mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a map of a cornea (14,56,732) of an eye, the cornea (14,56,732) having an anterior surface, a posterior surface, and an interior region between the anterior and posterior surfaces, the method comprising the steps of: a) illuminating a portion of the cornea (14,56,732) by scanning focused infrared light (40,720) in a plurality of different planes within said portion of the cornea (14,56,732) that are substantially perpendicular to an optical axis of the eye, said plurality of different planes intersecting the anterior surface, the posterior surface, and/or the interior region, wherein the infrared light (40,720) is of a wavelength that generates fluorescent light from the portion of the cornea (14,56,732) illuminated; b) detecting the fluorescent light and detecting and evaluating a Two Photon Excited Fluorescence imaging, TPEFi, signal, and a Second Harmonic Generation imaging, SHGi, signal, generated by nonlinear optical processes from the portion of the cornea (14,56,732) illuminated; c) determining the shape of the cornea and, using the TPEFi signal, determining a spatially resolved thickness measurement of the portion of the (14,56,732) illuminated from the detected fluorescent light; d) determining from the SHGi signal the three dimensional layered structure of corneal stroma tissue in the portion of the cornea (14,56,732) illuminated; e) deriving, from the detected signals, a spatial distribution of the refractive index n(x,y) inside the cornea and optical path lengths for the portion of the cornea (14,56,732) illuminated; f) using the derived optical path lengths to generate a map of the anterior surface, posterior surface and the interior region for the portion of the cornea (14,56,732) illuminated. a) illuminating a portion of the cornea (14,56,732) by scanning focused infrared light (40,720) in a plurality of different planes within said portion of the cornea (14,56,732) that are substantially perpendicular to an optical axis of the eye, said plurality of different planes intersecting the anterior surface, the posterior surface, and/or the interior region, b) detecting the fluorescent light and detecting and evaluating a Two Photon Excited Fluorescence imaging, TPEFi, signal, and a Second Harmonic Generation imaging, SHGi, signal, generated by nonlinear optical processes from the portion of the cornea (14,56,732) illuminated; c) determining the shape of the cornea and, using the TPEFi signal, determining a spatially resolved thickness measurement of the portion of the (14,56,732) illuminated from the detected fluorescent light; d) determining from the SHGi signal the three dimensional layered structure of corneal stroma tissue in the portion of the cornea (14,56,732) illuminated; e) deriving, from the detected signals, a spatial distribution of the refractive index n(x,y) inside the cornea and optical path lengths for the portion of the cornea (14,56,732) illuminated; f) using the derived optical path lengths to generate a map of the anterior surface, posterior surface and the interior region for the portion of the cornea (14,56,732) illuminated.
A method for supporting user plane integrity protection, UP IP, for communications with a radio access network, RAN, comprising: determining, by a processor of a wireless device, whether the wireless device supports UP IP for Evolved Universal Mobile Telecommunications System, UMTS, Terrestrial Radio Access, eUTRA, connections established between the wireless device and a RAN; generating, by the processor, a first security capability information element, IE, including a first UP IP support indication, wherein the first UP IP support indication indicates whether the wireless device supports UP IP for eUTRA connections established between the wireless device and the RAN; and sending, by the processor, the first security capability IE to a base station, wherein the first UP IP support indication is a bit setting in the first security capability IE, and wherein the bit setting also indicates that the wireless device supports the same maximum data rate capability for UP IP over eUTRA. determining, by a processor of a wireless device, whether the wireless device supports UP IP for Evolved Universal Mobile Telecommunications System, UMTS, Terrestrial Radio Access, eUTRA, connections established between the wireless device and a RAN; generating, by the processor, a first security capability information element, IE, including a first UP IP support indication, wherein the first UP IP support indication indicates whether the wireless device supports UP IP for eUTRA connections established between the wireless device and the RAN; and sending, by the processor, the first security capability IE to a base station, wherein the first UP IP support indication is a bit setting in the first security capability IE, and wherein the bit setting also indicates that the wireless device supports the same maximum data rate capability for UP IP over eUTRA.
