mhurhangee/ep-ind-claims huggingface dataset:
A learning method for a smartwatch to prevent a metal hand from lightening a screen by an unintended touch, wherein the smartwatch comprises a mainboard chip, a touch FPC, a display screen, and at least one metal hand, when the touch FPC is triggered, the display screen is lightened; a memory module is in the mainboard chip, and the memory module contains time sets T1, T2,......, Tn, where n is an integer greater than 2; the learning method comprises the following steps: Step I, in a first rotation period of each metal hand, the mainboard chip records a first time data generated by the metal hand on a dial plate when the display screen is lightened, and puts the first time data into the time set T1; Step II, in a next rotation period after the first one, namely, a second rotation period, the mainboard chip records a second time data generated by the metal hand on the dial plate when the display screen is lightened, and puts the second time data into the time set T2; Step III, Step II is repeated until in an n th rotation period, the mainboard chip records an n th time data generated by the metal hand on the dial plate when the display screen is lightened, and puts the n th time data into the time set Tn; Step IV, all the time data in the time sets T1, T2,......, Tn are processed, if an appearance frequency of a time data Tm on the dial plate in all time sets T1, T2,......, Tn is greater than or equal to a%n, wherein a∈, the mainboard chip learns that the time data Tm on the dial plate is a time when the display screen is triggered to be lightened; if the appearance frequency of the time data Tm in all time sets T1, T2,......, Tn is less than a%n, the mainboard chip learns that the time data Tm on the dial plate is not the time when the display screen is triggered to be lightened. Step I, in a first rotation period of each metal hand, the mainboard chip records a first time data generated by the metal hand on a dial plate when the display screen is lightened, and puts the first time data into the time set T1; Step II, in a next rotation period after the first one, namely, a second rotation period, the mainboard chip records a second time data generated by the metal hand on the dial plate when the display screen is lightened, and puts the second time data into the time set T2; Step III, Step II is repeated until in an n th rotation period, the mainboard chip records an n th time data generated by the metal hand on the dial plate when the display screen is lightened, and puts the n th time data into the time set Tn; Step IV, all the time data in the time sets T1, T2,......, Tn are processed, if an appearance frequency of a time data Tm on the dial plate in all time sets T1, T2,......, Tn is greater than or equal to a%n,
A device for mitigating vibrations of a blade of a wind turbine during standstill, the device comprising: a flexible base having a first connection area and a second connection area, the first connection area being configured to be attached to the second connection area to form a removable attachment, and one or more airflow modifying elements attached to the flexible base, wherein the flexible base is configured to fit around a portion of the rotor blade such that the removable attachment is positioned substantially at a leading edge of the blade. a flexible base having a first connection area and a second connection area, the first connection area being configured to be attached to the second connection area to form a removable attachment, and one or more airflow modifying elements attached to the flexible base, wherein the flexible base is configured to fit around a portion of the rotor blade such that the removable attachment is positioned substantially at a leading edge of the blade.
A method for measurement of phase volume in a multiphase flow in a pipeline, the multiphase flow comprising a gas phase and at least one other phase, the at least one other phase comprising a hydrocarbon liquid phase and/or a water phase and/or transported solid phases, the method comprising injecting one or more tracers into the pipeline, preferably at an inlet of the pipeline, for tracing the at least one other phase, and measuring the tracer concentration(s) as a function of time at one or more points of measurement downstream from the point of injection, and measuring the mean residence time(s) taken for transport of the injected tracer(s) from the point of injection to said one or more points of measurement, with the phase volume(s) of the at least one other phase being calculated based on the mean residence time(s).
