mhurhangee/ep-ind-claims huggingface dataset:
A balloon dilation catheter for dilating sinus drainage pathways, the balloon dilation catheter comprising: a handle having a proximal end and a distal end and a slot contained in a surface of the handle; a substantially rigid inner guide member having a proximal end, a distal end, and a lumen extending between the distal end and the proximal end, wherein the substantially rigid inner guide member extends longitudinally from the distal end of the handle, and wherein the proximal end of the substantially rigid inner guide member terminates within the handle; a shaft slidably mounted over the substantially rigid inner guide member, wherein the shaft includes an inflation lumen that is fluidically coupled to an inflation port, wherein a distal portion of the shaft includes an inflatable balloon, and an advancer knob that is moveable along the slot disposed in the surface of the handle, wherein the advancer knob is coupled to the shaft such that moving the advancer knob along the slot slides the shaft over the substantially rigid inner guide member; and a guide wire disposed in the lumen of the substantially rigid inner guide member. a handle having a proximal end and a distal end and a slot contained in a surface of the handle; a substantially rigid inner guide member having a proximal end, a distal end, and a lumen extending between the distal end and the proximal end, wherein the substantially rigid inner guide member extends longitudinally from the distal end of the handle, and wherein the proximal end of the substantially rigid inner guide member terminates within the handle; a shaft slidably mounted over the substantially rigid inner guide member, wherein the shaft includes an inflation lumen that is fluidically coupled to an inflation port, wherein a distal portion of the shaft includes an inflatable balloon, and an advancer knob that is moveable along the slot disposed in the surface of the handle, wherein the advancer knob is coupled to the shaft such that moving the advancer knob along the slot slides the shaft over the substantially rigid inner guide member; and a guide wire disposed in the lumen of the substantially rigid inner guide member.
An electrophotographic photosensitive member comprising a support, an electroconductive layer and a photosensitive layer, in this order, wherein the electroconductive layer comprises a binder resin, a metal oxide particle and a silica particle, a content of the metal oxide particle in the electroconductive layer determined as described in the description is 20.0 to 60.0% by volume with respect to total volume of the electroconductive layer, the metal oxide particle has an average primary particle diameter determined as described in the description of 50 to 500 nm, the silica particle has an average primary particle diameter determined as described in the description of 10 to 300 nm, and a content of the silica particle in the electroconductive layer determined as described in the description is 0.10 to 5.00% by volume with respect to total volume of the electroconductive layer. the electroconductive layer comprises a binder resin, a metal oxide particle and a silica particle, a content of the metal oxide particle in the electroconductive layer determined as described in the description is 20.0 to 60.0% by volume with respect to total volume of the electroconductive layer, the metal oxide particle has an average primary particle diameter determined as described in the description of 50 to 500 nm, the silica particle has an average primary particle diameter determined as described in the description of 10 to 300 nm, and a content of the silica particle in the electroconductive layer determined as described in the description is 0.10 to 5.00% by volume with respect to total volume of the electroconductive layer.
Aircraft provided with an airframe which extends longitudinally along an anteroposterior plane, said airframe extending transversely from a left flank towards a right flank and in elevation from a lower part towards an upper part, said airframe delimiting at least one internal space extending in elevation and from bottom to top from a floor towards a ceiling, said aircraft comprising a floatation system, the floatation system being provided with at least two floats called "exterior floats " arranged on the exterior of the airframe, two distinct exterior floats being disposed transversely on one side and on the other side of said anteroposterior plane characterised in that said floatation system possesses at least one float called "interior float " arranged in an internal space called "floatation space ", each interior float being disposed above a transverse plane which is perpendicular to the anteroposterior plane and which passes through two exterior floats disposed on one side and on the other side of the airframe.
