mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus comprising: processor circuitry configured to execute data processing instructions, wherein the processor circuitry is configured to maintain a call stack data structure in dependence on the data processing instructions it executes, and wherein the processor circuitry is configured to operate in a transactional execution mode when the data processing instructions executed access stored data items shared with further processor circuitry; and pre-transactional stack pointer storage circuitry configured to store a stack depth indication for the call stack data structure, wherein the processor circuitry is configured to store the stack depth indication prior to entering the transactional execution mode, wherein the processor circuitry is configured, when operating in the transactional execution mode, to determine a relative stacking position for a modification to the call stack data structure with respect to the stack depth indication, and if the relative stacking position is in a positive stack growth direction with respect to a position indicated by the stack depth indication, to store an indication that a corresponding cache entry is non-speculative, and if the relative stacking position not in a positive stack growth direction with respect to the position indicated by the stack depth indication, to store an indication that the corresponding cache entry is speculative. processor circuitry configured to execute data processing instructions, wherein the processor circuitry is configured to maintain a call stack data structure in dependence on the data processing instructions it executes, and wherein the processor circuitry is configured to operate in a transactional execution mode when the data processing instructions executed access stored data items shared with further processor circuitry; and pre-transactional stack pointer storage circuitry configured to store a stack depth indication for the call stack data structure, wherein the processor circuitry is configured to store the stack depth indication prior to entering the transactional execution mode, wherein the processor circuitry is configured, when operating in the transactional execution mode, to determine a relative stacking position for a modification to the call stack data structure with respect to the stack depth indication, and if the relative stacking position is in a positive stack growth direction with respect to a position indicated by the stack depth indication, to store an indication that a corresponding cache entry is non-speculative, and if the relative stacking position not in a positive stack growth direction with respect to the position indicated by the stack depth indication, to store an indication that the corresponding cache entry is speculative.
A method for manufacturing a high strength galvanized steel sheet excellent in terms of coating adhesiveness, the method comprising performing an oxidation treatment on steel containing Si, Mn, and Cr in an oxidation furnace under the condition that an exit temperature T satisfies expressions below, performing reduction annealing, and performing a galvanizing treatment: A = 0.015 ⁢ T − 7.6 T ≥ 507 ° C , A = 0 T < 507 ° C , B = 0.0063 ⁢ T − 2.8 T ≥ 445 ° C , B = 0 T < 445 ° C , Si + A × Cr ≤ B , where [Si]: Si content of the steel by mass%, and [Cr]: Cr content of the steel by mass%, wherein the steel has a chemical composition consisting of C: 0.01 mass% or more and 0.20 mass% or less, Si: 0.5 mass% or more and 2.0 mass% or less, Mn: 1.0 mass% or more and 3.0 mass% or less, Cr: 0.01 mass% or more and 0.4 mass% or less, and optionally one or more chemical elements selected from among Al: 0.01% or more and 0.1% or less, B: 0.001% or more and 0.005% or less, Nb: 0.005% or more and 0.05% or less, Ti: 0.005% or more and 0.05% or less, Mo: 0.05% or more and 1.0% or less, Cu: 0.05% or more and 1.0% or less and Ni: 0.05% or more and 1.0% or less by mass%; the balance being Fe and inevitable impurities; wherein the oxidation furnace includes three or more zones in which atmospheres can be individually controlled and which are called oxidation furnace 1, oxidation furnace 2, oxidation furnace 3 and so on in ascending order of distance from the entrance of the furnace, in which the atmospheres of the oxidation furnace 1 and the oxidation furnace 3 have an oxygen concentration of less than 1000 vol.ppm and the balance being N 2 , CO, CO 2 , H 2 O and inevitable impurities and the atmosphere of the oxidation furnace 2 has an oxygen concentration of 1000 vol.ppm or more and the balance being N 2 , CO, CO 2 , H 2 O and inevitable impurities, an exit temperature T 1 of the oxidation furnace 1 is (the exit temperature T - 350)°C or higher and lower than (the exit temperature T - 250)°C, and an exit temperature T 2 of the oxidation furnace 2 is (the exit temperature T - 50)°C or higher. where [Si]: Si content of the steel by mass%, and [Cr]: Cr content of the steel by mass%,
Static metal seal having, in transverse section, at least one hollow portion configured to limit the force needed to crush the seal , and including an outer sealing layer , characterised in that it includes a textured surface configured to come into contact with the surfaces to be sealed, said textured surface including a network of depressions spaced apart from one another on the textured surface , the depressions being blind, not completely passing through the outer sealing layer , and not communicating with one another, said textured surface being produced by laser material removal.
