mhurhangee/ep-ind-claims huggingface dataset:
A safety valve comprising: - at least one nozzle provided with at least one inlet and at least one outlet for fluids; - at least one stopper to close said outlet of said nozzle, said stopper having at least one annular portion arranged enveloping at least one portion of the side walls of said nozzle near said outlet; - at least one elastic element acting on at least said stopper to counteract its rising up from said nozzle; - sealing means to seal said stopper with said nozzle, characterized in that said sealing means comprise at least one first gasket and at least one second gasket spaced by a predefined distance and interposed between said portion of said side walls of said nozzle and said annular portion of said stopper to identify a first sealing area proximal to said outlet and a second sealing area distal, the rising up due to over-pressure of said stopper from said nozzle defining at least three operating configurations: - at least one first configuration in which both said sealing areas (40, 41) are working, said gaskets (36, 37) being in contact with both said portion of said side walls of said nozzle and said annular portion of said stopper; - at least one second configuration in which only said second sealing area is working, only said second gasket being in contact with both said portion of said side walls of said nozzle and said annular portion of said stopper; - at least a third configuration in which none of said sealing areas (40, 41) is working, said cover, said gaskets (36, 37) and said nozzle allowing the hydraulic continuity between said outlet of said nozzle and the outside, the positioning of said first gasket allowing to fix the transition instant, during the movement between said nozzle and said annular portion of said stopper, of said valve from said first configuration to said second configuration. - at least one nozzle provided with at least one inlet and at least one outlet for fluids; - at least one stopper to close said outlet of said nozzle, said stopper having at least one annular portion arranged enveloping at least one portion of the side walls of said nozzle near said outlet; - at least one elastic element acting on at least said stopper to counteract its rising up from said nozzle; - sealing means to seal said stopper with said nozzle, - at least one first configuration in which both said sealing areas (40, 41) are working, said gaskets (36, 37) being in contact with both said portion of said side walls of said nozzle and said annular portion of said stopper; - at least one second configuration in which only said second sealing area is working, only said second gasket being in contact with both said portion of said side walls of said nozzle and said annular portion of said stopper; - at least a third configuration in which none of said sealing areas (40, 41) is working, said cover, said gaskets (36, 37) and said nozzle allowing the hydraulic continuity between said outlet of said nozzle and the outside,
Method for testing a voltage transformer, comprising the steps a) emulating the voltage transformer by means of an equivalent circuit, b) applying a test signal to the voltage transformer, c) detecting a test response of the voltage transformer in dependence on the test signal and automatically determining values for components of the equivalent circuit in dependence on the test response of the voltage transformer, d) automatically determining an equivalent-circuit -related accuracy of the voltage transformer on the basis of the test response and on the basis of equivalent circuit thus provided with the values for the components, and e) automatically determining an operating-condition-related accuracy of the voltage transformer from the equivalent-circuit -related accuracy, wherein in step d), an equivalent-circuit -related voltage deviation and/or an equivalent-circuit -related phase displacement of the voltage transformer are determined for different burdens, operating voltages and/or operating frequencies of the voltage transformer, and are converted in step e) into a corresponding voltage deviation or a corresponding phase displacement for corresponding operating conditions of the voltage transformer. a) emulating the voltage transformer by means of an equivalent circuit, b) applying a test signal to the voltage transformer, c) detecting a test response of the voltage transformer in dependence on the test signal and automatically determining values for components of the equivalent circuit in dependence on the test response of the voltage transformer, d) automatically determining an equivalent-circuit -related accuracy of the voltage transformer on the basis of the test response and on the basis of equivalent circuit thus provided with the values for the components, and e) automatically determining an operating-condition-related accuracy of the voltage transformer from the equivalent-circuit -related accuracy, wherein in step d), an equivalent-circuit -related voltage deviation and/or an equivalent-circuit -related phase displacement of the voltage transformer are determined for different burdens, operating voltages and/or operating frequencies of the voltage transformer, and are converted in step e) into a corresponding voltage deviation or a corresponding phase displacement for corresponding operating conditions of the voltage transformer.
