mhurhangee/patent-ind-claim-en huggingface dataset:
An handling assembly for handling a propulsion unit including a nacelle and an aircraft turbojet engine, said handling assembly being characterized in that it includes: - a handling envelope covering at least the half-circumference of an outer wall of an air inlet of the nacelle, when said propulsion unit is mounted on said handling assembly , - at least two interfaces for fastening slings, said slings being intended to be connected to a hoisting system external to said handling assembly . - a handling envelope covering at least the half-circumference of an outer wall of an air inlet of the nacelle, when said propulsion unit is mounted on said handling assembly , - at least two interfaces for fastening slings, said slings being intended to be connected to a hoisting system external to said handling assembly .
A gas turbine engine comprising: a combustor section arranged between a compressor section and a turbine section ; a fan section having an array of twenty-six or fewer fan blades , wherein the fan section has a fan pressure ratio of less than 1.55; a geared architecture coupling the fan section to the turbine section or the compressor section , wherein the compressor section includes at least a low pressure compressor and a high pressure compressor , and the high pressure compressor is arranged immediately upstream of the combustor section , the low pressure compressor is counter-rotating relative to the fan blades , and immediately downstream from the fan section ; and a compressor airfoil arranged in the low pressure compressor , and comprising pressure and suction sides extending in a radial direction from a 0% span position to a 100% span position, characterised in that the airfoil has a relationship between a tangential stacking offset (Y d ) and span position that defines a curve that is non-linear, wherein the tangential stacking offset (Y d ) is the tangential distance between a centre of gravity (Y CG ) for a particular section at a given span location and a reference point corresponding to a tangential centre of an airfoil root. a combustor section arranged between a compressor section and a turbine section ; a fan section having an array of twenty-six or fewer fan blades , wherein the fan section has a fan pressure ratio of less than 1.55; a geared architecture coupling the fan section to the turbine section or the compressor section , wherein the compressor section includes at least a low pressure compressor and a high pressure compressor , and the high pressure compressor is arranged immediately upstream of the combustor section , the low pressure compressor is counter-rotating relative to the fan blades , and immediately downstream from the fan section ; and a compressor airfoil arranged in the low pressure compressor , and comprising pressure and suction sides extending in a radial direction from a 0% span position to a 100% span position, characterised in that the airfoil has a relationship between a tangential stacking offset (Y d ) and span position that defines a curve that is non-linear, wherein the tangential stacking offset (Y d ) is the tangential distance between a centre of gravity (Y CG ) for a particular section at a given span location and a reference point corresponding to a tangential centre of an airfoil root.
A mixed, virtual and augmented reality headset, comprising: a front casing suitable for being secured to the head of a user; a curved holographic display located in the front portion of the headset and configured for reflecting a projected image via the display of a smartphone and simultaneously allowing the user to see through same; a housing in the front casing for receiving the smartphone facing the holographic display ; at least one motorised mirror configured for being located in a withdrawn position outside the field of view of the user, or in an extended position in front of the holographic display , in the field of view of the user, for reflecting the projected image via the display of the smartphone ; two motorised lenses configured for being located in a withdrawn position, outside the field of view of the user, or in an extended position in front of the pupils of the user; a mirror system configured for reflecting a real external image with respect to the headset towards a camera of the smartphone ; and a control unit in charge of controlling the position of the motorised lenses and of the at least one motorised mirror , so that the motorised mirror and motorised lenses are in the withdrawn position for the mixed reality mode and in the extended position for the augmented and virtual reality modes. a front casing suitable for being secured to the head of a user; a curved holographic display located in the front portion of the headset and configured for reflecting a projected image via the display of a smartphone and simultaneously allowing the user to see through same; a housing in the front casing for receiving the smartphone facing the holographic display ; at least one motorised mirror configured for being located in a withdrawn position outside the field of view of the user, or in an extended position in front of the holographic display , in the field of view of the user, for reflecting the projected image via the display of the smartphone ; two motorised lenses configured for being located in a withdrawn position, outside the field of view of the user, or in an extended position in front of the pupils of the user; a mirror system configured for reflecting a real external image with respect to the headset towards a camera of the smartphone ; and a control unit in charge of controlling the position of the motorised lenses and of the at least one motorised mirror , so that the motorised mirror and motorised lenses are in the withdrawn position for the mixed reality mode and in the extended position for the augmented and virtual reality modes.
