mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: selecting, by one or more processors, a first image taken from a first location and a second image taken from a second location; determining, by the one or more processors, a position of the first location in relation to the second location, wherein the position is determined using location and pose information associated with the first and second images; selecting, by the one or more processors, a first frame on the first image and a second frame on the second image based on the position, wherein the first frame and the second frame are centered around a straight-line path between the first location and the second location; identifying, by the one or more processors, a first set of visual features of the first image in the first frame and a second set of visual feature of the second image in the second frame; determining, by the one or more processors, a number of matching visual features between the first set of visual features and the second set of visual features; determining, by the one or more processors, a confidence level for a line-of-sight between the first image and the second image by evaluating one or more positions of the matching visual features; and generating, by the one or more processors, based on at least the confidence level, a navigation path from the first image to the second image. selecting, by one or more processors, a first image taken from a first location and a second image taken from a second location; determining, by the one or more processors, a position of the first location in relation to the second location, wherein the position is determined using location and pose information associated with the first and second images; selecting, by the one or more processors, a first frame on the first image and a second frame on the second image based on the position, wherein the first frame and the second frame are centered around a straight-line path between the first location and the second location; identifying, by the one or more processors, a first set of visual features of the first image in the first frame and a second set of visual feature of the second image in the second frame; determining, by the one or more processors, a number of matching visual features between the first set of visual features and the second set of visual features; determining, by the one or more processors, a confidence level for a line-of-sight between the first image and the second image by evaluating one or more positions of the matching visual features; and generating, by the one or more processors, based on at least the confidence level, a navigation path from the first image to the second image.
An estimation system comprising: obtaining means (106; S100) configured to obtain brain wave measurement data and functional magnetic resonance imaging measurement data simultaneously measured from a subject, the brain wave measurement data including time waveforms for a plurality of channels corresponding to respective ones of a plurality of sensors arranged in a head of the subject; first calculation means (150, 152; S102, S104) configured to calculate first functional connectivity for each channel combination based on correlation between channels included in the brain wave measurement data; second calculation means (160, 162; S112, S114) configured to calculate second functional connectivity for each brain network based on correlation between regions of interest included in the functional magnetic resonance imaging measurement data; third calculation means (164, 168; S116, S118) configured to calculate a disorder-likelihood label by calculating a score representing disorder-likelihood to be estimated based on a plurality of second functional connectivities; and machine learning means (168; S120) configured to determine an estimation model for estimating the disorder-likelihood based on prescribed first functional connectivity by machine learning using the first functional connectivity for each channel combination and the disorder-likelihood label. obtaining means (106; S100) configured to obtain brain wave measurement data and functional magnetic resonance imaging measurement data simultaneously measured from a subject, the brain wave measurement data including time waveforms for a plurality of channels corresponding to respective ones of a plurality of sensors arranged in a head of the subject; first calculation means (150, 152; S102, S104) configured to calculate first functional connectivity for each channel combination based on correlation between channels included in the brain wave measurement data; second calculation means (160, 162; S112, S114) configured to calculate second functional connectivity for each brain network based on correlation between regions of interest included in the functional magnetic resonance imaging measurement data; third calculation means (164, 168; S116, S118) configured to calculate a disorder-likelihood label by calculating a score representing disorder-likelihood to be estimated based on a plurality of second functional connectivities; and machine learning means (168; S120) configured to determine an estimation model for estimating the disorder-likelihood based on prescribed first functional connectivity by machine learning using the first functional connectivity for each channel combination and the disorder-likelihood label.
Method to control a wind power installation, - while the wind power installation comprises a generator and a converter, - wherein the generator is operable to convert wind power into electrical power and to provide the electrical power to the converter, - wherein the converter is operable to adapt and to provide the electrical power to an electrical grid, - wherein the converter is operable to comply with pre-determined grid code requirements during a grid fault, - characterized in - that an amount of electrical power, which is present in the wind power installation and acting on the rotating parts of the wind power installation during the grid fault, is fed into the generator, and - wherein the generator is operable to convert the respective amount of electrical power into a loss in the generator by injecting the amount of electrical power into windings and into the iron of the generator. - while the wind power installation comprises a generator and a converter, - wherein the generator is operable to convert wind power into electrical power and to provide the electrical power to the converter, - wherein the converter is operable to adapt and to provide the electrical power to an electrical grid, - wherein the converter is operable to comply with pre-determined grid code requirements during a grid fault, - characterized in - that an amount of electrical power, which is present in the wind power installation and acting on the rotating parts of the wind power installation during the grid fault, is fed into the generator, and - wherein the generator is operable to convert the respective amount of electrical power into a loss in the generator by injecting the amount of electrical power into windings and into the iron of the generator.
