mhurhangee/ep-ind-claims huggingface dataset:
A low foreign object damage weighted nose decoy flare comprising: a hollow cartridge case having a closed aft end and an open forward end for containing and launching a decoy flare; an ejectable flare pellet subassembly forwardly disposed within said cartridge case; a nose cup having a closed end, an open end, and at least one side wall attached to said closed end, said at least one side wall extending through said open end inside said cartridge case adjacent to said flare pellet assembly creating an internal cavity of said nose cup intermediate to said closed end of said nose cup and a forward end of said flare pellet subassembly, said side wall surrounding said internal cavity; a metal powder disposed within the internal cavity for weighing down the forward end of the decoy flare, said forward end of said flare pellet subassembly adjacent to a surface of said metal powder; and an adhesive intermediate to said at least one side wall of said nose cup and said flare pellet subassembly affixing said nose cup to said forward end of said flare pellet subassembly whereby heat from the burning of the flare pellet subassembly burns the side wall of the nose cup changing its aerodynamics such that the nose cup tumbles through the air upon burn out of the flare pellet subassembly spilling the metal powder. a hollow cartridge case having a closed aft end and an open forward end for containing and launching a decoy flare; an ejectable flare pellet subassembly forwardly disposed within said cartridge case; a nose cup having a closed end, an open end, and at least one side wall attached to said closed end, said at least one side wall extending through said open end inside said cartridge case adjacent to said flare pellet assembly creating an internal cavity of said nose cup intermediate to said closed end of said nose cup and a forward end of said flare pellet subassembly, said side wall surrounding said internal cavity; a metal powder disposed within the internal cavity for weighing down the forward end of the decoy flare, said forward end of said flare pellet subassembly adjacent to a surface of said metal powder; and an adhesive intermediate to said at least one side wall of said nose cup and said flare pellet subassembly affixing said nose cup to said forward end of said flare pellet subassembly whereby heat from the burning of the flare pellet subassembly burns the side wall of the nose cup changing its aerodynamics such that the nose cup tumbles through the air upon burn out of the flare pellet subassembly spilling the metal powder.
A capacitor comprising: - an enclosure; - an insulating material contained in the enclosure; - a capacitive device comprising two conductive layers (30, 32) and at least one dielectric layer formed from a dielectric material and inserted between the two conductive layers (30, 32); and - a protection device comprising a mechanism for disconnecting the capacitive device in case of overpressure in the enclosure; further comprising, inside the enclosure, a degassing material capable of releasing gas at a degassing temperature (Tgaz) below the decomposition temperature of the dielectric material to generate an overpressure in the enclosure, characterized in that the degassing material is formed by aluminum hydroxide. - an enclosure; - an insulating material contained in the enclosure; - a capacitive device comprising two conductive layers (30, 32) and at least one dielectric layer formed from a dielectric material and inserted between the two conductive layers (30, 32); and - a protection device comprising a mechanism for disconnecting the capacitive device in case of overpressure in the enclosure;
A retrofit LED lighting device for connection to a ballast, wherein said ballast is arranged to be connected to a mains voltage and arranged to provide for a ballast current, wherein said LED lighting device is arranged to detect a dip in said mains voltage, said retrofit LED lighting device comprising: - at least one LED for emitting light; - a rectifier (17, 18, 19, 20) arranged for rectifying said ballast current and for providing a lamp current to said at least one LED; - a zero current detector arranged for detecting a zero value of said lamp current or of said ballast current; - a shunt switch for shunting said at least one LED such that said lamp current bypasses said at least one LED; - a signal generator coupled to said zero current detector, characterised - in that said signal generator is arranged for outputting a monotonic wave form signal starting from a base level, wherein said signal generator is arranged to reset said outputted monotonic waveform signal from a reset level to said base level upon a detected zero value by said zero current detector; and - by a control unit arranged for determining a dip in said mains voltage by determining that said outputted wave form signal crosses a voltage dip threshold after having passed said reset level. - at least one LED for emitting light; - a rectifier (17, 18, 19, 20) arranged for rectifying said ballast current and for providing a lamp current to said at least one LED; - a zero current detector arranged for detecting a zero value of said lamp current or of said ballast current; - a shunt switch for shunting said at least one LED such that said lamp current bypasses said at least one LED; - a signal generator coupled to said zero current detector, - in that said signal generator is arranged for outputting a monotonic wave form signal starting from a base level, wherein said signal generator is arranged to reset said outputted monotonic waveform signal from a reset level to said base level upon a detected zero value by said zero current detector; and - by a control unit arranged for determining a dip in said mains voltage by determining that said outputted wave form signal crosses a voltage dip threshold after having passed said reset level.
