mhurhangee/ep-ind-claims huggingface dataset:
Wave-spring element for a bar loading apparatus, comprising a plurality of turn elements arranged adjacent to one another, said plurality of turn elements being defined by first groups of turn elements with a greater diameter and second groups of turn elements with a lesser diameter, said first groups and said second groups alternating along a longitudinal axis so as to define a surface having a sinusoidal profile, said plurality of turn elements being configured for containing and guiding a bar to a machine tool, such as a lathe, and for damping the flexure vibrations to which said bar is subjected during rotation thereof, there being further provided bush means arranged inside each second group of turns having a lesser diameter, said bush means being configured for coming into contact with, and receiving inside, respective portions of said bar to avoid contact thereof with, and sliding with respect to said turns, the wave-spring element being characterized in that on an outer surface of said bush means recess-housing-seats are obtained that extend sinusoidally and are shaped for housing the respective turns and maintain said turns in a stationary position with respect to said bush means.
An LED light source comprising: a housing having a base; a hollow core; a first printed circuit board fitted to said base; a second printed circuit board having at least one LED operatively fixed thereto; a plurality of electrical conductors having proximal ends attached to and extending from said second printed circuit board; a cap fitted over said second printed circuit board; and a heat sink attached to said base characterized in that said hollow core is projecting from said base and being substantially conical; said second printed circuit board is fitted to the narrow end of said core; and said electrical conductors having distal ends attached to and projecting through said first printed circuit board. a housing having a base; a hollow core; a first printed circuit board fitted to said base; a second printed circuit board having at least one LED operatively fixed thereto; a plurality of electrical conductors having proximal ends attached to and extending from said second printed circuit board; a cap fitted over said second printed circuit board; and a heat sink attached to said base characterized in that said hollow core is projecting from said base and being substantially conical; said second printed circuit board is fitted to the narrow end of said core; and said electrical conductors having distal ends attached to and projecting through said first printed circuit board.
A method of forming a composite material comprising: (a) forming a first lattice construction from a plurality of solid particles, said construction being formed so as to have one or more gaps between the particles, said gaps being at least partially filled with a first fluid material; (b) partially displacing the first fluid material with an invading fluid material such that the invading fluid material partially penetrates the gaps in the lattice construction; (c) at least partially solidifying the invading fluid material which penetrated the gaps in the lattice construction to form a composite material; and (d) removing at least a portion of the solid particles from the composite material, thereby forming at the location of the removed portion one or more pores in the solidified invading material, wherein a portion of the first fluid is not displaced by the invading fluid; and the method further includes at least partially solidifying the first fluid material, wherein the first fluid material is selected from the group consisting of alcohols, esters, ketones, aromatics, aliphatics, liquid polymers, and combinations thereof. (a) forming a first lattice construction from a plurality of solid particles, said construction being formed so as to have one or more gaps between the particles, said gaps being at least partially filled with a first fluid material; (b) partially displacing the first fluid material with an invading fluid material such that the invading fluid material partially penetrates the gaps in the lattice construction; (c) at least partially solidifying the invading fluid material which penetrated the gaps in the lattice construction to form a composite material; and (d) removing at least a portion of the solid particles from the composite material, thereby forming at the location of the removed portion one or more pores in the solidified invading material, wherein a portion of the first fluid is not displaced by the invading fluid; and the method further includes at least partially solidifying the first fluid material, wherein the first fluid material is selected from the group consisting of alcohols, esters, ketones, aromatics, aliphatics, liquid polymers, and combinations thereof.
