mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: generating audio content coded for a reference speaker configuration; downmixing the audio content coded for the reference speaker configuration to downmix audio content coded for a specific speaker configuration; performing one or more gain adjustments on individual portions of the downmix audio content coded for the specific speaker configuration; performing loudness measurements on the gain-adjusted individual portions of the downmix audio content; and generating an audio signal that comprises the audio content coded for the reference speaker configuration and downmix loudness metadata created based at least in part on the loudness measurements on the gain-adjusted individual portions of the downmix audio content, wherein the method is performed by one or more computing devices. generating audio content coded for a reference speaker configuration; downmixing the audio content coded for the reference speaker configuration to downmix audio content coded for a specific speaker configuration; performing one or more gain adjustments on individual portions of the downmix audio content coded for the specific speaker configuration; performing loudness measurements on the gain-adjusted individual portions of the downmix audio content; and generating an audio signal that comprises the audio content coded for the reference speaker configuration and downmix loudness metadata created based at least in part on the loudness measurements on the gain-adjusted individual portions of the downmix audio content, wherein the method is performed by one or more computing devices.
A method for reporting capability information, the method comprising: receiving, by a user equipment, UE, information of a maximum carrier quantity of a specified frequency band from a base station; and reporting, by the UE, capability information of at least one carrier on the specified frequency band to the base station, wherein the capability information carries the information of the maximum carrier quantity; and a quantity of carriers on the specified frequency band comprised in the least one carrier is less than or equal to the maximum carrier quantity. receiving, by a user equipment, UE, information of a maximum carrier quantity of a specified frequency band from a base station; and reporting, by the UE, capability information of at least one carrier on the specified frequency band to the base station, wherein the capability information carries the information of the maximum carrier quantity; and a quantity of carriers on the specified frequency band comprised in the least one carrier is less than or equal to the maximum carrier quantity.
A rubber composition for a tire comprising: an epoxidized natural rubber; sulfur; and a fatty acid metal salt; wherein said fatty acid metal salt is tin stearate. an epoxidized natural rubber; sulfur; and a fatty acid metal salt; wherein said fatty acid metal salt is tin stearate.
A method for creating a virtual reception channel in a radar system comprising an antenna having two physical reception channels (1 r, 2 r) spaced apart by a distance d in a direction x, two emission channels (1 e, 2 e) spaced apart by a same distance d in the same direction x and processing means, the method comprising: a. dynamically selecting two different waveforms containing random noise taking the form of a random succession or code of phase values, said waveforms being orthogonal to each other; b. generating a radar pulse (41, 42) of identical central wavelength in each emission channel, each of the emission channels emitting one of said two different waveforms; c. acquiring, with the reception channels, echoes due to pulses emitted by the emission channels and reflected by at least one target; d. compressing the pulses by matched filtering of the echoes acquired by each physical reception channel, by performing their correlation with each of the waveforms generated in the emission channels; and e. repeating steps a) to c) while randomly changing one of the values of each of the phase codes associated with the generated waveforms until the level of the sidelobes of all the compressed pulses has stabilised. a. dynamically selecting two different waveforms containing random noise taking the form of a random succession or code of phase values, said waveforms being orthogonal to each other; b. generating a radar pulse (41, 42) of identical central wavelength in each emission channel, each of the emission channels emitting one of said two different waveforms; c. acquiring, with the reception channels, echoes due to pulses emitted by the emission channels and reflected by at least one target; d. compressing the pulses by matched filtering of the echoes acquired by each physical reception channel, by performing their correlation with each of the waveforms generated in the emission channels; and e. repeating steps a) to c) while randomly changing one of the values of each of the phase codes associated with the generated waveforms until the level of the sidelobes of all the compressed pulses has stabilised.
A compound according to formula: wherein: X is O or S; Y is O or S; each Ar and Ar' is independently a mono-, bi- or tricyclic aryl or heteroaryl group optionally substituted with one or more substituents selected from halo, alkyl, aryl, heteroaryl, hydroxyl, nitro, amino, alkoxy, alkylthio, cyano, thio, ester, acyl and amido; each R 2 is independently hydrogen, halo, alkyl, aryl, heteroaryl, hydroxyl, nitro, amino, alkoxy, alkylthio, cyano and thio; and R 1 is a straight-chain or branched C 1-15 alkyl group wherein one or more of the hydrogen atoms of the alkyl group may be optionally substituted with one or more substituents selected independently from halo, hydroxyl, nitro, amino, cyano and thio, or a physiologically acceptable salt or solvate thereof. X is O or S; Y is O or S; each Ar and Ar' is independently a mono-, bi- or tricyclic aryl or heteroaryl group optionally substituted with one or more substituents selected from halo, alkyl, aryl, heteroaryl, hydroxyl, nitro, amino, alkoxy, alkylthio, cyano, thio, ester, acyl and amido; each R 2 is independently hydrogen, halo, alkyl, aryl, heteroaryl, hydroxyl, nitro, amino, alkoxy, alkylthio, cyano and thio; and R 1 is a straight-chain or branched C 1-15 alkyl group wherein one or more of the hydrogen atoms of the alkyl group may be optionally substituted with one or more substituents selected independently from halo, hydroxyl, nitro, amino, cyano and thio, or a physiologically acceptable salt or solvate thereof.