Method for operating an elevator installed in connection with a building, particularly a high rise elevator, in which method the expected rope sway is monitored using building acceleration data obtained by means of a sensor to calculate a building sway, and whereby based on the building sway and the position of an elevator car a rope sway is estimated, which rope sway is compared with a threshold value to determine excessive rope sway and to deduct operation measures for the elevator in order to counteract a determined excessive rope sway, characterized by the succession of the following steps - determining a movement profile for the elevator car by means of an elevator controller - predicting the elevator car position based on the movement profile - calculating the estimated rope sway based on the predicted car position and the building acceleration data. - determining a movement profile for the elevator car by means of an elevator controller - predicting the elevator car position based on the movement profile - calculating the estimated rope sway based on the predicted car position and the building acceleration data.
Method for operating an electric motor (EM), comprising the steps of: (a) detecting (S1) zero crossings and phase angles of applied phase-shifted sinusoidal voltage phases (L) of a multi-phase voltage supply network ; and (b) connecting (S2) half-waves of the applied sinusoidal voltage phases (L) through by means of semiconductor switches, in accordance with switching patterns which are applied to the semiconductor switches and which are synchronised with the detected phase angles and zero crossings, to generate phase-shifted sinusoid-like voltage phases (L') which are applied directly to the electric motor , the frequency (f) of the sinusoid-like voltage phases (L') being shifted upwards incrementally, for starting up the electric motor , by changing over the switching pattern applied to the semiconductor switch, until the network frequency (f 0 ) of the voltage supply network is reached, the electric motor being supplied directly by the voltage supply network, via mechanical contacts connected in parallel with the semiconductor switches, after the network frequency (f 0 ) of the voltage supply network is reached. (a) detecting (S1) zero crossings and phase angles of applied phase-shifted sinusoidal voltage phases (L) of a multi-phase voltage supply network ; and (b) connecting (S2) half-waves of the applied sinusoidal voltage phases (L) through by means of semiconductor switches, in accordance with switching patterns which are applied to the semiconductor switches and which are synchronised with the detected phase angles and zero crossings, to generate phase-shifted sinusoid-like voltage phases (L') which are applied directly to the electric motor , the frequency (f) of the sinusoid-like voltage phases (L') being shifted upwards incrementally, for starting up the electric motor , by changing over the switching pattern applied to the semiconductor switch, until the network frequency (f 0 ) of the voltage supply network is reached, the electric motor being supplied directly by the voltage supply network, via mechanical contacts connected in parallel with the semiconductor switches, after the network frequency (f 0 ) of the voltage supply network is reached.
A prosthesis sheath to encase a prosthesis, wherein the prosthesis sheath can be fitted onto a prosthesis and at least in a region of a movable element of the prosthesis has a framework structure with a plurality of grid strips (5a-c) and through openings (6a-c), wherein the grid strips (5a-c) separate the through openings (6a-c) from one another, characterised in that a wall for partial reinforcement of the framework structure is integrated into regions of the framework structure.
