mhurhangee/ep-ind-claims huggingface dataset:
An angle measuring system for measuring an angle between a first leg and a second leg, comprising: at least one angle detection unit for determining an angular offset between an angular element non-rotatably arranged on the first leg and an actuator rotatably arranged relative to the same, a carrier which is arranged on the second leg and a lever which connects the actuator to the carrier, wherein during a rotation between the first leg and the second leg the lever performs a corresponding rotatory movement of the actuator with respect to the angular element, characterized by a switch which includes two switch elements (71, 72), wherein a first switch element is arranged on the lever which connects the actuator to the carrier, a second switch element is attached to the first leg or to the second leg, and the switch is designed to adopt a first switching state when the lever is aligned correctly with the corresponding leg (2, 3), and to adopt a second switching state when this correct alignment is left. at least one angle detection unit for determining an angular offset between an angular element non-rotatably arranged on the first leg and an actuator rotatably arranged relative to the same, a carrier which is arranged on the second leg and a lever which connects the actuator to the carrier, wherein during a rotation between the first leg and the second leg the lever performs a corresponding rotatory movement of the actuator with respect to the angular element, characterized by a switch which includes two switch elements (71, 72), wherein a first switch element is arranged on the lever which connects the actuator to the carrier, a second switch element is attached to the first leg or to the second leg, and the switch is designed to adopt a first switching state when the lever is aligned correctly with the corresponding leg (2, 3), and to adopt a second switching state when this correct alignment is left.
A process to manufacture a structured aqueous liquid detergent composition comprising 7 to 40 wt% surfactant, of which at least 2 wt% is nonionic surfactant, optionally, and preferably, 4 to 30 wt% water soluble polymers, and 0.1 to 0.4 wt% Hydrogenated Castor oil external structurant, the process comprising the step of formation of a structured water premix which is then mixed in an amount of 40 to 80 vol% with an unstructured liquid comprising further surfactant and making up 20 to 60 vol% of the liquid detergent composition, characterised in that the structured water premix is formed by: a) adding 0.1 to 0.4, preferably about 0.25 wt%, HCO (based on the liquid detergent composition), to 2 to 8 wt% surfactant (based on the liquid detergent composition), b) heating this mixture to 70 to 84°C to prepare a molecularly dispersed transparent solution of a minor part of HCO in a major part of surfactant, then c) adding the solution from step b) to water at a temperature of at least 55°C, preferably at least 65°C, even at least 75°C optionally further comprising anionic surfactant, but not base, to form a warm structured water premix precursor and allowing this precursor to cool to below 40°C to form a structured water premix; d) optionally aging the structured water premix prior to its combination with the unstructured liquid comprising further surfactant and e) the optional further addition of additional detergent liquid ingredients, preferably including 4 to 30 wt% water soluble polymers to form an externally structured aqueous detergent composition, with the proviso that at no time during the process does the temperature of the HCO exceed its melting point. a) adding 0.1 to 0.4, preferably about 0.25 wt%, HCO (based on the liquid detergent composition), to 2 to 8 wt% surfactant (based on the liquid detergent composition), b) heating this mixture to 70 to 84°C to prepare a molecularly dispersed transparent solution of a minor part of HCO in a major part of surfactant, then c) adding the solution from step b) to water at a temperature of at least 55°C, preferably at least 65°C, even at least 75°C optionally further comprising anionic surfactant, but not base, to form a warm structured water premix precursor and allowing this precursor to cool to below 40°C to form a structured water premix; d) optionally aging the structured water premix prior to its combination with the unstructured liquid comprising further surfactant and e) the optional further addition of additional detergent liquid ingredients, preferably including 4 to 30 wt% water soluble polymers to form an externally structured aqueous detergent composition, with the proviso that at no time during the process does the temperature of the HCO exceed its melting point.