A multi-layered smokeless tobacco product comprising two or more formulations having different organoleptic properties, wherein the formulations are selected from the group consisting of: i) a dissolvable formulation comprising a sugar substitute in an amount of at least 80% by weight and a sugar alcohol syrup; ii) a meltable formulation comprising a lipid having a melting point of 36 °C to 45 °C, wherein the meltable formulation comprises particulate tobacco in an amount of from 25% to 45% by weight; the lipid in an amount of from 10% to 50% by weight; and a filler in an amount of from 20% to 40% by weight, or wherein the meltable formulation comprises a tobacco extract in an amount of 2% by weight or greater; the lipid in an amount of 30% by weight or greater; and a filler in an amount of 30% by weight or greater; iii) a pastille formulation comprising a polysaccharide filler comprising polydextrose; iv) a pastille formulation comprising a sugar alcohol and a natural gum binder component; v) a chewable formulation comprising a binder, an emulsifier, and a lipid having a melting point of 36 °C to 45 °C; and vi) a hard coating formulation comprising a binder, a sugar substitute, and a sugar alcohol syrup; wherein at least one formulation further comprises tobacco, in the form of a particulate tobacco material or a tobacco extract. i) a dissolvable formulation comprising a sugar substitute in an amount of at least 80% by weight and a sugar alcohol syrup; ii) a meltable formulation comprising a lipid having a melting point of 36 °C to 45 °C, wherein the meltable formulation comprises particulate tobacco in an amount of from 25% to 45% by weight; the lipid in an amount of from 10% to 50% by weight; and a filler in an amount of from 20% to 40% by weight, or wherein the meltable formulation comprises a tobacco extract in an amount of 2% by weight or greater; the lipid in an amount of 30% by weight or greater; and a filler in an amount of 30% by weight or greater; iii) a pastille formulation comprising a polysaccharide filler comprising polydextrose; iv) a pastille formulation comprising a sugar alcohol and a natural gum binder component; v) a chewable formulation comprising a binder, an emulsifier, and a lipid having a melting point of 36 °C to 45 °C; and vi) a hard coating formulation comprising a binder, a sugar substitute, and a sugar alcohol syrup;
A can body manufacturing method, the can body being used for a beverage can, the can body manufacturing method comprising: forming a first white-ink layer on a part of an outer circumferential surface of the can body which is formed cylindrically with a metal material and on the outer circumferential surface of which a metal base appears, by ejecting white ink of ultraviolet-curable type onto the outer circumferential surface of the can body, the first white-ink layer covering the metal base on the part of the outer circumferential surface of the can body where the first white-ink layer is formed; curing the first white-ink layer by ultraviolet light; forming a second white-ink layer by attaching ultraviolet-curable white ink to a part of the first white-ink layer to increase a thickness of the part of the first white-ink layer, after forming the first white-ink layer and the second white-ink layer on the first white-ink layer, forming an image layer on the outer circumferential surface of the can body using ultraviolet-curable colour link, and curing the second white-ink layer and the image layer by ultraviolet light; wherein the image layer is formed on a portion of the outer circumferential surface of the can body where the first white-ink layer is formed and the thickness is increased by the second white-ink layer on the first white-ink layer, a portion of the outer circumferential surface of the can body where the first white-ink layer is formed and the thickness is not increased by the second white-ink layer on of the first white-ink layer, and a portion where the metal base appears. forming a first white-ink layer on a part of an outer circumferential surface of the can body which is formed cylindrically with a metal material and on the outer circumferential surface of which a metal base appears, by ejecting white ink of ultraviolet-curable type onto the outer circumferential surface of the can body, the first white-ink layer covering the metal base on the part of the outer circumferential surface of the can body where the first white-ink layer is formed; curing the first white-ink layer by ultraviolet light; forming a second white-ink layer by attaching ultraviolet-curable white ink to a part of the first white-ink layer to increase a thickness of the part of the first white-ink layer, after forming the first white-ink layer and the second white-ink layer on the first white-ink layer, forming an image layer on the outer circumferential surface of the can body using ultraviolet-curable colour link, and curing the second white-ink layer and the image layer by ultraviolet light; wherein the image layer is formed on a portion of the outer circumferential surface of the can body where the first white-ink layer is formed and the thickness is increased by the second white-ink layer on the first white-ink layer, a portion of the outer circumferential surface of the can body where the first white-ink layer is formed and the thickness is not increased by the second white-ink layer on of the first white-ink layer, and a portion where the metal base appears.
An ambulance with an outlet of an air-conditioning system and/or with an outlet of a heating system for cooling or warming a patient compartment, wherein the outlet is provided with a cover plate having an opening and wherein the opening has assigned to it a pipeline (9, 26, 36), designed as a pipe or hose, for conveying warm air and/or cold air, wherein the pipeline (9, 26, 36) is connected to a connection hose (16, 27) and the connection hose (16, 27) is coupled to a heat blanket, wherein the heat blanket is envisaged as a substrate so that it is located underneath a patient, wherein the heat blanket is firmly or detachably connected to a stretcher.
