mhurhangee/ep-ind-claims huggingface dataset:
An imaging device comprising: a plurality of image generating pixels which photoelectrically convert incident light to generate an image generating signal; a plurality of phase difference detecting pixels (200a, 200b, 200c), each comprising a first pixel (210a, 210b, 210c) which has a light-receiving area (310a, 310c, 310e) for receiving incident light that is biased and arranged in a first direction defined along the row direction of the imaging device; and a second pixel (220a, 220b, 220c) which has a light-receiving area (310b, 310d, 310) for receiving incident light that is biased and arranged in a second direction opposite to the first direction; characterized in that widths along the row direction of the light-receiving areas (310a, 310b, 310c, 310d, 310e, 310f, 310g) of the first pixels (210a, 210b, 210c) and the second pixels (220a, 220b, 220c) widen as the phase difference detecting pixels (200a, 200b, 200c) get farther apart from a center of the imaging device in a row direction of the imaging device. a plurality of image generating pixels which photoelectrically convert incident light to generate an image generating signal; a plurality of phase difference detecting pixels (200a, 200b, 200c), each comprising a first pixel (210a, 210b, 210c) which has a light-receiving area (310a, 310c, 310e) for receiving incident light that is biased and arranged in a first direction defined along the row direction of the imaging device; and a second pixel (220a, 220b, 220c) which has a light-receiving area (310b, 310d, 310) for receiving incident light that is biased and arranged in a second direction opposite to the first direction; characterized in that widths along the row direction of the light-receiving areas (310a, 310b, 310c, 310d, 310e, 310f, 310g) of the first pixels (210a, 210b, 210c) and the second pixels (220a, 220b, 220c) widen as the phase difference detecting pixels (200a, 200b, 200c) get farther apart from a center of the imaging device in a row direction of the imaging device.
Jib bracing system for a tower crane, in which the length of a jib and the length of a brace for the jib are each changeable, in which the brace comprises at least a part of a cable, one end thereof can be connected to the jib at at least two different fastening points (8, 9) arranged on the jib, wherein a deflector is arranged on the jib, via which deflector the cable can be guided, and wherein the one end of the cable can be attached to at least one of the fixed points (8, 9), when the cable is guided via the deflector.
A sensor comprising: a plurality of insulating layers (110, 120, 130, 140, 150, 160) vertically stacked; at least two heater patterns (210, 220, 230) respectively formed on at least two of the plurality of insulating layers (110, 120, 130, 140, 150, 160), vertically separated, and electrically connected to each other; at least two sensing electrode patterns (310, 320, 330) insulated from the heater patterns (210, 220, 230), respectively formed on at least two of the plurality of insulating layers (110, 120, 130, 140, 150, 160), vertically separated, and electrically connected to each other; and a sensing material, at least a part of which is buried in the at least two insulating layers (110, 120, 130, 140, 150, 160) to contact the sensing electrode patterns, wherein the heater patterns (210, 220, 230) and the sensing electrode patterns are formed on different insulating layers (110, 120, 130, 140, 150, 160), and vertically and alternatively arranged. a plurality of insulating layers (110, 120, 130, 140, 150, 160) vertically stacked; at least two heater patterns (210, 220, 230) respectively formed on at least two of the plurality of insulating layers (110, 120, 130, 140, 150, 160), vertically separated, and electrically connected to each other; at least two sensing electrode patterns (310, 320, 330) insulated from the heater patterns (210, 220, 230), respectively formed on at least two of the plurality of insulating layers (110, 120, 130, 140, 150, 160), vertically separated, and electrically connected to each other; and a sensing material, at least a part of which is buried in the at least two insulating layers (110, 120, 130, 140, 150, 160) to contact the sensing electrode patterns, wherein the heater patterns (210, 220, 230) and the sensing electrode patterns are formed on different insulating layers (110, 120, 130, 140, 150, 160), and vertically and alternatively arranged.
