mhurhangee/patent-ind-claim-en huggingface dataset:
A thrust foil bearing , comprising: a foil holder ; and a plurality of foils fixed to an end surface of the foil holder so as to be arrayed in a circumferential direction of the thrust foil bearing , the thrust foil bearing being configured to support a shaft , which is being relatively rotated in one circumferential direction, in thrust directions, each of the foils comprising: a top foil portion having a bearing surface; an extending portion formed on one circumferential side of the top foil portion ; and an underfoil portion formed on another circumferential side of the top foil portion , the extending portion of the each of the foils being arranged behind another of the foils that is adjacent to the each of the foils on the one circumferential side, the underfoil portion of the each of the foils being arranged between the top foil portion of the another of the foils , which is adjacent to the each of the foils on another circumferential side, and the end surface of the foil holder, the each of the foils comprising a fixing portion fixed to the foil holder , characterized in that the fixing portion is formed in a region of the top foil portion in a circumferential direction, which is not supported by the underfoil portion of the another of the foils . a foil holder ; and a plurality of foils fixed to an end surface of the foil holder so as to be arrayed in a circumferential direction of the thrust foil bearing , the thrust foil bearing being configured to support a shaft , which is being relatively rotated in one circumferential direction, in thrust directions, each of the foils comprising: a top foil portion having a bearing surface; an extending portion formed on one circumferential side of the top foil portion ; and an underfoil portion formed on another circumferential side of the top foil portion , a top foil portion having a bearing surface; an extending portion formed on one circumferential side of the top foil portion ; and an underfoil portion formed on another circumferential side of the top foil portion , the extending portion of the each of the foils being arranged behind another of the foils that is adjacent to the each of the foils on the one circumferential side, the underfoil portion of the each of the foils being arranged between the top foil portion of the another of the foils , which is adjacent to the each of the foils on another circumferential side, and the end surface of the foil holder, the each of the foils comprising a fixing portion fixed to the foil holder , characterized in that the fixing portion is formed in a region of the top foil portion in a circumferential direction, which is not supported by the underfoil portion of the another of the foils .
A substrate processing device for printing and or lacquering a plate-shaped substrate with an assembly , wherein the assembly has a transport system for transporting the plate-shaped substrate in a transport direction (T), wherein double-sided lateral guide devices are provided, with which the plate-shaped substrate can be guided or aligned at its lateral surfaces, wherein the lateral guide devices can be moved transversely to the transport direction (T) and wherein a separate drive is assigned to each lateral guide device , characterized in that the drives are formed as individual electronically controllable individual drives for format adjustment movement of the lateral guide devices .
A method of performing reverse execution debugging of an application, the method comprising: identifying a snapshot of application state for the application; emulating execution of the application, at an intermediate level code, in a forward direction from the snapshot to an end point, causing generation of historical execution state at various points along the emulation of the application; collecting the historical execution state by iteratively emulating execution from the snapshot toward the endpoint, where each iteration of emulated execution emulates execution of progressively smaller portions of the application, such that reverse execution of the application is emulated by surfacing state as a result of each iteration; and using the collected historical execution state, emulating reverse execution of the application by substituting collected historical execution state, when needed, to restore previous state needed as a result of emulation of reverse execution of the application. identifying a snapshot of application state for the application; emulating execution of the application, at an intermediate level code, in a forward direction from the snapshot to an end point, causing generation of historical execution state at various points along the emulation of the application; collecting the historical execution state by iteratively emulating execution from the snapshot toward the endpoint, where each iteration of emulated execution emulates execution of progressively smaller portions of the application, such that reverse execution of the application is emulated by surfacing state as a result of each iteration; and using the collected historical execution state, emulating reverse execution of the application by substituting collected historical execution state, when needed, to restore previous state needed as a result of emulation of reverse execution of the application.
