mhurhangee/ep-ind-claims huggingface dataset:
A method for characterising a wireless communications link between a transmitter and a receiver, comprising: obtaining first data contained in a signal transmitted from the transmitter to the receiver, the first data including a position of the transmitter; obtaining second data including a position of a receiver; obtaining a determination of transmitted power (P T) at an output of the transmitter; obtaining a determination of received power (P R) at an input to the receiver, generating at least one non line-of-sight metric (λ 1,..., λ n) to characterise the wireless link between the transmitter and the receiver based on the position of the receiver, the position of the transmitter, the transmitted power and the received power; and outputting the non line-of-sight metric to characterise the wireless communications link; wherein at least one of the transmitter and the receiver is mobile. obtaining first data contained in a signal transmitted from the transmitter to the receiver, the first data including a position of the transmitter; obtaining second data including a position of a receiver; obtaining a determination of transmitted power (P T) at an output of the transmitter; obtaining a determination of received power (P R) at an input to the receiver, generating at least one non line-of-sight metric (λ 1,..., λ n) to characterise the wireless link between the transmitter and the receiver based on the position of the receiver, the position of the transmitter, the transmitted power and the received power; and outputting the non line-of-sight metric to characterise the wireless communications link; wherein at least one of the transmitter and the receiver is mobile.
An aircraft flight planning system comprising a processor and memory configured to: identify a decision point along a route of the aircraft when the aircraft is no longer in range of a predefined alternate landing facility; use the decision point and an anticipated range of the aircraft at the decision point to define an ellipse having an elliptical area substantially forward of the decision point and substantially along the route, the decision point being at a vertex of a major axis of the elliptical area, the major axis having a length based on the anticipated range; define areas inside the ellipse; and select one landing facility from a plurality of candidate landing facilities as one alternative destination, wherein the selection is made based on the locations of the plurality of candidate landing facilities relative to the defined ellipse such that: the candidate landing facilities that are inside the ellipse are preferred over those outside the ellipse; and the candidate landing facilities that are inside the ellipse are prioritized based on the area inside the ellipse in which each respective candidate landing facility is located, wherein the areas inside the ellipse are prioritized based on distance from the decision point. identify a decision point along a route of the aircraft when the aircraft is no longer in range of a predefined alternate landing facility; use the decision point and an anticipated range of the aircraft at the decision point to define an ellipse having an elliptical area substantially forward of the decision point and substantially along the route, the decision point being at a vertex of a major axis of the elliptical area, the major axis having a length based on the anticipated range; define areas inside the ellipse; and select one landing facility from a plurality of candidate landing facilities as one alternative destination, wherein the selection is made based on the locations of the plurality of candidate landing facilities relative to the defined ellipse such that: the candidate landing facilities that are inside the ellipse are preferred over those outside the ellipse; and the candidate landing facilities that are inside the ellipse are prioritized based on the area inside the ellipse in which each respective candidate landing facility is located, wherein the areas inside the ellipse are prioritized based on distance from the decision point. the candidate landing facilities that are inside the ellipse are preferred over those outside the ellipse; and the candidate landing facilities that are inside the ellipse are prioritized based on the area inside the ellipse in which each respective candidate landing facility is located, wherein the areas inside the ellipse are prioritized based on distance from the decision point.
A belt device comprising: a belt member that is supported by a plurality of rollers (11, 12A to 12C, 13) and is configured to move in a predetermined moving direction, wherein the plurality of rollers includes a correction roller, wherein the correction roller comprises a first shaft portion and a second shaft portion; a frame; a detecting unit that is configured to detect a displacement of the belt member in its width direction; characterized in that the first shaft portion is fixed and the second shaft portion is configured to be movable in a forward direction and a backward direction, wherein a correcting unit that is configured to move the second shaft portion of the correction roller from among the rollers in either one of the forward direction and the backward direction while fixing its first shaft portion based on a result of detecting the displacement of the belt member by the detecting unit such that a tilt of a rotating shaft of the first roller is changed to correct a meandering of the belt member; wherein an adjusting unit is configured to adjust a fixing position of the fixed first shaft portion of the correction roller; wherein the adjusting unit includes an adjusting member that supports the first shaft portion and has a long hole, and a screw that is screwed to the frame via the long hole; and wherein a position of the fixed first shaft portion of the correction roller is adjusted by loosening the screw and moving the adjusting member relative to the frame, and the position of the fixed first shaft portion of the correction roller is fixed by tightening the screw. a belt member that is supported by a plurality of rollers (11, 12A to 12C, 13) and is configured to move in a predetermined moving direction, wherein the plurality of rollers includes a correction roller, wherein the correction roller comprises a first shaft portion and a second shaft portion; a frame; a detecting unit that is configured to detect a displacement of the belt member in its width direction; characterized in that the first shaft portion is fixed and the second shaft portion is configured to be movable in a forward direction and a backward direction, wherein a correcting unit that is configured to move the second shaft portion of the correction roller from among the rollers in either one of the forward direction and the backward direction while fixing its first shaft portion based on a result of detecting the displacement of the belt member by the detecting unit such that a tilt of a rotating shaft of the first roller is changed to correct a meandering of the belt member; wherein an adjusting unit is configured to adjust a fixing position of the fixed first shaft portion of the correction roller; wherein the adjusting unit includes an adjusting member that supports the first shaft portion and has a long hole, and a screw that is screwed to the frame via the long hole; and wherein a position of the fixed first shaft portion of the correction roller is adjusted by loosening the screw and moving the adjusting member relative to the frame, and the position of the fixed first shaft portion of the correction roller is fixed by tightening the screw.
