mhurhangee/ep-ind-claims huggingface dataset:
A phase detecting circuit, comprising: a first input for a reference signal (ref); signal, a second input for an input signal (fb) to be compared with the reference signal; a set-reset, S-R, latch having a set input, a reset input, a first output, and a second output; and a delay, D, flip-flop having a logic input, a clock input, a reset input, and a logic output, wherein the first input is connected with the reset input of the S-R latch, wherein the second input is connected with the set input of the S-R latch, wherein the first output of the S-R latch is connected with the clock input of the D flip-flop, and wherein the second output of the S-R latch is connected with the reset input of the D flip-flop, such that the logic output of the D flip-flop indicates whether the input signal is leading or lagging the reference signal. a first input for a reference signal (ref); signal, a second input for an input signal (fb) to be compared with the reference signal; a set-reset, S-R, latch having a set input, a reset input, a first output, and a second output; and a delay, D, flip-flop having a logic input, a clock input, a reset input, and a logic output, wherein the first input is connected with the reset input of the S-R latch, wherein the second input is connected with the set input of the S-R latch, wherein the first output of the S-R latch is connected with the clock input of the D flip-flop, and wherein the second output of the S-R latch is connected with the reset input of the D flip-flop, such that the logic output of the D flip-flop indicates whether the input signal is leading or lagging the reference signal.
Device for spatially aligning at least two large-format subassembly components, in particular at least one side shell (7, 8), at least one upper shell, at least one lower shell and/or at least one floor structure, relative to each other for integrating a component, in particular a fuselage section of an aircraft, comprising: a) at least two positioning devices for taking up in each case a subassembly component, in particular at least two side shell positioners (2, 3), at least one upper shell positioner and/or at least one lower shell positioner, b) at least one measuring device for acquiring a multitude of measured data, in particular of positioning data relating to the subassembly components and/or to the positioning devices, c) at least one control and/or regulating device, in particular at least one CNC control system, for solely controlling a movement of the subassembly components by the positioning devices until a desired position and d) at least one neuronal network for solely controlling a movement of the subassembly components by the positioning devices during bringing the subassembly components into a desired geometric shape. a) at least two positioning devices for taking up in each case a subassembly component, in particular at least two side shell positioners (2, 3), at least one upper shell positioner and/or at least one lower shell positioner, b) at least one measuring device for acquiring a multitude of measured data, in particular of positioning data relating to the subassembly components and/or to the positioning devices, c) at least one control and/or regulating device, in particular at least one CNC control system, for solely controlling a movement of the subassembly components by the positioning devices until a desired position and d) at least one neuronal network for solely controlling a movement of the subassembly components by the positioning devices during bringing the subassembly components into a desired geometric shape.
A biomedical device comprising a volume excluding polymer incorporated in or on said device, said volume excluding polymer being formed from a reaction mixture comprising from 30 to 60 mol% at least one reactive anionic monomer; 15 to 45 mol% at least one amide containing conomomer; 10 to 30 mol% at least one carboxylic acid containing comonomer; and 10 to 30 mol% at least one hydroxyl containing comonomer; wherein said reactive anionic monomer is of the formula: R-L-A wherein R is a free radical reactive group selected from the group consisting of (meth)acrylamides, styryls, vinyls, vinyl ethers, C 1-6 alkyl(meth)acrylamides, N-vinyllactams, N-vinylamides, C 2-12 alkenyls, C 2-12 alkenylphenyls, C 2-12 alkenylnaphthyls, C 2-6 alkenylphenylC 1-6 alkyls, O-vinylcarbamates and O-vinylcarbonates; L is selected from the group consisting of substituted and unsubstituted alkylene having 1-12 carbon atoms, which may be straight or branched, polyethers, oxazolines, substituted and unsubstituted heterocyclic groups and combinations thereof; A is selected from the group consisting of sulfonates, phosphates, phosphonates, borates, sulfates, and combinations thereof.
A power management method for use in an electronic device, in which the device comprises a first section which stores volatile data and is capable of entering a low power consumption state and a second section which can automatically and regularly power itself up and down, and a power source powering both the first and the second sections; wherein the method comprises the steps of the first section powering itself up from a low power consumption state automatically and a power management algorithm then operating to assess whether both the first and the second sections should be taken to a low power consumption state.
