mhurhangee/patent-ind-claim-en huggingface dataset:
A content delivery method comprising: receiving, from an internet service provider, ISP, resolver , a uniform resource locator resolution request at a name server of a content delivery network, CDN, for a domain, the uniform resource locator resolution request received based, at least in part, on a unique enhanced host name of the uniform resource locator resolution request, the unique enhanced host name uniquely related to a resource associated with the uniform resource resolution request; tracking , at the name server of the CDN, a popularity of the resource by determining a number of times the unique enhanced host name related to the resource is requested, wherein the unique enhanced host name is constructed from a base domain name and a function of a path to the resource.; determining a popularity tier, from one or more content server tiers, to assign to the uniform resource locator resolution request, the popularity tier determined based on the tracked popularity of the resource; selecting, by the name server of the CDN, a node within a network capable of delivering the resource, the selected node being a most appropriate distribution node and being within the popularity tier determined based on the popularity of the resource; and returning , by the name server of the CDN an IP address of the selected node to the ISP resolver . receiving, from an internet service provider, ISP, resolver , a uniform resource locator resolution request at a name server of a content delivery network, CDN, for a domain, the uniform resource locator resolution request received based, at least in part, on a unique enhanced host name of the uniform resource locator resolution request, the unique enhanced host name uniquely related to a resource associated with the uniform resource resolution request; tracking , at the name server of the CDN, a popularity of the resource by determining a number of times the unique enhanced host name related to the resource is requested, wherein the unique enhanced host name is constructed from a base domain name and a function of a path to the resource.; determining a popularity tier, from one or more content server tiers, to assign to the uniform resource locator resolution request, the popularity tier determined based on the tracked popularity of the resource; selecting, by the name server of the CDN, a node within a network capable of delivering the resource, the selected node being a most appropriate distribution node and being within the popularity tier determined based on the popularity of the resource; and returning , by the name server of the CDN an IP address of the selected node to the ISP resolver .
A light configured to be mountable on a hanger of a modular lighting system that includes two parallel rods that are covered with a protective layer, the light comprising: a body having at least one surface supporting a light source ; and a first wing and a second wing that are attached to and extend from the body , the first wing including a first cavity that extends along a first axis and at least one first knife that extends transverse to the first axis and into the first cavity and the second wing including a second cavity that extends along a second axis that is different from the first axis and at least one second knife that extends transverse to the second axis and into the second cavity , the first cavity and the second cavity each sized and shaped for selective attachment to a respective one of the rods such that when one of the rods is arranged in the first cavity of the first wing , the at least one first knife is adapted to pierce or cut the protective layer of the one of the rods so as to make electrical contact with a conductor in the one of the rods and when the other one of the rods is arranged in the second cavity of the second wing , the at least one second knife is adapted to pierce or cut the protective layer of the other one of the rods so as to make electrical contact with a conductor in the other one of the rods . a body having at least one surface supporting a light source ; and a first wing and a second wing that are attached to and extend from the body , the first wing including a first cavity that extends along a first axis and at least one first knife that extends transverse to the first axis and into the first cavity and the second wing including a second cavity that extends along a second axis that is different from the first axis and at least one second knife that extends transverse to the second axis and into the second cavity , the first cavity and the second cavity each sized and shaped for selective attachment to a respective one of the rods such that when one of the rods is arranged in the first cavity of the first wing , the at least one first knife is adapted to pierce or cut the protective layer of the one of the rods so as to make electrical contact with a conductor in the one of the rods and when the other one of the rods is arranged in the second cavity of the second wing , the at least one second knife is adapted to pierce or cut the protective layer of the other one of the rods so as to make electrical contact with a conductor in the other one of the rods .
A peptide having an activity to stimulate hair production or melanogenesis, the peptide consisting of the amino acid sequence of SEQ ID NO: 1 or SEQ ID NO: 2.
