mhurhangee/patent-ind-claim-en huggingface dataset:
A permission configuration method, applied to a terminal device, wherein the method comprises: receiving (S201) a first input performed by a user, wherein the first input is an input performed on a first object and a second object, the first object is used to indicate a first application, the second object is used to indicate a target object, the target object is a second application or a target function, the first object is an object on a first interface , and the second object is an object on a second interface ; and displaying (S202) a target permission set on the first interface in response to the first input, wherein the target permission set is an intersection set between a first permission set and a second permission set, the first permission set is a permission set of the first application, the second permission set is a permission set of the target object, and the target permission set is used to configure a permission of the first application by allowing the user to-perform an input on a setting control corresponding to said permission; and the first interface is different from the second interface . receiving (S201) a first input performed by a user, wherein the first input is an input performed on a first object and a second object, the first object is used to indicate a first application, the second object is used to indicate a target object, the target object is a second application or a target function, the first object is an object on a first interface , and the second object is an object on a second interface ; and displaying (S202) a target permission set on the first interface in response to the first input, wherein the target permission set is an intersection set between a first permission set and a second permission set, the first permission set is a permission set of the first application, the second permission set is a permission set of the target object, and the target permission set is used to configure a permission of the first application by allowing the user to-perform an input on a setting control corresponding to said permission; and the first interface is different from the second interface .
Decoder for decoding a data stream to reconstruct a reconstructed version of a sample array , configured to extract from the data stream a transform coefficient block for each of blocks of the sample array, and reconstruct the reconstructed version by performing an inverse transform on each of the transform coefficient blocks, extract, by entropy decoding, information on the transform coefficient blocks from the data stream by decoding a significance map indicating positions of significant transform coefficients within a transform coefficient block from the data stream by extracting a significance map indicating positions of significant transform coefficients within the transform coefficient block, and then the values of the significant transform coefficients within the transform coefficient block from a data stream, with, in extracting the significance map, sequentially extracting first-type syntax elements from the data stream by context-adaptive entropy decoding, the first-type syntax elements indicating, for associated positions within the transform coefficient block as to whether at the respective position a significant or insignificant transform coefficient is situated; and sequentially associating the sequentially extracted first-type syntax elements to the positions of the transform coefficient block in a predetermined scan order among the positions of the transform coefficient block, using, in context-adaptively entropy decoding the first-type syntax elements, contexts which are individually selected for each of the first-type syntax elements depending on a number of positions at which according to the previously extracted and associated first-type syntax elements significant transform coefficients are situated, in a neighborhood of the position with which a current first-type syntax element is associated. extracting a significance map indicating positions of significant transform coefficients within the transform coefficient block, and then the values of the significant transform coefficients within the transform coefficient block from a data stream, with, in extracting the significance map, sequentially extracting first-type syntax elements from the data stream by context-adaptive entropy decoding, the first-type syntax elements indicating, for associated positions within the transform coefficient block as to whether at the respective position a significant or insignificant transform coefficient is situated; and sequentially associating the sequentially extracted first-type syntax elements to the positions of the transform coefficient block in a predetermined scan order among the positions of the transform coefficient block, using, in context-adaptively entropy decoding the first-type syntax elements, contexts which are individually selected for each of the first-type syntax elements depending on a number of positions at which according to the previously extracted and associated first-type syntax elements significant transform coefficients are situated, in a neighborhood of the position with which a current first-type syntax element is associated.
Buckle tongue having a tongue body extending in an insertion direction , the tongue body being formed by a plate made of metal and an overmolding made of plastics material that surrounds the plate at least in part, and a belt slot being formed in the tongue body transversely to the insertion direction for the passage of a belt strap, and having a blocking element movably arranged in the tongue body , the belt strap being movable through the belt slot when the blocking element is in an unloaded passage position and, in a loading position brought about by a tensile force introduced into the belt strap, the belt strap being at least restricted in its mobility by means of the blocking element , the belt strap, in the fastened state, being deflected by the buckle tongue in the manner of a loop, characterized in that a cover is provided on at least one side of the tongue body and at least a portion of the cover is arranged below the belt slot , the portion of the cover arranged below the belt slot directly adjoining the belt slot and covering at least part of the blocking element located in the passage position.
