mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a base station in a wireless communication system, the method comprising: in case that a timing advance, TA, value with respect to a reception signal to be transmitted from a terminal is larger than a sum of a first time, a second time, and a third time, identifying a switching period for controlling a conversion mode of a sampling rate conversion circuit, based on the TA value with respect to the reception signal; generating a switching signal within the switching period; switching the conversion mode from a first mode to a second mode in response to the switching signal; and based on the second mode, changing a sampling rate of the reception signal or a transmission signal, wherein the wireless communication system employs a time division duplex, TDD, scheme, wherein the first time is a delay time of the reception signal, wherein the second time is a time required for down-converting the reception signal, and wherein the third time is a time required for resetting a memory of at least one filter included in the sampling rate conversion circuit. in case that a timing advance, TA, value with respect to a reception signal to be transmitted from a terminal is larger than a sum of a first time, a second time, and a third time, identifying a switching period for controlling a conversion mode of a sampling rate conversion circuit, based on the TA value with respect to the reception signal; generating a switching signal within the switching period; switching the conversion mode from a first mode to a second mode in response to the switching signal; and based on the second mode, changing a sampling rate of the reception signal or a transmission signal, wherein the wireless communication system employs a time division duplex, TDD, scheme, wherein the first time is a delay time of the reception signal, wherein the second time is a time required for down-converting the reception signal, and wherein the third time is a time required for resetting a memory of at least one filter included in the sampling rate conversion circuit.
A method of synchronizing a group of scheduled tasks into a known state within a parallel processing unit comprising: in response to decoding, in an instruction decoder, a synchronization instruction in a scheduled task having a group ID, placing the scheduled task into a non-active state and forwarding the decoded synchronization instruction to an atomic ALU for execution, wherein the decoded synchronization instruction causes the atomic ALU to perform an operation on data assigned to the group ID of the scheduled task which includes the synchronization instruction and then to perform a check on the data assigned to the group ID , wherein the operation updates the data assigned to the group ID of the scheduled task which includes the synchronization instruction and the atomic ALU performs the update on the data and the check on the updated data in response to a single decoded synchronization instruction without any possibility that another instruction can over-write the data in between the update and the check on the updated data; and in response to receiving, at a scheduler, a message from the atomic ALU indicating that the data assigned to the group ID of the scheduled task which includes the synchronization instruction passed the check, removing all scheduled tasks having that group ID from the non-active state . in response to decoding, in an instruction decoder, a synchronization instruction in a scheduled task having a group ID, placing the scheduled task into a non-active state and forwarding the decoded synchronization instruction to an atomic ALU for execution, wherein the decoded synchronization instruction causes the atomic ALU to perform an operation on data assigned to the group ID of the scheduled task which includes the synchronization instruction and then to perform a check on the data assigned to the group ID , wherein the operation updates the data assigned to the group ID of the scheduled task which includes the synchronization instruction and the atomic ALU performs the update on the data and the check on the updated data in response to a single decoded synchronization instruction without any possibility that another instruction can over-write the data in between the update and the check on the updated data; and in response to receiving, at a scheduler, a message from the atomic ALU indicating that the data assigned to the group ID of the scheduled task which includes the synchronization instruction passed the check, removing all scheduled tasks having that group ID from the non-active state .
A method performed by a first terminal, the method comprising: receiving, from a base station, a higher layer signaling including time domain configuration information for a sidelink-synchronization signal and physical sidelink broadcast channel block, S-SSB; the method being characterized by : identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB , where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot. receiving, from a base station, a higher layer signaling including time domain configuration information for a sidelink-synchronization signal and physical sidelink broadcast channel block, S-SSB; the method being characterized by : identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB , where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot. identifying, based on the time domain configuration information, a number of S-SSBs N SSB within a period, a slot offset O SSB from a start of the period to a first S-SSB in the period, and a slot interval D SSB between neighboring S-SSBs in the period; identifying a slot including the S-SSB in the period, wherein an index of the slot is determined as O SSB + I SSB *D SSB , where I SSB is an index of the S-SSBs in the period, with 0≤ I SSB ≤ N SSB -1; and transmitting, to a second terminal, the S-SSB in the slot.
