vehicle is then brought into the stationary state; and an output value of the acceleration sensor obtained when the vehicle is inclined at an arbitrary angle in a pitch direction from the state where the reference yaw axis of the vehicle is made coincident with the vertical direction and the vehicle is then brought into the stationary state; and correcting an output value of the gyro sensor by using the mounting angle error of the acceleration sensor with respect to the vehicle body as a mounting angle error of the gyro sensor with respect to the vehicle body. calculating a mounting angle error of the acceleration sensor with respect to the vehicle body based on an output value of the acceleration sensor obtained when the vehicle is brought into a stationary state in a state where a reference yaw axis of the vehicle is made coincident with a vertical direction; an output value of the acceleration sensor obtained when the vehicle is inclined at an arbitrary angle in a roll direction from the state where the reference yaw axis of the vehicle is made coincident with the vertical direction and the vehicle is then brought into the stationary state; and an output value of the acceleration sensor obtained when the vehicle is inclined at an arbitrary angle in a pitch direction from the state where the reference yaw axis of the vehicle is made coincident with the vertical direction and the vehicle is then brought into the stationary state; and correcting an output value of the gyro sensor by using the mounting angle error of the acceleration sensor with respect to the vehicle body as a mounting angle error of the gyro sensor with respect to the vehicle body.
A coke manufacturing method comprising: preparing blended coal by blending coal of at least two types; stirring and mixing the blended coal to disintegrate at least a part of pseudo-particles in the blended coal that have been formed by agglomeration of coal particles; and charging the blended coal after stirring and mixing into a coke oven and carbonizing the blended coal to manufacture coke, wherein the stirring and mixing comprises stirring and mixing the blended coal using a mixing device having stirring and mixing performance with which an attainment level calculated from the following equation becomes not less than 0.6 after sixty seconds has passed from start of a stirring and mixing operation: Attainment Level = V max − V t / V max − V st where the attainment level is a value calculated from brightness of mixture formed by putting 95% by mass of calcium carbonate having an average particle diameter of 2.66 μm and 5% by mass of iron oxide having an average particle diameter of 0.47 μm into the mixing device and performing the stirring and mixing operation, t indicates an elapsed time from the start of the stirring and mixing operation, V max indicates brightness of calcium carbonate, V st indicates brightness of the mixture in which calcium carbonate and iron oxide are totally mixed, and V(t) indicates brightness of the mixture at time t in the equation, or wherein the stirring and mixing comprises stirring and mixing the blended coal using a mixing device that requires power per unit mixing volume of not less than 1.0 × 10 4 W/m 3. preparing blended coal by blending coal of at least two types; stirring and mixing the blended coal to disintegrate at least a part of pseudo-particles in the blended coal that have been formed by agglomeration of coal particles; and charging the blended coal after stirring and mixing into a coke oven and carbonizing the blended coal to manufacture coke, wherein the stirring and mixing comprises stirring and mixing the blended coal using a mixing device having stirring and mixing performance with which an attainment level calculated from the following equation becomes not less than 0.6 after sixty seconds has passed from start of a stirring and mixing operation: Attainment Level = V max − V t / V max − V st where the attainment level is a value calculated from brightness of mixture formed by putting 95% by mass of calcium carbonate having an average particle diameter of 2.66 μm and 5% by mass of iron oxide having an average particle diameter of 0.47 μm into the mixing device and performing the stirring and mixing operation, t indicates an elapsed time from the start of the stirring and mixing operation, V max indicates brightness of calcium carbonate, V st indicates brightness of the mixture in which calcium carbonate and iron oxide are totally mixed, and V(t) indicates brightness of the mixture at time t in the equation, or wherein the stirring and mixing comprises stirring and mixing the blended coal using a mixing device that requires power per unit mixing volume of not less than 1.0 × 10 4 W/m 3.
A method for mounting a rotor to a drive shaft of a wind turbine, the method comprising placing a hub on a surface, attaching a first, a second, and a third rotor blade to the hub to thereby make a rotor in situ, wrapping a sling (8, 9, 10) about each of the blades, attaching each sling to a fitting, lifting each fitting to thereby raise the rotor from the surface, and attaching the rotor to the drive shaft while the position and orientation of the rotor is controlled by the slings, where the orientation of the rotor is controlled by changing the distance from the fitting to one of the rotor blades which thereby becomes a controlled rotor blade.
An aircraft radio system comprising a plurality of radios, each radio having a transceiver and a dedicated processor platform for carrying out digital signal processing for that transceiver, the processors of each platform being interconnected to one another though a digital communications network such that the dedicated processor platforms constitute a virtual processing environment in which processing of tasks relevant to the whole system is distributed across the processors.
