mhurhangee/ep-ind-claims huggingface dataset:
A turbine blade having hollowness, comprising a pressure side wall in which a blowout port is provided at a rear edge portion; a suction side wall comprising an inner wall surface, wherein a portion of said inner wall surface is exposed from the blowout port forming an exposed region, the turbine blade being configured to blow cooling air in a flow direction along the inner wall surface at the exposed region; and a plurality of first recesses provided in the inner wall surface of the suction side wall, wherein the contour of said first recesses viewed from the normal direction to the inner wall surface of the suction side wall is set to a shape that is symmetrically centered on a reference axis that is configured to intersect the flow direction of cooling air at a 45 degree angle, and that broadens along the reference axis, the shape of said first recesses in a perpendicular cross-section of the inner wall surface of the suction side wall passing along the reference axis consists of a linear-shaped region (5R1) heading from a blade leading edge side end to a deepest portion of said first recesses arranged nearer the blade trailing edge, and a circular arc-shaped region (5R2) that connects the deepest portion and a blade trailing edge side end, wherein the linear-shaped region (5R1) is tangent to the circular arc-shaped region (5R2), a first recess of said plurality of recesses is provided at the exposed region and a further first recess of said plurality of first recesses is provided in a portion of the inner wall surface of the suction side wall that faces the pressure side wall and is continuous with the exposed region, a second recess having the same shape as the first recess is further provided in a region that is a portion of an inner wall surface of the pressure side wall, and that faces the portion of the inner wall surface of the suction side wall in which the further first recess is provided, and the deepest portion has a depth equal to 0.3 times of the diameter of the circular arc-shaped region (5R2).
A method of recovering data from a received Quadrature Amplitude Modulation signal for optical transmission, comprising: performing a first stage of receiver-side processing to produce a stream of digitized QAM symbols from the received QAM signal; partitioning the stream of digitized QAM symbols into multiple digitized Quadrature Phase Shift Keying (QPSK) symbol streams; inserting multiple punctuation marks into the multiple digitized QPSK symbol streams to generate multiple discontinuous QPSK symbol streams (704, 706), wherein a punctuation mark in one QPSK symbol stream indicates that a symbol corresponding to the punctuation mark belongs to a different QPSK symbol stream; processing each of the multiple discontinuous QPSK symbol streams through a partial response filter, thereby resulting in multiple partially filtered symbols streams; and recovering data bits by performing a maximum likelihood sequence estimation (MLSE) algorithm over the partially filtered symbols streams, wherein the MLSE algorithm uses a trellis and wherein each of the multiple punctuation marks is assigned a predetermined constant value for forcing signal paths of the trellis to converge. performing a first stage of receiver-side processing to produce a stream of digitized QAM symbols from the received QAM signal; partitioning the stream of digitized QAM symbols into multiple digitized Quadrature Phase Shift Keying (QPSK) symbol streams; inserting multiple punctuation marks into the multiple digitized QPSK symbol streams to generate multiple discontinuous QPSK symbol streams (704, 706), wherein a punctuation mark in one QPSK symbol stream indicates that a symbol corresponding to the punctuation mark belongs to a different QPSK symbol stream; processing each of the multiple discontinuous QPSK symbol streams through a partial response filter, thereby resulting in multiple partially filtered symbols streams; and recovering data bits by performing a maximum likelihood sequence estimation (MLSE) algorithm over the partially filtered symbols streams, wherein the MLSE algorithm uses a trellis and wherein each of the multiple punctuation marks is assigned a predetermined constant value for forcing signal paths of the trellis to converge.
An electrical contact component for a contact socket of an implantable medical device, comprising: - an electrical contact element for electrically contacting an electrical counter contact; and - an electrically conductive outer ring having a plug borehole for receiving the electrical mating contact, the outer ring (110, 120, 130), on the inside, comprising a receiving unit for receiving the electrical contact element, in particular a groove, wherein the electrical contact element is formed by a plurality of contact bodies and at least one cage element for receiving the contact bodies, characterized in that the electrical contact element comprises an electrically conductive spring element being arranged within the receiving unit for receiving the electrical contact element, and in particular within the groove, between the contact bodies and the inside of the outer ring, and being designed to keep at least one of the contact bodies in electrical contact with the outer ring and the electrical counter contact. - an electrical contact element for electrically contacting an electrical counter contact; and - an electrically conductive outer ring having a plug borehole for receiving the electrical mating contact, the outer ring (110, 120, 130), on the inside, comprising a receiving unit for receiving the electrical contact element, in particular a groove, wherein the electrical contact element is formed by a plurality of contact bodies and at least one cage element for receiving the contact bodies, characterized in that the electrical contact element comprises an electrically conductive spring element being arranged within the receiving unit for receiving the electrical contact element, and in particular within the groove, between the contact bodies and the inside of the outer ring, and being designed to keep at least one of the contact bodies in electrical contact with the outer ring and the electrical counter contact.