A filter diaphragm for a filter plate assembly of a recessed plate -type filter, such as a filter press or a tower press, comprising a sheet-like body having a flexible structure, characterized by further comprising, at least on a side of the body, a plurality of distinct attachment studs to be inserted into corresponding distinct attachment holes of a respective filter plate for attaching the diaphragm to the filter plate, wherein the attachment studs are arranged along a sealing region extending along a periphery of the filter diaphragm, the sealing region being formed as a bead at least partly surrounding the remaining portion of the diaphragm body, wherein the attachment studs extend in a direction perpendicular to the diaphragm body, and wherein the attachment studs are equipped with an opening extending through the filter diaphragm, between the opposing sides thereof. characterized by further comprising, at least on a side of the body, a plurality of distinct attachment studs to be inserted into corresponding distinct attachment holes of a respective filter plate for attaching the diaphragm to the filter plate, wherein the attachment studs are arranged along a sealing region extending along a periphery of the filter diaphragm, the sealing region being formed as a bead at least partly surrounding the remaining portion of the diaphragm body, wherein the attachment studs extend in a direction perpendicular to the diaphragm body, and wherein the attachment studs are equipped with an opening extending through the filter diaphragm, between the opposing sides thereof.
A method by which a first device shares a page with a second device, the first device comprising a display unit configured to display a screen including a page of a device, the method comprising: receiving a plurality of pages from the second device; arranging a plurality of pages of the first device in a first array in a first direction and arranging the plurality of pages of the second device in a second array in the first direction, and arranging the first array and the second array in a second direction different to the first direction; displaying a screen including one of a page of the first device and a page of the second device; when a flick or drag of the displayed page in the second direction is received, removing the displayed page and displaying, on the screen, the other one of the page of the first device and the page of the second device; and when a flick or drag of the displayed page in the first direction is received, removing the displayed page and displaying, on the screen, another page of that device. receiving a plurality of pages from the second device; arranging a plurality of pages of the first device in a first array in a first direction and arranging the plurality of pages of the second device in a second array in the first direction, and arranging the first array and the second array in a second direction different to the first direction; displaying a screen including one of a page of the first device and a page of the second device; when a flick or drag of the displayed page in the second direction is received, removing the displayed page and displaying, on the screen, the other one of the page of the first device and the page of the second device; and when a flick or drag of the displayed page in the first direction is received, removing the displayed page and displaying, on the screen, another page of that device.
Method for determining reducing agent slippage from an exhaust-gas treatment device having: - an SCR catalytic converter; - a metering-in point for reducing agent, arranged upstream of the SCR catalytic converter in the exhaust-gas flow direction; - a device for determining a nitrogen oxide compound flow rate upstream of the SCR catalytic converter in the exhaust-gas flow direction; and - a second nitrogen oxide sensor downstream of the SCR catalytic converter in the exhaust-gas flow direction, wherein, for the device and the second nitrogen oxide sensor, reducing agent and nitrogen oxide compounds are not distinguishable, and wherein a quantity of reducing agent metered into the exhaust-gas treatment device is regulated by means of a regulating element which has an integral regulating component, and the method has at least the following steps: a) determining a difference between the sensor signals (3, 4) of the second nitrogen oxide sensor and of the device; b) determining a regulating deviation from the difference and a target value of the regulating element; d) determining a gradient of the integral regulating component; e) identifying reducing agent slippage if the regulating deviation exceeds a first threshold value and the gradient exceeds a second threshold value. - an SCR catalytic converter; - a metering-in point for reducing agent, arranged upstream of the SCR catalytic converter in the exhaust-gas flow direction; - a device for determining a nitrogen oxide compound flow rate upstream of the SCR catalytic converter in the exhaust-gas flow direction; and - a second nitrogen oxide sensor downstream of the SCR catalytic converter in the exhaust-gas flow direction, a) determining a difference between the sensor signals (3, 4) of the second nitrogen oxide sensor and of the device; b) determining a regulating deviation from the difference and a target value of the regulating element; d) determining a gradient of the integral regulating component; e) identifying reducing agent slippage if the regulating deviation exceeds a first threshold value and the gradient exceeds a second threshold value.
Adjustment device, comprising at least two blocks side by side which are movable with respect to one another in an extension direction and are intended to cooperate, directly or indirectly, with products of an industrial processing line, said adjustment device comprises a drive means, for adjusting the relative position of at least two blocks, said drive means comprising, for each pair of two successive blocks, a shaft which is mounted by one of its ends in one of the two blocks by being held there axially and free to rotate, and cooperates with the other block by threading at its other end, characterized in that it comprises at least three blocks which are connected to one another by shafts whose threading has the same pitch, the drive means ensuring the same driving of the shafts mounted between two successive blocks, wherein the drive means comprises a rotating rod which engages with the shafts.