A method of transferring electronic information between a lesser trusted network and a trusted network comprising: receiving original electronic information to be transferred from a lesser trusted network in a first electrical zone ; permitting the original electronic information to be transferred between the first electrical zone and a second electrical zone in one direction only; verifying the original electronic information content against at least one predetermined characteristic within the second electrical zone so as to provide a verifier output status and verified electronic information; forwarding the verified electronic information to a third electrical zone , wherein the original electronic information at the first electrical zone is always received by the third electrical zone via the second electrical zone 4 as verified electronic information in either a transformed state or an untransformed state, the method being characterised by providing a time delay algorithm to the original electronic information received by the first electrical zone the time delay algorithm being configured to predict the state of the second electrical zone in dependence upon the compute for verifying the original electronic information at the second electrical zone and being configured to provide a time delay to the original electronic information at the first electrical zone . receiving original electronic information to be transferred from a lesser trusted network in a first electrical zone ; permitting the original electronic information to be transferred between the first electrical zone and a second electrical zone in one direction only; verifying the original electronic information content against at least one predetermined characteristic within the second electrical zone so as to provide a verifier output status and verified electronic information; forwarding the verified electronic information to a third electrical zone , wherein the original electronic information at the first electrical zone is always received by the third electrical zone via the second electrical zone 4 as verified electronic information in either a transformed state or an untransformed state, the method being characterised by providing a time delay algorithm to the original electronic information received by the first electrical zone the time delay algorithm being configured to predict the state of the second electrical zone in dependence upon the compute for verifying the original electronic information at the second electrical zone and being configured to provide a time delay to the original electronic information at the first electrical zone .
Method for illuminating a vehicle interior using a vehicle lighting system comprising at least one white light LED arrangement and at least one infrared LED , - the emission power of the at least one white light LED arrangement being adjusted such that the light emission in the visible spectral range has a predetermined brightness, characterized in that - the emission power of the at least one infrared LED is adjusted such that the total light emission power of the vehicle lighting system has an infrared spectral power component of 40% to 70%. - the emission power of the at least one white light LED arrangement being adjusted such that the light emission in the visible spectral range has a predetermined brightness, characterized in that - the emission power of the at least one infrared LED is adjusted such that the total light emission power of the vehicle lighting system has an infrared spectral power component of 40% to 70%.
A magnetic linear position sensor system for a magnetic target , comprising: i. a first sensor for measuring in a first sensing region - a first magnetic field component B x, 1 along a direction x and - a second magnetic field component B z, 1 along a direction z , orthogonal to x ; ii. a second sensor for measuring in a second sensing region -aligned to the first sensing region along the x -direction- - a first magnetic field component B x, 2 along the x -direction and - a second magnetic field component B z, 2 along the z-direction; and iii. an axially-magnetized ring magnet arranged under the first and second sensing region such that an axial direction of the ring magnet is parallel to the z -direction and-in operation-a position of the ring magnet with respect to the first and second sensing regions is fixed. i. a first sensor for measuring in a first sensing region - a first magnetic field component B x, 1 along a direction x and - a second magnetic field component B z, 1 along a direction z , orthogonal to x ; - a first magnetic field component B x, 1 along a direction x and - a second magnetic field component B z, 1 along a direction z , orthogonal to x ; ii. a second sensor for measuring in a second sensing region -aligned to the first sensing region along the x -direction- - a first magnetic field component B x, 2 along the x -direction and - a second magnetic field component B z, 2 along the z-direction; and - a first magnetic field component B x, 2 along the x -direction and - a second magnetic field component B z, 2 along the z-direction; and iii. an axially-magnetized ring magnet arranged under the first and second sensing region such that an axial direction of the ring magnet is parallel to the z -direction and-in operation-a position of the ring magnet with respect to the first and second sensing regions is fixed.
An aircraft comprising: a throttle having a throttle position; a fuel switch having an on position and an off position; a fuel cutoff valve operative to cut off a fuel supply in response to a fuel cutoff control signal; a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position. a throttle having a throttle position; a fuel switch having an on position and an off position; a fuel cutoff valve operative to cut off a fuel supply in response to a fuel cutoff control signal; a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position. a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position.
