mhurhangee/ep-ind-claims huggingface dataset:
Mounting arrangement for mounting a test device holder on a force measuring device, with - a test device holder, and - a slide part which is displaceably arrangeable or displaceably arranged on a force measuring tower of a force measuring device in the vertical direction of the force measuring tower, wherein - the test device holder comprises at least one position determining element and the slide part comprises at least one counter position determining element, wherein - the position determining element and the counter position determining element are adapted to determine a position of the test device holder relative to the slide part in at least one direction selected from a vertical direction of the force measuring tower and a direction perpendicular to the vertical direction, and at the same time to permit rotation of the test device holder relative to the slide part about an axis of rotation defined by the position determining element and/or the counter position determining element, wherein - the test device holder comprises a first angle adjustment device and the slide part comprises a second angle adjustment device adapted to adjust and preferably fix an angle of the test device holder relative to the slide part about the axis of rotation, and wherein - the test device holder comprises at least one fixing element and the slide part comprises at least one counter fixing element, wherein - the fixing element and the counter fixing element are adapted to fix the test device holder to the slide part. - a test device holder, and - a slide part which is displaceably arrangeable or displaceably arranged on a force measuring tower of a force measuring device in the vertical direction of the force measuring tower, wherein - the test device holder comprises at least one position determining element and the slide part comprises at least one counter position determining element, wherein - the position determining element and the counter position determining element are adapted to determine a position of the test device holder relative to the slide part in at least one direction selected from a vertical direction of the force measuring tower and a direction perpendicular to the vertical direction, and at the same time to permit rotation of the test device holder relative to the slide part about an axis of rotation defined by the position determining element and/or the counter position determining element, wherein - the test device holder comprises a first angle adjustment device and the slide part comprises a second angle adjustment device adapted to adjust and preferably fix an angle of the test device holder relative to the slide part about the axis of rotation, and wherein - the test device holder comprises at least one fixing element and the slide part comprises at least one counter fixing element, wherein - the fixing element and the counter fixing element are adapted to fix the test device holder to the slide part.
Method for establishing the remaining service-life of a capacitor, wherein the capacitor is charged and discharged at least once, comprising the steps of: measuring a voltage change (ΔU) across the capacitor during a discharge time (Δt), determining a discharge current during the discharge time (Δt), establishing an actual capacitance (C gemesssen) of the capacitor with reference to the voltage change (ΔU), the discharge current and the discharge time (Δt), determining a corrected capacitance (C x) of the capacitor from the actual capacitance (C gemesssen) by means of an error correction, wherein during the error correction influences of the temperature on the capacitance of the capacitor are corrected, and establishing the remaining service-life (L r, L rx) based on a difference between the corrected capacitance (C x) and an initial capacitance (C 0) of the capacitor. measuring a voltage change (ΔU) across the capacitor during a discharge time (Δt), determining a discharge current during the discharge time (Δt), establishing an actual capacitance (C gemesssen) of the capacitor with reference to the voltage change (ΔU), the discharge current and the discharge time (Δt), determining a corrected capacitance (C x) of the capacitor from the actual capacitance (C gemesssen) by means of an error correction, wherein during the error correction influences of the temperature on the capacitance of the capacitor are corrected, and establishing the remaining service-life (L r, L rx) based on a difference between the corrected capacitance (C x) and an initial capacitance (C 0) of the capacitor.