A wet laid, nonwoven filter medium having a first surface and a second surface defining a thickness, the medium comprising: a region comprising a z-direction fiber gradient, the gradient comprising bicomponent fiber, efficiency fiber and spacer fiber, the gradient comprising a continuous change of concentration of the spacer fiber in a direction from one surface to the other surface, the bicomponent fiber comprising a first thermoplastic portion with a first melting point and a second thermoplastic portion with a lower melting point, the bicomponent fiber having a diameter of at least 1 and at most 40 microns; the efficiency fiber comprising glass and having a fiber diameter of at least 0.5 micron and at most 6 microns, wherein the bicomponent fiber is larger in diameter than the efficiency fiber; wherein the spacer fiber is larger in diameter than the efficiency fiber and smaller in diameter than the bicomponent fiber; wherein the medium comprises 30 to 80 wt % bicomponent fiber; 10 to 70 wt % efficiency fiber, and 2 to 45 wt % spacer fiber; wherein the medium is characterized by having a β 200 greater than or equal to 5 micron and less than or equal to 15 micron. a region comprising a z-direction fiber gradient, the gradient comprising bicomponent fiber, efficiency fiber and spacer fiber, the gradient comprising a continuous change of concentration of the spacer fiber in a direction from one surface to the other surface, the bicomponent fiber comprising a first thermoplastic portion with a first melting point and a second thermoplastic portion with a lower melting point, the bicomponent fiber having a diameter of at least 1 and at most 40 microns; the efficiency fiber comprising glass and having a fiber diameter of at least 0.5 micron and at most 6 microns, wherein the bicomponent fiber is larger in diameter than the efficiency fiber; wherein the spacer fiber is larger in diameter than the efficiency fiber and smaller in diameter than the bicomponent fiber; wherein the medium comprises 30 to 80 wt % bicomponent fiber; 10 to 70 wt % efficiency fiber, and 2 to 45 wt % spacer fiber; wherein the medium is characterized by having a β 200 greater than or equal to 5 micron and less than or equal to 15 micron.
A method, comprising: providing a network process control system in an industrial processing facility (IPF) comprising a plant-wide network coupling at least one server to a plurality of controller platforms all coupled to one another by at least one network for providing a controller pool , each controller platform having at least one controller (211, 212, controller N, 218, 219, 261, 262) comprising computing hardware and a memory , and at least one application module (AM) pool including a plurality of AMs, wherein the plurality of controller platforms are coupled by an input/output (I/O) mesh network to I/O devices coupled to field devices that are coupled to processing equipment on a field level of an industrial processing facility (IPF), the method comprising: considering resource consumption attributes by the respective ones of the plurality controller platforms comprising at least a pool of available storage in the memory and the processing resources available for computing hardware, and based on the resource consumption attributes, at least partially automatically deploying ones of the plurality of AMs to the plurality of controller platforms, wherein the at least one of the plurality of AMs is configured to move across the plurality of controller platforms including between the controller pools. considering resource consumption attributes by the respective ones of the plurality controller platforms comprising at least a pool of available storage in the memory and the processing resources available for computing hardware, and based on the resource consumption attributes, at least partially automatically deploying ones of the plurality of AMs to the plurality of controller platforms, wherein the at least one of the plurality of AMs is configured to move across the plurality of controller platforms including between the controller pools.
Linear polymer containing isocyanate groups and having an NCO content in the range from 0.3% to 1.5% by weight and a monomeric diisocyanate content of not more than 0.5% by weight, characterized in that it is obtained from the reaction of at least one monomeric aromatic diisocyanate and a polyether diol having an OH number in the range from 5 to 21 mg KOH/g in an NCO/OH ratio of at least 5/1 and subsequent removal of a majority of the monomeric aromatic diisocyanate by means of a suitable separation method.