An ingestible electronic sensor device, comprising: a sensor configured to receive a sensor stimulus inside the gastrointestinal tract of an animal, wherein the sensor is configured to output a signal having a characteristic proportional to the received sensor stimulus; a communications module configured to transmit an acoustic signal modulated with the sensor output signal, the acoustic signal having a frequency in the range of 20 Hz to 16 KHz; and a housing configured to have a size that is ingestible, wherein the housing substantially encloses the sensor and communications module. a sensor configured to receive a sensor stimulus inside the gastrointestinal tract of an animal, wherein the sensor is configured to output a signal having a characteristic proportional to the received sensor stimulus; a communications module configured to transmit an acoustic signal modulated with the sensor output signal, the acoustic signal having a frequency in the range of 20 Hz to 16 KHz; and a housing configured to have a size that is ingestible, wherein the housing substantially encloses the sensor and communications module.
A puncture tool guiding device for guiding a puncture tool to form a pilot hole through which a pedicle screw is buried in a pedicle, the puncture tool guiding device comprising: a linear reference pin that is disposed forward from a rear side of a spine toward a target point of a pedicle base and serves as a reference, a tubular sleeve having a sleeve central axis disposed at a predetermined insertion angle to the reference pin, and having a distal end that is open toward the target point and through which the puncture tool is passed and guided, and a rod member that couples a proximal side of the reference pin to the sleeve and maintains the sleeve central axis at the predetermined insertion angle to the reference pin, characterised in that slit (6, 7, 8) for confirming, by an X-ray fluoroscopic image, whether or not the puncture tool guiding device is installed accurately on the pedicle is formed in a side surface of the sleeve, and the slit is formed such that a cutting direction of the slit is orthogonal to the reference pin. a linear reference pin that is disposed forward from a rear side of a spine toward a target point of a pedicle base and serves as a reference, a tubular sleeve having a sleeve central axis disposed at a predetermined insertion angle to the reference pin, and having a distal end that is open toward the target point and through which the puncture tool is passed and guided, and a rod member that couples a proximal side of the reference pin to the sleeve and maintains the sleeve central axis at the predetermined insertion angle to the reference pin, characterised in that slit (6, 7, 8) for confirming, by an X-ray fluoroscopic image, whether or not the puncture tool guiding device is installed accurately on the pedicle is formed in a side surface of the sleeve, and the slit is formed such that a cutting direction of the slit is orthogonal to the reference pin.
A method for building a time-sliced and multi-threaded architecture comprising resources of individual computation components time-shared across multiple computation processes in a spread spectrum system, comprising the steps of: (a) analyzing a set of spread spectrum applications, said analyzing including the steps of: (i) extracting real time aspects including input data rates and output data rates for each application in said set of applications, said extracting including profiling fundamental processing elements in each application in said set of applications; (ii) determining an optimal granularity based on said real time aspects; and (iii) adjusting said optimal granularity based on a context switching overhead; and (b) building a specific time-sliced and multi-threaded architecture capable of supporting said range of applications based on said analyzing, wherein said building includes the steps of: determining a size for a data cache based on said extracting; implementing a hierarchical caching structure in said data cache; and applying said data cache in said specific time-sliced architecture. (a) analyzing a set of spread spectrum applications, said analyzing including the steps of: (i) extracting real time aspects including input data rates and output data rates for each application in said set of applications, said extracting including profiling fundamental processing elements in each application in said set of applications; (ii) determining an optimal granularity based on said real time aspects; and (iii) adjusting said optimal granularity based on a context switching overhead; and (i) extracting real time aspects including input data rates and output data rates for each application in said set of applications, said extracting including profiling fundamental processing elements in each application in said set of applications; (ii) determining an optimal granularity based on said real time aspects; and (iii) adjusting said optimal granularity based on a context switching overhead; and (b) building a specific time-sliced and multi-threaded architecture capable of supporting said range of applications based on said analyzing, wherein said building includes the steps of: determining a size for a data cache based on said extracting; implementing a hierarchical caching structure in said data cache; and applying said data cache in said specific time-sliced architecture. determining a size for a data cache based on said extracting; implementing a hierarchical caching structure in said data cache; and applying said data cache in said specific time-sliced architecture.