An occupant sensor mat configured to be located proximate to a seating surface of a vehicle seat assembly, said mat comprising: a sensor electrode formed of conductive material and configured to radiate an electric field in response to an excitation signal for determining an occupant presence proximate to the seating surface; a heater element configured to underlie the sensor electrode, said heater element formed of conductive material and configured to radiate heat in response to electrical current for warming an occupant residing on the seating surface; and an incompressible spacer interposed between the sensor electrode and the heater element, said incompressible spacer formed of a material sufficiently flexible for locating proximate to a seating surface, and sufficiently incompressible to prevent a substantial change in capacitive coupling between the sensor electrode and the heater element from before to while an occupant resides on the seating surface, characterised in that the incompressible spacer exhibits less than a forty percent (40%) compression deflection value when an occupant residing on the seating surface applies a pressure of twenty-nine kilopascals. a sensor electrode formed of conductive material and configured to radiate an electric field in response to an excitation signal for determining an occupant presence proximate to the seating surface; a heater element configured to underlie the sensor electrode, said heater element formed of conductive material and configured to radiate heat in response to electrical current for warming an occupant residing on the seating surface; and an incompressible spacer interposed between the sensor electrode and the heater element, said incompressible spacer formed of a material sufficiently flexible for locating proximate to a seating surface, and sufficiently incompressible to prevent a substantial change in capacitive coupling between the sensor electrode and the heater element from before to while an occupant resides on the seating surface, characterised in that the incompressible spacer exhibits less than a forty percent (40%) compression deflection value when an occupant residing on the seating surface applies a pressure of twenty-nine kilopascals.
An apparatus comprising: a micromirror; an excitation structure containing or supporting the micromirror and comprising at least one piezoelectric actuator (106_1:106 _n), the excitation structure being configured to resonantly excite the micromirror so as to cause a deflection of the micromirror; and at least one piezoelectric sensor (108_1:108_m) for providing a sensor signal dependent on the deflection of the micromirror, the piezoelectric sensor (108_1:108_m) being mechanically connected to the excitation structure so that, during the resonant excitation of the micromirror, the sensor signal and the deflection of the micromirror exhibit a fixed mutual phase relationship; the excitation structure comprising a spring structure supporting the micromirror; the excitation structure comprising two piezoelectric actuators (106_1, 106_2), and the spring structure being arranged between the two piezoelectric actuators (106_1, 106_2) and being connected to the at least two piezoelectric actuators (106_1:106_n); and the at least one piezoelectric sensor (108_1:108_m) being connected to the spring structure so as to move along with the spring structure; the at least one piezoelectric sensor (108_1:108_m) extending at least partially across the spring structure 130; the spring structure being H-shaped, the micromirror being supported by a crossbar of the H-shaped spring structure, the at least one piezoelectric sensor (108_1:108_m) being connected to at least one longitudinal bar of the H-shaped spring structure. a micromirror; an excitation structure containing or supporting the micromirror and comprising at least one piezoelectric actuator (106_1:106 _n), the excitation structure being configured to resonantly excite the micromirror so as to cause a deflection of the micromirror; and at least one piezoelectric sensor (108_1:108_m) for providing a sensor signal dependent on the deflection of the micromirror, the piezoelectric sensor (108_1:108_m) being mechanically connected to the excitation structure so that, during the resonant excitation of the micromirror, the sensor signal and the deflection of the micromirror exhibit a fixed mutual phase relationship; the excitation structure comprising a spring structure supporting the micromirror; the excitation structure comprising two piezoelectric actuators (106_1, 106_2), and the spring structure being arranged between the two piezoelectric actuators (106_1, 106_2) and being connected to the at least two piezoelectric actuators (106_1:106_n); and the at least one piezoelectric sensor (108_1:108_m) being connected to the spring structure so as to move along with the spring structure; the at least one piezoelectric sensor (108_1:108_m) extending at least partially across the spring structure 130; the spring structure being H-shaped, the micromirror being supported by a crossbar of the H-shaped spring structure, the at least one piezoelectric sensor (108_1:108_m) being connected to at least one longitudinal bar of the H-shaped spring structure.
