mhurhangee/ep-ind-claims huggingface dataset:
Torque sensor unit for measuring a torque introduced into an upper steering shaft of a motor vehicle, wherein the upper steering shaft can be connected to a lower steering shaft via a torsion bar, wherein the torque sensor unit has two inductive sensors (13, 14), wherein a first inductive sensor can be connected to the upper steering shaft for measuring the rotational position of the upper steering shaft and a second inductive sensor can be connected to the lower steering shaft for measuring the rotational position of the lower steering shaft, and wherein an evaluation unit is designed to process the signals of the two inductive sensors (13, 14) and to calculate the torque therefrom by means of the angular difference existing between the rotational positions of the two steering shafts (3, 4), characterized in that the inductive sensors (13, 14) has in each case a carrier plate (15, 15') which can be connected to the corresponding steering shaft (3, 4) in a rotationally fixed manner and a printed circuit board (18, 18') which is spatially fixed with respect to the carrier plate (15, 15'), a single electrically conductive track (19, 19') being provided on the carrier plate (15, 15') and a sensing device (16, 16') with two coils (80, 81, 80', 81') being provided on the printed circuit board (18, 18') with two coils (80, 81, 80', 81'), which are part of a resonant circuit, are arranged on the printed circuit board (18, 18'), the two coils (80, 81, 80', 81') being arranged at an angle of 90 degrees to one another, and the sensing device (16, 16') being designed to sense the electrically conductive track (19, 19') in order to generate an angle-dependent sensor signal when the corresponding steering shaft (3, 4) rotates.
A work vehicle capable of traveling on a public road and in a working field, the work vehicle comprising: a vehicle body; a ROPS frame having a gate-like shape whose lower end is coupled to the vehicle body, wherein the ROPS frame has a top portion to which a satellite positioning module, which includes an antenna for receiving satellite radio waves, and a surrounding image generation unit, configured to generate a surrounding image relative to the vehicle body are attached, a public road traveling determination unit configured to determine based on vehicle body position information whether or not the vehicle body is traveling on the public road, and output a determination result; and a vehicle speed limiter configured to limit a vehicle speed in accordance with the determination result; and a surrounding public road information generator configured to generate, as vehicle body position information regarding a position at which the vehicle body is located, surrounding public road information indicating a positional relationship between the vehicle body and the public road that is recognized within the surrounding image based on the surrounding image. a vehicle body; a ROPS frame having a gate-like shape whose lower end is coupled to the vehicle body, wherein the ROPS frame has a top portion to which a satellite positioning module, which includes an antenna for receiving satellite radio waves, and a surrounding image generation unit, configured to generate a surrounding image relative to the vehicle body are attached, a public road traveling determination unit configured to determine based on vehicle body position information whether or not the vehicle body is traveling on the public road, and output a determination result; and a vehicle speed limiter configured to limit a vehicle speed in accordance with the determination result; and a surrounding public road information generator configured to generate, as vehicle body position information regarding a position at which the vehicle body is located, surrounding public road information indicating a positional relationship between the vehicle body and the public road that is recognized within the surrounding image based on the surrounding image.
A method for dynamic transmission rate control of a communication device, which is connectable to at least two different access networks (200a, 200b, 200c), comprising the steps of a) establishing a data connection between the communication device and a destination node, b) routing through each of said different access networks (200a, 200b, 200c) a separate data flow associated with said data connection, wherein the transmission rate of each data flow is separately adjustable, c) estimating for each access network (200a, 200b, 200c) the available bandwidth for data transmission, d) calculating for each access network (200a, 200b, 200c) a control value depending on the estimated available bandwidth of the respective access network (200a, 200b, 200c), and e) adjusting for each of said different access.networks (200a, 200b, 200c) the transmission rate for the respective data flow depending on the respective control value, wherein steps c) to e) are performed repeatedly at predefined times, wherein a feedback control for adjusting the transmission rate for each of