mhurhangee/ep-ind-claims huggingface dataset:
A method for processing audio signals comprising the steps of: measuring a binaural impulse response of a pair of speakers in a room with an impulse response measurement system using binaural microphones worn by an intended listener or a dummy head, generating a Speaker+ Room Binaural Impulse Response, SRbIR, filter from said binaural impulse response by windowing the measured binaural impulse response with a sufficiently long time window to include the direct sound and reflected sound; generating a spectrally uncolored crosstalk cancellation filter from a time-windowed version of said SRbIR filter that includes direct sound but excludes reflected sound; utilizing a convolver to filter the audio signals through a combination of said SRbIR filter and said crosstalk cancellation filter to generate a stereo audio signal; and feeding the resulting stereo audio signal to headphones to provide the listener with an emulation of audio playback through crosstalk-cancelled speakers that gives the perception of a head-externalized 3D audio image. measuring a binaural impulse response of a pair of speakers in a room with an impulse response measurement system using binaural microphones worn by an intended listener or a dummy head, generating a Speaker+ Room Binaural Impulse Response, SRbIR, filter from said binaural impulse response by windowing the measured binaural impulse response with a sufficiently long time window to include the direct sound and reflected sound; generating a spectrally uncolored crosstalk cancellation filter from a time-windowed version of said SRbIR filter that includes direct sound but excludes reflected sound; utilizing a convolver to filter the audio signals through a combination of said SRbIR filter and said crosstalk cancellation filter to generate a stereo audio signal; and feeding the resulting stereo audio signal to headphones to provide the listener with an emulation of audio playback through crosstalk-cancelled speakers that gives the perception of a head-externalized 3D audio image.
A high temperature superconducting, HTS, field coil, the HTS field coil comprising: a plurality of turns comprising HTS material and metallic stabilizer; a partially insulating layer separating the turns, such that current can be shared between turns via the partially insulating layer; the partially insulating layer comprising: an insulating region (901, 1002), a plurality of electrically conductive paths through the insulating region, wherein current can be shared between the turns via the electrically conductive paths; characterised in that each electrically conductive path comprises an HTS bridge (903, 1003) comprising HTS material, wherein the HTS bridge is in series with normally conducting material of the electrically conductive path. a plurality of turns comprising HTS material and metallic stabilizer; a partially insulating layer separating the turns, such that current can be shared between turns via the partially insulating layer; the partially insulating layer comprising: an insulating region (901, 1002), a plurality of electrically conductive paths through the insulating region, wherein current can be shared between the turns via the electrically conductive paths; characterised in that each electrically conductive path comprises an HTS bridge (903, 1003) comprising HTS material, wherein the HTS bridge is in series with normally conducting material of the electrically conductive path. an insulating region (901, 1002), a plurality of electrically conductive paths through the insulating region, wherein current can be shared between the turns via the electrically conductive paths; characterised in that each electrically conductive path comprises an HTS bridge (903, 1003) comprising HTS material, wherein the HTS bridge is in series with normally conducting material of the electrically conductive path.
An FBMC equalization and demodulation unit, to process an FBMC signal comprising FBMC symbols, each FBMC symbol comprising data mapped over M subcarriers, oversampled by a factor K, filtered by a prototype filter and transposed in the time-domain, the FBMC equalization and demodulation unit comprising: - a frequency domain transposition unit, configured to transpose a block of P ∗ KM samples comprising at least one FBMC symbol into frequency domain samples, where P is an integer greater than one, - an equalizer unit configured to multiply said frequency domain samples by one or more coefficients computed from a propagation channel estimate, - at least one circular convolution unit (730, 731), configured to perform P circular convolutions between subsets of said equalized samples and a frequency domain response of a frequency shifted version of the prototype filter, and - adders, to sum corresponding outputs of each of the P circular convolutions. - a frequency domain transposition unit, configured to transpose a block of P ∗ KM samples comprising at least one FBMC symbol into frequency domain samples, where P is an integer greater than one, - an equalizer unit configured to multiply said frequency domain samples by one or more coefficients computed from a propagation channel estimate, - at least one circular convolution unit (730, 731), configured to perform P circular convolutions between subsets of said equalized samples and a frequency domain response of a frequency shifted version of the prototype filter, and - adders, to sum corresponding outputs of each of the P circular convolutions.
A method to detect CA215 in a sample, which method comprises contacting said sample with a solid support to which is bound an anti-human IgG antibody or an immunospecific fragment thereof, followed by contacting said support with the monoclonal antibody RP215 or an antibody cross-reactive therewith or with immunospecific fragments thereof, that is labelled or modified subsequently to contain a label.