A computer-implemented method for providing one or more descriptors (220-222) of a 3D geometry , the method comprising: determining a first key point (101-104) in the 3D geometry ; and selecting a plurality of points (121-123, 140-141) in a vicinity (140-141) of the first key point (101-104); characterized by: computing a normal of the first key point (101-104) and a normal (131-133) of each point of the plurality of points (121-123, 140-141), each normal (112, 131-133) being computed with respect to a tangent plane digitally provided for the respective point; computing an angle of each normal (131-133) of the plurality of points (121-123, 140-141) with respect to the normal of the first key point (101-104); providing a first matrix comprising the angles computed; applying a Trace Transform to the first matrix thereby providing a second matrix ; applying a Fast Fourier Transform, FFT, to the second matrix thereby providing a descriptor (220-222); and using the descriptor (220-222) provided for: - searching and classifying a 3D geometry; or - identifying and classifying a 3D geometry. determining a first key point (101-104) in the 3D geometry ; and selecting a plurality of points (121-123, 140-141) in a vicinity (140-141) of the first key point (101-104); characterized by: computing a normal of the first key point (101-104) and a normal (131-133) of each point of the plurality of points (121-123, 140-141), each normal (112, 131-133) being computed with respect to a tangent plane digitally provided for the respective point; computing an angle of each normal (131-133) of the plurality of points (121-123, 140-141) with respect to the normal of the first key point (101-104); providing a first matrix comprising the angles computed; applying a Trace Transform to the first matrix thereby providing a second matrix ; applying a Fast Fourier Transform, FFT, to the second matrix thereby providing a descriptor (220-222); and using the descriptor (220-222) provided for: - searching and classifying a 3D geometry; or - identifying and classifying a 3D geometry. computing a normal of the first key point (101-104) and a normal (131-133) of each point of the plurality of points (121-123, 140-141), each normal (112, 131-133) being computed with respect to a tangent plane digitally provided for the respective point; computing an angle of each normal (131-133) of the plurality of points (121-123, 140-141) with respect to the normal of the first key point (101-104); providing a first matrix comprising the angles computed; applying a Trace Transform to the first matrix thereby providing a second matrix ; applying a Fast Fourier Transform, FFT, to the second matrix thereby providing a descriptor (220-222); and using the descriptor (220-222) provided for: - searching and classifying a 3D geometry; or - identifying and classifying a 3D geometry. - searching and classifying a 3D geometry; or - identifying and classifying a 3D geometry.
A knotless suture anchor construct, comprising: a substrate having a first end and a second end ; and a filament woven through a plurality of passing locations along the substrate, the filament forming a first loop extending to a passing limb and to a reducing limb ; wherein a passing portion in the reducing limb between two adjacent passing locations of the plurality of passing locations forms a second loop; characterised in that the first loop of the filament extends from a first surface on the first end of the substrate and the passing limb and the reducing limb extend from the first surface or a second surface on the second end of the substrate; and said passing portion wraps around the first loop . a substrate having a first end and a second end ; and a filament woven through a plurality of passing locations along the substrate, the filament forming a first loop extending to a passing limb and to a reducing limb ; wherein a passing portion in the reducing limb between two adjacent passing locations of the plurality of passing locations forms a second loop; characterised in that the first loop of the filament extends from a first surface on the first end of the substrate and the passing limb and the reducing limb extend from the first surface or a second surface on the second end of the substrate; and said passing portion wraps around the first loop .
A lithium ion battery comprising a cathode, an anode, a separator, and a liquid electrolyte therein, characterised in that a solid electrolyte interface (SEI) layer is provided on the separator thereof, the SEI layer formed on the separator after an initial charge following manufacture of the battery, wherein the SEI layer has a SEI measurement in atomic peaks using Energy Dispersive X-Ray Spectroscopy (EDX) under a scanning electron microscope with an Energy Dispersive Spectrometer of at most 70% Carbon, at least 8% Oxygen, at least 5% Fluorine, and at least 1.5% Phosphorus, and wherein the battery exhibits a specific capacity of at least 38 mAH/g for at least 16 cycles subsequent to the initial charge.