A gripper for holding a wind turbine blade when the wind turbine blade is being moved, comprising: a lower blade holding structure configured to engage an underside of the wind turbine blade; an upper blade holding structure configured to engage an upper side of the wind turbine blade; and a force transfer mechanism operatively coupled to at least one of the lower or upper blade holding structures , characterised in that the force transfer mechanism is configured to increase the force applied between the lower blade holding structure and the underside of the wind turbine blade and/or between the upper blade holding structure and the upper side of the wind turbine blade when the wind turbine blade is accelerated during movement along a central longitudinal axis of the wind turbine blade. a lower blade holding structure configured to engage an underside of the wind turbine blade; an upper blade holding structure configured to engage an upper side of the wind turbine blade; and a force transfer mechanism operatively coupled to at least one of the lower or upper blade holding structures , characterised in that the force transfer mechanism is configured to increase the force applied between the lower blade holding structure and the underside of the wind turbine blade and/or between the upper blade holding structure and the upper side of the wind turbine blade when the wind turbine blade is accelerated during movement along a central longitudinal axis of the wind turbine blade.
A phosphor module for a laser light source, the phosphor module comprising: a heat radiator ; a phosphor layer , disposed on the heat radiator, being configured to emit light with a wavelength different from that of the light being absorbed; and a reflective layer disposed on a surface of the phosphor layer and configured to reflect light, the phosphor layer comprising a body portion having a flat shape; and characterized in that it also comprises a protrusion protruding upward from a center portion of the body portion toward a space between both sides of the reflective layer to have a smaller size than that of the body portion , the protrusion being exposed through the reflective layer , wherein the reflective layer is disposed to cover an upper surface of the body portion and surrounds a side surface of the protrusion , and an extension portion extending from a periphery of the reflective layer to the heat radiator to cover a side surface of the body portion . a heat radiator ; a phosphor layer , disposed on the heat radiator, being configured to emit light with a wavelength different from that of the light being absorbed; and a reflective layer disposed on a surface of the phosphor layer and configured to reflect light, the phosphor layer comprising a body portion having a flat shape; and characterized in that it also comprises a protrusion protruding upward from a center portion of the body portion toward a space between both sides of the reflective layer to have a smaller size than that of the body portion , the protrusion being exposed through the reflective layer , wherein the reflective layer is disposed to cover an upper surface of the body portion and surrounds a side surface of the protrusion , and an extension portion extending from a periphery of the reflective layer to the heat radiator to cover a side surface of the body portion . a body portion having a flat shape; and characterized in that it also comprises a protrusion protruding upward from a center portion of the body portion toward a space between both sides of the reflective layer to have a smaller size than that of the body portion , the protrusion being exposed through the reflective layer , wherein the reflective layer is disposed to cover an upper surface of the body portion and surrounds a side surface of the protrusion , and an extension portion extending from a periphery of the reflective layer to the heat radiator to cover a side surface of the body portion .
Biochip device comprising a substrate having a surface layer forming a planar waveguide . said surface layer carrying chromophore elements in a zone carrying the chromophore elements, said chromophore elements being suitable for emitting fluorescence in response to an excitation light, wherein the planar waveguide contains photoluminescent constituents suitable for emitting luminescence at one or more excitation wavelengths of the chromophore elements when said constituents are themselves excited by a primary excitation light , the luminescence emitted by the constituents being generated and guided in the planar waveguide to excite the chromophore elements , characterized in that the photoluminescent constituents are disposed in the planar waveguide in separate zones adjacent to the zones carrying the chromophore elements in the plane of the planar waveguide and further wherein wavelength filter means are provided in the planar waveguide to eliminate the luminescence emitted by the photoluminescent constituents at wavelengths that are identical or close to the wavelengths of the fluorescence emitted by the chromophore elements.
A method for evaluating a frequency spectrum representative of at least one time-dependent signal, the at least one time dependent signal being derived from an output of a measuring device under predetermined measuring device operating conditions, wherein the measuring device is a vortex measuring device, the time-dependent signal comprising a portion being representative of a flow as a desired signal, and a portion being representative of noise, characterized by the method comprising the steps of: - determining, based on the frequency spectrum of the signal, a value representative of the noise floor, the value representative of the noise floor being calculated as an average amplitude of a number of selected noise representative frequencies spectrum components of the time-dependent signal; - identifying, based on the frequency spectrum of the signal derived under the predetermined operating condition, a peak component, the peak component being the frequency component with a greatest amplitude value, and - if the amplitude of the identified peak component satisfies a relative peak criterion determined on the basis of the determined value representative of the noise floor, determining the desired signal by applying a predetermined algorithm. - determining, based on the frequency spectrum of the signal, a value representative of the noise floor, the value representative of the noise floor being calculated as an average amplitude of a number of selected noise representative frequencies spectrum components of the time-dependent signal; - identifying, based on the frequency spectrum of the signal derived under the predetermined operating condition, a peak component, the peak component being the frequency component with a greatest amplitude value, and - if the amplitude of the identified peak component satisfies a relative peak criterion determined on the basis of the determined value representative of the noise floor, determining the desired signal by applying a predetermined algorithm.
