mhurhangee/ep-ind-claims huggingface dataset:
A ram air turbine, RAT, assembly, comprising: a turbine having at least one turbine blade that rotates about a turbine driveshaft; a lower gear box coupled to the driveshaft; a generator/pump housing; a strut connected between the lower gear box and the generator/pump housing; and a damping element connected to one of the strut and the lower gear box, the damping element including: an actuator including an extendable member; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position. a turbine having at least one turbine blade that rotates about a turbine driveshaft; a lower gear box coupled to the driveshaft; a generator/pump housing; a strut connected between the lower gear box and the generator/pump housing; and a damping element connected to one of the strut and the lower gear box, the damping element including: an actuator including an extendable member; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position. an actuator including an extendable member; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position.
A flexible transparent electrochromic device, which comprises the following components, each of which is a flexible film: - a working electrode comprising a transparent conducting substrate supporting a working electrode active material; - a counter electrode comprising a transparent conducting substrate supporting a counter electrode active material; - a solid polymer electrolyte comprising a lithium salt in a polymer solvent wherein: - the working electrode active material is a polymer having repeat units of general formula wherein R is -CH 2 OH, or -CH 2 OR', R' being selected from the following groups: -R", -(C=O)NH-R" or -(C=O)-R", R" being an alkyl group or an alkenyl group; wherein, when R is -CH 2 OR' with R' being an alkenyl group, the polymer has isomeric EDOT / ProDOT units of the following formulae: - the counter electrode active material is selected from hexacyanometallates or from transition metal oxides; and - the electrolyte film is a film material that comprises a crosslinked polymer and a lithium salt. - a working electrode comprising a transparent conducting substrate supporting a working electrode active material; - a counter electrode comprising a transparent conducting substrate supporting a counter electrode active material; - a solid polymer electrolyte comprising a lithium salt in a polymer solvent wherein: - the working electrode active material is a polymer having repeat units of general formula wherein R is -CH 2 OH, or -CH 2 OR', R' being selected from the following groups: -R", -(C=O)NH-R" or -(C=O)-R", R" being an alkyl group or an alkenyl group; wherein, when R is -CH 2 OR' with R' being an alkenyl group, the polymer has isomeric EDOT / ProDOT units of the following formulae: - the counter electrode active material is selected from hexacyanometallates or from transition metal oxides; and - the electrolyte film is a film material that comprises a crosslinked polymer and a lithium salt. - the counter electrode active material is selected from hexacyanometallates or from transition metal oxides; and - the electrolyte film is a film material that comprises a crosslinked polymer and a lithium salt.
A computer-implemented method comprising: receiving, at a processor, a first query comprising computer-executable instructions to receive data from at least one data stream source(116, 118); selecting a first computing entity of a plurality of computing entities on the basis of both: a measure of load balancing between the plurality of computing entities; and a measure of communications traffic cost between the at least one data stream source (116, 118) and the selected computing entity; wherein the measure of communications traffic cost measures the change in traffic cost at one of the computing entities as a result of a proposed addition of the first query to that computing entity; sending control instructions to the first computing entity to trigger the computing entity to install the first query; receiving, at the processor, a second query; rebalancing the first query and the second query among the plurality of computing entities by determining a second computing entity different from the first computing entity based at least in part on both load balancing and network traffic cost, wherein said rebalancing comprises offline query allocation, and wherein said offline query allocation comprises allocation of queries based on knowledge of the query type; and sending control instructions to the second computing entity to trigger the second computing entity to install the first query. receiving, at a processor, a first query comprising computer-executable instructions to receive data from at least one data stream source(116, 118); selecting a first computing entity of a plurality of computing entities on the basis of both: a measure of load balancing between the plurality of computing entities; and a measure of communications traffic cost between the at least one data stream source (116, 118) and the selected computing entity; wherein the measure of communications traffic cost measures the change in traffic cost at one of the computing entities as a result of a proposed addition of the first query to that computing entity; sending control instructions to the first computing entity to trigger the computing entity to install the first query; receiving, at the processor, a second query; rebalancing the first query and the second query among the plurality of computing entities by determining a second computing entity different from the first computing entity based at least in part on both load balancing and network traffic cost, wherein said rebalancing comprises offline query allocation, and wherein said offline query allocation comprises allocation of queries based on knowledge of the query type; and sending control instructions to the second computing entity to trigger the second computing entity to install the first query.
