mhurhangee/ep-ind-claims huggingface dataset:
A safety control method for a gas water heater, comprising: detecting a rotational speed of an exhaust fan in the gas water heater; obtaining a set value for output power of the exhaust fan; and determining a wind pressure situation at an air outlet of the exhaust fan according to the rotational speed and the set value for the output power, and adjusting the set value for the output power according to the wind pressure situation, the safety control method being characterised in that determining the wind pressure situation at an air outlet of the exhaust fan comprises: controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation. detecting a rotational speed of an exhaust fan in the gas water heater; obtaining a set value for output power of the exhaust fan; and determining a wind pressure situation at an air outlet of the exhaust fan according to the rotational speed and the set value for the output power, and adjusting the set value for the output power according to the wind pressure situation, the safety control method being characterised in that determining the wind pressure situation at an air outlet of the exhaust fan comprises: controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation. controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation.
An electromagnetic resonator configured for use as a source resonator or a capture resonator in a wireless power transfer system, comprising: a first coil; a second coil, wherein the first coil is connected in series with the second coil; a matching network comprising passive electronic components, wherein said matching network is in series with the first coil and the second coil and intermediate the first coil and the second coil and wherein a first inductance value of the first coil is substantially equal to a second inductance value of the second coil, characterized in that: the first coil is disposed within the second coil and surrounded by the second coil; and the first coil is co-planar with the second coil. a first coil; a second coil, wherein the first coil is connected in series with the second coil; a matching network comprising passive electronic components, wherein said matching network is in series with the first coil and the second coil and intermediate the first coil and the second coil and wherein a first inductance value of the first coil is substantially equal to a second inductance value of the second coil, characterized in that: the first coil is disposed within the second coil and surrounded by the second coil; and the first coil is co-planar with the second coil.
Method for acquiring a complete depth map from a 3-D scene, the method being characterized by comprising the steps of: a) acquiring a partial depth map by means of quantitative processing of at least two images from said 3-D scene, the quantitative processing yielding depth values, b) acquiring derivatives of depth information by means of qualitative processing of at least one image from said 3-D scene, the qualitative processing yielding only depth orderings, c) extending said partial depth map by adding non-relevant depth information being arbitrary depth values that comply with the partial depth map and the derivatives of depth information to said partial depth map, the addition of the non-relevant information realizing a smooth depth-map by smoothing depth values for objects in the 3-D scene from one discontinuity to the next discontinuity, thereby creating a pixel dense full depth map being spatially consistent with both said partial depth map and said derivates of depth information. a) acquiring a partial depth map by means of quantitative processing of at least two images from said 3-D scene, the quantitative processing yielding depth values, b) acquiring derivatives of depth information by means of qualitative processing of at least one image from said 3-D scene, the qualitative processing yielding only depth orderings, c) extending said partial depth map by adding non-relevant depth information being arbitrary depth values that comply with the partial depth map and the derivatives of depth information to said partial depth map, the addition of the non-relevant information realizing a smooth depth-map by smoothing depth values for objects in the 3-D scene from one discontinuity to the next discontinuity, thereby creating a pixel dense full depth map being spatially consistent with both said partial depth map and said derivates of depth information.
Braking unit having multiple sub-modules that are arranged in series, wherein each sub-module comprises an inverse diode and a storage capacitor that is arranged in parallel with said inverse diode by way of a free-wheel diode and also an energy-consuming switching unit that is connected to the storage capacitor, wherein an actively switchable semi-conductor bypass path from the cathode to the anode of the inverse diode is provided in parallel with the inverse diode, and an inductance and, as an additional energy-consuming switching unit, a resistor arrangement are connected in series with the sub-modules arranged in series, wherein the semi-conductor bypass path comprises a power semi-conductor switch, wherein the braking unit comprises a control arrangement which is designed to output control signals to the power semi-conductor switches of the sub-modules, with the result that the braking unit is operated in this case as a boost converter with regard to the sum of voltages of its storage capacitors. an actively switchable semi-conductor bypass path from the cathode to the anode of the inverse diode is provided in parallel with the inverse diode, and an inductance and, as an additional energy-consuming switching unit, a resistor arrangement are connected in series with the sub-modules arranged in series, wherein the semi-conductor bypass path comprises a power semi-conductor switch, wherein the braking unit comprises a control arrangement which is designed to output control signals to the power semi-conductor switches of the sub-modules, with the result that the braking unit is operated in this case as a boost converter with regard to the sum of voltages of its storage capacitors.
An electronic apparatus, comprising: a sensor; a camera; a memory; and a processor configured to be connected to the sensor, the camera, and the memory, wherein the memory includes an artificial intelligence model trained to identify at least one object, and wherein the processor is further configured to: detect an object based on sensing data received from the sensor; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model, and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model. a sensor; a camera; a memory; and a processor configured to be connected to the sensor, the camera, and the memory, wherein the memory includes an artificial intelligence model trained to identify at least one object, and wherein the processor is further configured to: detect an object based on sensing data received from the sensor; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model, and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model. detect an object based on sensing data received from the sensor; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model, and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model.