A method for obtaining at least 99.0% pure idraparinux sodium, the method comprising: passing a solution comprising a crude idraparinux sodium through a column comprising a sodium ion exchange resin to obtain a first mixture; passing a solution comprising the first mixture through a gel chromatography column to obtain a second mixture; dissolving the second mixture in a fifth solvent to obtain a solution comprising the second mixture, wherein the fifth solvent is water; precipitating a purified idraparinux sodium from the solution, wherein the precipitating comprises adding a first solvent into the solution to obtain a mixed solution, wherein the first solvent comprises an alcohol, a ketone, acetonitrile, or a mixture thereof, and wherein the volume ratio of the first solvent to the fifth solvent is 1:1 to 12:1, and cooling the mixed solution to a temperature of -30 °C to 15 °C; and filtering and collecting the at least 99.0% pure idraparinux sodium. passing a solution comprising a crude idraparinux sodium through a column comprising a sodium ion exchange resin to obtain a first mixture; passing a solution comprising the first mixture through a gel chromatography column to obtain a second mixture; dissolving the second mixture in a fifth solvent to obtain a solution comprising the second mixture, wherein the fifth solvent is water; precipitating a purified idraparinux sodium from the solution, wherein the precipitating comprises adding a first solvent into the solution to obtain a mixed solution, wherein the first solvent comprises an alcohol, a ketone, acetonitrile, or a mixture thereof, and wherein the volume ratio of the first solvent to the fifth solvent is 1:1 to 12:1, and cooling the mixed solution to a temperature of -30 °C to 15 °C; and filtering and collecting the at least 99.0% pure idraparinux sodium.
An electronic component comprising: a substrate having a sensor element mounted on one face thereof; a flexible printed circuit board coupled to face a remaining face of the substrate and extending to one side of the substrate in a first direction (D1); characterised by at least one recess formed at an edge of the remaining face of the substrate, wherein the recess is located at least in a region facing the flexible printed circuit board on the remaining face of the substrate and extends in a second direction (D2) intersecting the first direction. a substrate having a sensor element mounted on one face thereof; a flexible printed circuit board coupled to face a remaining face of the substrate and extending to one side of the substrate in a first direction (D1); characterised by at least one recess formed at an edge of the remaining face of the substrate, wherein the recess is located at least in a region facing the flexible printed circuit board on the remaining face of the substrate and extends in a second direction (D2) intersecting the first direction.
A method for performing a firmware update of a lighting technology device , comprising the steps of: - supplying firmware update data according to a firmware update protocol; - transmitting said firmware update data via a DALI bus using the physical layer of a DALI signal; and - receiving said firmware update data at a DALI interface of said lighting technology device ; characterised in that the firmware update data is obtained directly by translating changes of physical states of the DALI signal into a binary code representing the firmware update data according to the firmware update protocol, wherein the changes of physical states are dedicated phase changes of a square wave carrier signal. - supplying firmware update data according to a firmware update protocol; - transmitting said firmware update data via a DALI bus using the physical layer of a DALI signal; and - receiving said firmware update data at a DALI interface of said lighting technology device ;
A golf bag , comprising a club holder , provided with supporting legs , for receiving golf clubs , which golf bag is adjustable between a collapsed position (I) in which the supporting legs extend substantially along the club holder , and a folded-out position (II) in which the supporting legs extend away from the club holder and support the club holder in an inclined position, wherein the club holder comprises a flexible pouch for therein receiving golf clubs by the shaft thereof that in the folded-out position (II) hangs out, characterized in that a sack-shaped part of the flexible pouch forms a flexible front panel of the golf bag .