A method of optical measurement for determining the spatial position of at least one light nanoemitter on a sample, the method comprising: projecting a sequence of at least two compact light distributions of different topological families onto the sample, detecting the light reemitted by said at least one light nanoemitter of the sample; generating at least one optical image for each light distribution, from the detected light; and algorithmically analyzing the optical images to obtain a location information of said at least one light nanoemitter, the two compact light distributions are of different topological families and are collocated on the sample, the method being characterized in that said at least two compact light distributions of different topological families are created by an interference between a regular wave and a singular wave, or between two singular waves, and spatial differentiation between said at least two distributions is created by varying at least one of following parameters: a) at least one of the parameters of the regular wave; b) at least one parameter of at least one singular wave; and c) a phase difference between the regular wave and the singular wave or between two singular waves. projecting a sequence of at least two compact light distributions of different topological families onto the sample, detecting the light reemitted by said at least one light nanoemitter of the sample; generating at least one optical image for each light distribution, from the detected light; and algorithmically analyzing the optical images to obtain a location information of said at least one light nanoemitter, the two compact light distributions are of different topological families and are collocated on the sample, the method being characterized in that said at least two compact light distributions of different topological families are created by an interference between a regular wave and a singular wave, or between two singular waves, and spatial differentiation between said at least two distributions is created by varying at least one of following parameters: a) at least one of the parameters of the regular wave; b) at least one parameter of at least one singular wave; and c) a phase difference between the regular wave and the singular wave or between two singular waves. a) at least one of the parameters of the regular wave; b) at least one parameter of at least one singular wave; and c) a phase difference between the regular wave and the singular wave or between two singular waves.
Sealing arrangement comprising: - a motor vehicle window pane, - a holding rail with a latching channel, which is formed by a guide rail and a spring leg with a latch hook and wherein the holding rail is affixed on the window pane, - a cover with a guide channel, which is formed by a latching rail with a locking element and a positioning stop, - the guide rail is arranged in the guide channel and the latching rail is engaged in the latching channel, wherein - the latch hook is latched into the locking element, in that a convexly curved engagement guide surface of the latch hook is guided along an engagement sliding edge of the locking element, wherein the engagement guide surface of the latch hook is substantially convexly curved in the entire region over which the engagement sliding edge is guided over the latch hook at the time of engagement, - a spring element is tensioned in the guide channel between a contact surface on the underside of the cover and the guide rail, and - the convexly curved engagement guide surface has a local radius of curvature r EF of 1.5*b to 5.0*b and b is the maximum deflection of the latch hook, characterized in that the the guide rail is arranged on the side of the window pane facing away from the spring leg. - a motor vehicle window pane, - a holding rail with a latching channel, which is formed by a guide rail and a spring leg with a latch hook and wherein the holding rail is affixed on the window pane, - a cover with a guide channel, which is formed by a latching rail with a locking element and a positioning stop, - the guide rail is arranged in the guide channel and the latching rail is engaged in the latching channel, - the latch hook is latched into the locking element, in that a convexly curved engagement guide surface of the latch hook is guided along an engagement sliding edge of the locking element, wherein the engagement guide surface of the latch hook is substantially convexly curved in the entire region over which the engagement sliding edge is guided over the latch hook at the time of engagement, - a spring element is tensioned in the guide channel between a contact surface on the underside of the cover and the guide rail, and - the convexly curved engagement guide surface has a local radius of curvature r EF of 1.5*b to 5.0*b and b is the maximum deflection of the latch hook, characterized in that the the guide rail is arranged on the side of the window pane facing away from the spring leg.
