mhurhangee/ep-ind-claims huggingface dataset:
A control apparatus for AC rotating machine comprising: a voltage command calculation means for calculating voltage commands on two rotational axes (vd*, vq*); a first voltage application means for applying voltages to first windings (U1, V1, W1) of a multiple-winding AC rotating machine having at least the first windings (U1, V1, W1) and second windings (U2, V2, W2) based on the voltage commands on two rotational axes (vd*, vq*) output by the voltage command calculation means; and a second voltage application means for applying voltages to the second windings (U2, V2, W2) based on the voltage commands on two rotational axes (vd*, vq*) output by the voltage command calculation means, wherein the second voltage application means is arranged to apply voltages to the second windings (U2, V2, W2) based on the deviations between the currents fed to the first windings (U1, V1, W1) and the currents fed to the second windings (U2, V2, W2), wherein a predetermined phase difference exists between the first windings (U1, V1, W1) and the second windings (U2, V2, W2) and the second voltage application means is arranged to apply voltages with the predetermined phase difference with respect to the phase voltages applied by the first voltage application means, and feed back for each of the phases the values obtained by subtracting the currents fed to the second windings (U2, V2, W2) from the currents fed to the first windings (U1, V1, W1). a voltage command calculation means for calculating voltage commands on two rotational axes (vd*, vq*); a first voltage application means for applying voltages to first windings (U1, V1, W1) of a multiple-winding AC rotating machine having at least the first windings (U1, V1, W1) and second windings (U2, V2, W2) based on the voltage commands on two rotational axes (vd*, vq*) output by the voltage command calculation means; and a second voltage application means for applying voltages to the second windings (U2, V2, W2) based on the voltage commands on two rotational axes (vd*, vq*) output by the voltage command calculation means, wherein the second voltage application means is arranged to apply voltages to the second windings (U2, V2, W2) based on the deviations between the currents fed to the first windings (U1, V1, W1) and the currents fed to the second windings (U2, V2, W2), wherein a predetermined phase difference exists between the first windings (U1, V1, W1) and the second windings (U2, V2, W2) and the second voltage application means is arranged to apply voltages with the predetermined phase difference with respect to the phase voltages applied by the first voltage application means, and feed back for each of the phases the values obtained by subtracting the currents fed to the second windings (U2, V2, W2) from the currents fed to the first windings (U1, V1, W1).
A process for manufacturing a transparent body for a touch panel, the process comprising: depositing a first transparent layer stack over a substrate, said first transparent layer stack including a first silicon-containing dielectric film, a second silicon-containing dielectric film, and a third silicon-containing dielectric film, the first and the third silicon-containing dielectric films having a low refractive index and the second silicon-containing dielectric film having a high refractive index; and depositing a transparent conductive film in a manner such that the first transparent layer stack and the transparent conductive film are disposed over the substrate in this order; patterning the transparent conductive film; wherein at least one of the first silicon-containing dielectric film, the second silicon-containing dielectric film, the third silicon-containing dielectric film, or the transparent conductive film is deposited by sputtering from a target (122, 124, 126, 128, 322, 324, 326, 328). depositing a first transparent layer stack over a substrate, said first transparent layer stack including a first silicon-containing dielectric film, a second silicon-containing dielectric film, and a third silicon-containing dielectric film, the first and the third silicon-containing dielectric films having a low refractive index and the second silicon-containing dielectric film having a high refractive index; and depositing a transparent conductive film in a manner such that the first transparent layer stack and the transparent conductive film are disposed over the substrate in this order; patterning the transparent conductive film;
A key press detecting circuit for detecting the status of a key, comprising: a discharging circuit consisting of a Resistor-Capacitor (R1, C1) circuit, which is connected to the key and discharges when the key is pressed, and a voltage detecting circuit, which is connected to the discharging circuit and comprises a combination of a first transistor and a second transistor, wherein when the discharging circuit discharges for a predefined period, the first transistor will be turned on and outputs a voltage to turn on the second transistor so that the second transistor outputs a second signal for a second function characterized in that both the first transistor and the second transistor are PNP transistors, and the combination is formed by connecting the base of the second transistor to the emitter of the first transistor. a discharging circuit consisting of a Resistor-Capacitor (R1, C1) circuit, which is connected to the key and discharges when the key is pressed, and a voltage detecting circuit, which is connected to the discharging circuit and comprises a combination of a first transistor and a second transistor, wherein when the discharging circuit discharges for a predefined period, the first transistor will be turned on and outputs a voltage to turn on the second transistor so that the second transistor outputs a second signal for a second function characterized in that both the first transistor and the second transistor are PNP transistors, and the combination is formed by connecting the base of the second transistor to the emitter of the first transistor.