A mobile emergency light device, comprising a casing; a moving closure cover; a translucent lens; an electronic circuit board for control; a combined reflector; in which the combined reflector has an inverted bell shape and is open at both ends; in which the electronic circuit board is securely connected to the combined reflector, and provided with a plurality of light-emitting diodes, suitably angled towards said combined reflector; and in which the casing forms inside this a cylindrical cavity, characterized in that it also comprises an automatic switch driven by the base of the casing approaching a ferromagnetic material joined to the electronic circuit board; wherein the electronic circuit board comprises a telecommunications module for connection to an external device; and wherein the electronic circuit board also comprises: - a first set of LEDs aligned around the combined reflector at its outermost perimeter, so that the resulting beams of light are dissipated in all directions, limited by the position of the casing; - a second set of LEDs aligned under the combined reflector in a predetermined position in order to reflect the resulting beams of light horizontally to the axis of symmetry of the device according to a predefined calculation of the paraboloid of the combined reflector; and - a third set of LEDs, placed inside the bell-shaped combined reflector so that the resulting beams of light are angled towards the uppermost zone of the device. an automatic switch driven by the base of the casing approaching a ferromagnetic material joined to the electronic circuit board; wherein the electronic circuit board comprises a telecommunications module for connection to an external device; and wherein the electronic circuit board also comprises: - a first set of LEDs aligned around the combined reflector at its outermost perimeter, so that the resulting beams of light are dissipated in all directions, limited by the position of the casing; - a second set of LEDs aligned under the combined reflector in a predetermined position in order to reflect the resulting beams of light horizontally to the axis of symmetry of the device according to a predefined calculation of the paraboloid of the combined reflector; and - a third set of LEDs, placed inside the bell-shaped combined reflector so that the resulting beams of light are angled towards the uppermost zone of the device. - a first set of LEDs aligned around the combined reflector at its outermost perimeter, so that the resulting beams of light are dissipated in all directions, limited by the position of the casing; - a second set of LEDs aligned under the combined reflector in a predetermined position in order to reflect the resulting beams of light horizontally to the axis of symmetry of the device according to a predefined calculation of the paraboloid of the combined reflector; and - a third set of LEDs, placed inside the bell-shaped combined reflector so that the resulting beams of light are angled towards the uppermost zone of the device.
A method of connecting a first portion and a second portion of a connector system, the method including the steps of: locating a cover over at least a portion of the second portion; rolling back a substantially cylindrical first end of the cover over at least a portion of a substantially cylindrical second end of the cover; engaging the first portion with the second portion; and unrolling the first end of the cover, wherein, upon unrolling the first end of the cover, the first end of the cover is located over at least a portion of the first portion, wherein, when the first portion is engaged with the second portion, a fluid pathway is formed through the first and second portions, wherein the cover comprises an intermediate portion located between the first and second ends, wherein a diameter of the intermediate portion is greater than a diameter of the first end and/or the second end, and wherein the first end has a ridge at a distal end of the first end and the second end has a ridge at a distal end of the second end, wherein the ridges of the first and second ends of the cover only extend radially outwards, and wherein the intermediate portion includes two frustoconical portions (331, 332) and a central portion, with each frustoconical portion being located at an end of the central portion. locating a cover over at least a portion of the second portion; rolling back a substantially cylindrical first end of the cover over at least a portion of a substantially cylindrical second end of the cover; engaging the first portion with the second portion; and unrolling the first end of the cover, wherein, upon unrolling the first end of the cover, the first end of the cover is located over at least a portion of the first portion, wherein, when the first portion is engaged with the second portion, a fluid pathway is formed through the first and second portions, wherein the cover comprises an intermediate portion located between the first and second ends, wherein a diameter of the intermediate portion is greater than a diameter of the first end and/or the second end, and wherein the first end has a ridge at a distal end of the first end and the second end has a ridge at a distal end of the second end, wherein the ridges of the first and second ends of the cover only extend radially outwards, and wherein the intermediate portion includes two frustoconical portions (331, 332) and a central portion, with each frustoconical portion being located at an end of the central portion.
A method for the preparation of a multi-ply substrate composite which has at least one base substrate having at least one ply (1, 3), one top substrate having at least one ply (16, 18), one structure functional layer lying in between the base substrate and the top substrate and one electronic structure, wherein for the preparation of the multi-ply substrate composite at least one of the plies (1, 3) of the base substrate is provided on a roller; at least one of the plies (16, 18) of the top substrate is provided on a roller; a material layer is applied to the base substrate to form a structure functional layer and the applied material layer is subjected to a structuring; characterized in that the material layer is structured by means of a first tool to form a macrostructure (10, 11) and that micro and/or nanostructures are formed on the macrostructures (10, 11) by means of structuring.