A method for maximizing capability for a media download service over a wireless network, comprising: obtaining an estimate (S11) of available bandwidth of said wireless network; comparing (S12) the estimated available bandwidth against a predetermined threshold level; operating said media download service with a low bandwidth mode, if the estimated available bandwidth is not greater than the predetermined threshold, to obtain certain media content using a first encoding rate; and in case a high bandwidth is available and permits exchanging the obtained media with media having identical subject matter but a higher encoding rate than the first encoding rate, replacing the previously downloaded material encoded at the first encoding rate with corresponding content having the higher encoding rate. obtaining an estimate (S11) of available bandwidth of said wireless network; comparing (S12) the estimated available bandwidth against a predetermined threshold level; operating said media download service with a low bandwidth mode, if the estimated available bandwidth is not greater than the predetermined threshold, to obtain certain media content using a first encoding rate; and in case a high bandwidth is available and permits exchanging the obtained media with media having identical subject matter but a higher encoding rate than the first encoding rate, replacing the previously downloaded material encoded at the first encoding rate with corresponding content having the higher encoding rate.
A joined body in which a silicon nitride substrate and a copper plate are joined together with a brazing layer formed of an Ag-Cu-Sn-based brazing material containing silver, copper, tin, and an active metal contained as TiH 2 , wherein the content of silver in the brazing layer is 85% by mass or more, wherein the amount of tin in the brazing layer is 0.5 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein the content of TiH 2 in the brazing layer is 1 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein a mean value of a KAM value of a silver portion in the brazing layer obtained by EBSP method, as described in the description, using an orientation imaging microscopy is 0.55° or less, and wherein the KAM value is a kernel average misorientation value indicating an orientation difference between adjacent measurement points in a crystal grain, and EBSP is an electron back scattering pattern method. wherein the content of silver in the brazing layer is 85% by mass or more, wherein the amount of tin in the brazing layer is 0.5 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein the content of TiH 2 in the brazing layer is 1 to 5 parts by mass with respect to 100 parts by mass of the total of silver and copper, wherein a mean value of a KAM value of a silver portion in the brazing layer obtained by EBSP method, as described in the description, using an orientation imaging microscopy is 0.55° or less, and wherein the KAM value is a kernel average misorientation value indicating an orientation difference between adjacent measurement points in a crystal grain, and EBSP is an electron back scattering pattern method.
A method for process constraint, comprising: collecting system call information for a process; detecting whether the process is idle based on the system call information, wherein an idle process is a process which is blocked on certain external events or external inputs; detecting whether the process is repeating using autocorrelation to determine whether the process issues system calls in a periodic fashion; and constraining the process if it is idle or repeating to limit an attack surface presented by the process; wherein collecting system call information comprises collecting a limited subset of system call information that does not include call stacks and wherein detecting whether the process is idle further comprises monitoring processor activity. collecting system call information for a process; detecting whether the process is idle based on the system call information, wherein an idle process is a process which is blocked on certain external events or external inputs; detecting whether the process is repeating using autocorrelation to determine whether the process issues system calls in a periodic fashion; and constraining the process if it is idle or repeating to limit an attack surface presented by the process; wherein collecting system call information comprises collecting a limited subset of system call information that does not include call stacks and wherein detecting whether the process is idle further comprises monitoring processor activity.