Fitting (1; 61; 81; 101) for fixing a threaded element to a wall section, comprising a base body (3; 67; 87; 107) which is penetrated by a recess (7; 70; 90; 109), which recess is extended along a central axis (4; 71; 86; 111), further comprising a clamping ring (17; 73; 89; 113) which is rotatably movable mounted on an outer surface, in particular on a sleeve section arranged coaxially to the central axis (4; 71; 86; 111), of the base body (3; 67; 87; 107), wherein a first cam (38; 118) is assigned to the outer surface (14; 114), in particular to the sleeve section, and/or wherein a second cam is assigned to the to the clamping ring (17; 73; 89; 113), which effectuates a change in diameter of the clamping ring (17; 73; 89; 113) during a rotary movement of the clamping ring (17; 73; 89; 113) relative to the base body (3; 67; 87; 107), characterized in that a coupling part (20; 62; 82; 102) is movably received in the recess (7; 70; 90; 109) and forms with the base body (3; 67; 87; 107) a rotary coupling for a transmission of a torque between the coupling part (20; 62; 82; 102) and the base body (3; 67; 87; 107) about the central axis (4; 71; 86; 111), wherein a threaded portion of the coupling part (20; 62; 82; 102) determines a thread axis (24; 124), which is aligned with a variable orientation within a predetermined angular interval and/or within a predetermined distance interval to the central axis (4; 71; 86; 111), wherein a region of an outer surface of the coupling part (20; 62; 82; 102) defines a first profile and wherein a region of an inner surface of the recess (7; 70; 90; 109) defines a second profile, wherein the first profile forms with the second profile a rotary coupling for a torque transmission between the coupling part (20; 62; 82; 102) and the base body (3; 67; 87; 107) in a functional position and is designed for a relative movement between the coupling part (20; 62; 82; 102) and the base body (3; 67; 87; 107) with at least one geometrically limited rotational degree of freedom and/or at least one geometrically limited linear degree of freedom of movement.
A backlight unit comprising: a light emitting device array; an optical sheet configured to receive and transmit light emitted from the light emitting device array; a frame configured to support the light emitting device array and the optical sheet; and at least two elongate heat dissipating members spaced apart from each other in a direction perpendicular to the direction of light emitted from the light emitting device array, the length of the elongate heat dissipating members being parallel to the direction of light emitted from the light emitting device array, wherein the heat dissipating members are disposed on the frame, and wherein the area of the respective heat dissipating members decreases from the center of the frame to the perimeter of the frame. a light emitting device array; an optical sheet configured to receive and transmit light emitted from the light emitting device array; a frame configured to support the light emitting device array and the optical sheet; and at least two elongate heat dissipating members spaced apart from each other in a direction perpendicular to the direction of light emitted from the light emitting device array, the length of the elongate heat dissipating members being parallel to the direction of light emitted from the light emitting device array, wherein the heat dissipating members are disposed on the frame, and wherein the area of the respective heat dissipating members decreases from the center of the frame to the perimeter of the frame.
A detection device comprising: a first detection unit configured to detect a leading edge portion and a trailing edge portion of a medium before the medium is heated; and a second detection unit that differs from the first detection unit and is configured to detect the leading edge portion and the trailing edge portion of the medium after the medium is heated, wherein the first detection unit and the second detection unit are configured to detect the leading edge portion and the trailing edge portion of the medium while the medium is not heated during a calibration, wherein the calibration is performed by correcting a detection error of one of the first detection unit and the second detection unit that has a low detection accuracy with reference to a detection value obtained by other one of the first detection unit and the second detection unit that has a high detection accuracy, the detection device being characterized in that the other one of the first detection unit and the second detection unit that has the high detection accuracy is the second detection unit configured to detect the leading edge portion and the trailing edge portion of the medium while the medium is stopped after the medium is heated. a first detection unit configured to detect a leading edge portion and a trailing edge portion of a medium before the medium is heated; and a second detection unit that differs from the first detection unit and is configured to detect the leading edge portion and the trailing edge portion of the medium after the medium is heated, wherein the first detection unit and the second detection unit are configured to detect the leading edge portion and the trailing edge portion of the medium while the medium is not heated during a calibration, wherein the calibration is performed by correcting a detection error of one of the first detection unit and the second detection unit that has a low detection accuracy with reference to a detection value obtained by other one of the first detection unit and the second detection unit that has a high detection accuracy, the detection device being characterized in that the other one of the first detection unit and the second detection unit that has the high detection accuracy is the second detection unit configured to detect the leading edge portion and the trailing edge portion of the medium while the medium is stopped after the medium is heated.
