mhurhangee/ep-ind-claims huggingface dataset:
An optical sensor system adaptable for use on a vehicle, said system comprising: a master lens positionable on the vehicle to observe a field of view about the vehicle, said master lens characterized as defining a focal plane; an optical diffuser located proximate to the focal plane of the master lens, said diffuser configured to display an image of the field of view from the master lens; characterized in that the system further comprises a plurality of optoelectronic devices configured to view the diffuser, wherein said plurality of optoelectronic devices includes a first optoelectronic device configured to generate a first video signal indicative of images on a first portion of the diffuser, and a second optoelectronic device configured to generate a second video signal indicative of images on a second portion of the diffuser, each optoelectronic device (24A, 24B) comprising an image sensor; wherein the first optoelectronic device is configured to be sensitive to a first light wavelength range and the second optoelectronic device is configured to be sensitive to a second light wavelength range distinct from the first light wavelength range. a master lens positionable on the vehicle to observe a field of view about the vehicle, said master lens characterized as defining a focal plane; an optical diffuser located proximate to the focal plane of the master lens, said diffuser configured to display an image of the field of view from the master lens; characterized in that the system further comprises a plurality of optoelectronic devices configured to view the diffuser, wherein said plurality of optoelectronic devices includes a first optoelectronic device configured to generate a first video signal indicative of images on a first portion of the diffuser, and a second optoelectronic device configured to generate a second video signal indicative of images on a second portion of the diffuser, each optoelectronic device (24A, 24B) comprising an image sensor; wherein the first optoelectronic device is configured to be sensitive to a first light wavelength range and the second optoelectronic device is configured to be sensitive to a second light wavelength range distinct from the first light wavelength range.
Sealing strand, in particular for processing with continuous infeed and separation of useful portions, having a plurality of strand parts (1, 2), which are in each case connected to one another at abutting ends, and having a double-sided adhesive tape, that adhesive surface of said tape which faces away from the remaining sealing strand being covered by a removable protective strip, characterized in that the protective strip, at the butt joints, has a respective connecting tab which overlaps the abutting ends of the protective strip portions of the strand parts (1, 2), and wherein a connection between the connecting tab and the overlapping abutting ends of the protective strip portions of the strand parts (1, 2) in each case starts only at a distance from the butt joint, wherein the connection of the connecting tab to at least one of the two overlapped abutting ends starts in a region of separating cuts, which follow one after another in the strand longitudinal direction, in the abutting end of the protective strip portion.
A method of operating an imaging system comprising a tunable acoustic gradient lens, a TAG lens controller, a camera, and an exposure time controller, in order to establish or maintain the TAG lens at a desired operating state for imaging, the method comprising: controlling the TAG lens using an imaging drive control configuration during a plurality of imaging drive mode time periods, wherein each instance of the imaging drive mode time period provides image data acquired while operating the TAG lens according to the imaging drive control configuration, wherein the imaging drive control configuration includes an imaging drive voltage and an imaging drive duration and is configured to achieve an imaging state of the TAG lens; and characterized by: controlling the TAG lens using a regulating adaptive drive control configuration during a plurality of regulating adaptive drive mode time periods that are different from the imaging drive mode time periods, wherein the regulating adaptive drive control configuration is configured to provide at least one of a different respective TAG lens regulating drive voltage and a different respective TAG lens regulating drive duration for different respective regulating adaptive drive mode time periods, based on a TAG lens monitoring signal, such as to compensate or reduce or eliminate a difference between the imaging state of the TAG lens and a current operating state of the TAG lens.
Core for a transformer, which comprises a multiplicity of bent metal sheets which are all bonded to form a structure, said structure running in an peripheral manner around a core opening and forming the core, wherein there is no respective mutual contact of the metal-sheet ends of each metal sheet within the core, so that the metal sheets form with the core at least one air gap at their respective metal-sheet ends within the core or at a border of the core, wherein, at least at the metal-sheet ends of the metal sheets, the core is impregnated or coated with a lacquer that contains magnetic particles, and wherein the impregnation or the coating fills at least the air gaps at the metal-sheet ends of the metal sheets, characterized in that the entire core is impregnated or coated with the lacquer containing the magnetic particles.
