mhurhangee/patent-ind-claim-en huggingface dataset:
A steerable cannula assembly comprising: an outer cannula having a central lumen extending through it, the outer cannula including an articulating portion that curves in response to a force applied to a proximal end of the outer cannula , an inner cannula having a central lumen extending through it and being sized and configured to extend into a portion of the central lumen of the outer cannula , the inner cannula being bonded at its distal end to a distal end of the outer cannula by means of at least one of a chemical bond, a thermal bond and a mechanical bond, and having a slot formed in its wall along its longitudinal axis, wherein the outer cannula is configured such that a force applied to the proximal end of the outer cannula results in movement of the proximal end of the outer cannula in a direction along a longitudinal axis of the outer cannula, the assembly including a sealing lumen covering at least a portion of an outer surface of the inner cannula to provide a barrier between the inner cannula and the outer cannula , the assembly having an opening extending through a wall of the outer cannula and a wall of the inner cannula to provide access to the central lumen of the inner cannula at the distal tip of the cannula assembly . an outer cannula having a central lumen extending through it, the outer cannula including an articulating portion that curves in response to a force applied to a proximal end of the outer cannula , an inner cannula having a central lumen extending through it and being sized and configured to extend into a portion of the central lumen of the outer cannula , the inner cannula being bonded at its distal end to a distal end of the outer cannula by means of at least one of a chemical bond, a thermal bond and a mechanical bond, and having a slot formed in its wall along its longitudinal axis, wherein the outer cannula is configured such that a force applied to the proximal end of the outer cannula results in movement of the proximal end of the outer cannula in a direction along a longitudinal axis of the outer cannula, the assembly including a sealing lumen covering at least a portion of an outer surface of the inner cannula to provide a barrier between the inner cannula and the outer cannula , the assembly having an opening extending through a wall of the outer cannula and a wall of the inner cannula to provide access to the central lumen of the inner cannula at the distal tip of the cannula assembly .
A compressor section of a gas turbine engine, the compressor section defining a downstream direction and an upstream direction, the compressor section comprising: a shroud with a shroud surface ; a rotor rotatably supported within the shroud, the rotor including a blade that radially terminates at a blade tip , the blade tip opposing the shroud surface, the rotor configured to rotate within the shroud about an axis of rotation; a serration groove (211-214) that is recessed into the shroud surface; the serration groove including a forward portion with a forward transition and a forward surface that faces in the downstream direction, the forward transition being convexly contoured between the shroud surface and the forward surface; and the serration groove including a trailing portion with a taper surface and a trailing transition , the taper surface tapering inward as the taper surface extends from the forward surface to the trailing transition, the trailing transition being convexly contoured between the taper surface and the shroud surface. a shroud with a shroud surface ; a rotor rotatably supported within the shroud, the rotor including a blade that radially terminates at a blade tip , the blade tip opposing the shroud surface, the rotor configured to rotate within the shroud about an axis of rotation; a serration groove (211-214) that is recessed into the shroud surface; the serration groove including a forward portion with a forward transition and a forward surface that faces in the downstream direction, the forward transition being convexly contoured between the shroud surface and the forward surface; and the serration groove including a trailing portion with a taper surface and a trailing transition , the taper surface tapering inward as the taper surface extends from the forward surface to the trailing transition, the trailing transition being convexly contoured between the taper surface and the shroud surface.
Closure element having at least one vent opening, wherein the closure element is a closure plug which comprises a peg-shaped lower part having an underside , wherein the at least one vent opening is formed by a channel in the closure plug , which, starting at an inlet opening into the channel , extends upwards from the underside of the peg-shaped lower part in the interior of the closure plug and leads out of the closure plug through a lateral outlet opening , wherein the lateral outlet opening is the only outlet opening of the closure plug , characterized in that the channel has an enlarged orifice cross-section at the lateral outlet opening .