A method of operating a top and bottom blowing converter by using a top-blown multihole lance having a plurality of lance nozzles for jetting oxygen gas to jet oxygen jets from the lance nozzles at a nozzle tilting angle θ (°) inclined with respect to a center axis of the top-blown multihole lance and arranging n bottom-blown tuyeres in a furnace bottom to blow an agitating gas from the bottom-blown tuyeres , characterized in that an interference rate (IR) indicated by a following equation is not more than 0.7 with respect to a positional relation between a hot spot formed by impinging the top-blown oxygen jets jetted from the top-blown multihole lance onto a bath surface of molten iron and a floating region of an agitating gas blown from the bottom-blown tuyeres to molten iron and formed in a bath surface of molten iron when a point of intersecting a center axis of the top-blown multihole lance with a plane perpendicular to the center axis of the top-blown multihole lance at the bath surface of molten iron in the top and bottom blowing converter is a lance center point L C and a point of intersecting a jetting direction of the oxygen jets jetted from the lance nozzle with the plane is a hot spot center point G J and a point of intersecting a center axis of the bottom-blown tuyere with the plane is a tuyere center point M C : IR = Σ r t / r bi × 90 − φ i / 90 / n , wherein IR: interference rate; n: an integer of 2 or more; φ: an angle (°) between a line from the lance center point L C to the hot spot center point G J and a line from the lance center point L C to the tuyere center point M C ; r t : a distance (m) between the lance center point L C and the hot spot center point G J ; r b : a distance (m) between the tuyere center point M C in each bottom blown tuyere and the lance center point Lc and φ i and r bi are an angle (°) and a distance (m), respectively, determined for i-th (i: 1-n) bottom-blown tuyere , and wherein a range of a supply amount of top-blown oxygen gas is 2.0-2.85 Nm 3 /min/t. IR: interference rate; n: an integer of 2 or more; φ: an angle (°) between a line from the lance center point L C to the hot spot center point G J and a line from the lance center point L C to the tuyere center point M C ; r t : a distance (m) between the lance center point L C and the hot spot center point G J ; r b : a distance (m) between the tuyere center point M C in each bottom blown tuyere and the lance center point Lc and φ i and r bi are an angle (°) and a distance (m), respectively, determined for i-th (i: 1-n) bottom-blown tuyere , and
An electronic cigarette with a rotatable mouthpiece , comprising: a battery assembly , the battery assembly comprising a battery and a casing ; an atomizing assembly , connected with the battery assembly ; wherein: the atomizing assembly comprises: a mouthpiece ; a cartridge ; and an outer sleeve , the outer sleeve being hinged to the casing through a pivotal pin ; characterized in that : the pivotal pin is accommodated in a guide rail groove ; the pivotal pin is slidable along the guide rail groove ; and a sliding direction of the pivotal pin is the same as an axial direction of the casing . a battery assembly , the battery assembly comprising a battery and a casing ; an atomizing assembly , connected with the battery assembly ; wherein: the atomizing assembly comprises: a mouthpiece ; a cartridge ; and an outer sleeve , the outer sleeve being hinged to the casing through a pivotal pin ; characterized in that : the pivotal pin is accommodated in a guide rail groove ; the pivotal pin is slidable along the guide rail groove ; and a sliding direction of the pivotal pin is the same as an axial direction of the casing . the atomizing assembly comprises: a mouthpiece ; a cartridge ; and an outer sleeve , the outer sleeve being hinged to the casing through a pivotal pin ; a mouthpiece ; a cartridge ; and an outer sleeve , the outer sleeve being hinged to the casing through a pivotal pin ; characterized in that : the pivotal pin is accommodated in a guide rail groove ; the pivotal pin is slidable along the guide rail groove ; and a sliding direction of the pivotal pin is the same as an axial direction of the casing . the pivotal pin is accommodated in a guide rail groove ; the pivotal pin is slidable along the guide rail groove ; and a sliding direction of the pivotal pin is the same as an axial direction of the casing .
A device comprising: a plurality of substrates comprising one or more troughs, wherein the plurality of substrates are disposed such that the one or more troughs form at least one enclosure ; and at least one superconducting layer covering at least a portion of the at least one enclosure , wherein the at least one enclosure is configured to form at least one three-dimensional cavity resonator such that electromagnetic radiation at one or more frequencies resonates within the at least one three-dimensional cavity resonator. a plurality of substrates comprising one or more troughs, wherein the plurality of substrates are disposed such that the one or more troughs form at least one enclosure ; and at least one superconducting layer covering at least a portion of the at least one enclosure , wherein the at least one enclosure is configured to form at least one three-dimensional cavity resonator such that electromagnetic radiation at one or more frequencies resonates within the at least one three-dimensional cavity resonator.
