mhurhangee/patent-ind-claim-en huggingface dataset:
A delivery system for endoluminal delivery of an expandable device, said delivery system comprising a catheter having a proximal end and an opposite distal end, the distal end configured to support an expandable device; a primary sheath having a delivery position in which the primary sheath constrains the expandable device toward a collapsed configuration suitable for endoluminal delivery; a handle having an actuator for axially displacing the primary sheath from the delivery position, the handle having a knob for operating one or more functions of the handle , wherein the knob is initially hidden to prevent use by a user and then revealed as a result of displacement of the primary sheath from delivery position so as to allow subsequent actuation of the knob by the user, wherein the knob includes a longitudinally extending arm for engaging the primary sheath , whereby the knob is displaced from an initially hidden position and revealed in response to the axial movement of the primary sheath from the delivery position. a catheter having a proximal end and an opposite distal end, the distal end configured to support an expandable device; a primary sheath having a delivery position in which the primary sheath constrains the expandable device toward a collapsed configuration suitable for endoluminal delivery; a handle having an actuator for axially displacing the primary sheath from the delivery position, the handle having a knob for operating one or more functions of the handle , wherein the knob is initially hidden to prevent use by a user and then revealed as a result of displacement of the primary sheath from delivery position so as to allow subsequent actuation of the knob by the user, wherein the knob includes a longitudinally extending arm for engaging the primary sheath , whereby the knob is displaced from an initially hidden position and revealed in response to the axial movement of the primary sheath from the delivery position.
A power over fiber system comprising: a power sourcing equipment including a semiconductor laser being configured to oscillate with electric. power, thereby being configured to output feed light ; a powered device including a photoelectric conversion element being configured to convert the feed light from the power sourcing equipment into electric power; an optical fiber cable being configured to transmit the feed light from the power sourcing equipment to the powered device ; a temperature sensor being configured to detect a temperature of the photoelectric conversion element ; characterized in comprising a controller being configured to perform a process of lowering an output level of the feed light in response to the temperature detected by the temperature sensor being equal to or higher than a predetermined threshold value, and being configured to perform a process of raising the output level of the feed light in response to the temperature being lower than the predetermined threshold value. a power sourcing equipment including a semiconductor laser being configured to oscillate with electric. power, thereby being configured to output feed light ; a powered device including a photoelectric conversion element being configured to convert the feed light from the power sourcing equipment into electric power; an optical fiber cable being configured to transmit the feed light from the power sourcing equipment to the powered device ; a temperature sensor being configured to detect a temperature of the photoelectric conversion element ; characterized in comprising a controller being configured to perform a process of lowering an output level of the feed light in response to the temperature detected by the temperature sensor being equal to or higher than a predetermined threshold value, and being configured to perform a process of raising the output level of the feed light in response to the temperature being lower than the predetermined threshold value.
A method of controlling traveling of a self-propelled device capable of autonomously traveling from a predetermined start point (A) to a predetermined goal point (B), the method comprising: a first step of estimating the position of the self-propelled device ; a second step of determining the intersection point (N) of a virtual path and a straight line, the virtual path connecting the start point (A) and the goal point (B), and the straight line passing through the position of the self-propelled device and being orthogonal to the virtual path ; a third step of determining an offset reference point (Tp) between the intersection point (N) and the goal point (B) on the virtual path ; a fourth step of determining at least one offset point (Toft1,Toft2) at an offset on one of the goal point (B) side and the start point (A) side of the offset reference point (Tp) on the virtual path ; a fifth step of determining at least one target point (ToftL,ToftR) reached by rotating the at least one offset point (Toft1,Toft2) by 90° about the offset reference point (Tp) in one of the anticlockwise direction and the clockwise direction; and a sixth step of causing the self-propelled device to travel toward the at least one target point (ToftL,ToftR), wherein the offset reference point (Tp) and the at least one offset point (Toft1,Toft2) converge to the goal point (B) as the self-propelled device approaches the goal point (B). a first step of estimating the position of the self-propelled device ; a second step of determining the intersection point (N) of a virtual path and a straight line, the virtual path connecting the start point (A) and the goal point (B), and the straight line passing through the position of the self-propelled device and being orthogonal to the virtual path ; a third step of determining an offset reference point (Tp) between the intersection point (N) and the goal point (B) on the virtual path ; a fourth step of determining at least one offset point (Toft1,Toft2) at an offset on one of the goal point (B) side and the start point (A) side of the offset reference point (Tp) on the virtual path ; a fifth step of determining at least one target point (ToftL,ToftR) reached by rotating the at least one offset point (Toft1,Toft2) by 90° about the offset reference point (Tp) in one of the anticlockwise direction and the clockwise direction; and a sixth step of causing the self-propelled device to travel toward the at least one target point (ToftL,ToftR), wherein the offset reference point (Tp) and the at least one offset point (Toft1,Toft2) converge to the goal point (B) as the self-propelled device approaches the goal point (B).
