mhurhangee/ep-ind-claims huggingface dataset:
A method for generating an ambiguity-resolved, refraction-corrected, and minimum-noise carrier-phase measurement (step 210), comprising: forming a first wide-lane ambiguity-resolved, refraction-corrected composite carrier-phase measurement using primary carrier-phase measurements on three carrier frequencies (step 220); forming a second minimum-noise, refraction-corrected composite carrier-phase measurement using the primary carrier-phase measurements (step 230), wherein the second composite carrier-phase measurement includes an unresolved whole-cycle ambiguity; and smoothing the first composite carrier-phase measurement with the second composite carrier-phase measurement (step 240); characterized in that the whole-cycle ambiguity is resolved by: estimating a refraction-corrected wavelength for the second composite measurement; determining a smoothed offset value between the first and second composite measurement; dividing the smoothed offset value by the refraction-corrected wavelength; and rounding the dividing result to a nearest integer to produce a resolved value of the whole-cycle ambiguity of the second composite measurement. forming a first wide-lane ambiguity-resolved, refraction-corrected composite carrier-phase measurement using primary carrier-phase measurements on three carrier frequencies (step 220); forming a second minimum-noise, refraction-corrected composite carrier-phase measurement using the primary carrier-phase measurements (step 230), wherein the second composite carrier-phase measurement includes an unresolved whole-cycle ambiguity; and smoothing the first composite carrier-phase measurement with the second composite carrier-phase measurement (step 240); characterized in that the whole-cycle ambiguity is resolved by: estimating a refraction-corrected wavelength for the second composite measurement; determining a smoothed offset value between the first and second composite measurement; dividing the smoothed offset value by the refraction-corrected wavelength; and rounding the dividing result to a nearest integer to produce a resolved value of the whole-cycle ambiguity of the second composite measurement. estimating a refraction-corrected wavelength for the second composite measurement; determining a smoothed offset value between the first and second composite measurement; dividing the smoothed offset value by the refraction-corrected wavelength; and rounding the dividing result to a nearest integer to produce a resolved value of the whole-cycle ambiguity of the second composite measurement.
An image display device comprising: an image-light projection device configured to project an image light to a light transmission member to display speed information of a mobile object in a prescribed display area that is visually recognized by a driver of the mobile object via the light transmission member; and a display controller configured to control the image-light projection device, wherein the display controller is configured to control the image-light projection device to display a plurality of items of passive information above the speed information in the prescribed display area and such that the plurality of items of passive information to be handled later by the driver are displayed in an operational sequence on an upper side of the prescribed display area. an image-light projection device configured to project an image light to a light transmission member to display speed information of a mobile object in a prescribed display area that is visually recognized by a driver of the mobile object via the light transmission member; and a display controller configured to control the image-light projection device, wherein the display controller is configured to control the image-light projection device to display a plurality of items of passive information above the speed information in the prescribed display area and such that the plurality of items of passive information to be handled later by the driver are displayed in an operational sequence on an upper side of the prescribed display area.
A polydixylitol polymer-based gene transporter (PdXYP) represented by the following Formula 1. wherein the PdXYP is capable of transmigrating the blood brain barrier, wherein the PdXYP is further conjugated to vitamin B6 and represented by the following Formula 4.
A combustor for a gas turbine engine, the combustor comprising a central axis about which is arranged in flow sequence a radial swirler, a pre-chamber partly defined by a wall and a combustion chamber, wherein the radial swirler comprises a base plate having an annular array of vanes and main fuel injectors (48A, 48B) and pilot fuel injectors arranged to direct an air/fuel mixture radially inwardly and tangentially to create a vortex that flows through the pre-chamber and into the combustion chamber, wherein the base plate has a pilot surface which faces the pre-chamber and bounds the pre-chamber's upstream axial extent, and wherein the pre-chamber has a portion (R1, R2, P2) which is convergent in a downstream direction, characterised in that the combustor is configured for a fuel comprising a mixture having a hydrogen content of at least 5% by volume and the pre-chamber has an inlet area and an outlet area and the ratio of A1 / A2 is between 1.45 and 1.70.