A variant CBH1 cellulase, wherein the variant is derived from Hypocrea jecorina CBH I as set out in SEQ ID NO:2, wherein the variant comprises a substitution or deletion at position T332, wherein said variant CBH1 cellulase has an increased temperature stability relative to the Hypocrea jecorina CBH1 cellulase having the sequence set out in SEQ ID NO:2 and retains its characteristic cellulolytic activity.
A honeycomb extrusion die (403; 800; 900; 903; 905), comprising: a die body (407; 939) comprising: a die face comprising a plurality of central slots and a skin former region disposed peripheral to the central slots, wherein the central slots define matrix pins (421, 435) that extend axially to an exit face, with the skin former region comprising a plurality of annular slots (425, 429, 439; 913, 915, 917, 919, 921), wherein the annular slots (425, 429, 439; 913, 915, 917, 919, 921) define annular rings (423, 427; 923, 925, 927, 929) that extend axially to the exit face, wherein the central slots terminate at a first annular slot (425; 913) of the plurality of annular slots, (425, 429, 439; 913, 915, 917, 919, 921) and do not extend beyond a first annular ring of the annular rings (423, 427; 923, 925, 927, 929) in the skin forming region, central feed holes in communication with the central slots, and peripheral feed holes in communication with the annular slots (425, 429, 439; 913, 915, 917, 919, 921), characterized in that the matrix pins (421, 435) extend further than the annular rings (423, 427; 923, 925, 927, 929) axially and have exit surfaces generally parallel with the die face, and the annular rings (423, 427; 923, 925, 927, 929) have exit surfaces (431, 433) inclined away from the matrix pins (421, 435). a die face comprising a plurality of central slots and a skin former region disposed peripheral to the central slots, wherein the central slots define matrix pins (421, 435) that extend axially to an exit face, with the skin former region comprising a plurality of annular slots (425, 429, 439; 913, 915, 917, 919, 921), wherein the annular slots (425, 429, 439; 913, 915, 917, 919, 921) define annular rings (423, 427; 923, 925, 927, 929) that extend axially to the exit face, wherein the central slots terminate at a first annular slot (425; 913) of the plurality of annular slots, (425, 429, 439; 913, 915, 917, 919, 921) and do not extend beyond a first annular ring of the annular rings (423, 427; 923, 925, 927, 929) in the skin forming region, central feed holes in communication with the central slots, and peripheral feed holes in communication with the annular slots (425, 429, 439; 913, 915, 917, 919, 921), characterized in that the matrix pins (421, 435) extend further than the annular rings (423, 427; 923, 925, 927, 929) axially and have exit surfaces generally parallel with the die face, and the annular rings (423, 427; 923, 925, 927, 929) have exit surfaces (431, 433) inclined away from the matrix pins (421, 435).
A light emitting device package comprising: a package body having a cavity, a semiconductor light emitting device disposed in the cavity and including a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, an active layer interposed between the first and second conductivity type semiconductor layers, and a light extracting pattern provided at an upper portion thereof; a first encapsulant disposed in the cavity and in contact with the light extracting pattern of the semiconductor light emitting device; a second encapsulant having a refractive index greater than a refractive index of the first encapsulant over the first encapsulant, and a third encapsulant having a dome-shape upper portion over the second encapsulant, wherein the third encapsulant has a refractive index greater than or equal to the refractive index of the second encapsulant and wherein the second encapsulant comprises a phosphor. a package body having a cavity, a semiconductor light emitting device disposed in the cavity and including a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, an active layer interposed between the first and second conductivity type semiconductor layers, and a light extracting pattern provided at an upper portion thereof; a first encapsulant disposed in the cavity and in contact with the light extracting pattern of the semiconductor light emitting device; a second encapsulant having a refractive index greater than a refractive index of the first encapsulant over the first encapsulant, and a third encapsulant having a dome-shape upper portion over the second encapsulant, wherein the third encapsulant has a refractive index greater than or equal to the refractive index of the second encapsulant and wherein the second encapsulant comprises a phosphor.
An armor system comprising an array of closely packed pellets, each having a pellet body and four finger-like projections extending radially outwardly from said pellet body, each of said four finger-like projections contacting three finger-like projections of adjacent pellets when arranged in a single layer of said array for maximizing edge surface contact area and engagement between adjacent pellets without substantially restricting independent side to side, yaw and/or roll movement of each of said pellets within said array, wherein a bottom face of each pellet in said array of pellets is convex.