Device for disinfecting, sterilizing and/or maintaining medical, especially dental, instruments, said device having • a maintenance and cleaning chamber for receiving instruments that are to be conditioned, and • means for supplying different cleaning or maintenance media for cleaning, disinfecting or sterilizing and/or maintaining the instruments in successive steps, wherein the start times for the conditioning cycles for the various instruments are staggered, characterized in that the device has an electronic control unit which is connected to flow sensors (14, 15), wherein the control unit is designed to allow the conditioning cycles to run in a manner superposed in time. • a maintenance and cleaning chamber for receiving instruments that are to be conditioned, and • means for supplying different cleaning or maintenance media for cleaning, disinfecting or sterilizing and/or maintaining the instruments in successive steps,
An aerosol delivery device, comprising: a control body; a cartridge, comprising: a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc, the flavor disc including two or more separate sections (572, 575), wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and an atomizer configured to receive the aerosol precursor composition and produce an aerosol, wherein at least one of the masking disc or the flavor disc is configured to be rotated relative to the other to align the opening of the masking disc with a selected section of the flavor disc so as to allow the aerosol precursor composition to flow from the reservoir tank through the opening of the masking disc and the selected section of the flavor disc to the atomizer such that, when the flavor section is selected, the flavorant is imparted to the aerosol precursor composition delivered to the atomizer. a control body; a cartridge, comprising: a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc, the flavor disc including two or more separate sections (572, 575), wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc, the flavor disc including two or more separate sections (572, 575), wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and an atomizer configured to receive the aerosol precursor composition and produce an aerosol, wherein at least one of the masking disc or the flavor disc is configured to be rotated relative to the other to align the opening of the masking disc with a selected section of the flavor disc so as to allow the aerosol precursor composition to flow from the reservoir tank through the opening of the masking disc and the selected section of the flavor disc to the atomizer such that, when the flavor section is selected, the flavorant is imparted to the aerosol precursor composition delivered to the atomizer.
A mounting device, comprising: a main body portion; a pair of mounting grips configured to movably connect to the main body from a first position substantially against the body, and a second position away from the main body, the grips in the second position configured to grip and hold a secondary accessory in position on the mounting device; the main body portion configured to connect to a vehicle fork steerer tube; characterised in that each of the mounting grips comprises a carriage (5a, 5) and a flap, the carriages and main body portion configured so that the flaps can rotate from the first position where the flaps are arranged to cover the top surface of the main body, substantially through 90 degrees to an open position where the flaps are rotated upright, the mounting grips further comprising a spring adapted to hold the flap in the first position and the open position. a main body portion; a pair of mounting grips configured to movably connect to the main body from a first position substantially against the body, and a second position away from the main body, the grips in the second position configured to grip and hold a secondary accessory in position on the mounting device; the main body portion configured to connect to a vehicle fork steerer tube; characterised in that each of the mounting grips comprises a carriage (5a, 5) and a flap, the carriages and main body portion configured so that the flaps can rotate from the first position where the flaps are arranged to cover the top surface of the main body, substantially through 90 degrees to an open position where the flaps are rotated upright, the mounting grips further comprising a spring adapted to hold the flap in the first position and the open position.
A circuit of a frequency divider arranged to divide a frequency of an input clock signal (Clk in) by odd integer N, comprising: a shift register comprising a number of N+1 clock gating cells (100, 400.0 to 400.7) being connected in series to each other and a shift logic, wherein an input clock signal (Clk in) is fed into clock signal inputs (ck) of each one of the number of N+1 clock gating cells (100, 400.0 to 400.7), wherein the shift logic configured to receive enable signals (clk.0,..., clk.4) from a set of the number of N+1 clock gating cells (100, 400.0 to 400.4) and to generate a feedback signal (F back), which is supplied to a gate enable input (g) of the first one of the number of N+1 clock gating cells (100, 400.0 to 400.7); a multiplexer configured to receive at input ports (Mux.0 to Mux.7) N+1 gated clock signals (g_clk.0 to g_clk.7) and to output a rotation clock signal (Clk rot), which has a frequency of 2/N of the frequency of the input clock signal; a multiplexer control logic configured to receive the rotation clock signal (Clk rot) and to control a selective connection of one of the input ports (Mux. 0 to Mux.7) to the output of the multiplexer based on the rotation clock signal (Clk rot), and a frequency generator configured to receive the rotation clock signal (Clk rot) and to generate an output clock signal (Clk ou t) having a frequency of 1/N. a shift register comprising a number of N+1 clock gating cells (100, 400.0 to 400.7) being connected in series to each other and a shift logic, wherein an input clock signal (Clk in) is fed into clock signal inputs (ck) of each one of the number of N+1 clock gating cells (100, 400.0 to 400.7), wherein the shift logic configured to receive enable signals (clk.0,..., clk.4) from a set of the number of N+1 clock gating cells (100, 400.0 to 400.4) and to generate a feedback signal (F back), which is supplied to a gate enable input (g) of the first one of the number of N+1 clock gating cells (100, 400.0 to 400.7); a multiplexer configured to receive at input ports (Mux.0 to Mux.7) N+1 gated clock signals (g_clk.0 to g_clk.7) and to output a rotation clock signal (Clk rot), which has a frequency of 2/N of the frequency of the input clock signal; a multiplexer control logic configured to receive the rotation clock signal (Clk rot) and to control a selective connection of one of the input ports (Mux. 0 to Mux.7) to the output of the multiplexer based on the rotation clock signal (Clk rot), and a frequency generator configured to receive the rotation clock signal (Clk rot) and to generate an output clock signal (Clk ou t) having a frequency of 1/N.
