mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a combustor having an inner wall and an outer wall defining the combustor there between, said walls are heated by compressed air discharged from a compressor section, the inner wall and the outer wall each having at least one opening (116, 118) into the combustor; at least one mobile conduit passing through the combustor from the at least one opening in the outer wall to the at least one opening in the inner wall, a cooling fluid being flowable from the at least one opening in the outer wall through the at least one mobile conduit to the at least one opening in the inner wall; a first joint and a second joint (124a, 124b) fluidly connecting the at least one mobile conduit with the at least one opening in the inner wall and the at least one opening in the outer wall, respectively the first joint and the second joint (124a, 124b) enabling multiple degrees of freedom of the at least one mobile conduit within the combustor; characterized in that; the first joint is a floating joint, and the second joint is a gimbal joint attached to an end of the at least one mobile conduit at the outer wall such that an end of the mobile conduit at the inner wall is able to slide with respect to the at least one opening in the inner wall. a combustor having an inner wall and an outer wall defining the combustor there between, said walls are heated by compressed air discharged from a compressor section, the inner wall and the outer wall each having at least one opening (116, 118) into the combustor; at least one mobile conduit passing through the combustor from the at least one opening in the outer wall to the at least one opening in the inner wall, a cooling fluid being flowable from the at least one opening in the outer wall through the at least one mobile conduit to the at least one opening in the inner wall; a first joint and a second joint (124a, 124b) fluidly connecting the at least one mobile conduit with the at least one opening in the inner wall and the at least one opening in the outer wall, respectively the first joint and the second joint (124a, 124b) enabling multiple degrees of freedom of the at least one mobile conduit within the combustor; characterized in that; the first joint is a floating joint, and the second joint is a gimbal joint attached to an end of the at least one mobile conduit at the outer wall such that an end of the mobile conduit at the inner wall is able to slide with respect to the at least one opening in the inner wall.
An assistance device for assisting a practitioner in an interventional hemodynamic measurement on a subject, comprising: a model acquiring unit arranged to acquire a vessel tree model of vessel geometry of a vessel tree of the subject, wherein the vessel tree includes different branches proximal and distal to a stenosis, a position determination unit for determining a set of positions in the vessel tree for hemodynamic measurements based on the vessel tree model complying with a predetermined metric, each position for a hemodynamic measurement indicating where at least one hemodynamic parameter is to be measured, and an output unit for outputting the determined set of positions to the practitioner for stenosis assessment. a model acquiring unit arranged to acquire a vessel tree model of vessel geometry of a vessel tree of the subject, wherein the vessel tree includes different branches proximal and distal to a stenosis, a position determination unit for determining a set of positions in the vessel tree for hemodynamic measurements based on the vessel tree model complying with a predetermined metric, each position for a hemodynamic measurement indicating where at least one hemodynamic parameter is to be measured, and an output unit for outputting the determined set of positions to the practitioner for stenosis assessment.
A stimulation lead, comprising: a lead body (210, 908) comprising a longitudinal surface, a distal end, and a proximal end, wherein the lead body comprises a material that is biocompatible, non-conducting, and polymeric; and a plurality of electrodes (220, 230) disposed along the longitudinal surface of the lead body near the distal end of the lead body, the plurality of electrodes comprising a plurality of segmented electrodes (230, 602, 916), each of the segmented electrodes comprising an exterior surface, an interior surface opposite the exterior surface, a proximal end, and a distal end, at least one of the segmented electrodes comprising at least one channel (608, 914) formed in the segmented electrode and extending from the proximal end to the distal end of the segmented electrode, wherein the at least one channel is filled with material from the lead body to facilitate retention of the at least one of the segmented electrodes in the lead body, wherein the channel (608, 914) is open along the interior surface. a lead body (210, 908) comprising a longitudinal surface, a distal end, and a proximal end, wherein the lead body comprises a material that is biocompatible, non-conducting, and polymeric; and a plurality of electrodes (220, 230) disposed along the longitudinal surface of the lead body near the distal end of the lead body, the plurality of electrodes comprising a plurality of segmented electrodes (230, 602, 916), each of the segmented electrodes comprising an exterior surface, an interior surface opposite the exterior surface, a proximal end, and a distal end, at least one of the segmented electrodes comprising at least one channel (608, 914) formed in the segmented electrode and extending from the proximal end to the distal end of the segmented electrode, wherein the at least one channel is filled with material from the lead body to facilitate retention of the at least one of the segmented electrodes in the lead body, wherein the channel (608, 914) is open along the interior surface.