An aircraft comprising a system for ranging an object in a scene external to an aircraft, the system comprising: a light projector mounted on the aircraft at a projector location and configured to project spatially-patterned infrared light onto the scene, thereby illuminating a spatially-patterned portion of the scene including a spatially-patterned portion of the object in the scene; first and second cameras (36, 38) mounted on the aircraft at first and second distinct camera locations, and further configured to simultaneously capture, when the spatially-patterned infrared light is projected onto the scene, first and second images (84, 86) of the scene from the first and second distinct camera locations, respectively, thereby focusing the spatially-patterned portion of the object onto pixel(s) having first pixel coordinates in the first image and onto pixel(s) having second pixel coordinates in the second image; an image processor configured to identify first and second regions of the first and second images (84, 86), onto which the spatially-patterned infrared light is focused, respectively, and further configured to correlate the identified first and second regions with one another so as to determine the first and second pixel coordinates corresponding to the spatially-patterned portion of the object; and a range calculator configured to calculate range to the object using triangulation based on the determined first and second pixel-coordinates and the first and second distinct camera locations from which the first and second images (84, 86) are simultaneously captured; characterised in that the aircraft has a fuselage, a left wing, a right wing and a tail, and in that the first camera is mounted at a wingtip of the left wing, and the second camera is mounted at a wingtip of the right wing. a light projector mounted on the aircraft at a projector location and configured to project spatially-patterned infrared light onto the scene, thereby illuminating a spatially-patterned portion of the scene including a spatially-patterned portion of the object in the scene; first and second cameras (36, 38) mounted on the aircraft at first and second distinct camera locations, and further configured to simultaneously capture, when the spatially-patterned infrared light is projected onto the scene, first and second images (84, 86) of the scene from the first and second distinct camera locations, respectively, thereby focusing the spatially-patterned portion of the object onto pixel(s) having first pixel coordinates in the first image and onto pixel(s) having second pixel coordinates in the second image; an image processor configured to identify first and second regions of the first and second images (84, 86), onto which the spatially-patterned infrared light is focused, respectively, and further configured to correlate the identified first and second regions with one another so as to determine the first and second pixel coordinates corresponding to the spatially-patterned portion of the object; and
Device for the extraction of nutritional juice consisting of a work chamber with a supply chute (55; 155; 255) determining a height between a supply inlet (56; 156; 256) and a supply outlet (57; 157; 257) towards the work chamber, the chute (55; 155; 255) being divided into two channels (55a, 55b; 158; 258) by a wall (52; 152; 252) which has a sharp edge (51; 151; 251) on the side of the supply inlet (56; 156; 256), the work chamber containing an auger (20; 20') with at least one main net (21, 22; 21', 22'), supplied by the chute (55; 155; 255), characterised in that the wall (52; 152; 252) divides the chute (55; 155; 255) by at least three quarters of its height and in that the device includes means of rotary cutting (65; 65') arranged between the supply outlet (57; 157; 257) and the auger (20; 20').