A method for calibrating an audio system comprising a loudspeaker (SPK1, SPK2), said method being carried out by a multimedia device and comprising: a) transmitting a first probe signal for audio playback by the loudspeaker, the first probe signal comprising a repetition of a first audio pattern; b) determining a signal quality by listening to an acoustic response of the loudspeaker to the first probe signal; c) determining a second audio pattern by modifying the first audio pattern based on the signal quality; d) transmitting a second probe signal for audio playback by the loudspeaker, the second probe signal comprising a repetition of a second audio pattern; and e) determining an audio delay compensation for the loudspeaker based on a measure of an audio delay between the transmitted second probe signal and an acoustic response of the loudspeaker in response to the second probe signal, characterized in that, if the signal quality is below a predetermined value, the second probe signal comprises a longer duration between two successive patterns compared to the first probe signal, and/or if the signal quality is above a predetermined value, the second probe signal comprises a shorter duration between two successive patterns than the first probe signal. a) transmitting a first probe signal for audio playback by the loudspeaker, the first probe signal comprising a repetition of a first audio pattern; b) determining a signal quality by listening to an acoustic response of the loudspeaker to the first probe signal; c) determining a second audio pattern by modifying the first audio pattern based on the signal quality; d) transmitting a second probe signal for audio playback by the loudspeaker, the second probe signal comprising a repetition of a second audio pattern; and e) determining an audio delay compensation for the loudspeaker based on a measure of an audio delay between the transmitted second probe signal and an acoustic response of the loudspeaker in response to the second probe signal, if the signal quality is below a predetermined value, the second probe signal comprises a longer duration between two successive patterns compared to the first probe signal, and/or if the signal quality is above a predetermined value, the second probe signal comprises a shorter duration between two successive patterns than the first probe signal.
A User Equipment, UE, comprising a processor and a transceiver configured to: transmit (306, 314) a message (401, 408) requesting connectivity to an Evolved Node B, eNB; and connect (308, 316) to the eNB on a primary Long Term Evolution, LTE, frequency band; characterized in that the message (401, 408) indicates a loss of Licensed Shared Access, LSA, frequency band cause for the request; and the UE is configured to connect (308, 316) to the eNB on the primary LTE frequency band according to information associated with the loss of LSA frequency band cause. transmit (306, 314) a message (401, 408) requesting connectivity to an Evolved Node B, eNB; and connect (308, 316) to the eNB on a primary Long Term Evolution, LTE, frequency band; characterized in that the message (401, 408) indicates a loss of Licensed Shared Access, LSA, frequency band cause for the request; and the UE is configured to connect (308, 316) to the eNB on the primary LTE frequency band according to information associated with the loss of LSA frequency band cause.
A fuel cell comprising: a cell stack having a reaction gas passage inside thereof and having on one end surface thereof a reaction gas supply inlet from which a reaction gas is supplied to the reaction gas passage; a joint connecting the reaction gas supply inlet to an external pipe for supplying the reaction gas; a plate-shaped end member which is disposed on one end surface of the cell stack and has a through-hole into which the joint is inserted so as not to contact an inner wall surface thereof; characterized in that the fuel cell comprises a closing structure (9; 26; 27) for closing an opening of a gap formed between the joint and the inner wall surface of the through-hole and preventing outside air from flowing into the gap. a cell stack having a reaction gas passage inside thereof and having on one end surface thereof a reaction gas supply inlet from which a reaction gas is supplied to the reaction gas passage; a joint connecting the reaction gas supply inlet to an external pipe for supplying the reaction gas; a plate-shaped end member which is disposed on one end surface of the cell stack and has a through-hole into which the joint is inserted so as not to contact an inner wall surface thereof; characterized in that the fuel cell comprises a closing structure (9; 26; 27) for closing an opening of a gap formed between the joint and the inner wall surface of the through-hole and preventing outside air from flowing into the gap.