Accessory device (2; 102) for threaded neck (4; 104) of container (3; 103), the accessory device (2; 102) comprises a first ring (8; 108) provided with a thread to screw the first ring (8; 108) on a threaded neck (4; 104) of container (3; 103) and a second ring (9; 109), integral in rotation with the first ring (8; 108) using at least one coupling member (10; 110) separate from at least one of said first and second rings (8; 108, 9; 109) and which comprises at least one coupling area for coupling with the at least one first, second ring (8; 108, 9; 109) from which it is separate, characterised in that the coupling member (10; 110) comprises at least one rupture area separate from said coupling area, designed to break above a rotation torque threshold applied between said first and second rings (8; 108, 9; 109) when a certain torque is applied to the second ring (9; 109) when the accessory device (2; 102) is screwed on the threaded neck (4; 104) of the container (3; 103).
A filter element for use in filtering intake air for engines comprising: a media pack including opposite inlet and outlet ends (15, 16), the media pack defining: a set of inlet flutes open at the inlet end of the media pack to passage of air to be filtered therein; and, a set of outlet flutes closed to passage of air to be filtered therein and open to passage of filtered air therefrom at the outlet end of the media pack; a preform positioned adjacent a first one of the inlet and outlet ends (15, 16) of the media pack; and, the preform having a housing seal support section; and an overmold formed of a sealing material having a first portion sealing at a joint or interface between the preform and a first end of the media pack at which the preform is positioned; and, a second portion oriented to form an air cleaner seal, between the filter element and an air cleaner housing, when the filter element is installed for use. a media pack including opposite inlet and outlet ends (15, 16), the media pack defining: a set of inlet flutes open at the inlet end of the media pack to passage of air to be filtered therein; and, a set of outlet flutes closed to passage of air to be filtered therein and open to passage of filtered air therefrom at the outlet end of the media pack; a preform positioned adjacent a first one of the inlet and outlet ends (15, 16) of the media pack; and, the preform having a housing seal support section; and an overmold formed of a sealing material having a first portion sealing at a joint or interface between the preform and a first end of the media pack at which the preform is positioned; and, a second portion oriented to form an air cleaner seal, between the filter element and an air cleaner housing, when the filter element is installed for use.
A method for transforming an initial progressive ophthalmic surface which has to be manufactured by a manufacturing method, the transformation method comprising: • a step of selecting a manufacturing method intended to be implemented, in which said manufacturing method introduces a reproducible surface defect, • a step of selecting a predictive model of said reproducible surface defect, • a step of selecting an initial progressive ophthalmic surface S intended to be manufactured, • a step of determining, during which there is determined, by means of said predictive model, a surface defect value D which would be introduced if the initial progressive ophthalmic surface S were produced by said manufacturing method, characterised by: • a transformation step during which said initial progressive ophthalmic surface S is transformed into a transformed progressive ophthalmic surface S* by compensating the defect value D determined during the step, such that the subsequent manufacture of the transformed ophthalmic surface S* by said manufacturing method makes it possible to obtain a progressive ophthalmic surface which substantially conforms to the initial progressive ophthalmic surface S. • a step of selecting a manufacturing method intended to be implemented, in which said manufacturing method introduces a reproducible surface defect, • a step of selecting a predictive model of said reproducible surface defect, • a step of selecting an initial progressive ophthalmic surface S intended to be manufactured, • a step of determining, during which there is determined, by means of said predictive model, a surface defect value D which would be introduced if the initial progressive ophthalmic surface S were produced by said manufacturing method, characterised by: • a transformation step during which said initial progressive ophthalmic surface S is transformed into a transformed progressive ophthalmic surface S* by compensating the defect value D determined during the step, such that the subsequent manufacture of the transformed ophthalmic surface S* by said manufacturing method makes it possible to obtain a progressive ophthalmic surface which substantially conforms to the initial progressive ophthalmic surface S.
A process for upgrading pitch, the process comprising: hydrocracking a heavy oil feedstock in a hydrocracking reaction system (88, 89) comprising one or more hydrocracking reaction stages (88, 89) comprising an ebullated bed hydrocracking reactor (88, 89); recovering an effluent stream and a spent or partially spent catalyst stream from the ebullated bed hydrocracking reactor (88, 89); fractionating the effluent stream to produce two or more hydrocarbon fractions; solvent deasphalting at least one of the two or more hydrocarbon fractions to produce a deasphalted oil fraction and a pitch; feeding the pitch, hydrogen, and the spent or partially spent catalyst stream to a pitch hydrocracking reactor; contacting the pitch, hydrogen, and the spent or partially spent catalyst stream in the pitch hydrocracking reactor at reaction conditions of temperature and pressure sufficient to convert at least a portion of the pitch to distillate hydrocarbons; and separating the distillate hydrocarbons from the catalyst. hydrocracking a heavy oil feedstock in a hydrocracking reaction system (88, 89) comprising one or more hydrocracking reaction stages (88, 89) comprising an ebullated bed hydrocracking reactor (88, 89); recovering an effluent stream and a spent or partially spent catalyst stream from the ebullated bed hydrocracking reactor (88, 89); fractionating the effluent stream to produce two or more hydrocarbon fractions; solvent deasphalting at least one of the two or more hydrocarbon fractions to produce a deasphalted oil fraction and a pitch; feeding the pitch, hydrogen, and the spent or partially spent catalyst stream to a pitch hydrocracking reactor; contacting the pitch, hydrogen, and the spent or partially spent catalyst stream in the pitch hydrocracking reactor at reaction conditions of temperature and pressure sufficient to convert at least a portion of the pitch to distillate hydrocarbons; and separating the distillate hydrocarbons from the catalyst.