A semiconductor device comprising: a first film including a first side and a second side opposite to each other; a second film including a third side and a fourth side opposite each other, the third side of the second film being in contact with the second side of the first film, the second film and the first film defining parts of a trench, the trench including a first sub-trench and a second sub-trench below the first sub-trench, the first sub-trench having a first width and extending from the fourth side of the second film toward the first film, the second sub-trench below the first sub-trench having a second width, the second width being smaller than the first width; a plug conductive film extending from the first side of the first film to penetrate a bottom face of the trench, an uppermost face of the plug conductive film being inside the trench; a via including an insulating liner between the plug conductive film and the first film; and a wiring in the trench, wherein the uppermost face of the plug conductive film and at least a part of a side wall of the plug conductive film in the trench are in contact with the wiring, and an upper face of the insulating liner is exposed by a bottom face (t12bs) of the second sub-trench. a first film including a first side and a second side opposite to each other; a second film including a third side and a fourth side opposite each other, the third side of the second film being in contact with the second side of the first film, the second film and the first film defining parts of a trench, the trench including a first sub-trench and a second sub-trench below the first sub-trench, the first sub-trench having a first width and extending from the fourth side of the second film toward the first film, the second sub-trench below the first sub-trench having a second width, the second width being smaller than the first width; the second film and the first film defining parts of a trench, the trench including a first sub-trench and a second sub-trench below the first sub-trench, the first sub-trench having a first width and extending from the fourth side of the second film toward the first film, the second sub-trench below the first sub-trench having a second width, the second width being smaller than the first width; a plug conductive film extending from the first side of the first film to penetrate a bottom face of the trench, an uppermost face of the plug conductive film being inside the trench; a via including an insulating liner between the plug conductive film and the first film; and a wiring in the trench, wherein the uppermost face of the plug conductive film and at least a part of a side wall of the plug conductive film in the trench are in contact with the wiring, and an upper face of the insulating liner is exposed by a bottom face (t12bs) of the second sub-trench.
A method for a mobile device for controlling access of the mobile device to a network, the mobile device being configured to belong to one of a plurality of access control classes, ACC, and being further configured to belong to one of a plurality of extended access control classes, EACC, in relation to a subscription service level agreement, the method comprising: - receiving a system information message comprising a first indicator indicating an ACC and a second indicator indicating an EACC relating to a subscription service level agreement; and - controlling access to the network based on the received first indicator and the received second indicator. - receiving a system information message comprising a first indicator indicating an ACC and a second indicator indicating an EACC relating to a subscription service level agreement; and - controlling access to the network based on the received first indicator and the received second indicator.
A drive apparatus for detaching rollers of a combing machine having a housing enclosing a gear, wherein the gear has a first drive train with a first drive shaft, which transfers a continuous rotational movement to the detaching rollers via a hollow wheel of a differential gear, and wherein the gear has a second drive train with a detaching roller auxiliary shaft, on which a detaching roller cam disc device is arranged to create a back-and-forth movement, wherein the continuous rotational movement of the hollow wheel together with the back-and-forth movement of the detaching cam disc device transfers a reciprocating movement to the detaching rollers, characterized in that an adjusting mechanism is provided for adjusting a gear ratio between the continuous rotational movement and the back-and-forth movement.
The compound according to Formula I: or a pharmaceutically acceptable salt, or a solvate, or a solvate of the pharmaceutically acceptable salt, or a biologically active metabolite thereof.
A mounting arrangement for a turbine engine blade in an engine, the arrangement comprising a turbine disc and turbine blade arranged to rotate relative to a stationary housing with a seal therebetween, a front face of at least that disc being incident to relatively hot air leakage from the seal, the arrangement further comprising a plenum chamber, and the seal includes a seal arm the housing including a swirler feature whereby coolant air is appropriately propelled into said plenum chamber towards disc rotational velocity, holes being defined in said seal arm to exhaust air from said plenum chamber through a presentational pathway in order to at least displace the relatively hot air leakage adjacent the front face, wherein the pathway includes said holes in said seal arm forming the seal, characterised in that the holes are angled or tangentially presented in order to achieve surface layer displacement adjacent the front face, of the hot air leakage from the seal.
A method for testing a gas leak detection device comprising a test gas spraying device and a vacuum assembly flanged to a test object in form of a spray-on pen leak in form of a helium vacuum leak detector, including a vacuum pump for evacuating the test object and, arranged downstream of the test object, a test gas detector measuring the test gas content in the gas flow evacuated from the test object as a measurement signal, and including an evaluation unit for evaluating the measurement signal, characterized by the following steps: spraying helium onto the test object, detecting at least one time point of the spraying process by the test gas spraying device, transmitting the detected time point to the evaluating evaluation unit, correlating the transmitted time point of spraying with the measurement signal by the evaluation unit to detect at least the test gas content at the respective time point of the spraying process, and determining the reaction time of the vacuum assembly. spraying helium onto the test object, detecting at least one time point of the spraying process by the test gas spraying device, transmitting the detected time point to the evaluating evaluation unit, correlating the transmitted time point of spraying with the measurement signal by the evaluation unit to detect at least the test gas content at the respective time point of the spraying process, and determining the reaction time of the vacuum assembly.