A recumbent cycle device that includes a frame , a recumbent seat , a front wheel , a front fork component , a pedal crank assembly , a transmission and at least one rear wheel ; wherein the recumbent cycle device operates manually through the pedal crank assembly and the transmission directly powering motion of the front wheel alone; wherein the transmission comprises a fixed transmission assembly component and a subsequent moveable transmission assembly component ; and wherein the fixed transmission assembly component is attached to the frame so as to remain in position relative to the frame and the movable transmission assembly component is incorporated in the front fork component so as to be moveable with a steering input; characterised in that : the fixed transmission assembly component exhibits torque reduction and the subsequent moveable transmission assembly component exhibits torque multiplication such that operation of the pedal crank assembly does not generate any appreciable torque interference with the steering of the recumbent cycle device .
A peptide consisting of the amino acid sequence of SEQ ID No. 1 (KVLEHVVRV), or a pharmaceutical acceptable salt thereof, for use in the treatment of cancer, wherein said cancer is selected from non-small cell lung cancer and small cell lung cancer.
Propulsion assembly for an aircraft , having: - a nacelle , - a propulsion system arranged inside the nacelle and comprising a fairing , a rotary assembly that has a combustion chamber and is housed in the fairing , an exhaust nozzle positioned downstream of the combustion chamber and delimited by a rear portion of the fairing , referred to as nozzle wall , and ensuring the discharge of the combustion gases originating from the combustion of the fuel in the combustion chamber , - a fuel tank , - a supply pipe that connects the tank and the combustion chamber , - a cowling sealingly fastened to the nozzle wall and on the outside thereof, wherein the cowling and the nozzle wall define between them a chamber , and - a heat exchanger system ensuring, during operation of the propulsion system , an exchange of heat energy between the hot combustion gases circulating in the exhaust nozzle and the colder fuel circulating in the supply pipe at least in part by thermal radiation through the nozzle wall , wherein the heat exchanger system has a pipe portion arranged in said chamber and wherein the exchange of heat energy takes place at this pipe portion , the propulsion assembly being characterized in that the nozzle wall has passing through it a plurality of orifices that open on one side into the exhaust nozzle and on the other side into the chamber . - a nacelle , - a propulsion system arranged inside the nacelle and comprising a fairing , a rotary assembly that has a combustion chamber and is housed in the fairing , an exhaust nozzle positioned downstream of the combustion chamber and delimited by a rear portion of the fairing , referred to as nozzle wall , and ensuring the discharge of the combustion gases originating from the combustion of the fuel in the combustion chamber , - a fuel tank , - a supply pipe that connects the tank and the combustion chamber , - a cowling sealingly fastened to the nozzle wall and on the outside thereof, wherein the cowling and the nozzle wall define between them a chamber , and - a heat exchanger system ensuring, during operation of the propulsion system , an exchange of heat energy between the hot combustion gases circulating in the exhaust nozzle and the colder fuel circulating in the supply pipe at least in part by thermal radiation through the nozzle wall , wherein the heat exchanger system has a pipe portion arranged in said chamber and wherein the exchange of heat energy takes place at this pipe portion ,
A ball bearing assembly comprising (a) top and bottom rings having ball bearing raceways facing one another and (b) a ball bearing retainer which supports a plurality of ball bearings , which is sandwiched between said top and bottom rings and which enables said ball bearings to reside within said raceways , the improvement in which said retainer comprises a plurality of arced segments (146; 246; 346) which together form a circle, wherein said retainer is provided with pockets (156; 256; 356) for said ball bearings and said retainer ball pockets (156; 256; 356) are selected to have an oval cross-section with its major axis along its circumferential direction in which its semi-major axis dimension, a, is calculated according to the below formula: a = b + πd n segment α retainer − α raceway T hot − T cold + tol where b = d ball ∗ ratio, mm d ball = ball diameter, mm ratio = 1.025 - 1.10, mm d = bearing pitch diameter, mm n segment = number of retainer segments per bearing row T hot = extreme operating hot temperature, °C T cold = extreme operating cold temperature, °C α retainer = thermal coefficient of expansion for ball retainer material along the circumferential direction, 1/°C α raceway = thermal coefficient of expansion for raceway material, 1/°C tol = pocket diametral manufacturing tolerance, mm. b = d ball ∗ ratio, mm d ball = ball diameter, mm ratio = 1.025 - 1.10, mm d = bearing pitch diameter, mm n segment = number of retainer segments per bearing row T hot = extreme operating hot temperature, °C T cold = extreme operating cold temperature, °C α retainer = thermal coefficient of expansion for ball retainer material along the circumferential direction, 1/°C α raceway = thermal coefficient of expansion for raceway material, 1/°C tol = pocket diametral manufacturing tolerance, mm.