Signal processing apparatus for processing a measurement signal in a motor vehicle, wherein the measurement signal relates to a time-variant measured variable having successive measured values, wherein the signal processing apparatus is designed with an integrated measurement sensor, particularly an angle sensor, comprising: a first signal processing device for computing the time-variant measured variable from the measurement signal, wherein the measurement sensor is connected upstream of the first signal processing device and is designed to provide the measurement signal; a second signal processing device for processing the time-variant measured variable in order to obtain a processed measured variable; a third signal processing device for computing a rate of change of the time-variant measured variable, wherein the third signal processing device is designed to output a supplementary measurement signal that indicates the rate of change; and a communication interface that is designed to combine the processed measured variable and the supplementary measurement signal to form a compiled transmission signal and to transmit the compiled transmission signal. a first signal processing device for computing the time-variant measured variable from the measurement signal, wherein the measurement sensor is connected upstream of the first signal processing device and is designed to provide the measurement signal; a second signal processing device for processing the time-variant measured variable in order to obtain a processed measured variable; a third signal processing device for computing a rate of change of the time-variant measured variable, wherein the third signal processing device is designed to output a supplementary measurement signal that indicates the rate of change; and a communication interface that is designed to combine the processed measured variable and the supplementary measurement signal to form a compiled transmission signal and to transmit the compiled transmission signal.
Encoder (100, 300) for encoding a source picture (101, 301) into an output bitstream (114, 318) using quantized transform coefficients (112, 308, 313), comprising: - obtaining means (102, 104, 106, 302) adapted to obtain, from the source picture (101, 301), input data located in a transform block, - transform means (109, 305, 310) adapted to transform, according to a transform type selected from among a set of transform types (305, 310), the input data into transform coefficients (110, 306, 311), - quantization means (111, 307, 312) adapted to quantize the transform coefficients (110, 306, 311) to generate the quantized transform coefficients (112, 308, 313), - computing means adapted to generate index information adapted to identify the selected transform type among the set of transform types (305, 310), and to determine information to be hidden, wherein the information to be hidden is a part of the index information, - hiding means adapted to hide the information to be hidden in the quantized transform coefficients (112, 308, 313); and - signaling means, wherein the signaling means is adapted to add, in the output bitstream (114, 318), signaling information being another part of the index information, so that the transform type selected among the set of transform types (305, 310) is identifiable based on the hidden information and the signaling information. - obtaining means (102, 104, 106, 302) adapted to obtain, from the source picture (101, 301), input data located in a transform block, - transform means (109, 305, 310) adapted to transform, according to a transform type selected from among a set of transform types (305, 310), the input data into transform coefficients (110, 306, 311), - quantization means (111, 307, 312) adapted to quantize the transform coefficients (110, 306, 311) to generate the quantized transform coefficients (112, 308, 313), - computing means adapted to generate index information adapted to identify the selected transform type among the set of transform types (305, 310), and to determine information to be hidden, wherein the information to be hidden is a part of the index information, - hiding means adapted to hide the information to be hidden in the quantized transform coefficients (112, 308, 313); and - signaling means, wherein the signaling means is adapted to add, in the output bitstream (114, 318), signaling information being another part of the index information, so that the transform type selected among the set of transform types (305, 310) is identifiable based on the hidden information and the signaling information.
A method, comprising: generating a pulse train, the pulse train comprising chirped pulses having a frequency in the 1GHz-1THz range, the chirped pulses including a frequency sweep across a first specified bandwidth during a respective chirped pulse duration, the respective chirped pulse duration establishing a first frequency-domain comb peak separation of a first frequency-domain comb (612A, 712A, 812A, 1012A); exciting a sample (180, 280) using the pulse train; obtaining a time-domain response from the sample in response to the excitation of the sample; characterized by mixing the time-domain response with a second time-domain signal corresponding to a second frequency-domain comb (612B, 712B, 812B, 1012B)), the second frequency-domain comb including a comb peak separation that is larger than the first frequency-domain comb peak separation. generating a pulse train, the pulse train comprising chirped pulses having a frequency in the 1GHz-1THz range, the chirped pulses including a frequency sweep across a first specified bandwidth during a respective chirped pulse duration, the respective chirped pulse duration establishing a first frequency-domain comb peak separation of a first frequency-domain comb (612A, 712A, 812A, 1012A); exciting a sample (180, 280) using the pulse train; obtaining a time-domain response from the sample in response to the excitation of the sample; characterized by mixing the time-domain response with a second time-domain signal corresponding to a second frequency-domain comb (612B, 712B, 812B, 1012B)), the second frequency-domain comb including a comb peak separation that is larger than the first frequency-domain comb peak separation.