OSA modified starch, wherein the OSA modified starch has been degraded by at least one enzyme capable of cleaving the 1,4-linkages of the starch molecule from the non-reducing ends to produce short chain saccharides, wherein the content of non-covalently bound, free octenyl succinic acid in the OSA modified starch is less than about 0.50% by weight (determined by HPLC as set forth in the description), based on the total weight of the OSA modified starch and wherein the content of the alpha-1,6-glycosidic linkages is higher than 12%.
An apparatus for renal neuromodulation, the apparatus comprising: a first element having a first electrode; and a second element having a second electrode, wherein the first element is configured for being positioned within a renal artery, and wherein the second element is configured for being positioned in the abdominal aorta, and wherein the first element further comprises a positioning element, and wherein the apparatus is configured such that a bipolar electrical field is delivered between the first electrode and the second electrode when the first electrode is positioned within the renal artery and the second electrode is positioned within the abdominal aorta. a first element having a first electrode; and a second element having a second electrode,
A method of generating reference elements in a video encoding and/or decoding process, the method comprising the steps of: receiving a plurality of known reference elements of video data from a reference picture buffer, the known reference elements of video data comprising part of a hierarchical group of pictures; generating, using a neural network, one or more additional reference elements of video data from the plurality of known reference elements of video data; and outputting, from the neural network, the one or more additional reference elements of video data; wherein the step of generating the one or more additional reference elements of video data from the one or more known reference elements of video data comprises the use of temporal interpolation, and wherein the one or more neural networks have been trained on known sets of reference pictures in hierarchical groups of pictures to substantially recreate pictures in higher hierarchical layers from pictures in lower layers of the hierarchical groups of pictures. receiving a plurality of known reference elements of video data from a reference picture buffer, the known reference elements of video data comprising part of a hierarchical group of pictures; generating, using a neural network, one or more additional reference elements of video data from the plurality of known reference elements of video data; and outputting, from the neural network, the one or more additional reference elements of video data; wherein the step of generating the one or more additional reference elements of video data from the one or more known reference elements of video data comprises the use of temporal interpolation, and wherein the one or more neural networks have been trained on known sets of reference pictures in hierarchical groups of pictures to substantially recreate pictures in higher hierarchical layers from pictures in lower layers of the hierarchical groups of pictures.
A liquefied gas fuel feeding system comprising: - a liquefied gas container configured to store liquefied gas and gaseous gas in cryogenic circumstances, - a first fuel passage opening into an ullage space (12.2) of the gas container, - a second fuel passage opening into a bottom section (12.1) of the gas container and provided with a controllable pump, - at least two fuel delivery passages (28.1, 28.2,... 28.N) each of which being configured to convey gas to a single gas consumer of at least two gas consumers (18.1, 18.2,... 18.N), characterized in that the liquefied gas fuel feeding system comprises - a valve assembly configured to connect the first fuel passage or the second fuel passage alternatively to each one of the at least two fuel delivery passages (28.1, 28.2,... 28.N). - a liquefied gas container configured to store liquefied gas and gaseous gas in cryogenic circumstances, - a first fuel passage opening into an ullage space (12.2) of the gas container, - a second fuel passage opening into a bottom section (12.1) of the gas container and provided with a controllable pump, - at least two fuel delivery passages (28.1, 28.2,... 28.N) each of which being configured to convey gas to a single gas consumer of at least two gas consumers (18.1, 18.2,... 18.N), characterized in that the liquefied gas fuel feeding system comprises - a valve assembly configured to connect the first fuel passage or the second fuel passage alternatively to each one of the at least two fuel delivery passages (28.1, 28.2,... 28.N).