A rolling bearing with two bearing rings (2, 3) and rolling elements running between same, and a sensor for detecting relative movements and positions of the bearing rings (2, 3) relative to one another, wherein the sensor is provided for determining axial movements and positions of the bearing rings (2, 3), is fastened to one of the bearing rings and is directed towards a measurement surface on a circumferential surface of the other bearing ring, characterized in that said measurement surface comprises a sharp-edged contour projection projecting towards the sensor which extends along said circumferential surface perpendicular to the axis of rotation of the bearing and projects in radial direction from said circumferential surface and which influences the measurement signal of the sensor and the movement of which relative to the sensor transverse to the main signal direction of the sensor modifies the measurement signal of the sensor.
A biaxial magnetoresistive angle sensor, comprising: two orthogonal single-axis magnetoresistive angle sensors for detecting an external magnetic field in an X-axis direction and a Y-axis direction that are perpendicular to each other, a unit configured to calculate a measured vector magnitude of the outputs of the single-axis magnetoresistive angle sensor along the X-axis and the Y-axis in real time, a unit configured to calculate a difference between a known calibration vector magnitude and the measured vector magnitude, a unit configured to divide the difference by the square root of 2 in order to calculate an error signal, a unit configured to add the error signal to the X-axis output and the Y-axis output respectively or subtract the error signal from the X-axis output and the Y-axis output in order to calculate the calibrated output signals of the X-axis and the Y-axis angle sensors, and a unit configured to calculate an arc tangent of a factor obtained by dividing the calibrated Y-axis output signal by the calibrated X-axis output signal to provide a rotation angle of the external magnetic field. two orthogonal single-axis magnetoresistive angle sensors for detecting an external magnetic field in an X-axis direction and a Y-axis direction that are perpendicular to each other, a unit configured to calculate a measured vector magnitude of the outputs of the single-axis magnetoresistive angle sensor along the X-axis and the Y-axis in real time, a unit configured to calculate a difference between a known calibration vector magnitude and the measured vector magnitude, a unit configured to divide the difference by the square root of 2 in order to calculate an error signal, a unit configured to add the error signal to the X-axis output and the Y-axis output respectively or subtract the error signal from the X-axis output and the Y-axis output in order to calculate the calibrated output signals of the X-axis and the Y-axis angle sensors, and a unit configured to calculate an arc tangent of a factor obtained by dividing the calibrated Y-axis output signal by the calibrated X-axis output signal to provide a rotation angle of the external magnetic field.
Cover assembly and blade mount housed by the cover assembly, wherein the blade mount is configured to couple a blade to a rotatable shaft, the blade mount comprising a latch assembly to secure the at least one blade within a blade reception channel of the blade mount, characterized in that the cover assembly comprises a side wall extending around a periphery of the cover assembly to form a cavity in which the blade mount is provided, the side wall extending substantially around a periphery of the blade mount, wherein the cover assembly further comprises a cover base proximate to the shaft, and a cover top, wherein the cover top is configured to pivot relative to the cover base between an open position and a closed position and, in the closed position, engage the cover base via a cover latch assembly (320, 320'), wherein the cover latch assembly (320,320') is disposed proximate to a periphery of the cover assembly at an opposite side of the cover assembly relative to a pivot assembly about which the cover top pivots relative to the cover base, and wherein the pivot assembly comprises a first bracket supporting a pivot hook, wherein the cover latch assembly (320, 320') is supported by a second bracket, and wherein the first and second brackets (422, 434) combine to hold the blade mount within the cover base.