Blade for screens used to treat a fibrous pulp suspension, where the blade can be secured to a screen rotor and where the blade has a leading edge and a trailing edge, where the leading edge or an envelope curve of the leading edge is arched in the direction of the trailing edge when viewed in a horizontal projection, where the trailing edge or the envelope curve of the trailing edge is also arched in the same direction as the leading edge when viewed in a horizontal projection, characterised in that the blade can be secured at a distance from a rotor and that the blade has a cross-section with a wing-shaped profile, where the leading edge forms the profile nose.
A control method for an autonomous vehicle comprising: acquiring, by a server, information related to the vehicle; determining, by the server and based on the acquired information, that the vehicle needs to be remotely controlled; and based on the determination that the vehicle needs to be remotely controlled, remotely controlling the autonomous vehicle by the server or a nearby object, such as a nearby vehicle or a road infrastructure, wherein the acquiring of the information related to the vehicle comprises acquiring, by the server, at least one of information transmitted by the vehicle or information transmitted by the nearby object; wherein the vehicle is in autonomous mode, wherein the acquired information is error information indicating that an error has occurred in the vehicle, and wherein the determining comprises: when the error information is received, determining that an error associated with an operation system of the vehicle or an error associated with an autonomous driving function of the vehicle has occurred based on the error information; and based on the determination that an error associated with the operation system of the vehicle has occurred, determining, by the server, that the vehicle needs to be remotely controlled. acquiring, by a server, information related to the vehicle; determining, by the server and based on the acquired information, that the vehicle needs to be remotely controlled; and based on the determination that the vehicle needs to be remotely controlled, remotely controlling the autonomous vehicle by the server or a nearby object, such as a nearby vehicle or a road infrastructure, wherein the acquiring of the information related to the vehicle comprises acquiring, by the server, at least one of information transmitted by the vehicle or information transmitted by the nearby object; wherein the vehicle is in autonomous mode, wherein the acquired information is error information indicating that an error has occurred in the vehicle, and wherein the determining comprises: when the error information is received, determining that an error associated with an operation system of the vehicle or an error associated with an autonomous driving function of the vehicle has occurred based on the error information; and based on the determination that an error associated with the operation system of the vehicle has occurred, determining, by the server, that the vehicle needs to be remotely controlled. when the error information is received, determining that an error associated with an operation system of the vehicle or an error associated with an autonomous driving function of the vehicle has occurred based on the error information; and based on the determination that an error associated with the operation system of the vehicle has occurred, determining, by the server, that the vehicle needs to be remotely controlled.
A seal assembly (176; 276; 676) for a gas turbine engine, comprising: a seal (169; 269; 669), wherein the seal is a blade outer air seal (BOAS) and including a sealing portion that extends circumferentially between first and second mate faces and an engagement portion along the first mate face; and a support (180; 280; 680) including an interface portion extending from a mounting portion, the interface portion abutting the engagement portion to limit relative movement, and the mounting portion defining an aperture (188; 288; 688) that receives a fastener (190; 290; 690) to mechanically attach the mounting portion to an engine static structure, wherein at least a portion of the fastener (190; 290; 690) is circumferentially aligned with the first mate face, characterized in that the fastener (190; 290; 690) defines a first cooling passage (193; 293) that delivers cooling flow at a location adjacent to the first mate face. a seal (169; 269; 669), wherein the seal is a blade outer air seal (BOAS) and including a sealing portion that extends circumferentially between first and second mate faces and an engagement portion along the first mate face; and a support (180; 280; 680) including an interface portion extending from a mounting portion, the interface portion abutting the engagement portion to limit relative movement, and the mounting portion defining an aperture (188; 288; 688) that receives a fastener (190; 290; 690) to mechanically attach the mounting portion to an engine static structure, wherein at least a portion of the fastener (190; 290; 690) is circumferentially aligned with the first mate face, characterized in that the fastener (190; 290; 690) defines a first cooling passage (193; 293) that delivers cooling flow at a location adjacent to the first mate face.