An apparatus, comprising: at least one fluorescence optical nanofiber having a first fluorescence end and a second fluorescence end; at least one probe fiber, a portion of the probe fiber disposed within one hundred fluorescence optical nanofiber diameters of the fluorescence optical nanofiber, the probe fiber having a first probe end and a second probe end; a pressure-tight chamber defined by an inner surface that is completely enclosed by an outer surface, the first and the second fluorescence ends (208,212) disposed within the chamber, a portion of the fluorescence optical nanofiber and the portion of the probe fiber each disposed outside the chamber; an electromagnetic energy source located within the pressure-tight chamber and arranged to direct source electromagnetic energy having a selected fluorescence frequency to the first fluorescence end; and a receiver located within the pressure-tight chamber and arranged to receive fluorescence energy via at least one of the first probe end or the second probe end, the fluorescence energy provided by a sampled downhole fluid located outside the pressure-tight chamber and disposed proximate to the fluorescence optical nanofiber and the probe fiber, the sampled downhole fluid to provide the fluorescence energy in response to evanescent energy arising from the source electromagnetic energy present in the fluorescence optical nanofiber. at least one fluorescence optical nanofiber having a first fluorescence end and a second fluorescence end; at least one probe fiber, a portion of the probe fiber disposed within one hundred fluorescence optical nanofiber diameters of the fluorescence optical nanofiber, the probe fiber having a first probe end and a second probe end; a pressure-tight chamber defined by an inner surface that is completely enclosed by an outer surface, the first and the second fluorescence ends (208,212) disposed within the chamber, a portion of the fluorescence optical nanofiber and the portion of the probe fiber each disposed outside the chamber; an electromagnetic energy source located within the pressure-tight chamber and arranged to direct source electromagnetic energy having a selected fluorescence frequency to the first fluorescence end; and a receiver located within the pressure-tight chamber and arranged to receive fluorescence energy via at least one of the first probe end or the second probe end, the fluorescence energy provided by a sampled downhole fluid located outside the pressure-tight chamber and disposed proximate to the fluorescence optical nanofiber and the probe fiber, the sampled downhole fluid to provide the fluorescence energy in response to evanescent energy arising from the source electromagnetic energy present in the fluorescence optical nanofiber.
A gastrointestinal implant device comprising: a flexible sleeve, open at both ends and adapted to extend into a subject's intestine; and a collapsible gastrointestinal anchor coupled to a proximal portion of the sleeve, the collapsible gastrointestinal anchor comprising a wave spring (502.) having a plurality of barbs extending therefrom, characterised in that the wave spring has: a relaxed diameter of about 40 millimeters (mm) or greater; a compressive elastic deformation diameter of about 12 mm or less; and an average spring rate of about 13 Newtons/meter (N/m) or greater over a range of motion of about 20 mm or greater, the range of motion being within a diameter range defined by the relaxed diameter and the compressive elastic deformation diameter; and a radial force under compression, at a compressed diameter of 25 millimeters (mm), of about 0.3 Newtons or greater; the spring rate and the radial force being measured while unloading the spring. a flexible sleeve, open at both ends and adapted to extend into a subject's intestine; and a collapsible gastrointestinal anchor coupled to a proximal portion of the sleeve, the collapsible gastrointestinal anchor comprising a wave spring (502.) having a plurality of barbs extending therefrom, characterised in that the wave spring has: a relaxed diameter of about 40 millimeters (mm) or greater; a compressive elastic deformation diameter of about 12 mm or less; and an average spring rate of about 13 Newtons/meter (N/m) or greater over a range of motion of about 20 mm or greater, the range of motion being within a diameter range defined by the relaxed diameter and the compressive elastic deformation diameter; and a radial force under compression, at a compressed diameter of 25 millimeters (mm), of about 0.3 Newtons or greater; the spring rate and the radial force being measured while unloading the spring. a relaxed diameter of about 40 millimeters (mm) or greater; a compressive elastic deformation diameter of about 12 mm or less; and an average spring rate of about 13 Newtons/meter (N/m) or greater over a range of motion of about 20 mm or greater, the range of motion being within a diameter range defined by the relaxed diameter and the compressive elastic deformation diameter; and a radial force under compression, at a compressed diameter of 25 millimeters (mm), of about 0.3 Newtons or greater; the spring rate and the radial force being measured while unloading the spring.