A first provider edge, PE, device , comprising: a receiving unit , configured to receive an encapsulated second data packet sent by a second PE device, wherein the encapsulated second data packet comprises a second data packet and the encapsulated second data packet carries a second label and a second source Media Access Control, MAC, address; a determining unit , configured to determine, according to the second label carried in the encapsulated second data packet received by the receiving unit , that the second data packet is received by the second PE device from an Ethernet segment, ES, of the second PE device; and an establishing unit , configured to establish a correspondence between the ES that is of the second PE device and determined by the determining unit and the second source MAC address received by the receiving unit , wherein the second source MAC address is learned by the first PE device by using a data plane for transmitting the encapsulated second data packet from the second PE device to the first PE device. a receiving unit , configured to receive an encapsulated second data packet sent by a second PE device, wherein the encapsulated second data packet comprises a second data packet and the encapsulated second data packet carries a second label and a second source Media Access Control, MAC, address; a determining unit , configured to determine, according to the second label carried in the encapsulated second data packet received by the receiving unit , that the second data packet is received by the second PE device from an Ethernet segment, ES, of the second PE device; and an establishing unit , configured to establish a correspondence between the ES that is of the second PE device and determined by the determining unit and the second source MAC address received by the receiving unit , wherein the second source MAC address is learned by the first PE device by using a data plane for transmitting the encapsulated second data packet from the second PE device to the first PE device.
A medical device delivery system comprising: a catheter ; an expandable device disposed on an end of the catheter; a sheath disposed around the expandable device and having a first configuration to retain the expandable device in a first outer peripheral dimension, the sheath having a second configuration to allow expansion of the expandable device to a second outer peripheral dimension larger than the first outer peripheral dimension; a release line extending through and maintaining the sheath in the first configuration, and being removable to allow actuation of the sheath to the second configuration; and a leash line forming a releasable interconnection between the catheter and the expandable device, the leash line having a loop for receiving the release line therethrough and retaining the interconnection between the catheter and the expandable device after removal of the release line from the sheath. a catheter ; an expandable device disposed on an end of the catheter; a sheath disposed around the expandable device and having a first configuration to retain the expandable device in a first outer peripheral dimension, the sheath having a second configuration to allow expansion of the expandable device to a second outer peripheral dimension larger than the first outer peripheral dimension; a release line extending through and maintaining the sheath in the first configuration, and being removable to allow actuation of the sheath to the second configuration; and a leash line forming a releasable interconnection between the catheter and the expandable device, the leash line having a loop for receiving the release line therethrough and retaining the interconnection between the catheter and the expandable device after removal of the release line from the sheath.
Use of a feed-through , which has a flange element and a tube element , and a hollow body for casting in a casting material, wherein the flange element is arranged axially at the end of the tube element and extends away from the tube element perpendicular to a centre axis of the tube element , wherein the flange element is placed against a bottom part of the hollow body , wherein the hollow body and the tube element are assembled as separately manufactured parts, in which use a wall or floor element is produced by filling the casting material into a formwork (53.1), which formwork (53.1) defines a side surface (51.1) of the wall or floor element , wherein the feed-through is cast in at an angle, i.e. the centre axis of the tube element lies at an angle to a surface normal on the side surface (51.1), and wherein the hollow body is placed against the formwork (53.1) for casting in the feed-through and defines a cavity in the casting material axially following the tube element , which cavity extends to the side surface (51.1) of the wall or floor element and is larger than an inner diameter of the tube element in distance directions perpendicular to the centre axis of the tube element , characterised in that the flange element is formed in one piece with the tube element . wherein the flange element is arranged axially at the end of the tube element and extends away from the tube element perpendicular to a centre axis of the tube element , wherein the flange element is placed against a bottom part of the hollow body , wherein the hollow body and the tube element are assembled as separately manufactured parts, in which use a wall or floor element is produced by filling the casting material into a formwork (53.1), which formwork (53.1) defines a side surface (51.1) of the wall or floor element , wherein the feed-through is cast in at an angle, i.e. the centre axis of the tube element lies at an angle to a surface normal on the side surface (51.1), and wherein the hollow body is placed against the formwork (53.1) for casting in the feed-through and defines a cavity in the casting material axially following the tube element , which cavity extends to the side surface (51.1) of the wall or floor element and is larger than an inner diameter of the tube element in distance directions perpendicular to the centre axis of the tube element , characterised in that the flange element is formed in one piece with the tube element .
