mhurhangee/ep-ind-claims huggingface dataset:
Aircraft comprising: - sensing means; - a moving system adapted for use when the aircraft is in flight to move the sensing means of the aircraft between a rest position, wherein the sensing means are arranged inside the aircraft, and a work position, wherein the sensing means face directly, along a sensing direction (y), toward the outside of the aircraft and toward the ground when the aircraft is in flight, the moving system comprising: - a frame arranged inside the aircraft; - a slide, adapted to support said sensing means; and - a pair of guides, each comprising a rail part, supported on said frame, and at least one draw part (16b; 16b'), the draw part (16b; 16b') of each guide being arranged telescopically slidable relative to the respective rail part along a direction of movement (x) which is essentially perpendicular to said sensing direction (y); the slide being mounted integrally with the draw parts (16b; 16b') of the pair of guides in such a way to slide along the direction of movement (x) inside the aircraft to move said sensing means between said rest position and said work position. - sensing means; - a moving system adapted for use when the aircraft is in flight to move the sensing means of the aircraft between a rest position, wherein the sensing means are arranged inside the aircraft, and a work position, wherein the sensing means face directly, along a sensing direction (y), toward the outside of the aircraft and toward the ground when the aircraft is in flight, the moving system comprising: - a frame arranged inside the aircraft; - a slide, adapted to support said sensing means; and - a pair of guides, each comprising a rail part, supported on said frame, and at least one draw part (16b; 16b'), the draw part (16b; 16b') of each guide being arranged telescopically slidable relative to the respective rail part along a direction of movement (x) which is essentially perpendicular to said sensing direction (y); the slide being mounted integrally with the draw parts (16b; 16b') of the pair of guides in such a way to slide along the direction of movement (x) inside the aircraft to move said sensing means between said rest position and said work position. - a frame arranged inside the aircraft; - a slide, adapted to support said sensing means; and - a pair of guides, each comprising a rail part, supported on said frame, and at least one draw part (16b; 16b'), the draw part (16b; 16b') of each guide being arranged telescopically slidable relative to the respective rail part along a direction of movement (x) which is essentially perpendicular to said sensing direction (y);
A carbon dioxide gas processing method comprising the steps of: oxidizing magnesium-containing powder in an atmosphere of a gas containing oxygen as a constituent element thereof, thereby to produce a magnesium oxide; adding the produced magnesium oxide to water or a water solution; and bringing carbon dioxide gas into contact with said water or said water solution, thereby to immobilize the carbon dioxide gas as magnesium carbonate. oxidizing magnesium-containing powder in an atmosphere of a gas containing oxygen as a constituent element thereof, thereby to produce a magnesium oxide; adding the produced magnesium oxide to water or a water solution; and bringing carbon dioxide gas into contact with said water or said water solution, thereby to immobilize the carbon dioxide gas as magnesium carbonate.
A crystal form of N-[2,4-bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide, characterized by: (a) an X-ray powder diffraction pattern having one or more peaks (2θ) at 6.2 ± 0.2, 7.6 ± 0.2, 12.3 ± 0.2, and 18.0 ± 0.2 degrees obtained using Cu K alpha radiation; and/or (b) a monoclinic crystal system, a P2 1 space grouping, and the following unit cell dimensions: a = 11.8011 Å α= 90° b = 5.9819 Å β= 105.110 ° c = 14.7974 Å γ = 90°. (a) an X-ray powder diffraction pattern having one or more peaks (2θ) at 6.2 ± 0.2, 7.6 ± 0.2, 12.3 ± 0.2, and 18.0 ± 0.2 degrees obtained using Cu K alpha radiation; and/or (b) a monoclinic crystal system, a P2 1 space grouping, and the following unit cell dimensions: a = 11.8011 Å α= 90° b = 5.9819 Å β= 105.110 ° c = 14.7974 Å γ = 90°.