Pen for coloring nails in UV semi-permanent gel polish, comprising a tube filled with enamel, which is a UV semi-permanent gel polish, a micro-perforated tip in soft silicone, a cap, wherein the pen comprises on its upper part, which is opposite to the micro-perforated tip, at least one UV light emitting device.
A setting adjustment tool for a magnetically adjustable device implanted in a patient, the magnetically adjustable device including a rotor having an axis of rotation and at least one rotor magnet (123, 125), the rotor having a range of arcuate motion within each of a plurality of selectable performance settings, and wherein the rotor has an axle which turns about the axis of rotation, the setting adjustment tool comprising: a circumference; a plurality of magnetic coils circumferentially distributed on the circumference; wherein each magnetic coil is operable to activate and attract or repulse the at least one rotor magnet, characterized in that at least one of the magnetic coils is movable along the circumference between a plurality of predetermined positions. a circumference; a plurality of magnetic coils circumferentially distributed on the circumference; wherein each magnetic coil is operable to activate and attract or repulse the at least one rotor magnet, characterized in that at least one of the magnetic coils is movable along the circumference between a plurality of predetermined positions.
A multi-axis fatigue device comprising: a sample holder (101; 710) configured to hold an implantable test member; a first actuator (120; 730) configured to cause deformation of the sample holder (101; 710) along at least a first deformation axis; a second actuator (125; 732) configured to cause deformation of the sample holder (101; 710) along at least a second deformation axis; a controller configured to operate the first and second actuators (120, 125; 730, 732) in a coordinated way to produce a first deformation cycle profile associated with the first deformation axis and a second deformation cycle profile associated with the second deformation axis, wherein the controller is configured to permit a user to select a cycle profile for one or more of the deformation axes, and wherein actuator positions are calculated based on user-entered test parameters defining said selected cycle profiles; and a mechanical linkage (130; 720) coupled to the first and second actuators (120, 125; 730, 732), the mechanical linkage, in response to the first and second actuators causing a deformation of the sample holder (101; 710) along the first and second deformation axis, wherein the mechanical linkage (130; 720) comprises at least one of a four-bar linkage and a scissors linkage, and wherein a deformation of the sample holder along the first deformation axis and the second deformation axis is determined by the first and second actuator (120, 125; 730, 732). a sample holder (101; 710) configured to hold an implantable test member; a first actuator (120; 730) configured to cause deformation of the sample holder (101; 710) along at least a first deformation axis; a second actuator (125; 732) configured to cause deformation of the sample holder (101; 710) along at least a second deformation axis; a controller configured to operate the first and second actuators (120, 125; 730, 732) in a coordinated way to produce a first deformation cycle profile associated with the first deformation axis and a second deformation cycle profile associated with the second deformation axis, wherein the controller is configured to permit a user to select a cycle profile for one or more of the deformation axes, and wherein actuator positions are calculated based on user-entered test parameters defining said selected cycle profiles; and a mechanical linkage (130; 720) coupled to the first and second actuators (120, 125; 730, 732), the mechanical linkage, in response to the first and second actuators causing a deformation of the sample holder (101; 710) along the first and second deformation axis, wherein the mechanical linkage (130; 720) comprises at least one of a four-bar linkage and a scissors linkage, and wherein a deformation of the sample holder along the first deformation axis and the second deformation axis is determined by the first and second actuator (120, 125; 730, 732).
A sensor assembly for a fastener assembly comprising a nut and a bolt, the sensor assembly comprising: the nut of the fastener assembly, the nut having an internal thread for screwing onto an external thread of the bolt and a cavity; and a sensor unit mounted in the cavity in the nut, characterised in that the sensor unit comprises an optical flow sensor arranged to capture an image of the external thread of the bolt and to sense relative movement of the external thread of the bolt when the internal thread of the nut is screwed onto the external thread of the bolt. the nut of the fastener assembly, the nut having an internal thread for screwing onto an external thread of the bolt and a cavity; and a sensor unit mounted in the cavity in the nut, characterised in that the sensor unit comprises an optical flow sensor arranged to capture an image of the external thread of the bolt and to sense relative movement of the external thread of the bolt when the internal thread of the nut is screwed onto the external thread of the bolt.