A high-density electrode catheter (101, 120, 120', 120", 120"', 300, 320, 320', 530, 600) comprising: a catheter shaft including a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis (a-a); a shaft magnetic position sensor disposed along a distal portion of the catheter shaft; a flexible tip portion (110, 122, 190, 190', 190", 190′′′, 302, 324, 380, 400) located adjacent to the distal end of the catheter shaft , wherein the flexible tip portion (110, 122, 190, 190', 190", 190′′′, 302, 324, 380, 400) includes a flexible framework comprising: first and second longitudinally extending outboard arms (103, 106, 126-1, 126-4, 312-1, 312-4, 322-1, 322-6, 402-1, 402-5, 404-1, 404-5, 422-1, 422-4, 428-1, 428-5, 440-1, 440-5, 452-1, 452-4, 462-1, 462-7, 532-1, 532-5); first and second longitudinally extending inboard arms (104, 126-2, 312-1, 322-3, 102-2, 404-2, 422-2, 428-2, 440-2, 452-3; 105, 126-3, 312-3, 322-4, 402-4, 404-4, 422-3, 428-4, 440-4, 452-5); and a central arm (126-5, 125-5, 192-5, 382-4, 402-3, 404-3, 428-3, 432, 440-3, 462-4, 532-3) that extends between the first and second longitudinally extending inboard arms; a plurality of electrodes disposed on the flexible framework; a proximal coupler from which the first and second outboard arms, the first and second inboard arms, and the central arm extend, wherein the first and second outboard arms and the first and second inboard arms exit the proximal coupler on a first plane; characterised in that the central arm exits the proximal coupler on either side of the first plane and extends distally away from the proximal coupler and toward the first plane; and a tip magnetic position sensor disposed on a distal portion of the flexible framework. a catheter shaft including a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis (a-a); a shaft magnetic position sensor disposed along a distal portion of the catheter shaft; first and second longitudinally extending outboard arms (103, 106, 126-1, 126-4, 312-1, 312-4, 322-1, 322-6, 402-1, 402-5, 404-1, 404-5, 422-1, 422-4, 428-1, 428-5, 440-1, 440-5, 452-1, 452-4, 462-1, 462-7, 532-1, 532-5); first and second longitudinally extending inboard arms (104, 126-2, 312-1, 322-3, 102-2, 404-2, 422-2, 428-2, 440-2, 452-3; 105, 126-3, 312-3, 322-4, 402-4, 404-4, 422-3, 428-4, 440-4, 452-5); and a central arm (126-5, 125-5, 192-5, 382-4, 402-3, 404-3, 428-3, 432, 440-3, 462-4, 532-3) that extends between the first and second longitudinally extending inboard arms; a plurality of electrodes disposed on the flexible framework; a proximal coupler from which the first and second outboard arms, the first and second inboard arms, and the central arm extend, wherein the first and second outboard arms and the first and second inboard arms exit the proximal coupler on a first plane; characterised in that the central arm exits the proximal coupler on either side of the first plane and extends distally away from the proximal coupler and toward the first plane; and a tip magnetic position sensor disposed on a distal portion of the flexible framework.
A rotor of a turbine extending about an axis (X) and comprising: - a disc centred on the axis (X) and including slots and teeth provided in an outer periphery of the disc , the slots being circumferentially distributed around the disc and the teeth each being delimited by two circumferentially adjacent slots , - a plurality of vanes , each vane comprising: ∘ a blade which extends radially with respect to the axis (X) ∘ a root formed in radial extension of the blade , configured to be mounted in a respective slot of the disc , ∘ a platform located between the blade and the root of the vane , ∘ wherein the disc comprises axial retention means configured to axially hold the roots of the vanes in the slots of the disc , characterised in that the axial retention means include a first series and a second series of lamellae circumferentially distributed about the axis (X), the first series and the second series of lamellae being axially superimposed and arranged so that: - at least two circumferentially adjacent lamellae of the first series are axially superimposed on a lamella of the second series and circumferentially offset, - each lamella of the first and second series is disposed facing a slot of the disc so as to axially block the root of a vane mounted in said slot of the disc . - a disc centred on the axis (X) and including slots and teeth provided in an outer periphery of the disc , the slots being circumferentially distributed around the disc and the teeth each being delimited by two circumferentially adjacent slots , - a plurality of vanes , each vane comprising: ∘ a blade which extends radially with respect to the axis (X) ∘ a root formed in radial extension of the blade , configured to be mounted in a respective slot of the disc , ∘ a platform located between the blade and the root of the vane , ∘ wherein the disc comprises axial retention means configured to axially hold the roots of the vanes in the slots of the disc , ∘ a blade which extends radially with respect to the axis (X) ∘ a root formed in radial extension of the blade , configured to be mounted in a respective slot of the disc , ∘ a platform located between the blade and the root of the vane , ∘ wherein the disc comprises axial retention means configured to axially hold the roots of the vanes in the slots of the disc , - at least two circumferentially adjacent lamellae of the first series are axially superimposed on a lamella of the second series and circumferentially offset, - each lamella of the first and second series is disposed facing a slot of the disc so as to axially block the root of a vane mounted in said slot of the disc .
