mhurhangee/ep-ind-claims huggingface dataset:
A rotation-angle detecting apparatus for detecting a rotation angle of a rotating disc having radial markings, comprising: light-emitting means; two detection means (3a, 3b) arranged at opposite sides of an axis of rotation of the rotating disc and facing said markings, each of said detection means (3a, 3b) operable to detect a light beam from said markings towards which the light-emitting means emits a light beam, and each of said detection means operable to output a pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) having a 90-degree phase difference there between; analog-to-digital converting means (5a, 5b) arranged to convert the pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) into a pair of digital signals with respect to each of the two detection means; binarization means (6a, 6b) arranged to binarize each of the pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) from each of the two detection means (3a, 3b); and counting means (8a, 8b) arranged to count rising and falling edges with respect to each of the binarized signals, digital signal processing means arranged to obtain an angle in a period of two periodic signals (C,S) by combining the pairs of digital signals with respect to the two detection means, which are obtained based on the converted pairs of digital signals with respect to each of the two detection means, and have a 90-degree phase difference there between, and each of which has an averaged phase, obtain a number of the periods based on a sum of the counted edges (Ta, Tb), and determine the rotation angle of the rotating disc based on the obtained number and the obtained angle. light-emitting means; two detection means (3a, 3b) arranged at opposite sides of an axis of rotation of the rotating disc and facing said markings, each of said detection means (3a, 3b) operable to detect a light beam from said markings towards which the light-emitting means emits a light beam, and each of said detection means operable to output a pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) having a 90-degree phase difference there between; analog-to-digital converting means (5a, 5b) arranged to convert the pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) into a pair of digital signals with respect to each of the two detection means; binarization means (6a, 6b) arranged to binarize each of the pair of analogue periodic signals ((Ca, Sa), (Cb, Sb)) from each of the two detection means (3a, 3b); and counting means (8a, 8b) arranged to count rising and falling edges with respect to each of the binarized signals, digital signal processing means arranged to obtain an angle in a period of two periodic signals (C,S) by combining the pairs of digital signals with respect to the two detection means, which are obtained based on the converted pairs of digital signals with respect to each of the two detection means, and have a 90-degree phase difference there between, and each of which has an averaged phase, obtain a number of the periods based on a sum of the counted edges (Ta, Tb), and determine the rotation angle of the rotating disc based on the obtained number and the obtained angle.
A method for controlling an internal combustion engine equipping a motor vehicle, the control method including a step of converting at least one engine torque setpoint into an ignition advance setpoint, the control method including a first calculation step of a minimum ignition advance setpoint (C min), a suppression step of the minimum ignition advance setpoint (C min), characterized in that this suppression step includes an analysis step of a thermal state of an exhaust line equipping the internal combustion engine.
A method for quantifying a target biological material expressed on a cell membrane in a pathological cell sample, the method comprising the steps of: immunostaining the target biological material using a fluorescent material; immunostaining a reference biological material using a fluorescent material different from the fluorescent material for the target biological material, wherein the reference biological material is different from the target biological material and constantly expressed on the cell membrane; using an immunostaining image for the target biological material and an immunostaining image for the reference biological material to identify the position of a fluorescent label signal corresponding to the target biological material on the cell membrane and to identify the position of a fluorescent label signal corresponding to the reference biological material on the cell membrane and to measure fluorescent label signals corresponding respectively to the target and the reference biological material on the cell membrane; and normalising the measured value of the fluorescent label signal corresponding to the target biological material on the cell membrane using the measured values of the fluorescent label signal corresponding to the reference biological material on the cell membrane, for a whole measurement region of the pathological cell sample or for each cell in the pathological cell sample, so that an index for quantifying an expression level is obtained. immunostaining the target biological material using a fluorescent material; immunostaining a reference biological material using a fluorescent material different from the fluorescent material for the target biological material, wherein the reference biological material is different from the target biological material and constantly expressed on the cell membrane; using an immunostaining image for the target biological material and an immunostaining image for the reference biological material to identify the position of a fluorescent label signal corresponding to the target biological material on the cell membrane and to identify the position of a fluorescent label signal corresponding to the reference biological material on the cell membrane and to measure fluorescent label signals corresponding respectively to the target and the reference biological material on the cell membrane; and normalising the measured value of the fluorescent label signal corresponding to the target biological material on the cell membrane using the measured values of the fluorescent label signal corresponding to the reference biological material on the cell membrane, for a whole measurement region of the pathological cell sample or for each cell in the pathological cell sample, so that an index for quantifying an expression level is obtained.