A napped artificial leather dyed with a cationic dye, the napped artificial leather obtained by dyeing, with a cationic dye, a napped artificial leather base material including a non-woven fabric of ultrafine fibers of 0.07 to 0.9 dtex of a cationic dyeable polyester and an elastic polymer provided inside the non-woven fabric, and having a napped surface at least on one surface thereof, wherein the cationic dyeable polyester contains a dicarboxylic acid unit composed mainly of a terephthalic acid unit and containing 1.5 to 3 mol% of a unit represented by the following formula (I b): [in the formula (I b), X represents a quaternary phosphonium ion or a quaternary ammonium ion], and a glycol unit composed mainly of an ethylene glycol unit, and the napped artificial leather has a lightness L* value ≤ 50 and has a chlorine content of 90 ppm or less, wherein the lightness L* value is determined as described in the specification.
A high-strength hot-rolled steel sheet comprising a chemical composition consisting of, in mass%, C: 0.06 % or more and 0.1 % or less, Si: 0.09 % or less, Mn: 0.7 % or more and 1.3 % or less, P: 0.03 % or less, S: 0.01 % or less, Al: 0.1 % or less, N: 0.01 % or less, Ti: 0.14 % or more and 0.20 % or less, V: 0.07 % or more and 0.14 % or less, optionally Nb: 0.01 % or more and 0.05 % or less, optionally at least one of Mo: 0.05 % or less, W: 0.05 % or less, Zr: 0.05 % or less, and Hf: 0.05 % or less, optionally at least one of O (oxygen), Se, Te, Po, As, Bi, Ge, Pb, Ga, In, Tl, Zn, Cd, Hg, Ag, Au, Pd, Pt, Co, Rh, Ir, Ru, Os, Tc, Re, Ta, Be, Sr, REM, B, Ni, Cr, Sb, Cu, Sn, Mg, and Ca, in a total amount of 0.2 % or less, and the balance being Fe and incidental impurities, wherein the steel sheet has microstructures such that an area ratio of ferrite phase is 95 % or more, an average grain size of the ferrite phase is 8 μm or less, and carbides in grains of the ferrite phase have an average particle size of less than 10 nm, and wherein the steel sheet has a tensile strength of 980 MPa or more.
An image projection device comprising: a light source that emits a laser beam; a scanning unit that two-dimensionally scans the laser beam emitted from the light source; and a projection mirror that has a free curved surface and projects scanned light onto a retina of an eyeball of a user to project an image onto the retina, the scanned light being composed of the laser beam that has been scanned by the scanning unit, wherein the scanned light enters the projection mirror from a side of the eyeball of the user, the projection mirror being located in front of the eyeball of the user, and the image projection device further comprises a controller that generates corrected image data by gradually decreasing height of an image of input image data from a first vertical side to a second vertical side opposite to the first vertical side, and by curving the image of input data towards the first vertical side from the first vertical side of the image to the second vertical side of the image, a curvature of said curving gradually increasing from the first vertical side of the image to the second vertical side of the image, and controls the light source to emit the laser beam based on the corrected image data, the first vertical side being one of a pair of vertical sides corresponding to a vertical direction of the projection mirror, the first vertical side corresponding to a side at which the scanned light enters the projection mirror. a light source that emits a laser beam; a scanning unit that two-dimensionally scans the laser beam emitted from the light source; and a projection mirror that has a free curved surface and projects scanned light onto a retina of an eyeball of a user to project an image onto the retina, the scanned light being composed of the laser beam that has been scanned by the scanning unit, wherein the scanned light enters the projection mirror from a side of the eyeball of the user, the projection mirror being located in front of the eyeball of the user, and the image projection device further comprises a controller that generates corrected image data by gradually decreasing height of an image of input image data from a first vertical side to a second vertical side opposite to the first vertical side, and by curving the image of input data towards the first vertical side from the first vertical side of the image to the second vertical side of the image, a curvature of said curving gradually increasing from the first vertical side of the image to the second vertical side of the image, and controls the light source to emit the laser beam based on the corrected image data, the first vertical side being one of a pair of vertical sides corresponding to a vertical direction of the projection mirror, the first vertical side corresponding to a side at which the scanned light enters the projection mirror.