A communication system with a train bus architecture, wherein the communication system comprises a coupling device configured to transmit a first instruction packet string via a first path wherein the first instruction packet string comprises a plurality of instruction packets, the communication system further comprises: at least one controlled module connected to the coupling device and configured to receive the first instruction packet string via the first path, wherein the at least one controlled module is adapted to select one instruction packet corresponding to the at least one controlled module from the instruction packets of the first instruction packet string, is adapted to replace the selected instruction packet by a first response packet in the at least one controlled module for forming a second instruction packet string, and is adapted to process the selected instruction packet to generate a second response packet; and a terminal device connected to the at least one controlled module and configured to receive the second instruction packet string comprising the first response packet, the second response packet, and/or the instruction packets which does not correspond to the at least one controlled module via the first path from the coupling device to the terminal device, and the terminal device being configured to transmit the second instruction packet string back to the coupling device via the at least one controlled module along a second path from the terminal device to the coupling device, wherein the first path is connected to the second path to form the train bus architecture. at least one controlled module connected to the coupling device and configured to receive the first instruction packet string via the first path, wherein the at least one controlled module is adapted to select one instruction packet corresponding to the at least one controlled module from the instruction packets of the first instruction packet string, is adapted to replace the selected instruction packet by a first response packet in the at least one controlled module for forming a second instruction packet string, and is adapted to process the selected instruction packet to generate a second response packet; and a terminal device connected to the at least one controlled module and configured to receive the second instruction packet string comprising the first response packet, the second response packet, and/or the instruction packets which does not correspond to the at least one controlled module via the first path from the coupling device to the terminal device, and the terminal device being configured to transmit the second instruction packet string back to the coupling device via the at least one controlled module along a second path from the terminal device to the coupling device, wherein the first path is connected to the second path to form the train bus architecture.
An imaging system, comprising: a radiation source; and a radiation sensitive detector array, including: a scintillator array; and a photosensor array optically coupled to the scintillator array, wherein the scintillator array includes Gd 2 O 2 S:Pr,Tb,Ce, said imaging system being characterized in that the amount of the Tb3+ is up to 50 mole ppm. a radiation source; and a radiation sensitive detector array, including: a scintillator array; and a photosensor array optically coupled to the scintillator array, wherein the scintillator array includes Gd 2 O 2 S:Pr,Tb,Ce, said imaging system being characterized in that the amount of the Tb3+ is up to 50 mole ppm. a scintillator array; and a photosensor array optically coupled to the scintillator array, wherein the scintillator array includes Gd 2 O 2 S:Pr,Tb,Ce, said imaging system being characterized in that the amount of the Tb3+ is up to 50 mole ppm.
A video decoding apparatus for subjecting a video image to motion compensated decoding, the apparatus comprising: an acquisition module configured to acquire available blocks having motion vectors and the number of said available blocks from decoded blocks adjacent to a to-be-decoded block; a selection information decoding module configured to select one selection code table from a plurality of code tables depending on the number of the available blocks, wherein when there are two available blocks, a code table including two indexes 0 and 1 is selected, and when there are three available blocks, a code table including indexes 0, 1 and 2 is selected, and decode selection information specifying one selection block from the available blocks using said selection code table having the same number of entries as the number of available blocks; a selection module configured to select one selection block from the available blocks according to the selection information; and an image decoding module configured to subject the to-be-decoded block to a motion compensated prediction decoding using a motion vector of the selected block. an acquisition module configured to acquire available blocks having motion vectors and the number of said available blocks from decoded blocks adjacent to a to-be-decoded block; a selection information decoding module configured to select one selection code table from a plurality of code tables depending on the number of the available blocks, wherein when there are two available blocks, a code table including two indexes 0 and 1 is selected, and when there are three available blocks, a code table including indexes 0, 1 and 2 is selected, and decode selection information specifying one selection block from the available blocks using said selection code table having the same number of entries as the number of available blocks; a selection module configured to select one selection block from the available blocks according to the selection information; and an image decoding module configured to subject the to-be-decoded block to a motion compensated prediction decoding using a motion vector of the selected block.