A personal hygiene device comprising a handle intended for being grasped by a user; a treatment head intended for being pressed against a body portion of a user; wherein the treatment head is pivotably connected with the handle so that applying a treatment force against the treatment head at least along a treatment direction leads to a pivoting of the treatment head relative to the handle around a pivot axis; a sensor for measuring a measurement variable, fixedly secured with respect to one of the handle and the treatment head; a sensor cooperation unit for defining or influencing the measurement variable in dependence on the relative position of the sensor and the sensor cooperation unit, fixedly secured with respect to the other one of the handle and the treatment head; wherein a spring unit defines a rest position of the treatment head when no treatment force is applied on the treatment head and the spring unit comprises at least a first rod-like spring element that extends along a longitudinal extension direction of the handle; wherein the at least first rod-like spring element extends between a support structure disposed within the handle and the handle, which support structure is connected with the treatment head so that the support structure pivots around the pivot axis together with the treatment head, in particular where the support structure is a motor carrier; and further wherein the first rod-like spring element has a free length of at least about 15 mm and the first rod-like spring element has a height in the range of between 0.6 mm to 1.0 mm and a width in the range of between 1.0 mm and 2.0 mm.
A method of operating a universal serial bus, USB, device on a network, the method comprising: receiving one or more USB frames from a host device via the network, wherein the one or more USB frames are encapsulated in one or more data packets based on a communications protocol associated with network; characterised by synchronizing a local clock signal of the USB device with a clock signal of the host device using a clock synchronization mechanism of the communications protocol; determining a number of USB frames transmitted by the host device based, at least in part, on the synchronized local clock signal; and processing the one or more USB frames based, at least in part, on the number of USB frames transmitted by the host device. receiving one or more USB frames from a host device via the network, wherein the one or more USB frames are encapsulated in one or more data packets based on a communications protocol associated with network; characterised by synchronizing a local clock signal of the USB device with a clock signal of the host device using a clock synchronization mechanism of the communications protocol; determining a number of USB frames transmitted by the host device based, at least in part, on the synchronized local clock signal; and processing the one or more USB frames based, at least in part, on the number of USB frames transmitted by the host device.
An alternator assembly comprising: a housing; an alternator disposed in the housing, the alternator comprising a stator surrounding a rotor; a shaft extending from the rotor; and an impeller comprising: an annular hub disposed about a hub axis and mounted to the shaft; and a plurality of blades (122A-122H) extending from the hub; wherein the housing has a plurality of inlet openings (128A-128D) extending through the housing; and the plurality of blades have curved leading edge and trailing edge surfaces, and wherein the plurality of blades are spaced around the annular hub so that only a single blade is substantially in line of sight with an inlet opening at a time, for each of the plurality of inlet openings, and characterised in that each blade has a curvature so as to be substantially perpendicular to one of the inlet openings when that blade is in line of sight of that inlet opening. a housing; an alternator disposed in the housing, the alternator comprising a stator surrounding a rotor; a shaft extending from the rotor; and an impeller comprising: an annular hub disposed about a hub axis and mounted to the shaft; and a plurality of blades (122A-122H) extending from the hub; wherein the housing has a plurality of inlet openings (128A-128D) extending through the housing; and the plurality of blades have curved leading edge and trailing edge surfaces, and wherein the plurality of blades are spaced around the annular hub so that only a single blade is substantially in line of sight with an inlet opening at a time, for each of the plurality of inlet openings, and characterised in that each blade has a curvature so as to be substantially perpendicular to one of the inlet openings when that blade is in line of sight of that inlet opening. an annular hub disposed about a hub axis and mounted to the shaft; and a plurality of blades (122A-122H) extending from the hub; wherein the housing has a plurality of inlet openings (128A-128D) extending through the housing; and the plurality of blades have curved leading edge and trailing edge surfaces, and wherein the plurality of blades are spaced around the annular hub so that only a single blade is substantially in line of sight with an inlet opening at a time, for each of the plurality of inlet openings, and characterised in that each blade has a curvature so as to be substantially perpendicular to one of the inlet openings when that blade is in line of sight of that inlet opening.
