mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a value of a characteristic related to timing between sequential events of an input electronic signal using an input capture counter having a maximum counting value, the input electronic signal having an expected variable period between events whose value is between a maximum period value and a minimum period value with a delta period value equal to a difference between the maximum period value and the minimum period value, the method comprising: receiving the electronic signal; setting a counter rate of the input capture counter to a value equal to the maximum counting value divided by the delta period value; detecting a first capture event; determining a value of the input capture counter at the first capture event; detecting a second capture event; determining a value of the input capture counter at the second capture event; and determining the value of the characteristic related to timing based on the value of the input counter at the first capture event and the value of the input counter at the second capture event. receiving the electronic signal; setting a counter rate of the input capture counter to a value equal to the maximum counting value divided by the delta period value; detecting a first capture event; determining a value of the input capture counter at the first capture event; detecting a second capture event; determining a value of the input capture counter at the second capture event; and determining the value of the characteristic related to timing based on the value of the input counter at the first capture event and the value of the input counter at the second capture event.
A method for fixing a construction element to a substrate by means of at least one fixing device in the form a threaded fixing-plug with a shaft portion insertable through a fixing hole of the construction element , at one end of which are arranged a tip region tapering away from the shaft portion , and, in the tip region and in the shaft portion , an external threading for screwing into the substrate , wherein the shaft of a screw is screwed partially into a receiving region of the threaded fixing-plug facing towards it at the end of the shaft portion facing away from the tip region , characterised in that the construction element is placed in the desired position on the substrate , that the threaded fixing-plug is introduced together with the screw screwed partially into the receiving region through the fixing hole of the construction element and that the threaded fixing-plug is screwed into the substrate in a self-tapping manner by screwing the screw into the receiving region and transferring the torque from the screw to the threaded fixing-plug , so that the construction element abuts the substrate and the screw abuts the construction element .
A method for controlling wireless communication performance in an electronic device, the method including: Transmitting a first test signal on a first transmission channel with a first antenna at a first location in the electronic device ; Receiving the first test signal on the first transmission channel with a second antenna at a second location in the electronic device; Characterized in that the method further comprises: Accessing data containing material properties relating to a plurality of materials; Determining a housing material of the electronic device based on a measured attenuation of the first test signal received by the second antenna based upon the data containing transmission properties relating to a plurality of materials; and adjusting a transmission power of one of the first antenna and the second antenna based upon the material properties of the housing material. Transmitting a first test signal on a first transmission channel with a first antenna at a first location in the electronic device ; Receiving the first test signal on the first transmission channel with a second antenna at a second location in the electronic device; Characterized in that the method further comprises: Accessing data containing material properties relating to a plurality of materials; Determining a housing material of the electronic device based on a measured attenuation of the first test signal received by the second antenna based upon the data containing transmission properties relating to a plurality of materials; and adjusting a transmission power of one of the first antenna and the second antenna based upon the material properties of the housing material. Accessing data containing material properties relating to a plurality of materials; Determining a housing material of the electronic device based on a measured attenuation of the first test signal received by the second antenna based upon the data containing transmission properties relating to a plurality of materials; and adjusting a transmission power of one of the first antenna and the second antenna based upon the material properties of the housing material.
A tensioning strap for a system for supporting a human body or a human body segment, comprising a base body , made as a strip made of a flexible material and comprising a middle portion , which in use is adapted to be arranged between a pair of fixed support elements, and a pair of end portions , each of which is adapted to be folded over itself to form a ring around a corresponding fixed support element of said pair of fixed support elements, wherein one or more stiffening elements are applied to said base body at respective application regions, characterized in that said stiffening element(s) has/have a width substantially equal to or smaller than the width of said strip of flexible material at the respective application region and said stiffening element(s) is/are aligned along the direction of the longitudinal axis of said base body and/or arranged parallel to said axis of said base body .
