mhurhangee/ep-ind-claims huggingface dataset:
A method for use onboard an aircraft, executable by a processor, for selecting one of two aircraft runways, the method comprising: receiving, from a runway database, runway data for a first runway and a second runway, wherein runway data comprises runway length and width, runway center points, runway bearing, runway center line and endpoints, runway true heading and runway reference point of origin; receiving, from a positioning subsystem, an aircraft position; receiving, from sensors, aircraft data comprising an aircraft heading relative to the first runway and second runway, respectively; creating a plurality of boundary envelopes for each of the runways, the plurality of boundary envelopes including either a plurality of concentric boxes, each box enclosing their respective runway or a plurality of angularly inclusive boundary segments, each segment having an origin that coincides with the landing position of the aircraft and extending a predetermined angular distance therefrom along the centerline (302, 602) of the runway, each envelope having a predetermined number of points; scoring for each runway respectively, the predetermined number of points of each of the boundary envelopes associated to said runway for which (i) the aircraft position is located within said boundary envelope, and (ii) the aircraft heading falls within said boundary envelope; and selecting the runway with the highest respective score. receiving, from a runway database, runway data for a first runway and a second runway, wherein runway data comprises runway length and width, runway center points, runway bearing, runway center line and endpoints, runway true heading and runway reference point of origin; receiving, from a positioning subsystem, an aircraft position; receiving, from sensors, aircraft data comprising an aircraft heading relative to the first runway and second runway, respectively; creating a plurality of boundary envelopes for each of the runways, the plurality of boundary envelopes including either a plurality of concentric boxes, each box enclosing their respective runway or a plurality of angularly inclusive boundary segments, each segment having an origin that coincides with the landing position of the aircraft and extending a predetermined angular distance therefrom along the centerline (302, 602) of the runway, each envelope having a predetermined number of points; scoring for each runway respectively, the predetermined number of points of each of the boundary envelopes associated to said runway for which (i) the aircraft position is located within said boundary envelope, and (ii) the aircraft heading falls within said boundary envelope; and selecting the runway with the highest respective score.
A method of depositing a material on a receiving substrate, the method comprising: providing a source substrate having a back surface and a front surface, the back surface carrying at least one piece of coating material; providing a receiving substrate positioned adjacent to the source substrate and facing the coating material; and radiating light towards the front surface of the source substrate, to remove one piece of the coating material from the source substrate as a whole, without detaching parts of said one piece of the coating material from other parts of said one piece of the coating material such that the entire one piece of the coating material is transferred as a whole onto the receiving substrate, wherein radiating light comprises radiating a light beam which follows a pattern of said removed one piece of coating material, and wherein radiating light comprises radiating light which covers less than the removed one piece of coating material. providing a source substrate having a back surface and a front surface, the back surface carrying at least one piece of coating material; providing a receiving substrate positioned adjacent to the source substrate and facing the coating material; and radiating light towards the front surface of the source substrate, to remove one piece of the coating material from the source substrate as a whole, without detaching parts of said one piece of the coating material from other parts of said one piece of the coating material such that the entire one piece of the coating material is transferred as a whole onto the receiving substrate, wherein radiating light comprises radiating a light beam which follows a pattern of said removed one piece of coating material, and wherein radiating light comprises radiating light which covers less than the removed one piece of coating material.
A cranial implant assembly, comprising: an articulated spanning member (106, 206), the articulated spanning member comprising a central implant (132, 232) and being configured to- be attachable in a semi-rigid state, via the central implant, to an area of a swollen dura exposed in a skull opening, be attachable to a peripheral area of the skull opening, and remain in a non-rigid state before being attached to the peripheral area of the skull opening; a cover (110, 210), configured to- be disposed below the articulated spanning member, and provide a non-rigid covering over the skull opening while the articulated spanning member is in a non-rigid state; and a peripheral attachment member, configured to be attached to the peripheral area of the skull opening; wherein the articulated spanning member is configured, after swelling of the dura subsides, to- register into place with the peripheral attachment member, and enter a rigid state; and wherein the cover is configured to transition to a rigid state as the articulated spanning member registers into place with the peripheral attachment member. an articulated spanning member (106, 206), the articulated spanning member comprising a central implant (132, 232) and being configured to- be attachable in a semi-rigid state, via the central implant, to an area of a swollen dura exposed in a skull opening, be attachable to a peripheral area of the skull opening, and remain in a non-rigid state before being attached to the peripheral area of the skull opening; be attachable in a semi-rigid state, via the central implant, to an area of a swollen dura exposed in a skull opening, be attachable to a peripheral area of the skull opening, and remain in a non-rigid state before being attached to the peripheral area of the skull opening; a cover (110, 210), configured to- be disposed below the articulated spanning member, and provide a non-rigid covering over the skull opening while the articulated spanning member is in a non-rigid state; and be disposed below the articulated spanning member, and provide a non-rigid covering over the skull opening while the articulated spanning member is in a non-rigid state; and a peripheral attachment member, configured to be attached to the peripheral area of the skull opening; wherein the articulated spanning member is configured, after swelling of the dura subsides, to- register into place with the peripheral attachment member, and enter a rigid state; and register into place with the peripheral attachment member, and enter a rigid state; and wherein the cover is configured to transition to a rigid state as the articulated spanning member registers into place with the peripheral attachment member.