A BTK inhibitor for use in a method of treating a human patient with non-GCB diffuse large B-cell lymphoma, wherein the patient is characterized by a CD79B mutation, and wherein the BTK inhibitor is Compound 1:
A stoker type incinerator for combusting objects to be incinerated, comprising: a drying stage, a combustion stage and a post-combustion stage, each of the stages having a plurality of fixed fire grates and a plurality of movable fire grates, and in which the objects to be incinerated supplied from a feeder are subjected to drying, combustion and post-combustion while sequentially conveying the objects to be incinerated through the drying stage, the combustion stage and the post-combustion stage, wherein the drying stage is disposed to be inclined so that a downstream side in a conveying direction is directed downward, the combustion stage is connected to the drying stage and disposed to be inclined so that the downstream side end thereof in the conveying direction is directed upward, and the post-combustion stage is connected to the combustion stage and disposed to be inclined so that the downstream side end thereof in the conveying direction is directed upward. a drying stage, a combustion stage and a post-combustion stage, each of the stages having a plurality of fixed fire grates and a plurality of movable fire grates, and in which the objects to be incinerated supplied from a feeder are subjected to drying, combustion and post-combustion while sequentially conveying the objects to be incinerated through the drying stage, the combustion stage and the post-combustion stage, wherein the drying stage is disposed to be inclined so that a downstream side in a conveying direction is directed downward, the combustion stage is connected to the drying stage and disposed to be inclined so that the downstream side end thereof in the conveying direction is directed upward, and the post-combustion stage is connected to the combustion stage and disposed to be inclined so that the downstream side end thereof in the conveying direction is directed upward.
Method for operating a nuclear magnetic flowmeter, wherein the nuclear-magnetic flowmeter has a measuring tube, a medium is present in the measuring tube and the medium in the measuring tube is magnetized, characterized in - that at least one nuclear-magnetic measuring process (6, 7) is carried out on the magnetized medium in the measuring tube, - that the at least one nuclear-magnetic measuring process (6, 7) includes an inversion pulse and N = {2, 3, 4,...} acquisition sequences (9, 10), - that each of the N acquisition sequences (9, 10) begins at a starting point in time t s,n with n = {1,..., N} in respect to the at least one nuclear-magnetic measuring process (6, 7) and has an activating pulse, a first waiting interval with a duration Δ t d, a first refocusing pulse, an echo interval with a duration Δ t e, a second refocusing pulse, a second waiting interval with the duration Δ t d and a deactivating pulse, - that an echo signal s e,n is measured in the echo interval, and - that a longitudinal relaxation time constant T 1 of the medium is determined using the echo signals s e,1,..., s e,N. - that at least one nuclear-magnetic measuring process (6, 7) is carried out on the magnetized medium in the measuring tube, - that the at least one nuclear-magnetic measuring process (6, 7) includes an inversion pulse and N = {2, 3, 4,...} acquisition sequences (9, 10), - that each of the N acquisition sequences (9, 10) begins at a starting point in time t s,n with n = {1,..., N} in respect to the at least one nuclear-magnetic measuring process (6, 7) and has an activating pulse, a first waiting interval with a duration Δ t d, a first refocusing pulse, an echo interval with a duration Δ t e, a second refocusing pulse, a second waiting interval with the duration Δ t d and a deactivating pulse, - that an echo signal s e,n is measured in the echo interval, and - that a longitudinal relaxation time constant T 1 of the medium is determined using the echo signals s e,1,..., s e,N.
Hybrid or electric vehicle comprising a floor, lower body side rails extending along the two lateral edges of the floor, underfloor side rails between said lower body side rails, at least one propulsion battery arranged under the floor between the lower body side rails and at least one underfloor side rail having one of its ends arranged facing one of the faces of one or of the propulsion battery, the vehicle further comprising at least one reinforcing element under said floor and extending transversely from one of the sub-floor side members, characterized in that at least one reinforcing element is in the form of a bracket, one of the sides of which is arranged to be placed facing one of the longitudinal sides of a sub-floor side member.
A disc valve, in particular a multi-way control valve, having a housing that has at least one inlet connection and at least one outlet connection (8, 9) as connections (7, 8, 9) for a liquid and/or gaseous medium, wherein the connections (7, 8, 9) end in respectively different chambers (55, 56, 57) of the housing, having at least one valve disc, in particular a ceramic valve disc, which is provided with at least one first through-flow opening and is arranged rotatably mounted in the housing in order to fluidically connect and separate from each other the different chambers (55, 56, 57) depending on its rotational position by means of the at least one through-flow opening, and having a control shaft, which is connected torque-proof to the valve disc in the housing, wherein the control shaft or the valve disc has at least one radial projection, and the housing has at least one rotation stop (52, 53), which is located in the movement path of the radial projection, wherein the housing has an at least basically cup-shaped distributor housing as well as a cover that closes off the distributor housing, and wherein the cover has a bearing opening, through which the control shaft can be guided outwardly with a coupling end, and in which the control shaft is rotatably mounted, characterized in that the control shaft protrudes through the valve disc with an end that is located opposite the coupling end and is rotatably mounted in a sealing disc, in particular a ceramic sealing disc, that rests flat on the valve disc, has at least one second through-flow opening, and is mounted torque-proof in the housing.