A portable electronic programmer (820A-820N), comprising: a graphical user interface configured to receive an input from a user and display an output to the user; an electronic memory storage configured to store programming instructions; and one or more processors configured to execute the programming instructions that are stored on the electronic memory storage of the portable electronic programmer (820A-820N), characterized in that the one or more processors are configured to perform the following steps by executing the programming instructions: displaying , via the graphical user interface, a visual representation of a sacrum of the patient and a lead that is implanted in the sacrum, the lead including a plurality of electrode contacts ; and evaluating how well the lead has been implanted in the sacrum based on the visual representation of the sacrum and the lead, wherein the evaluating comprises: determining whether the lead is inserted in a predetermined region of the sacrum ; determining how far a predetermined one of the electrode contacts is located from an edge of the sacrum ; and determining a degree of curvature of the lead . a graphical user interface configured to receive an input from a user and display an output to the user; an electronic memory storage configured to store programming instructions; and one or more processors configured to execute the programming instructions that are stored on the electronic memory storage of the portable electronic programmer (820A-820N), characterized in that the one or more processors are configured to perform the following steps by executing the programming instructions: displaying , via the graphical user interface, a visual representation of a sacrum of the patient and a lead that is implanted in the sacrum, the lead including a plurality of electrode contacts ; and evaluating how well the lead has been implanted in the sacrum based on the visual representation of the sacrum and the lead, wherein the evaluating comprises: determining whether the lead is inserted in a predetermined region of the sacrum ; determining how far a predetermined one of the electrode contacts is located from an edge of the sacrum ; and determining a degree of curvature of the lead . displaying , via the graphical user interface, a visual representation of a sacrum of the patient and a lead that is implanted in the sacrum, the lead including a plurality of electrode contacts ; and evaluating how well the lead has been implanted in the sacrum based on the visual representation of the sacrum and the lead, wherein the evaluating comprises: determining whether the lead is inserted in a predetermined region of the sacrum ; determining how far a predetermined one of the electrode contacts is located from an edge of the sacrum ; and determining a degree of curvature of the lead . determining whether the lead is inserted in a predetermined region of the sacrum ; determining how far a predetermined one of the electrode contacts is located from an edge of the sacrum ; and determining a degree of curvature of the lead .
An explantation assembly for retrieving an intracorporeal capsule implanted in a tissue of a patient, comprising a first tubular means comprising a snare and a cutting means for cutting free the intracorporeal capsule; and a second tubular means configured to interact with the snare of the first tubular means and configured to attach to the tissue of the patient.
Method for displaying a new rectangular window (V) in a display area (ZA) on a screen (SC) of a display device, said display area already comprising at least one first rectangular window (FR), the new window being displayed progressively towards the inside and starting from an initial location of an edge (V1) of the first window (FR) in the display area, said method comprising steps of: shifting (E40) the content of the first window starting from the initial location of said edge (VI), over a distance corresponding to the dimension of said new window in a second direction (DH) perpendicular to a first direction (DV) parallel to said edge (VI), said shifting being performed without causing any deformation of the initial content of the first window; displaying (E50) the new window, along the initial location of said edge (VI), this display having the effect of decreasing said first window (FR) by the same amount in said second direction such that all of the initial content of the first window is accessible in the first window by scrolling through the initial content in the first window (FR), once the entire new window has been displayed; wherein said new window is divided into a plurality of bands (BV) parallel to said edge (V1) and, for each of said bands: said initial content of the first window is shifted from said edge (V1) over a distance corresponding to the dimension (LB) of said band in said second direction (DH); and the band of the new window is displayed along said edge (V1). shifting (E40) the content of the first window starting from the initial location of said edge (VI), over a distance corresponding to the dimension of said new window in a second direction (DH) perpendicular to a first direction (DV) parallel to said edge (VI), said shifting being performed without causing any deformation of the initial content of the first window; displaying (E50) the new window, along the initial location of said edge (VI), this display having the effect of decreasing said first window (FR) by the same amount in said second direction such that all of the initial content of the first window is accessible in the first window by scrolling through the initial content in the first window (FR), once the entire new window has been displayed; wherein said new window is divided into a plurality of bands (BV) parallel to said edge (V1) and, for each of said bands: said initial content of the first window is shifted from said edge (V1) over a distance corresponding to the dimension (LB) of said band in said second direction (DH); and the band of the new window is displayed along said edge (V1). said initial content of the first window is shifted from said edge (V1) over a distance corresponding to the dimension (LB) of said band in said second direction (DH); and the band of the new window is displayed along said edge (V1).