said different access networks (200a, 200b, 200c) is established by repeatedly performing steps c) to e), wherein said feedback control is an H ∞ -optimal control adapted to minimize a pre-defined cost functional and said control value is determined by means of an H ∞ -controller. a) establishing a data connection between the communication device and a destination node, b) routing through each of said different access networks (200a, 200b, 200c) a separate data flow associated with said data connection, wherein the transmission rate of each data flow is separately adjustable, c) estimating for each access network (200a, 200b, 200c) the available bandwidth for data transmission, d) calculating for each access network (200a, 200b, 200c) a control value depending on the estimated available bandwidth of the respective access network (200a, 200b, 200c), and e) adjusting for each of said different access.networks (200a, 200b, 200c) the transmission rate for the respective data flow depending on the respective control value,
A compound of formula or a physiologically acceptable salt thereof for use in treating or preventing congenital heart failure, myocardial infarction, post infarction heart failure, congestive heart failure, reperfusion damage, dilated cardiomyopathy or arrhythmia: wherein L 1, L 2 and L 3 independently denote C 1 -C 4 -alkylene optionally substituted with one phenyl; Ar 1, Ar 2 and Ar 3 independently denote a phenyl optionally substituted with one R; R independently denotes F, Cl, Br, I, C 1 -C 4 -haloalkyl, OR 1, SR 1, NO 2, NR 2 R 3, C(=O)Y, SO 3 H, C 1 -C 4 -alkyl, C 1 -C 4 -alkyl-phenyl, or a phenyl substituted with a 5-membered heteroaryl; R 1 denotes H, or C 1 -C 4 -alkyl; R 2 and R 3 independently denote H or C 1 -C 4 -alkyl; Y denotes OR 5 or NR 6 R 7; R 5 denotes H or C 1 -C 4 -alkyl; and R 6 and R 7 independently denote H, C 1 -C 8 -alkyl or C 3 -C 6 cycloalkyl. L 1, L 2 and L 3 independently denote C 1 -C 4 -alkylene optionally substituted with one phenyl; Ar 1, Ar 2 and Ar 3 independently denote a phenyl optionally substituted with one R; R independently denotes F, Cl, Br, I, C 1 -C 4 -haloalkyl, OR 1, SR 1, NO 2, NR 2 R 3, C(=O)Y, SO 3 H, C 1 -C 4 -alkyl, C 1 -C 4 -alkyl-phenyl, or a phenyl substituted with a 5-membered heteroaryl; R 1 denotes H, or C 1 -C 4 -alkyl; R 2 and R 3 independently denote H or C 1 -C 4 -alkyl; Y denotes OR 5 or NR 6 R 7; R 5 denotes H or C 1 -C 4 -alkyl; and R 6 and R 7 independently denote H, C 1 -C 8 -alkyl or C 3 -C 6 cycloalkyl.
A metal nitride material for a thermistor, consisting of a metal nitride represented by the general formula: Ti x Al y (N 1-w O w) z where 0.70 ≤ y/(x+y) ≤ 0.95, 0.45 ≤ z ≤ 0.55, 0 < w ≤ 0.35, and x+y+z = 1, wherein the crystal structure thereof is a hexagonal wurtzite-type single phase.
A medical system, comprising: a catheter configured to be inserted into a chamber of a heart, and including electrodes configured to capture electrical activity of tissue of the chamber over time; a display; and processing circuitry configured to: compute a propagation of a cardiac activation wave over an anatomical map of the chamber of the heart from a start time in a cardiac cycle to an end time in the cardiac cycle responsively to the captured electrical activity; characterised in that said processing circuitry is further configured to render to the display respective portions of the propagation of the cardiac activation wave over respective portions of the anatomical map as viewed from a virtual camera while manipulating the virtual camera to follow progression of the propagation of the cardiac activation wave over the anatomical map. a catheter configured to be inserted into a chamber of a heart, and including electrodes configured to capture electrical activity of tissue of the chamber over time; a display; and processing circuitry configured to: compute a propagation of a cardiac activation wave over an anatomical map of the chamber of the heart from a start time in a cardiac cycle to an end time in the cardiac cycle responsively to the captured electrical activity; characterised in that said processing circuitry is further configured to render to the display respective portions of the propagation of the cardiac activation wave over respective portions of the anatomical map as viewed from a virtual camera while manipulating the virtual camera to follow progression of the propagation of the cardiac activation wave over the anatomical map. compute a propagation of a cardiac activation wave over an anatomical map of the chamber of the heart from a start time in a cardiac cycle to an end time in the cardiac cycle responsively to the captured electrical activity; characterised in that said processing circuitry is further configured to render to the display respective portions of the propagation of the cardiac activation wave over respective portions of the anatomical map as viewed from a virtual camera while manipulating the virtual camera to follow progression of the propagation of the cardiac activation wave over the anatomical map.