An electronic substrate processing and inspection chamber for processing and in-situ inspecting an active surface of electronic substrate, the chamber comprising: a chamber enclosure; an electronic substrate holder positioned within the chamber enclosure for holding the electronic substrate; an electronic substrate processing device supported within the chamber enclosure relative to the electronic substrate holder; an optically transparent window formed in the chamber enclosure; illumination means supported external to the chamber enclosure for illuminating substantially the entire active surface of the electronic substrate through the optically transparent window at a grazing angle of incidence with respect to the active surface; and camera means having a field of view covering substantially the entire active surface of the electronic substrate for detecting non-specularly reflected light that is scattered from any defects on the active surface and for generating a digital output representative of intensity of the detected non-specularly reflected light per unit area of the active surface. a chamber enclosure; an electronic substrate holder positioned within the chamber enclosure for holding the electronic substrate; an electronic substrate processing device supported within the chamber enclosure relative to the electronic substrate holder; an optically transparent window formed in the chamber enclosure; illumination means supported external to the chamber enclosure for illuminating substantially the entire active surface of the electronic substrate through the optically transparent window at a grazing angle of incidence with respect to the active surface; and camera means having a field of view covering substantially the entire active surface of the electronic substrate for detecting non-specularly reflected light that is scattered from any defects on the active surface and for generating a digital output representative of intensity of the detected non-specularly reflected light per unit area of the active surface.
A device for identifying defects in a crankshaft while the crankshaft is installed on an engine, comprising: a housing configured to attach to a connecting rod; at least one sensor assembly mounted to the housing including at least one sensor; and a spring disposed between the housing and the at least one sensor, characterized in that the spring is configured to urge the at least one sensor into contact with a pin journal of the crankshaft as the crankshaft rotates, and the at least one sensor assembly includes a first pin journal sensor assembly, a second pin journal sensor assembly and a pin fillet sensor assembly. a housing configured to attach to a connecting rod; at least one sensor assembly mounted to the housing including at least one sensor; and a spring disposed between the housing and the at least one sensor, characterized in that the spring is configured to urge the at least one sensor into contact with a pin journal of the crankshaft as the crankshaft rotates, and the at least one sensor assembly includes a first pin journal sensor assembly, a second pin journal sensor assembly and a pin fillet sensor assembly.
Gas turbine engine comprising a compressor with rotor blades having roots connected into seats of a compressor drum, characterised in that both the rotor blade roots and the compressor drum have longitudinal passages (9, 10) for a cooling fluid, connecting higher pressure areas to lower pressure areas of the gas turbine engine, wherein the seats are defined by longitudinal slots into which the blade roots are inserted, wherein the longitudinal passages of the blade roots and the longitudinal passages of the rotor drum have axes parallel to an engine longitudinal axis and have the same radial distance from it, wherein the passages of the blade roots are defined by longitudinal channels provided in the blade roots, and wherein the blade roots inserted into the same seat have their channels connected together.
A method of key material generation for authenticating communication between at least one network application and a user equipment, the user equipment having user security settings and/or authentication data as first key material shared with a server and second key material (Ks) shared with a bootstrapping entity, the second key material (Ks) being formed by the bootstrapping entity by: retrieving the first key material from the server; sending an authentication request to the user equipment based on the first key material; and receiving from the user equipment an authentication response, the method characterized by: providing, to said at least one network application, a bootstrapping identifier (B-TID) indicative of the second key material (Ks) and a first random number (RAND UE); receiving, from said at least one network application, information indicative of at least one second random number (RAND NAF); and forming at least one third key material (Ks_NAFi) based upon the second key material (Ks), the first random number (RAND UE), and said at least one second random number (RAND NAF). retrieving the first key material from the server; sending an authentication request to the user equipment based on the first key material; and receiving from the user equipment an authentication response, providing, to said at least one network application, a bootstrapping identifier (B-TID) indicative of the second key material (Ks) and a first random number (RAND UE); receiving, from said at least one network application, information indicative of at least one second random number (RAND NAF); and forming at least one third key material (Ks_NAFi) based upon the second key material (Ks), the first random number (RAND UE), and said at least one second random number (RAND NAF).
A microprocessor, comprising: a first hardware data prefetcher, configured to prefetch data into the microprocessor according to a first algorithm; and a second hardware data prefetcher, configured to prefetch data into the microprocessor according to a second algorithm, wherein the first and second algorithms are different; wherein the second prefetcher is configured to detect a memory access pattern within a memory region and responsively prefetch data from the memory region according the second algorithm; wherein the second prefetcher is further configured to provide to the first prefetcher a descriptor of the memory region; wherein the first prefetcher is configured to stop prefetching data from the memory region in response to receiving the descriptor of the memory region from the second prefetcher. a first hardware data prefetcher, configured to prefetch data into the microprocessor according to a first algorithm; and a second hardware data prefetcher, configured to prefetch data into the microprocessor according to a second algorithm, wherein the first and second algorithms are different; wherein the second prefetcher is configured to detect a memory access pattern within a memory region and responsively prefetch data from the memory region according the second algorithm; wherein the second prefetcher is further configured to provide to the first prefetcher a descriptor of the memory region; wherein the first prefetcher is configured to stop prefetching data from the memory region in response to receiving the descriptor of the memory region from the second prefetcher.