A composition for topical use in the therapeutic treatment of aphthous ulcer of the oral mucosa characterized in that it comprises: - a substantially anhydrous mixture including a mixed partial salt of calcium/sodium of a copolymer of methylvinylether and maleic anhydride; - carboxymethylcellulose; - vaseline oil and white vaseline; - xylitol; - chlorobutanol and sodium benzoate; - mallow extract and stearyl glycyrrhizate; - vitamin E acetate, vitamin A palmitate, and D-panthenol; - carboxymethylbetaglucan, lyophilized aloe vera, zinc oxide; - adjuvants comprising colorants and aromatizing agents. - a substantially anhydrous mixture including a mixed partial salt of calcium/sodium of a copolymer of methylvinylether and maleic anhydride; - carboxymethylcellulose; - vaseline oil and white vaseline; - xylitol; - chlorobutanol and sodium benzoate; - mallow extract and stearyl glycyrrhizate; - vitamin E acetate, vitamin A palmitate, and D-panthenol; - carboxymethylbetaglucan, lyophilized aloe vera, zinc oxide; - adjuvants comprising colorants and aromatizing agents.
Device for repelling birds from civil and/or industrial facilities where said device is mounted, the device comprising a body containing means for generating light which is emitted by at least one opening provided for in said body, the body of the device comprising a base above which there is arranged a hollow member containing the light generation means, said hollow member comprising at least one perimeter wall in which there is provided the aforementioned opening, one of said hollow member and said light generation means being rotary with respect to said base around a rotation axis perpendicular to the base, on said opening there being provided for a lens adapted to generate a light beam which opens in a fan-like fashion exiting from said lens, characterised in that the light generation means are associated with a support in the hollow member and having an outer wall supporting said light generation means and a longitudinal axial cavity open at the ends thereof, into which there penetrates a shaft, at the vacant end of such shaft there being fixed the hollow member, into the base there being provided for an electric motor having an output drive shaft alternatively fixed to one of said shaft constrained to the hollow member and said support for the light generation means, said electric motor being adapted to drive the element constrained to the drive shaft around said rotation axis.
Glass door lock with a lock case, which has a lock cylinder insertion opening and/or supports a handle rotatable about a handle axis, wherein the lock cylinder insertion opening and/or the handle axis is spaced from a front side of the lock case having the latch in such a way that a lock cylinder inserted into the lock cylinder insertion opening or the handle axis is insertable through standard openings (24, 34) of a glass door leaf, characterized by an energy converter arranged in the lock case, which is capable of converting mechanical power into electrical power and to make electrical power obtained therefrom available to a radio module which is arranged in the lock case and which is set up to automatically transmit at least one, in particular unique, identification signal wirelessly to a receiving device in the event of an energy flow, wherein the lock case, which can be mounted on a glass door leaf, has an open window or a window filled with a dielectric filler piece in its housing, wherein an antenna is provided which is connected to the radio module and radiates an electromagnetic alternating field through the window and the glass door leaf.
A ceiling-embedded air conditioner comprising: a ceiling-embedded casing body that has an air suction path at the center of a lower surface and has an air blowoff path around the air suction path; a turbo fan that is disposed inside the casing body; a heat exchanger that is disposed inside the casing body on an outer peripheral side of the turbo fan; a bell-mouth that guides air sucked from the air suction path toward the inside of the turbo fan; and a first rectifier that is erected on a back surface of the bell-mouth at the air suction path side opposite to an air suction surface of the bell-mouth, the first rectifier configured to suppress swirling airflows generated by part of air blown from the turbo fan swirling along the back surface of the bell-mouth in the same direction as a rotation direction of the turbo fan, wherein the first rectifier has a first rectifying side vertically erected on the back surface of the bell-mouth as a base end and a second rectifying side horizontally extended from the leading end of the first rectifying side, and the first rectifying side is formed in parallel to a ventilation surface of the heat exchanger. a ceiling-embedded casing body that has an air suction path at the center of a lower surface and has an air blowoff path around the air suction path; a turbo fan that is disposed inside the casing body; a heat exchanger that is disposed inside the casing body on an outer peripheral side of the turbo fan; a bell-mouth that guides air sucked from the air suction path toward the inside of the turbo fan; and a first rectifier that is erected on a back surface of the bell-mouth at the air suction path side opposite to an air suction surface of the bell-mouth, the first rectifier configured to suppress swirling airflows generated by part of air blown from the turbo fan swirling along the back surface of the bell-mouth in the same direction as a rotation direction of the turbo fan, wherein the first rectifier has a first rectifying side vertically erected on the back surface of the bell-mouth as a base end and a second rectifying side horizontally extended from the leading end of the first rectifying side, and the first rectifying side is formed in parallel to a ventilation surface of the heat exchanger.