Respiratory device, comprising artificial respiration means for generating and maintaining an oxygen-containing respiratory gas flow; a respiratory tube in which a respiratory channel extends for the purpose of carrying the respiratory gas flow to an outlet for supply of the respiratory gas flow for the respiratory system of a patient, which respiratory tube is coupled or at least couplable to the respiratory means; humidification means (61, 62) coupled or at least couplable to the respiratory tube for the purpose of humidifying the respiratory gas flow in the respiratory channel with a humidification fluid; and a humidification fluid source which is coupled or at least couplable via a fluid conduit to the humidification means for the purpose of providing the humidification fluid thereto, the humidification means (61, 62) comprise an atomizer (63, 64) which is able and configured to form a fine mist when the humidification fluid is excited and to deliver the fine mist on an outlet side, the atomizer (63, 64) is in open communication on the outlet side with the respiratory channel in the respiratory tube; characterised by that heating means are provided which enter into heat-exchanging contact with the respiratory gas flow upstream of the atomizer in order to dissipate heat thereto, and that at least the atomizer and the heating means are controlled by electronic control means configured to mutually adapt a heat dissipation by the heating means in the respiratory gas flow and a downstream delivery of the fine mist by the atomizer such that said heat dissipation suffices to make the mist formed by the atomizer transition substantially wholly, and particularly wholly, into a vapour phase when delivered by the atomizer.
An apremilast crystal form II shown in formula characterized in that: i) a differential scanning calorimetry thermogram shows only one endothermic peak at 150±3°C between 100∼180°C; ii) thermal gravity shows no crystallization solvent contained; iii) a melting point is 146∼151°C; and iv) it has an X-ray powder diffraction (XRPD) pattern comprising the following two characteristic absorption peaks at 2θ±0.2: 11.2, 14.7. i) a differential scanning calorimetry thermogram shows only one endothermic peak at 150±3°C between 100∼180°C; ii) thermal gravity shows no crystallization solvent contained; iii) a melting point is 146∼151°C; and iv) it has an X-ray powder diffraction (XRPD) pattern comprising the following two characteristic absorption peaks at 2θ±0.2: 11.2, 14.7.
An elevator system equipped with an unintended car movement protection that stops a car by determining the case, in which a car door and a landing door are in an open state and the car is elevated from a landing, as open-door movement abnormality, the system characterized in comprising: a car door switch that detects an open state of the car door; a landing door switch (41A - 41C) that detects the open state of the landing door; a detection device (21,30) that detects a speed and a movement amount of a car and a floor reference position; and a safety controller that determines an open-door movement abnormality by comparing the detected car speed with an abnormality determination threshold value of a car speed, the abnormality determination threshold value set with respect to a car position based on results of the movement amount detected by the detection device (21, 30), wherein the abnormality determination threshold values are defined for each floor position. a car door switch that detects an open state of the car door; a landing door switch (41A - 41C) that detects the open state of the landing door; a detection device (21,30) that detects a speed and a movement amount of a car and a floor reference position; and a safety controller that determines an open-door movement abnormality by comparing the detected car speed with an abnormality determination threshold value of a car speed, the abnormality determination threshold value set with respect to a car position based on results of the movement amount detected by the detection device (21, 30), wherein the abnormality determination threshold values are defined for each floor position.