An apparatus comprising: a receiver configured to receive status information from a network; characterized in that the apparatus comprises: a converter configured to convert the status information received in a REGISTER or a NOTIFY request, into a presence information data format; an insertion unit configured to insert the status information in the presence information data format, as a predefined network availability element, wherein the network availability element comprises at least one child element defining a current state which describes if a device is attached to a particular circuit switched or packet switched network; a publishing unit configured to publish a request including the status information as part of the predefined network availability element and to transmit the published request to a presence server through an interface configured as a Pen interface compliant with the open mobile alliance presence architecture. a receiver configured to receive status information from a network; characterized in that the apparatus comprises: a converter configured to convert the status information received in a REGISTER or a NOTIFY request, into a presence information data format; an insertion unit configured to insert the status information in the presence information data format, as a predefined network availability element, wherein the network availability element comprises at least one child element defining a current state which describes if a device is attached to a particular circuit switched or packet switched network; a publishing unit configured to publish a request including the status information as part of the predefined network availability element and to transmit the published request to a presence server through an interface configured as a Pen interface compliant with the open mobile alliance presence architecture.
An apparatus for controlling energy service equipment connected to an electric grid, the energy service equipment including energy storage cells energetically coupled with the electric grid, wherein the energy service equipment is configured to absorb energy from the grid or add energy to the grid, the apparatus comprising: a receiver configured to receive market data from one or more market data channels, wherein the market data is correlated to changes in future or anticipated energy services for the electric grid; a model processor for simulating operation of the energy service equipment during a first time period based on the received market data using a plurality of control models, wherein the control models are configured to control operation of the energy service equipment, such as frequency regulation operation or voltage regulation operation, and for determining a value associated with each control model based on a result of each simulation, the value being one of: time in the deadband for said energy storage cells, time satisfying an energy service requirement such as voltage regulation or frequency control, and a thermal efficiency of a power generator; a model selector for selecting the control model associated with a highest value; and a processor for controlling operation of the energy service equipment in a second time period, subsequent to the first time period, using the selected control model associated with the highest value. a receiver configured to receive market data from one or more market data channels, wherein the market data is correlated to changes in future or anticipated energy services for the electric grid; a model processor for simulating operation of the energy service equipment during a first time period based on the received market data using a plurality of control models, wherein the control models are configured to control operation of the energy service equipment, such as frequency regulation operation or voltage regulation operation, and for determining a value associated with each control model based on a result of each simulation, the value being one of: time in the deadband for said energy storage cells, time satisfying an energy service requirement such as voltage regulation or frequency control, and a thermal efficiency of a power generator; a model selector for selecting the control model associated with a highest value; and a processor for controlling operation of the energy service equipment in a second time period, subsequent to the first time period, using the selected control model associated with the highest value.
A staple cartridge configured for use with a surgical stapler, comprising: (a) a cartridge body; (b) a deck defined by the cartridge body, wherein the deck is configured to compress tissue against an anvil of the surgical stapler; (c) a plurality of staple openings formed in the deck; (d) a plurality of staples disposed within the staple openings, wherein each of the staples includes a pair of legs; and (e) a plurality of staple drivers (180, 200) disposed within the staple openings, wherein the staple drivers are actuatable to drive the staples through tissue and against the anvil to form the legs, wherein each of the staple drivers includes: (i) a driver body, (ii) a first pocket (194a, 214) disposed on a first lateral side (188, 208) of the driver body, and (iii) a second pocket (194b, 214) disposed on a second lateral side (190, 210) of the driver body, wherein the first and second pockets are configured to receive the legs of the respective staple when the legs are formed against the anvil, wherein the first pocket and the second pocket open to an upper end of the driver body, characterised in that the first pocket is defined by a first chamfered surface (196, 216) on the first lateral side of the driver body at the upper end, and wherein the second pocket is defined by a second chamfered surface (196, 216) on the second lateral side of the driver body at the upper end. (a) a cartridge body; (b) a deck defined by the cartridge body, wherein the deck is