An ice panel for a fan case of a gas turbine engine, comprising: a facesheet and an underlying honeycomb core, characterized in that the facesheet is formed of a chopped prepreg tape that is cured, the chopped prepreg tape comprising randomly oriented chips of fibers and a resin matrix impregnated in the randomly oriented chips of fibers. a facesheet and an underlying honeycomb core, characterized in that the facesheet is formed of a chopped prepreg tape that is cured, the chopped prepreg tape comprising randomly oriented chips of fibers and a resin matrix impregnated in the randomly oriented chips of fibers.
A cassette comprising: an intake reservoir for receiving a volume of a sample of a radiopharmaceutical; analysis components (1006, 1008, 1010, 1012, 1014) for conducting a pH test, a limulus amebocyte lysate test, a radiochemical purity analysis test, a K222 test, and a visual appearance test; fluidic flow paths (1003a, 1003b, 1003c, 1003d, 1003e) fluidically coupling the intake reservoir and each of the analysis components; the cassette further being disposable and configured to operatively interface with an external system comprising an interrogator to enable conduct of at least the radiochemical purity test. an intake reservoir for receiving a volume of a sample of a radiopharmaceutical; analysis components (1006, 1008, 1010, 1012, 1014) for conducting a pH test, a limulus amebocyte lysate test, a radiochemical purity analysis test, a K222 test, and a visual appearance test; fluidic flow paths (1003a, 1003b, 1003c, 1003d, 1003e) fluidically coupling the intake reservoir and each of the analysis components; the cassette further being disposable and configured to operatively interface with an external system comprising an interrogator to enable conduct of at least the radiochemical purity test.
A method for filtering circular data, the method comprising: receiving a plurality of input data samples being angles on a circle; computing a locus of the input data samples wherein the locus is an angle on the circle around which the input data samples are to be normalized; computing the distance between a current input data sample and the locus and comparing it with a maximum permissible value, wherein the maximum permissible value is +/- 180 degrees; if the result of the comparison exceeds the maximum permissible value, initially normalizing the value of the current input data sample by bringing it within a range centered on the locus by adding or subtracting 360 degrees to the current input sample to bring it within +/- 180 degrees of the locus; after normalizing the value of the current input sample, passing the resulting input data samples through a distance-based filter and generating an output value of the distance-based filter; comparing the output value of the distance-based filter with a maximum permissible value; and if the result of the comparison exceeds the maximum permissible value, normalizing the output value of the distance-based filter by bringing it within a predetermined output range by adding or subtracting 360 degrees to the filter output value to remain within a predetermined output range of +/- 180 degrees. receiving a plurality of input data samples being angles on a circle; computing a locus of the input data samples wherein the locus is an angle on the circle around which the input data samples are to be normalized; computing the distance between a current input data sample and the locus and comparing it with a maximum permissible value, wherein the maximum permissible value is +/- 180 degrees; if the result of the comparison exceeds the maximum permissible value, initially normalizing the value of the current input data sample by bringing it within a range centered on the locus by adding or subtracting 360 degrees to the current input sample to bring it within +/- 180 degrees of the locus; after normalizing the value of the current input sample, passing the resulting input data samples through a distance-based filter and generating an output value of the distance-based filter; comparing the output value of the distance-based filter with a maximum permissible value; and if the result of the comparison exceeds the maximum permissible value, normalizing the output value of the distance-based filter by bringing it within a predetermined output range by adding or subtracting 360 degrees to the filter output value to remain within a predetermined output range of +/- 180 degrees.
An implant for fracture treatment comprising an elongate and in particular substantially rotationally symmetrical base body (20; 52; 62; 84; 96) which is configured as an implant shaft to ensure the structural stability of the implant such that bone fragments can be fixed to one another during the fracture healing; and an anchorage section (10, 54, 60, 92), wherein the anchorage section has an outer surface of a porous material at least in part, and wherein the anchorage section is arranged in an axial end region of the implant and is releasably connectable to the base body, wherein the base body is directly releasably connected to the anchorage section by a screw connection or the anchorage section comprises a substrate at whose outer side the porous material is arranged and is non-releasably connected to the substrate and said substrate has means for the releasable fixing to the base body.