A washing machine comprising - a rotary drum in which cloth items are placeable and accessible via a front door, - a water tub in which the rotary drum is rotatable, - a motor providing said rotary drum to be driven by means of a pulley mechanism, the latter disposed outside the tub, - a pump along a circulation pipe drawing wash water stored in said water tub and delivering pressured water to a front door nozzle via a nozzle water conduit, wherein said front door nozzle - is arranged to jet wash water to an inner surface of the front door, - has a tubular nozzle body in fluid communication with the nozzle water conduit and a nozzle aperture disposed at the one end of said nozzle body, - has a directional flow control means in the form of an upright wall element that is formed on an internal base of the nozzle aperture for diverting water flow to the front door, characterized that the directional flow control means is shaped as a right trapezoid extending radially on the circular-form internal base with the adjacent right angles of the trapezoid lying at the radially remote end from the center of the internal base and wherein the directional flow control means has an inclined surface at which water strikes the same whereby said inclined surface with respect to the internal base helps avoiding blockage of water flow. - a rotary drum in which cloth items are placeable and accessible via a front door, - a water tub in which the rotary drum is rotatable, - a motor providing said rotary drum to be driven by means of a pulley mechanism, the latter disposed outside the tub, - a pump along a circulation pipe drawing wash water stored in said water tub and delivering pressured water to a front door nozzle via a nozzle water conduit, wherein said front door nozzle - is arranged to jet wash water to an inner surface of the front door, - has a tubular nozzle body in fluid communication with the nozzle water conduit and a nozzle aperture disposed at the one end of said nozzle body, - has a directional flow control means in the form of an upright wall element that is formed on an internal base of the nozzle aperture for diverting water flow to the front door, characterized that the directional flow control means is shaped as a right trapezoid extending radially on the circular-form internal base with the adjacent right angles of the trapezoid lying at the radially remote end from the center of the internal base and wherein the directional flow control means has an inclined surface at which water strikes the same whereby said inclined surface with respect to the internal base helps avoiding blockage of water flow.
Battery cell for prestressed battery modules, the battery cell including a cell housing; wherein the cell housing is of cambered design; a chemicals carrier; wherein the chemicals carrier is arranged in the cell housing; characterized in that the battery cell further includes a foamed material; wherein the foamed material is arranged between the cell housing and the chemicals carrier.
An input device (4; 4'; 4") for detecting vibrations in a solid body when the input device (4; 4'; 4") is in contact with a surface of said solid body, the device comprising: a main housing (16; 16"); a plurality of sensor units mounted in the main housing (16; 16"), each sensor unit comprising a sensor housing and an optical vibration sensor (2; 2'; 2"; 402; 500) mounted in the sensor housing, wherein each optical vibration sensor (2; 2'; 2"; 402; 500) comprises: a diffractive optical element; a light source arranged to illuminate said diffractive optical element such that a first portion of light passes through the diffractive optical element and a second portion of light is reflected from the diffractive optical element; and a photo detector arranged to detect an interference pattern generated by said first and second portions (32, 30) of light; wherein the optical vibration sensor (2; 2'; 2"; 402; 500) is configured so that in use, after the first portion of light passes through the diffractive optical element, the first portion of light is reflected from a reflective surface onto the photo detector; wherein the average density of each sensor housing is higher than the average density of the portion of the main housing (16; 16") connecting the sensors (2; 2'; 2"; 402; 500). a main housing (16; 16"); a plurality of sensor units mounted in the main housing (16; 16"), each sensor unit comprising a sensor housing and an optical vibration sensor (2; 2'; 2"; 402; 500) mounted in the sensor housing, wherein each optical vibration sensor (2; 2'; 2"; 402; 500) comprises: a diffractive optical element; a light source arranged to illuminate said diffractive optical element such that a first portion of light passes through the diffractive optical element and a second portion of light is reflected from the diffractive optical element; and a photo detector arranged to detect an interference pattern generated by said first and second portions (32, 30) of light; a diffractive optical element; a light source arranged to illuminate said diffractive optical element such that a first portion of light passes through the diffractive optical element and a second portion of light is reflected from the diffractive optical element; and a photo detector arranged to detect an interference pattern generated by said first and second portions (32, 30) of light; wherein the optical vibration sensor (2; 2'; 2"; 402; 500) is configured so that in use, after the first portion of light passes through the diffractive optical element, the first portion of light is reflected from a reflective surface onto the photo detector; wherein the average density of each sensor housing is higher than the average density of the portion of the main housing (16; 16") connecting the sensors (2; 2'; 2"; 402; 500).