A printing apparatus comprising: a printing unit configured to perform printing on a medium by using a liquid; an apparatus main body that houses the printing unit therein, that is configured to have outer surfaces that include an upper surface and a front surface that adjoiningly intersects the upper surface, and that includes a paper feeding port provided on the upper surface; an upper feeding path configured to guide the medium fed from the paper feeding port toward the printing unit and including a first curved portion in a middle portion thereof for inverting the medium in a course of the guidance; a medium housing portion provided on a lower portion of the apparatus main body and configured to house the medium; and a lower feeding path configured to guide the medium from the medium housing portion toward the printing unit and including a second curved portion in a middle portion thereof for inverting the medium in a course of the guidance, wherein an innermost portion of the first curved portion overlaps the second curved portion in a depth direction from the front surface toward a rear surface, which is on a side opposite to the front surface, of the apparatus main body when viewed from the upper surface. a printing unit configured to perform printing on a medium by using a liquid; an apparatus main body that houses the printing unit therein, that is configured to have outer surfaces that include an upper surface and a front surface that adjoiningly intersects the upper surface, and that includes a paper feeding port provided on the upper surface; an upper feeding path configured to guide the medium fed from the paper feeding port toward the printing unit and including a first curved portion in a middle portion thereof for inverting the medium in a course of the guidance; a medium housing portion provided on a lower portion of the apparatus main body and configured to house the medium; and a lower feeding path configured to guide the medium from the medium housing portion toward the printing unit and including a second curved portion in a middle portion thereof for inverting the medium in a course of the guidance, wherein an innermost portion of the first curved portion overlaps the second curved portion in a depth direction from the front surface toward a rear surface, which is on a side opposite to the front surface, of the apparatus main body when viewed from the upper surface.
An apparatus for grinding rotary blades, in particular scythe-like blades or circular blades, in particular for machines for slicing food products, comprising: at least one mount for a rotary blade to which the rotary blade can be attached; at least one grinding tool; wherein the grinding tool and the rotary blade attached in the mount in a manner rotatable about an axis of rotation provided for the cutting operation are movable relative to one another such that a blade edge extending at the periphery of the rotary blade can be ground by the grinding tool; a measuring device which is configured to determine the course of the blade edge; and a control which is configured to use the determined blade edge course for controlling the relative movement between the grinding tool and the rotary blade, characterized in that the measuring device can be traveled in a linear manner, with the measuring device having a light barrier and being configured to determine a plurality of value pairs as a blade edge course in that a respective value pair is determined for a plurality of rotational positions of the rotary blade, said respective value pair including the position at which the light barrier is interrupted or released by a section of the blade edge and the associated rotational position of the rotary blade. at least one mount for a rotary blade to which the rotary blade can be attached; at least one grinding tool; wherein the grinding tool and the rotary blade attached in the mount in a manner rotatable about an axis of rotation provided for the cutting operation are movable relative to one another such that a blade edge extending at the periphery of the rotary blade can be ground by the grinding tool; a measuring device which is configured to determine the course of the blade edge; and a control which is configured to use the determined blade edge course for controlling the relative movement between the grinding tool and the rotary blade, characterized in that the measuring device can be traveled in a linear manner, with the measuring device having a light barrier and being configured to determine a plurality of value pairs as a blade edge course in that a respective value pair is determined for a plurality of rotational positions of the rotary blade, said respective value pair including the position at which the light barrier is interrupted or released by a section of the blade edge and the associated rotational position of the rotary blade.