mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor device comprising: a rotor rotatable around a rotation axis that is aligned with a circle center (C); a stator disposed outside the rotor ; and a sensor module disposed outside the stator , wherein the rotor includes a sleeve and a magnet that is ring-shaped and that is coupled to the sleeve , the magnet is disposed inside the sleeve , and the sleeve includes at least one fixing part which protrudes in the axial direction of the rotation axis from a lower end of the sleeve and is in contact with the magnet , wherein the sleeve includes a first body , a second body , and a third body , wherein the second body connects the first body and the third body and has a shape of a step surface orthogonal to said rotation axis, wherein an inner diameter (D2) of the third body is greater than that of the first body, wherein an inner diameter (D3) of the magnet is greater than or equal to that of the first body, wherein the second body is disposed to cover an upper surface of the magnet , the third body is disposed to cover an outer circumferential surface of the magnet, wherein the inner surface of the first body contacts a shaft, wherein the magnet is disposed between the shaft and the third body , wherein the at least one fixing part is bent radially inward towards the rotation axis such that it is in contact with at least a part of a lower surface of the magnet , and wherein the at least one fixing part is adapted for fixing the magnet in order to couple the magnet to the sleeve . a rotor rotatable around a rotation axis that is aligned with a circle center (C); a stator disposed outside the rotor ; and a sensor module disposed outside the stator , wherein the rotor includes a sleeve and a magnet that is ring-shaped and that is coupled to the sleeve , the magnet is disposed inside the sleeve , and the sleeve includes at least one fixing part which protrudes in the axial direction of the rotation axis from a lower end of the sleeve and is in contact with the magnet , wherein the sleeve includes a first body , a second body , and a third body , wherein the second body connects the first body and the third body and has a shape of a step surface orthogonal to said rotation axis, wherein an inner diameter (D2) of the third body is greater than that of the first body, wherein an inner diameter (D3) of the magnet is greater than or equal to that of the first body, wherein the second body is disposed to cover an upper surface of the magnet , the third body is disposed to cover an outer circumferential surface of the magnet, wherein the inner surface of the first body contacts a shaft, wherein the magnet is disposed between the shaft and the third body , wherein the at least one fixing part is bent radially inward towards the rotation axis such that it is in contact with at least a part of a lower surface of the magnet , and wherein the at least one fixing part is adapted for fixing the magnet in order to couple the magnet to the sleeve .
A device for aiding implantation of a heart valve annuloplasty ring , the device comprising an elongate flexible shaft having a reference ring defined along a distal portion thereof, the reference ring being elastically deformable from a pre-formed deployment configuration to a straight delivery configuration, the deployment configuration having at least one coil approximating a size and shape of the annuloplasty ring, wherein the reference ring comprises a jacket disposed about a core .
An MEMS microphone, comprising a substrate , a lower electrode layer , a sacrificial layer , a stress layer , and an upper electrode layer ; wherein the substrate defines a first opening in a middle portion thereof, the lower electrode layer spans the substrate ; the sacrificial layer , the stress layer , and the upper electrode layer are sequentially laminated on the lower electrode layer ; the sacrificial layer and the stress layer define a second opening corresponding to the first opening ; a stress direction of the stress layer is opposite to a warping direction of the substrate , characterized in that the upper electrode layer is a flexible film serving as a diaphragm, and the lower electrode layer is a rigid film serving as a back plate.
A non-pneumatic tire comprising: an annular inner ring ; an annular outer ring ; a support structure (230a; 230b; 230c; 230d) extending from the annular inner ring to the annular outer ring , wherein the support structure (230a; 230b; 230c; 230d) includes a multilayer structure (201; 202; 203; 204; 205) including: a skim layer formed from a rubber compound including cobalt, a plurality of steel cords (301, 302, 303, 304, 305; 301a, 302a, 303a, 304a, 305a; 301b, 302b, 303b, 304b, 305b) embedded in the skim layer , and an outer protective layer (325; 350, 380) covering at least a portion of a surface of the skim layer , wherein the outer protective layer (325; 350, 380) has greater resistance to ozone exposure than the skim layer . an annular inner ring ; an annular outer ring ; a support structure (230a; 230b; 230c; 230d) extending from the annular inner ring to the annular outer ring , wherein the support structure (230a; 230b; 230c; 230d) includes a multilayer structure (201; 202; 203; 204; 205) including: a skim layer formed from a rubber compound including cobalt, a plurality of steel cords (301, 302, 303, 304, 305; 301a, 302a, 303a, 304a, 305a; 301b, 302b, 303b, 304b, 305b) embedded in the skim layer , and an outer protective layer (325; 350, 380) covering at least a portion of a surface of the skim layer , wherein the outer protective layer (325; 350, 380) has greater resistance to ozone exposure than the skim layer . a skim layer formed from a rubber compound including cobalt, a plurality of steel cords (301, 302, 303, 304, 305; 301a, 302a, 303a, 304a, 305a; 301b, 302b, 303b, 304b, 305b) embedded in the skim layer , and an outer protective layer (325; 350, 380) covering at least a portion of a surface of the skim layer , wherein the outer protective layer (325; 350, 380) has greater resistance to ozone exposure than the skim layer .