Method for carrying out a self-diagnosis of an automated vehicle, wherein the following steps are carried out: - operating the vehicle in a standard operating mode for transport-oriented operation of the vehicle, in which the self-diagnosis is carried out automatically according to a first weighting, - operating the vehicle in a diagnosis operating mode, in which the self-diagnosis is carried out automatically using a second weighting, wherein the second weighting is greater than the first weighting, wherein the first and second weighting relate to a priority and/or to a scope of the self-diagnosis and/or to an authorization that the self-diagnosis has with regard to influencing the driving operation, and wherein the first weighting differs from the second weighting such that transport-oriented operation has priority and/or is not restricted in the standard operating mode and transport-oriented operation can only be carried out in the diagnosis operating mode in such a way that self-diagnosis is possible. wherein the following steps are carried out: - operating the vehicle in a standard operating mode for transport-oriented operation of the vehicle, in which the self-diagnosis is carried out automatically according to a first weighting, - operating the vehicle in a diagnosis operating mode, in which the self-diagnosis is carried out automatically using a second weighting, wherein the second weighting is greater than the first weighting, - operating the vehicle in a standard operating mode for transport-oriented operation of the vehicle, in which the self-diagnosis is carried out automatically according to a first weighting, - operating the vehicle in a diagnosis operating mode, in which the self-diagnosis is carried out automatically using a second weighting, wherein the second weighting is greater than the first weighting, wherein the first and second weighting relate to a priority and/or to a scope of the self-diagnosis and/or to an authorization that the self-diagnosis has with regard to influencing the driving operation, and wherein the first weighting differs from the second weighting such that transport-oriented operation has priority and/or is not restricted in the standard operating mode and transport-oriented operation can only be carried out in the diagnosis operating mode in such a way that self-diagnosis is possible.
A a flow cytometer including a flow cell and a composite microscope objective, the composite microscope objective comprising: - a concave spherical mirror; - a transparent aberration compensation plate; - a viewing zone being located between the mirror and the compensation plate in the flow cell; wherein - scatter and fluorescence light emitted from particles in the viewing zone is collected by the mirror and reflected back toward the compensation plate to form an image of the viewing zone, and - optical aberrations originating from the mirror are reduced after light passes through the compensation plate. - a concave spherical mirror; - a transparent aberration compensation plate; - a viewing zone being located between the mirror and the compensation plate in the flow cell; - scatter and fluorescence light emitted from particles in the viewing zone is collected by the mirror and reflected back toward the compensation plate to form an image of the viewing zone, and - optical aberrations originating from the mirror are reduced after light passes through the compensation plate.
Semiconductor component having a light-emitting semiconductor layer or a light-emitting semiconductor element and two contact locations (3, 8), which are formed as a contact layer and a contact, wherein the component is arranged on a carrier substrate and the carrier substrate is patterned vertically, the carrier substrate has a carrier base that is spatially separated from the semiconductor layer at least by an interspace and a vertical structure element, characterized in that the interspaces are filled with a filling material that is more elastic than the material of the carrier substrate.
A method for decompressing a compressed Higher Order Ambisonics representation, said decompressing including: perceptually decoding a current encoded compressed frame to provide a perceptually decoded frame ( Ŷ ( k - 2)) of channels; re-distributing said perceptually decoded frame ( Ŷ ( k - 2)) of channels based on a transmitted assignment vector indicating at least an index of an additional coefficient sequence of an ambient HOA component in order to re-create a corresponding frame of a residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) and a corresponding frame of directional signals ( X̂ DIR ( k - 2)); re-composing a current decompressed frame ( Ĉ ( k - 3)) of the HOA representation from the recreated frame of directional signals ( X̂ DIR ( k - 2)) and from the recreated frame of the residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) based on a transmitted data set of indices of detected directional signals and a transmitted set of dominant direction estimates; and wherein said re-composing the current decompressed frame ( Ĉ ( k - 3)) is further based on predicted signals that are predicted with respect to uniformly distributed directions from said directional signals ( X̂ DIR ( k - 2)). perceptually decoding a current encoded compressed frame to provide a perceptually decoded frame ( Ŷ ( k - 2)) of channels; re-distributing said perceptually decoded frame ( Ŷ ( k - 2)) of channels based on a transmitted assignment vector indicating at least an index of an additional coefficient sequence of an ambient HOA component in order to re-create a corresponding frame of a residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) and a corresponding frame of directional signals ( X̂ DIR ( k - 2)); re-composing a current decompressed frame ( Ĉ ( k - 3)) of the HOA representation from the recreated frame of directional signals ( X̂ DIR ( k - 2)) and from the recreated frame of the residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) based on a transmitted data set of indices of detected directional signals and a transmitted set of dominant direction estimates; and wherein said re-composing the current decompressed frame ( Ĉ ( k - 3)) is further based on predicted signals that are predicted with respect to uniformly distributed directions from said directional signals ( X̂ DIR ( k - 2)).