A converter comprising a plurality of sub-modules connected in series to each other, wherein: each of the sub-modules comprises: a first half-bridge unit comprising a first energy storage unit, and a plurality of first power semiconductors connected in parallel to the first energy storage unit and connected in series to each other; a second half-bridge unit comprising a second energy storage unit, and a plurality of second power semiconductors connected in parallel to the second energy storage unit and connected in series to each other; and an auxiliary circuit unit connecting the first half-bridge unit and the second half-bridge unit; wherein the auxiliary circuit unit comprises a single third power semiconductor and a single diode, wherein the third power semiconductor is connected in parallel to the first of the energy storage units (110, 210) only and the diode is connected in series to the first energy storage unit, wherein a collector terminal of the single third power semiconductor is directly connected to a positive terminal of the first energy storage unit, an anode terminal of the single diode is directly connected to a negative terminal of the first energy storage unit, and a common connection point of an emitter terminal of the single third power semiconductor and a cathode terminal of the single diode is directly connected to a negative terminal of the second energy storage unit. a first half-bridge unit comprising a first energy storage unit, and a plurality of first power semiconductors connected in parallel to the first energy storage unit and connected in series to each other; a second half-bridge unit comprising a second energy storage unit, and a plurality of second power semiconductors connected in parallel to the second energy storage unit and connected in series to each other; and an auxiliary circuit unit connecting the first half-bridge unit and the second half-bridge unit; wherein the auxiliary circuit unit comprises a single third power semiconductor and a single diode, wherein the third power semiconductor is connected in parallel to the first of the energy storage units (110, 210) only and the diode is connected in series to the first energy storage unit, wherein a collector terminal of the single third power semiconductor is directly connected to a positive terminal of the first energy storage unit, an anode terminal of the single diode is directly connected to a negative terminal of the first energy storage unit, and a common connection point of an emitter terminal of the single third power semiconductor and a cathode terminal of the single diode is directly connected to a negative terminal of the second energy storage unit.
Combination appliance comprising a hob and an extractor apparatus, wherein the combination appliance has an appliance housing, in which the components of the combination appliance, namely parts of the extractor apparatus and at least the lower parts of the hob are accommodated, wherein the appliance housing comprises a main housing and two side parts, characterised in that the main housing comprises a base and two side walls, that the base and the side walls are embodied in one piece, that the appliance housing has at least one connecting point for connection to a side part on the two open sides of the main housing in each case, wherein the connecting point refers to an attachment or an interface by way of which the connection between the main housing and the side part can be generated indirectly or directly and that the side parts are fastened to the main housing and thus form an appliance housing which is closed downwards and on all sides.
Inductive power transmission system with a detection system for detecting electrically-conductive foreign bodies in the region between the primary and second winding of the inductive power transmission system, wherein the detection system also has a primary coil (L A) and a secondary coil (L B), which are coupled together, and the primary coil (L A) and the secondary coil (L B) of the detection system are components of electric oscillating circuits (L A -C A; L B -C B), which both have the same resonance frequency (f res), wherein an electric source excites an oscillating circuit (L A -C A) and a monitoring apparatus monitors at least one electric variable on the secondary and/or primary side of the detection system and performs the foreign body detection based on the measured electric variable, characterised in that the resonance frequency (f res) of the coupled primary and secondary coils (L A, L B) of the detection system is different from the base frequency (f 0) and the frequencies of the higher harmonic of the power transmission system, wherein the primary and secondary coils (L A, L B) of the detection system cover the active surface of the inductive power transmission system and are formed in a meandering shape so that no electric voltage or low electric voltage, in relation to the voltage of the source, is induced in the primary and secondary coil of the detection system by the magnetic field of the inductive power transmission system.