Apparatus for use as an output device of a user interface to an information processing system, including at least one device (15, 20) for enabling output of a first modality by generating a synthetic jet, wherein at least one of the devices for generating a synthetic jet includes: - at least an enclosure (34,35) with an orifice on one side, - two movable boundaries (37,38,45,46) forming opposite boundaries of a cavity comprised in the enclosure, and - two transducers (37-39,40) for each actuating a respective one of the movable boundaries (37,38,45,46) to generate pressure waves in fluid contained in the enclosure, wherein the at least one of the devices is configured to enable output of a second modality to be provided by the two transducers (37-39,40) included in the device, wherein the second modality comprises tactile feedback in the form of vibrations, and wherein the at least one device further includes means for providing separate driving signals to the two transducers (37-39,40) for generating the synthetic jet by driving said transducers in anti-phase with respect to each other and for generating the vibrations by driving said transducers in phase with respect to each other. - at least an enclosure (34,35) with an orifice on one side, - two movable boundaries (37,38,45,46) forming opposite boundaries of a cavity comprised in the enclosure, and - two transducers (37-39,40) for each actuating a respective one of the movable boundaries (37,38,45,46) to generate pressure waves in fluid contained in the enclosure,
A bulk storage device intended for powdery materials, said device comprising: - a flexible bulk container, the material of the container being an insulator, without antistatic additive or electrically conductive layer, - an insulating inner liner, of surface resistivity greater than 1.0 × 10 12 Ω, without a static electricity conducting layer and without a static electricity dissipation layer, said inner liner covering the inner walls of the container, the thickness Δ of the inner liner being greater than 60 microns and lower than or equal to 700 microns, said inner liner comprising micro-perforations, the micro-perforations being distributed over the whole surface of said inner liner and in such a way that the breakdown voltage of said inner liner is lower than 4 kV and in that the breakdown voltage of the wall of the container is lower than 6 kV without requiring the device to be earthed, such that the storage device can be qualified as a intermediate flexible bulk container classified as type B according to the standard 61340-4-4 Edition 2.0 2012-01, characterized in that: the micro-perforations being through-micro-perforations, the diameter of the micro-perforations being between 5 microns and 130 microns. - a flexible bulk container, the material of the container being an insulator, without antistatic additive or electrically conductive layer, - an insulating inner liner, of surface resistivity greater than 1.0 × 10 12 Ω, without a static electricity conducting layer and without a static electricity dissipation layer, said inner liner covering the inner walls of the container, the thickness Δ of the inner liner being greater than 60 microns and lower than or equal to 700 microns, said inner liner comprising micro-perforations, the micro-perforations being distributed over the whole surface of said inner liner and in such a way that the breakdown voltage of said inner liner is lower than 4 kV and in that the breakdown voltage of the wall of the container is lower than 6 kV without requiring the device to be earthed, the micro-perforations being through-micro-perforations, the diameter of the micro-perforations being between 5 microns and 130 microns.
A component feeder comprising: a lift for elevating a selection of components from a bulk storage, the lift comprising a lift platform for supporting the selection of components, and a pick surface adjacent to the lift for receiving the selection of components, characterized in that the pick surface is configured to move between the lift platform and the selection of components to receive them. a lift for elevating a selection of components from a bulk storage, the lift comprising a lift platform for supporting the selection of components, and a pick surface adjacent to the lift for receiving the selection of components, characterized in that the pick surface is configured to move between the lift platform and the selection of components to receive them.
Method for operating a centrifuge, wherein the centrifuge has an inlet pipe and a rotatably mounted drum with a vertical axis of rotation and wherein the centrifuge has at least one gripper chamber for discharging clarified or separated liquid and wherein the centrifuge has a blocking chamber above the gripper chamber with a blocking disk projecting into the blocking chamber, wherein a blocking gas, which is heavier than air, is located in the blocking chamber and is introduced into the blocking chamber through a channel that opens into the blocking chamber, characterized in that the channel is arranged above the blocking disk or in the blocking disk.
Modelling compound containing finely divided solids, a binder and optionally further constituents, where - the finely divided solids have a particle size in the range from 0.001 to 2 mm and are selected from among SiO 2, sand, glass, seashells, plant kernels and shells, - the binder is selected from among thermoplastic polyolefins such as polyethylene, polypropylene, polyisopropylene, polybutylene, polyisobutylene, linear and crosslinked copolymers, graft copolymers containing polyethylene, polypropylene, polyisopropylene, polybutylene, polyisobutylene and also mixtures of the above, characterized in that - from 80 to 98% by weight of finely divided solids, - from 2 to 20% by weight of binder and optionally - from 1 to 3% by weight of plasticizer, - from 1 to 3% by weight of plastification aids (Cl.1/line 19), - from 0.1 to 1% by weight of pigments are present, with the proviso that the sum of the individual constituents adds up to 100%. - the finely divided solids have a particle size in the range from 0.001 to 2 mm and are selected from among SiO 2, sand, glass, seashells, plant kernels and shells, - the binder is selected from among thermoplastic polyolefins such as polyethylene, polypropylene, polyisopropylene, polybutylene, polyisobutylene, linear and crosslinked copolymers, graft copolymers containing polyethylene, polypropylene, polyisopropylene, polybutylene, polyisobutylene and also mixtures of the above, characterized in that - from 80 to 98% by weight of finely divided solids, - from 2 to 20% by weight of binder and optionally - from 1 to 3% by weight of plasticizer, - from 1 to 3% by weight of plastification aids (Cl.1/line 19), - from 0.1 to 1% by weight of pigments