An attachment for a warming dish for forming a device for glazing pastries, said warming dish comprising a glazing container open to the top and said attachment comprising a conveyor belt, a holding device, with which the attachment is held onto the warming dish, and at least one motor, which drives the conveyor belt, characterized in that the attachment comprises a pump and a rising pipe having an outlet, said outlet being connected to the pump and said rising pipe being arranged at the lower side of the attachment such that the rising pipe of the attachment arranged on the warming dish reaches into the glazing container and a pourable mass being able to be conveyed from the glazing container via the rising pipe and the outlet using the pump, said attachment being designed such that the conveyor belt is at least partially arranged horizontally above the glazing container and the outlet is arranged above the conveyor belt so that a pourable mass, which is contained in the glazing container, can be applied to baked goods, which are arranged on the running conveyor belt, via the rising pipe when the attachment is arranged on the warming dish by means of the holding device.
A rotor for wind power generation comprising: a vertically oriented rotating shaft; a plurality of main blades are equidistantly spaced apart from one another wherein the main blades each having an outer surface facing radially outward of the rotating shaft and an inner surface facing the rotating shaft, wherein each of the main blades have a streamline cross section, wherein any one of the inner surface and the outer surface of the main blade is inwardly curved toward the center of the main blade; and at least one auxiliary blade coupled to each of the main blades, the auxiliary blade being configured to be bent according to the direction of wind, characterized in that the auxiliary blade is coupled to a distal end of the main blade so as to extend from the main blade,wherein the main blade has a boss insertion recess formed at the distal end thereof, and the auxiliary blade has an insertion boss formed at a distal end thereof, such that the main blade and the auxiliary blade are coupled to each other as the insertion boss is inserted into the boss insertion recess. a vertically oriented rotating shaft; a plurality of main blades are equidistantly spaced apart from one another wherein the main blades each having an outer surface facing radially outward of the rotating shaft and an inner surface facing the rotating shaft, wherein each of the main blades have a streamline cross section, wherein any one of the inner surface and the outer surface of the main blade is inwardly curved toward the center of the main blade; and at least one auxiliary blade coupled to each of the main blades, the auxiliary blade being configured to be bent according to the direction of wind,
A computer-implemented method for designing a 3D modeled object representing a real object, comprising the steps of: • providing a 3D representation of the real object, wherein the 3D representation is a discrete representation consisting of a discrete aggregation of geometrical components that locally represent the geometry of the real object as an outer surface and/or as a solid, or wherein the 3D representation is a parametric representation consisting of a parametric function that outputs the geometry of the real object for parameter values chosen in a predetermined domain, • identifying, by fully automatic detection, occurrences of a geometric feature at 3D positions of the 3D representation, the geometric feature occurring and being detected each time a 3D curvature of the 3D representation is above a predetermined threshold, • providing at least one 2D view of the real object, wherein the 2D view is an image of the real object, • identifying, by fully automatic detection, occurrences of a graphic feature at 2D positions of the 2D view, the geometric feature corresponding to the graphic feature, the graphic feature relating to a pixel gradient of the 2D view, • computing camera parameters, including a projection matrix which describes projection from the 3D representation to the 2D view, that minimize a distance between a set of projections of the 3D positions of the geometric feature on the 2D view and a set of the 2D positions of the graphic feature, wherein the distance is a predetermined distance between two general sets of 2D points. • providing a 3D representation of the real object, wherein the 3D representation is a discrete representation consisting of a discrete aggregation of geometrical components that locally represent the geometry of the real object as an outer surface and/or as a solid, or wherein the 3D representation is a parametric representation consisting of a parametric function that outputs the geometry of the real object for parameter values chosen in a predetermined domain, • identifying, by fully automatic detection, occurrences of a geometric feature at 3D positions of the 3D representation, the geometric feature occurring and being detected each time a 3D curvature of the 3D representation is above a predetermined threshold, • providing at least one 2D view of the real object, wherein the 2D view is an image of the real object, • identifying, by fully automatic detection, occurrences of a graphic feature at 2D positions of the 2D view, the geometric feature corresponding to the graphic feature, the graphic feature relating to a pixel gradient of the 2D view, • computing camera parameters, including a projection matrix which describes projection from the 3D representation to the 2D view, that minimize a distance between a set of projections of the 3D positions of the geometric feature on the 2D view and a set of the 2D positions of the graphic feature, wherein the distance is a predetermined distance between two general sets of 2D points.