A semiconductor light-emitting device comprising: a semiconductor light-emitting element for emitting a blue light having a peak wavelength in a range of 420 to 480 nm; a first fluorescent material for absorbing the blue light to emit a light having a first peak wavelength in a range of 520 to 550 nm, wherein the first fluorescent material is Ce-activated Lu 3 Al 5 O 12; and a second fluorescent material for absorbing the blue light to emit a light having a second peak wavelength that is in a range of 595 to 620 nm, wherein the second fluorescent material is an Eu-activated α-SiAlON. a semiconductor light-emitting element for emitting a blue light having a peak wavelength in a range of 420 to 480 nm; a first fluorescent material for absorbing the blue light to emit a light having a first peak wavelength in a range of 520 to 550 nm, wherein the first fluorescent material is Ce-activated Lu 3 Al 5 O 12; and a second fluorescent material for absorbing the blue light to emit a light having a second peak wavelength that is in a range of 595 to 620 nm, wherein the second fluorescent material is an Eu-activated α-SiAlON.
An electronic control unit assembly structure of a brake system, comprising: a housing having spaces separated by a partition; a first control unit and a second control unit which are independently disposed in the spaces separated by the partition; a first microcontroller unit and a second MCU respectively positioned in the first control unit and the second control unit; a motor controlled by the first MCU or the second MCU to generate a driving force in a hydraulic piston; and a motor position sensor configured to detect a rotational position of the motor, wherein the second control unit constitutes redundancy of the first control unit to perform the same function. a housing having spaces separated by a partition; a first control unit and a second control unit which are independently disposed in the spaces separated by the partition; a first microcontroller unit and a second MCU respectively positioned in the first control unit and the second control unit; a motor controlled by the first MCU or the second MCU to generate a driving force in a hydraulic piston; and a motor position sensor configured to detect a rotational position of the motor, wherein the second control unit constitutes redundancy of the first control unit to perform the same function.
A method for forming a coating film comprising: Step 1: a step of applying a liquid composition I comprising a solvent A, a solvent B, and a polymer C to a base material; wherein a boiling point of the solvent A is lower than 99°C, and a distance Ra of the Hansen solubility parameter of the solvent A to water as expressed by the following equation is 36 or less, a boiling point of the solvent B is 150°C or higher, and a distance Ra of the Hansen solubility parameter of the solvent B to water as expressed by the following equation is 40 or more, and the solvent A and the solvent B are mutually dissolved, the polymer C is soluble in the solvent A but insoluble in the solvent B; and Step 2: a step of applying droplets of a liquid II comprising water to the liquid composition I on the base material as applied in the step 1, wherein an average diameter d of the droplets applied in the step 2 is 0.01 μm or more and 50 μm or less, Ra = 4 × ΔD 2 + ΔP 2 + ΔH 2 0.5 wherein, ΔD is a difference of dispersing component in the Hansen solubility parameter between a solvent and water, ΔP is a difference of polar component in the Hansen solubility parameter between a solvent and water, and ΔH is a difference of hydrogen-binding component in the Hansen solubility parameter between a solvent as and water. Step 1: a step of applying a liquid composition I comprising a solvent A, a solvent B, and a polymer C to a base material; wherein a boiling point of the solvent A is lower than 99°C, and a distance Ra of the Hansen solubility parameter of the solvent A to water as expressed by the following equation is 36 or less, a boiling point of the solvent B is 150°C or higher, and a distance Ra of the Hansen solubility parameter of the solvent B to water as expressed by the following equation is 40 or more, and the solvent A and the solvent B are mutually dissolved, the polymer C is soluble in the solvent A but insoluble in the solvent B; and Step 2: a step of applying droplets of a liquid II comprising water to the liquid composition I on the base material as applied in the step 1, wherein an average diameter d of the droplets applied in the step 2 is 0.01 μm or more and 50 μm or less, Ra = 4 × ΔD 2 + ΔP 2 + ΔH 2 0.5 wherein, ΔD is a difference of dispersing component in the Hansen solubility parameter between a solvent and water, ΔP is a difference of polar component in the Hansen solubility parameter between a solvent and water, and ΔH is a difference of hydrogen-binding component in the Hansen solubility parameter between a solvent as and water. ΔD is a difference of dispersing component in the Hansen solubility parameter between a solvent and water, ΔP is a difference of polar component in the Hansen solubility parameter between a solvent and water, and ΔH is a difference of hydrogen-binding component in the Hansen solubility parameter between a solvent as and water.