A display device comprising: pixel rows including pixels arranged along a first direction, the pixel rows being repeatedly arranged along a second direction crossing the first direction; pixel columns including pixels arranged along the second direction, the pixel columns being repeatedly arranged along the first direction; data lines connected to respective pixel columns, each of the data lines including a first sub-data line (Dja) provided at one side of a corresponding pixel column and a second sub-data line (Djb) provided at another side of the corresponding pixel column; scan lines (SO-Sn) extending along the first direction, the scan lines (S0-Sn) being connected to respective pixel rows; and a power line configured to supply driving power to the pixels, wherein one of the pixels of the pixel columns is connected to the first sub-data line (Dja), and a pixel adjacent to the pixel connected to the first sub-data line (Dja) is connected to the second sub-data line (Djb) wherein the first sub-data line (Dja) and the second sub-data line (Djb) in the same pixel column are on different layers, characterized in that two sub data lines (Djb, Dj+1a) are disposed between the corresponding pixel column and one pixel column adjacent to the corresponding pixel column, and the two sub data lines (Djb, Dj+1a) are disposed on a same layer. pixel rows including pixels arranged along a first direction, the pixel rows being repeatedly arranged along a second direction crossing the first direction; pixel columns including pixels arranged along the second direction, the pixel columns being repeatedly arranged along the first direction; data lines connected to respective pixel columns, each of the data lines including a first sub-data line (Dja) provided at one side of a corresponding pixel column and a second sub-data line (Djb) provided at another side of the corresponding pixel column; scan lines (SO-Sn) extending along the first direction, the scan lines (S0-Sn) being connected to respective pixel rows; and a power line configured to supply driving power to the pixels, wherein one of the pixels of the pixel columns is connected to the first sub-data line (Dja), and a pixel adjacent to the pixel connected to the first sub-data line (Dja) is connected to the second sub-data line (Djb) wherein the first sub-data line (Dja) and the second sub-data line (Djb) in the same pixel column are on different layers, characterized in that two sub data lines (Djb, Dj+1a) are disposed between the corresponding pixel column and one pixel column adjacent to the corresponding pixel column, and the two sub data lines (Djb, Dj+1a) are disposed on a same layer.
A noise filter comprising: a plurality of conductors each having a winding portion; and a ring-shaped core inserted made from a magnetic material and being inserted through the winding portions, the ring-shaped core including: a core main body having a pair of extension portions (41, 42) connected to each other at one end; and a link core attached to the core main body at the other end to connect the extension portions (41, 42), at least one of the extension portions (41, 42) of the core main body having a straight shape, and the plurality of conductors being arranged in a row to allow the extension portion having the straight shape to be inserted through the winding portion of each of the conductors of the plurality of conductors, characterized in that the link core includes a fitting plate portion fitted in the gap between respective end portions of the extension portions (41, 42) of the core main body. a plurality of conductors each having a winding portion; and a ring-shaped core inserted made from a magnetic material and being inserted through the winding portions, the ring-shaped core including: a core main body having a pair of extension portions (41, 42) connected to each other at one end; and a link core attached to the core main body at the other end to connect the extension portions (41, 42), at least one of the extension portions (41, 42) of the core main body having a straight shape, and the plurality of conductors being arranged in a row to allow the extension portion having the straight shape to be inserted through the winding portion of each of the conductors of the plurality of conductors, characterized in that the link core includes a fitting plate portion fitted in the gap between respective end portions of the extension portions (41, 42) of the core main body.
A food processing device comprising • a feeding structure (7, 42) arranged for transport of food objects in a downstream direction from an inlet to an outflow of a flow path, the feeding structure comprising i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, • a rotating knife with at least one knife blade configured to cut the food objects in the flow path to provide a substance of sliced lumps, wherein the flow path defines an unhindered passage between the knife and the outflow to facilitate a free flow of the substance of sliced lumps away from the knife, • an inspection unit located downstream the knife and configured to detect undesired objects in the substance of sliced lumps. • a feeding structure (7, 42) arranged for transport of food objects in a downstream direction from an inlet to an outflow of a flow path, the feeding structure comprising i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, i. a first feeder comprising a transport auger arranged upstream a knife, and ii. a second feeder arranged downstream a knife, • a rotating knife with at least one knife blade configured to cut the food objects in the flow path to provide a substance of sliced lumps, wherein the flow path defines an unhindered passage between the knife and the outflow to facilitate a free flow of the substance of sliced lumps away from the knife, • an inspection unit located downstream the knife and configured to detect undesired objects in the substance of sliced lumps.