Shredder machine for waste material comprising a table equipped with a pair of fixed knives (22, 24); a first and second shaft (30a, 30b) rotatably mounted on the table about an axis and equipped with an array of rotating knives which are axially spaced and radially projecting from the shaft; wherein each rotating knife has two opposite faces (28a, 36a) adjacent to, and adapted to cooperate with, said pair of fixed knives (22, 24) for cutting the material, each of said two opposite faces (28a, 36a) being a surface of the rotating knife that is orthogonal to the axis of the shaft, and said two opposite faces (28a, 36a) delimiting the thickness of the rotating knife measured along said axis, wherein in said pair of fixed knives (22, 24) one is adjacent to, and adapted to cooperate with, one of said faces of one rotating knife and the other is adjacent to, and adapted to cooperate with, the opposite face of said faces of the same rotating knife, characterized in that a knife of the pair is adjacent to, and adapted to cooperate with, one of said faces of said one rotating knife on the first shaft and with one of said faces of one rotating knife on the second shaft. a table equipped with a pair of fixed knives (22, 24); a first and second shaft (30a, 30b) rotatably mounted on the table about an axis and equipped with an array of rotating knives which are axially spaced and radially projecting from the shaft; one is adjacent to, and adapted to cooperate with, one of said faces of one rotating knife and the other is adjacent to, and adapted to cooperate with, the opposite face of said faces of the same rotating knife,
Roller conveyor, with rollers connected by means of a drive belt and an intermediate space, which is delimited by two successive rollers and an upper run and a lower run of the drive belt, wherein an engagement guard is arranged in the intermediate space, the engagement guard has an engagement protection body, wherein the engagement guard is held in the intermediate space in a form-fitting, floating manner without attachment to a static component of the roller conveyor, wherein the engagement protection body has recesses lying opposite one another in its longitudinal direction, wherein the respective recess is adapted to an outer diameter of the roller adjacent to the intermediate space, characterised by at least one elevation which, viewed in the width direction, is arranged approximately in the centre of the engagement protection body, which projects from the recess at one of the recesses in the length direction and which engages in a drive belt groove of the roller adjoining the intermediate space. the engagement guard has an engagement protection body, wherein the engagement guard is held in the intermediate space in a form-fitting, floating manner without attachment to a static component of the roller conveyor, wherein the engagement protection body has recesses lying opposite one another in its longitudinal direction, wherein the respective recess is adapted to an outer diameter of the roller adjacent to the intermediate space, characterised by at least one elevation which, viewed in the width direction, is arranged approximately in the centre of the engagement protection body, which projects from the recess at one of the recesses in the length direction and which engages in a drive belt groove of the roller adjoining the intermediate space.
A device including a substrate in a semi-conductor material carrying an array of diodes, organized into rows and columns, and a peripheral substrate contact arranged on at least one side of the array, the substrate having a first doping type and the diodes including in the substrate, a second doped zone having a second doping type, opposite to the first type, the substrate being of Si or SiC or SiGe or a Hg 1-x Cd x Te based material or being a semi-conductor on insulator substrate SOI, the substrate comprising several other doped zones, each forming a buried conducting line, each buried conducting line flushes with a main surface of the substrate on the side where the diodes are present, or being separated from this main surface by a given thickness of material of the substrate, these other doped zones having the first doping type and a greater doping density than in the substrate, the buried conducting lines having a band gap higher than that of the substrate when the buried conducting lines are of degenerate semi-conductor material or an effective gap higher than that of the substrate when the buried conducting lines are of degenerate semi-conductor material, wherein the Fermi level is situated in a band among the conduction band and the valence band and the position is function of the doping, wherein, when the doping is of n+ type with a Fermi level situated in the conduction band, the effective gap is the energy difference between the Fermi level situated in the conduction band and the corresponding state of the direct transition in the valence band of the first order is assimilated to the top of the valence band and, wherein the doping is of the p+ type, the effective gap being assimilated to the first order gap, the buried conducting lines being electrically connected to the peripheral substrate contact and positioned between two neighboring columns of diodes (Di) and crossing at an intersection and forming a meshing of buried conducting lines, characterized in that the buried conducting lines consist of the same chemical element(s) as the semi-conductor material of the substrate and are doped with a doping element, called a line dopant present with a density between 10 15 and 10 20 at/cm 3.
