mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle headlight direction system comprising: at least one sensor, arranged to acquire viewing related information from at least one eye of a driver of said vehicle; a logic (101, 102), arranged to process information acquired by said at least one sensor; at least one actuator, arranged to direct at least one headlight of said vehicle based on said processed information, characterized in that: said at least one sensor is arranged to acquire information on a viewing angle and/or angular velocity in both pitch and yaw directions of said at least one eye, relative to a coordinate system which is fixed to said vehicle; the at least one sensor further is arranged to provide signal quality information and detection confidence for each respective eye of said driver individually; and that said logic (101, 102) is arranged to filter out the viewing angle and/or angular velocity of the eye having the highest quality or of a combination of data for both right and left eyes, based on the signal quality information and detection confidence from the at least one sensor. at least one sensor, arranged to acquire viewing related information from at least one eye of a driver of said vehicle; a logic (101, 102), arranged to process information acquired by said at least one sensor; at least one actuator, arranged to direct at least one headlight of said vehicle based on said processed information, characterized in that: said at least one sensor is arranged to acquire information on a viewing angle and/or angular velocity in both pitch and yaw directions of said at least one eye, relative to a coordinate system which is fixed to said vehicle; the at least one sensor further is arranged to provide signal quality information and detection confidence for each respective eye of said driver individually; and that said logic (101, 102) is arranged to filter out the viewing angle and/or angular velocity of the eye having the highest quality or of a combination of data for both right and left eyes, based on the signal quality information and detection confidence from the at least one sensor. said at least one sensor is arranged to acquire information on a viewing angle and/or angular velocity in both pitch and yaw directions of said at least one eye, relative to a coordinate system which is fixed to said vehicle; the at least one sensor further is arranged to provide signal quality information and detection confidence for each respective eye of said driver individually; and that said logic (101, 102) is arranged to filter out the viewing angle and/or angular velocity of the eye having the highest quality or of a combination of data for both right and left eyes, based on the signal quality information and detection confidence from the at least one sensor.
An electronic package, comprising: a first package substrate; a second package substrate attached to the first package substrate; a die attached to the second package substrate; a plurality of photonics engines attached to a first surface and a second surface of the first package substrate, wherein the plurality of photonics engines are communicatively coupled to the die through the first package substrate and the second package substrate; a first socket attached to the first package substrate, wherein the first socket is below the die, and wherein the first socket is configured to provide an electrical connection between the electronic package and a board; and a plurality of second sockets attached to the first package substrate, wherein individual ones of the second sockets are offset from individual ones of the photonic engines, and wherein the plurality of second sockets are configured to provide electrical routing from the board to one or more of the photonics engines. a first package substrate; a second package substrate attached to the first package substrate; a die attached to the second package substrate; a plurality of photonics engines attached to a first surface and a second surface of the first package substrate, wherein the plurality of photonics engines are communicatively coupled to the die through the first package substrate and the second package substrate; a first socket attached to the first package substrate, wherein the first socket is below the die, and wherein the first socket is configured to provide an electrical connection between the electronic package and a board; and a plurality of second sockets attached to the first package substrate, wherein individual ones of the second sockets are offset from individual ones of the photonic engines, and wherein the plurality of second sockets are configured to provide electrical routing from the board to one or more of the photonics engines.
An analysis device comprising: an optical scanning unit configured to optically scan a surface of a substrate to which analytes in which particles for labeling the analytes are bound, are fixed, by using laser light having a wavelength longer than a diameter of the particle; and a pulse detector configured to detect a pulse wave and a pulse width (Ta) of the pulse wave included in a detection signal (D1, D2) obtained from the optical scanning unit when the optical scanning unit scans the substrate, characterized in that the analysis device further comprises a counting unit configured to determine that two particles are bound to one analyte, when the pulse detector detects two consecutive pulse waves each having a pulse width (Ta) less than a first reference value, which is a width preliminary determined based on a first pulse width of one pulse wave among the two consecutive pulse waves, in a detection signal (D1, D2), and detects that a pulse interval (Tb) between the two pulse waves is less than a threshold, and configured to count the number of analytes as one when it is determined that two particles are bound to one analyte. an optical scanning unit configured to optically scan a surface of a substrate to which analytes in which particles for labeling the analytes are bound, are fixed, by using laser light having a wavelength longer than a diameter of the particle; and a pulse detector configured to detect a pulse wave and a pulse width (Ta) of the pulse wave included in a detection signal (D1, D2) obtained from the optical scanning unit when the optical scanning unit scans the substrate, characterized in that the analysis device further comprises a counting unit configured to determine that two particles are bound to one analyte, when the pulse detector detects two consecutive pulse waves each having a pulse width (Ta) less than a first reference value, which is a width preliminary determined based on a first pulse width of one pulse wave among the two consecutive pulse waves, in a detection signal (D1, D2), and detects that a pulse interval (Tb) between the two pulse waves is less than a threshold, and configured to count the number of analytes as one when it is determined that two particles are bound to one analyte.