A warewash machine arm mechanism, comprising: a liquid supply shaft assembly; an arm assembly including an elongated interior liquid flow space along an arm body and one or more liquid ejection orifices, the arm assembly releasably mounted to the supply shaft assembly via a latch mechanism (19, 20, 47, 48) of the arm assembly, wherein the liquid supply shaft assembly includes a rotatable sleeve bearing mounted thereon, and in that the latch mechanism (19, 20, 47, 48) of the arm assembly engages the rotatable sleeve bearing such that the arm assembly rotates with the rotatable sleeve bearing during ejection of liquid from the liquid ejection orifices, characterized in that the arm assembly is manually releasable and moveable between a closed position engaging the rotatable sleeve bearing and an open position disengaging from the rotatable sleeve bearing to enable removal of the arm assembly from the liquid supply shaft assembly, wherein the latch-mechanism (19, 20,47, 48) is spring-biased into the closed positon such that when a force is applied to move the latch mechanism to the open position the latch mechanism (19, 20,47, 48) will automatically move back into the closed position when the force is removed. a liquid supply shaft assembly; an arm assembly including an elongated interior liquid flow space along an arm body and one or more liquid ejection orifices, the arm assembly releasably mounted to the supply shaft assembly via a latch mechanism (19, 20, 47, 48) of the arm assembly, wherein the liquid supply shaft assembly includes a rotatable sleeve bearing mounted thereon, and in that the latch mechanism (19, 20, 47, 48) of the arm assembly engages the rotatable sleeve bearing such that the arm assembly rotates with the rotatable sleeve bearing during ejection of liquid from the liquid ejection orifices, characterized in that the arm assembly is manually releasable and moveable between a closed position engaging the rotatable sleeve bearing and an open position disengaging from the rotatable sleeve bearing to enable removal of the arm assembly from the liquid supply shaft assembly, wherein the latch-mechanism (19, 20,47, 48) is spring-biased into the closed positon such that when a force is applied to move the latch mechanism to the open position the latch mechanism (19, 20,47, 48) will automatically move back into the closed position when the force is removed.
A fragrance-releasing system comprising - a wick - at least one diffuser, ∘ the surface area of the diffuser which is in contact with the surrounding air being greater than the surface area of the wick which is in contact with the surrounding air, and - a container for receiving the wick, - a fragrance preparation which is stored in the container, - the fragrance preparation being transported, when the wick is received in the container, opposite the direction of gravity through the wick to the diffuser by means of a capillary action, characterized in that at least portions of the diffuser are provided with a color-changing agent which interacts with at least one substance in the fragrance preparation such that when the substance is in contact with the color-changing agent, a color change is brought about on and/or in the diffuser portion, and in that the diffuser is formed of a plurality of identical lamellae, one end of the lamellae being fixed in or on the wick, the lamellae being arranged in a helical or whorled manner about the wick axis, and a first group of lamellae comprising a first color-changing agent and at least one second group of lamellae comprising a second color-changing agent being provided. - a wick - at least one diffuser, ∘ the surface area of the diffuser which is in contact with the surrounding air being greater than the surface area of the wick which is in contact with the surrounding air, and ∘ the surface area of the diffuser which is in contact with the surrounding air being greater than the surface area of the wick which is in contact with the surrounding air, and - a container for receiving the wick, - a fragrance preparation which is stored in the container, - the fragrance preparation being transported, when the wick is received in the container, opposite the direction of gravity through the wick to the diffuser by means of a capillary action,
A computer-implemented method for managing a distributed computing architecture, the method comprising: discovering an access control list within the distributed computing architecture; determining whether the ACL corresponds to a first record within a database; if the ACL corresponds to a first record within the database, then determining that a configuration of the ACL differs from a configuration of the first record; and initializing another record within the database that corresponds to the first record and has the configuration of the ACL; and if the ACL does not correspond to a first record within the database, then initializing another record within the database that corresponds to the ACL and has the configuration of the ACL, wherein the ACL comprises a security group that includes one or more source objects, one or more ports, and one or more destination objects; and computing an exposure metric for the ACL based on a quantity of source objects, a quantity of ports, and a quantity of destination objects associated with the ACL. discovering an access control list within the distributed computing architecture; determining whether the ACL corresponds to a first record within a database; if the ACL corresponds to a first record within the database, then determining that a configuration of the ACL differs from a configuration of the first record; and initializing another record within the database that corresponds to the first record and has the configuration of the ACL; and determining that a configuration of the ACL differs from a configuration of the first record; and initializing another record within the database that corresponds to the first record and has the configuration of the ACL; and if the ACL does not correspond to a first record within the database, then initializing another record within the database that corresponds to the ACL and has the configuration of the ACL, wherein the ACL comprises a security group that includes one or more source objects, one or more ports, and one or more destination objects; and computing an exposure metric for the ACL based on a quantity of source objects, a quantity of ports, and a quantity of destination objects associated with the ACL.