A system comprising: a sector nozzle for a gas turbine combustor , wherein the sector nozzle is configured to fit with adjacent sector nozzles to form a fuel nozzle assembly, the sector nozzle comprising: a nozzle portion configured to mix fuel and air to produce a fuel-air mixture; a shell coupled to the nozzle portion ; characterized in that the system further comprises: a first longitudinal strut and a second longitudinal strut each coupled to a first surface of the shell on opposite sides of a window within the first surface; and a third longitudinal strut coupled to a second surface of the shell , wherein the second surface is disposed opposite of the first surface. a sector nozzle for a gas turbine combustor , wherein the sector nozzle is configured to fit with adjacent sector nozzles to form a fuel nozzle assembly, the sector nozzle comprising: a nozzle portion configured to mix fuel and air to produce a fuel-air mixture; a shell coupled to the nozzle portion ; a nozzle portion configured to mix fuel and air to produce a fuel-air mixture; a shell coupled to the nozzle portion ; characterized in that the system further comprises: a first longitudinal strut and a second longitudinal strut each coupled to a first surface of the shell on opposite sides of a window within the first surface; and a third longitudinal strut coupled to a second surface of the shell , wherein the second surface is disposed opposite of the first surface. a first longitudinal strut and a second longitudinal strut each coupled to a first surface of the shell on opposite sides of a window within the first surface; and a third longitudinal strut coupled to a second surface of the shell , wherein the second surface is disposed opposite of the first surface.
Actuator comprising a sliding body moveable along a guide between a rest position and a retracted position, a spring resting on a support body and acting on the sliding body to exert a bias force urging it to the rest position, and a SMA wire being mechanically and electrically connected with each of its two opposite ends to a respective one of two stationary contacts and forming a loop between the opposite ends which is connected to the sliding body, wherein the SMA wire is arranged to, when activated by electric energy supply, pull the sliding body away from the rest position to the retracted position, wherein the guide is fixed to a first end portion of an elongated mounting bar , the support body is fixed to an intermediate portion of the elongated mounting bar , and a contact holding body in which the two contacts are incorporated is fixed to a second end portion, opposite to the first end portion, of the mounting bar , characterized in that the SMA wire is arranged to extend from a first one of the two stationary contacts along the elongated mounting bar to a first connector which is incorporated in the sliding body and to which the SMA wire is connected, from there extends to turn around in a 180 degrees curve to a second connector which is incorporated in the sliding body next to the first connector and to which the SMA wire is connected, and from there back along the elongated mounting bar to the second one of the two stationary contacts. a sliding body moveable along a guide between a rest position and a retracted position, a spring resting on a support body and acting on the sliding body to exert a bias force urging it to the rest position, and a SMA wire being mechanically and electrically connected with each of its two opposite ends to a respective one of two stationary contacts and forming a loop between the opposite ends which is connected to the sliding body, wherein the SMA wire is arranged to, when activated by electric energy supply, pull the sliding body away from the rest position to the retracted position, wherein the guide is fixed to a first end portion of an elongated mounting bar , the support body is fixed to an intermediate portion of the elongated mounting bar , and a contact holding body in which the two contacts are incorporated is fixed to a second end portion, opposite to the first end portion, of the mounting bar , characterized in that the SMA wire is arranged to extend from a first one of the two stationary contacts along the elongated mounting bar to a first connector which is incorporated in the sliding body and to which the SMA wire is connected, from there extends to turn around in a 180 degrees curve to a second connector which is incorporated in the sliding body next to the first connector and to which the SMA wire is connected, and from there back along the elongated mounting bar to the second one of the two stationary contacts.
A method for wireless communication, comprising: receiving , on a first hop frequency of a plurality of available hop frequencies in an unlicensed radio frequency spectrum band, two or more synchronization signals transmitted from a first base station; identifying a first synchronization signal of the first base station based at least in part on the received two or more synchronization signals; and identifying , on the first hop frequency, a second synchronization signal of the first base station based at least in part on a periodicity of synchronization signal transmissions on one or more hop frequencies of the plurality of available hop frequencies, wherein the synchronization signals are transmitted in an absence of performing a listen-before-talk "LBT" procedure on the one or more hop frequencies of the plurality of available hop frequencies. receiving , on a first hop frequency of a plurality of available hop frequencies in an unlicensed radio frequency spectrum band, two or more synchronization signals transmitted from a first base station; identifying a first synchronization signal of the first base station based at least in part on the received two or more synchronization signals; and identifying , on the first hop frequency, a second synchronization signal of the first base station based at least in part on a periodicity of synchronization signal transmissions on one or more hop frequencies of the plurality of available hop frequencies, wherein the synchronization signals are transmitted in an absence of performing a listen-before-talk "LBT" procedure on the one or more hop frequencies of the plurality of available hop frequencies.