Transmission apparatus with power split, with a first power branch which has at least one hydrostatic device with at least two hydrostatic shafts (28, 29), and with a second power branch which is operatively connected to the said first power branch via a power split device, in each case at least two driving ranges for forward and reverse driving being provided which can be switched over in each case via at least one shifting element (K1 to K3) to be disconnected and at least one shifting element (K1 to K3) to be connected, each of the shifting elements (K1 to K3) being arranged on a separate countershaft (14, 15, 16), it being possible for a countershaft which is provided to produce a further driving range to be coupled via a gearwheel to a fixed gear which is operatively connected to a shaft of the power split device, the power split device which is provided for power splitting and for summing the parts of the prevailing torque which can be conducted via the power branches being a gear device which is configured as a planetary gear mechanism and has two sun gears (21, 22) which are in engagement with common double planetary gears which in turn mesh with an internal gear, characterized in that the gearwheel of the countershaft which is provided to produce a further driving range is in engagement with a gearwheel which is connected to the internal gear of the power split device or with a fixed gear which meshes with the said gearwheel.
A screw-cap closure for an associated bottle, said screw-cap closure being formed using a minimum amount of material and comprising a closure shell; the closure shell comprising a cylindrical sidewall connected to a top panel and having an open end for joining an open end of the associated bottle; wherein the top panel comprises sealing features including an inner and outer seal ridge configured to seal the open end of the associated bottle; wherein the cylindrical sidewall of the closure shell comprises an inner surface and an outer surface; wherein an outer surface of the cylindrical sidewall comprises vertical ridges in an axial direction; wherein an inner surface of the cylindrical sidewall comprises a plurality of thread segments and vertical venting recesses; wherein the plurality of thread segments helically traverse the inner surface of the cylindrical sidewall and start proximally at the open end of the closure shell and ending at the top panel; wherein the plurality of thread segments are separated by vertical venting recesses in a circumferential direction to form axially aligned groups of thread segments; wherein the axially aligned groups of thread segments are supported on both ends by vertical panels, said vertical panels having an increased wall thickness with respect to the wall thickness at the location of the vertical venting recesses and interstitial recesses; wherein said vertical venting recesses and said interstitial recesses have the same sidewall thickness; and wherein said interstitial recesses are formed in an interior width of the axially aligned groups of thread segments and interstitially between thread segments along the axial direction.
A ram air fan assembly, comprising: a ram air inlet; a heat exchanger disposed in the ram air inlet; an RAF disposed in the ram air inlet to drive airflow through the heat exchanger; a pressure sensor disposed in the ram air inlet proximate to the RAF; and a controller operably coupled to the RAF and the pressure sensor, the controller being configured to drive rotations of the RAF to achieve a target RAF rotational speed in accordance with a determination that a pressure reading generated by the pressure sensor is indicative of a surge event; characterised in that the controller is configured to determine that the pressure reading generated by the sensor is indicative of the surge event in an event that the pressure reading comprises numbers of extra-parameter fluctuations in a predefined time; wherein the extra-parameter fluctuations are fluctuations in which the parameter fluctuates between the minimums below a predefined lower parameter range and maximums above a predefined upper parameter range. a ram air inlet; a heat exchanger disposed in the ram air inlet; an RAF disposed in the ram air inlet to drive airflow through the heat exchanger; a pressure sensor disposed in the ram air inlet proximate to the RAF; and a controller operably coupled to the RAF and the pressure sensor, the controller being configured to drive rotations of the RAF to achieve a target RAF rotational speed in accordance with a determination that a pressure reading generated by the pressure sensor is indicative of a surge event; characterised in that the controller is configured to determine that the pressure reading generated by the sensor is indicative of the surge event in an event that the pressure reading comprises numbers of extra-parameter fluctuations in a predefined time; wherein the extra-parameter fluctuations are fluctuations in which the parameter fluctuates between the minimums below a predefined lower parameter range and maximums above a predefined upper parameter range.