A reinforced structure comprising a base with a longitudinal axis (Y, Y') and at least: - a hollow tube having a longitudinal axis (X) substantially perpendicular to the longitudinal axis (Y, Y') of the base , an end fixed in the base and a free end , said hollow tube being made of a given material, - a shaft housed inside the hollow tube and having a longitudinal axis (X') coinciding with that of the hollow tube, said shaft also being made of a material having a higher hardness than that of the material forming the hollow tube, characterised in that it further comprises: - means of cooperation between the hollow tube and the shaft configured to allow the shaft to rotate freely about its longitudinal axis (X') and to retain the shaft axially with respect to the hollow tube so as to prevent its removal by the free end . - a hollow tube having a longitudinal axis (X) substantially perpendicular to the longitudinal axis (Y, Y') of the base , an end fixed in the base and a free end , said hollow tube being made of a given material, - a shaft housed inside the hollow tube and having a longitudinal axis (X') coinciding with that of the hollow tube, said shaft also being made of a material having a higher hardness than that of the material forming the hollow tube, - means of cooperation between the hollow tube and the shaft configured to allow the shaft to rotate freely about its longitudinal axis (X') and to retain the shaft axially with respect to the hollow tube so as to prevent its removal by the free end .
A method for producing a metal element for a continuously variable transmission (T), in which the metal element is produced by, using a mold , press forming and punching out a band-shaped metal element material having a constant section, the metal element comprising a pair of ring slots into which a pair of metal rings are fitted, a neck part that is positioned between the pair of ring slots , an ear part that is connected to a radially outer side of the neck part , and a body part that has formed thereon a saddle face connected to a radially inner side of the neck part and supporting an inner peripheral face of the metal ring , a front face of the body part having formed thereon a rocking edge extending in a left-and-right direction so as to overlap a front edge of the saddle face and an inclined face extending from the rocking edge radially inward and rearward, wherein an inclined face-corresponding part of the metal element material that corresponds to the inclined face of the metal element comprises a first inclined face-corresponding portion that is inclined rearward at a first inclination angle (θ1) from a rocking edge-corresponding part that corresponds to the rocking edge of the metal element , and a second inclined face-corresponding portion that is inclined rearward at a second inclination angle (θ2) that is larger than the first inclination angle (θ1) from a radially inner end of the first inclined face-corresponding portion , the mold comprises a first inclined face-molding portion that is inclined rearward at the first inclination angle (θ1) from a rocking edge-molding portion that abuts against the rocking edge-corresponding part , and at a time of press forming, the first inclined face-molding portion abuts against the first inclined face-corresponding portion of the metal element material to form a gap (α) between the first inclined face-molding portion and the second inclined face-corresponding portion .
Glaucoma implant device comprising an elongate member made a biocompatible polymer or gel provided with two tube-like sections, a proximal tube and a distal tube , both tubes having an interior flow pathway providing a fluid pathway between the eye's anterior chamber and a suprachoroidal space when the elongate member is implanted in the eye, the proximal tube having a lumen diameter between 0.1 mm and 0.25 mm, the distal tube having a diameter between 1 and 3 mm and greater than that of the proximal tube , the distal tube being provided with at least two holes in all directions characterised in that the distal tube is provided with at least one fixation flange , wherein the at least one fixation flange has a chevron or V shape with a capped vertex pointing towards the distal tube for facilitating insertion.