An aircraft system, comprising: a processing unit configured to receive navigation data and notice to airmen (NOTAM) information and to generate display signals based on the navigation data and the NOTAM information; a display device coupled to the processing unit and configured to render an image according to the display signals with a first area depicting a navigation display based on the navigation data and a second area depicting NOTAM text messages in the form of a list, wherein each of the NOTAM text messages is based on a notice filed with an aviation authority and each of the NOTAM text messages in the list is depicted as a textual indication of a respective location and nature of the associated notice, wherein the list of NOTAM text messages includes a first NOTAM text message associated with a first location and a second NOTAM text message associated with a second location, and wherein the display device is configured to selectively render a first highlight at the first location and a second highlight at the second location on the navigation display; and a user interface coupled to the processing unit and the display device and configured to receive a user selection of at least one of the NOTAM text messages from the list, and wherein the display device is configured to render the first highlight based on the user selection of the first NOTAM text message and the second highlight based on the user selection of the second NOTAM text message. a processing unit configured to receive navigation data and notice to airmen (NOTAM) information and to generate display signals based on the navigation data and the NOTAM information; a display device coupled to the processing unit and configured to render an image according to the display signals with a first area depicting a navigation display based on the navigation data and a second area depicting NOTAM text messages in the form of a list, wherein each of the NOTAM text messages is based on a notice filed with an aviation authority and each of the NOTAM text messages in the list is depicted as a textual indication of a respective location and nature of the associated notice, wherein the list of NOTAM text messages includes a first NOTAM text message associated with a first location and a second NOTAM text message associated with a second location, and wherein the display device is configured to selectively render a first highlight at the first location and a second highlight at the second location on the navigation display; and a user interface coupled to the processing unit and the display device and configured to receive a user selection of at least one of the NOTAM text messages from the list, and wherein the display device is configured to render the first highlight based on the user selection of the first NOTAM text message and the second highlight based on the user selection of the second NOTAM text message.
Composite particles based on finely divided inorganic solids and organic polymers, wherein the organic polymers are based on a) one or more ethylenically unsaturated monomers selected from the group comprising vinyl esters of carboxylic acids having 1 to 15 carbon atoms, methacrylic esters or acrylic esters of carboxylic acids with unbranched or branched alcohols having 1 to 15 carbon atoms, and olefins, vinyl aromatics and vinyl halides, and b) one or more ethylenically unsaturated carboxylic acids having 3 to 11 carbon atoms, characterized in that the organic polymers have a polydispersity PD of ≥ 2. a) one or more ethylenically unsaturated monomers selected from the group comprising vinyl esters of carboxylic acids having 1 to 15 carbon atoms, methacrylic esters or acrylic esters of carboxylic acids with unbranched or branched alcohols having 1 to 15 carbon atoms, and olefins, vinyl aromatics and vinyl halides, and b) one or more ethylenically unsaturated carboxylic acids having 3 to 11 carbon atoms, characterized in that
A method of removing oxygenates from a hydrocarbon stream, the method comprising: passing a hydrocarbon stream to a caustic tower, wherein the hydrocarbon stream comprises one or more hydrocarbons, one or more oxygen containing components, and one or more sulfur containing compounds, and wherein the caustic tower comprises a plurality of loops; contacting the hydrocarbon stream with a sulfided catalyst between a first loop of the plurality of loops and a second loop of the plurality of loops to produce a reaction product, wherein at least a portion of the one or more sulfur containing compounds react in the presence of the sulfided catalyst to produce hydrogen sulfide in the reaction product; passing the reaction product to the second loop; removing at least a portion of the hydrogen sulfide in the second loop of the caustic tower to produce a product stream. passing a hydrocarbon stream to a caustic tower, wherein the hydrocarbon stream comprises one or more hydrocarbons, one or more oxygen containing components, and one or more sulfur containing compounds, and wherein the caustic tower comprises a plurality of loops; contacting the hydrocarbon stream with a sulfided catalyst between a first loop of the plurality of loops and a second loop of the plurality of loops to produce a reaction product, wherein at least a portion of the one or more sulfur containing compounds react in the presence of the sulfided catalyst to produce hydrogen sulfide in the reaction product; passing the reaction product to the second loop; removing at least a portion of the hydrogen sulfide in the second loop of the caustic tower to produce a product stream.
Harvester having a harvesting header, on which is fitted laterally an element which serves to divide up the crop at the boundary between standing crop and crop to be harvested and which can be driven by a drive, characterized by an arrangement for automatically controlling the drive, the arrangement comprising an electronic control device, which is designed to detect, by way of operating data supplied to it relating to the operation of the harvester and/or of the harvesting header, whether the element is required and, on this basis, to switch the drive of the element on or off.