A medical imaging system, comprising: a gamma camera which includes a collimator and is configured for rotation around an examination region and is adapted to acquire projection data from a region of interest for multiple substantially contiguous segments and for a plurality of projection angles or views in each segment, in which, for a given segment and a given view, the distance between an axis which extends longitudinally through the examination region and perpendicularly with respect to the gamma camera and the region of the collimator proximate the examination region is referred-to as radius of rotation, characterized in that it further comprises: a view transformation component adapted to transform projection data for substantially similar views across the plurality of individual segments having different radius of rotation into transformed projection data for substantially similar views across the plurality of individual segments having a common radius of rotation; and a segment combiner adapted to combine the transformed projection data to produce a single data set that includes the transformed projection data for each of the views of each of the plurality of individual segments. a gamma camera which includes a collimator and is configured for rotation around an examination region and is adapted to acquire projection data from a region of interest for multiple substantially contiguous segments and for a plurality of projection angles or views in each segment, in which, for a given segment and a given view, the distance between an axis which extends longitudinally through the examination region and perpendicularly with respect to the gamma camera and the region of the collimator proximate the examination region is referred-to as radius of rotation, a view transformation component adapted to transform projection data for substantially similar views across the plurality of individual segments having different radius of rotation into transformed projection data for substantially similar views across the plurality of individual segments having a common radius of rotation; and a segment combiner adapted to combine the transformed projection data to produce a single data set that includes the transformed projection data for each of the views of each of the plurality of individual segments.
A system for ensuring secure anchoring of a tissue anchor within tissue in a patient's body, comprising: a tissue anchor deployment system including a proximal handle connected to an elongated flexible tube (20; 90; 170; 180; 200; 210; 322; 440) having a lumen within which translates an elongated tissue anchor tool (60; 100; 426) with a distal tissue anchor (24; 212; 306; 428) thereon suitable for piercing and anchoring into tissue; a tissue contact indicator assembly configured to be visible from outside the body on a display for an imaging sensor, the indicator assembly being located adjacent a distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and having a movable member (62; 98; 172; 182; 204; 214; 220; 222; 224; 228; 252; 260, 264; 310; 330; 462) that in a first position presents a first visual image on the display for the imaging sensor prior to contact between the distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and tissue, and presents a second visual image distinct from the first visual image after moving to a second position when a predetermined pressure is applied between the distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and the tissue, the predetermined pressure being calibrated to ensure that the tissue anchor (24; 212; 306; 428) securely embeds into the tissue when the tissue anchor tool (60; 100; 426) is subsequently advanced. a tissue anchor deployment system including a proximal handle connected to an elongated flexible tube (20; 90; 170; 180; 200; 210; 322; 440) having a lumen within which translates an elongated tissue anchor tool (60; 100; 426) with a distal tissue anchor (24; 212; 306; 428) thereon suitable for piercing and anchoring into tissue; a tissue contact indicator assembly configured to be visible from outside the body on a display for an imaging sensor, the indicator assembly being located adjacent a distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and having a movable member (62; 98; 172; 182; 204; 214; 220; 222; 224; 228; 252; 260, 264; 310; 330; 462) that in a first position presents a first visual image on the display for the imaging sensor prior to contact between the distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and tissue, and presents a second visual image distinct from the first visual image after moving to a second position when a predetermined pressure is applied between the distal end of the flexible tube (20; 90; 170; 180; 200; 210; 322; 440) and the tissue, the predetermined pressure being calibrated to ensure that the tissue anchor (24; 212; 306; 428) securely embeds into the tissue when the tissue anchor tool (60; 100; 426) is subsequently advanced.
A pellet for use in a glass batch process, comprising: a core comprising silica (SiO 2), one eutectic or near eutectic layer over the core, and, one non-eutectic layer over the eutectic or near eutectic layer. a core comprising silica (SiO 2), one eutectic or near eutectic layer over the core, and, one non-eutectic layer over the eutectic or near eutectic layer.