Method for the manufacture of a woven article comprising the steps of i) preparing a plurality of uniaxially oriented tapes of a polyethylene terephthalate composition, optionally comprising a step of heat setting said tapes, to obtain tapes having a first crystallinity, ii) weaving at least two of said tapes into a woven article, iii) heat setting the woven article to obtain tapes having a second crystallinity higher than the first crystallinity. i) preparing a plurality of uniaxially oriented tapes of a polyethylene terephthalate composition, optionally comprising a step of heat setting said tapes, to obtain tapes having a first crystallinity, ii) weaving at least two of said tapes into a woven article, iii) heat setting the woven article to obtain tapes having a second crystallinity higher than the first crystallinity.
Catalyst for the hydroformylation of at least one olefin comprising a ligand of general formula (I) wherein - R 1 , R 2 and R 3 are selected from the group comprising substituted and unsubstituted alkyl, substituted and unsubstituted aryl, substituted and unsubstituted alkenyl, substituted and unsubstituted alkinyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted heterocycles, - wherein R 1 , R 2 and R 3 can each be the same or different, - L is selected from a group comprising a sandwich complex, an oxygen group, substituted and unsubstituted alkylene or heteroalkylene, substituted aryl or heteroaryl, wherein aryl and heteroaryl are each substituted with groups comprising at least two heteroatoms and are coupled to the Si via the at least two heteroatoms of the substituents, - n = 1-10, preferably 1-5, particularly preferably 1, 2 or 3; and - wherein the ligand is coupled to the metal M from group VIIIb of the periodic table of elements via the Si group. - R 1 , R 2 and R 3 are selected from the group comprising substituted and unsubstituted alkyl, substituted and unsubstituted aryl, substituted and unsubstituted alkenyl, substituted and unsubstituted alkinyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted heterocycles, - wherein R 1 , R 2 and R 3 can each be the same or different, - L is selected from a group comprising a sandwich complex, an oxygen group, substituted and unsubstituted alkylene or heteroalkylene, substituted aryl or heteroaryl, wherein aryl and heteroaryl are each substituted with groups comprising at least two heteroatoms and are coupled to the Si via the at least two heteroatoms of the substituents, - n = 1-10, preferably 1-5, particularly preferably 1, 2 or 3; and - wherein the ligand is coupled to the metal M from group VIIIb of the periodic table of elements via the Si group.
Table tennis ball having a spherical ball surface and a marking applied to the ball surface for making a ball rotation metrologically detectable, wherein the marking comprises a number (N) of marking points (P i ), characterized in that the marking points (P i ) are distributed on the ball surface in such a way - that the standard deviation of the lengths (Z i,j ) of the orthodromes between each of the marking points (P i ) and its three closest neighbouring points is at least 12% of the mean value (μ) of these lengths (Z i,j ), and - that the minimum length of the orthodromes between each of the marking points (P i ) and its three closest neighbouring points is at least 40% of the mean value (μ) of these lengths (Z i,j ) and/or at least 120% of the quotient of the ball radius (R) to the square root of the number (N) of the marking points (P i ). - that the standard deviation of the lengths (Z i,j ) of the orthodromes between each of the marking points (P i ) and its three closest neighbouring points is at least 12% of the mean value (μ) of these lengths (Z i,j ), and - that the minimum length of the orthodromes between each of the marking points (P i ) and its three closest neighbouring points is at least 40% of the mean value (μ) of these lengths (Z i,j ) and/or at least 120% of the quotient of the ball radius (R) to the square root of the number (N) of the marking points (P i ).
An inflow apparatus for feeding a starting product into a filling zone of a decanter centrifuge comprising an inlet opening for introducing the starting product into the inflow apparatus ; at least one first outlet opening and a second outlet opening different from the first outlet opening for feeding the starting product from the inflow apparatus into the filling zone; and a connection device via which the inlet opening is in flow communication with the first outlet opening and the second outlet opening , wherein the connection device comprises a first passage and a second passage different from the first passage , with the first outlet opening being in flow communication with the inlet opening via the first passage and the second outlet opening being in flow communication with the inlet opening via the second passage wherein the first passage extends continuously from the first outlet opening up to the inlet opening and the second passage extends continuously from the second outlet opening up to the inlet opening , characterized in that the inlet opening , the first outlet opening and the second outlet opening are disposed in different planes with respect to the axial direction.
