mhurhangee/ep-ind-claims huggingface dataset:
A distributor for a hydraulic apparatus, comprising a core and a distribution ring rotatably mounted around the core along an axis defining a proximal end and a distal end, the distribution ring and the core being slidably mounted relative to each other along the axis, the core having a plurality of inner grooves (50A, 50B) opening into an outer periphery of the core, the distribution ring having a plurality of outer grooves (60A, 60B) opening into an inner periphery of the distribution ring, said inner (50A, 50B) and outer (60A, 60B) grooves being configured so as to be brought into fluid communication and form fluid circulation ducts, the core comprising a plurality of sealing segments configured so as to isolate each of said fluid circulation ducts, the core having an outer section decreasing from a distal end towards a proximal end, wherein one among the core and the distribution ring comprises an abutment configured so as to come into contact with a wall of the other among the core and the distribution ring in order to limit the movement of the core relative to the distribution ring along a direction defined by the axis, from the distal end towards the proximal end, each of said sealing segments of the core being positioned in a housing arranged in the core, and bearing against an inner face of the distribution ring, the distributor being characterized in that: the abutment is configured so as to limit the movement of the core relative to the distribution ring along a direction defined by the axis so that the distance between the proximal sealing segment and the proximal clearance of the distribution ring remains a non-zero distance, the proximal sealing segment being the closest sealing segment along the axis of the proximal end of the core, and the proximal clearance of the distribution ring being defined as the first variation in section of the inner surface of the distribution ring bearing against the proximal sealing segment towards a proximal end of the distribution ring. the abutment is configured so as to limit the movement of the core relative to the distribution ring along a direction defined by the axis so that the distance between the proximal sealing segment and the proximal clearance of the distribution ring remains a non-zero distance, the proximal sealing segment being the closest sealing segment along the axis of the proximal end of the core, and the proximal clearance of the distribution ring being defined as the first variation in section of the inner surface of the distribution ring bearing against the proximal sealing segment towards a proximal end of the distribution ring.
A peptide-presenting protein wherein a peptide is presented in a presentation region consisting of the 131 st to 139 th amino acids in the amino acid sequence of the SEQ ID NO:54 or the amino acid sequence of SEQ ID NO:54, wherein one to three amino acids are substituted in the first to 130 th amino acids sequence or the 140 th to 238 th amino acids sequence, wherein the peptide consisting of four to fifteen amino acids is inserted in the 131 st to 139 th amino acids sequence, or substituted for any of 1 to 9 amino acid(s) sequence in the 131 st to 139 th amino acids sequence; and a total length of an amino acid sequence corresponding to the 131 st to 139 th amino acids sequence is fifteen or less, and the protein exhibits a fluorescence generation activity. the amino acid sequence of the SEQ ID NO:54 or the amino acid sequence of SEQ ID NO:54, wherein one to three amino acids are substituted in the first to 130 th amino acids sequence or the 140 th to 238 th amino acids sequence, wherein the peptide consisting of four to fifteen amino acids is inserted in the 131 st to 139 th amino acids sequence, or substituted for any of 1 to 9 amino acid(s) sequence in the 131 st to 139 th amino acids sequence; and a total length of an amino acid sequence corresponding to the 131 st to 139 th amino acids sequence is fifteen or less, and the protein exhibits a fluorescence generation activity.
Turbine of a gas turbine engine, comprising a stator sealing ring element (31, 31', 22s) arranged to form a labyrinth seal in conjunction with at least one wiper (211, 201) rotatable around the axis of the sealing ring, said element (31, 31', 22s) comprising a layer of abradable material with a sealing surface portion (31p, 31'p, 22s') capable of interacting with said moving wiper (211, 201), the layer of abradable material on said surface portion (31p, 31'p, 22s') comprising axially a first zone (31p1, 31'p1, 22s1) with a first resistance to penetration of a wiper (201, 211), and a second zone (31p2, 31'p2, 22s2) adjacent to the first zone (31p1, 31'p1, 22s1) with a reduced resistance to penetration of a wiper relative to the first zone, characterized in that said first zone (31p1, 31'p1, 22s1) correspond to the axial position of the wiper (211, 201) in nominal operation of the turbine, and said second zone (31p2, 31'p2, 22s2) being located downstream relative to the first zone (31p1, 31'p1, 22s1) and corresponding to the axial position that the wiper (211, 201) assumes when flame extinction occurs in the combustion chamber of the engine.