An in-plane grazing incidence diffractometer for examining the surface of a crystalline sample using in-plane grazing incidence diffraction, the diffractometer comprising: an x-ray source (11, 30) that generates an x-ray beam (12, 28) that is incident an the sample (10, 22) at an angle (θ) relative to the sample surface that results in the generation of an in-plane grazing incidence x-ray diffraction signal from sections of the sample having a crystal structure in a specific orientation, the beam simultaneously illuminating a sample region that extends substantially the entire length of the sample in a first direction; a position sensitive x-ray detector (18, 32) that receives the x-ray diffraction signal, the diffraction signal having a spatial profile that corresponds to the illuminated region of the sample; and a displacement mechanism configured to change the relative position of the x-ray beam and the sample so as to change the region of the sample that is illuminated thereby, characterized in that the position sensitive detector is a one-dimensional or a two-dimensional x-ray detector; and that the displacement mechanism comprises a sample support configured to be adjusted to change the lateral and/or the rotational position of the sample relative to the x-ray beam. an x-ray source (11, 30) that generates an x-ray beam (12, 28) that is incident an the sample (10, 22) at an angle (θ) relative to the sample surface that results in the generation of an in-plane grazing incidence x-ray diffraction signal from sections of the sample having a crystal structure in a specific orientation, the beam simultaneously illuminating a sample region that extends substantially the entire length of the sample in a first direction; a position sensitive x-ray detector (18, 32) that receives the x-ray diffraction signal, the diffraction signal having a spatial profile that corresponds to the illuminated region of the sample; and a displacement mechanism configured to change the relative position of the x-ray beam and the sample so as to change the region of the sample that is illuminated thereby, the position sensitive detector is a one-dimensional or a two-dimensional x-ray detector; and that the displacement mechanism comprises a sample support configured to be adjusted to change the lateral and/or the rotational position of the sample relative to the x-ray beam.
A waveguide coupling apparatus, comprising: a first waveguide including a tapered coupling region, the first waveguide comprising a first semiconductor material; a second waveguide comprising a second semiconductor material different than the first material, wherein the first waveguide is disposed on top of the second waveguide, the tapered coupling region of the first waveguide is configured to couple light from the first waveguide to the second waveguide, and extends to a region to receive light from the first waveguide that is not coupled into the second waveguide the first and second waveguides are separated laterally via a section of the first waveguide, between the tapered coupling region and the region that receives light from the first waveguide that is not coupled into the second waveguide; and a structure (208, 250) coupled to the region of the first waveguide and configured to reduce back-reflections of light from the region toward the tapered coupling region. a first waveguide including a tapered coupling region, the first waveguide comprising a first semiconductor material; a second waveguide comprising a second semiconductor material different than the first material, wherein the first waveguide is disposed on top of the second waveguide, the tapered coupling region of the first waveguide is configured to couple light from the first waveguide to the second waveguide, and extends to a region to receive light from the first waveguide that is not coupled into the second waveguide the first and second waveguides are separated laterally via a section of the first waveguide, between the tapered coupling region and the region that receives light from the first waveguide that is not coupled into the second waveguide; and the first waveguide is disposed on top of the second waveguide, the tapered coupling region of the first waveguide is configured to couple light from the first waveguide to the second waveguide, and extends to a region to receive light from the first waveguide that is not coupled into the second waveguide the first and second waveguides are separated laterally via a section of the first waveguide, between the tapered coupling region and the region that receives light from the first waveguide that is not coupled into the second waveguide; and a structure (208, 250) coupled to the region of the first waveguide and configured to reduce back-reflections of light from the region toward the tapered coupling region.
A laboratory device, in particular a peristaltic pump, having an accessory part, in particular a pump head, which is removably arranged at the laboratory device; and having an apparatus for an automatic recognition of the accessory part from a plurality of accessory parts, in particular mutually different pump heads, removably arrangeable at the laboratory device, wherein the recognition apparatus has a coding at the accessory side and a detection unit for detecting the coding at the laboratory device side; and wherein the coding comprises states of a plurality of magnets, in particular permanent magnets, characterized in that at least one magnet is positioned at a first spacing from the laboratory device and at least one magnet is positioned at a second spacing from the laboratory device.
