mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding a three-dimensional video bitstream, comprising: decoding, from the three-dimensional video bitstream comprising a plurality of views including a left view comprising a left view image and a right view comprising a right view image, and supplemental auxiliary information for constructing a stereo pair, a syntax element in the supplemental auxiliary information to obtain a number of shifting samples, the syntax element having an integer numerical value C' between 0 to 2 n -1 and including 0 and 2 n -1, where n is an integer, where C' greater than or equal to an integer K, wherein 0 ≤ K ≤ 2 n -1, represents shifting the left view image by the number C'-K shifting samples in a right direction with respect to the right view image, and C' being smaller than K represents shifting the left view image by the number K-C' shifting samples in a left direction with respect to the right view image; and constructing the stereo pair comprising the left view image and the right view image from the three-dimensional video bitstream by horizontally shifting according to the number of shifting samples obtained from the supplemental auxiliary information. decoding, from the three-dimensional video bitstream comprising a plurality of views including a left view comprising a left view image and a right view comprising a right view image, and supplemental auxiliary information for constructing a stereo pair, a syntax element in the supplemental auxiliary information to obtain a number of shifting samples, the syntax element having an integer numerical value C' between 0 to 2 n -1 and including 0 and 2 n -1, where n is an integer, where C' greater than or equal to an integer K, wherein 0 ≤ K ≤ 2 n -1, represents shifting the left view image by the number C'-K shifting samples in a right direction with respect to the right view image, and C' being smaller than K represents shifting the left view image by the number K-C' shifting samples in a left direction with respect to the right view image; and constructing the stereo pair comprising the left view image and the right view image from the three-dimensional video bitstream by horizontally shifting according to the number of shifting samples obtained from the supplemental auxiliary information.
An electrical control system , in particular for home automation systems, comprising at least one electronic switching device , which includes a switching module ; said switching module comprising: - a switching circuit including at least one controlled switch arranged to allow a selective implementation of a 2-way switch configuration or a 3-way switch configuration or a 4-way switch configuration; and - a plurality of terminals arranged to allow the connection of said switching module to an external electrical system (IE); said switching module being arranged to allow the selective application of the 2-way switch configuration of the switching circuit or 3-way switch configuration of the switching circuit or 4-way switch configuration of the switching circuit to said plurality of terminals , in a partial way, or total way, or so that to implement a total separation to said plurality of terminals ; wherein: - the total application of the 3-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals ; - the partial application of the 3-way switch configuration includes the application of the 2-way switch configuration to said plurality of terminals ; - the total application of the 4-way switch configuration includes the application of the 4-way switch configuration to said plurality of terminals ; - the partial application of the 4-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals or the application of the 2-way switch configuration to said plurality of terminals . - a switching circuit including at least one controlled switch arranged to allow a selective implementation of a 2-way switch configuration or a 3-way switch configuration or a 4-way switch configuration; and - a plurality of terminals arranged to allow the connection of said switching module to an external electrical system (IE); - the total application of the 3-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals ; - the partial application of the 3-way switch configuration includes the application of the 2-way switch configuration to said plurality of terminals ; - the total application of the 4-way switch configuration includes the application of the 4-way switch configuration to said plurality of terminals ; - the partial application of the 4-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals or the application of the 2-way switch configuration to said plurality of terminals .
Ethylene plant, comprising - a cracking furnace for converting a hydrocarbon feedstock into a cracked gas stream ; - a separation section configured to provide at least an ethylene-enriched product stream , a hydrogen-enriched fuel stream and a methane-enriched fuel stream from the cracked gas stream ; - a passage way for feeding at least part of the hydrogen-enriched fuel from the separation section to a burner of the cracking furnace and/or a passage way for feeding at least part of the hydrogen-enriched fuel from the separation section to a burner of a waste heat recovery boiler of a combined cycle gas turbine power plant(CCGT); - a methane storage configured for storing methane-enriched fuel and a passage way for feeding at least part of the methane-enriched fuel from the separation section to the storage ; - the CCGT, comprising a gas turbine - the gas turbine comprising a combustor - and a passage way for feeding at least part of the methane-enriched fuel from the storage to the combustor of the gas turbine of the CCGT, which CCGT is configured to generate electric power and/or to generate high pressure steam to drive a steam turbine forming part of a steam generation circuit of the ethylene plant; and - an electric power connection configured to provide part of the power for operating the plant, which is a connection to an electric power system to produce electric power from a renewable source. - a cracking furnace for converting a hydrocarbon feedstock into a cracked gas stream ; - a separation section configured to provide at least an ethylene-enriched product stream , a hydrogen-enriched fuel stream and a methane-enriched fuel stream from the cracked gas stream ; - a passage way for feeding at least part of the hydrogen-enriched fuel from the separation section to a burner of the cracking furnace and/or a passage way for feeding at least part of the hydrogen-enriched fuel from the separation section to a burner of a waste heat recovery boiler of a combined cycle gas turbine power plant(CCGT); - a methane storage configured for storing methane-enriched fuel and a passage way for feeding at least part of the methane-enriched fuel from the separation section to the storage ; - the CCGT, comprising a gas turbine - the gas turbine comprising a combustor - and a passage way for feeding at least part of the methane-enriched fuel from the storage to the combustor of the gas turbine of the CCGT, which CCGT is configured to generate electric power and/or to generate high pressure steam to drive a steam turbine forming part of a steam generation circuit of the ethylene plant; and - an electric power connection configured to provide part of the power for operating the plant, which is a connection to an electric power system to produce electric power from a renewable source.