A method comprising: loading a first composite skin, a second composite skin, and a hollow cell core into a tool comprising opposing dies; closing the tool to form an interior shape between the dies; and compressing the first composite skin, the second composite skin, and the hollow cell core using the opposing dies to form and consolidate a composite sandwich panel and applying an over-crush pressure to portions of the composite sandwich panel to form a first over-crush edge region comprising a first edge and a first transition region, the first edge having a first thickness at least 40% less than a nominal thickness of the composite sandwich panel, the nominal thickness being the thickness of the composite sandwich panel away from the first over-crush edge region after consolidating the first composite skin, the hollow cell core, and the second composite skin, wherein the interior shape forms the first over-crush edge region, and wherein the interior shape further comprises a periphery region having a thickness greater than the nominal thickness. loading a first composite skin, a second composite skin, and a hollow cell core into a tool comprising opposing dies; closing the tool to form an interior shape between the dies; and compressing the first composite skin, the second composite skin, and the hollow cell core using the opposing dies to form and consolidate a composite sandwich panel and applying an over-crush pressure to portions of the composite sandwich panel to form a first over-crush edge region comprising a first edge and a first transition region, the first edge having a first thickness at least 40% less than a nominal thickness of the composite sandwich panel, the nominal thickness being the thickness of the composite sandwich panel away from the first over-crush edge region after consolidating the first composite skin, the hollow cell core, and the second composite skin,
A pouring accessory (1; 1'; 1", 1"') for a beverage dispensing machine, said pouring accessory comprising a leg supporting a container, said container delimiting at least one inner volume and comprising an upper opening for filling said inner volume of the container, said container further being provided with at least two external pouring spouts (4 or 4'), which communicate with the inner volume of the container, and the container and the external pouring pouts (4 or 4') being designed so as to allow the flow by gravity toward the outside of the container simultaneously through the pouring spouts (4 or 4') of a liquid contained in the inner volume of the container.
A furniture element (100, 600, 8000, 942, 1042) comprising a first sheet (102, 602, 802,902) of board material; a second sheet (104, 604, 804, 932) of board material arranged with the first sheet to form a structure of the furniture element, the furniture element being characterised by a connective element (106, 606, 806, 912, 1012) having at least a part thereof arranged between the first and second sheet material such that when, arranging the first sheet, the second sheet and the connective element, the first sheet, the second sheet and the connective element become integral parts of the furniture element, and the connective element comprises any of a group comprising snap lock, bayonet lock, bolt receiver, groove, protrusion and hook element being arranged to receive mating connective elements for connection of remote furniture elements.
Zeolite adsorbent comprising zeolite X crystals and comprising barium, potassium, strontium and sodium, wherein the K 2 O / (K 2 O + SrO + BaO + Na 2 O) molar ratio of the species in oxide form is comprised between 1.5% and 8.0%, limits included, and the SrO / (K 2 O + SrO + BaO + Na 2 O) molar ratio of the species in oxide form is comprised between 0.5% and 8.0%, limits included, preferably the zeolite X crystals having an Si/AI atomic ratio comprised between 1.00 and 1.50 limits included.
A temporary sleeping arrangement 10 for a vehicle which has at least two seats 12, the arrangement 10 comprising first and second elongate support members, with a fabric support structure extending between the first and second elongate support members 16, 18, the first elongate support member 16 being mounted to one side of the fabric support structure 20 and being locatable in use extending between two support points one on either side of the interior of a vehicle, spaced from two of the vehicles seats 12, the second elongate support member 18 being mounted to the other side of the fabric support structure 20, and locatable in use extending on the opposite side of the said two seats 12 to the first elongate support member 16, the fabric support structure 20 including first portions 26 extending from the second elongate support member 18 which each locate in use over the top of the back of a respective one of the seats 12, and second portions 30, 32 which extend from the second elongate support member 18, which portions locate in use to the sides of the backs of the seats 12, characterized in that the arrangement 10 is configured for use with seats 12 with headrests 14, with the fabric support structure first portions 26 engageable over the respective headrests 14, the fabric support structure first portions 26 being longer than the fabric support structure second portions 30, 32.
A system, comprising: an input patch to receive a window (308, 402) of pixels of an input image; a transformation selector to generate control data to control a geometric transformation mapping based on a location of a current pixel being processed; and a hardware geometric transform engine comprising a switch network (410, 464, 510) to perform a geometric transformation mapping by switching on one path through the switch network (410, 464, 510) from an input window to an output using the control data, wherein the window (308, 402) of pixels includes a fixed set of neighboring pixels around a current pixel, wherein the control data comprises a set of control bits (462A, 462B, 508) generated by the transformation selector based on the location of the window (308, 402) of pixels, wherein the control bits (462A, 462B, 508) are used for switching on the one path, characterized in that the system is a two dimensional distortion correction system, wherein the switch network (410, 464, 510) comprises an array of multiplexers for transforming input image data according to the set of control bits (462A, 462B, 508), wherein the set of control bits (462A, 462B, 508) is predefined by a constant piecewise geometric transformation of the window (308, 402) of pixels optimized for the correction of a pincushion distortion or a barrel distortion. an input patch to receive a window (308, 402) of pixels of an input image; a transformation selector to generate control data to control a geometric transformation mapping based on a location of a current pixel being processed; and a hardware geometric transform engine comprising a switch network (410, 464, 510) to perform a geometric transformation mapping by switching on one path through the switch network (410, 464, 510) from an input window to an output using the control data, wherein the window (308, 402) of pixels includes a fixed set of neighboring pixels around a current pixel, wherein the control data comprises a set of control bits (462A, 462B, 508) generated by the transformation selector based on the location of the window (308, 402) of pixels, wherein the control bits (462A, 462B, 508) are used for switching on the one path, characterized in that the system is a two dimensional distortion correction system, wherein the switch network (410, 464, 510) comprises an array of multiplexers for transforming input image data according to the set of control bits (462A, 462B, 508), wherein the set of control bits (462A, 462B, 508) is predefined by a constant piecewise geometric transformation of the window (308, 402) of pixels optimized for the correction of a pincushion distortion or a barrel distortion.