A computer-implemented method of transforming seismic data D into tau-p space, the seismic data D representing a formation (112, 210, 212, 214), the method comprising: for each frequency f j: generating frequency dependent transformation matrices R that are configured to transform frequency-offset seismic data D into frequency-domain tau-p seismic data A according to A=(R+R) -1 R+D; generating an estimate of the number of nonzero eigenvalues of the transformation matrix R+R, the number of nonzero eigenvalues being a function of frequency, given as Y p,nonzero (f j) = f j dp Δx Y p, where Y p being the number of eigenvalues, Δx being a range of sensor positions between minimum and maximum positions of sensors (204, 208), dp being a p-domain sampling interval determined according to Δx and a largest frequency f max; creating a transformation matrix X by combining a noise factor and the transformation matrix R+R, the noise factor being a function of the number of nonzero eigenvalues; transforming the frequency-offset seismic data D into frequency-domain tau-p seismic data A according to A= -1 R+D; and outputting a tau-p seismogram indicative of frequency-domain tau-p seismic data A. generating frequency dependent transformation matrices R that are configured to transform frequency-offset seismic data D into frequency-domain tau-p seismic data A according to A=(R+R) -1 R+D; generating an estimate of the number of nonzero eigenvalues of the transformation matrix R+R, the number of nonzero eigenvalues being a function of frequency, given as Y p,nonzero (f j) = f j dp Δx Y p, where Y p being the number of eigenvalues, Δx being a range of sensor positions between minimum and maximum positions of sensors (204, 208), dp being a p-domain sampling interval determined according to Δx and a largest frequency f max; creating a transformation matrix X by combining a noise factor and the transformation matrix R+R, the noise factor being a function of the number of nonzero eigenvalues; transforming the frequency-offset seismic data D into frequency-domain tau-p seismic data A according to A= -1 R+D; and outputting a tau-p seismogram indicative of frequency-domain tau-p seismic data A.
A method of zoning a transcription of audio data of a conversation between a plurality of speakers, the method comprising: separating the transcription of audio data into a plurality of utterances wherein each utterance is a consecutive sequence of words spoken by one speaker in the conversation without interference by another speaker in the conversation; identifying utterances of the plurality of utterances that are shorter than a predetermined minimum threshold number of words as meaning units (106, 108); calculating a probability that each word in an utterance of the plurality of utterances which is longer than the predetermined minimum threshold number of words is a meaning unit boundary; splitting the utterance longer than the predetermined minimum threshold number of words into two new utterances at a word with a maximum calculated probability; and identifying at least one of the two utterances that is shorter than a maximum utterance threshold number of words as a meaning unit (120, 108); and applying speech analytics to identify relations between the meaning units to group the meaning units into call segments, wherein each call segment is related to a specific topic. separating the transcription of audio data into a plurality of utterances wherein each utterance is a consecutive sequence of words spoken by one speaker in the conversation without interference by another speaker in the conversation; identifying utterances of the plurality of utterances that are shorter than a predetermined minimum threshold number of words as meaning units (106, 108); calculating a probability that each word in an utterance of the plurality of utterances which is longer than the predetermined minimum threshold number of words is a meaning unit boundary; splitting the utterance longer than the predetermined minimum threshold number of words into two new utterances at a word with a maximum calculated probability; and identifying at least one of the two utterances that is shorter than a maximum utterance threshold number of words as a meaning unit (120, 108); and applying speech analytics to identify relations between the meaning units to group the meaning units into call segments, wherein each call segment is related to a specific topic.