A method of separating a volatile compound from a liquid feed mixture comprising an emulsion, the emulsion comprising an organopolysiloxane polymer, the method comprising: contacting a first side of a first dense silicone hollow fibre membrane within an absorption module with the liquid feed mixture comprising the emulsion having at least one volatile compound, wherein the volatile compound is selected from a volatile linear- or cyclosiloxane; and contacting a second side of the first dense silicone hollow fibre membrane in the absorption module with a sweep medium comprising a sweep fluid, to produce a permeate mixture on the second side of the first membrane and a retentate mixture comprising the emulsion on the first side of the first membrane, wherein the permeate mixture is enriched in the volatile compound, and the retentate mixture is depleted in the volatile compound; wherein the sweep fluid is regenerated by desorbing the volatile compounds through the use of a membrane or membrane-free desorption module using a higher temperature than used during the absorption and recirculated into contact with the second side of the first dense membrane; and wherein the feed fluid exiting the absorption module is recirculated continuously to the first side of the first dense membrane until the process is stopped; wherein the sweep fluid comprises an organosilicon fluid. contacting a first side of a first dense silicone hollow fibre membrane within an absorption module with the liquid feed mixture comprising the emulsion having at least one volatile compound, wherein the volatile compound is selected from a volatile linear- or cyclosiloxane; and contacting a second side of the first dense silicone hollow fibre membrane in the absorption module with a sweep medium comprising a sweep fluid, to produce a permeate mixture on the second side of the first membrane and a retentate mixture comprising the emulsion on the first side of the first membrane, wherein the permeate mixture is enriched in the volatile compound, and the retentate mixture is depleted in the volatile compound; wherein the sweep fluid is regenerated by desorbing the volatile compounds through the use of a membrane or membrane-free desorption module using a higher temperature than used during the absorption and recirculated into contact with the second side of the first dense membrane; and wherein the feed fluid exiting the absorption module is recirculated continuously to the first side of the first dense membrane until the process is stopped; wherein the sweep fluid comprises an organosilicon fluid.
A surface shape measurement apparatus to measure a surface shape of a measurement object, wherein the surface shape measurement apparatus comprises: a measurement unit having a distance measurement device arranged to measure a distance to a measurement point on a surface of the measurement object using a first probe light and an angle measurement device arranged to measure inclination of the surface at said measurement point using a second probe light; a first calculation part configured to calculate reference shape data of the measurement object based on the distance measured by the distance measurement device; and a second calculation part configured to calculate detailed shape data of the measurement object based on said inclination at the measurement point measured by the angle measurement device, said calculated reference shape data, and a sampling interval that is the sampling interval when scanning the angle measurement device, wherein the first probe light and the second probe light overlap at a reference distance from a reference position of the surface shape measurement apparatus, and wherein the surface shape measurement apparatus is configured to perform scanning such that the distance between the measurement unit and the surface of the measurement object is kept at the reference distance. a second calculation part configured to calculate detailed shape data of the measurement object based on said inclination at the measurement point measured by the angle measurement device, said calculated reference shape data, and a sampling interval that is the sampling interval when scanning the angle measurement device, wherein the first probe light and the second probe light overlap at a reference distance from a reference position of the surface shape measurement apparatus, and wherein the surface shape measurement apparatus is configured to perform scanning such that the distance between the measurement unit and the surface of the measurement object is kept at the reference distance.
A cushion assembly for a mask used for treatment of sleep disordered breathing, the cushion assembly comprising: a first layer including a front side adapted to contact a shell or a body of the mask; and a second layer formed of foam having different densities, the second layer defining a cushion shape and forming a face-engaging structure that is configured for being compressed upon contact with a wearer's face. a first layer including a front side adapted to contact a shell or a body of the mask; and a second layer formed of foam having different densities, the second layer defining a cushion shape and forming a face-engaging structure that is configured for being compressed upon contact with a wearer's face.
Signalling system for signalling an impact on a collision protection means comprising at least two hollow enclosure posts between which at least one hollow cross member extends, wherein the enclosure posts each comprise a tubular coupling part across which a part of the cross member is slidable in order to couple the cross member to the enclosure post , wherein the signalling system comprises a signalling element , characterized in that said signalling element is provided with a securing part in order to be secured to the coupling part and comprises a foldable part of a predetermined length, wherein the signalling element is configured to fold open when the distance between the cross member and the enclosure post becomes greater than the predetermined length due to the cross member being displaced with respect to the enclosure post .
Hot air cooking appliance , which comprises a heating block arranged at the upper part and a base arranged at the lower part, said base comprising a housing above which the heating block is removably mounted to define an operating configuration of the cooking appliance , said housing being able to accommodate a cooking vessel provided with an upper opening intended to be arranged opposite said heating block , characterised in that the cooking appliance has a storage configuration in which the heating block is placed above the base in an inverted position by embedding a specific portion of said heating block into the housing of said base .
Drag strand comprising a decoupling means , the drag strand having a plurality of hollow links which form a lined-up drag chain that comprises an internal channel in which the decoupling means is arranged with a line arranged therein for damping and/or springing force flows onto the line within the drag strand , so that at least one portion of the decoupling means is arranged between the line and a wall of the drag strand , a damping and/or resilient part of the decoupling means being arranged on a side of the wall which is directed outward with respect to the channel , characterized in that the decoupling means surrounds at least the line such that the line is spaced apart from all walls forming the contour of the channel .