A headlamp comprising: at least one light source; an electrical power source, a first state corresponding to at least one activated state in which the electrical power source is coupled to the at least one light source to generate a light beam; a second state corresponding to a deactivated state wherein the electrical power source is not coupled to the at least one light source and no light beam is generated; a third state (Lock) corresponding to a locked state in which the electrical power source is not coupled to the at least one light source and no light beam is generated, wherein the third state is configured so as to offer to the user a specific arrangement for avoiding unintentional use of the power source or at least for minimizing the exposure of such unintentional use; at least one switching element configured to receive at least a first, a second and a third physical user input; a processor coupled to the switching mechanism and being configured to select one among said first, second and third states in response to said at least first, second and third physical user inputs, wherein a change from the third state into one of the at least one activated state is performed by the processor in response to detecting the second physical user input via the switching element; characterized in that the change from the third state into one of the at least one activated state is also performed in response to detecting the third physical user input via the switching element. at least one light source; an electrical power source, a first state corresponding to at least one activated state in which the electrical power source is coupled to the at least one light source to generate a light beam; a second state corresponding to a deactivated state wherein the electrical power source is not coupled to the at least one light source and no light beam is generated; a third state (Lock) corresponding to a locked state in which the electrical power source is not coupled to the at least one light source and no light beam is generated, wherein the third state is configured so as to offer to the user a specific arrangement for avoiding unintentional use of the power source or at least for minimizing the exposure of such unintentional use; at least one switching element configured to receive at least a first, a second and a third physical user input; a processor coupled to the switching mechanism and being configured to select one among said first, second and third states in response to said at least first, second and third physical user inputs, wherein a change from the third state into one of the at least one activated state is performed by the processor in response to detecting the second physical user input via the switching element;
Electromagnetic flowmeter with a coil arrangement and a circuit to control a supply voltage of the coil arrangement, wherein the circuit is designed to operate the supply voltage of the coil arrangement according to the following voltage curve: A) Increase in the voltage from a starting voltage I to an overvoltage II ; B) Where necessary, maintaining the voltage at overvoltage II ; C) Drop from overvoltage II to a holding voltage V; characterized in that the circuit controls the drop in voltage from the overvoltage to the holding voltage by setting the voltage to at least two (or more) predefined intermediate target values III, IV. A) Increase in the voltage from a starting voltage I to an overvoltage II ; B) Where necessary, maintaining the voltage at overvoltage II ; C) Drop from overvoltage II to a holding voltage V;
An optical fibre comprising: - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by polymerization of a monomer selected from an acid, a triglyceride, or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds. - an optical waveguide comprising a glass core surrounded by a glass cladding; - a coating surrounding said optical waveguide comprising a cured polymer material comprising a polyester obtained by polymerization of a monomer selected from an acid, a triglyceride, or a mixture of triglycerides having a C 16 -C 24 aliphatic chain comprising at least two conjugated double bonds.
A compound PAC-1 represented by the following formula (I), which is in an amorphous form:
Method for determining a resonant frequency and a quality factor of an electrostatic actuation oscillator, the method comprising the following steps: - estimate the oscillator's resonant frequency; - define a frequency range, called the "search zone", in which the resonant frequency is sought, the search zone being centred on an estimated resonant frequency; - generate an excitation voltage defined as the sum of a sinusoidal voltage having a constant frequency, F 0 , equal to the estimated resonant frequency and a finite pulse response of a low-pass filter having a spectral width, ΔF, equal to the width of the search zone; - apply the excitation voltage at the input of the oscillator; - acquire in the time domain a response voltage present at the output of the oscillator when the excitation voltage is applied at the input of the oscillator; - obtain, by transformation in the frequency domain, an amplitude spectral density of the response voltage; - determine the resonant frequency and the quality factor of the oscillator from the amplitude spectral density . - estimate the oscillator's resonant frequency; - define a frequency range, called the "search zone", in which the resonant frequency is sought, the search zone being centred on an estimated resonant frequency; - generate an excitation voltage defined as the sum of a sinusoidal voltage having a constant frequency, F 0 , equal to the estimated resonant frequency and a finite pulse response of a low-pass filter having a spectral width, ΔF, equal to the width of the search zone; - apply the excitation voltage at the input of the oscillator; - acquire in the time domain a response voltage present at the output of the oscillator when the excitation voltage is applied at the input of the oscillator; - obtain, by transformation in the frequency domain, an amplitude spectral density of the response voltage; - determine the resonant frequency and the quality factor of the oscillator from the amplitude spectral density .