Magnetically inductive flowmeter with a measurement section, through which a medium flows, with a magnetic field creation device (2, 3) for creating a magnetic field of alternating polarity, with an electrode arrangement (A, C, R) for capturing a voltage, which is dependent on the flow speed of the medium and is induced over the measurement section between a first electrode and a second electrode, in a galvanically contacting manner and with a control and evaluation device for activating the magnetic field creation device (2, 3) and for determining and outputting a measurement value depending on the voltage captured, characterised in that the control and evaluation device is embodied such that a first voltage signal (E A) is captured between the first electrode and a reference potential and is filtered to obtain a first noise signal (E NA) contained therein, a second voltage signal (E C) is captured between the second electrode and the reference potential and is filtered to obtain a second noise signal (E NC) contained therein, the first voltage signal (E A) and the second noise signal (E NC) are summed to create a first sum signal (E' A), the second voltage signal (E C) and the first noise signal (E NA) are summed to create a second sum signal (E' C) and to obtain a measurement signal (ΔE' A,C), which corresponds to the voltage induced over the measurement section, the difference of the first sum signal (E' A) and the second sum signal (E' C) is formed. with a measurement section, through which a medium flows, with a magnetic field creation device (2, 3) for creating a magnetic field of alternating polarity, with an electrode arrangement (A, C, R) for capturing a voltage, which is dependent on the flow speed of the medium and is induced over the measurement section between a first electrode and a second electrode, in a galvanically contacting manner and with a control and evaluation device for activating the magnetic field creation device (2, 3) and for determining and outputting a measurement value depending on the voltage captured, characterised in that the control and evaluation device is embodied such that a first voltage signal (E A) is captured between the first electrode and a reference potential and is filtered to obtain a first noise signal (E NA) contained therein, a second voltage signal (E C) is captured between the second electrode and the reference potential and is filtered to obtain a second noise signal (E NC) contained therein, the first voltage signal (E A) and the second noise signal (E NC) are summed to create a first sum signal (E' A), the second voltage signal (E C) and the first noise signal (E NA) are summed to create a second sum signal (E' C) and to obtain a measurement signal (ΔE' A,C), which corresponds to the voltage induced over the measurement section, the difference of the first sum signal (E' A) and the second sum signal (E' C) is formed.
A method for detecting an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of a substrate and/or within a substrate, the method comprising the steps of i) providing a substrate comprising an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of the substrate or within the substrate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, ii) providing a LWIR detecting device, wherein the LWIR detecting device is a bolometer or a sensor comprising mercury cadmium telluride, iii) irradiating the substrate of i) with infrared light at least over the whole wavelength range of 8 to 14 μm, iv) detecting the intensity of electromagnetic radiation scattered and/or reflected by the substrate and the amorphous and/or crystalline structure of phosphate and/or sulphate salts due to the irradiation in step iii) with the LWIR detecting device provided in step ii), v) reading out the amount of the detected intensity of electromagnetic radiation of step iv) by a computer device, and vi) converting the amount of the detected intensity of electromagnetic radiation into a picture format of the pattern. i) providing a substrate comprising an amorphous and/or crystalline structure of phosphate and/or sulphate salts on the surface of the substrate or within the substrate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, wherein the substrate is printed or coated with the amorphous and/or crystalline structure of phosphate and/or sulphate salts in the form of a pattern, wherein the phosphate and/or sulphate salts on the surface of the substrate or within the substrate are calcium phosphate and/or calcium sulphate, ii) providing a LWIR detecting device, wherein the LWIR detecting device is a bolometer or a sensor comprising mercury cadmium telluride, iii) irradiating the substrate of i) with infrared light at least over the whole wavelength range of 8 to 14 μm, iv) detecting the intensity of electromagnetic radiation scattered and/or reflected by the substrate and the amorphous and/or crystalline structure of phosphate and/or sulphate salts due to the irradiation in step iii) with the LWIR detecting device provided in step ii), v) reading out the amount of the detected intensity of electromagnetic radiation of step iv) by a computer device, and vi) converting the amount of the detected intensity of electromagnetic radiation into a picture format of the pattern.