Measuring device (10, 10') for inspecting a hole, in particular for inspecting a hole for rivets or similar fasteners, the device comprising: a test mandrel (11, 11') comprising a hollow housing (12, 12') and interacting means (15, 16, 15', 16') arranged in said hollow housing (12, 12'), which interacting means (15, 16, 15', 16') can protrude at least partially through openings in the hollow housing (12, 12') and being arranged movable relative to the hollow housing (12, 12'); detection means to detect the relative position of the interacting means (15, 16, 15', 16'); and a bushing (30, 30') in which the test mandrel (11, 11') is arranged, characterized in that the bushing (30, 30') is movable relative to the test mandrel (11, 11') between a first position covering the interacting means (15, 16, 15', 16') and a second position exposing the interacting means (15, 16, 15', 16), wherein the bushing (30, 30') is in contact with the interacting means (15, 16, 15', 16') when the bushing (30, 30') is in the first position. a test mandrel (11, 11') comprising a hollow housing (12, 12') and interacting means (15, 16, 15', 16') arranged in said hollow housing (12, 12'), which interacting means (15, 16, 15', 16') can protrude at least partially through openings in the hollow housing (12, 12') and being arranged movable relative to the hollow housing (12, 12'); detection means to detect the relative position of the interacting means (15, 16, 15', 16'); and a bushing (30, 30') in which the test mandrel (11, 11') is arranged, characterized in that the bushing (30, 30') is movable relative to the test mandrel (11, 11') between a first position covering the interacting means (15, 16, 15', 16') and a second position exposing the interacting means (15, 16, 15', 16), wherein the bushing (30, 30') is in contact with the interacting means (15, 16, 15', 16') when the bushing (30, 30') is in the first position.
An apparatus for video encoding, comprising: a video encoder for encoding at least a block in a picture by transforming a residue of the block to obtain transform coefficients, quantizing the transform coefficients to obtain quantized transform coefficients, and entropy coding the quantized transform coefficients, wherein the encoder uses: a first syntax element that is a flag to indicate when a current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than or equal to one, a second syntax element that is a flag to indicate when the current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than two, a third syntax element that is indicative of coefficient level of the current one of the quantized transform coefficients being processed, and a fourth syntax element that is indicative of whether the current one of the quantized transform coefficients being processed is a non-zero coefficient, and wherein the transform coefficients are processed in a same given scanning order. a video encoder for encoding at least a block in a picture by transforming a residue of the block to obtain transform coefficients, quantizing the transform coefficients to obtain quantized transform coefficients, and entropy coding the quantized transform coefficients, wherein the encoder uses: a first syntax element that is a flag to indicate when a current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than or equal to one, a second syntax element that is a flag to indicate when the current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than two, a third syntax element that is indicative of coefficient level of the current one of the quantized transform coefficients being processed, and a fourth syntax element that is indicative of whether the current one of the quantized transform coefficients being processed is a non-zero coefficient, and a first syntax element that is a flag to indicate when a current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than or equal to one, a second syntax element that is a flag to indicate when the current one of the quantized transform coefficients being processed is a last non-zero coefficient for the block having a value greater than two, a third syntax element that is indicative of coefficient level of the current one of the quantized transform coefficients being processed, and a fourth syntax element that is indicative of whether the current one of the quantized transform coefficients being processed is a non-zero coefficient, and wherein the transform coefficients are processed in a same given scanning order.
An aqueous ophthalmic solution comprising a prostaglandin F2α analogue, tyloxapol as the only surfactant, a buffering agent and a cosolvent, wherein the prostaglandin F2α analogue is selected from travoprost, latanoprost, tafluprost and bimatoprost.