Apparatus comprising: a light source (20, 280, 310, 607); a detector (12, 800) that includes a photosensing component (50, 612-614, 806); a transmission structure (40, 160, 180, 210, 220, 240, 804) that receives one or more of the light pulses from the light source (20, 280, 310, 607) and, in response to each received light pulse, provides respective output light with an energy-dependent position on the photosensing component (50, 612-614, 806); characterized by the light source (20, 280, 310, 607) being adapted to provide a series of light pulses; the photosensing component (50, 612-614, 806) being adapted for sensing the respective output light of at least one of the light pulses during one or more sense periods for each of the at least one light pulse, each sense period being a period during which incident photons affect sensing results, the one or more sense periods being synchronized with the at least one light pulse, the photosensing component (50, 612-614, 806) being adapted for providing respective sensing results that include information about the light pulse's photon energy; and monitor circuitry connected to receive the respective sensing results of each light pulse whose respective output light is sensed. a light source (20, 280, 310, 607); a detector (12, 800) that includes a photosensing component (50, 612-614, 806); a transmission structure (40, 160, 180, 210, 220, 240, 804) that receives one or more of the light pulses from the light source (20, 280, 310, 607) and, in response to each received light pulse, provides respective output light with an energy-dependent position on the photosensing component (50, 612-614, 806); characterized by the light source (20, 280, 310, 607) being adapted to provide a series of light pulses; the photosensing component (50, 612-614, 806) being adapted for sensing the respective output light of at least one of the light pulses during one or more sense periods for each of the at least one light pulse, each sense period being a period during which incident photons affect sensing results, the one or more sense periods being synchronized with the at least one light pulse, the photosensing component (50, 612-614, 806) being adapted for providing respective sensing results that include information about the light pulse's photon energy; and monitor circuitry connected to receive the respective sensing results of each light pulse whose respective output light is sensed.
Compounds of formula I wherein A and B, which can be the same or different, are an NR1R2 group, or a group of formula II: wherein group W can be an alkyl, isoalkyl, cycloalkyl, aryl, hydroxyl, alkoxy, halogen, nitro, nitrile, sulphonic, -COX, -COOR4, or -CONR5R6 group or a group of formula III or IV X is a halogen, mesyl or tosyl groups; groups R-R10, which can be the same or different, are hydrogen, straight or branched C1-C12 alkyl, C3-C6 cycloalkyl, R1 and R2, or R5 and R6, and together with the nitrogen atom they are linked to, can also form a morpholino ring; with the proviso that A and B cannot be at the same time a group of formula II with W = -COX. R4, R5 and R6 can also be polyalkylene-polysiloxane groups, such as -(CH 2)n-Sil, wherein Sil is a polysiloxane group.
Pressure compensation unit for a differential pressure sensor, in particular for a tank pressure sensor of a motor vehicle, having a housing lid (12, 50) and having a gas-permeable filter membrane (26, 64) which covers an air opening (24, 60) of the housing lid, characterized in that the gas-permeable filter membrane (26, 64) is covered by a cap-like cover element (28, 66) which can be connected to the housing lid (12, 50) of the pressure compensation unit, and wherein the filter membrane is supported by way of a dome-like elevation of the housing lid, on which elevation the cap-like cover element can be engaged with detent action, or the air opening (60, 62) is formed in the base of a depression in the housing lid, in which depression a cap-like cover element is adhesively bonded in air-tight fashion, and on an inner side of the cap-like cover element, there are formed ducts (80, 82) for the leadthrough of air, and on the inner side, there are formed elevations which support the filter membrane.
A method for producing compound K (chemical formula 1) and compound Y (chemical formula 2) from saponins of ginseng by converting saponins of ginseng using pectinase obtained from Aspergillus aculeatus together with pectinase obtained from Trichoderma reesei, under a temperature of 30°C to 60°C for 24 to 96 hours.