An automatic analyzing device comprising: a sample cell ; a sample cell conveying part configured to convey the sample cell ; a sample injecting part configured to inject a sample into the sample cell ; a reagent injecting part configured to inject a reagent into the sample cell ; a stir part configured to stir a solution in the sample cell ; a measurement part configured to perform optical measurement on the solution in the sample cell by irradiating the solution with light; and a control part configured to control each part , wherein the stir part includes: a stir rod to be inserted into the solution in the sample cell ; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and the control part drives the rotation motor to rotate the stir rod and drives the vertical motor to vertically reciprocate the stir rod in the solution in the sample cell at the same time to stir the solution in the sample cell ; characterized in that the control part drives the vertical motor to vertically reciprocate the stir rod in such a manner as to drive the stir rod to move upward from a fixed position once and to go back to the fixed position in the solution in the sample cell , during a stir operation in which the stir rod inserted in the solution in the sample cell is rotationally driven at the fixed position by the rotation motor . a sample cell ; a sample cell conveying part configured to convey the sample cell ; a sample injecting part configured to inject a sample into the sample cell ; a reagent injecting part configured to inject a reagent into the sample cell ; a stir part configured to stir a solution in the sample cell ; a measurement part configured to perform optical measurement on the solution in the sample cell by irradiating the solution with light; and a control part configured to control each part , wherein the stir part includes: a stir rod to be inserted into the solution in the sample cell ; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and a stir rod to be inserted into the solution in the sample cell ; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and the control part drives the rotation motor to rotate the stir rod and drives the vertical motor to vertically reciprocate the stir rod in the solution in the sample cell at the same time to stir the solution in the sample cell ; characterized in that the control part drives the vertical motor to vertically reciprocate the stir rod in such a manner as to drive the stir rod to move upward from a fixed position once and to go back to the fixed position in the solution in the sample cell , during a stir operation in which the stir rod inserted in the solution in the sample cell is rotationally driven at the fixed position by the rotation motor .
A communication apparatus comprising: a frame generating block configured, if, after data is transmitted from an upper layer to another communication apparatus , a receive response signal of said data is required, to generate a predetermined frame that includes transmission grant information for said another communication apparatus to transmit said receive response signal and said data; and a transmitting block configured to transmit said generated frame to said another communication apparatus; characterised in that said transmission grant information of said predetermined frame includes a transmission grant index that indicates use of, also next time, transmission grant information used immediately before for transmitting said receive response signal. a frame generating block configured, if, after data is transmitted from an upper layer to another communication apparatus , a receive response signal of said data is required, to generate a predetermined frame that includes transmission grant information for said another communication apparatus to transmit said receive response signal and said data; and a transmitting block configured to transmit said generated frame to said another communication apparatus; characterised in that said transmission grant information of said predetermined frame includes a transmission grant index that indicates use of, also next time, transmission grant information used immediately before for transmitting said receive response signal.
