mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling media content delivery comprising: establishing communications via a data channel between a media content source and a media device for delivery of media content; establishing communications via a backchannel (1102; 1104; 1106) between the media content source and the media device, wherein the backchannel is separate from the data channel; receiving, at the media device, a user command; sending, in a first format, media control information based on the user command from the media device via the backchannel; receiving the media control information in the first format at a clearinghouse ; processing the media control information at the clearinghouse into a second format that is understandable by the media content source; transmitting the processed media control information from the clearinghouse to the media content source; and controlling, at the media content source, the delivery of the media content to the media device via the data channel in response to the media control information sent from the media device via the backchannel. establishing communications via a data channel between a media content source and a media device for delivery of media content; establishing communications via a backchannel (1102; 1104; 1106) between the media content source and the media device, wherein the backchannel is separate from the data channel; receiving, at the media device, a user command; sending, in a first format, media control information based on the user command from the media device via the backchannel; receiving the media control information in the first format at a clearinghouse ; processing the media control information at the clearinghouse into a second format that is understandable by the media content source; transmitting the processed media control information from the clearinghouse to the media content source; and controlling, at the media content source, the delivery of the media content to the media device via the data channel in response to the media control information sent from the media device via the backchannel.
A method for improving the cooling capacity of a gas solids olefin polymerization reactor comprising: - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; comprising the following steps: a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor. - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; comprising the following steps: a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor. a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor.
Surround view system for a vehicle , comprising: - a capture unit ; and - an evaluation unit , wherein the capture unit is configured to capture environment data, wherein the evaluation unit is configured to recognize an object in the captured environment data and to determine its 3D shape, wherein the evaluation unit is furthermore configured to add the determined 3D shape to a projection surface of the surround view system for the captured environment data such that an adapted projection surface arises, and wherein the evaluation unit is configured to project the environment data onto the adapted projection surface , characterized in that the evaluation unit is configured to fill the region concealed by the object in the environment data during the projection of the environment data onto the adapted projection surface by an interpolation of the surrounding environment data and/or by a mirroring of the environment data of the front side of the object . - a capture unit ; and - an evaluation unit , wherein the capture unit is configured to capture environment data, wherein the evaluation unit is configured to recognize an object in the captured environment data and to determine its 3D shape, wherein the evaluation unit is furthermore configured to add the determined 3D shape to a projection surface of the surround view system for the captured environment data such that an adapted projection surface arises, and wherein the evaluation unit is configured to project the environment data onto the adapted projection surface , characterized in that the evaluation unit is configured to fill the region concealed by the object in the environment data during the projection of the environment data onto the adapted projection surface by an interpolation of the surrounding environment data and/or by a mirroring of the environment data of the front side of the object .
A method of sharing an application, the method being performed by a source device , and the method comprising: determining whether a target device is located in a communication range of the source device ; in response to the determining that the target device is located in the communication range of the source device , establishing a wireless connection to the target device ; transmitting, to the target device , a list of shareable applications providable by the source device ; receiving, from the target device , a request to access an application among the shareable applications; executing the application; generating, during the execution of the application, a window instance of the executed application for the target device , wherein the window instance includes at least one window generated after the execution of the application; and transmitting, to the target device , the at least one window to be displayed and to receive an input of a user at the target device. determining whether a target device is located in a communication range of the source device ; in response to the determining that the target device is located in the communication range of the source device , establishing a wireless connection to the target device ; transmitting, to the target device , a list of shareable applications providable by the source device ; receiving, from the target device , a request to access an application among the shareable applications; executing the application; generating, during the execution of the application, a window instance of the executed application for the target device , wherein the window instance includes at least one window generated after the execution of the application; and transmitting, to the target device , the at least one window to be displayed and to receive an input of a user at the target device.
A video decoding method for motion compensation performed under an inter-frame prediction, the method comprising computer executable steps executed by a processor of a video decoder to implement: retrieving reference samples stored in a first bit depth from a reference picture memory; applying a first fractional sample interpolation based on the retrieved samples in a first direction to generate a first set of fractional samples; and applying a second fractional sample interpolation on the first set of fractional samples in a second direction to generate a second set of fractional samples, wherein the fractional samples of the first set of fractional samples are represented with a second bit depth which is independent of the first bit depth of the reference samples, wherein the fractional samples of the second set of fractional samples are represented with the second bit depth, wherein the second bit depth is set equal to a number of bits available to represent the fractional samples, wherein the first fractional sample interpolation applies a conversion of the reference samples from the first bit depth to the second bit depth, wherein each reference sample is converted based on a factor set equal to the second bit depth minus the first bit depth of the reference sample, wherein the first fractional sample interpolation comprises consecutively increasing the bit depth of the converted samples from the second bit depth by applying a filter and truncating to the second bit depth. retrieving reference samples stored in a first bit depth from a reference picture memory; applying a first fractional sample interpolation based on the retrieved samples in a first direction to generate a first set of fractional samples; and applying a second fractional sample interpolation on the first set of fractional samples in a second direction to generate a second set of fractional samples, wherein the fractional samples of the first set of fractional samples are represented with a second bit depth which is independent of the first bit depth of the reference samples, wherein the fractional samples of the second set of fractional samples are represented with the second bit depth, wherein the second bit depth is set equal to a number of bits available to represent the fractional samples, wherein the first fractional sample interpolation applies a conversion of the reference samples from the first bit depth to the second bit depth, wherein each reference sample is converted based on a factor set equal to the second bit depth minus the first bit depth of the reference sample, wherein the first fractional sample interpolation comprises consecutively increasing the bit depth of the converted samples from the second bit depth by applying a filter and truncating to the second bit depth.