configured to compress tissue against an anvil of the surgical stapler; (c) a plurality of staple openings formed in the deck; (d) a plurality of staples disposed within the staple openings, wherein each of the staples includes a pair of legs; and (e) a plurality of staple drivers (180, 200) disposed within the staple openings, wherein the staple drivers are actuatable to drive the staples through tissue and against the anvil to form the legs, wherein each of the staple drivers includes: (i) a driver body, (ii) a first pocket (194a, 214) disposed on a first lateral side (188, 208) of the driver body, and (iii) a second pocket (194b, 214) disposed on a second lateral side (190, 210) of the driver body, wherein the first and second pockets are configured to receive the legs of the respective staple when the legs are formed against the anvil, wherein the first pocket and the second pocket open to an upper end of the driver body, (i) a driver body, (ii) a first pocket (194a, 214) disposed on a first lateral side (188, 208) of the driver body, and (iii) a second pocket (194b, 214) disposed on a second lateral side (190, 210) of the driver body, wherein the first and second pockets are configured to receive the legs of the respective staple when the legs are formed against the anvil, wherein the first pocket and the second pocket open to an upper end of the driver body, wherein the first and second pockets are configured to receive the legs of the respective staple when the legs are formed against the anvil, wherein the first pocket and the second pocket open to an upper end of the driver body,
A touch panel display, comprising: a transparent resin substrate; a touch sensor embedded in the transparent resin substrate; pixels each including a first transistor and an organic electroluminescence element electrically connected with the first transistor; a display portion including an array of the pixels; and a shield electrode between the touch sensor and the display portion, wherein the pixels emit light toward the transparent resin substrate, the first transistor includes a first light blocking electrode, a first insulating layer on the first light blocking electrode, a semiconductor layer on the first insulating layer, a second insulating layer on the semiconductor layer, and a second gate electrode on the second insulating layer, the first light blocking electrode is in contact with the shield electrode and has the same potential as the shield electrode, the organic electroluminescence element includes a light-transmissive first electrode, a second electrode facing the first electrode, a light emitting layer between the first electrode and the second electrode, an electron transfer layer between the light emitting layer and the first electrode, and an electron injection layer arranged between the electron transfer layer and the light emitting layer, the electron transfer layer is separated for each pixel, the electron injection layer is arranged over the entire display portion, and the first electrode is located on the side of the transparent resin substrate. a transparent resin substrate; a touch sensor embedded in the transparent resin substrate; pixels each including a first transistor and an organic electroluminescence element electrically connected with the first transistor; a display portion including an array of the pixels; and a shield electrode between the touch sensor and the display portion, wherein the pixels emit light toward the transparent resin substrate, the first transistor includes a first light blocking electrode, a first insulating layer on the first light blocking electrode, a semiconductor layer on the first insulating layer, a second insulating layer on the semiconductor layer, and a second gate electrode on the second insulating layer, the first light blocking electrode is in contact with the shield electrode and has the same potential as the shield electrode, the organic electroluminescence element includes a light-transmissive first electrode, a second electrode facing the first electrode, a light emitting layer between the first electrode and the second electrode, an electron transfer layer between the light emitting layer and the first electrode, and an electron injection layer arranged between the electron transfer layer and the light emitting layer, the electron transfer layer is separated for each pixel, the electron injection layer is arranged over the entire display portion, and the first electrode is located on the side of the transparent resin substrate.
A method for manufacturing a blade made of composite material for a turbomachine, in particular of an aircraft, said blade comprising a vane having a pressure side and a suction side which extend from a leading edge to a trailing edge of the vane, the blade further comprising a metal shield extending along the leading edge of the vane, the method comprising the steps of: a) disposing a preform made by three-dimensionally weaving fibers in a mould, the shield being positioned on an edge of the preform to form the leading edge of the vane, and a polymerizable adhesive being interposed between the shield and the edge of the preform, b) injecting polymerizable resin into the mould to impregnate the preform to form the vane after solidification, characterized in that the resin is injected during a time interval (ΔT) during which said adhesive reaches a gel point, such that injection begins before the gel point, the gel point being defined as the passage from several 3D macromolecules to a single 3D macromolecule. a) disposing a preform made by three-dimensionally weaving fibers in a mould, the shield being positioned on an edge of the preform to form the leading edge of the vane, and a polymerizable adhesive being interposed between the shield and the edge of the preform, b) injecting polymerizable resin into the mould to impregnate the preform to form the vane after solidification,