A method for detecting a mechanical defect of an electrical pump actuated by an electrical machine electrically supplied by a three-phase electrical supply network, said method comprising: a step for sampling the three-phase tensions and three-phase currents at the input of the electrical machine ; a step for filtering the sampled tensions and three-phase currents ; a step for transforming the sampled tensions and currents in a two-phase benchmark ; a step for valuing the phase of the electrical impedance of said electric rotating machine according to said transformed tensions and currents ; a step for computing at least a value representative of the electrical impedance time evolution according to said calculated electrical impedance phase, and a step for detecting a defect of the mechanical pump comprising the comparison of said at least one value representative of the calculated electrical impedance time evolution with at least a predetermined reference value. a step for sampling the three-phase tensions and three-phase currents at the input of the electrical machine ; a step for filtering the sampled tensions and three-phase currents ; a step for transforming the sampled tensions and currents in a two-phase benchmark ; a step for valuing the phase of the electrical impedance of said electric rotating machine according to said transformed tensions and currents ; a step for computing at least a value representative of the electrical impedance time evolution according to said calculated electrical impedance phase, and a step for detecting a defect of the mechanical pump comprising the comparison of said at least one value representative of the calculated electrical impedance time evolution with at least a predetermined reference value.
A method for providing a more uniform velocity distribution between a leading edge (LE) and a trailing edge (TE) of a vane of a compressor stator comprising a circumferential array of stator vanes and a radially inner shroud for supporting the stator vanes , the shroud having a circumferentially extending inner endwall exposed to an annular gas path of the compressor and a circumferentially uniform axial cross-sectional profile; the method including: providing a nominal axial cross-sectional profile of the radially inner shroud of the stator defined by a portion of a relatively smooth and continuous baseline curve defining an overall shape of the annular gas path extending between an upstream rotor and a downstream rotor ; applying a concave deviation having a maximum deviation from the nominal profile at a position substantially corresponding to an axial position of a maximum thickness (MT) of at least one of the vanes for providing an increased diffusion in the inner endwall region; and applying a convex deviation having a maximum deviation from the nominal profile at a position substantially corresponding to an axial position of a trailing edge (TE) of at least one of the vanes for providing less diffusion at the trailing edge (TE) of the vane in the inner endwall region. providing a nominal axial cross-sectional profile of the radially inner shroud of the stator defined by a portion of a relatively smooth and continuous baseline curve defining an overall shape of the annular gas path extending between an upstream rotor and a downstream rotor ; applying a concave deviation having a maximum deviation from the nominal profile at a position substantially corresponding to an axial position of a maximum thickness (MT) of at least one of the vanes for providing an increased diffusion in the inner endwall region; and applying a convex deviation having a maximum deviation from the nominal profile at a position substantially corresponding to an axial position of a trailing edge (TE) of at least one of the vanes for providing less diffusion at the trailing edge (TE) of the vane in the inner endwall region.
A method for modeling and visualizing networked microservices in a distributed environment, comprising: monitoring network traffic for determining topology information about multiple services of an application distributed across a cloud environment at least by collecting, at a collector , metadata and multiple data packets that are communicated between the multiple services of the cloud environment ; determining a network flow of the network traffic among the multiple services at least by: reconstructing a request and a response to the request based at least in part upon the metadata and the multiple data packets ; generating a set of time series data based at least in part upon the request and the response; and identifying, from the multiple requests, a first service for the request and a second service for the response at least by processing the set of time series data; and after the network flow for the network traffic among the multiple services is determined, generating the topology information based at least in part on the network flow between the first and the second services . monitoring network traffic for determining topology information about multiple services of an application distributed across a cloud environment at least by collecting, at a collector , metadata and multiple data packets that are communicated between the multiple services of the cloud environment ; determining a network flow of the network traffic among the multiple services at least by: reconstructing a request and a response to the request based at least in part upon the metadata and the multiple data packets ; generating a set of time series data based at least in part upon the request and the response; and identifying, from the multiple requests, a first service for the request and a second service for the response at least by processing the set of time series data; and reconstructing a request and a response to the request based at least in part upon the metadata and the multiple data packets ; generating a set of time series data based at least in part upon the request and the response; and identifying, from the multiple requests, a first service for the request and a second service for the response at least by processing the set of time series data; and after the network flow for the network traffic among the multiple services is determined, generating the topology information based at least in part on the network flow between the first and the second services .