A communication method, comprising: receiving (S201, S301), by a user plane function, UPF, network element, first latency information from a time sensitive network, TSN, wherein the first latency information is carried in a flow service provider broadcast declaration and is used to indicate a first latency of transmitting the flow from a flow service provider in the TSN to the UPF network element; sending (S202, S302), by the UPF network element, the first latency information to a session management function, SMF, network element; determining (S203, S304), by the SMF network element according to a policy and charging control, PCC, rule of the flow, a third latency of transmitting the flow from the UPF network element to a terminal device, UE; determining (S204, S305), by the SMF network element based on the first latency and the third latency, a sum of the first latency and the third latency as a second latency of transmitting the flow from the flow service provider in the TSN to the UE; sending (S205, S307), by the SMF network element, second latency information to the UPF network element; and sending (S206, S308), by the UPF network element, the second latency information to the UE, wherein the second latency information is used to indicate the second latency. receiving (S201, S301), by a user plane function, UPF, network element, first latency information from a time sensitive network, TSN, wherein the first latency information is carried in a flow service provider broadcast declaration and is used to indicate a first latency of transmitting the flow from a flow service provider in the TSN to the UPF network element; sending (S202, S302), by the UPF network element, the first latency information to a session management function, SMF, network element; determining (S203, S304), by the SMF network element according to a policy and charging control, PCC, rule of the flow, a third latency of transmitting the flow from the UPF network element to a terminal device, UE; determining (S204, S305), by the SMF network element based on the first latency and the third latency, a sum of the first latency and the third latency as a second latency of transmitting the flow from the flow service provider in the TSN to the UE; sending (S205, S307), by the SMF network element, second latency information to the UPF network element; and sending (S206, S308), by the UPF network element, the second latency information to the UE, wherein the second latency information is used to indicate the second latency.
A two-pack resin composition for fiber-reinforced composite materials configured of a base material including an epoxy resin (A) and a (meth)acrylate compound (B) having three or more (meth)acryloyl groups in a molecule, and a curing agent including an amine compound (C) represented by a following general formula , a mass ratio of the base material to the curing agent being within the range of from 85 : 15 to 65 : 35, wherein the epoxy resin (A) includes 75% by mass to 100% by mass of a bisphenol A epoxy resin; the base material has a viscosity at 25°C of 10,000 mPa·s or less as measured by an E-type viscometer, as indicated in the description; and the curing agent has a viscosity at 25°C of 800 mPa·s or less as measured by an E-type viscometer, as indicated in the description; formula being X-(CH 2 NH 2 ) n , wherein, in the formula, X represents an n-valent organic group having 1 to 16 carbon atoms; and n represents 2 or
A method for handling URA identity information for a wireless communication device, the device configured to be operable in a mobile telecommunications system, the method comprising, at the device: receiving a message to enter a new connected state consisting of a URA_PCH state; and determining to initiate a URA update procedure when the message does not comprise a UTRAN mobility information element URA identity, the determination being independent of information available to the device when it has entered the new, connected state. receiving a message to enter a new connected state consisting of a URA_PCH state; and determining to initiate a URA update procedure when the message does not comprise a UTRAN mobility information element URA identity, the determination being independent of information available to the device when it has entered the new, connected state.
Overhead line system for a track section traversed by a vehicle with a current collector, along which a contact wire contactable by a contact strip of the current collector is supported by overhead line support points spaced apart from one another in a longitudinal span, wherein the longitudinal span is embodied such that a plurality of parameters influencing the longitudinal span are taken into account, wherein the parameters are temperature, wind speed, current strength, vehicle rolling motion or wear and tear of the contact strip of a vehicle, and a simultaneous occurrence of extreme values of simultaneously occurring parameters is excluded for the duration of the simultaneous occurrence, wherein measurement devices are present for the continuous monitoring of the parameters, characterised in that the measuring devices are connected to at least one evaluation unit for comparing the parameters with limit values and that the evaluation unit is connected to a warning device and/or to a device for changing railway operation, which can be activated when one of the limit values is exceeded.
An isolated thraustochytrid biomass, wherein (a) at least 50% by weight of the dry cell weight of the biomass are fatty acids, and wherein at least 50% by weight of the fatty acids is docosahexaenoic acid; or (b) at least 25% by weight of the dry cell weight of the biomass is docosahexaenoic acid, and wherein said biomass further comprises docosahexaenoic acid and docosapentaenoic acid n-6 in a weight ratio of at least 10:1. (a) at least 50% by weight of the dry cell weight of the biomass are fatty acids, and wherein at least 50% by weight of the fatty acids is docosahexaenoic acid; or (b) at least 25% by weight of the dry cell weight of the biomass is docosahexaenoic acid,