A light-emitting device comprising: a light-emitting element including a light-emitting layer between a first electrode and a second electrode, the light-emitting layer including a first organic compound having a hole-transporting property, a second organic compound having an electron transporting property, and an organometallic complex, wherein the organometallic complex is represented by a formula: and wherein R 1 represents one of an alkyl group and a phenyl group, R 3 represents one of hydrogen and an alkyl group, R 4 to R 12 represent any of hydrogen, an alkyl group, halogen, a haloalkyl group, an alkoxy group, and an alkoxycarbonyl group, and M is iridium. a light-emitting element including a light-emitting layer between a first electrode and a second electrode, the light-emitting layer including a first organic compound having a hole-transporting property, a second organic compound having an electron transporting property, and an organometallic complex,
A bottle crate which is configured for the use in promotional sales with detachable surfaces for advertising media, with the bottle crate being configured of a basic crate with a bottom and four side walls, the crate being equipped at least at one side wall with a separate outer skin configured as an advertising media, the skin being formed by a tubular foil which is attachable to the basic crate by at least partially covering the side walls of the crate, or formed by a foil envelope which is put around the side walls of the basic crate and which is arranged detachably at the basic crate for forming a promotional bottle crate with manufacturer-specific information for a producer of beverages, with the basic crate having an upper edge section, a lower edge section at the bottom side and a (middle) section which is arranged between the upper and lower edge section, onto which the outer skin can be arranged, characterized in that the middle section is bombarded towards the outside at least at the side wall which includes the outer skin and that the bombardment is configured two or three dimensionally.
Method for preparing a drink from buckwheat, comprising the following steps: (i) providing buckwheat malt, (ii) mashing the buckwheat malt while adding enzymes, wherein enzymatic-thermal starch decomposition is carried out, during which process glucoamylase, which hydrolyses 1.4-α-D glycosidic bonds as an exoenzyme, so as to form glucose, and also splits 1.6-α-D glycosidic bonds, is added, and/or wherein thermal starch decomposition is carried out, during which process a thermostable α-amylase, which breaks 1.4-α-D glycosidic bonds as an endoenzyme, is added, and the thermal starch decomposition is carried out in an autoclave at a temperature of from 105°C to 130°C and at a positive pressure of from 0.4 to 0.9 bar, wherein a malt consisting ≥ 99 wt.% buckwheat is used for the mashing process. (i) providing buckwheat malt, (ii) mashing the buckwheat malt while adding enzymes, wherein enzymatic-thermal starch decomposition is carried out, during which process glucoamylase, which hydrolyses 1.4-α-D glycosidic bonds as an exoenzyme, so as to form glucose, and also splits 1.6-α-D glycosidic bonds, is added, and/or wherein thermal starch decomposition is carried out, during which process a thermostable α-amylase, which breaks 1.4-α-D glycosidic bonds as an endoenzyme, is added, and the thermal starch decomposition is carried out in an autoclave at a temperature of from 105°C to 130°C and at a positive pressure of from 0.4 to 0.9 bar, wherein a malt consisting ≥ 99 wt.% buckwheat is used for the mashing process.
A combustor comprising: a chamber into which fuel and air is supplied; an air hole plate located upstream of the chamber and having a plurality of air holes; a plurality of fuel nozzles to supply fuel to the air holes; an inner peripheral flat face on the chamber-side face of the air hole plate; an outer peripheral flat face on the chamber-side face of the air hole plate located upstream of the inner peripheral flat face; and a connecting portion which connects the inner peripheral flat face and the outer peripheral flat face, wherein a center of a chamber side-face of the air hole plate extends further into the chamber than an exit of one of the plurality of the air holes located at an outermost peripheral region of the air plate; characterized in that any first point on any one of exits of the air holes on the chamber-side face of the air hole plate located upstream of any second point on the chamber-side face of the air hole plate is further from the central axis than the second point, wherein a wall face of the connecting portion is slanted in order to make a radial distance from a center axis of the air hole plate to the wall face in a downstream side closer than that in an upstream side, and the wall face of the connecting portion is a frusto-conical shape, wherein the air holes are slanted with respect to a central axis of the air hole plate. a chamber into which fuel and air is supplied; an air hole plate located upstream of the chamber and having a plurality of air holes; a plurality of fuel nozzles to supply fuel to the air holes; an inner peripheral flat face on the chamber-side face of the air hole plate; an outer peripheral flat face on the chamber-side face of the air hole plate located upstream of the inner peripheral flat face; and a connecting portion which connects the inner peripheral flat face and the outer peripheral flat face, wherein a center of a chamber side-face of the air hole plate extends further into the chamber than an exit of one of the plurality of the air holes located at an outermost peripheral region of the air plate; characterized in that any first point on any one of exits of the air holes on the chamber-side face of the air hole plate located upstream of any second point on the chamber-side face of the air hole plate is further from the central axis than the second point, wherein a wall face of the connecting portion is slanted in order to make a radial distance from a center axis of the air hole plate to the wall face in a downstream side closer than that in an upstream side, and the wall face of the connecting portion is a frusto-conical shape, wherein the air holes are slanted with respect to a central axis of the air hole plate.