An electronic device for converting a wireless signal in the mm-wave or sub-THz range into at least one modulated optical signal, the electronic device comprising: at least one antenna element for receiving the wireless signal and for converting the wireless signal into at least one guided electrical signal, wherein the at least one antenna element is arranged on a printed circuit board or on a first integrated chip; an electrical signal converter for receiving the at least one guided electrical signal and for converting the at least one guided electrical signal into at least one conditioned electrical signal, wherein the electrical signal converter is arranged on a second integrated chip (10"); and at least one modulator for receiving the at least one conditioned electrical signal and for converting the at least one conditioned electrical signal into the at least one modulated optical signal, wherein the at least one modulator is arranged on a third integrated chip, wherein the at least one modulator comprises a waveguide, wherein the at least one modulator comprises a cladding, wherein the cladding comprises a first cladding portion having a conductive material at an interface with the waveguide, and wherein the cladding comprises a second cladding portion having a conductive material at an interface with the waveguide. at least one antenna element for receiving the wireless signal and for converting the wireless signal into at least one guided electrical signal, wherein the at least one antenna element is arranged on a printed circuit board or on a first integrated chip; an electrical signal converter for receiving the at least one guided electrical signal and for converting the at least one guided electrical signal into at least one conditioned electrical signal, wherein the electrical signal converter is arranged on a second integrated chip (10"); and at least one modulator for receiving the at least one conditioned electrical signal and for converting the at least one conditioned electrical signal into the at least one modulated optical signal, wherein the at least one modulator is arranged on a third integrated chip, wherein the at least one modulator comprises a waveguide, wherein the at least one modulator comprises a cladding, wherein the cladding comprises a first cladding portion having a conductive material at an interface with the waveguide, and wherein the cladding comprises a second cladding portion having a conductive material at an interface with the waveguide.
A method comprising: receiving at least one location beacon identification value (111, 113, 125) electronically communicated through a network from a mobile device, the at least one location beacon identification value electronically received from a respective location beacon (114, 123-124) by the mobile device; determining a rule base comprising a set of one or more program code instructions or one or more program code variables, wherein the rule base is determined based at least in part on the at least one location beacon identification value (126, 261-263); and transmitting at least a portion of the rule base electronically through the network to the mobile device, characterized in that the portion of the rule base transmitted to the mobile device comprises spatial rules and triggers that are purged from the mobile device after a time lapse that occurs after the mobile device leaves a range associated with the respective location beacon. receiving at least one location beacon identification value (111, 113, 125) electronically communicated through a network from a mobile device, the at least one location beacon identification value electronically received from a respective location beacon (114, 123-124) by the mobile device; determining a rule base comprising a set of one or more program code instructions or one or more program code variables, wherein the rule base is determined based at least in part on the at least one location beacon identification value (126, 261-263); and transmitting at least a portion of the rule base electronically through the network to the mobile device, characterized in that the portion of the rule base transmitted to the mobile device comprises spatial rules and triggers that are purged from the mobile device after a time lapse that occurs after the mobile device leaves a range associated with the respective location beacon.
A computer-implemented method for processing borehole sonic dispersion data, comprising: receiving the borehole sonic dispersion data; categorizing the borehole sonic dispersion data into a plurality of discrete slowness-frequency points; inverting the categorized data to generate a dipole dispersion curve and a refined dataset; until a stop criterion is met, iteratively: applying an adaptive filter to the refined dataset to identify and remove points in the refined dataset that are outliers from the dipole dispersion curve; and inverting the refined dataset; and outputting the inverted dataset for use in interpreting properties of a formation and for performing mechanical characterization and formation petrophysical evaluation based in the interpreted formation properties. receiving the borehole sonic dispersion data; categorizing the borehole sonic dispersion data into a plurality of discrete slowness-frequency points; inverting the categorized data to generate a dipole dispersion curve and a refined dataset; until a stop criterion is met, iteratively: applying an adaptive filter to the refined dataset to identify and remove points in the refined dataset that are outliers from the dipole dispersion curve; and inverting the refined dataset; and applying an adaptive filter to the refined dataset to identify and remove points in the refined dataset that are outliers from the dipole dispersion curve; and inverting the refined dataset; and outputting the inverted dataset for use in interpreting properties of a formation and for performing mechanical characterization and formation petrophysical evaluation based in the interpreted formation properties.