A method of decoding an encoded video signal, the method comprising: decoding a first key access unit, the first key access unit including at least one slice in a first layer and at least one slice in a second layer, wherein a base representation picture is decoded from at least one slice in the first layer and an enhanced representation picture is decoded from at least one slice in the second layer; marking (116, 118) the base and enhanced representation pictures as used for inter prediction; characterized by, subsequent to decoding a second key access unit: marking only the base representation picture of the first key access unit as no longer used for inter prediction, thereby providing separate marking of the base and the enhanced representation pictures of the first key access unit; and marking the enhanced representation picture of the first key access unit as used for short-term reference. decoding a first key access unit, the first key access unit including at least one slice in a first layer and at least one slice in a second layer, wherein a base representation picture is decoded from at least one slice in the first layer and an enhanced representation picture is decoded from at least one slice in the second layer; marking (116, 118) the base and enhanced representation pictures as used for inter prediction; characterized by, subsequent to decoding a second key access unit: marking only the base representation picture of the first key access unit as no longer used for inter prediction, thereby providing separate marking of the base and the enhanced representation pictures of the first key access unit; and marking the enhanced representation picture of the first key access unit as used for short-term reference. marking only the base representation picture of the first key access unit as no longer used for inter prediction, thereby providing separate marking of the base and the enhanced representation pictures of the first key access unit; and marking the enhanced representation picture of the first key access unit as used for short-term reference.
Follicle-stimulating hormone ligand which potentiates the bioactivity of FSH, of luteinizing hormone and of chorionic gonadotropin, characterized in that said ligand is an antibody or a fragment thereof and in that: the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFY (SEQ ID NO: 9); - VH-CDR2, defined by the sequence SRNKAKDYTT (SEQ ID NO: 10); - VH-CDR3, defined by the sequence ARDARFAY (SEQ ID NO: 11); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QSLLYSSNQKNY (SEQ ID NO: 12); - VL-CDR2, defined by the sequence WAS; - VL-CDR3, defined by the sequence QQYYSYPRT (SEQ ID NO: 13). the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFY (SEQ ID NO: 9); - VH-CDR2, defined by the sequence SRNKAKDYTT (SEQ ID NO: 10); - VH-CDR3, defined by the sequence ARDARFAY (SEQ ID NO: 11); and - VH-CDR1, defined by the sequence GFTFSDFY (SEQ ID NO: 9); - VH-CDR2, defined by the sequence SRNKAKDYTT (SEQ ID NO: 10); - VH-CDR3, defined by the sequence ARDARFAY (SEQ ID NO: 11); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QSLLYSSNQKNY (SEQ ID NO: 12); - VL-CDR2, defined by the sequence WAS; - VL-CDR3, defined by the sequence QQYYSYPRT (SEQ ID NO: 13). - VL-CDR1, defined by the sequence QSLLYSSNQKNY (SEQ ID NO: 12); - VL-CDR2, defined by the sequence WAS; - VL-CDR3, defined by the sequence QQYYSYPRT (SEQ ID NO: 13).
A method for controlling transmission of at least one data unit via a first link between a first access node and a wireless communication device and via a second link between the first access node and the wireless communication device via a second access node, the method being performed by the first access node and comprising: - receiving, from the wireless communication device, transmission delay information containing first transmission delay information indicative of a transmission delay of the first link and/or second transmission delay information indicative of a transmission delay of the second link, wherein said received transmission delay information further contains at least the highest Packet Data Convergence Protocol, PDCP, Packet Data Unit, PDU, sequence number successfully delivered in sequence to the wireless communication device among the PDCP PDUs transmitted either via the first link or via the second link, and - controlling the transmission of said data unit based on the first and/or second transmission delay information wherein said controlling further comprises: - comparing said highest PDCP PDU sequence number with the next PDCP packet's sequence number assigned to a data unit newly received for transmission at the first access node, and - based on the comparison result, halting PDCP transmission when more than half of the sequence number space is in flight and resuming PDCP transmission when less than half the sequence number space is in flight. - receiving, from the wireless communication device, transmission delay information containing first transmission delay information indicative of a transmission delay of the first link and/or second transmission delay information indicative of a transmission delay of the second link, wherein said received transmission delay information further contains at least the highest Packet Data Convergence Protocol, PDCP, Packet Data Unit, PDU, sequence number successfully delivered in sequence to the wireless communication device among the PDCP PDUs transmitted either via the first link or via the second link, and - controlling the transmission of said data unit based on the first and/or second transmission delay information wherein said controlling further comprises: - comparing said highest PDCP PDU sequence number with the next PDCP packet's sequence number assigned to a data unit newly received for transmission at the first access node, and - based on the comparison result, halting PDCP transmission when more than half of the sequence number space is in flight and resuming PDCP transmission when less than half the sequence number space is in flight. - comparing said highest PDCP PDU sequence number with the next PDCP packet's sequence number assigned to a data unit newly received for transmission at the first access node, and - based on the comparison result, halting PDCP transmission when more than half of the sequence number space is in flight and resuming PDCP transmission when less than half the sequence number space is in flight.