A color temperature compensation gobo, comprising a gobo substrate, and a light shielding film being attached to the gobo substrate, wherein the light shielding film is made of an opaque material and provided with hollowed-out carvings, characterized in that a color temperature compensation film is attached to the gobo substrate or the light shielding film, which is used for compensating for the color temperature of light through the gobo substrate and the light shielding film in an optical path to keep the color temperature of the projected light passing through the gobo substrate basically consistent with the color temperature of the projected light not passing through the gobo substrate. a gobo substrate, and a light shielding film being attached to the gobo substrate, wherein the light shielding film is made of an opaque material and provided with hollowed-out carvings, characterized in that a color temperature compensation film is attached to the gobo substrate or the light shielding film, which is used for compensating for the color temperature of light through the gobo substrate and the light shielding film in an optical path to keep the color temperature of the projected light passing through the gobo substrate basically consistent with the color temperature of the projected light not passing through the gobo substrate.
An industrial truck (100, 200, 300, 400, 500) comprising load receiving means for receiving elongated goods and an elongated goods detection device for detecting elongated goods and comprising a safety controller, which has at least one monitoring sensor (4, 4') and which forms at least one protection field (5, 5') using said monitoring sensor (4, 4'), wherein the safety controller is connected operatively with the elongated goods detection device and is designed to influence the at least one protection field (5, 5') on the basis of elongated goods detected by the elongated goods detection device.
Device for use in a method for producing a tooth implant structure, comprising a scanning device, which is provided for scanning the jaw of a patient and producing corresponding image data from the latter, a first processing device which is designed to produce implant data in the image data for establishing a position, an orientation and a space for the arrangement of an implant, to specify the parameters for the arrangement of the implant such as in particular the dimensions of the space established for this, a second processing device which is designed to compare the implant data with stored data of a plurality of different implant designs, and as a result of this comparison to specify at least one suitable implant design from the plurality of different implant designs, and a transformation device which is designed to transform the implant data on the basis of a reference coordinate system into machine data for a processing machine to be used in connection with inserting the implant into the jaw, characterised by a reference section, on or in which reference elements are arranged for defining a reference coordinate system, a template section, which is provided for mounting the reference section in a defined arrangement for fixing detachably to the jaw of a patient and for mounting or forming at least one denture part, and holding means which are arranged in a defined position in relation to the reference elements and are designed for releasably clamping the arrangement of the template section and reference section in the processing machine, in particular a CNC milling machine, for incorporating at least one functional element, preferably a bore, at least in the template section.
Pressure-sensitive adhesive which comprises as base polymer at least one or a plurality of solid acrylonitrile-butadiene rubber(s) and also tackifier resins, the fraction of the tackifier resins being 30 to 130 phr, characterized in that the acrylonitrile content in the solid acrylonitrile-butadiene rubber(s) is between 10 and 25 wt%.
A method of narrow band, NB, wireless communication at a base station (102, 1102), comprising: generating a secondary synchronization signal, SSS signal, wherein the SSS signal comprises a sequence of orthogonal frequency division multiplexing, OFDM, symbols, wherein each symbol of a sequence of SSS symbols is mapped to a codeword symbol of an forward error correction, FEC, code, each FEC codeword comprising source symbols and parity symbols, wherein source symbols of the sequence of SSS symbols carry a cell identifier, ID, and frame timing information, and parity symbols of the sequence of SSS symbols introduce redundancy and coding gain, wherein generating the SSS signal comprises using parity check codes, wherein code symbols of each FEC codeword are represented by ZC sequences selected based on a plurality of root indexes that are partitioned into two subsets based on a quadratic residue property and using a constrained cyclic shift mapping; and transmitting the SSS signal using the NB. generating a secondary synchronization signal, SSS signal, wherein the SSS signal comprises a sequence of orthogonal frequency division multiplexing, OFDM, symbols, wherein each symbol of a sequence of SSS symbols is mapped to a codeword symbol of an forward error correction, FEC, code, each FEC codeword comprising source symbols and parity symbols, wherein source symbols of the sequence of SSS symbols carry a cell identifier, ID, and frame timing information, and parity symbols of the sequence of SSS symbols introduce redundancy and coding gain, wherein generating the SSS signal comprises using parity check codes, wherein code symbols of each FEC codeword are represented by ZC sequences selected based on a plurality of root indexes that are partitioned into two subsets based on a quadratic residue property and using a constrained cyclic shift mapping; and transmitting the SSS signal using the NB.