A vertical ammonia converter with radial flow catalytic beds comprising a container formed of an external casing and provided with an internal tubular wall with a double conduit intended to convey effluents upwardly and downwardly, said tubular wall being made of a multitude of vertical tubular elements arranged in a crown on the edge of the internal wall of said external casing, said tubular elements being made of tubes (2, 3) with gas tight wall, opened at their lower and upper ends to convey an effluent to be treated in the upward direction of an injection chamber located in lower part of said casing towards a distribution chamber located in an upper part of said casing, tubes to which are coupled filtering media (211, 222, 233; 321, 322; 333) over the height of a catalytic bed (LA, LB, LC), filtering media being open at their upper end to allow the entry of an effluent flowing downwardly and closed at their lower end to convey this effluent and to diffuse it through their face permeable to said effluent towards the catalytic bed retained on its external face by said filtering media.
A reactor for continuously coating tow fibers, said reactor comprising: an outer tubular member; an inner support member (30; 30') spaced from said outer tubular member; a reactant flowing through a space defined by said outer tubular member and said inner support member (30; 30'); and at least one flow promoter (38; 38') located on an outer surface (34; 34') of said inner support member (30; 30') for directing said reactant towards an inner surface of said outer tubular member. an outer tubular member; an inner support member (30; 30') spaced from said outer tubular member; a reactant flowing through a space defined by said outer tubular member and said inner support member (30; 30'); and at least one flow promoter (38; 38') located on an outer surface (34; 34') of said inner support member (30; 30') for directing said reactant towards an inner surface of said outer tubular member.
A process for preparing an iron-containing zeolitic material with the CHA or LEV topologies, which comprises doping with iron by means of a gas phase reaction using iron pentacarbonyl and performing the doping with iron in two component steps: (i) gas phase loading and (ii) thermal decomposition, wherein, in a further component step (iii), a carrier gas is flowed through the zeolitic material at temperatures of 500 to 1000°C at a pressure of 0.1 to 10 bar, the carrier gas used being steam.
A computer-implemented method of detecting an occlusion from point cloud data, the method comprising: receiving, from a data collection mobile device, point cloud data for a scene; generating, from the point cloud data, a grid representation of a region of interest in the scene, wherein the grid representation comprises free space, occupied space and hidden space, wherein a hidden space corresponds to a location without point cloud data; and identifying an occlusion in the region of interest based on the hidden space of the grid representation; characterised in that the method further comprises: characterizing the occlusion based on a shape of the hidden space, the shape determined by connected component analysis of the hidden space; analyzing a shape of the occlusion to identify an object causing the occlusion; and updating, based on the shape of the occlusion, a localization model with: additional sensor data for the occlusion; or an identified false negative for the occlusion. receiving, from a data collection mobile device, point cloud data for a scene; generating, from the point cloud data, a grid representation of a region of interest in the scene, wherein the grid representation comprises free space, occupied space and hidden space, wherein a hidden space corresponds to a location without point cloud data; and identifying an occlusion in the region of interest based on the hidden space of the grid representation; characterised in that the method further comprises: characterizing the occlusion based on a shape of the hidden space, the shape determined by connected component analysis of the hidden space; analyzing a shape of the occlusion to identify an object causing the occlusion; and updating, based on the shape of the occlusion, a localization model with: additional sensor data for the occlusion; or an identified false negative for the occlusion. characterizing the occlusion based on a shape of the hidden space, the shape determined by connected component analysis of the hidden space; analyzing a shape of the occlusion to identify an object causing the occlusion; and updating, based on the shape of the occlusion, a localization model with: additional sensor data for the occlusion; or an identified false negative for the occlusion. additional sensor data for the occlusion; or an identified false negative for the occlusion.
A home appliance comprising: a wireless communication unit; a drive unit; an acoustic output module configured to output sound; a microphone configured to receive sound from an external source; a memory configured to store information related to the home appliance when the home appliance is being operated; an acoustic communication unit configured to extract prescribed information from the sound received via the microphone based on an acoustic communication mode; and a controller configured to control the drive unit according to the information extracted by the acoustic communication unit, wherein the controller is configured to: extract network information regarding a first access point device from the sound received via the microphone, access the first access point device using the extracted network information, and access a prescribed server via the first access point device. a wireless communication unit; a drive unit; an acoustic output module configured to output sound; a microphone configured to receive sound from an external source; a memory configured to store information related to the home appliance when the home appliance is being operated; an acoustic communication unit configured to extract prescribed information from the sound received via the microphone based on an acoustic communication mode; and a controller configured to control the drive unit according to the information extracted by the acoustic communication unit, wherein the controller is configured to: extract network information regarding a first access point device from the sound received via the microphone, access the first access point device using the extracted network information, and access a prescribed server via the first access point device. extract network information regarding a first access point device from the sound received via the microphone, access the first access point device using the extracted network information, and access a prescribed server via the first access point device.