Wastewater-collection pit having at least one inflow, which is located in particular below the backflow level, having a lifting device, in particular a submersible motor pump, arranged therein, having at least one discharge line, in particular a pressure line, having a device which regulates the filling level of the wastewater located in the wastewater-collection pit, and having means for simplified installation and maintenance of the units which influence the wastewater, wherein a unit for recovering the residual heat from the wastewater is provided within the wastewater-collection pit, wherein at least one heat exchanger is provided in the region below a predetermined maximum filling level, and wherein retaining means arranged above the maximum filling level retain the heat exchanger or exchangers, characterized in that the retaining means have an anchoring arrangement, which is provided on the inner wall of the wastewater-collection pit and can be fastened on the heat exchanger by means of a releasable connection.
A centrifugal compressor comprising a scroll which forms a flow path of a fluid such as a gas or air discharged from a diffuser portion arranged on a downstream-side of the compressor impeller of the centrifugal compressor, characterized in that an enlargement rate of a ratio A/R of a cross-sectional area A of a scroll portion to a radius R from an axis of the compressor impeller to a centroid (P 0) of a cross section of the scroll portion, due to an increase in a scroll angle in a circumferential fluid flow direction, decreases from a first arbitrary angle to a winding end of the scroll portion.
An anti-fingerprint film comprising microscale microprojections being structures formed so as to protrude outsicle the anti-fingerprint film and having a contact side with the film, an upper side facing with contact side, and a side wall connecting the contact side and the upper side, wherein the microscale microprojections have a shape such that an internal angle formed by the side wall and the contact side with the film is an obtuse angle, the cross-sectional diameter of the microprojections increase from the contact side with the film to the upper side, the height of the microprojections being the largest length in the direction of the protrusions is 0.1 μ m to 40 μ m, the longest diameter of the upper side of the microprojections is 0.2 μ m to 100 μ m, the ratio (D/P) of the longest diameter of the upper side of one of the microprojections to the sum of the distance between the upper sides of the two neighboring microprojections and the longest diameter of the upper side of one of the microprojections is 0.2 to 0.5, and the anti-fingerprint film has a interaction energy (K A) as defined by the following General Formula 1 in range of 3 mJ/m 2 or less: K A = ρ 2 − 3 cos θ ′ + cos 3 θ ′ 3 1 / 3 g 2 1 + cos θ ′ 1 + cos θ m π 2 / 3 sin α sin θ ′ wherein, in the General Formula 1, α is a sliding angle of oleic acid put on the film comprising microprojections, θ' is a contact angle formed by the film comprising microprojections and oleic acid, θ is a contact angle formed by the flat film and oleic acid, ρ is the density of oleic acid, m is the weight of oleic acid, and g is gravitational acceleration, and wherein the upper side is connected to the side wall while forming a curved surface therewith, and the ratio (r/D) of the internal radius of curvature (r) of the curved surface at which the side wall and the upper side are connected to the width of the microprojection is 0.1 or less, wherein the width of the microprojection is the longest diameter in a direction perpendicular to the protrusion, and wherein the integrated radius of curvature being the radius of the largest circle that can be drawn inside the curved surface of said side walls. α is a sliding angle of oleic acid put on the film comprising microprojections, θ' is a contact angle formed by the film comprising microprojections and oleic acid, θ is a contact angle formed by the flat film and oleic acid, ρ is the density of oleic acid, m is the weight of oleic acid, and g is gravitational acceleration, and wherein the upper side is connected to the side wall while forming a curved surface therewith, and the ratio (r/D) of the internal radius of curvature (r) of the curved surface at which the side wall and the upper side are connected to the width of the microprojection is 0.1 or less, wherein the width of the microprojection is the longest diameter in a direction perpendicular to the protrusion, and wherein the integrated radius of curvature being the radius of the largest circle that can be drawn inside the curved surface of said side walls.