A prepreg comprising a reinforcement fiber (A) and a resin composition (E), the resin composition (E) comprising 0.1 to 8 mass% of particles (D) comprising an ultrahigh molecular weight olefin polymer or a crosslinked product thereof and satisfying requirements (i) to (ii) below, the resin composition (E) further comprising a thermosetting resin (B) and a curing agent (C); (i) the intrinsic viscosity [η] of the ultrahigh molecular weight olefin polymer forming the particles, as measured in decalin solvent at 135°C and determined as defined in the description, is 5 to 50 dl/g; (ii) the average particle size d50, which is a value at cumulative 50 mass% of grain size distribution obtained by the measurement of weight-basis grain size distribution using a Coulter counter method, as defined in the description, is 3 to 200 μm, wherein the thermosetting resin (B) is an epoxy resin, and the curing agent (C) is an epoxy curing agent. (i) the intrinsic viscosity [η] of the ultrahigh molecular weight olefin polymer forming the particles, as measured in decalin solvent at 135°C and determined as defined in the description, is 5 to 50 dl/g; (ii) the average particle size d50, which is a value at cumulative 50 mass% of grain size distribution obtained by the measurement of weight-basis grain size distribution using a Coulter counter method, as defined in the description, is 3 to 200 μm,
Transverse partition for separating a driver's cab of a vehicle and a rear cargo space , wherein said transverse partition comprises a fixed panel provided with an opening , said opening comprising an upper border and a lower border that are substantially rectilinear and arranged on the fixed panel , and a movable panel that is mounted so as to be able to pivot about a pivot pin (Y1) integral with the fixed panel between a closing-off position in which said movable panel fills the opening and a position in which the opening is unobstructed, and the pivot pin (Y1) is arranged parallel to the lower border of the opening and in contact with the lower border , the transverse partition being provided with holding means for holding the movable panel in the position in which the opening is unobstructed, the transverse partition being characterized in that the holding means comprise a pivoting upper deployment panel , said upper deployment panel comprising an outer edge , the upper border of the opening comprising elements for receiving and locking the outer edge of the upper deployment panel on the upper border of the opening.
A calibration method for a rotation angle calculation device configured to calculate a rotation angle of a rotating body , based on a detection signal output from a sensor depending on rotation of the rotating body , the method comprising: the rotation angle calculation device calculating a rotation angle of the rotating body , based on the detection signal; transmitting rotation angle data indicating the rotation angle from the rotation angle calculation device to a calibration device ; obtaining a capture time that is a time when the detection signal has been captured from the sensor ; generating time difference data relating to a time difference after having captured the detection signal from the sensor until transmitting the rotation angle data on the basis of the capture time; transmitting the time difference data from the rotation angle calculation device to the calibration device ; the calibration device measuring a rotation angle of the rotating body ; clocking a measurement time at which the calibration device measures a rotation angle of the rotating body and a transmission time at which the rotation angle data are transmitted or received, using the calibration device ; and acquiring calibration data of the rotation angle data by comparing a rotation angle of the rotating body measured by the calibration device at a time obtained by going back in time from the transmission time by the time difference and the rotation angle data with each other. the rotation angle calculation device calculating a rotation angle of the rotating body , based on the detection signal; transmitting rotation angle data indicating the rotation angle from the rotation angle calculation device to a calibration device ; obtaining a capture time that is a time when the detection signal has been captured from the sensor ; generating time difference data relating to a time difference after having captured the detection signal from the sensor until transmitting the rotation angle data on the basis of the capture time; transmitting the time difference data from the rotation angle calculation device to the calibration device ; the calibration device measuring a rotation angle of the rotating body ; clocking a measurement time at which the calibration device measures a rotation angle of the rotating body and a transmission time at which the rotation angle data are transmitted or received, using the calibration device ; and acquiring calibration data of the rotation angle data by comparing a rotation angle of the rotating body measured by the calibration device at a time obtained by going back in time from the transmission time by the time difference and the rotation angle data with each other.