A movable refrigerator allowing bidirectional door opening, comprising a refrigerator body and a refrigerator door, wherein the refrigerator door is detachably connected to the refrigerator body by convex columns and corresponding mounting grooves; wherein door frames are provided at four corners of the refrigerator body; wherein diameters of the mounting grooves are larger than diameters of the convex columns; wherein limiting protrusions are provided in the mounting grooves, and the convex columns are clamped between the mounting grooves and the limiting protrusions, so that the refrigerator body and the refrigerator door are rotatably connected, and the convex columns on the opposite sides are accommodated in accommodating grooves, the accommodating grooves being larger in diameter than the convex columns; characterized in that the mounting grooves are provided at two ends of one side of the refrigerator door, and accommodating grooves are provided at two ends of the opposite side, wherein the convex columns are fixedly provided at the door frames, and wherein a slotting direction of the mounting grooves is a horizontal direction, and a slotting direction of the accommodating grooves is a vertical direction. comprising a refrigerator body and a refrigerator door, wherein the refrigerator door is detachably connected to the refrigerator body by convex columns and corresponding mounting grooves; wherein door frames are provided at four corners of the refrigerator body; wherein diameters of the mounting grooves are larger than diameters of the convex columns; wherein limiting protrusions are provided in the mounting grooves, and the convex columns are clamped between the mounting grooves and the limiting protrusions, so that the refrigerator body and the refrigerator door are rotatably connected, and the convex columns on the opposite sides are accommodated in accommodating grooves, the accommodating grooves being larger in diameter than the convex columns; characterized in that the mounting grooves are provided at two ends of one side of the refrigerator door, and accommodating grooves are provided at two ends of the opposite side, wherein the convex columns are fixedly provided at the door frames, and wherein a slotting direction of the mounting grooves is a horizontal direction, and a slotting direction of the accommodating grooves is a vertical direction.
A fiber gun, comprising: a mandrel having a longitudinal axis and coupleable to a source including one or more fibers, the mandrel including: an uppermost portion; a lowermost portion generally opposite the uppermost portion; a length extending between the uppermost portion and the lowermost portion; a cross-sectional area that varies along at least a portion of the length of the mandrel; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel, wherein the cross-sectional perimeter varies by at most 5%; a transport mechanism configured to move the one or more fibers from a first portion of the mandrel at and/or near the uppermost portion to a second portion of the mandrel at and/or near the lowermost portion of the mandrel; and at least one cutter including one or more cutting elements, each of the one or more cutting elements disposed at least proximate to at least one cutting surface of the mandrel and configured to cut the one or more fibers, the at least one cutting surface being at and/or near the lowermost portion of the mandrel. a mandrel having a longitudinal axis and coupleable to a source including one or more fibers, the mandrel including: an uppermost portion; a lowermost portion generally opposite the uppermost portion; a length extending between the uppermost portion and the lowermost portion; a cross-sectional area that varies along at least a portion of the length of the mandrel; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel, wherein the cross-sectional perimeter varies by at most 5%; an uppermost portion; a lowermost portion generally opposite the uppermost portion; a length extending between the uppermost portion and the lowermost portion; a cross-sectional area that varies along at least a portion of the length of the mandrel; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel, wherein the cross-sectional perimeter varies by at most 5%; a transport mechanism configured to move the one or more fibers from a first portion of the mandrel at and/or near the uppermost portion to a second portion of the mandrel at and/or near the lowermost portion of the mandrel; and at least one cutter including one or more cutting elements, each of the one or more cutting elements disposed at least proximate to at least one cutting surface of the mandrel and configured to cut the one or more fibers, the at least one cutting surface being at and/or near the lowermost portion of the mandrel.
Use of a composition comprising the following components and: a compound represented by the following formula: R 1 O- n m -R 2 wherein R 1 represents a linear or branched C 8-12 alkyl or alkenyl group, PO represents a propyleneoxy group, EO represents an ethyleneoxy group, n represents an average addition mole number and is from 1.5 to 5.0, m represents an average addition mole number and is from 0 to 1.0, and R 2 represents a hydrogen atom or a methyl group; at least one member selected from keratin reducing agents and at least one member selected from oxidizing agents; wherein a content of an R 1 OH wherein R 1 represents a linear or branched C 8-12 alkyl or alkenyl group is 300 ppm or less, and the composition takes the form of a two-part agent having a first-part agent composed mainly of a reducing agent and a second-part agent composed mainly of an oxidizing agent, wherein the component is added to either of the keratin reducing agent or the oxidizing agent as a permanent wave agent. a compound represented by the following formula: R 1 O- n m -R 2 wherein R 1 represents a linear or branched C 8-12 alkyl or alkenyl group, PO represents a propyleneoxy group, EO represents an ethyleneoxy group, n represents an average addition mole number and is from 1.5 to 5.0, m represents an average addition mole number and is from 0 to 1.0, and R 2 represents a hydrogen atom or a methyl group; at least one member selected from keratin reducing agents and at least one member selected from oxidizing agents;