Use of (i) an anti-CD3 antibody, (ii) an anti-CD56 antibody, (iii) an anti-CD14 antibody, (iv) an anti-CD38 antibody, (v) an anti-CD45 antibody, (vi) an anti-CD90 antibody, (vii) an anti-CD135 antibody, (viii) an anti-CD10 antibody, (ix) an anti-CD11c antibody, (x) an anti-CD19 antibody, (xi) an anti-CD34 antibody, (xii) an anti-CD45RA antibody, (xiii) an anti-CD7 antibody, (xiv) an anti-CD71 antibody, (xv) an anti-CD41/CD61 complex antibody or an anti-CD41 antibody and/or an anti-CD61 antibody, and (xvi) an anti-CD33 antibody and/or an anti-CD66b antibody, for identifying hematopoietic cell subtypes in an isolated sample, determining the relative frequency of hematopoietic cell subtypes in an isolated sample and/or quantifying the number of cells within hematopoietic cell subtypes in an isolated sample, wherein each of (i) to (xvi) is labelled with a different fluorochrome, wherein when (xvi) is an anti-CD33 antibody and an anti-CD66b antibody, the anti-CD33 antibody and anti-CD66b are labelled with the same fluorochrome, and wherein when (xv) is an anti-CD41 antibody and an anti-CD61 antibody, the anti-CD41 antibody and the anti-CD61 antibody are labelled with the same fluorochrome, optionally wherein (xv) is an anti-CD41/CD61 complex antibody, and/or optionally wherein (xvi) is an anti-CD33 antibody and an anti-CD66b antibody. wherein when (xvi) is an anti-CD33 antibody and an anti-CD66b antibody, the anti-CD33 antibody and anti-CD66b are labelled with the same fluorochrome, and wherein when (xv) is an anti-CD41 antibody and an anti-CD61 antibody, the anti-CD41 antibody and the anti-CD61 antibody are labelled with the same fluorochrome, optionally wherein (xv) is an anti-CD41/CD61 complex antibody, and/or optionally wherein (xvi) is an anti-CD33 antibody and an anti-CD66b antibody.
A waveguide, comprising a grating in at least a part of the waveguide, which waveguide comprises a non-gelated coating, which coating is capable of interacting with an analyte by which interaction the axial strain of the waveguide changes, the coating comprising a polymer, which polymer comprises an aliphatic chain, the waveguide being characterised in that the aliphatic chain is provided with functional side-chains comprising at least one moiety selected from the group of heterocycloalkyl moieties, wherein the polymer comprising the aliphatic chain is composed of at least acryloylmorpholine.
Method for obtaining coupled grains comprising seeds of different species, each of different grain size, said coupled grains comprising at least two seeds, said method comprising the following steps: - individual coating of each of the seeds is performed: • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, - an agglomeration of the coated grains of the at least one first and second seeds is implemented by coupling in a mixer to produce coupled grains, comprising seeds of different species, and - the coupled grains are sorted using a densimetric table. - individual coating of each of the seeds is performed: • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, - an agglomeration of the coated grains of the at least one first and second seeds is implemented by coupling in a mixer to produce coupled grains, comprising seeds of different species, and - the coupled grains are sorted using a densimetric table.
A computer-implemented method comprising: receiving audio data corresponding to an utterance; obtaining a transcription of the utterance; generating a representation of the audio data; generating a representation of the transcription of the utterance; providing (i) the representation of the audio data and (ii) the representation of the transcription of the utterance to a classifier that, based on a given representation of audio data and a given representation of a transcription of an utterance, is trained to output an indication of whether the utterance associated with the given representation is likely directed to an automated assistant or is likely not directed to an automated assistant; receiving, from the classifier, an indication of whether the utterance corresponding to the received audio data is likely directed to the automated assistant or is likely not directed to the automated assistant; and selectively instructing the automated assistant based at least on the indication of whether the utterance corresponding to the received audio data is likely directed to the automated assistant or is likely not directed to the automated assistant, wherein the classifier includes one or more neural network elements to process the spoken utterance, wherein the classifier trains the neural network elements with examples of queries previously spoken by users not likely directed towards the automated assistant server. receiving audio data corresponding to an utterance; obtaining a transcription of the utterance; generating a representation of the audio data; generating a representation of the transcription of the utterance; providing (i) the representation of the audio data and (ii) the representation of the transcription of the utterance to a classifier that, based on a given representation of audio data and a given representation of a transcription of an utterance, is trained to output an indication of whether the utterance associated with the given representation is likely directed to an automated assistant or is likely not directed to an automated assistant; receiving, from the classifier, an indication of whether the utterance corresponding to the received audio data is likely directed to the automated assistant or is likely not directed to the automated assistant; and selectively instructing the automated assistant based at least on the indication of whether the utterance corresponding to the received audio data is likely directed to the automated assistant or is likely not directed to the automated assistant, wherein the classifier includes one or more neural network elements to process the spoken utterance, wherein the classifier trains the neural network elements with examples of queries previously spoken by users not likely directed towards the automated assistant server.