Control method of a device for cleaning a suspension , said device having at least one chamber for the suspension and a heavy fraction separator that is connected thereto, characterized in that the degree of turbulence and/or the extent of the contaminant load and/or the bulk height is optically detected in the area of the heavy fraction separator and is taken this into account during the control of the device, wherein the change in position of individual particles is evaluated during the optical detection. that the degree of turbulence and/or the extent of the contaminant load and/or the bulk height is optically detected in the area of the heavy fraction separator and is taken this into account during the control of the device, wherein the change in position of individual particles is evaluated during the optical detection.
Aqueous adhesive composition, characterized in that it comprises a thermosetting resin based on: A1) at least one aromatic compound comprising at least one aromatic ring bearing at least two functions, one of these functions being a hydroxymethyl function and the other being an aldehyde function or a hydroxymethyl function; and A2) at least one aromatic polyphenol comprising: - at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted; or - several aromatic rings, at least two of these each bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions of at least one aromatic ring being unsubstituted. A1) at least one aromatic compound comprising at least one aromatic ring bearing at least two functions, one of these functions being a hydroxymethyl function and the other being an aldehyde function or a hydroxymethyl function; and A2) at least one aromatic polyphenol comprising: - at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted; or - several aromatic rings, at least two of these each bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions of at least one aromatic ring being unsubstituted. - at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted; or - several aromatic rings, at least two of these each bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions of at least one aromatic ring being unsubstituted.
Improved apparatus for reaction and injection molding comprising at least one high pressure mixing and dosing head for a mixture of thermosetting resins and a mold, said mold having: - at least one adduction portion to be coupled with an operating end of the mixing and dosing head , - at least one feeding and distribution channel and at least one forming area in fluid communication with each other and with the adduction portion, further comprising a shutter device that is active between said adduction portion and said feeding and distribution channel , or in said channel, characterized in that the shutter device is configured to allow decoupling said mixing and dosing head from said adduction portion immediately at the end of the introduction phase of said mixture of thermosetting resins under pressure, wherein said shutter device is a hollow cylinder having an end that is movably guided towards said adduction portion and inside which a depressor piston is movable . - at least one adduction portion to be coupled with an operating end of the mixing and dosing head , - at least one feeding and distribution channel and at least one forming area in fluid communication with each other and with the adduction portion, further comprising a shutter device that is active between said adduction portion and said feeding and distribution channel , or in said channel,
An apparatus comprising: at least one vessel, the vessel including an inlet and an outlet; a gear fixedly attached to at least a portion of the vessel such that rotation of the gear rotates the vessel , the gear being configured to be rotated by a drive system ; a handle assembly rotatably attached to the gear , the handle assembly including an opening therein, at least a portion of the gear engaging at least a portion of the drive system through the opening, the handle assembly being configured to be rotated by the drive system ; and a plurality of tubes extending through the handle assembly and to the vessel , one of the plurality of tubes being connected to the inlet of the vessel and one of the plurality of tubes being connected to the outlet of the vessel , wherein the gear is rotated at twice a speed of the handle assembly when the apparatus is inserted into a bowl to suspend material in the at least one vessel . at least one vessel, the vessel including an inlet and an outlet; a gear fixedly attached to at least a portion of the vessel such that rotation of the gear rotates the vessel , the gear being configured to be rotated by a drive system ; a handle assembly rotatably attached to the gear , the handle assembly including an opening therein, at least a portion of the gear engaging at least a portion of the drive system through the opening, the handle assembly being configured to be rotated by the drive system ; and a plurality of tubes extending through the handle assembly and to the vessel , one of the plurality of tubes being connected to the inlet of the vessel and one of the plurality of tubes being connected to the outlet of the vessel , wherein the gear is rotated at twice a speed of the handle assembly when the apparatus is inserted into a bowl to suspend material in the at least one vessel .