An apparatus comprising: a chassis (302a, 302b); a ring illuminator assembly comprising at least one of at least one polarized illuminator assembly, at least one dark field illuminator assembly, and/or at least one narrow field illuminator assembly; a diffuser assembly positioned behind the ring illuminator assembly such that the ring illuminator assembly is positioned at a perimeter of an opening of the diffuser assembly, the diffuser assembly comprising a diffuser and a diffuser back light reflector, wherein the diffuser back light reflector is positioned to direct light into the diffuser; at least one back light illumination board, the at least one back light illumination board comprising at least one diffuser illuminator aligned with the diffuser back light reflector; a lens assembly comprising an aimer lens and at least one imager lens (324, 326); an aimer illuminator associated with the aimer lens; and at least one imager board comprising at least one image sensor (334, 336) aligned with the at least one imager lens (324, 326), wherein the chassis (302a, 302b) houses the ring illuminator assembly, the diffuser illuminator, the at least one back light illumination board, the lens assembly, the aimer illuminator, and the at least one imager board. a chassis (302a, 302b); a ring illuminator assembly comprising at least one of at least one polarized illuminator assembly, at least one dark field illuminator assembly, and/or at least one narrow field illuminator assembly; a diffuser assembly positioned behind the ring illuminator assembly such that the ring illuminator assembly is positioned at a perimeter of an opening of the diffuser assembly, the diffuser assembly comprising a diffuser and a diffuser back light reflector, wherein the diffuser back light reflector is positioned to direct light into the diffuser; at least one back light illumination board, the at least one back light illumination board comprising at least one diffuser illuminator aligned with the diffuser back light reflector; a lens assembly comprising an aimer lens and at least one imager lens (324, 326); an aimer illuminator associated with the aimer lens; and at least one imager board comprising at least one image sensor (334, 336) aligned with the at least one imager lens (324, 326), wherein the chassis (302a, 302b) houses the ring illuminator assembly, the diffuser illuminator, the at least one back light illumination board, the lens assembly, the aimer illuminator, and the at least one imager board.
A method for operating a logical network that comprises a logical routing element, LRE, implemented by managed physical routing elements, MPREs, (841,842,843,844) on a plurality of host machines (801,802), the method comprising: executing, at a host machine, a plurality of virtual machines (811, 812, 814) that are in a plurality of different segments of a logical network; operating, at the host machine, a managed physical switching element, MPSE, comprising a plurality of ports for performing link layer forwarding of packets to and from the set of virtual machines (811, 812, 814) running on the host machine; and operating, at the host machine, a MPRE for receiving a data packet from a port of the MPSE when the packet is addressed to a virtual MAC, VMAC, address that is common to all MPREs at the plurality of host machines (801,802) to allow all MPREs to appear as one contiguous LRE and performing network layer routing in order to forward the received data packet from a first virtual machine of a first network segment to a second virtual machine of a second network segment, wherein the MPRE is assigned a unique physical MAC, PMAC, address that is different from PMACs assigned to MPREs of other host machines, wherein the PMAC address of an incoming data packet received by a host machine over a physical network is converted to the VMAC address before reaching the MPRE. executing, at a host machine, a plurality of virtual machines (811, 812, 814) that are in a plurality of different segments of a logical network; operating, at the host machine, a managed physical switching element, MPSE, comprising a plurality of ports for performing link layer forwarding of packets to and from the set of virtual machines (811, 812, 814) running on the host machine; and operating, at the host machine, a MPRE for receiving a data packet from a port of the MPSE when the packet is addressed to a virtual MAC, VMAC, address that is common to all MPREs at the plurality of host machines (801,802) to allow all MPREs to appear as one contiguous LRE and performing network layer routing in order to forward the received data packet from a first virtual machine of a first network segment to a second virtual machine of a second network segment, wherein the MPRE is assigned a unique physical MAC, PMAC, address that is different from PMACs assigned to MPREs of other host machines, wherein the PMAC address of an incoming data packet received by a host machine over a physical network is converted to the VMAC address before reaching the MPRE.
A multilayer film for use in sealing a vessel, comprising a) a substrate comprising a polymeric base layer wherein the polymeric base layer comprises polyethylene terephthalate; and b) on the substrate, a heatseal layer comprising a PLA polymer; wherein the heatseal layer further comprises dispersed therein an adhesion promoter, or wherein the substrate further comprises an adhesion promoter in a layer on a surface of the polymeric base layer between and adjacent the polymeric base layer and the heatseal layer; and wherein the adhesion promoter is an ethylene copolymer or a copolyester resin derived from one or more glycols, at least one aromatic dicarboxylic acid, and at least one aliphatic dicarboxylic acid. a) a substrate comprising a polymeric base layer wherein the polymeric base layer comprises polyethylene terephthalate; and b) on the substrate, a heatseal layer comprising a PLA polymer;