A method of pruning video data, comprising: detecting, by a computer device, motion areas within video frames of the video data based on short-term and long-term variations associated with content of the video data; identifying sub-areas associated with repetitive motion within the motion areas identified; identifying filtered motion areas as the motion areas identified excluding the sub-areas associated with repetitive motion; identifying motion events associated with the content of the video data based on the motion areas detected, the filtered motion areas, and variation patterns associated with the video data, the variation patterns based, at least in part, upon motion of a camera capturing the video data; and determining storage periods for the video frames of the video data based on the motion events identified. detecting, by a computer device, motion areas within video frames of the video data based on short-term and long-term variations associated with content of the video data; identifying sub-areas associated with repetitive motion within the motion areas identified; identifying filtered motion areas as the motion areas identified excluding the sub-areas associated with repetitive motion; identifying motion events associated with the content of the video data based on the motion areas detected, the filtered motion areas, and variation patterns associated with the video data, the variation patterns based, at least in part, upon motion of a camera capturing the video data; and determining storage periods for the video frames of the video data based on the motion events identified.
Stitcher for stitching a folding sheet assembly comprising at least one folded sheet in motion, which is taken up by a saddle chain extending along a predetermined path and taken along by it in a conveying direction of the saddle chain, in which the stitcher has: a stitcher carriage that may be driven in order to be moved along the path forwards in a conveying direction and backwards against the conveying direction of the saddle chain, in order to stitch the folding sheet assembly with a stitcher unit provided on a stitcher carriage, in which an alignment stop is provided on the stitcher carriage, which may be moved under control between an alignment position, in which the alignment stop arranged at a predetermined distance from the stitcher unit may be brought into contact with a rear end of the folding sheet assembly in a conveying direction with a forwards movement of the stitcher carriage, and a parking position, in which the alignment stop may not be brought into contact with the folding sheet assembly, characterised in that the alignment stop is provided on the stitcher carriage so that the alignment stop crosses a folded sheet plane formed by the folding sheet assembly in the alignment position and is arranged below the folded sheet plane in the parking position. a stitcher carriage that may be driven in order to be moved along the path forwards in a conveying direction and backwards against the conveying direction of the saddle chain, in order to stitch the folding sheet assembly with a stitcher unit provided on a stitcher carriage, in which an alignment stop is provided on the stitcher carriage, which may be moved under control between an alignment position, in which the alignment stop arranged at a predetermined distance from the stitcher unit may be brought into contact with a rear end of the folding sheet assembly in a conveying direction with a forwards movement of the stitcher carriage, and a parking position, in which the alignment stop may not be brought into contact with the folding sheet assembly, characterised in that the alignment stop is provided on the stitcher carriage so that the alignment stop crosses a folded sheet plane formed by the folding sheet assembly in the alignment position and is arranged below the folded sheet plane in the parking position.
A method for obtaining a spray-dried oil-in-water emulsion which after redispersion in an aqueous medium has at least 75% by volume of the redispersed oil droplets in a particle size which is smaller or equal to the maximum particle size of the original oil-in-water emulsion and wherein at least 95% of the particles of the oil-in-water emulsion before spray drying has a particle size of < 1μm, said method comprising the steps of providing an oil-in-water emulsion, adding a non-lipid carrier to said oil-in-water emulsion and obtaining an oil-in-water/carrier mixture, homogenizing the obtained oil-in-water/carrier mixture and spray drying the obtained homogenized oil-in-water/carrier mixture, wherein the non-lipid carrier comprises a starch hydrolysate of mono, di, and higher saccharides.
A process for producing a quinacridone pigment composition containing a quinacridone solid solution and a quinacridone derivative, the process comprising: (step A) heating, at 80°C to 150°C, a pigment slurry composed of 100 parts of a cyclization-derived crude quinacridone solid solution, 0.1 to 10 parts of a quinacridone pigment derivative, and 500 to 1500 parts of organic solvent and/or water; and (step B) obtaining the quinacridone pigment composition by, after step A, removing the organic solvent from a system, adding 0.5 to 15 parts of a quinacridone derivative for 100 parts of the quinacridone solid solution, and isolating and drying a product. (step A) heating, at 80°C to 150°C, a pigment slurry composed of 100 parts of a cyclization-derived crude quinacridone solid solution, 0.1 to 10 parts of a quinacridone pigment derivative, and 500 to 1500 parts of organic solvent and/or water; and (step B) obtaining the quinacridone pigment composition by, after step A, removing the organic solvent from a system, adding 0.5 to 15 parts of a quinacridone derivative for 100 parts of the quinacridone solid solution, and isolating and drying a product.