Steering column for a motor vehicle, comprising a steering column unit with a steering gear-side end and a steering wheel-side end, the steering column unit having an outer steering column tube, in which an inner steering column tube is arranged telescopically, and in which steering column unit a steering spindle is mounted such that it can be rotated about a longitudinal axis, the steering spindle having, at least in portions, a hollow shaft, in which a steering shaft is arranged telescopically, and the steering spindle being mounted rotatably in a rear bearing in the steering wheel-side end portion of the steering column unit, a clamping device being provided which has a clamping bolt which extends through slot-like openings (421, 431) in the side cheeks (42, 43) and through openings in the steering column unit, a clamping force being exerted on the side cheeks (42, 43) in the fixing position by way of the clamping bolt via a clamping mechanism by way of manual actuation of a clamping lever, by way of which clamping force the outer steering column tube is clamped in between the side cheeks (42, 43) in a non-positive manner and, as a result, is fixed relative to the loadbearing unit, and the outer steering column tube is likewise braced radially on the inner steering column tube, or which steering column has, for motorized adjustment, a motorized actuating drive, by which the inner steering column tube can be set relative to the outer steering column tube, characterized in that a safety element (7, 8) is arranged between the steering gear-side end of the steering column unit and the rear bearing between the steering column unit and the steering spindle, which safety element (7, 8) leaves a circumferential radial safety spacing between the steering column unit and the steering spindle free, which safety spacing is smaller than the radial spacing between the steering column unit and the steering spindle outside the safety element (7, 8) between the steering gear-side end of the steering column unit and the rear bearing, the safety element (7, 8) delimiting, by way of its width, an axial safety portion, the width of which is smaller than the diameter of the safety element (7, 8).
Method for determining a three-dimensional shape of at least one piece of a body, the method including the steps of: a) projecting a figure pattern onto at least the piece of the body, the non-projected figure pattern having a repeating region of identifiable figures in a dimension (y), b) recording an image of the projected figure pattern on at least the piece of the body, c) determining figures in the recorded image by means of an identification by means of a neural network, the neural network having been trained to identify the figures in the region by means of training images of differently deformed sections of the figure pattern, and by means of a region index of the corresponding region, and d) determining the three-dimensional shape of at least the piece of the body on the basis of the determined figures. a) projecting a figure pattern onto at least the piece of the body, the non-projected figure pattern having a repeating region of identifiable figures in a dimension (y), b) recording an image of the projected figure pattern on at least the piece of the body, c) determining figures in the recorded image by means of an identification by means of a neural network, the neural network having been trained to identify the figures in the region by means of training images of differently deformed sections of the figure pattern, and by means of a region index of the corresponding region, and d) determining the three-dimensional shape of at least the piece of the body on the basis of the determined figures.
A solid state lamp (300; 320; 340; 370; 390; 410; 420; 620; 650), comprising: a light emitting diode based light source (304; 324; 344; 376; 392; 426); a remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) spaced from said LED light source (304; 324; 344; 376; 392; 426); a diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) remote to said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) wherein said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) comprises a geometry and light scattering properties to disperse the light from said LED light source (304; 324; 344; 376; 392; 426) and wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) to a substantially omnidirectional emission pattern, and wherein said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) comprises a carrier layer and a phosphor layer, said remote wavelength conversion material carrier at the base of said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652), wherein said remote wavelength conversion material carrier (308; 328; 348; 428) comprises a substantially planar shape, characterized in that said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) geometry comprises a neck (102; 622) at its base and in that said light scattering properties comprise non-uniform light scattering properties by a non-uniform diffuser distribution across the surface. a light emitting diode based light source (304; 324; 344; 376; 392; 426); a remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) spaced from said LED light source (304; 324; 344; 376; 392; 426); a diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) remote to said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) wherein said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) comprises a geometry and light scattering properties to disperse the light from said LED light source (304; 324; 344; 376; 392; 426) and wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) to a substantially omnidirectional emission pattern, and wherein said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) comprises a carrier layer and a phosphor layer, said remote wavelength conversion material carrier at the base of said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652), wherein said remote wavelength conversion material carrier (308; 328; 348; 428) comprises a substantially planar shape, characterized in that said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) geometry comprises a neck (102; 622) at its base and in that said light scattering properties comprise non-uniform light scattering properties by a non-uniform diffuser distribution across the surface.