Fixed bed for a fixed-bed reactor , wherein the fixed bed includes a particulate support and at least one reactive substance and wherein the support is a silica compound, wherein the reactive substance is a metal-organic pyridine compound, the metal-organic pyridine compound is selected from pyridinium chlorochromate, pyridinium dichromate and bis(pyridine)chromium trioxide; the support is impregnated with an impregnation and the impregnation is obtainable by a process comprising the step of treating the support with a solvent comprising the metal-organic pyridinium compound dissolved in the solvent and the solvent comprises phosphoric acid, especially an aqueous solvent that contains at least 50% phosphoric acid; and the support has a loading with the metal-organic pyridine compound of not more than 10 percent by weight. the reactive substance is a metal-organic pyridine compound, the metal-organic pyridine compound is selected from pyridinium chlorochromate, pyridinium dichromate and bis(pyridine)chromium trioxide; the support is impregnated with an impregnation and the impregnation is obtainable by a process comprising the step of treating the support with a solvent comprising the metal-organic pyridinium compound dissolved in the solvent and the solvent comprises phosphoric acid, especially an aqueous solvent that contains at least 50% phosphoric acid; and the support has a loading with the metal-organic pyridine compound of not more than 10 percent by weight.
An excavator comprising: a lower traveling body ; an upper turning body turnably mounted to the lower traveling body ; and an acquisition device mounted to the upper turning body and configured to acquire information including a status around the excavator, characterized by a control device configured to recognize a reference object that is in a stopped state or at a fixed position around the excavator based on the information acquired by the acquisition device, and to estimate a turning angle of the upper turning body based on a change in a position of the reference object as viewed from the upper turning body . a lower traveling body ; an upper turning body turnably mounted to the lower traveling body ; and an acquisition device mounted to the upper turning body and configured to acquire information including a status around the excavator, characterized by a control device configured to recognize a reference object that is in a stopped state or at a fixed position around the excavator based on the information acquired by the acquisition device, and to estimate a turning angle of the upper turning body based on a change in a position of the reference object as viewed from the upper turning body .
A window or door having a. a frame made of sections of a frame profile connected to one another, b. wherein the frame comprises and forms a glass rebate, in which at least one glass rebate element is arranged for the adhesive bonding of a glazing , which element in the installed state forms an adhesive reservoir in conjunction with the respective frame profile and the glazing in each case in the glass rebate , c. wherein the glass rebate element comprises a cushion , which is entirely or partially produced from a yielding material, which is a material having foam-type structure, wherein the glass rebate element comprises a shell , which is preferably connected in an integrally-joined and/or formfitting manner to the cushion , characterized in that d. the shell comprises a free end , which is angled in relation to a horizontal by 90°, preferably by greater than 30°, on a side of the installed glass rebate element facing away from a glass retention strip. a. a frame made of sections of a frame profile connected to one another, b. wherein the frame comprises and forms a glass rebate, in which at least one glass rebate element is arranged for the adhesive bonding of a glazing , which element in the installed state forms an adhesive reservoir in conjunction with the respective frame profile and the glazing in each case in the glass rebate , c. wherein the glass rebate element comprises a cushion , which is entirely or partially produced from a yielding material, which is a material having foam-type structure, wherein the glass rebate element comprises a shell , which is preferably connected in an integrally-joined and/or formfitting manner to the cushion , characterized in that d. the shell comprises a free end , which is angled in relation to a horizontal by 90°, preferably by greater than 30°, on a side of the installed glass rebate element facing away from a glass retention strip.
A semiconductor light emitting diode, LED, comprising: a C-plane sapphire substrate , a plurality of GaN-based semiconductor layers formed on said sapphire substrate and made of different materials from that of said sapphire substrate and an ohmic electrode formed on the surface of the top layer of said semiconductor layers so that light generated in said semiconductor layers is emitted from said ohmic electrode or from said sapphire substrate, wherein protruding portions for scattering or diffracting light generated in said semiconductor layers are present in a repeated pattern in the surface of said sapphire substrate, and said protruding portions have a side surface with a taper angle of more than 115 degree and not more than 160 degree between the side surface and the C-plane of said sapphire substrate, wherein said protruding portions, in a plan view have as side at least one line and do not have as side a line that is parallel to an A-axis of the hexagonal crystal of the semiconductor layers, in order to prevent cavities in said semiconductor layers around said protruding portions.