A blood cell analysis method comprising: acquiring fluorescence information, first scattered light information, and second scattered light information generated by irradiating a measurement sample comprising a particle stained with a fluorescent dye capable of binding to a nucleic acid with light of a first wavelength and light of a second wavelength; specifying a population of nucleated cells from particles in the measurement sample based on the fluorescence information; and specifying a nucleated red blood cell from the population of nucleated cells based on the first scattered light information and the second scattered light information of the population of nucleated cells, wherein the measurement sample is a sample prepared by mixing whole blood and the fluorescent dye, the fluorescent dye is a fluorescent dye capable of being excited by the light of the first wavelength or the light of the second wavelength, the first wavelength is 315 nm or more and 490 nm or less, and the second wavelength is 610 nm or more and 750 nm or less, the fluorescence information is information related to fluorescence generated from the fluorescent dye of the particle, the first scattered light information is information on scattered light generated from the particle by irradiating the measurement sample with the light of the first wavelength, and the second scattered light information is information on scattered light generated from the particle by irradiating the measurement sample with the light of the second wavelength. acquiring fluorescence information, first scattered light information, and second scattered light information generated by irradiating a measurement sample comprising a particle stained with a fluorescent dye capable of binding to a nucleic acid with light of a first wavelength and light of a second wavelength; specifying a population of nucleated cells from particles in the measurement sample based on the fluorescence information; and specifying a nucleated red blood cell from the population of nucleated cells based on the first scattered light information and the second scattered light information of the population of nucleated cells, wherein the measurement sample is a sample prepared by mixing whole blood and the fluorescent dye, the fluorescent dye is a fluorescent dye capable of being excited by the light of the first wavelength or the light of the second wavelength, the first wavelength is 315 nm or more and 490 nm or less, and the second wavelength is 610 nm or more and 750 nm or less, the fluorescence information is information related to fluorescence generated from the fluorescent dye of the particle, the first scattered light information is information on scattered light generated from the particle by irradiating the measurement sample with the light of the first wavelength, and the second scattered light information is information on scattered light generated from the particle by irradiating the measurement sample with the light of the second wavelength.
A method for compensating and correcting an image, applied to a device for recognizing and verifying banknotes comprising a micro control unit, a programmable logic device connected to the micro control unit, an analog to digital chip, a drive circuit, and a static random access memory each connected to the programmable logic device, and a contact image sensor connected to the AD chip and the drive circuit respectively, wherein the static random access memory pre-stores a lookup table for compensation and correction; and the method comprises: receiving, by the programmable logic device, a first configuration instruction output by the micro control unit, and controlling, by the programmable logic device, the drive circuit to drive the contact image sensor to collect first banknote image pixels; converting, by the AD chip, the first banknote image pixels into second banknote image pixels through analog to digital conversion; and acquiring, by the programmable logic device, the second banknote image pixels, accessing the lookup table for compensation and correction pre-stored in the static random access memory using output values of the second banknote image pixels as address data, finding banknote compensated and corrected values corresponding to the second banknote image pixels, and transmitting the banknote compensated and corrected values to the micro control unit; and recognizing, by the micro control unit, the banknote according to the banknote compensated and corrected values and transmitting a banknote recognition result to an upper computer connected to the micro control unit. receiving, by the programmable logic device, a first configuration instruction output by the micro control unit, and controlling, by the programmable logic device, the drive circuit to drive the contact image sensor to collect first banknote image pixels; converting, by the AD chip, the first banknote image pixels into second banknote image pixels through analog to digital conversion; and acquiring, by the programmable logic device, the second banknote image pixels, accessing the lookup table for compensation and correction pre-stored in the static random access memory using output values of the second banknote image pixels as address data, finding banknote compensated and corrected values corresponding to the second banknote image pixels, and transmitting the banknote compensated and corrected values to the micro control unit; and recognizing, by the micro control unit, the banknote according to the banknote compensated and corrected values and transmitting a banknote recognition result to an upper computer connected to the micro control unit.