A device for processing fluids, constituted by an enclosure that contains inside it one or more ducts which are connected at their ends to a delivery inlet and an outlet for said fluids, characterized in that said one or more ducts have a curvature that follows the curvature of a golden spiral or a Fibonacci spiral and, wherein each one of said one or more ducts is constituted by a pipe, flexible and bent or rigid and curved or molded and milled so as to follow one or more times the figure of the golden spiral or of the Fibonacci spiral so as to define, starting from said delivery inlet , a first portion , which extends straight in the opposite direction from said outlet , followed by a second portion , which extends on the same plane following the shape of said golden spiral.
Coupling assembly for the drive train of a vehicle, having a clutch housing , provided with a clutch device that has: drive-proximal clutch units which are operatively connected to a drive-proximal clutch unit carrier which is rotationally fixed in relation to the clutch housing ; output-proximal clutch units which, by way of an output-proximal clutch unit carrier , are operatively connected to an output ; as well as a contact pressure installation by way of which an operative connection between the drive-proximal clutch units and the output-proximal clutch units is able to be established or cancelled; wherein the clutch device is assigned separating elements for clutch units , said separating elements acting on respectively mutually adjacent clutch units of the respective same clutch unit group so as to impinge the clutch units of this clutch unit group with axial forces in diverging directions; wherein the clutch device is furthermore provided with at least one conveying element for conveying medium contained in the clutch housing , said conveying element in the clutch housing being positioned so as to be substantially rotationally fixed in relation to said clutch housing ; wherein the at least one conveying element conjointly with the separating elements for coupling units forms at least one separating conveyor unit (82a, 82b; 82) of a separating conveyor installation , and characterized in that the at least one separating conveyor unit (82a, 82b; 82) for forming the at least one conveying element is provided with at least one blade row . drive-proximal clutch units which are operatively connected to a drive-proximal clutch unit carrier which is rotationally fixed in relation to the clutch housing ; output-proximal clutch units which, by way of an output-proximal clutch unit carrier , are operatively connected to an output ; as well as a contact pressure installation by way of which an operative connection between the drive-proximal clutch units and the output-proximal clutch units is able to be established or cancelled; wherein the clutch device is assigned separating elements for clutch units , said separating elements acting on respectively mutually adjacent clutch units of the respective same clutch unit group so as to impinge the clutch units of this clutch unit group with axial forces in diverging directions; wherein the clutch device is furthermore provided with at least one conveying element for conveying medium contained in the clutch housing , said conveying element in the clutch housing being positioned so as to be substantially rotationally fixed in relation to said clutch housing ; wherein the at least one conveying element conjointly with the separating elements for coupling units forms at least one separating conveyor unit (82a, 82b; 82) of a separating conveyor installation , and characterized in that the at least one separating conveyor unit (82a, 82b; 82) for forming the at least one conveying element is provided with at least one blade row .
A method of providing information for driving a vehicle comprising: determining curvature information of a road on which a vehicle is driving based on map information; detecting a lane region including lane demarcation lines from a driving image, comprising: generating a segmentation image which distinguishes between pixels of a line class and pixels of a class other than the line class ; detecting a lane region image including pixels classified as a line class from the segmentation image; converting the lane region image into a top-view image by applying an inverse perspective transformation to the lane region ; estimating a lateral offset of the vehicle from a center line of a lane the vehicle is driving based on the top-view image , the lane region and a reference line which is formed from the curvature information; and outputting a signal including information for driving the vehicle based on the curvature information and the lateral offset. determining curvature information of a road on which a vehicle is driving based on map information; detecting a lane region including lane demarcation lines from a driving image, comprising: generating a segmentation image which distinguishes between pixels of a line class and pixels of a class other than the line class ; detecting a lane region image including pixels classified as a line class from the segmentation image; converting the lane region image into a top-view image by applying an inverse perspective transformation to the lane region ; generating a segmentation image which distinguishes between pixels of a line class and pixels of a class other than the line class ; detecting a lane region image including pixels classified as a line class from the segmentation image; converting the lane region image into a top-view image by applying an inverse perspective transformation to the lane region ; estimating a lateral offset of the vehicle from a center line of a lane the vehicle is driving based on the top-view image , the lane region and a reference line which is formed from the curvature information; and outputting a signal including information for driving the vehicle based on the curvature information and the lateral offset.