A surge arrester, comprising - a first terminal, a first node and a second terminal, - an input arrester unit and a first arrester unit, a first capacitor, and a first resilient element, - a first connection element, a second connection element for connecting the surge arrester with an external circuit and a circuit board having a first side, where - the first node is arranged between the first terminal and the second terminal, - the input arrester unit is electrically connected between the first terminal and the first node, - the first arrester unit is electrically connected between the first node and the second terminal, - the first capacitor is electrically connected between the first terminal and the first node, - the first resilient element is connected mechanically and electrically between the first capacitor and the first node, - the input arrester unit is shunted by a series connection of the first capacitor and the first resilient element, - the arrester units (AU0, AU1) are arranged between the connection elements (CE1, CE2), - the connection elements (CE1, CE2) are electrically connected to the first and second terminal respectively, - the circuit board is arranged between the connection elements (CE1, CE2), - the first capacitor is arranged on the first side of the circuit board, - the first resilient element is a metal clip mechanically connecting the circuit board with the first node. - a first terminal, a first node and a second terminal, - an input arrester unit and a first arrester unit, a first capacitor, and a first resilient element, - a first connection element, a second connection element for connecting the surge arrester with an external circuit and a circuit board having a first side, where - the first node is arranged between the first terminal and the second terminal, - the input arrester unit is electrically connected between the first terminal and the first node, - the first arrester unit is electrically connected between the first node and the second terminal, - the first capacitor is electrically connected between the first terminal and the first node, - the first resilient element is connected mechanically and electrically between the first capacitor and the first node, - the input arrester unit is shunted by a series connection of the first capacitor and the first resilient element, - the arrester units (AU0, AU1) are arranged between the connection elements (CE1, CE2), - the connection elements (CE1, CE2) are electrically connected to the first and second terminal respectively, - the circuit board is arranged between the connection elements (CE1, CE2), - the first capacitor is arranged on the first side of the circuit board, - the first resilient element is a metal clip mechanically connecting the circuit board with the first node.
A method of examining defects in a green honeycomb molding having partition walls which form a plurality of flow channels extending in parallel with one another, and sealing portions which close one end of some of the plurality of flow channels and the other end of the rest of the plurality of flow channels, the method is characterized by: a step of applying pressure to one end of the plurality of flow channels using gas; a step of acquiring a plurality of first direction images (400X 1, 400X 2) visualizing the distribution of refractive indexes of gas near the other end of the plurality of flow channels from a first direction intersecting the axis of the plurality of flow channels at different times; a step of acquiring a plurality of second direction images (400Y 1, 400Y 2) visualizing the distribution of refractive indexes of gas near the other end of the plurality of flow channels from a second direction intersecting the axis of the plurality of flow channels and intersecting the first direction at different times; a step of selecting an image having a largest number of jet flows of gas discharged from the other end of the plurality of flow channels of the green honeycomb molding in the plurality of first direction images (400X 1, 400X 2); a step of selecting an image having a largest number of jet flows of gas discharged from the other end of the plurality of flow channels of the green honeycomb molding in the plurality of second direction images (400Y 1, 400Y 2); and a step of acquiring information relating to the positions of the jet flows in the selected two images. a step of applying pressure to one end of the plurality of flow channels using gas; a step of acquiring a plurality of first direction images (400X 1, 400X 2) visualizing the distribution of refractive indexes of gas near the other end of the plurality of flow channels from a first direction intersecting the axis of the plurality of flow channels at different times; a step of acquiring a plurality of second direction images (400Y 1, 400Y 2) visualizing the distribution of refractive indexes of gas near the other end of the plurality of flow channels from a second direction intersecting the axis of the plurality of flow channels and intersecting the first direction at different times; a step of selecting an image having a largest number of jet flows of gas discharged from the other end of the plurality of flow channels of the green honeycomb molding in the plurality of first direction images (400X 1, 400X 2); a step of selecting an image having a largest number of jet flows of gas discharged from the other end of the plurality of flow channels of the green honeycomb molding in the plurality of second direction images (400Y 1, 400Y 2); and a step of acquiring information relating to the positions of the jet flows in the selected two images.
A swine spray vaccination system comprising: a housing having an open first end and an open opposite second end, the housing having a pair of side walls (130,140) that are angled and non-parallel to one another such that at the second end only a single piglet can exit at one time; and a vaccination station being located between the pair of side walls (130,140) in a region thereof that is sized to only permit one piglet to stand between the side walls (130,140), the vaccination station including at least one sensor that detects the presence of the one piglet within the vaccination station and at least one spray nozzle located below the piglet such that the vaccine is directed upwardly into the face of the piglet. a housing having an open first end and an open opposite second end, the housing having a pair of side walls (130,140) that are angled and non-parallel to one another such that at the second end only a single piglet can exit at one time; and a vaccination station being located between the pair of side walls (130,140) in a region thereof that is sized to only permit one piglet to stand between the side walls (130,140), the vaccination station including at least one sensor that detects the presence of the one piglet within the vaccination station and at least one spray nozzle located below the piglet such that the vaccine is directed upwardly into the face of the piglet.