mhurhangee/ep-ind-claims huggingface dataset:
A method of reporting, by a user equipment, UE, channel state information, CSI, in a 3GPP wireless communication system, the method comprising: determining a physical uplink control channel, PUCCH, format type for reporting the CSI according to a CSI feedback type, wherein the PUCCH format type is a short PUCCH or a long PUCCH; and reporting the CSI to a base station, BS, through the determined PUCCH format type, wherein based on the determined PUCCH format type being the short PUCCH, the reported CSI supports a type I CSI feedback, wherein based on the determined PUCCH format type being the long PUCCH, the reported CSI supports the type I CSI feedback and a type II CSI feedback, wherein the type I CSI feedback is a spatial resolution codebook and the type II CSI feedback is another spatial resolution codebook with higher spatial resolution than the type I CSI feedback, wherein the reported CSI is configured as semi-persistent, wherein the long PUCCH includes PUCCH format 4, and an amount of CSI transmitted on the PUCCH format 4 is up to 115 bits, wherein the short PUCCH includes 1 to 2 orthogonal frequency division multiplexing, OFDM, symbols as a time domain, wherein the long PUCCH includes 4 to 12 OFDM symbols as a time domain, and wherein a part of the CSI is reported based on the CSI being reported on the long PUCCH and supporting the type II CSI feedback. determining a physical uplink control channel, PUCCH, format type for reporting the CSI according to a CSI feedback type, wherein the PUCCH format type is a short PUCCH or a long PUCCH; and reporting the CSI to a base station, BS, through the determined PUCCH format type, wherein based on the determined PUCCH format type being the short PUCCH, the reported CSI supports a type I CSI feedback, wherein based on the determined PUCCH format type being the long PUCCH, the reported CSI supports the type I CSI feedback and a type II CSI feedback, wherein the type I CSI feedback is a spatial resolution codebook and the type II CSI feedback is another spatial resolution codebook with higher spatial resolution than the type I CSI feedback, wherein the reported CSI is configured as semi-persistent, wherein the long PUCCH includes PUCCH format 4, and an amount of CSI transmitted on the PUCCH format 4 is up to 115 bits, wherein the short PUCCH includes 1 to 2 orthogonal frequency division multiplexing, OFDM, symbols as a time domain, wherein the long PUCCH includes 4 to 12 OFDM symbols as a time domain, and wherein a part of the CSI is reported based on the CSI being reported on the long PUCCH and supporting the type II CSI feedback.
A micromachined, monolithic inertial sensor apparatus, comprising: a single proof-mass 3-axis accelerometer (900, 1000, 1100, 1200) formed in an x-y plane of a device layer, suspended about a single, central anchor, the single proof-mass 3-axis accelerometer including separate x, y, and z-axis flexure bearings (133, 134, 137); and wherein the x and y-axis flexure bearings (133, 134) are symmetrical about the single, central anchor and the z-axis flexure is not symmetrical about the single, central anchor. a single proof-mass 3-axis accelerometer (900, 1000, 1100, 1200) formed in an x-y plane of a device layer, suspended about a single, central anchor, the single proof-mass 3-axis accelerometer including separate x, y, and z-axis flexure bearings (133, 134, 137); and wherein the x and y-axis flexure bearings (133, 134) are symmetrical about the single, central anchor and the z-axis flexure is not symmetrical about the single, central anchor.
A pulmonary occlusal stent loading system comprising: a loading body having a wide-mouthed end and a narrow-mouthed end, wherein the wide-mouthed end is configured to receive a pulmonary occlusal stent that is transitionable between an expanded configuration and a contracted configuration in the expanded configuration and the narrow-mouthed end is configured to hold the pulmonary occlusal stent in the contracted configuration; a loading mandrel having a proximal end, a distal end, and an attachment device disposed near its distal end that is removably attachable to the pulmonary occlusal stent, wherein the mandrel is configured to load the removably attached pulmonary occlusal stent into the wide-mouthed end and move the pulmonary occlusal stent to the narrow-mouthed end and characterised in that the loading mandrel includes a first marking near its distal end and the loading body includes a second marking near its narrow-mouthed end, wherein alignment of the first marking with the second marking positions the pulmonary occlusal stent within the narrow-mouthed end. a loading body having a wide-mouthed end and a narrow-mouthed end, wherein the wide-mouthed end is configured to receive a pulmonary occlusal stent that is transitionable between an expanded configuration and a contracted configuration in the expanded configuration and the narrow-mouthed end is configured to hold the pulmonary occlusal stent in the contracted configuration; a loading mandrel having a proximal end, a distal end, and an attachment device disposed near its distal end that is removably attachable to the pulmonary occlusal stent, wherein the mandrel is configured to load the removably attached pulmonary occlusal stent into the wide-mouthed end and move the pulmonary occlusal stent to the narrow-mouthed end and characterised in that the loading mandrel includes a first marking near its distal end and the loading body includes a second marking near its narrow-mouthed end, wherein alignment of the first marking with the second marking positions the pulmonary occlusal stent within the narrow-mouthed end.