A photoacoustic detection device comprising a nanophotonic circuit comprising: a plurality of semiconductor lasers capable of emitting at different frequencies towards respective input couplers; optical waveguides (11A-11D) connected to the couplers; a multiplexer connected to said waveguides; a tuning fork; an output optical waveguide, emerging into a recess in order to transmit light between the free arms of the tuning fork; and means for detecting the vibration of the tuning fork, all these elements being assembled in a monolithic component in which the cores of the optical waveguides (11A-11D, 15) and the arms of the tuning fork are formed from a same layer of material. a plurality of semiconductor lasers capable of emitting at different frequencies towards respective input couplers; optical waveguides (11A-11D) connected to the couplers; a multiplexer connected to said waveguides; a tuning fork; an output optical waveguide, emerging into a recess in order to transmit light between the free arms of the tuning fork; and means for detecting the vibration of the tuning fork, all these elements being assembled in a monolithic component in which the cores of the optical waveguides (11A-11D, 15) and the arms of the tuning fork are formed from a same layer of material.
A method to produce a water-soluble detergent pouch, having a graphic printed thereon, said method comprising feeding a water-soluble film through, a) at least one flexographic printing unit, optionally further comprising a drying unit; and then b) a water-soluble detergent pouch producing unit; characterized in that the water-soluble film is formed into pouches immediately after flexographic printing onto said water-soluble film without any interruptions or rewinding, wherein said water-soluble film comprises polyvinyl alcohol, wherein the flexographic printing unit comprises, a printable material, a printable material tray, a printable material transfer roll, a design roll, an impression roll; and wherein printable material is transferred from the printable material tray via the printable material transfer roll and the design roll to the water-soluble film, and wherein the water-soluble detergent pouch producing unit comprises a mould; thermoforming means; vacuum forming means; and sealing means. a) at least one flexographic printing unit, optionally further comprising a drying unit; and then b) a water-soluble detergent pouch producing unit;
Electrical kitchen appliance comprising a vessel, a lid for closing the vessel, a processing device for processing a food product in the vessel and a locking part for locking the cover on the vessel, the locking part for locking the cover on the vessel being rotatable about a locking axis by means of a locking drive, characterised in that a detection device is provided, which is used to be able to detect the path travelled by the locking drive, the locking part itself and/or a connecting part that connects the locking drive to the locking part when the locking part is rotated.
An apparatus for detecting an object, comprising: a plurality of sense coils in a power-transfer system; drive circuitry electrically connected to the plurality of sense coils and configured to selectively apply a signal at an operating frequency to each of the plurality of sense coils; a detection circuit configured to: generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values. a plurality of sense coils in a power-transfer system; drive circuitry electrically connected to the plurality of sense coils and configured to selectively apply a signal at an operating frequency to each of the plurality of sense coils; a detection circuit configured to: generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values. generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values.