A transcatheter prosthetic valve replacement system, comprising a delivery catheter (110, 210), a frame (120, 220), a prosthetic valve (130, 230), a handle (150, 250), and one or more clamping devices (140, 240), wherein the prosthetic valve (130, 230) is fixed in the frame (120, 220), the clamping device (140, 240) is connected to a periphery of the frame (120, 220), and the frame (120, 220) and the clamping device (140, 240) are capable of being preloaded in the delivery catheter (110, 210), the clamping device (140, 240) comprises a clamping member (141, 241), a collar (142, 242), and a control member (143, 243); one end of the clamping member (141, 241) is a fixation end (1410, 2410) which is fixedly connected to the frame (120, 220), the other end of the clamping member (141, 241) is a deployable resilient segment (1411, 2411) which is capable of being compressed and released; the collar (142, 242) is slidably sleeved on the clamping member (141, 241); one end of the control member (143, 243) is connected to the collar (142, 242), and the other end of the control member (143, 243) is connected to the handle in order to be manipulated outside the patient's body; characterized in that from being compressed to being fully released, the clamping member (141, 241) in sequence has two configurations, in the first configuration, the collar (142, 242) is moved along the clamping member (141, 241) towards a free end of the deployable resilient segment (1411, 2411) and the deployable resilient segment (1411, 2411) is gradually closed, and in the second configuration, the collar (142, 242) is moved along the deployable resilient segment (1411, 2411) towards the fixation end (1410, 2410) and the deployable resilient segment (1411, 2411) recovers its predetermined shape.
A method of performing channel access on an unlicensed band by a user equipment in a wireless communication system, the method comprising: sensing a carrier of an unlicensed band for receiving a downlink signal; and receiving the downlink signal when power detected by sensing the carrier is less than an energy detection threshold that is configured by a base station, wherein the energy detection threshold is configured to be equal to or less than a maximum energy detection threshold determined by the base station, characterized by when a different radio access technology, RAT, sharing the carrier is able to exist, the maximum energy detection threshold is determined adaptively to a bandwidth of the carrier using a decibel value of a ratio between a reference bandwidth and the bandwidth of the carrier, and wherein the maximum energy detection threshold is configured to be equal to or greater than a first power value which is a sum of a lower bound of the maximum energy detection threshold for the reference bandwidth and the decibel value. sensing a carrier of an unlicensed band for receiving a downlink signal; and receiving the downlink signal when power detected by sensing the carrier is less than an energy detection threshold that is configured by a base station, wherein the energy detection threshold is configured to be equal to or less than a maximum energy detection threshold determined by the base station, characterized by when a different radio access technology, RAT, sharing the carrier is able to exist, the maximum energy detection threshold is determined adaptively to a bandwidth of the carrier using a decibel value of a ratio between a reference bandwidth and the bandwidth of the carrier, and wherein the maximum energy detection threshold is configured to be equal to or greater than a first power value which is a sum of a lower bound of the maximum energy detection threshold for the reference bandwidth and the decibel value.
PVD process for depositing metallic layers from a vapour phase onto metallic substrates, in particular onto substrates with different bandwidths, wherein in a coating unit at least one evaporator and one substrate are present and there is a flow path for the coating particles between the evaporator and the substrate, characterized in that at least one flap per substrate side is present in the flow path, which is rotatably arranged about an axis of rotation to influence the flow resistance, wherein the axis of rotation runs in a plane parallel to the substrate plane and preferably longitudinally to the transport direction of the substrate, wherein the flaps are arranged symmetrically away from a symmetry axis towards the substrate edge, so that the flap angle of attack decreases continuously towards the substrate edge. in a coating unit at least one evaporator and one substrate are present and there is a flow path for the coating particles between the evaporator and the substrate, characterized in that at least one flap per substrate side is present in the flow path, which is rotatably arranged about an axis of rotation to influence the flow resistance, wherein the axis of rotation runs in a plane parallel to the substrate plane and preferably longitudinally to the transport direction of the substrate, wherein the flaps are arranged symmetrically away from a symmetry axis towards the substrate edge, so that the flap angle of attack decreases continuously towards the substrate edge.