A surgical instrument, comprising: a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member, wherein the motor is configured to translate the displacement member at a velocity, and wherein the velocity is set by a velocity mode; a display; and a control circuit coupled to the motor and the display, wherein the control circuit is configured to: cause the displacement member to translate a first distance; determine a first time period required for the displacement member to translate the first distance; cause the display to present a selection menu indicia that is indicative of the velocity mode, wherein the selection menu indicia displayed is limited by the first distance and the first time period; receive a user input corresponding to the velocity mode; and set the motor velocity based on the user input. a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member, wherein the motor is configured to translate the displacement member at a velocity, and wherein the velocity is set by a velocity mode; a display; and a control circuit coupled to the motor and the display, wherein the control circuit is configured to: cause the displacement member to translate a first distance; determine a first time period required for the displacement member to translate the first distance; cause the display to present a selection menu indicia that is indicative of the velocity mode, wherein the selection menu indicia displayed is limited by the first distance and the first time period; receive a user input corresponding to the velocity mode; and set the motor velocity based on the user input. cause the displacement member to translate a first distance; determine a first time period required for the displacement member to translate the first distance; cause the display to present a selection menu indicia that is indicative of the velocity mode, wherein the selection menu indicia displayed is limited by the first distance and the first time period; receive a user input corresponding to the velocity mode; and set the motor velocity based on the user input.
A method for determining a corrected wheel radius and/or a corrected wheel speed, respectively, of a motor vehicle comprising the following steps: • calculating a yaw rate of the motor vehicle ( ψ ̇ ^) by means of a wheel speed ( ν FL, ν FR, ν RL, ν RR) of at least one wheel (FL, FR, RL, RR) which is determined by means of a predefined wheel radius (r), • comparing the calculated yaw rate ( ψ ̇ ^) with a measured yaw rate ( ψ̇), characterized in that the following steps are provided: • adapting the wheel speed ( ν FL, ν FR, ν RL, ν RR), input in the calculation of the yaw rate, of the at least one wheel (FL, FR, RL, RR) by means of a respective correction factor ( k RR, k FR, k RL, k RR) assigned to the respective wheel (FL, FR, RL, RR) so that the calculated yaw rate ( ψ ̇ ^) is equal to the measured yaw rate (ψ̇), wherein the following measured values are input in the calculation of the respective correction factors ( k RR, k FR, k RL, k RR): the measured yaw rate (ψ̇) and the wheel steering angles of the steerable wheels ( δ FL, δ FR, δ RL, δ RR), • multiplying the respective correction factor ( k RR, k FR, k RL, k RR) with the predefined wheel radius (r) and/or the wheel speed ( ν FL, ν FR, ν RL, ν RR), input in the calculation of the yaw rate, for the determination of a corrected wheel radius and/or of a corrected wheel speed (ν FL,corr, ν FR,cor, ν FL,corr, ν RR,corr). • calculating a yaw rate of the motor vehicle ( ψ ̇ ^) by means of a wheel speed ( ν FL, ν FR, ν RL, ν RR) of at least one wheel (FL, FR, RL, RR) which is determined by means of a predefined wheel radius (r), • comparing the calculated yaw rate ( ψ ̇ ^) with a measured yaw rate ( ψ̇), • adapting the wheel speed ( ν FL, ν FR, ν RL, ν RR), input in the calculation of the yaw rate, of the at least one wheel (FL, FR, RL, RR) by means of a respective correction factor ( k RR, k FR, k RL, k RR) assigned to the respective wheel (FL, FR, RL, RR) so that the calculated yaw rate ( ψ ̇ ^) is equal to the measured yaw rate (ψ̇), wherein the following measured values are input in the calculation of the respective correction factors ( k RR, k FR, k RL, k RR): the measured yaw rate (ψ̇) and the wheel steering angles of the steerable wheels ( δ FL, δ FR, δ RL, δ RR), • multiplying the respective correction factor ( k RR, k FR, k RL, k RR) with the predefined wheel radius (r) and/or the wheel speed ( ν FL, ν FR, ν RL, ν RR), input in the calculation of the yaw rate, for the determination of a corrected wheel radius and/or of a corrected wheel speed (ν FL,corr, ν FR,cor, ν FL,corr, ν RR,corr).