A compressor comprising: a compression mechanism which compresses gas and discharges the compressed gas; an electric motor which drives the compression mechanism ; a casing which houses the compression mechanism and the electric motor ; a suction pipe connected to a suction side of the compression mechanism via the casing ; and a discharge pipe provided at the casing so as to open in a space in the casing , the space in the casing having a first space (S1) located below the electric motor and a second space (S2) located above the electric motor , the compression mechanism being disposed in the first space (S2), and the compressor being provided with a partition plate disposed in the second space (S2) and having a gas passage hole formed therein, wherein the partition plate has an oil drain hole formed at a lower level than an open end of the gas passage hole and located radially outside an outer peripheral surface of a rotor of the electric motor at a position of a peripheral portion of the partition plate . a compression mechanism which compresses gas and discharges the compressed gas; an electric motor which drives the compression mechanism ; a casing which houses the compression mechanism and the electric motor ; a suction pipe connected to a suction side of the compression mechanism via the casing ; and a discharge pipe provided at the casing so as to open in a space in the casing , the space in the casing having a first space (S1) located below the electric motor and a second space (S2) located above the electric motor , the compression mechanism being disposed in the first space (S2), and the compressor being provided with a partition plate disposed in the second space (S2) and having a gas passage hole formed therein, wherein the partition plate has an oil drain hole formed at a lower level than an open end of the gas passage hole and located radially outside an outer peripheral surface of a rotor of the electric motor at a position of a peripheral portion of the partition plate .
An anti-reflective, anti-static optical lens comprising: an optical substrate ; a plurality of layers of an oxide form of a first material applied over a surface of the optical substrate ; a plurality of layers of an oxide form of a second material applied over the surface of the optical substrate, at least one layer of the plurality of layers of the oxide form of the second material interposed between two layers of the plurality of layers of the oxide form of the first material; an adhesive layer applied directly to the optical substrate ; and an absorbing electrically conductive layer of a non-oxide form of the first material or the second material applied over the surface of the optical substrate ; characterised in that the adhesive layer is formed of either the first material or the second material. an optical substrate ; a plurality of layers of an oxide form of a first material applied over a surface of the optical substrate ; a plurality of layers of an oxide form of a second material applied over the surface of the optical substrate, at least one layer of the plurality of layers of the oxide form of the second material interposed between two layers of the plurality of layers of the oxide form of the first material; an adhesive layer applied directly to the optical substrate ; and an absorbing electrically conductive layer of a non-oxide form of the first material or the second material applied over the surface of the optical substrate ; characterised in that the adhesive layer is formed of either the first material or the second material.
Method for emulating a first type of fluorescence observation device on a second, different type of fluorescence observation device , the method comprising the following steps: - retrieving at least one digital fluorescence image representing an object in a fluorescence spectrum of a fluorophore and recorded by the second type of fluorescence observation device using an image-recording system - computing a digital emulated output image from the at least one digital fluorescence image, and - outputting the digital emulated output image for at least one of displaying or further processing, wherein the step of computing the at least one digital emulated output image comprises the step of: - applying a type-emulation module to the at least one digital fluorescence image, the type-emulation module being representative of the image-recording system of the first type of a fluorescence observation device . - retrieving at least one digital fluorescence image representing an object in a fluorescence spectrum of a fluorophore and recorded by the second type of fluorescence observation device using an image-recording system - computing a digital emulated output image from the at least one digital fluorescence image, and - outputting the digital emulated output image for at least one of displaying or further processing, - applying a type-emulation module to the at least one digital fluorescence image, the type-emulation module being representative of the image-recording system of the first type of a fluorescence observation device .