Quick-changer as part of a quick-changing-system for construction machines, comprising • at least one block cylinder (28, 30), • at least one locking device, • at least one coupling element of a first kind with a first coupling end section and at least one coupling element of a second kind with a second coupling end section, wherein the at least one coupling element of the first kind and the at least one coupling element of the second kind are hydraulically connected to each other, • a housing with housing walls, wherein the coupling element of the first kind and/or the coupling element of the second kind are arranged in the region of at least one housing wall of the housing, wherein the at least one coupling element of the first kind and/or the at least one coupling element of the second kind are connected to at least one coupling drive device, so that at least the first coupling end section of the coupling element of the first kind and/or at least the second coupling end section of the coupling element of the second kind are movable between a basic position and an operating position and vice versa, characterized in that the housing comprises two longitudinal housing walls, which are arranged opposite to each other and run parallel to a longitudinal axis of the block cylinder (28, 30), wherein the at least one coupling element of the first kind and/or the at least one coupling element of the second kind extend at least in sections outside of the housing in the operating position via at least one opening in one or both longitudinal housing walls of the housing of the quick-changer. • at least one block cylinder (28, 30), • at least one locking device, • at least one coupling element of a first kind with a first coupling end section and at least one coupling element of a second kind with a second coupling end section, wherein the at least one coupling element of the first kind and the at least one coupling element of the second kind are hydraulically connected to each other, • a housing with housing walls, wherein the coupling element of the first kind and/or the coupling element of the second kind are arranged in the region of at least one housing wall of the housing, wherein the at least one coupling element of the first kind and/or the at least one coupling element of the second kind are connected to at least one coupling drive device, so that at least the first coupling end section of the coupling element of the first kind and/or at least the second coupling end section of the coupling element of the second kind are movable between a basic position and an operating position and vice versa, characterized in that the housing comprises two longitudinal housing walls, which are arranged opposite to each other and run parallel to a longitudinal axis of the block cylinder (28, 30), wherein the at least one coupling element of the first kind and/or the at least one coupling element of the second kind extend at least in sections outside of the housing in the operating position via at least one opening in one or both longitudinal housing walls of the housing of the quick-changer.
An implantable medical device comprising an acceleration sensor, which is integrated or is to be connected, likewise is implantable, and is configured to capture accelerations in three axes and to output a corresponding 3D accelerometer output signal as acceleration signal, and comprising a BCG capturing unit, which is connected or is to be connected to the acceleration sensor and is configured to process an acceleration signal originating from the acceleration sensor and to derive a ballistocardiogram from the accelerometer output signal in that the BCG capturing unit determines the acceleration vector acting in the longitudinal direction of a body and evaluates the time curve thereof, and also comprising a BCG evaluation unit, which is connected to the BCG capturing unit and is configured to evaluate a ballistocardiogram originating from the BCG capturing unit such that the BCG evaluation unit delivers an output signal representing a respective stroke volume, characterised in that the BCG evaluation unit is configured to determine I-waves and J-waves in a ballistocardiogram originating from the BCG capturing unit and to form the output signal representing a respective stroke volume on the basis of the amplitude difference between successive I-waves and J-waves.