An optical clock (100; 200; 300) comprising: a laser source comprising a laser oscillator (102; 202; 302) and modulating means (106; 203; 306) arranged to cooperate with the laser oscillator to produce phase-modulated radiation, an amplitude-modulator (112; 212; 312) arranged to cooperate with the laser source (102, 106; 202, 203; 302, 306) to produce a series of substantially periodically occurring optical clock pulses, and optical fibre (128; 228; 328) arranged to compress the optical clock pulses prior to them being output from the optical clock, wherein: the linewidth of the laser source (102, 106; 202, 203; 302, 306) is sufficient to inhibit stimulated Brillouin scattering SBS of the optical clock pulses within the optical fibre (128; 228; 328) and the modulating means (106; 203; 306) is arranged to provide phase-modulation at a frequency which is at least half the repetition frequency of the optical clock pulses output by the clock (100; 200; 300). a laser source comprising a laser oscillator (102; 202; 302) and modulating means (106; 203; 306) arranged to cooperate with the laser oscillator to produce phase-modulated radiation, an amplitude-modulator (112; 212; 312) arranged to cooperate with the laser source (102, 106; 202, 203; 302, 306) to produce a series of substantially periodically occurring optical clock pulses, and optical fibre (128; 228; 328) arranged to compress the optical clock pulses prior to them being output from the optical clock, wherein: the linewidth of the laser source (102, 106; 202, 203; 302, 306) is sufficient to inhibit stimulated Brillouin scattering SBS of the optical clock pulses within the optical fibre (128; 228; 328) and the modulating means (106; 203; 306) is arranged to provide phase-modulation at a frequency which is at least half the repetition frequency of the optical clock pulses output by the clock (100; 200; 300). the linewidth of the laser source (102, 106; 202, 203; 302, 306) is sufficient to inhibit stimulated Brillouin scattering SBS of the optical clock pulses within the optical fibre (128; 228; 328) and the modulating means (106; 203; 306) is arranged to provide phase-modulation at a frequency which is at least half the repetition frequency of the optical clock pulses output by the clock (100; 200; 300).
Electromechanical press for forming workpieces by deforming and/or cutting material from a sample, comprising: - a work table defining, in an orthonormal marker XYZ, an upper work plane P1, coinciding with the XZ plane of the marker, on which one or more samples to be formed can be arranged at one or more predetermined positions, and - a device for forming workpieces by deforming and/or cutting material from said samples arranged on the working plane of said table, the device for forming workpieces comprising a forming tool arranged so as to be movable in translation in a plane P2 perpendicular and secant to the working plane P1 of the table, and - an electromechanical actuating device for actuating the forming device, supported on a frame which is fixed in position relative to the working plane P1, the electromechanical actuating device being arranged in kinematic connection with the forming device in order to move said forming tool back and forth over a given stroke in the plane P2, the work table being integral with the frame, the electromechanical actuating device comprising at least one Torque-type electric motor with an eccentric axis (43d, 43g), arranged in kinematic connection with the forming device, characterised in that the electromechanical actuating device is supported on the frame in a position intersecting the plane P2 of movement of the forming device and located between a base of the frame on the floor and the work table under the work plane P1 while the forming tool is held in any position in or above the work plane P1 of the work table. - a work table defining, in an orthonormal marker XYZ, an upper work plane P1, coinciding with the XZ plane of the marker, on which one or more samples to be formed can be arranged at one or more predetermined positions, and - a device for forming workpieces by deforming and/or cutting material from said samples arranged on the working plane of said table, the device for forming workpieces comprising a forming tool arranged so as to be movable in translation in a plane P2 perpendicular and secant to the working plane P1 of the table, and - an electromechanical actuating device for actuating the forming device, supported on a frame which is fixed in position relative to the working plane P1, the electromechanical actuating device being arranged in kinematic connection with the forming device in order to move said forming tool back and forth over a given stroke in the plane P2, the work table being integral with the frame,
A method of manufacturing a pipe, which method comprises cold-gas dynamic spraying of particles onto a mandrel thereby producing a pipe, and separating the pipe from the mandrel, wherein the external surface of the mandrel defines the internal surface of the pipe, wherein the mandrel has a coefficient of thermal expansion that is greater than the coefficient of thermal expansion of the pipe being manufactured and wherein separation of the pipe from the mandrel takes place by contraction of the mandrel away from the pipe.