Circular plug-in connector socket for a printed circuit board which can be arranged thereon, wherein the circular plug-in connector socket has, on a rear side facing away from its plug-in side, a printed circuit board contact element which forms at least one spring contact by way of which each socket contact of the circular plug-in connector socket can be electrically conductively connected to a respective contact area of the printed circuit board, wherein the circular plug-in connector socket comprises a circular plug-in connector socket housing which has at least one fastening means and one orientation means for orientation and mounting on a housing, and wherein a further spring contact of the printed circuit board contact element is situated opposite the spring contact and the spring contacts are spaced apart from one another, the printed circuit board can be arranged between the spring contact and the further spring contact and one spring contact can be brought into contact with the contact area on a top side of the printed circuit board and the further spring contact can be brought into contact with a further contact area on a bottom side of the printed circuit board, so that a spring force of a respective spring contact presses the spring contact with spring action against a respective contact area of the printed circuit board, characterized in that the fastening means and the orientation means are of integral design in the form of an elongate hole .
System for creating an object image of an object under investigation, comprising: - a computing device being configured for creating the object image by using first tomography data of the object provided by a first tomography system and second tomography data of the object provided by a second tomography system , wherein - the computing device is configured for calculating a first forward model describing the first tomography data using the second tomography data , and performing a first inversion of the first forward model , characterized in that the computing device is further configured for - subjecting the second tomography data to a segmentation of the object into multiple image segments, - calculating a parameter set using the first inversion , wherein the parameter set is calculated from an intermediate object image, which results from the first inversion , and from the object segmentation by taking a signal sum or average in the intermediate object image corresponding to each of the segments, and - performing a second inversion of the first forward model using the parameter set and the second tomography data to obtain the object image to be created, wherein the parameter set provides regularization parameters, which fill a penalty matrix used in the second inversion . - a computing device being configured for creating the object image by using first tomography data of the object provided by a first tomography system and second tomography data of the object provided by a second tomography system , wherein - the computing device is configured for calculating a first forward model describing the first tomography data using the second tomography data , and performing a first inversion of the first forward model , - subjecting the second tomography data to a segmentation of the object into multiple image segments, - calculating a parameter set using the first inversion , wherein the parameter set is calculated from an intermediate object image, which results from the first inversion , and from the object segmentation by taking a signal sum or average in the intermediate object image corresponding to each of the segments, and - performing a second inversion of the first forward model using the parameter set and the second tomography data to obtain the object image to be created, wherein the parameter set provides regularization parameters, which fill a penalty matrix used in the second inversion .
An optical receiver characterised by : an input arranged to receive a subcarrier multiplexing, SCM, optical signal comprising an optical carrier and an optical subcarrier, each having a respective optical power; a carrier suppression element arranged to receive the SCM optical signal and having a rejection band that is tuneable in frequency to partially suppress the optical carrier by a variable amount; an optical amplifier having a variable gain, the optical amplifier being arranged to receive the SCM optical signal output from the carrier suppression element and being arranged to amplify the optical carrier and the optical subcarrier; a photoreceiver arranged to receive the SCM optical signal output from the optical amplifier; and a controller arranged to cause frequency tuning of the rejection band and variation of the gain of the optical amplifier so as to adjust a ratio of the optical power of the optical carrier at the photoreceiver to the optical power of the optical subcarrier at the photoreceiver based on an indication of performance of the SCM optical signal; wherein the controller is arranged to generate at least one control signal arranged to cause the frequency tuning of the rejection band of the carrier suppression element and to cause the gain of the optical amplifier to change by an amount to restore the optical power of the SCM optical signal received at the photoreceiver to the initial value of the optical power of the SCM optical signal received at the photoreceiver. an input arranged to receive a subcarrier multiplexing, SCM, optical signal comprising an optical carrier and an optical subcarrier, each having a respective optical power; a carrier suppression element arranged to receive the SCM optical signal and having a rejection band that is tuneable in frequency to partially suppress the optical carrier by a variable amount; an optical amplifier having a variable gain, the optical amplifier being arranged to receive the SCM optical signal output from the carrier suppression element and being arranged to amplify the optical carrier and the optical subcarrier; a photoreceiver arranged to receive the SCM optical signal output from the optical amplifier; and a controller arranged to cause frequency tuning of the rejection band and variation of the gain of the optical amplifier so as to adjust a ratio of the optical power of the optical carrier at the photoreceiver to the optical power of the optical subcarrier at the photoreceiver based on an indication of performance of the SCM optical signal; wherein the controller is arranged to generate at least one control signal arranged to cause the frequency tuning of the rejection band of the carrier suppression element and to cause the gain of the optical amplifier to change by an amount to restore the optical power of the SCM optical signal received at the photoreceiver to the initial value of the optical power of the SCM optical signal received at the photoreceiver.