A gaspath component for a gas turbine engine comprising: a platform (112,120,132,134;300) including at least one internal cooling passage (320,330;410,420,430;710;720;810), each of the at least one internal cooling passage (320...810) having a plurality of trip strips (328,338;412,422,432;712,722;820) extending into the cooling passage (320...810) from at least one internal surface of the cooling passage (320...810), each of the trip strips (328...820) being defined by a z-shaped configuration, wherein the at least one internal cooling passage (320...810) includes a first internal cooling passage (320;410) and a second internal cooling passage (330;420,430), and wherein the first internal cooling passage (320;410) is adjacent a first platform edge; and wherein the second internal cooling passage (330;420,430) is adjacent to a second platform edge, and a locally upstream most portion, relative to a cooling flow direction through the second internal cooling passage, of each trip strip (338;422,432) within the second internal cooling passage (330;420,430) contacts a wall adjacent to the second platform edge. a platform (112,120,132,134;300) including at least one internal cooling passage (320,330;410,420,430;710;720;810), each of the at least one internal cooling passage (320...810) having a plurality of trip strips (328,338;412,422,432;712,722;820) extending into the cooling passage (320...810) from at least one internal surface of the cooling passage (320...810), each of the trip strips (328...820) being defined by a z-shaped configuration, wherein the at least one internal cooling passage (320...810) includes a first internal cooling passage (320;410) and a second internal cooling passage (330;420,430), and wherein the first internal cooling passage (320;410) is adjacent a first platform edge; and wherein the second internal cooling passage (330;420,430) is adjacent to a second platform edge, and a locally upstream most portion, relative to a cooling flow direction through the second internal cooling passage, of each trip strip (338;422,432) within the second internal cooling passage (330;420,430) contacts a wall adjacent to the second platform edge.
Heat recovery component for an exhaust gas system of an internal combustion engine, the heat recovery component comprising: - an inlet for exhaust gas to enter the heat recovery component; - an outlet for exhaust gas to exit the heat recovery component; - a heat recovery branch conduit , the heat recovery branch conduit comprising a heat recovery branch conduit inlet being in fluidal connection with the inlet of the heat recovery component , a heat recovery branch conduit outlet being in fluidal connection with the outlet of the heat recovery component , and a heat exchanger arranged in the heat recovery branch conduit ; - a bypass branch conduit being in fluidal connection with the inlet and the outlet of the heat recovery component, the bypass branch conduit being separate from the heat recovery branch conduit , the bypass branch conduit allowing exhaust gas flowing through the bypass branch conduit to bypass the heat recovery branch conduit ; - a valve being configured to be rotatable between a heat recovery end position, in which the valve allows exhaust gas to only flow through the heat recovery branch conduit , and a bypass end position, in which the valve allows exhaust gas to flow through the bypass branch conduit , the valve being arranged to be rotatable around a rotation axis located in the bypass branch conduit, wherein the valve comprises a valve shaft , a bypass valve flap and a heat recovery valve flap , the bypass valve flap projecting radially from opposite sides of the valve shaft , wherein the bypass valve flap is for closing the bypass branch conduit and the heat recovery valve flap is for closing the heat recovery branch conduit , and the bypass valve flap and the heat recovery valve flap being operatively connected by a support . - an inlet for exhaust gas to enter the heat recovery component; - an outlet for exhaust gas to exit the heat recovery component; - a heat recovery branch conduit , the heat recovery branch conduit comprising a heat recovery branch conduit inlet being in fluidal connection with the inlet of the heat recovery component , a heat recovery branch conduit outlet being in fluidal connection with the outlet of the heat recovery component , and a heat exchanger arranged in the heat recovery branch conduit ; - a bypass branch conduit being in fluidal connection with the inlet and the outlet of the heat recovery component, the bypass branch conduit being separate from the heat recovery branch conduit , the bypass branch conduit allowing exhaust gas flowing through the bypass branch conduit to bypass the heat recovery branch conduit ; - a valve being configured to be rotatable between a heat recovery end position, in which the valve allows exhaust gas to only flow through the heat recovery branch conduit , and a bypass end position, in which the valve allows exhaust gas to flow through the bypass branch conduit , the valve being arranged to be rotatable around a rotation axis located in the bypass branch conduit,