A composition for oral administration, related to as ("CR"), which comprises, or alternatively consists of: (i) a core comprising, or, alternatively, consisting of an extract (a) of at least one plant of the genus Vaccinium and at least one ingredient (b) acceptable for pharmaceutical or food use; (ii) a gastro-resistent layer external to the core (i) and which completely coats (i) and comprises at least one ingredient (c) acceptable for pharmaceutical or food use, wherein said gastro-resistent layer (ii) is capable of enabling the release of the extract (a) in the colon; wherein said composition is for use in the prevention and/or treatment of colonic diverticulosis, pathologies or diseases linked to the presence of diverticula, selected from among diverticular disease, SUDD (symptomatic uncomplicated diverticular disease) and colonic diverticulitis. (i) a core comprising, or, alternatively, consisting of an extract (a) of at least one plant of the genus Vaccinium and at least one ingredient (b) acceptable for pharmaceutical or food use; (ii) a gastro-resistent layer external to the core (i) and which completely coats (i) and comprises at least one ingredient (c) acceptable for pharmaceutical or food use, wherein said gastro-resistent layer (ii) is capable of enabling the release of the extract (a) in the colon; wherein said composition is for use in the prevention and/or treatment of colonic diverticulosis, pathologies or diseases linked to the presence of diverticula, selected from among diverticular disease, SUDD (symptomatic uncomplicated diverticular disease) and colonic diverticulitis.
Detection assembly for detecting passing sports timing transponders in a sports event, comprising: - an antenna and a calculation unit connected to the antenna; and - a channel element for positioning the antenna and the calculation unit on an underlying surface and for protecting the antenna and the calculation unit from external forces, wherein - said channel element is connectable to a preceding channel element and a following channel element to form a line; - said calculation unit is connectable to a first neighboring calculation unit via a first cable extending into the preceding channel element and to a second neighboring calculation unit via a second cable extending into the following channel element; and - said calculation unit includes a voltage detection circuitry for detecting whether power is provided to the calculation unit via the first cable or via the second cable, characterized in that - the voltage detection circuitry is configured to determine from which one of the first cable or the second cable power is provided and to then initialize a through connection to provide power to the respective neighboring calculation unit. - an antenna and a calculation unit connected to the antenna; and - a channel element for positioning the antenna and the calculation unit on an underlying surface and for protecting the antenna and the calculation unit from external forces, wherein - said channel element is connectable to a preceding channel element and a following channel element to form a line; - said calculation unit is connectable to a first neighboring calculation unit via a first cable extending into the preceding channel element and to a second neighboring calculation unit via a second cable extending into the following channel element; and - said calculation unit includes a voltage detection circuitry for detecting whether power is provided to the calculation unit via the first cable or via the second cable, characterized in that - the voltage detection circuitry is configured to determine from which one of the first cable or the second cable power is provided and to then initialize a through connection to provide power to the respective neighboring calculation unit.
A process for obtaining a material comprising a substrate coated on at least one portion of at least one of its faces with a stack of thin layers comprising at least one silver layer between at least two layers, said process comprising a step of depositing said stack then a heat treatment step, so that the sheet resistance and/or the emissivity of said stack is reduced by at least 5% in relative terms, the or each silver layer remaining continuous at the end of the treatment, wherein said heat treatment is carried out by irradiating at least one portion of the surface of said stack using at least one incoherent light source selected from a light source comprising at least one flash lamp and a light source comprising at least one halogen incandescent light for an irradiation time ranging from 0.1 millisecond to 100 seconds.
Combination of a container for a liquid foodstuff and a quantity of propellant to put the container under pressure in order to make the foodstuff flow out of the container via an opening, whereby the container comprises a rigid outer container and a flexible inner container, whereby the container is designed to be placed under pressure through at least a part of the quantity of propellant being in the space between the inner container and outer container, whereby the container is designed to be put under pressure by means of the presence of at least a part of the quantity of propellant in the space between the inner container and the intermediate container, characterised in that at a temperature of 5°C the propellant has a vapour pressure greater than 115 kPa and at a temperature of 25°C has a vapour pressure of less than 1000 kPa.