A gas turbine engine blade shroud assembly comprising: a ceramic airfoil tip shroud including a circumferentially extending outer platform, at least one seal tooth supported by and extending radially outwardly away from and circumferentially parallel to the outer platform, a shroud cap supported on the outer platform, the shroud cap being less brittle than the outer platform, the shroud cap including a horizontally or circumferentially extending shroud cap base having horizontally or circumferentially spaced apart clockwise and counter-clockwise distal ends (124, 126), and clockwise and counter-clockwise facing clockwise and counter-clockwise contact surfaces (152, 153) located at the clockwise and counter-clockwise distal ends (124, 126) respectively; the clockwise contact surface being aft facing and the counter-clockwise contact surface being forward facing or the clockwise contact surface being forward facing and the counter-clockwise contact surface being aft facing; the clockwise and counter-clockwise facing clockwise and counter-clockwise contact surfaces (152, 153) located on horizontally or circumferentially spaced apart clockwise and counter-clockwise side legs (120, 122) at the clockwise and counter-clockwise distal ends (124, 126) respectively of the shroud cap base; and the at least one seal tooth supported by the shroud cap. a ceramic airfoil tip shroud including a circumferentially extending outer platform, at least one seal tooth supported by and extending radially outwardly away from and circumferentially parallel to the outer platform, a shroud cap supported on the outer platform, the shroud cap being less brittle than the outer platform, the shroud cap including a horizontally or circumferentially extending shroud cap base having horizontally or circumferentially spaced apart clockwise and counter-clockwise distal ends (124, 126), and clockwise and counter-clockwise facing clockwise and counter-clockwise contact surfaces (152, 153) located at the clockwise and counter-clockwise distal ends (124, 126) respectively; the clockwise contact surface being aft facing and the counter-clockwise contact surface being forward facing or the clockwise contact surface being forward facing and the counter-clockwise contact surface being aft facing; the clockwise and counter-clockwise facing clockwise and counter-clockwise contact surfaces (152, 153) located on horizontally or circumferentially spaced apart clockwise and counter-clockwise side legs (120, 122) at the clockwise and counter-clockwise distal ends (124, 126) respectively of the shroud cap base; and the at least one seal tooth supported by the shroud cap.
An article (30; 50; 60; 80) comprising: a biodata page (14; 32; 52; 62; 82) defining a perimeter including an edge; and a hinge layer (20; 34; 64; 84) attached to at least a portion of the biodata page (14; 32; 52; 62; 82), wherein the hinge layer (20; 34; 64; 84) comprises a cross-linked thermoset elastomeric polyurethane sheet, and wherein a portion (42; 66; 90) of the hinge layer (20; 34; 64; 84) extends beyond the edge to form a flexible hinge. a biodata page (14; 32; 52; 62; 82) defining a perimeter including an edge; and a hinge layer (20; 34; 64; 84) attached to at least a portion of the biodata page (14; 32; 52; 62; 82), wherein the hinge layer (20; 34; 64; 84) comprises a cross-linked thermoset elastomeric polyurethane sheet, and wherein a portion (42; 66; 90) of the hinge layer (20; 34; 64; 84) extends beyond the edge to form a flexible hinge.
An apparatus for producing solid polymeric microparticles, the apparatus comprising: a plurality of liquid droplet generators for forming liquid droplets of a first liquid, wherein the plurality of liquid droplet generators comprise at least one piezoelectric component operable to generate droplets; and a nozzle for forming a jet of a second liquid, wherein the plurality of liquid droplet generators and the nozzle are arranged relative to each other such that, in use, liquid droplets from the plurality of liquid droplet generators pass through a gas into said jet of second liquid, and wherein, in use, the plurality of liquid droplet generators are operable to produce liquid droplets at a frequency in the range 1 to 100 kHz per droplet generator. a plurality of liquid droplet generators for forming liquid droplets of a first liquid, wherein the plurality of liquid droplet generators comprise at least one piezoelectric component operable to generate droplets; and a nozzle for forming a jet of a second liquid,
B Body component, in particular post, for a motor vehicle, comprising an inner shell and an outer shell made of a metal, which are joined to each other in respective flange regions and which enclose a cavity in between, in which a reinforcing element with a base body of a fibrous composite material in incorporated to reinforce the body component, wherein the reinforcing element comprises at least one metallic insert part, by means of which the reinforcing element is joined to the inner and/or the outer shell in the flange regions, and wherein the insert parts are coated with the fibrous composite material of the reinforcing element, characterised in that the insert parts have at least one through-opening or positive locking element of a similar type.
A flipping apparatus for flipping articles, comprising a first flipping arm, configured to pick an article and to perform a rotation between a pick position and a pass position, a second flipping arm, configured to perform a rotation between a receive position and a place position and to place the article, characterized in that the first flipping arm is further configured to perform the rotation from the pick position to the pass position at a first speed, and the rotation from the pass position to the pick position at a second speed, which is higher than the first speed; the second flipping arm is further configured to perform the rotation from the receive position to the place position at a third speed, and the rotation from the place position to the receive position at a fourth speed, which is higher than the third speed. a first flipping arm, configured to pick an article and to perform a rotation between a pick position and a pass position, a second flipping arm, configured to perform a rotation between a receive position and a place position and to place the article, characterized in that the first flipping arm is further configured to perform the rotation from the pick position to the pass position at a first speed, and the rotation from the pass position to the pick position at a second speed, which is higher than the first speed; the second flipping arm is further configured to perform the rotation from the receive position to the place position at a third speed, and the rotation from the place position to the receive position at a fourth speed, which is higher than the third speed.