Cooking appliance with a plurality of guides for guiding food holders, in particular baking trays, wherein the guides are arranged on side walls of a cooking appliance muffle, wherein an insert holder with the plurality of guides is arranged on the side walls and that the insert holder has a frame element which connects the guides and which is aligned at right angles to the pull-out direction of the guides, characterised in that a pull-out direction of the guides slopes at an angle of inclination (a) of at least 1° with respect to the horizontal from a muffle opening toward the cooking appliance interior.
An electronic device for echo reduction in a reverberant environment, comprising: circuitry that receives a set of runtime audio signals, and sends the runtime audio signals to a plurality of acoustic output devices; a microphone array comprising at least two microphones; mixing circuitry that mixes the set of runtime audio signals based on a set of acoustic paths between the plurality of acoustic output devices and the microphone array to determine a reference signal; wherein the microphone array receives through an acoustic channel, at least one composite audio signal comprising the audio signals output by the plurality of acoustic output devices; means for performing beamforming to suppress acoustic signals in a direction corresponding to at least one of the acoustic paths from the at least one composite audio signal to generate a suppressed signal; and echo reduction circuitry (3248,3250) that performs echo reduction on the suppressed signal for directions other than those corresponding to the at least one acoustic path that has been suppressed by beamforming. circuitry that receives a set of runtime audio signals, and sends the runtime audio signals to a plurality of acoustic output devices; a microphone array comprising at least two microphones; mixing circuitry that mixes the set of runtime audio signals based on a set of acoustic paths between the plurality of acoustic output devices and the microphone array to determine a reference signal; wherein the microphone array receives through an acoustic channel, at least one composite audio signal comprising the audio signals output by the plurality of acoustic output devices; means for performing beamforming to suppress acoustic signals in a direction corresponding to at least one of the acoustic paths from the at least one composite audio signal to generate a suppressed signal; and echo reduction circuitry (3248,3250) that performs echo reduction on the suppressed signal for directions other than those corresponding to the at least one acoustic path that has been suppressed by beamforming.
A welding wire formed from an AA5356 aluminum-magnesium alloy comprising, by weight: 4.5% to 5.5% magnesium; 0.10% or less copper; 0.05 to 0.20% manganese; 0.05 to 0.20% chromium 0.10% or less zinc; 0.06 to 0.20% titanium; 0.0003% or less beryllium; boron; 0.12% or less, by weight, iron; and 0.12% or less, by weight, silicon; 0.05% or less each other element with a total of less than 0.15% of each other element, the remainder being aluminum and wherein the weight ratio of titanium to boron is 25:1 or greater. 4.5% to 5.5% magnesium; 0.10% or less copper; 0.05 to 0.20% manganese; 0.05 to 0.20% chromium 0.10% or less zinc; 0.06 to 0.20% titanium; 0.0003% or less beryllium; boron; 0.12% or less, by weight, iron; and 0.12% or less, by weight, silicon; 0.05% or less each other element with a total of less than 0.15% of each other element, the remainder being aluminum and wherein the weight ratio of titanium to boron is 25:1 or greater.
A print quality inspection apparatus, comprising: an illuminator (35, 35A-35D) that emits light onto a printing product provided with a motion thread; an image capturing device (34, 34A) that captures an image of the printing product; and a print quality inspection unit that inspects print quality of the printing product based on image data captured by the image capturing device (34, 34A), characterized in that the image capturing device captures RGB images of the printing product and the print quality inspection unit performs inspection of print quality of an area including the motion thread based on image data of a color of the same hue as a color of the motion thread, or the illuminator (35A-35C) emits light of the color of the same hue as the color of the motion thread and the image capturing device captures a monochrome image. an illuminator (35, 35A-35D) that emits light onto a printing product provided with a motion thread; an image capturing device (34, 34A) that captures an image of the printing product; and a print quality inspection unit that inspects print quality of the printing product based on image data captured by the image capturing device (34, 34A), characterized in that the image capturing device captures RGB images of the printing product and the print quality inspection unit performs inspection of print quality of an area including the motion thread based on image data of a color of the same hue as a color of the motion thread, or the illuminator (35A-35C) emits light of the color of the same hue as the color of the motion thread and the image capturing device captures a monochrome image.