An insulated structure for a household appliance, said insulated structure comprising: a first panel; a second panel coupled to the first panel to define a structural enclosure; an evacuation port defined by the second panel; a connector coupled to the second panel and disposed over the port; a servicing tube coupled to the connector and extending along the second panel; and a sensor coupled to the connector, characterised in that the servicing tube includes an attachment end, a maintenance portion and a stepped portion therebetween. a first panel; a second panel coupled to the first panel to define a structural enclosure; an evacuation port defined by the second panel; a connector coupled to the second panel and disposed over the port; a servicing tube coupled to the connector and extending along the second panel; and a sensor coupled to the connector, characterised in that the servicing tube includes an attachment end, a maintenance portion and a stepped portion therebetween.
A method of producing a salt composition comprising comminuting a first particulate fraction comprised of sodium chloride crystals having a mean particle size by volume of at least 500 μm, in the presence of a second particulate fraction which is a salt product comprised of particles which contain (a) sodium chloride and (b) an organic material that is a solid at ambient temperature and which have a structure comprised of individual crystallites of sodium chloride attached together in the particles of the product wherein at least 95% by volume of the particles of the salt product have a size less than 100 μm and wherein particles of the product comprise hollow particles formed of an outer shell of said crystallites.
A method comprising: forming a bed of randomly oriented dry fibers on a base; drawing resin into the bed in response to pressure to form a mixture of randomly oriented fibers impregnated with thermoset resin; perturbing the mixture while preserving fiber length at the mixture and degassing the mixture; and extruding the mixture to form a preform. forming a bed of randomly oriented dry fibers on a base; drawing resin into the bed in response to pressure to form a mixture of randomly oriented fibers impregnated with thermoset resin; perturbing the mixture while preserving fiber length at the mixture and degassing the mixture; and extruding the mixture to form a preform.
Improved shutter comprising a plurality of slats of which at least one has a rotation shaft associated to a part on which it engages or drags such that the relative movement of the shaft on said part causes its rotation, whereby the shutter comprises a plurality of slats of which at least one rotates over a particular longitudinal shaft and wherein said slat comprises: a. The body of the slat itself which in turn comprises an elongated laminar main body of a height of between 20 and 100 mm, b. A rotation shaft of the slat that rotates together with the body of the slat and which incorporates a cogwheel as gear or friction elements, c. A first chain the links of which comprise a hub that has a longitudinal groove on one side and a longitudinal protrusion on the opposite side. d. A second chain the links of which comprise an element having an inner rack and which houses the cogwheel wherein the allowance between the cogwheel and the rack is preferably between 3% and 8% of the width of the guiding groove, and another element comprising a linear catch. the shutter further comprises a braking system for the link of the second chain, comprising: e. A rail through which the catch runs. f. A plurality of mobile tabs. g. Means for varying the position of the tabs comprising a shaft around which the tabs pivot and a driving element associated to the shaft characterized in that the body of the slat comprises on its ends an offset in which is housed a stop and a lower extension that coincides vertically with the offset, this extension preferably has a height equal to or less than the hight of the offset. a. The body of the slat itself which in turn comprises an elongated laminar main body of a height of between 20 and 100 mm, b. A rotation shaft of the slat that rotates together with the body of the slat and which incorporates a cogwheel as gear or friction elements, c. A first chain the links of which comprise a hub that has a longitudinal groove on one side and a longitudinal protrusion on the opposite side. d. A second chain the links of which comprise an element having an inner rack and which houses the cogwheel wherein the allowance between the cogwheel and the rack is preferably between 3% and 8% of the width of the guiding groove, and another element comprising a linear catch. the shutter further comprises a braking system for the link of the second chain, comprising: e. A rail through which the catch runs. f. A plurality of mobile tabs. g. Means for varying the position of the tabs comprising a shaft around which the tabs pivot and a driving element associated to the shaft
Bicycle component with a measuring device with a housing and at least one measuring probe connected therewith, comprising at least one unheated probe body having at least one exterior opening (6, 7), the exterior opening being connected through an air guide with at least one barometric pressure sensor (20, 25, 30) disposed remote from the exterior opening, characterized in that the air guide comprises at least two air ducts (11, 12) and at least one internal chamber connected with at least two air ducts (11, 12), wherein one of the air ducts (11, 12) is configured as a supply duct and begins at the exterior opening, and wherein another air duct serves as a sensor duct and connects the internal chamber with the barometric pressure sensor (20, 25, 30), and wherein at least one of the air ducts has a minimum clear diameter of less than 2.5 mm.