A method for producing a reinforced fibre composite component with at least one supporting element which is braided with a sheathing comprising a fibre structure, having the following steps: a. providing the supporting element, wherein the supporting element is designed as a supporting core, b. arranging at least one reinforcing layer on an outer surface of the supporting element, wherein the reinforcing layer is locally configured as a patch and the arranging of the at least one reinforcing layer takes place by flat laying, gluing or affixing on the outer surface, c. producing the common sheathing of the supporting element and of the reinforcing layer by means of braiding with continuous filaments, wherein the at least local reinforcing layer is arranged between the supporting element and the sheathing, and d. impregnating the braided supporting element with a matrix. a. providing the supporting element, wherein the supporting element is designed as a supporting core, b. arranging at least one reinforcing layer on an outer surface of the supporting element, wherein the reinforcing layer is locally configured as a patch and the arranging of the at least one reinforcing layer takes place by flat laying, gluing or affixing on the outer surface, c. producing the common sheathing of the supporting element and of the reinforcing layer by means of braiding with continuous filaments, wherein the at least local reinforcing layer is arranged between the supporting element and the sheathing, and d. impregnating the braided supporting element with a matrix.
A method of controlling an electric supercharger comprising a motor, when changing the speed of the motor from an actual speed to a target speed, the method comprising the steps of repeatedly: (i) determining the magnitude of a torque input required to change the speed of the motor from the actual speed towards the target speed, (ii) imposing a torque cap on the torque input required, thereby establishing a torque set point, and (iii) supplying electrical current to the motor dependent on said torque set point; characterised in that the torque cap is based on a torque cap behaviour selected from a plurality of different torque cap behaviours, wherein for each torque cap behaviour: the magnitude of the torque cap varies as a function of the speed of the motor, and the variation in magnitude of the torque cap is predetermined such that the current drawn by the motor is kept at a respective threshold, and wherein the method comprises the further steps of: receiving an input from an engine management system, and selecting the torque cap behaviour from the plurality of torque cap behaviours based on the input from the engine management system. (i) determining the magnitude of a torque input required to change the speed of the motor from the actual speed towards the target speed, (ii) imposing a torque cap on the torque input required, thereby establishing a torque set point, and (iii) supplying electrical current to the motor dependent on said torque set point; receiving an input from an engine management system, and selecting the torque cap behaviour from the plurality of torque cap behaviours based on the input from the engine management system.
A method for manufacturing a high-strength hot-rolled plated steel sheet, comprising: (a) reheating a slab, comprising 0.03-0.1wt% of carbon, below 0.06wt% of silicon (Si), 0.7-2.0wt% of manganese (Mn), below 0.02wt% of phosphorous, below 0.01wt% of sulfur, 0.1-0.5wt% of one or more precipitate forming elements, 0.3-1.0wt% of aluminum (Al), 0.1-0.5wt% of molybdenum (Mo), balance Fe and unavoidable impurities; (b) hot-rolling the slab; (c) cooling the hot-rolled slab, and then winding the cooled slab; and (d) plating the wound slab, wherein the precipitate forming element is one or more selected from the group consisting of 0.03-0.1wt% of niobium (Nb), 0.03-0.1wt% of titanium (Ti), and 0.08-0.3wt% of vanadium, wherein the step of hot rolling the slab comprises roughing rolling the reheated slab at 950 to 1,050°C and finishing rolling the roughing-rolled slab at a finishing temperature condition of 800 to 900°C, wherein the step of cooling the hot-rolled slab, and the winding the cooled slab comprises cooling the hot-rolled slab at an average cooling speed of 100°C/sec or more, and then winding the cooled slab at 580 to 660°C, and wherein a hot-rolled steel sheet base material of the hot-rolled plated steel sheet has a microstructure which is composed of a ferrite single-phase structure and in which fine precipitates having a size of less than 10nm are formed. (a) reheating a slab, comprising 0.03-0.1wt% of carbon, below 0.06wt% of silicon (Si), 0.7-2.0wt% of manganese (Mn), below 0.02wt% of phosphorous, below 0.01wt% of sulfur, 0.1-0.5wt% of one or more precipitate forming elements, 0.3-1.0wt% of aluminum (Al), 0.1-0.5wt% of molybdenum (Mo), balance Fe and unavoidable impurities; (b) hot-rolling the slab; (c) cooling the hot-rolled slab, and then winding the cooled slab; and (d) plating the wound slab,