A method for a three-dimensional reconstruction of a surface of interest, using a plenoptic camera comprising an input optical system, a matrix optical sensor comprising a plurality of pixels, and a matrix (120; 220; 330; 420) of optical elements (121; 221; 321; 421) which is disposed between the input optical system and the matrix optical sensor, characterised in that it comprises the following steps of: - determining three-dimensional coordinates of a series of points of the object field of the plenoptic camera, called sampling points (P j); - determining calibration data, associating a set of at least two pixels (p k) of the matrix optical sensor with each sampling point (P j); - defining a three-dimensional array, called reconstruction array, extending in the object field of the plenoptic camera and each point of which is associated with one or more sampling point(s) (P j); - acquiring at least one image of the surface of interest using the plenoptic camera; - from the calibration data and the image of the surface of interest, calculating, for each point of the reconstruction array, the value of a dissimilarity index (C n), being a function of one or more dispersion(s), each dispersion being representative of a remoteness between the intensity values taken, on the image of the surface of interest, by the pixels associated with the sampling point (P j) itself associated with said point of the reconstruction array, or by the pixels associated with one of the sampling points (P j) themselves associated with said point of the reconstruction array; - determining a three-dimensional distribution of the points of the reconstruction array, each assigned with their value of the dissimilarity index (C n); - three-dimensionally reconstructing the surface of interest. - determining three-dimensional coordinates of a series of points of the object field of the plenoptic camera, called sampling points (P j); - determining calibration data, associating a set of at least two pixels (p k) of the matrix optical sensor with each sampling point (P j); - defining a three-dimensional array, called reconstruction array, extending in the object field of the plenoptic camera and each point of which is associated with one or more sampling point(s) (P j); - acquiring at least one image of the surface of interest using the plenoptic camera; - from the calibration data and the image of the surface of interest, calculating, for each point of the reconstruction array, the value of a dissimilarity index (C n), being a function of one or more dispersion(s), each dispersion being representative of a remoteness between the intensity values taken, on the image of the surface of interest, by the pixels associated with the sampling point (P j) itself associated with said point of the reconstruction array, or by the pixels associated with one of the sampling points (P j) themselves associated with said point of the reconstruction array; - determining a three-dimensional distribution of the points of the reconstruction array, each assigned with their value of the dissimilarity index (C n); - three-dimensionally reconstructing the surface of interest.
A dry composition for the achievement of hemostasis or other fluid containment in an in vivo context comprising: a hydrogel-forming component; a first cross-linkable component; and a second cross-linkable component that cross-links with the first cross-linkable component under reaction enabling conditions; wherein the first and second components cross-link to form a porous matrix having interstices, and wherein the hydrogel-forming component is capable of being hydrated to form a hydrogel to fill at least some of the interstices. a hydrogel-forming component; a first cross-linkable component; and a second cross-linkable component that cross-links with the first cross-linkable component under reaction enabling conditions; wherein the first and second components cross-link to form a porous matrix having interstices, and wherein the hydrogel-forming component is capable of being hydrated to form a hydrogel to fill at least some of the interstices.
A receiver comprising: a plurality of FIR filters (52, 54) and communicable with a transmitting part using a transmit diversity method through a transmission path with use of the plurality of FIR filters, characterized by further comprising: a processing arithmetic circuit (42 to 50) operable to compute a filter coefficient w of each of the FIR filters with a common factor (c 0) and output the filter coefficients w to the plurality of FIR filters, wherein the filter coefficient is represented by the following formula: w g = c 0 H ⁢ H ̲ g H where g is 1 or 2, the superscript H represents a Hamilton transpose, and H g is an estimated channel response matrix of the transmission path; and the common factor c 0 is derived by representing a gain matrix G of the transmission path by the following formula by the use of channel response matrices H 1 and H 2 corresponding to the transmit diversity method: G = H ̲ 1 H ⁢ H ̲ 1 + H ̲ 2 H ⁢ H ̲ 2 + βI where β is a noise figure added in the transmission path, and I is a unit matrix. a plurality of FIR filters (52, 54) and communicable with a transmitting part using a transmit diversity method through a transmission path with use of the plurality of FIR filters, characterized by further comprising: a processing arithmetic circuit (42 to 50) operable to compute a filter coefficient w of each of the FIR filters with a common factor (c 0) and output the filter coefficients w to the plurality of FIR filters, wherein the filter coefficient is represented by the following formula: w g = c 0 H ⁢ H ̲ g H where g is 1 or 2, the superscript H represents a Hamilton transpose, and H g is an estimated channel response matrix of the transmission path; and the common factor c 0 is derived by representing a gain matrix G of the transmission path by the following formula by the use of channel response matrices H 1 and H 2 corresponding to the transmit diversity method: G = H ̲ 1 H ⁢ H ̲ 1 + H ̲ 2 H ⁢ H ̲ 2 + βI where β is a noise figure added in the transmission path, and I is a unit matrix. a processing arithmetic circuit (42 to 50) operable to compute a filter coefficient w of each of the FIR filters with a common factor (c 0) and output the filter coefficients w to the plurality of FIR filters, wherein the filter coefficient is represented by the following formula: w g = c 0 H ⁢ H ̲ g H where g is 1 or 2, the superscript H represents a Hamilton transpose, and H g is an estimated channel response matrix of the transmission path; and the common factor c 0 is derived by representing a gain matrix G of the transmission path by the following formula by the use of channel response matrices H 1 and H 2 corresponding to the transmit diversity method: G = H ̲ 1 H ⁢ H ̲ 1 + H ̲ 2 H ⁢ H ̲ 2 + βI where β is a noise figure added in the transmission path, and I is a unit matrix.