A transmission method characterised by the steps of: extracting, by a sequence extractor, a first sequence for a non-coherent receiver and a second sequence for a coherent receiver from a ternary preamble sequence including elements -1, 0, and 1, wherein the first sequence includes elements 0 and 1, and the second sequence includes elements -1 and 1, and wherein the step of extracting comprises, extracting the first sequence by converting the elements of the ternary preamble sequence into absolute values based on a period of the first sequence, and extracting the second sequence by converting the element 0 of the ternary preamble sequence into the element 1 based on a period of the second sequence; and generating, by a sequence generator, a third sequence supported by both the non-coherent receiver and the coherent receiver by mapping the first sequence and the second sequence to bits of a preamble for transmitting the third sequence to at least one among the non-coherent receiver and the coherent receiver, wherein the step of generating comprises generating a base preamble sequence corresponding to the bits of the preamble, and generating the third sequence by repeating the base preamble sequence a certain number of times, and wherein the step of generating comprises generating the base preamble sequence by repetitively expanding the first sequence based on a ratio between a period of the first sequence and a period of the second sequence and multiplying the expanded first sequence by the second sequence. extracting, by a sequence extractor, a first sequence for a non-coherent receiver and a second sequence for a coherent receiver from a ternary preamble sequence including elements -1, 0, and 1, wherein the first sequence includes elements 0 and 1, and the second sequence includes elements -1 and 1, and wherein the step of extracting comprises, extracting the first sequence by converting the elements of the ternary preamble sequence into absolute values based on a period of the first sequence, and extracting the second sequence by converting the element 0 of the ternary preamble sequence into the element 1 based on a period of the second sequence; and generating, by a sequence generator, a third sequence supported by both the non-coherent receiver and the coherent receiver by mapping the first sequence and the second sequence to bits of a preamble for transmitting the third sequence to at least one among the non-coherent receiver and the coherent receiver, wherein the step of generating comprises generating a base preamble sequence corresponding to the bits of the preamble, and generating the third sequence by repeating the base preamble sequence a certain number of times, and wherein the step of generating comprises generating the base preamble sequence by repetitively expanding the first sequence based on a ratio between a period of the first sequence and a period of the second sequence and multiplying the expanded first sequence by the second sequence.
Method for training a machine model for describing a battery system, comprising: - Provision of training data, which comprise constant descriptive battery vectors and, in each case, for these descriptive battery vectors, a series of temporally sequential measurement value vectors; - Processing of training data in the machine model, wherein a simulated battery system state is obtained; - Provision of a cost function, which describes a deviation of the simulated battery system state from a reference battery state; - Training of the machine model wherein, by the adjustment of parameters of the machine model, the cost function is minimized. - Provision of training data, which comprise constant descriptive battery vectors and, in each case, for these descriptive battery vectors, a series of temporally sequential measurement value vectors; - Processing of training data in the machine model, wherein a simulated battery system state is obtained; - Provision of a cost function, which describes a deviation of the simulated battery system state from a reference battery state; - Training of the machine model wherein, by the adjustment of parameters of the machine model, the cost function is minimized.
A process for treating a medium by the removal or destruction of one or more undesired substances present in said medium,comprising combining hydrogen peroxide and alkali hydroxide in an aqueous solution in a molar ratio from 1.2:1 to 2:1 (H 2 O 2:OH -) to form superoxide, wherein the hydroxide is added to the aqueous solution at a concentration of not less than 1.5 M, and bringing the resultant superoxide-containing solution into contact with said medium.
A disposable disposal system for reducing substance abuse or environmental contamination from unused medications, said system comprising: (a) a disposable, sealable container or pouch that can be opened to receive an amount of unused medication substance therein, wherein the container or pouch comprises compositions consisting of: an amount of an active binding agent in said container for treating said medication on contact, said binding agent including an amount of activated carbon, wherein said binding agent is held in a manner such that insertion of said medication into said container or pouch will cause said medication to contact said binding agent, and optionally a suspension substance, wherein said active binding agent including activated carbon is contained in the suspension substance to suspend said activated carbon and thereby improve contact with said medication; and (b) said container or pouch including a closure for sealing said container or pouch to thereby capture a treated medication. (a) a disposable, sealable container or pouch that can be opened to receive an amount of unused medication substance therein, wherein the container or pouch comprises compositions consisting of: an amount of an active binding agent in said container for treating said medication on contact, said binding agent including an amount of activated carbon, wherein said binding agent is held in a manner such that insertion of said medication into said container or pouch will cause said medication to contact said binding agent, and optionally a suspension substance, wherein said active binding agent including activated carbon is contained in the suspension substance to suspend said activated carbon and thereby improve contact with said medication; and an amount of an active binding agent in said container for treating said medication on contact, said binding agent including an amount of activated carbon, wherein said binding agent is held in a manner such that insertion of said medication into said container or pouch will cause said medication to contact said binding agent, and optionally a suspension substance, wherein said active binding agent including activated carbon is contained in the suspension substance to suspend said activated carbon and thereby improve contact with said medication; and (b) said container or pouch including a closure for sealing said container or pouch to thereby capture a treated medication.