An outer space deployable antenna comprising: a support shaft ; a plurality of antenna fins ; an actuator ; and at least one draw cord coupled between the plurality of antenna fins and the actuator so that the plurality of antenna fins are moveable from a flat stored configuration to a fanned-out deployed configuration surrounding the support shaft . a support shaft ; a plurality of antenna fins ; an actuator ; and at least one draw cord coupled between the plurality of antenna fins and the actuator so that the plurality of antenna fins are moveable from a flat stored configuration to a fanned-out deployed configuration surrounding the support shaft .
Ski brake system with at least one lever mounted for rotation about an axis X on a baseplate suitable for mounting on a ski board , and a control plate pivotally mounted on the lever along an axis X2 parallel to the X axis, and an elastic member arranged to cooperate with the lever ,said brake system being able to move between a "downhill" mode, in which the lever pivots between a release position, in which it can be held above the lower level of the ski board by bearing on the control plate against the action of the elastic member , and a released position, in which it is held below the lower level of the ski board under the action of the elastic member , and an "ascent" mode in which the lever is positioned above the lower level of the ski board , characterized in that , in the ascent mode, the control plate is held in abutment against an abutment member under the action of the elastic member, the control plate then being positioned so as to form an ascent wedge and provide support for the heel of the boot.
A bogie, comprising a frame and a swing bolster , and further comprising: a pin shaft , wherein the pin shaft is provided on the frame and the swing bolster in a penetration manner, such that the swing bolster is rotationally provided with respect to the frame ; wherein the swing bolster comprises a swing bolster main body ; a bottom end of the swing bolster main body can be used for connecting to a vehicle body; the pin shaft is provided on a top end of the swing bolster main body in a penetration manner, so as to connect the frame and the swing bolster , characterised in that two oppositely arranged clamping parts are provided at a top end of the swing bolster main body , the frame is provided with a mounting part , the mounting part is clamped between the two clamping parts , and the pin shaft is provided on the two clamping parts and the mounting part in a penetration manner; whereby the bogie also comprises: an antithrust gasket , wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts , and the antithrust gasket is provided around the pin shaft ; a first sealing ring , wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts , and the first sealing ring is provided around the antithrust gasket . a pin shaft , wherein the pin shaft is provided on the frame and the swing bolster in a penetration manner, such that the swing bolster is rotationally provided with respect to the frame ; wherein the swing bolster comprises a swing bolster main body ; a bottom end of the swing bolster main body can be used for connecting to a vehicle body; the pin shaft is provided on a top end of the swing bolster main body in a penetration manner, so as to connect the frame and the swing bolster , characterised in that two oppositely arranged clamping parts are provided at a top end of the swing bolster main body , the frame is provided with a mounting part , the mounting part is clamped between the two clamping parts , and the pin shaft is provided on the two clamping parts and the mounting part in a penetration manner; whereby the bogie also comprises: an antithrust gasket , wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts , and the antithrust gasket is provided around the pin shaft ; a first sealing ring , wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts , and the first sealing ring is provided around the antithrust gasket . an antithrust gasket , wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts , and the antithrust gasket is provided around the pin shaft ; a first sealing ring , wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts , and the first sealing ring is provided around the antithrust gasket .
A phase-based time-of-flight system that includes a primary optical source that emits optical energy S out having a modulation frequency ω and a phase φ, wherein the time-of-flight system detects S in , which is at least a fraction of emitted said optical energy that is reflected-back by a target object a distance Z away, and determines said distance Z from a shift in said phase φ in S in , characterized in said time-of-flight system further including: at least one auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4), wherein optical energy emitted by each said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is substantially indistinguishable to said target object in modulation frequency and phase from the optical energy S out emitted by said primary optical source ; wherein at least one said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is a wireless optical emitting unit disposed to receive a portion of said optical energy S out emitted by said primary optical source , said S out having a modulation frequency and a phase shift as received by said wireless optical emitting unit, said wireless optical emitting unit generating output optical energy S out-n dynamically locked in modulation frequency and phase φ to the optical energy received by said wireless optical emitting unit; and wherein operation of said at least one wireless optical emitting unit increases effective power of optical energy reflected back toward said time-of-flight system by said target object . at least one auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4), wherein optical energy emitted by each said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is substantially indistinguishable to said target object in modulation frequency and phase from the optical energy S out emitted by said primary optical source ; wherein at least one said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is a wireless optical emitting unit disposed to receive a portion of said optical energy S out emitted by said primary optical source , said S out having a modulation frequency and a phase shift as received by said wireless optical emitting unit, said wireless optical emitting unit generating output optical energy S out-n dynamically locked in modulation frequency and phase φ to the optical energy received by said wireless optical emitting unit; and wherein operation of said at least one wireless optical emitting unit increases effective power of optical energy reflected back toward said time-of-flight system by said target object .