Electrode element - comprising a ring-shaped electrode having an internal diameter (d) and an external diameter (D), - comprising a first element bearing against a first outer surface of the electrode , and - comprising a second ring-shaped element bearing against a second outer surface of the electrode , characterized in that - the first element is a first sealing element , - the second element is a second sealing element , and - the electrode is a sleeve having a flange and an outer thread . - comprising a ring-shaped electrode having an internal diameter (d) and an external diameter (D), - comprising a first element bearing against a first outer surface of the electrode , and - comprising a second ring-shaped element bearing against a second outer surface of the electrode , characterized in that - the first element is a first sealing element , - the second element is a second sealing element , and - the electrode is a sleeve having a flange and an outer thread .
A throttle valve for noise reduction of exhaust gases comprising a tubular valve body with a longitudinal axis (X) and having at least one side wall which laterally delimits an inner cavity ; wherein said inner cavity is, in use, a passage section for the exhaust gases of an internal combustion engine of a vehicle; the throttle valve is configured to be connected to an exhaust pipe (F) of an internal combustion engine; the throttle valve comprising a hinge (H), which has a rotation axis (Y) and is connected to the side wall and a shutter (O), which rotates in said inner cavity about the rotation axis (Y) of said hinge (H); wherein the valve body has an annular abutment radially protruding in the inner cavity ; the throttle valve comprising a gasket , in particular an anti-extrusion ring, which is fitted in said inner cavity and is axially mounted against said annular abutment ; wherein the shutter (O) is configured to be arranged, in use, in abutment against said gasket when it is in a closing position (C); wherein said gasket has an annular shape and a rectangular section with a pair of flat and mutually opposite abutment surfaces ; wherein said hinge (H) comprises: - a support having a hollow seat , which has the rotation axis (Y); and - a hinge pin , which is housed in said seat and rotates about the rotation axis (Y); wherein said shutter (O) is connected to said hinge pin to rotate therewith about the rotation axis (Y) in an integral manner; wherein the hinge pin is operable by an external actuator (K); wherein the shutter (O) comprises a throttle wall ; wherein the shape of said throttle wall is complementary to the shape of said inner cavity ; wherein the size of the throttle wall is such to provide a clearance (g) between the throttle wall and the side wall , when the throttle wall is in the closing position (C); the valve being characterized in that the gasket is arranged in the inner cavity so that the abutment surface is in contact with the annular abutment , while the opposite abutment surface is configured to be in contact with the throttle wall when it is in the closing position (C), and in that the valve comprises at an end of the hinge pin a pulley and a spring ; wherein the pulley is configured to be operated by said external actuator ; and wherein the pulley cooperates with the spring to cause the opening and/or the closing of the passage section through the shutter . - a support having a hollow seat , which has the rotation axis (Y); and - a hinge pin , which is housed in said seat and rotates about the rotation axis (Y);
A composition comprising at least one functionalized olefin interpolymer wherein the interpolymer is a block interpolymer comprising at least 50 mole percent ethylene, and wherein the functionalized olefin interpolymer is formed from an olefin interpolymer having at least one melting point T m , in degrees Celsius, and a density d*, in grams/cubic centimeter, and wherein the numerical values of the variables correspond to the relationship: T m > − 2002.9 + 4538.5 d * − 2422.2 d * 2 , and wherein the olefin interpolymer has a M w /M n from 1.7 to 3.5.
A method for forming a ceramic matrix composite structure, the method comprising: providing a mixture of carbon nanotubes, graphene, and silicon carbon nitride; heating the mixture to bond the carbon nanotubes and the graphene; and sintering the silicon carbon nitride in the mixture, such that conductive pathways are formed between the carbon nanotubes and the graphene within the ceramic backbone, wherein the carbon nanotubes is in a range of 10-30 % by weight; the graphene is in a range of 10-30 % by weight; and the silicon carbon nitride is in a powder form in a range of 60-80 % by weight, and wherein a combined weight of the carbon nanotubes and the graphene in the mixture is less than 40 % by weight. providing a mixture of carbon nanotubes, graphene, and silicon carbon nitride; heating the mixture to bond the carbon nanotubes and the graphene; and sintering the silicon carbon nitride in the mixture, such that conductive pathways are formed between the carbon nanotubes and the graphene within the ceramic backbone, wherein the carbon nanotubes is in a range of 10-30 % by weight; the graphene is in a range of 10-30 % by weight; and the silicon carbon nitride is in a powder form in a range of 60-80 % by weight, and wherein a combined weight of the carbon nanotubes and the graphene in the mixture is less than 40 % by weight.