A separator device for separating a fluid, in particular a lubricant from a coolant fluid, comprising - a separating cylinder (6, 60) with an inlet area having at least one inlet (4, 40) for the coolant fluid and an outlet area spaced apart from the latter in an axial direction for the separated fluid, - a separating tube arranged coaxially in the separating cylinder (6, 60), which extends at least over the inlet area of the separating cylinder (6, 60) in such a way that the separating tube is spaced apart from the separating cylinder (6, 60) in a radial direction in the inlet area, and - a spring-loaded closure element (8, 80) arranged in the inlet area, which is designed to self-regulate the flow rate of the volume flow of coolant fluid flowing through the at least one inlet (4, 40), characterized in that the spring-loaded closure element (8, 80) is designed as a curved leaf spring (11, 110), wherein the leaf spring (11, 110) has a curvature radius that is smaller than half the inner diameter of the separating cylinder (6, 60). - a separating cylinder (6, 60) with an inlet area having at least one inlet (4, 40) for the coolant fluid and an outlet area spaced apart from the latter in an axial direction for the separated fluid, - a separating tube arranged coaxially in the separating cylinder (6, 60), which extends at least over the inlet area of the separating cylinder (6, 60) in such a way that the separating tube is spaced apart from the separating cylinder (6, 60) in a radial direction in the inlet area, and - a spring-loaded closure element (8, 80) arranged in the inlet area, which is designed to self-regulate the flow rate of the volume flow of coolant fluid flowing through the at least one inlet (4, 40), characterized in that the spring-loaded closure element (8, 80) is designed as a curved leaf spring (11, 110), wherein the leaf spring (11, 110) has a curvature radius that is smaller than half the inner diameter of the separating cylinder (6, 60).
A kit for amplifying and detecting a Chikungunya virus (CHIKV) nucleic acid sequence, comprising: (a) a first primer up to 100 bases long and comprising a target-complementary 3' terminal sequence consisting of 15-43 contiguous bases of SEQ ID NO:35, the target-complementary 3' terminal sequence of the first primer being fully contained within the sequence of SEQ ID NO:35, and the first primer optionally comprising a first primer 5' sequence that is not complementary to CHIKV nucleic acids; (b) a second primer up to 100 bases long and comprising a target-complementary 3' terminal sequence consisting of 15-41 contiguous bases of SEQ ID NO:56, the target-complementary 3' terminal sequence of the second primer being fully contained within the sequence of SEQ ID NO:56, and the second primer optionally comprising a second primer 5' sequence that is not complementary to CHIKV nucleic acids; and (c) a hybridization probe for detecting a nucleic acid amplification product synthesized using the primers, wherein the primers and the hybridization probe are in packaged combination with each other. (a) a first primer up to 100 bases long and comprising a target-complementary 3' terminal sequence consisting of 15-43 contiguous bases of SEQ ID NO:35, the target-complementary 3' terminal sequence of the first primer being fully contained within the sequence of SEQ ID NO:35, and the first primer optionally comprising a first primer 5' sequence that is not complementary to CHIKV nucleic acids; (b) a second primer up to 100 bases long and comprising a target-complementary 3' terminal sequence consisting of 15-41 contiguous bases of SEQ ID NO:56, the target-complementary 3' terminal sequence of the second primer being fully contained within the sequence of SEQ ID NO:56, and the second primer optionally comprising a second primer 5' sequence that is not complementary to CHIKV nucleic acids; and (c) a hybridization probe for detecting a nucleic acid amplification product synthesized using the primers,