Workpiece storage means for elongate workpieces of shaft-like form which are at least substantially rotationally symmetrical relative to their longitudinal axis and which have along their longitudinal axis at least one projection extending in the peripheral direction, which projection protrudes radially outwards relative to a workpiece region arranged immediately axially adjacent thereto, comprising a base plate and a plurality of workpiece holders (7, 8) which are fastened to the base plate and protrude upwards therefrom and which define workpiece receiving surfaces, wherein in each case at least two workpiece holders (7, 8) are associated with a workpiece to be received, wherein the workpiece holders (7, 8) associated with a workpiece to be received are so configured, spaced apart from one another and oriented relative to one another, that the longitudinal axis of a workpiece placed thereon from above slopes relative to the horizontal in such a manner that the workpiece moves under the force of gravity, following the slope (α), until its projection comes into contact with one of the workpiece holders, and wherein the slope (α) lies in a range from 5 to 45°, characterized in that the workpiece holders (7, 8) comprise a first portion extending perpendicularly upwards starting from the base plate and, for producing the slope (α), at least one second portion which adjoins the first portion and has the slope (α) relative thereto, and in that the workpiece holder is designed to be slightly longer than the workpiece holder such that the second portions of the two workpiece holders (7, 8) extend substantially perpendicularly to the longitudinal axis of the workpiece.
A fluid storage facility containing a fluid-tight and insulating tank, in which a bottom wall of the tank contains a housing, and a loading or unloading pipe arranged in the tank, one end of the pipe being accommodated in the housing, the facility containing in addition a securing device for securing the pipe in the housing, the securing device containing: - a cylindrical collar mounted on the end of the pipe, - at least three securing arms, each securing arm containing ∘ a proximal arm portion containing a first end mounted on the cylindrical collar, the proximal arm portion being capable of rotation about a first axis of rotation parallel to a generatrix direction of the cylindrical collar, ∘ a distal arm portion containing a first end bearing a bearing pad, the bearing pad being mounted on said first end of the distal arm portion, the bearing pad being capable of rotation about a second axis of rotation parallel to the generatrix direction of the cylindrical collar, the bearing pad containing a bearing surface facing away from the collar and collaborating with a wall of the housing, in which at least one of said securing arms contains a guideway (48, 49) coupling the proximal arm portion to the distal arm portion and capable of translationally guiding the distal arm portion with respect to the proximal arm portion in an axis of displacement perpendicular to the generatrix direction of the collar, an elastic member being coupled to the guideway so as to be able to apply a return force that pushes the distal arm portion away from the proximal arm portion in the axis of displacement in response to a stress aimed at moving the distal arm portion closer to the proximal arm portion. - a cylindrical collar mounted on the end of the pipe, - at least three securing arms, each securing arm containing ∘ a proximal arm portion containing a first end mounted on the cylindrical collar, the proximal arm portion being capable of rotation about a first axis of rotation parallel to a generatrix direction of the cylindrical collar, ∘ a distal arm portion containing a first end bearing a bearing pad, the bearing pad being mounted on said first end of the distal arm portion, the bearing pad being capable of rotation about a second axis of rotation parallel to the generatrix direction of the cylindrical collar, the bearing pad containing a bearing surface facing away from the collar and collaborating with a wall of the housing, ∘ a proximal arm portion containing a first end mounted on the cylindrical collar, the proximal arm portion being capable of rotation about a first axis of rotation parallel to a generatrix direction of the cylindrical collar, ∘ a distal arm portion containing a first end bearing a bearing pad, the bearing pad being mounted on said first end of the distal arm portion, the bearing pad being capable of rotation about a second axis of rotation parallel to the generatrix direction of the cylindrical collar, the bearing pad containing a bearing surface facing away from the collar and collaborating with a wall of the housing,
A hyperbolic modulation offset reducer circuit for a resonator fiber optic gyro, the hyperbolic modulation offset reducer circuit comprising: an offset input to receive a transmission signal from a resonator; a first demodulation circuit configured to demodulate the received transmission signal using a sideband heterodyne detection modulation frequency to reject signals due to backscatter; a slave resonance tracking loop coupled to an output of the first demodulation circuit, the slave resonance tracking loop configured to create an offset frequency signal from the transmission signal, the slave resonance tracking loop including, a second demodulation circuit (214, 216) configured to demodulate the output of the first demodulation circuit at a select tracking demodulation frequency that is two times a common modulation frequency; and characterized in that the hyperbolic modulation offset reducer circuit also comprises; a hyperbolic modulator offset control loop coupled to the output of the first demodulation circuit, the hyperbolic modulator offset control loop configured to create a common modulation signal from the transmission signal that is coupled to a common phase module in a silicon photonics chip of the resonator fiber optic gyro, the a hyperbolic modulator offset control loop including, a third demodulation circuit (236, 234) configured to demodulate the output of the demodulation circuit at a select harmonic frequency that is three times the common modulation frequency. an offset input to receive a transmission signal from a resonator; a first demodulation circuit configured to demodulate the received transmission signal using a sideband heterodyne detection modulation frequency to reject signals due to backscatter; a slave resonance tracking loop coupled to an output of the first demodulation circuit, the slave resonance tracking loop configured to create an offset frequency signal from the transmission signal, the slave resonance tracking loop including, a second demodulation circuit (214, 216) configured to demodulate the output of the first demodulation circuit at a select tracking demodulation frequency that is two times a common modulation frequency; and characterized in that the hyperbolic modulation offset reducer circuit also comprises; a hyperbolic modulator offset control loop coupled to the output of the first demodulation circuit, the hyperbolic modulator offset control loop configured to create a common modulation signal from the transmission signal that is coupled to a common phase module in a silicon photonics chip of the resonator fiber optic gyro, the a hyperbolic modulator offset control loop including, a third demodulation circuit (236, 234) configured to demodulate the output of the demodulation circuit at a select harmonic frequency that is three times the common modulation frequency.