System for monitoring the use of hand tools comprising: - At least one hand tool which in turn comprises at least one passive transponder integrated inside its handle ; - A passive user transponder to link each user with said passive user transponder ; - A wearable electronic device adaptable to the hand and/or wrist of the user who is going to handle the hand tool and which includes a reader for reading the passive transponder of the hand tool and the passive user transponder ; and - A computer equipment to store and process the information collected by the wearable electronic device ; and wherein the passive transponder of the hand tool , the passive user transponder and the reader of said passive transponders that comprises the wearable electronic device are of the type that use radio frequency identification technology (RFID) and work at the low frequency of 125 KHz or 134.5 KHz and in the near field. - At least one hand tool which in turn comprises at least one passive transponder integrated inside its handle ; - A passive user transponder to link each user with said passive user transponder ; - A wearable electronic device adaptable to the hand and/or wrist of the user who is going to handle the hand tool and which includes a reader for reading the passive transponder of the hand tool and the passive user transponder ; and - A computer equipment to store and process the information collected by the wearable electronic device ;
A fluid gear pump comprising: a first gear constructed and arranged to rotate about a first axis , the first gear including a concentrically disposed first hub portion and a plurality of first teeth radially projecting and circumferentially spaced about the first hub portion , the first hub portion being formed of a ceramic material; a second gear operably coupled to the first gear for rotation about a second axis , the second gear including a concentrically disposed second hub portion and a plurality of second teeth radially projecting and circumferentially spaced about the second hub portion, wherein at a time in operation the plurality of first teeth and the plurality of second teeth contact at first contact point and a second contact point to create a backlash volume interposed between the first contact point and the second contact point; a first bearing abutting and coaxial to the first hub portion ; and a second bearing abutting and coaxial to the second hub portion ; wherein the first teeth of the first gear include a portion formed of metal and a portion formed of a silicon-aluminum-oxygen-nitrogen (SiAlON) ceramic or of partially stabilized zirconia. a first gear constructed and arranged to rotate about a first axis , the first gear including a concentrically disposed first hub portion and a plurality of first teeth radially projecting and circumferentially spaced about the first hub portion , the first hub portion being formed of a ceramic material; a second gear operably coupled to the first gear for rotation about a second axis , the second gear including a concentrically disposed second hub portion and a plurality of second teeth radially projecting and circumferentially spaced about the second hub portion, wherein at a time in operation the plurality of first teeth and the plurality of second teeth contact at first contact point and a second contact point to create a backlash volume interposed between the first contact point and the second contact point; a first bearing abutting and coaxial to the first hub portion ; and a second bearing abutting and coaxial to the second hub portion ; wherein the first teeth of the first gear include a portion formed of metal and a portion formed of a silicon-aluminum-oxygen-nitrogen (SiAlON) ceramic or of partially stabilized zirconia.
A recombinant nucleic acid molecule comprising a nucleotide sequence encoding an amino acid sequence having pesticidal activity, wherein said nucleotide sequence is selected from the group consisting of: a) the nucleotide sequence set forth in SEQ ID NO:2 or SEQ ID NO:3; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5; c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 96 % sequence identity to the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5, wherein the polypeptide has toxic activity against more than one pest including members of the Lepidoptera, Diptera, and Coleoptera order or the Nematoda phylum. a) the nucleotide sequence set forth in SEQ ID NO:2 or SEQ ID NO:3; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5; c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 96 % sequence identity to the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5, wherein the polypeptide has toxic activity against more than one pest including members of the Lepidoptera, Diptera, and Coleoptera order or the Nematoda phylum.
Interior-lining part for a motor vehicle (K), with at least one elongate light guide which extends at least regionally along the interior-lining part , wherein the interior-lining part has at least one dimensionally stable carrier with a foam-like layer which covers the dimensionally stable carrier and with a skin which provides a coating over the foam-like layer , characterized in that the at least one light guide is held in an elongate holding part which, for its part, is connected to the dimensionally stable carrier of the foam-like layer , wherein the holding part , as seen in cross section, has a groove-like bend in which the light guide is accommodated, wherein, in the fitting position of the interior-lining part in the motor vehicle, an opening of the bend is directed downwards and the light guide , with the groove-like bend , is positioned in an upwardly directed groove-like recess of the foam-like coating .
A blade outer air seal (BOAS) for a gas turbine engine , comprising: a seal body having a radially inner face and a radially outer face that axially extend between a leading edge portion and a trailing edge portion ; and at least one cooling fin disposed on said radially outer face between said leading edge portion and said trailing edge portion ; characterised in that : said at least one cooling fin includes an outer surface which includes a stepped portion such that the cooling fin has a varying height across its length L relative to the radially outer face of the BOAS . a seal body having a radially inner face and a radially outer face that axially extend between a leading edge portion and a trailing edge portion ; and at least one cooling fin disposed on said radially outer face between said leading edge portion and said trailing edge portion ; characterised in that : said at least one cooling fin includes an outer surface which includes a stepped portion such that the cooling fin has a varying height across its length L relative to the radially outer face of the BOAS .
A fluorescent material having a composition formula represented as (Gd 1-α-β-γ L α Ce β Tb γ ) 3+a (Al 1-u-v Ga u Sc v ) 5-b O 12 (L is at least one element selected from Y and Lu), where a, b, α, β, γ, u and v satisfy the following ranges: 0 < a ≤ 0.07 , 0 < b ≤ 0.07 , 0 < α ≤ 0.15 , 0.0003 ≤ β ≤ 0.004 , 0.03 ≤ γ ≤ 0.15 , 0.35 ≤ u ≤ 0.70 , and 0.003 ≤ v ≤ 0.02