Umbrella or parasol system comprising a canopy, a first shaft, a second shaft, a grip, a first runner with a first stretcher, a second runner with a second stretcher and a plurality of ribs (6, 6'), wherein the umbrella or parasol system comprises a first opening spring arranged in the upper end part of the first shaft, opposite the first runner and fixed by a first articulated connection to the grip, arranged in the lower part of the first shaft, wherein said first articulated connection is arranged inside said first shaft, and a second opening spring arranged in the upper end part of the second shaft, opposite the second runner and fixed by a second articulated connection to the grip, arranged in the lower part of the second shaft, wherein said second articulated connection is arranged inside said second shaft, wherein the first and second shafts are designed to be parallel to one another, when the umbrella or parasol is in open position, when the umbrella or parasol is in closed position, and during opening and closing of the umbrella or parasol, wherein the first shaft and the second shaft are joined by an articulated connection to the grip, wherein the first articulated connection is designed to draw the first runner with the first stretcher down towards the grip and that the second articulated connection is designed to draw the second runner with the second stretcher down towards the grip for opening the plurality of ribs (6, 6'), and wherein the first opening spring is designed to press the first runner with the first stretcher down towards the grip and the second opening spring is designed to press the second runner with the second stretcher down towards the grip for opening the plurality of ribs (6, 6'), which raise the canopy in the opened state of the umbrella or parasol system.
A threshold seal apparatus for a doorway, the threshold seal apparatus comprising: a floor-mountable channel portion; a seal configured to be received within the channel portion; and an actuation mechanism operable to move the seal with respect to the channel portion between a retracted position and an extended position in which the seal is configured to contact the underside of a door mounted within the doorway, wherein the actuation mechanism comprises: a slide bar comprising an arm configured to be slideably mounted in the channel portion, the arm comprising a thumb portion (207, 1202) at one end, the thumb portion (207, 1202) configured to protrude substantially perpendicularly to a long axis of the arm from an end of the channel portion when the arm is in situ in the channel portion; and a first elongate leaf spring (209, 221), characterized in that the arm further comprises an elongate opening therethrough, wherein one end of the first leaf spring is mounted or affixed to the arm and the other end of the first leaf spring is mounted in the elongate opening. a floor-mountable channel portion; a seal configured to be received within the channel portion; and an actuation mechanism operable to move the seal with respect to the channel portion between a retracted position and an extended position in which the seal is configured to contact the underside of a door mounted within the doorway, wherein the actuation mechanism comprises: a slide bar comprising an arm configured to be slideably mounted in the channel portion, the arm comprising a thumb portion (207, 1202) at one end, the thumb portion (207, 1202) configured to protrude substantially perpendicularly to a long axis of the arm from an end of the channel portion when the arm is in situ in the channel portion; and a first elongate leaf spring (209, 221), characterized in that the arm further comprises an elongate opening therethrough, wherein one end of the first leaf spring is mounted or affixed to the arm and the other end of the first leaf spring is mounted in the elongate opening. a slide bar comprising an arm configured to be slideably mounted in the channel portion, the arm comprising a thumb portion (207, 1202) at one end, the thumb portion (207, 1202) configured to protrude substantially perpendicularly to a long axis of the arm from an end of the channel portion when the arm is in situ in the channel portion; and a first elongate leaf spring (209, 221), characterized in that the arm further comprises an elongate opening therethrough, wherein one end of the first leaf spring is mounted or affixed to the arm and the other end of the first leaf spring is mounted in the elongate opening.