Method for determining an item of predicted acceleration information which describes a future acceleration potential of an electric motor vehicle having an electric motor fed by a battery as a drive apparatus, in the electric motor vehicle, comprising the following steps: - providing an item of power prediction information about the electric motor which describes a predicted available acceleration power of the electric motor for at least one future time period, - determining the item of acceleration information from the item of power prediction information using predictive route data supplied by a navigation system for the time period, wherein predictive route data describing a curve for a route section ahead are used, wherein a potential longitudinal component of the acceleration increasing the longitudinal speed of the electric power vehicle is determined as the item of acceleration information, characterised in that a driver assistance system, which is an ACC system or a cruise control system, uses the item of determined acceleration information to check up to which value a setting speed which can be set by the driver is achievable, wherein setting speeds which are unachievable are blocked at an early stage. - providing an item of power prediction information about the electric motor which describes a predicted available acceleration power of the electric motor for at least one future time period, - determining the item of acceleration information from the item of power prediction information using predictive route data supplied by a navigation system for the time period, wherein predictive route data describing a curve for a route section ahead are used, wherein a potential longitudinal component of the acceleration increasing the longitudinal speed of the electric power vehicle is determined as the item of acceleration information,
A computer implemented picture processing method, wherein the picture processing method comprises: selecting a predetermined quantity of pictures; determining a first template set based on the predetermined quantity, wherein the first template set comprises a plurality of templates used for the predetermined quantity of pictures, and each template comprises the predetermined quantity of picture grids for accommodating the pictures; sorting the predetermined quantity of pictures based on a predetermined sequence of size ratios which is the ratio of sizes used for describing sizes of the pictures; sorting the predetermined quantity of picture grids for each template in the first template set based on the predetermined sequence of size ratios which is the ratio of sizes used for describing sizes of the picture grids; for each template in the first template set, calculating a cropping amount corresponding to the template, wherein the cropping amount corresponding to the template is a sum of cropping amounts required for correspondingly placing, according to the predetermined sequence, all the sorted pictures in the sorted picture grids whose predetermined sequence numbers are the same as those of the pictures; and selecting, from the first template set, a template corresponding to a minimum cropping amount as a target template used for the predetermined quantity of pictures, to avoid over cropping. selecting a predetermined quantity of pictures; determining a first template set based on the predetermined quantity, wherein the first template set comprises a plurality of templates used for the predetermined quantity of pictures, and each template comprises the predetermined quantity of picture grids for accommodating the pictures; sorting the predetermined quantity of pictures based on a predetermined sequence of size ratios which is the ratio of sizes used for describing sizes of the pictures; sorting the predetermined quantity of picture grids for each template in the first template set based on the predetermined sequence of size ratios which is the ratio of sizes used for describing sizes of the picture grids; for each template in the first template set, calculating a cropping amount corresponding to the template, wherein the cropping amount corresponding to the template is a sum of cropping amounts required for correspondingly placing, according to the predetermined sequence, all the sorted pictures in the sorted picture grids whose predetermined sequence numbers are the same as those of the pictures; and selecting, from the first template set, a template corresponding to a minimum cropping amount as a target template used for the predetermined quantity of pictures, to avoid over cropping.