A recombinant Exiguobacterium Group II-like α-amylase having α-amylase activity and comprising at least two of the following structural features: (i) the amino acid sequence X 1 NLRGKGIG at residues corresponding to positions 89-97, where X 1 is S or T; (ii) the amino acid sequence ADSLGL at residues corresponding to positions 223-228; (iii) the amino acid sequence QX 2 TGK at residues corresponding to positions 253-257, where X 2 is A or T; (iv) the amino acid sequence GYTH at residues corresponding to positions 281-284; and/or; (v) the amino acid sequence VX 3 DRX 4 K at residues corresponding to positions 419-424, where X 3 is T, S, or A and X 4 is A or T; wherein SEQ ID NO: 4 is used for numbering; and wherein the recombinant α-amylase has at least 98% amino acid sequence identity to SEQ ID NO: 4. (i) the amino acid sequence X 1 NLRGKGIG at residues corresponding to positions 89-97, where X 1 is S or T; (ii) the amino acid sequence ADSLGL at residues corresponding to positions 223-228; (iii) the amino acid sequence QX 2 TGK at residues corresponding to positions 253-257, where X 2 is A or T; (iv) the amino acid sequence GYTH at residues corresponding to positions 281-284; and/or; (v) the amino acid sequence VX 3 DRX 4 K at residues corresponding to positions 419-424, where X 3 is T, S, or A and X 4 is A or T;
A microelectromechanical system (MEMS) apparatus comprising: a substrate having a top surface; an inertial sensor comprising a proof mass coupled to the substrate, the inertial sensor being configured to sense motion of the proof mass along at least one axis; and an energy harvester comprising a piezoelectric material layer formed between the substrate and the proof mass, wherein the piezo electric material layer is configured to produce an electric signal in response to motion of the proof mass relative to the top surface of the substrate; characterised in that: the piezoelectric material layer is formed on a beam disposed between the proof mass and the substrate. a substrate having a top surface; an inertial sensor comprising a proof mass coupled to the substrate, the inertial sensor being configured to sense motion of the proof mass along at least one axis; and an energy harvester comprising a piezoelectric material layer formed between the substrate and the proof mass, wherein the piezo electric material layer is configured to produce an electric signal in response to motion of the proof mass relative to the top surface of the substrate; characterised in that: the piezoelectric material layer is formed on a beam disposed between the proof mass and the substrate.
A method for assembling a secondary battery cell module, comprising: using an assembling jig including a plurality of guide rods disposed on a jig plate; mounting a lower frame on the jig plate while the guide rods are inserted into a plurality of arranging through-holes of the lower frame; disposing a plurality of battery cells on the lower frame; mounting an upper frame on the battery cells while the guide rods are inserted into a plurality of arranging through-holes of the upper frame; fastening the upper frame and the lower frame; and separating the assembling jig from the upper frame and the lower frame. using an assembling jig including a plurality of guide rods disposed on a jig plate; mounting a lower frame on the jig plate while the guide rods are inserted into a plurality of arranging through-holes of the lower frame; disposing a plurality of battery cells on the lower frame; mounting an upper frame on the battery cells while the guide rods are inserted into a plurality of arranging through-holes of the upper frame; fastening the upper frame and the lower frame; and separating the assembling jig from the upper frame and the lower frame.
High strength hot dip galvanised steel strip consisting, in mass percent, of the following elements: 0.13 - 0.19 % C 1.70 - 2.50 % Mn max 0.15 % Si 0.40 - 1.00 % Al 0.05 - 0.25 % Cr 0.01 - 0.05 % Nb Max 0.10 % P max 0.004 % Ca max 0.05 % S max 0.007 % N and optionally at least one of the following elements: max 0.50 % Ti max 0.40 % V max 0.50 % Mo max 0.50 % Ni max 0.50 % Cu max 0.005 % B the balance being Fe and inevitable impurities, wherein 0.40 % < Al + SI < 1.05 % and Mn + Cr > 1.90 %, wherein the hot dip galvanised steel strip has a microstructure containing 8 - 12 % retained austenite, 10 - 20 % martensite, the remainder being a mixture of ferrite and bainite, the hot dip galvanised steel strip containing not more than 10 % bainite, and wherein the hot dip galvanised steel strip has an ultimate tensile strength Rm of at least 700 MPa, an 0.2 % proof strength Rp of at least 400 MPa and a total elongation of at least 18 %.. 0.13 - 0.19 % C 1.70 - 2.50 % Mn max 0.15 % Si 0.40 - 1.00 % Al 0.05 - 0.25 % Cr 0.01 - 0.05 % Nb Max 0.10 % P max 0.004 % Ca max 0.05 % S max 0.007 % N max 0.50 % Ti max 0.40 % V max 0.50 % Mo max 0.50 % Ni max 0.50 % Cu max 0.005 % B
Formwork for a hardenable material, in particular concrete, for the production of a staircase, having a support structure which has mutually adjustable formwork elements for forming steps, at least one support plate which comprises projections and/or depressions and against which the formwork elements rest, and clamping elements for clamping the formwork elements against the support plate and/or against each other, characterized in that the support structure has a formwork wall for the staircase underside, that the support plate rests against the formwork elements on the side of the formwork elements opposite the formwork wall, and that the support plates are clamped by the clamping elements between the formwork elements and the support structure.