mhurhangee/patent-ind-claim-en huggingface dataset:
A method for checking the positioning of a fibrous preform in a blade, the blade having been obtained by injecting a resin into a mould having a blade shape and into which a preform has been placed, the blade extending in an orthonormal blade reference frame X, Y, Z, the blade comprising a blade root extending longitudinally along an X axis an airfoil extending from the blade root along a Z axis, the blade having a thickness defined along a Y axis, the preform comprising glass tracers positioned on the surface of the preform, the centre of the tracers defining a neutral fibre located at a height along the Z axis in the direction defined by the X axis, the method comprising the following steps: acquiring (E31) tomographic 2D projections of the blade by means of an imaging system comprising an X-ray source, the method being characterized in that , during the acquisition, each projection is acquired according to a given orientation of the X-ray source with respect to the blade; accumulating (E32, E32a, E32b) the 2D projections in the direction of the Y axis so as to obtain an accumulated 2D image in the x and z directions; the method being further characterised by comprising the following steps: determining (E33) a greyscale profile for each pixel column defined in the direction of the z axis; processing (E34) of each of the profiles obtained so as to locate the Z position of the neutral fibre in the direction of the X axis. acquiring (E31) tomographic 2D projections of the blade by means of an imaging system comprising an X-ray source, the method being characterized in that , during the acquisition, each projection is acquired according to a given orientation of the X-ray source with respect to the blade; accumulating (E32, E32a, E32b) the 2D projections in the direction of the Y axis so as to obtain an accumulated 2D image in the x and z directions; the method being further characterised by comprising the following steps: determining (E33) a greyscale profile for each pixel column defined in the direction of the z axis; processing (E34) of each of the profiles obtained so as to locate the Z position of the neutral fibre in the direction of the X axis. determining (E33) a greyscale profile for each pixel column defined in the direction of the z axis; processing (E34) of each of the profiles obtained so as to locate the Z position of the neutral fibre in the direction of the X axis.
A detection device comprising: a receiver configured to receive a received sequence, wherein the received sequence is a Narrowband Secondary Synchronization Signal, N-SSS; and a processor configured to: descramble (B01) the received sequence with a predefined number of known scrambling sequences, determine (B02) a sequence of cross spectral densities based on the descrambled received sequence and a predefined number of known prototype sequences, demultiplex (B03) each of the cross spectral densities into four streams of the same length, accumulate (B04) the samples corresponding to each of the streams into four accumulated samples, multiplex (B05) the four accumulated samples to a sequence of aliased cross spectral densities, determine (B06) an inverse frequency transform of the sequence of aliased cross spectral densities at lags corresponding to a predefined number of known cyclic shifts, and detect (B07) a specific prototype sequence and its cyclic shift based on the inverse frequency transform of the aliased cross spectral densities. a receiver configured to receive a received sequence, wherein the received sequence is a Narrowband Secondary Synchronization Signal, N-SSS; and a processor configured to: descramble (B01) the received sequence with a predefined number of known scrambling sequences, determine (B02) a sequence of cross spectral densities based on the descrambled received sequence and a predefined number of known prototype sequences, demultiplex (B03) each of the cross spectral densities into four streams of the same length, accumulate (B04) the samples corresponding to each of the streams into four accumulated samples, multiplex (B05) the four accumulated samples to a sequence of aliased cross spectral densities, determine (B06) an inverse frequency transform of the sequence of aliased cross spectral densities at lags corresponding to a predefined number of known cyclic shifts, and detect (B07) a specific prototype sequence and its cyclic shift based on the inverse frequency transform of the aliased cross spectral densities. descramble (B01) the received sequence with a predefined number of known scrambling sequences, determine (B02) a sequence of cross spectral densities based on the descrambled received sequence and a predefined number of known prototype sequences, demultiplex (B03) each of the cross spectral densities into four streams of the same length, accumulate (B04) the samples corresponding to each of the streams into four accumulated samples, multiplex (B05) the four accumulated samples to a sequence of aliased cross spectral densities, determine (B06) an inverse frequency transform of the sequence of aliased cross spectral densities at lags corresponding to a predefined number of known cyclic shifts, and detect (B07) a specific prototype sequence and its cyclic shift based on the inverse frequency transform of the aliased cross spectral densities.