Method for manufacturing a component or coupon, which component or coupon is used in a thermal machine under extreme thermal and mechanical conditions, whereby said component or coupon is made of a superalloy material with a controllable grain size (d), and is in service subjected to an expected temperature and/or stress and/or strain distribution (T(X,Y,Z); σ(X,Y,Z); ε(X,Y,Z)), which varies with the geometrical coordinates (X,Y,Z) of the component or coupon, said method comprising the steps of a) generating 1 D or 2D or 3D parameter distribution data of one or more grain-size-relevant and lifetime-determining parameters (T, σ, ε etc.) for said component/coupon being under operating conditions, said distribution data comprising a temperature distribution (T(X,Y,Z)) and a stress (σ(X,Y,Z)) distribution or/and a strain (ε(X,Y,Z)) distribution; said temperature and stress or/and strain distribution being computed with respect to the service conditions for maximizing the lifetime of the component/coupon; b) deriving an optimal grain size distribution (d(X,Y,Z)) from said temperature (T(X,Y,Z)) and stress and/or strain distribution (σ(X,Y,Z); ε(X,Y,Z)) such that the lifetime of the component is improved with respect to a similar component with a substantially uniform grain size; c) manufacturing said component/coupon by an additive manufacturing process, especially selective laser melting; d) controlling during manufacturing of said component/coupon the grain size distribution (d(X,Y,Z)) within said component/coupon in order to maximize the lifetime of said component/coupon, wherein the desired lifetime-maximizing grain size distribution (d(X,Y,Z)) is directly generated during said additive manufacturing process. a) generating 1 D or 2D or 3D parameter distribution data of one or more grain-size-relevant and lifetime-determining parameters (T, σ, ε etc.) for said component/coupon being under operating conditions, said distribution data comprising a temperature distribution (T(X,Y,Z)) and a stress (σ(X,Y,Z)) distribution or/and a strain (ε(X,Y,Z)) distribution; said temperature and stress or/and strain distribution being computed with respect to the service conditions for maximizing the lifetime of the component/coupon; b) deriving an optimal grain size distribution (d(X,Y,Z)) from said temperature (T(X,Y,Z)) and stress and/or strain distribution (σ(X,Y,Z); ε(X,Y,Z)) such that the lifetime of the component is improved with respect to a similar component with a substantially uniform grain size; c) manufacturing said component/coupon by an additive manufacturing process, especially selective laser melting; d) controlling during manufacturing of said component/coupon the grain size distribution (d(X,Y,Z)) within said component/coupon in order to maximize the lifetime of said component/coupon, wherein the desired lifetime-maximizing grain size distribution (d(X,Y,Z)) is directly generated during said additive manufacturing process.
A method of operating an access node of a wireless communication network for supporting multicast/multiuser transmission using listen after talk, LAT, the method comprising, at the access node: providing a first frame including a first header and a first data block with first data for first wireless terminal and second wireless terminal, wherein the header includes a first control field indicating a first idle period resource and a second control field indicating a second idle period resource, wherein the first and second idle period resources are different; initiating transmission of the first frame to the first and second wireless terminals (UE1, UE3); responsive to receiving a notification message, NTS, using the first idle period resource, providing a second frame including a second header and a second data block with second data for the second wireless terminal; and initiating transmission of the second frame to the second wireless terminal while deferring transmission to the second wireless terminal. providing a first frame including a first header and a first data block with first data for first wireless terminal and second wireless terminal, wherein the header includes a first control field indicating a first idle period resource and a second control field indicating a second idle period resource, wherein the first and second idle period resources are different; initiating transmission of the first frame to the first and second wireless terminals (UE1, UE3); responsive to receiving a notification message, NTS, using the first idle period resource, providing a second frame including a second header and a second data block with second data for the second wireless terminal; and initiating transmission of the second frame to the second wireless terminal while deferring transmission to the second wireless terminal.
A kit of parts which, when assembled together, forms downhole apparatus configured to be disposed on a tubular in a downhole environment, the kit of parts comprising: a swellable member which expands upon contact with at least one predetermined fluid, the swellable member having longitudinal axis, a first mating profile towards a first end and a second mating profile towards a second, opposing end longitudinally spaced from the first end; and at least one connector (16, 18, 20, 50, 90, 700) having a mating profile configured to mate with at least one of the first and second mating profiles of the swellable member such that the at least one connector (16, 18, 20) can be connected to at least one of the first and second ends of the swellable member; characterised in that at least one of the first and second mating profiles of the swellable member is configured to sandwich the mating profile of the at least one connector between portions of the swellable member. a swellable member which expands upon contact with at least one predetermined fluid, the swellable member having longitudinal axis, a first mating profile towards a first end and a second mating profile towards a second, opposing end longitudinally spaced from the first end; and at least one connector (16, 18, 20, 50, 90, 700) having a mating profile configured to mate with at least one of the first and second mating profiles of the swellable member such that the at least one connector (16, 18, 20) can be connected to at least one of the first and second ends of the swellable member; characterised in that at least one of the first and second mating profiles of the swellable member is configured to sandwich the mating profile of the at least one connector between portions of the swellable member.