A method of controlling a system comprising a printhead for printing an image on at least one surface, wherein the at least one surface differs in shape from a nominal surface by a known tolerance, and wherein the printhead and the at least one surface move relative to each other along a predetermined print path comprising at least one swathe, the method comprising the steps of: providing first swathe data for printing the image on the nominal surface; providing second swathe data for the at least one swathe, wherein the second swathe data defines a sequence of marks made by the printhead, which produces a sequence of predetermined dot patterns when printed on the nominal surface, wherein at least one dot pattern from said sequence of dot patterns and an existing feature of the nominal surface have a nominal geometric relationship; printing the second swathe data on the at least one surface; determining, for at least one of the least one dot pattern, the actual geometric relationship of the at least one dot pattern printed on the at least one surface and an existing feature of the at least one surface corresponding to said existing feature of the nominal surface; comparing the actual geometric relationship with the nominal geometric relationship to determine at least one difference; and providing third swathe data by applying an adjustment calculated from the at least one difference to the first swathe data to compensate for the at least one difference. providing first swathe data for printing the image on the nominal surface; providing second swathe data for the at least one swathe, wherein the second swathe data defines a sequence of marks made by the printhead, which produces a sequence of predetermined dot patterns when printed on the nominal surface, wherein at least one dot pattern from said sequence of dot patterns and an existing feature of the nominal surface have a nominal geometric relationship; printing the second swathe data on the at least one surface; determining, for at least one of the least one dot pattern, the actual geometric relationship of the at least one dot pattern printed on the at least one surface and an existing feature of the at least one surface corresponding to said existing feature of the nominal surface; comparing the actual geometric relationship with the nominal geometric relationship to determine at least one difference; and providing third swathe data by applying an adjustment calculated from the at least one difference to the first swathe data to compensate for the at least one difference.
Spectacle case made of a body , which may be a flexible or rigid material and which has a rectangular front side (a) and a rectangular rear side (b) separated by means of a rectangular central surface (c), sides (a) and (b) which are folded to one another by folding lines (d) and (e), the spectacle case having a closing device and the glasses' temples are folded outwards of the spectacle case wherein the front side (a) is provided with a trapezoidal prism symmetrically disposed at the bottom which is intended to fix the nasal saddle of the glasses, the spectacle case having the components of the closing device disposed on the trapezoidal prism and on the rectangular rear side (b) of the spectacle case, characterized in that the rear side (b) is provided with two openings or slots (i) and (j) which allow the nose pads to protrude from the spectacle case. wherein the front side (a) is provided with a trapezoidal prism symmetrically disposed at the bottom which is intended to fix the nasal saddle of the glasses, the spectacle case having the components of the closing device disposed on the trapezoidal prism and on the rectangular rear side (b) of the spectacle case, characterized in that the rear side (b) is provided with two openings or slots (i) and (j) which allow the nose pads to protrude from the spectacle case.
Artificial sphincter insertable into the urethra of a patient, comprising a housing having a passage opening and a closing mechanism arranged in the passage opening and movable between a first position in which the passage opening is opened and a second position in which the passage opening is closed, wherein the artificial sphincter has at least one sensor designed to detect an endogenous biosignal or is connected to such a sensor and has a processing and control unit designed to evaluate the biosignal, by means of which the closing mechanism can be controlled as a function of the evaluated biosignal, characterized in that the sensor is selected from the following group: - electromyographic sensor , - electroneurographic sensor, - structure-borne sound sensor , - inertial sensor . - electromyographic sensor , - electroneurographic sensor, - structure-borne sound sensor , - inertial sensor .
A spectrometer device , comprising: - an optical element designed for receiving incident light from an object and transferring the incident light to a length variable filter , wherein the optical element is arranged in a manner that the incident light is transferred to the length variable filter along a light path which is asymmetric with respect to an optical axis of the spectrometer device , wherein the optical axis of the spectrometer device is an axis of symmetry and/or rotation of the setup of at least one of the length variable filter and a detector array ; - the length variable filter which is designated for separating the incident light into a spectrum of constituent wavelength signals; and - the detector array comprising a plurality of pixelated sensors , wherein each of the pixelated sensors is adapted to receive at least a portion of one of the constituent wavelength signals, wherein each of the constituent wavelength signals is related to an intensity of each constituent wavelength characterized in that the optical element comprises an optical concentrator device operated in reverse direction having an asymmetric property, or a baffle filter having an asymmetric property. - an optical element designed for receiving incident light from an object and transferring the incident light to a length variable filter , wherein the optical element is arranged in a manner that the incident light is transferred to the length variable filter along a light path which is asymmetric with respect to an optical axis of the spectrometer device , wherein the optical axis of the spectrometer device is an axis of symmetry and/or rotation of the setup of at least one of the length variable filter and a detector array ; - the length variable filter which is designated for separating the incident light into a spectrum of constituent wavelength signals; and - the detector array comprising a plurality of pixelated sensors , wherein each of the pixelated sensors is adapted to receive at least a portion of one of the constituent wavelength signals, wherein each of the constituent wavelength signals is related to an intensity of each constituent wavelength