Method for determining a glare level caused by a light source illuminating a driver of a motor vehicle, said motor vehicle comprising an image sensor and a distance detector, said distance detector being distinct from said image sensor, comprising steps of: - said image sensor acquiring an image, in which at least part of said light source appears, - estimating a distance separating the motor vehicle from said light source, and - computing said glare level as a function of said distance, characterized in that, in the estimation step, said distance is estimated taking into account results of measurements carried out by means of said distance detector, in which, in the estimation step, an area occupied by said light source in said image is estimated and, in the computation step, said glare level is computed also as a function of said area and in which, in the computation step: - a first estimate of the solid angle (ω) at which the light source is seen by the image sensor is determined, as a function of said distance, then - a first estimate of the glare level as a function of the first estimate of said solid angle (ω) is determined. - said image sensor acquiring an image, in which at least part of said light source appears, - estimating a distance separating the motor vehicle from said light source, and - computing said glare level as a function of said distance, characterized in that, in the estimation step, said distance is estimated taking into account results of measurements carried out by means of said distance detector, in which, in the estimation step, an area occupied by said light source in said image is estimated and, in the computation step, said glare level is computed also as a function of said area and in which, in the computation step: - a first estimate of the solid angle (ω) at which the light source is seen by the image sensor is determined, as a function of said distance, then - a first estimate of the glare level as a function of the first estimate of said solid angle (ω) is determined. - a first estimate of the solid angle (ω) at which the light source is seen by the image sensor is determined, as a function of said distance, then - a first estimate of the glare level as a function of the first estimate of said solid angle (ω) is determined.
An implantable blood pump assembly (14, 100) comprising: a housing defining an inlet, an outlet, a flow path extending from the inlet to the outlet, and an internal compartment separated from the flow path; a rotor positioned within the flow path and operable to pump blood from the inlet to the outlet; a stator positioned within the internal compartment and operable to drive the rotor; an inlet conduit connected to the housing inlet, the inlet conduit having a downstream end having a reduced cross-sectional area that produces a localized region of high velocity blood flow; and characterized by at least one pressure sensor positioned between the inlet and the outlet and configured to detect a pressure of blood flowing through the flow path, wherein the at least one pressure sensor is located adjacent the downstream end of the inlet conduit. a housing defining an inlet, an outlet, a flow path extending from the inlet to the outlet, and an internal compartment separated from the flow path; a rotor positioned within the flow path and operable to pump blood from the inlet to the outlet; a stator positioned within the internal compartment and operable to drive the rotor; an inlet conduit connected to the housing inlet, the inlet conduit having a downstream end having a reduced cross-sectional area that produces a localized region of high velocity blood flow; and
Electronic watch including a display device comprising a time dial, a first hand and a second hand which pivot coaxially, independently driven by two drive members, and in a first display mode, one hand indicates the hour, and the other indicates the minutes of the current time in reference to the respective position of said hands on the time dial, characterized in that the watch further includes a control member able to activate a second display mode, in which the first and second hands are positioned in reference to the time dial in order to respectively indicate the tens and units of the date.
A fruit harvester comprising a cleaning system, said cleaning system including a cleaning fan comprising: a housing; a rotor disposed within the housing, the rotor including a hub and a plurality of blades; the hub being a frustoconical shaped hub with an axis of rotation; each of the blades being attached to the hub; characterized in that: the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end, and wherein each of the blades curves from the inlet end toward the outlet end, relative to a direction of rotation of the rotor, whereby air is blown during operation both axially and radially. a housing; a rotor disposed within the housing, the rotor including a hub and a plurality of blades; the hub being a frustoconical shaped hub with an axis of rotation; each of the blades being attached to the hub; characterized in that: the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end, and wherein each of the blades curves from the inlet end toward the outlet end, relative to a direction of rotation of the rotor, whereby air is blown during operation both axially and radially. the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end, and wherein each of the blades curves from the inlet end toward the outlet end, relative to a direction of rotation of the rotor, whereby air is blown during operation both axially and radially.
Fitting, more particularly fitting for hopper windows or fitting for tilt and turn windows, for a building closure, comprising a corner bearing device and a stay bearing device provided for movably mounting a sash frame of the building closure to a blind frame of the building closure, wherein the corner bearing device includes a basic corner bearing component as well as a corner bearing element and the stay bearing device includes a basic stay bearing component as well as a stay bearing pin for mounting a stay arm in a rotatably moving manner, wherein the corner bearing element is mounted or affixed, by means of a corner bearing bolt, to a corner bearing support attached to the basic corner bearing component, characterised in that the stay bearing pin is mounted or affixed to the basic stay bearing component by means of at least one stay bearing support, wherein the corner bearing support and the stay bearing support are designed as same parts which are arranged in different orientations at the basic corner bearing component and at the basic stay bearing component.