A method for wireless communication at a wireless device, comprising: initiating a successive decoding process for an encoded code block received at the wireless device, wherein the code block comprises a first data portion and a first data check portion that implements a data check function for the first data portion, and comprises a second data portion and a second data check portion that implements the data check function for the first data portion and the second data portion; generating, using a successive decoder, one or more first candidate paths for a first portion of the code block, wherein the first portion of the code block comprises the first data portion and the first data check portion; performing a checking function on respective first data portions for the one or more first candidate paths using respective first data check portions; generating, concurrent to the performing the checking function, one or more second candidate paths for a second portion of the code block, wherein the one or more second candidate paths are initialized from the one or more first candidate paths; and determining whether to terminate the successive decoding process prior to completing decoding the code block based at least in part on determining whether the checking function for each of the one or more first candidate paths for the first data portion has failed the checking function. initiating a successive decoding process for an encoded code block received at the wireless device, wherein the code block comprises a first data portion and a first data check portion that implements a data check function for the first data portion, and comprises a second data portion and a second data check portion that implements the data check function for the first data portion and the second data portion; generating, using a successive decoder, one or more first candidate paths for a first portion of the code block, wherein the first portion of the code block comprises the first data portion and the first data check portion; performing a checking function on respective first data portions for the one or more first candidate paths using respective first data check portions; generating, concurrent to the performing the checking function, one or more second candidate paths for a second portion of the code block, wherein the one or more second candidate paths are initialized from the one or more first candidate paths; and determining whether to terminate the successive decoding process prior to completing decoding the code block based at least in part on determining whether the checking function for each of the one or more first candidate paths for the first data portion has failed the checking function.
Polyamide powder for powder bed fusion methods, wherein the polyamide is selected from polyamide 6, 11, 12, 1013, 1012, 66, 46, 613, 106, 11/1010, 1212 and 12/1012, wherein the polyamide exhibits a solution viscosity in m-cresol to ISO 307 of 1.55 to 1.75 and an increase in solution viscosity of 10% to 40%, preferably 20% to 30%, when under a nitrogen atmosphere it is subjected to a temperature 10°C below its melting temperature for 24 h, and wherein carboxylic acid end groups in excess are present in the polyamide, characterized in that the excess of the carboxylic acid end groups relative to the amine end groups is 20 to 60 mmol/kg of polyamide powder.
Push chain which is rigid when pushed and can be actuated by a chain drive, comprising chain links assembled in a flush manner from discs that are identical in shape, each disc having at least one curved edge portion extending substantially in a longitudinal direction of the disc, an edge portion externally opposite the curved edge portion, and tooth-shaped projections on one of the edge portions , two bolt receiving holes being provided in each disc, which are each suitable for receiving bolts (17 to 20) that hold together a plurality of discs, characterised in that the disc in the form of a toothed segment disc is modelled on a toothed segment of a gear wheel such that teeth (4 to 6) project from the curved edge portion of the toothed segment disc so as to diverge outwards, and in that the edge portion which is externally opposite the curved edge portion is straight and/or plane in the longitudinal direction of the toothed segment disc .
Flat seal having at least one single-piece sheet-metal seal layerdefining a layer plane, which has at least one first layer region provided with at least one medium through opening and, seen in a plan view of the sheet-metal layer, outside the first layer region, at least one second layer region and with the flat seal installation-ready, has a pre-determined outer contour, wherein the flat seal for the medium through opening has a medium-sealing device which is associated with said medium through opening, characterised in that , at least one sub-region of the second layer region of the installation-ready flat seal lying, when seen in a plan view of the seal layer, outside the medium-sealing device is formed by a region of the sheet-metal layer that is stretched in the layer plane to achieve the pre-determined outer contour, said stretched sub-region being formed at least locally by plastically deformed zones of the metal sheet.