An absorbent article comprising: a liquid permeable nonwoven topsheet ; a nonwoven second material , wherein the second material is a separate material from the topsheet ; a liquid impermeable backsheet ; an absorbent core positioned at least partially intermediate the second material and the liquid impermeable backsheet ; wherein the second material is positioned intermediate the liquid permeable topsheet and the absorbent core ; wherein the topsheet comprises a plurality of recesses and a plurality of raised areas ; wherein the second material is generally planar; wherein portions of the recesses are joined to portions of the second material ; wherein a first aperture is formed in a substantially central location of at least a majority of the raised areas , and wherein the first aperture extends through only the topsheet ; wherein the recesses each comprise a base positioned most distal from the substantially central locations of the raised areas ; wherein a second aperture is formed in at least a majority of the bases of the recesses , and wherein the second aperture extends through the topsheet and at least partially through the second material ; wherein sections of the recesses and the raised areas intermediate the first apertures and the second apertures are free of any apertures; and wherein a void is defined intermediate a garment-facing surface of the topsheet and a wearer-facing surface of the second material in the raised areas . a nonwoven second material , wherein the second material is a separate material from the topsheet ; a liquid impermeable backsheet ; an absorbent core positioned at least partially intermediate the second material and the liquid impermeable backsheet ; wherein the second material is positioned intermediate the liquid permeable topsheet and the absorbent core ; wherein the topsheet comprises a plurality of recesses and a plurality of raised areas ; wherein the second material is generally planar; wherein portions of the recesses are joined to portions of the second material ; wherein a first aperture is formed in a substantially central location of at least a majority of the raised areas , and wherein the first aperture extends through only the topsheet ; wherein the recesses each comprise a base positioned most distal from the substantially central locations of the raised areas ; wherein a second aperture is formed in at least a majority of the bases of the recesses , and wherein the second aperture extends through the topsheet and at least partially through the second material ; wherein sections of the recesses and the raised areas intermediate the first apertures and the second apertures are free of any apertures; and wherein a void is defined intermediate a garment-facing surface of the topsheet and a wearer-facing surface of the second material in the raised areas .
A control unit for a battery module or battery system with a plurality of battery cells , the control unit comprising: a control module configured for performing at least control function with respect to the at least one battery cell ; and an access detection circuit connected to the control module and comprising a light sensitive element and being configured to output a light signal with a strength depending on an light incident on the light sensitive element in the housing , wherein the access detection circuit is configured to output an access detection signal in response to detecting, via the light sensitive element , a light intensity exceeding a predefined threshold, a state setting element configured to receive the light signal or the access detection signal and to alter a state of the control module in response to the received signal, wherein the state setting element comprises at least one fuse configured to be set non-conductive, if the received signal exceeds a predefined threshold and wherein the light sensitive element is configured to provide, in response to incident light intensity exceeding the predefined threshold, the energy for setting the at least one fuse non-conductive. a control module configured for performing at least control function with respect to the at least one battery cell ; and an access detection circuit connected to the control module and comprising a light sensitive element and being configured to output a light signal with a strength depending on an light incident on the light sensitive element in the housing , wherein the access detection circuit is configured to output an access detection signal in response to detecting, via the light sensitive element , a light intensity exceeding a predefined threshold, a state setting element configured to receive the light signal or the access detection signal and to alter a state of the control module in response to the received signal, wherein the state setting element comprises at least one fuse configured to be set non-conductive, if the received signal exceeds a predefined threshold and wherein the light sensitive element is configured to provide, in response to incident light intensity exceeding the predefined threshold, the energy for setting the at least one fuse non-conductive.
A dosing apparatus for a machine for producing unit dose articles, comprising a first dosing unit and a second dosing unit , each dosing unit comprising: - a nozzle support body , - a plurality of nozzles having respective fluid delivery apertures, carried by said nozzle support body and connected to a fluid delivery system via at least one flexible tube , and - a movement control unit configured for moving the respective nozzle support body along a closed-loop path having a lower delivery section and an upper return section , wherein the movement control units of the first and second dosing unit are configured for moving the respective nozzle support bodies independently and of each other along said closed-loop path . - a nozzle support body , - a plurality of nozzles having respective fluid delivery apertures, carried by said nozzle support body and connected to a fluid delivery system via at least one flexible tube , and - a movement control unit configured for moving the respective nozzle support body along a closed-loop path having a lower delivery section and an upper return section ,