A system to determine impending oscillatory instabilities in a device, the system comprising: a measuring device configured to generate at least one signal corresponding to dynamics in the device; an instability detection unit provided in communication with the measuring device; an amplitude estimation unit provided in communication with the instability detection unit and the measuring device, configured to estimate an amplitude of the impending oscillatory instabilities, wherein the instability detection unit diagnoses an onset of instabilities based on at least one of 0-1 test, Burst count test and Hurst exponent test before an onset of oscillatory instabilities or smooth variations in parameters as the device approaches the impending oscillatory instabilities, wherein the at least one of 0-1 test, Burst count test and Hurst exponent test utilizes the amplitude of the impending oscillatory instabilities estimated by the amplitude estimation unit; and a control unit provided in communication with at least one of the measuring device, the instability detection unit and the amplitude estimation unit, wherein the instability detection unit is configured to generate control signal corresponding to onset of the impending oscillatory instabilities; and the control unit is configured to control the oscillatory instabilities that proceed through the intermittent bursts based on the control signal. a measuring device configured to generate at least one signal corresponding to dynamics in the device; an instability detection unit provided in communication with the measuring device; an amplitude estimation unit provided in communication with the instability detection unit and the measuring device, configured to estimate an amplitude of the impending oscillatory instabilities, wherein the instability detection unit diagnoses an onset of instabilities based on at least one of 0-1 test, Burst count test and Hurst exponent test before an onset of oscillatory instabilities or smooth variations in parameters as the device approaches the impending oscillatory instabilities, wherein the at least one of 0-1 test, Burst count test and Hurst exponent test utilizes the amplitude of the impending oscillatory instabilities estimated by the amplitude estimation unit; and a control unit provided in communication with at least one of the measuring device, the instability detection unit and the amplitude estimation unit, wherein the instability detection unit is configured to generate control signal corresponding to onset of the impending oscillatory instabilities; and the control unit is configured to control the oscillatory instabilities that proceed through the intermittent bursts based on the control signal.
A wear member for attachment to excavating equipment comprising: a front end; a rear end; a socket that opens in the rear end to receive a base fixed to the excavating equipment and has a longitudinal axis; and a plurality of first stabilizing surfaces and a plurality of second stabilizing surface, each of the first and second stabilizing surfaces (70, 72) being near the rear end and axially extending substantially parallel to the longitudinal axis to bear against a complementary surface on the base, the first stabilizing surfaces facing generally downward and the second of the stabilizing surfaces facing generally upward, the first and second stabilizing surfaces (70, 72) being laterally offset from each other; characterized in that the surfaces vertically opposed to the second stabilizing surfaces do not axially extend substantially parallel to the longitudinal axis. a front end; a rear end; a socket that opens in the rear end to receive a base fixed to the excavating equipment and has a longitudinal axis; and a plurality of first stabilizing surfaces and a plurality of second stabilizing surface, each of the first and second stabilizing surfaces (70, 72) being near the rear end and axially extending substantially parallel to the longitudinal axis to bear against a complementary surface on the base, the first stabilizing surfaces facing generally downward and the second of the stabilizing surfaces facing generally upward, the first and second stabilizing surfaces (70, 72) being laterally offset from each other; characterized in that the surfaces vertically opposed to the second stabilizing surfaces do not axially extend substantially parallel to the longitudinal axis.
An electronic device comprising a protective sheet, wherein the protective sheet comprises a multilayer structure comprising a base and a layer stacked on the base, the layer comprises a metal oxide, a phosphorus compound, and cations with an ionic charge (F Z) of 1 or more and 3 or less, the phosphorus compound comprises a compound containing a moiety capable of reacting with the metal oxide, the number of moles (N M) of metal atoms constituting the metal oxide and the number of moles (N P) of phosphorus atoms derived from the phosphorus compound satisfy a relationship of 0.8 ≤ N M /N P ≤ 4.5 in the layer, the number of moles (N M), the number of moles (Nz) of the cations, and the ionic charge (F Z) satisfy a relationship of 0.001 ≤ F Z × N Z /N M ≤ 0.60 in the layer, the cations comprise at least one selected from the group consisting of lithium ions, sodium ions, potassium ions, magnesium ions, calcium ions, titanium ions, zirconium ions, lanthanoid ions, vanadium ions, manganese ions, iron ions, cobalt ions, nickel ions, copper ions, zinc ions, boron ions, aluminum ions, and ammonium ions, the metal atoms comprise at least one selected from the group consisting of aluminum, titanium, and zirconium, the layer comprises a reaction product formed by a reaction between the metal oxide and the phosphorus compound, and in an infrared absorption spectrum of the layer, a maximum absorption wavenumber in a region of 800 to 1,400 cm -1 is 1,080 to 1,130 cm -1.