A bicycle shift operating device comprising: a base member including a bicycle mounting structure, a shift unit disposed in the base member; a first operating lever operatively coupled to the shift unit and pivotally mounted relative to the base member about a first pivot axis between a first rest position and a first shifting position; a second operating lever operatively coupled to the shift unit: a first biasing element biasing the first operating lever towards the first rest position to keep the first operating member at the first rest position; and a second biasing element biasing the first operating lever towards the first rest position in response to independent movement of the second operating lever from a second rest position to a second shifting position while the first operating lever remains at the first rest position; and characterised in that the second operating lever is pivotally mounted on the first operating lever about a second pivot axis between the second rest position and the second shifting position. a base member including a bicycle mounting structure, a shift unit disposed in the base member; a first operating lever operatively coupled to the shift unit and pivotally mounted relative to the base member about a first pivot axis between a first rest position and a first shifting position; a second operating lever operatively coupled to the shift unit: a first biasing element biasing the first operating lever towards the first rest position to keep the first operating member at the first rest position; and a second biasing element biasing the first operating lever towards the first rest position in response to independent movement of the second operating lever from a second rest position to a second shifting position while the first operating lever remains at the first rest position; and characterised in that the second operating lever is pivotally mounted on the first operating lever about a second pivot axis between the second rest position and the second shifting position. a first biasing element biasing the first operating lever towards the first rest position to keep the first operating member at the first rest position; and a second biasing element biasing the first operating lever towards the first rest position in response to independent movement of the second operating lever from a second rest position to a second shifting position while the first operating lever remains at the first rest position; and characterised in that the second operating lever is pivotally mounted on the first operating lever about a second pivot axis between the second rest position and the second shifting position.
A mechanism for collapsible bunk-beds, comprising a base and an upper bed frame which are connected, on opposite sides, by a pair of first lever systems adapted to allow the movement of the upper bed frame between two stable positions above the base, the upper bed frame being adapted to support a mattress, each one of said first lever systems comprising an articulated quadrilateral that lies on a plane that is substantially perpendicular to the plane of said upper bed frame, characterised in that said articulated quadrilateral being an articulated parallelogram and being composed of four L-shaped levers that are identical in pairs (52, 53, 54, 55) and are adapted to define a substantially rectangular shape when the upper bed frame is in the fully raised position with respect to said base, a first L-shaped lever of said L-shaped levers being fixed rigidly to the base and a second L-shaped lever of said L-shaped levers being fixed rigidly to the upper bed frame, said first and second L-shaped levers (52, 53) being crossed by a diagonal of said substantially rectangular shape, third and fourth L-shaped levers (54, 55) of said L-shaped levers being crossed by the other diagonal of said substantially rectangular shape, each one of said first and second L-shaped levers (52, 53) comprising two arms (521, 522; 531, 532) that are substantially mutually perpendicular and each one of said third and fourth L-shaped levers (54, 55) comprising two arms (531, 532; 541, 542) which are substantially perpendicular to each other and are longer than the length of the arms (521, 522; 531, 532) of the first and second L-shaped levers (52, 53), wherein the mutually pivoted arms are substantially perpendicular to each other when the upper bed frame is in the fully collapsed position.
A bacteriophage phi29 DNA polymerase comprising a mutation E221K, wherein the bacteriophage phi29 DNA polymerase has increased protein stability compared to wild-type phi29 DNA polymerase, wherein the bacteriophage phi29 DNA polymerase has at least 80% sequence identity to SEQ ID NO: 10, and optionally wherein the bacteriophage phi29 DNA polymerase further comprises at least one mutation selected from M8R, V51A, M97T, L123S, G197D, K209E, E239G, Q497P, K512E, E515A, and F526L.