System for aligning a medical device with respect to a location on a patient with an insertion axis extending through said location and a predetermined target location in said patient , wherein the system comprises: - a base arranged for connecting the system to the surroundings, for instance a patient support of a scanner; - an alignment device comprising a stationary part and an axial guide , wherein the axial guide is arranged for guiding the medical device along a guiding axis, wherein the alignment device is arranged for rotating the axial guide about a remote centre of rotation while the guiding axis extends through said remote centre of rotation ; - an arm connecting the base and the stationary part of the alignment device , wherein the arm comprises locking means which are moveable between a locked position wherein the position of the alignment device with respect to the base is fixed and a moveable position wherein the alignment device is moveable with respect to the base for positioning the remote centre of rotation on the location on the patient , wherein the system comprises at least one fiducial marker for determining the position and orientation of the stationary part of the alignment device by an imaging technique, characterised in that the alignment device is arranged such that the position of the remote centre of rotation with respect to the stationary part is fixed and further comprising a controller to control the the alignment device to rotate the axial guide about the remote centre of rotation with respect to the stationary part for aligning the guiding axis with the insertion axis using the determined position and orientation of said stationary part as a reference. - a base arranged for connecting the system to the surroundings, for instance a patient support of a scanner; - an alignment device comprising a stationary part and an axial guide , wherein the axial guide is arranged for guiding the medical device along a guiding axis, wherein the alignment device is arranged for rotating the axial guide about a remote centre of rotation while the guiding axis extends through said remote centre of rotation ; - an arm connecting the base and the stationary part of the alignment device ,
A method for feeding back hybrid automatic repeat request-acknowledgement, HARQ-ACK, information by a user equipment, UE, being configured for a plurality of downlink component carriers, CC, the method comprising: receiving, from a base station, downlink control information, DCI, including a downlink assignment indicator, DAI, on a physical downlink control channel, PDCCH, or enhanced PDCCH, ePDCCH, wherein the DAI specifies a number of downlink subframes that have downlink HARQ transmission in a bundling window by indicating a number of scheduled downlink subframes from a first downlink subframe to a current downlink subframe in the bundling window; receiving, from the base station, data on a physical downlink shared channel, PDSCH, in the bundling window; generating the HARQ-ACK information for the data based on the DAI, wherein each of the downlink subframes in the bundling window is indexed firstly according to frequency and then according to time; and transmitting the HARQ-ACK information to the base station on a physical uplink control channel, PUCCH, wherein the downlink subframes in the bundling window are indexed first in increasing order of a frequency index and then in increasing order of a subframe index. receiving, from a base station, downlink control information, DCI, including a downlink assignment indicator, DAI, on a physical downlink control channel, PDCCH, or enhanced PDCCH, ePDCCH, wherein the DAI specifies a number of downlink subframes that have downlink HARQ transmission in a bundling window by indicating a number of scheduled downlink subframes from a first downlink subframe to a current downlink subframe in the bundling window; receiving, from the base station, data on a physical downlink shared channel, PDSCH, in the bundling window; generating the HARQ-ACK information for the data based on the DAI, wherein each of the downlink subframes in the bundling window is indexed firstly according to frequency and then according to time; and transmitting the HARQ-ACK information to the base station on a physical uplink control channel, PUCCH, wherein the downlink subframes in the bundling window are indexed first in increasing order of a frequency index and then in increasing order of a subframe index.
A method of assembling a rotatable permanent magnet array a magnetic bearing arrangement, said rotating array comprising at least four permanent ring magnets , the method comprising the steps of: making a reference point on each of the at least four ring magnets ; measuring a magnetic field for each of the at least four ring magnets ; recording at least the first and second order transverse stray magnetic field vectors for each of the at least four ring magnets ; calculating a relative angular orientation relative to the reference point and relative magnetic polarity direction for each of the at least four ring magnets within the array such that, when the at least four magnets are assembled and rotated, the time-varying magnetic field is minimised; and assembling the array of magnets according to the calculation. making a reference point on each of the at least four ring magnets ; measuring a magnetic field for each of the at least four ring magnets ; recording at least the first and second order transverse stray magnetic field vectors for each of the at least four ring magnets ; calculating a relative angular orientation relative to the reference point and relative magnetic polarity direction for each of the at least four ring magnets within the array such that, when the at least four magnets are assembled and rotated, the time-varying magnetic field is minimised; and assembling the array of magnets according to the calculation.