A process for producing a polyester resin composition comprising at least one polyester matrix resin and a second barrier resin comprising the steps of: polymerizing a dicarboxylic acid and at least one diol without solid state polymerization to obtain the polyester matrix resin having an intrinsic viscosity of from 0.7 to 0.9; mixing the second barrier resin with the molten polyester matrix resin obtained thus above to form a polyester resin composition; and cooling the polyester resin composition to carry out solidification of the polyester resin composition, wherein the process further comprises the step of mixing a second barrier/ filler master batch with the molten polyester matrix resin obtained thus above to form a polyester resin composition, the dicarboxylic acid comprising units of isophthalic acid in an amount of 5 to 30 mol% based on the total number of moles of all of the dicarboxylic acid monomer units, the intrinsic viscosity is measured at 30°C in a mixed solvent of 60% phenol and 40% 1,1,2,2-tetrachloroethane wherein % is wt % based on the total weight of phenol and 1,1,2,2-tetrachloroethane, and wherein the second barrier resin comprises reacted units of meta-xylene diamine, adipic acid, and isophthalic acid. polymerizing a dicarboxylic acid and at least one diol without solid state polymerization to obtain the polyester matrix resin having an intrinsic viscosity of from 0.7 to 0.9; mixing the second barrier resin with the molten polyester matrix resin obtained thus above to form a polyester resin composition; and cooling the polyester resin composition to carry out solidification of the polyester resin composition, wherein the process further comprises the step of mixing a second barrier/ filler master batch with the molten polyester matrix resin obtained thus above to form a polyester resin composition, the dicarboxylic acid comprising units of isophthalic acid in an amount of 5 to 30 mol% based on the total number of moles of all of the dicarboxylic acid monomer units, the intrinsic viscosity is measured at 30°C in a mixed solvent of 60% phenol and 40% 1,1,2,2-tetrachloroethane wherein % is wt % based on the total weight of phenol and 1,1,2,2-tetrachloroethane, and wherein the second barrier resin comprises reacted units of meta-xylene diamine, adipic acid, and isophthalic acid.
A method performed by a communications controller, the method comprising: • assigning (step 600), to each user equipment, UE, of a plurality of UEs one or more code domain elements, CDE, separated in the code domain, the one or more CDEs being associated with resources of a transmission zone, the plurality of UEs being served by the communications controller and operating in the transmission zone and having a transmission available; and • transmitting (step 700) downlink data to the UEs, wherein the transmission of the downlink data is performed with a power offset between the CDEs, such that a blind mechanism can be used by the UE to determine a power offset pattern for blind detection purposes, without utilizing dynamic control signaling of the assigned CDEs. • assigning (step 600), to each user equipment, UE, of a plurality of UEs one or more code domain elements, CDE, separated in the code domain, the one or more CDEs being associated with resources of a transmission zone, the plurality of UEs being served by the communications controller and operating in the transmission zone and having a transmission available; and • transmitting (step 700) downlink data to the UEs, wherein the transmission of the downlink data is performed with a power offset between the CDEs, such that a blind mechanism can be used by the UE to determine a power offset pattern for blind detection purposes, without utilizing dynamic control signaling of the assigned CDEs.
A pressure sensing device, comprising: a first and second sensing elements that comprise one or more piezoresistive materials; and a sensing circuit; wherein the first sensing element is elongate and has a first gradient along a longitudinal axis of the first sensing element; wherein the second sensing element is elongate and has a second gradient along a longitudinal axis of the second sensing element; wherein the second gradient is anti-parallel to the first gradient; wherein at least one of the first and second gradients is selected out of a thickness gradient, a width gradient, a concentration gradient, a resistance gradient, a sensitivity to strain, and a capping layer thickness gradient; wherein the sensing circuit is coupled to the first and second sensing elements, wherein the sensing circuit is arranged to sense at least one out of resistance and conductance of at the first and second sensing elements to determine a location of an event, within an extent of the first and second sensing elements, and a magnitude of a load of the event, the event involves applying pressure on the first and second sensing elements. a first and second sensing elements that comprise one or more piezoresistive materials; and a sensing circuit; wherein the first sensing element is elongate and has a first gradient along a longitudinal axis of the first sensing element; wherein the second sensing element is elongate and has a second gradient along a longitudinal axis of the second sensing element; wherein the second gradient is anti-parallel to the first gradient; wherein at least one of the first and second gradients is selected out of a thickness gradient, a width gradient, a concentration gradient, a resistance gradient, a sensitivity to strain, and a capping layer thickness gradient; wherein the sensing circuit is coupled to the first and second sensing elements, wherein the sensing circuit is arranged to sense at least one out of resistance and conductance of at the first and second sensing elements to determine a location of an event, within an extent of the first and second sensing elements, and a magnitude of a load of the event, the event involves applying pressure on the first and second sensing elements.