An imaging system, comprising: a vapor-cell sensor comprising an optical window and a dielectric mirror; a laser system configured to generate at least two beams of light (110, 112); a reference antenna disposed on a side of the vapor-cell sensor associated with the optical window, the reference antenna configured to generate a reference electromagnetic radiation having one or both of a controlled amplitude and a controlled phase; and an optical imaging system configured to measure spatial properties of a beam of light and positioned to receive at least one of the at least two beams of light after interaction with the vapor-cell sensor. a vapor-cell sensor comprising an optical window and a dielectric mirror; a laser system configured to generate at least two beams of light (110, 112); a reference antenna disposed on a side of the vapor-cell sensor associated with the optical window, the reference antenna configured to generate a reference electromagnetic radiation having one or both of a controlled amplitude and a controlled phase; and an optical imaging system configured to measure spatial properties of a beam of light and positioned to receive at least one of the at least two beams of light after interaction with the vapor-cell sensor.
A spectacle lens element intended to be worn in front of an eye of a person comprising: - a refraction area comprising an optical center and having a first refractive power based on a prescription for correcting an abnormal refraction of said eye of the person and a second refractive power different from the first refractive power by at least 0.5D; - a plurality of at least three optical elements having an optical function of focusing light other than on the retina of the eye when the lens element is worn in standard wearing conditions, wherein for every circular zone having a radius comprised between 2 and 4 mm comprising a geometrical center located at a distance from a framing reference point that faces the pupil of the user gazing straight ahead in standard wearing conditions equal to said radius + 5mm, the ratio between the sum of areas of the parts of optical elements located inside said circular zone and the area of said circular zone is comprised between 20% and 70%, wherein the optical elements are configured so that the mean sphere of said optical elements varies according to their radial distance to the optical center of the lens element, wherein the refractive area is formed as the area other than the areas formed as the plurality of optical elements, and wherein the standard wearer conditions are defined by a pantoscopic angle of -8°, a Cornea to lens distance of 12 mm, a Pupil-cornea distance of 2 mm, a CRE to pupil distance of 11.5 mm, a CRE to lens distance of 25.5 mm and a wrap angle of 0°. - a refraction area comprising an optical center and having a first refractive power based on a prescription for correcting an abnormal refraction of said eye of the person and a second refractive power different from the first refractive power by at least 0.5D; - a plurality of at least three optical elements having an optical function of focusing light other than on the retina of the eye when the lens element is worn in standard wearing conditions, wherein for every circular zone having a radius comprised between 2 and 4 mm comprising a geometrical center located at a distance from a framing reference point that faces the pupil of the user gazing straight ahead in standard wearing conditions equal to said radius + 5mm, the ratio between the sum of areas of the parts of optical elements located inside said circular zone and the area of said circular zone is comprised between 20% and 70%, wherein the optical elements are configured so that the mean sphere of said optical elements varies according to their radial distance to the optical center of the lens element, wherein the refractive area is formed as the area other than the areas formed as the plurality of optical elements, and wherein the standard wearer conditions are defined by a pantoscopic angle of -8°, a Cornea to lens distance of 12 mm, a Pupil-cornea distance of 2 mm, a CRE to pupil distance of 11.5 mm, a CRE to lens distance of 25.5 mm and a wrap angle of 0°.