A syringe, in particular for veterinary-medicine applications, having a main body , which has a syringe cylinder , whose discharge-side end is connected to a cannula and in which a piston , which is connected to a piston rod , is situated so it is displaceable, wherein the syringe comprises a protective module, which has a protective cap , mounted so it is displaceable on the main body , which receives the cannula in its first terminal position so that the front end thereof does not protrude from the protective cap , and a securing element , which can be moved from a first securing position into a second securing position and then into a third securing position, the securing element , in its first securing position, locking the protective cap in its first terminal position, the protective cap being displaceable toward the main body into its second terminal position, in which the front end of the cannula protrudes from the protective cap , if the securing element is in the second securing position, and wherein the piston can be moved in the syringe cylinder in the direction toward the discharge-side end using the piston rod if the securing element is in its third securing position, into which it is only movable from the second securing position when the protective cap is in its second terminal position, characterized in that the securing element , in its third securing position, releases a locking of the piston rod relative to displacements, which is caused in the first and second securing positions by the protective module, and the securing element has a locking section , which causes the locking of the piston rod in the first and second securing positions. wherein the syringe comprises a protective module, which has a protective cap , mounted so it is displaceable on the main body , which receives the cannula in its first terminal position so that the front end thereof does not protrude from the protective cap , and a securing element , which can be moved from a first securing position into a second securing position and then into a third securing position, the securing element , in its first securing position, locking the protective cap in its first terminal position, the protective cap being displaceable toward the main body into its second terminal position, in which the front end of the cannula protrudes from the protective cap , if the securing element is in the second securing position, and wherein the piston can be moved in the syringe cylinder in the direction toward the discharge-side end using the piston rod if the securing element is in its third securing position, into which it is only movable from the second securing position when the protective cap is in its second terminal position, characterized in that the securing element , in its third securing position, releases a locking of the piston rod relative to displacements, which is caused in the first and second securing positions by the protective module, and the securing element has a locking section , which causes the locking of the piston rod in the first and second securing positions.
A method of executing a program by a processor , the method comprising the following steps: - a calling program (A 0 ) calling (E2) a subprogram (A 1 ) and passing at least one parameter (M; C; I); - the subprogram (A 1 ) determining (E8) a return status indicator; - the subprogram (A 1 ) determining (E10) a return word (R) by using a predetermined function to combine at least the return status indicator and the parameter (M; C; I); - returning (E12) to the calling program (A 0 ) with the determined return word (R) as a result; and - the calling program (A 0 ) comparing (T 1 ; T 2 ) the return word (R) and a word determined by using the predetermined function to combine at least a possible value of the return status indicator and the parameter (M; C; I) passed when calling (E2) the subprogram (A 1 ). - a calling program (A 0 ) calling (E2) a subprogram (A 1 ) and passing at least one parameter (M; C; I); - the subprogram (A 1 ) determining (E8) a return status indicator; - the subprogram (A 1 ) determining (E10) a return word (R) by using a predetermined function to combine at least the return status indicator and the parameter (M; C; I); - returning (E12) to the calling program (A 0 ) with the determined return word (R) as a result; and - the calling program (A 0 ) comparing (T 1 ; T 2 ) the return word (R) and a word determined by using the predetermined function to combine at least a possible value of the return status indicator and the parameter (M; C; I) passed when calling (E2) the subprogram (A 1 ).
A method for determining a transport block size, comprising: receiving (S24), by a terminal device, control information sent by a network device, wherein the control information comprises indication information and resource information of a data channel; determining, by the terminal device, a modulation scheme and a code rate based on a mapping relationship set and the indication information, and determining number of time-frequency resources based on the resource information of the data channel, wherein the mapping relationship set comprises a correspondence between the indication information and a combination of the modulation scheme and the code rate; determining, by the terminal device, a second transport block size, TBS, based on the modulation scheme, the code rate, the number of time-frequency resources, and number of transport layers; determining, by the terminal device, a first TBS based on the second TBS, wherein the first TBS meets the following condition: when the second TBS is less than or equal to a first reference threshold, the first TBS is an element in a value set; and decoding (S32), by the terminal device based on the first TBS, the data channel carried on the time-frequency resources, or sending (S30'), by the terminal device on the time-frequency resources, the data channel based on the first TBS. receiving (S24), by a terminal device, control information sent by a network device, wherein the control information comprises indication information and resource information of a data channel; determining, by the terminal device, a modulation scheme and a code rate based on a mapping relationship set and the indication information, and determining number of time-frequency resources based on the resource information of the data channel, wherein the mapping relationship set comprises a correspondence between the indication information and a combination of the modulation scheme and the code rate; determining, by the terminal device, a second transport block size, TBS, based on the modulation scheme, the code rate, the number of time-frequency resources, and number of transport layers; determining, by the terminal device, a first TBS based on the second TBS, wherein the first TBS meets the following condition: when the second TBS is less than or equal to a first reference threshold, the first TBS is an element in a value set; and decoding (S32), by the terminal device based on the first TBS, the data channel carried on the time-frequency resources, or sending (S30'), by the terminal device on the time-frequency resources, the data channel based on the first TBS. when the second TBS is less than or equal to a first reference threshold, the first TBS is an element in a value set; and decoding (S32), by the terminal device based on the first TBS, the data channel carried on the time-frequency resources, or sending (S30'), by the terminal device on the time-frequency resources, the data channel based on the first TBS.