Control button for a toilet flushing mechanism, the control button being configured so as to engage with an opening in a lid of a toilet cistern, the control button comprising: - at least one push button, in particular two push buttons (4, 5); - a body bearing said at least one push button and comprising a base; - a nut intended to engage with the base to retain the control button on the lid; said control button comprising a single adapter ring configured such that the same control button can engage, by changing the positioning of the adapter ring, with at least three openings of different diameters, characterised in that the adapter ring, having a cylindrical central portion, extends between a first end forming an outer circular flange, in particular substantially perpendicular to the cylindrical central portion, and a second end forming a circular shoulder extending inwards from the cylindrical central portion substantially perpendicularly to the cylindrical central portion of the adapter ring. - at least one push button, in particular two push buttons (4, 5); - a body bearing said at least one push button and comprising a base; - a nut intended to engage with the base to retain the control button on the lid;
Method performed by an ECU to control energy flows of a vehicle, wherein said vehicle comprises an energy main system and a plurality of energy auxiliary systems (GEN, B, C), wherein said energy main system providing energy to the vehicle, and said plurality of energy auxiliary systems (GEN, B, C) comprises at least an energy buffer and an energy converter (GEN, C), whereby the method comprising steps where; a first price (Pm) is set for energy provided from the energy main system, wherein the first price (Pm) is dependent of energy main system specific parameters, and a respective price (PB1, PBn, P2) is set for energy provided from the respective auxiliary system (GEN, B, C), wherein the respective price (PB1, PBn, P2) is dependent of parameters of the respective auxiliary system (GEN, B, C), wherein energy is provided to the respective auxiliary system (GEN, B, C) from the one of the main system or the auxiliary systems (GEN, B, C), for which the lowest price (Pm, P2, PB1, PBn) is set, wherein the energy buffer and the energy converter has an individual price limit for being provided with energy, wherein the energy buffer and the energy converter only is provided with energy if they can be provided with energy to a price (Pm, P2, PB1, PBn) which is lower than the individual price limit for that energy buffer and energy converter. said energy main system providing energy to the vehicle, and said plurality of energy auxiliary systems (GEN, B, C) comprises at least an energy buffer and an energy converter (GEN, C), whereby the method comprising steps where;
An efficient and simple process for obtaining a concentrate containing more than 80% by weight of ω-3 fatty acid ethyl esters from a composition of matter comprising ω-3 fatty acid esters or free ω-3 fatty acids, the process comprising the steps of: a) contacting the composition of matter with ethanol having an ethanol content of at least 96% by weight and containing 4% by weight or less of water, and an alkali metal hydroxide at a temperature between 60°C and 200°C to form a liquid mixture comprising alkali metal salts of fatty acids; b) cooling the liquid mixture to a temperature between 50 and -20°C to form a solid and a liquid phase, and separating the liquid phase comprising ω-3 fatty acids from the solid phase; c) contacting the separated liquid phase of stage b) with an acid to form an acidified mixture with a water content under 10%, wherein the mixture consists of a solid phase that includes the alkali metal salt of the acid and a liquid phase that comprises ω-3 fatty acids; d) heating the acidified mixture of step c) free of salts of the alkali metal in the presence of an esterification catalyst at a temperature between 50 °C and 150 °C to form a mixture comprising ethyl esters of ω-3 fatty acids; e) contacting the mixture of step d) with an alkali to form a neutralized mixture; and f) distilling the neutralized mixture to obtain a distillate comprising more than 80% of ethyl esters of ω-3 fatty acids. a) contacting the composition of matter with ethanol having an ethanol content of at least 96% by weight and containing 4% by weight or less of water, and an alkali metal hydroxide at a temperature between 60°C and 200°C to form a liquid mixture comprising alkali metal salts of fatty acids; b) cooling the liquid mixture to a temperature between 50 and -20°C to form a solid and a liquid phase, and separating the liquid phase comprising ω-3 fatty acids from the solid phase; c) contacting the separated liquid phase of stage b) with an acid to form an acidified mixture with a water content under 10%, wherein the mixture consists of a solid phase that includes the alkali metal salt of the acid and a liquid phase that comprises ω-3 fatty acids; d) heating the acidified mixture of step c) free of salts of the alkali metal in the presence of an esterification catalyst at a temperature between 50 °C and 150 °C to form a mixture comprising ethyl esters of ω-3 fatty acids; e) contacting the mixture of step d) with an alkali to form a neutralized mixture; and f) distilling the neutralized mixture to obtain a distillate comprising more than 80% of ethyl esters of ω-3 fatty acids.