Low-deformation telescope comprising: - a primary mirror; - a secondary mirror smaller than the primary mirror; and - a support rigidly assembled with the primary mirror and secondary mirror so as to hold said secondary mirror rigidly in front of a central zone of said primary mirror, with respective reflecting faces (10, 20) of both primary and secondary mirrors directed towards one another, the support comprising: - three feet (34a-34c) rigidly connected to the primary mirror outside of the central zone of said primary mirror, the three feet being angularly distributed around said central zone; - an outer ring connected to the secondary mirror and having an axis of symmetry by rotation (A-A) which is perpendicular to said outer ring; - at least three legs (35a-35f), each terminating at one of the three feet (34a-34c) and each inclined with respect to the axis (A-A) of the outer ring; and - at least three junctions (36a-36f) angularly spaced apart along the outer ring and each rigidly connecting said outer ring to a top end of one of the legs (35a-35f) opposite the foot (34a-34c) at which said leg terminates, the telescope being characterized in that each leg (35a-35f) has a curvature that is not zero, oriented so that a concavity of said leg is directed away from the central zone of the primary mirror. - a primary mirror; - a secondary mirror smaller than the primary mirror; and - a support rigidly assembled with the primary mirror and secondary mirror so as to hold said secondary mirror rigidly in front of a central zone of said primary mirror, with respective reflecting faces (10, 20) of both primary and secondary mirrors directed towards one another, - three feet (34a-34c) rigidly connected to the primary mirror outside of the central zone of said primary mirror, the three feet being angularly distributed around said central zone; - an outer ring connected to the secondary mirror and having an axis of symmetry by rotation (A-A) which is perpendicular to said outer ring; - at least three legs (35a-35f), each terminating at one of the three feet (34a-34c) and each inclined with respect to the axis (A-A) of the outer ring; and - at least three junctions (36a-36f) angularly spaced apart along the outer ring and each rigidly connecting said outer ring to a top end of one of the legs (35a-35f) opposite the foot (34a-34c) at which said leg terminates,
Illumination device for illuminating an interior space of a vehicle, having a primary light source, a light-directing element and a lens closing off the illumination device in the direction of the interior space of the vehicle, - wherein a light-guide element is arranged between the primary light source and the lens, which light-guide element has discontinuities that are arranged in a specified shape, - wherein a secondary light source is arranged such that light emitted by the secondary light source is coupled into the light-guide element, and - wherein the lens is designed to be sensitive to touch and/or sensitive to proximity, characterized - in that the light-guide element is arranged between the primary light source and an end of the light-directing element facing the lens. - wherein a light-guide element is arranged between the primary light source and the lens, which light-guide element has discontinuities that are arranged in a specified shape, - wherein a secondary light source is arranged such that light emitted by the secondary light source is coupled into the light-guide element, and - wherein the lens is designed to be sensitive to touch and/or sensitive to proximity, - in that the light-guide element is arranged between the primary light source and an end of the light-directing element facing the lens.
A system for measuring and/or assessing hemodynamics in at least a part of the gastrointestinal tract of a subject, comprising a non-transitive, computer-readable storage device for storing instructions that, when executed by a processor, performs a method for image processing hemodynamics in at least a part of the gastrointestinal tract in video images acquired from a subject, the system optionally comprising an imaging device for acquiring video images of the exterior portion of said part of the gastrointestinal tract, the method comprising the steps of: - performing image analysis of at least one video sequence acquired after a fluorescent contrast agent has been supplied to the subject, - calculating intensity values in at least two regions of interest based on the image analysis, - determining at least a first perfusion slope of the flow of the fluorescent contrast agent through at least a first of said regions of interest, and - determining at least a second perfusion slope of the flow of the fluorescent contrast agent through at least a second of said regions of interest defined as a perfusion reference, wherein the first and second regions of interest represent different parts of the gastrointestinal tract, wherein the perfusion of the at least first part region of interest is evaluated by comparing with the perfusion of the perfusion reference such that a quantitative assessment of the perfusion is provided in said first region of interest in the video images. - performing image analysis of at least one video sequence acquired after a fluorescent contrast agent has been supplied to the subject, - calculating intensity values in at least two regions of interest based on the image analysis, - determining at least a first perfusion slope of the flow of the fluorescent contrast agent through at least a first of said regions of interest, and - determining at least a second perfusion slope of the flow of the fluorescent contrast agent through at least a second of said regions of interest defined as a perfusion reference, wherein the first and second regions of interest represent different parts of the gastrointestinal tract,
A seaming element for bonding to an industrial textile, the seaming element having: (i) a first lateral edge; (ii) a second lateral edge; (iii) a trailing edge; (iv) a forward portion comprising a plurality of protruding seaming loops with successive seaming loops spaced apart by an aperture; and (v) a rearward portion continuous with the forward portion, the rearward portion comprising an upper member and a lower member, the upper and lower members (120, 121) being substantially planar and having mutually opposed inner surfaces, wherein at least one of the upper and lower member comprises one or more slits between the first lateral edge and the second lateral edge, the one or more slits extending from the respective trailing edge in a direction towards the forward portion of the seaming element, and the one or more slits is either evenly spaced or randomly spaced between the first lateral edge and second lateral edge; and the seaming element comprises a thermoplastic polymer. (i) a first lateral edge; (ii) a second lateral edge; (iii) a trailing edge; (iv) a forward portion comprising a plurality of protruding seaming loops with successive seaming loops spaced apart by an aperture; and (v) a rearward portion continuous with the forward portion, the rearward portion comprising an upper member and a lower member, the upper and lower members (120, 121) being substantially planar and having mutually opposed inner surfaces,