A compound delivery system to a target cell comprising: - an haemoglobin-deprived erythrocyte, - a magnetic or super-paramagnetic nano-particle located inside the erythrocyte and - a protein located on the membrane of the erythrocyte able to induce the fusion of the membrane of said erythrocyte to the membrane of the target cell wherein the protein is a virosome-derived protein. - an haemoglobin-deprived erythrocyte, - a magnetic or super-paramagnetic nano-particle located inside the erythrocyte and - a protein located on the membrane of the erythrocyte able to induce the fusion of the membrane of said erythrocyte to the membrane of the target cell wherein the protein is a virosome-derived protein.
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: establishing a secure connection to an access network; receiving, from the access network, a first Radio Resource Control, RRC, connection reconfiguration message comprising one or more grant-free configuration parameters of a grant-free configuration; storing, at the WTRU, the grant-free configuration; transferring, in response to a direction from the access network, from a connected state to an inactive state; receiving, from the access network while in the inactive state, a second RRC connection reconfiguration message comprising one or more grant-free configuration parameters of an updated grant-free configuration, wherein the second reconfiguration message indicates that the communications device is to switch to the connected state for the updating of the stored grant-free configuration; transferring from the inactive state to the connected state; updating, at the WTRU while in the connected state, the stored grant-free configuration; and transferring from the connected state to the inactive state. establishing a secure connection to an access network; receiving, from the access network, a first Radio Resource Control, RRC, connection reconfiguration message comprising one or more grant-free configuration parameters of a grant-free configuration; storing, at the WTRU, the grant-free configuration; transferring, in response to a direction from the access network, from a connected state to an inactive state; receiving, from the access network while in the inactive state, a second RRC connection reconfiguration message comprising one or more grant-free configuration parameters of an updated grant-free configuration, wherein the second reconfiguration message indicates that the communications device is to switch to the connected state for the updating of the stored grant-free configuration; transferring from the inactive state to the connected state; updating, at the WTRU while in the connected state, the stored grant-free configuration; and transferring from the connected state to the inactive state.
A blood collection system in a collection configuration comprising: a vascular access device (12, 14) for drawing blood from a donor or patient; a blood collection container having opposed ends (32, 34), either including a first blood component outlet at one end of the container, and a blood inlet at the opposed end, or including a first blood component outlet at one end of the container, and a blood inlet, and a second blood component outlet at the opposed end; a blood flow conduit extending between and in fluid communication with the access device (12, 14) and the blood inlet of the blood collection container, the blood collection container being free of attachment to other blood component collection containers receiving blood components from the collection container, and further comprising a tubing loop having a first end in flow communication with the flow conduit and having a second end in flow communication with and terminating within the interior of the blood collection container at a location spaced from the one end of the container. a vascular access device (12, 14) for drawing blood from a donor or patient; a blood collection container having opposed ends (32, 34), either including a first blood component outlet at one end of the container, and a blood inlet at the opposed end, or including a first blood component outlet at one end of the container, and a blood inlet, and a second blood component outlet at the opposed end; a blood flow conduit extending between and in fluid communication with the access device (12, 14) and the blood inlet of the blood collection container, the blood collection container being free of attachment to other blood component collection containers receiving blood components from the collection container, and further comprising a tubing loop having a first end in flow communication with the flow conduit and having a second end in flow communication with and terminating within the interior of the blood collection container at a location spaced from the one end of the container.
Rolling bearing comprising an outer ring and an inner ring, wherein rolling elements are arranged between the outer ring and the inner ring, and wherein the rolling elements are spaced apart by a cage being arranged between the outer ring and the inner ring, wherein the cage is made of polymer containing reinforcing fibers, and the outer ring and/or the inner ring are steel rings with fine carbide precipitation, characterized in that the cage is made of a polymer matrix having a hardness of about 35 HB and the reinforcing fibers having a hardness of about 1000 HB.