mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a local computing device: configuring the local computing device with a buffer interface and a local buffer to transmit data in chunks to a remote computing device; identifying a sliding window comprising pending chunks and read chunks of a content from a data source; initiating an operation to transmit the read chunks of the content ; invoking the buffer interface responsive to the initiation of the operation to transmit the read chunks of the content; placing a first chunk among the read chunks of the content into a portion of memory of the local buffer managed by the buffer interface; transmitting the first chunk to the remote computing device; reusing the portion of memory of the local buffer in which the first chunk was placed by placing a second chunk among the chunks within the sliding window of the content into the portion of memory; and transmitting the second chunk to the remote computing device independent of whether the local computing device receives acknowledgement of receipt of the first chunk at the remote computing device. configuring the local computing device with a buffer interface and a local buffer to transmit data in chunks to a remote computing device; identifying a sliding window comprising pending chunks and read chunks of a content from a data source; initiating an operation to transmit the read chunks of the content ; invoking the buffer interface responsive to the initiation of the operation to transmit the read chunks of the content; placing a first chunk among the read chunks of the content into a portion of memory of the local buffer managed by the buffer interface; transmitting the first chunk to the remote computing device; reusing the portion of memory of the local buffer in which the first chunk was placed by placing a second chunk among the chunks within the sliding window of the content into the portion of memory; and transmitting the second chunk to the remote computing device independent of whether the local computing device receives acknowledgement of receipt of the first chunk at the remote computing device.
A method of controlling an inverter coupled to a generator , the method comprising: measuring (S800) an observed voltage across the direct current voltage terminals ; determining (S802) a voltage difference between the observed voltage and a reference DC bus voltage; generating, by a controller, a reference q-axis current command ( I q ref ) based on the voltage difference; measuring a d-axis current (I d measure ) and a q-axis current ( I q measured ) , determining a current difference between the measured q-axis current and the reference q-axis current command ( I q ref ); outputting, by a first current regulator, a q-axis voltage command ( V q ) based on input of the current difference; determining (S916) a d-axis residual voltage ( V d residual ) in accordance with the following equation: V d residual = mV DC measured 2 3 − V q 2 , where: m is the modulation index, V DC measured is the measured voltage of or between the direct current terminals, and V q is the q-axis voltage command; determining (S918) d-axis reference current ( I d ref ) corresponding to the determined d-axis residual voltage ( V d residual ) based on a magnetizing curve or K-factor lookup table stored in a data storage device; determining, by a second current regulator, a d-axis voltage command ( V d ) based on the measured d-axis current ( I d measure ) and the determined d-axis reference current ( I d ref ); and providing (S808) phase voltage commands( V a ,V b ,V c ) based on inverse parks transform of the determined d-axis voltage command and the determined q-axis voltage command ( V d and V q ). measuring (S800) an observed voltage across the direct current voltage terminals ; determining (S802) a voltage difference between the observed voltage and a reference DC bus voltage; generating, by a controller, a reference q-axis current command ( I q ref ) based on the voltage difference; measuring a d-axis current (I d measure ) and a q-axis current ( I q measured ) , determining a current difference between the measured q-axis current and the reference q-axis current command ( I q ref ); outputting, by a first current regulator, a q-axis voltage command ( V q ) based on input of the current difference; determining (S916) a d-axis residual voltage ( V d residual ) in accordance with the following equation: V d residual = mV DC measured 2 3 − V q 2 , where: m is the modulation index, V DC measured is the measured voltage of or between the direct current terminals, and V q is the q-axis voltage command; determining (S918) d-axis reference current ( I d ref ) corresponding to the determined d-axis residual voltage ( V d residual ) based on a magnetizing curve or K-factor lookup table stored in a data storage device; determining, by a second current regulator, a d-axis voltage command ( V d ) based on the measured d-axis current ( I d measure ) and the determined d-axis reference current ( I d ref ); and providing (S808) phase voltage commands( V a ,V b ,V c ) based on inverse parks transform of the determined d-axis voltage command and the determined q-axis voltage command ( V d and V q ).
A method of performing secure communications involving a proxy , the method comprising: identifying one or more recipient computers ; for each of the one or more recipient computers: obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; identifying a proxy computer ; determining a proxy session key; determining a message body that includes address information for each of the one or more recipient computers; using the proxy session key to encrypt the message body to obtain an encrypted message body; aggregating the first encrypted message portion and the second encrypted message portion into an encrypted message ; and sending the encrypted message to the proxy computer , the encrypted message including the encrypted message body and the first and second encrypted message portions. identifying one or more recipient computers ; for each of the one or more recipient computers: obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; obtaining a first encrypted message portion generated by a first source computer by encrypting a first message portion with a first recipient session key; and obtaining a second encrypted message portion generated by a second source computer by encrypting a second message portion with a second recipient session key; identifying a proxy computer ; determining a proxy session key; determining a message body that includes address information for each of the one or more recipient computers; using the proxy session key to encrypt the message body to obtain an encrypted message body; aggregating the first encrypted message portion and the second encrypted message portion into an encrypted message ; and sending the encrypted message to the proxy computer , the encrypted message including the encrypted message body and the first and second encrypted message portions.
An apparatus comprised in a user equipment, UE, the apparatus comprising one or more processors, the one or more processors being configured to cause the apparatus to: receive one or more messages that include sounding reference signal, SRS, configuration information to indicate an SRS resource allocation, wherein the SRS configuration information includes a partial frequency sounding indicator and additional information to indicate a size of an SRS subband; determine a group of contiguous resource blocks, RBs, in a symbol in a first slot based on the size of the SRS subband and the partial frequency sounding indicator, wherein the group is one of a plurality of groups of contiguous RBs in the SRS subband; and transmit an SRS based on the SRS configuration information and using the determined group of contiguous RBs. a user equipment, UE, the apparatus comprising one or more processors, the one or more processors being configured to cause the apparatus to: receive one or more messages that include sounding reference signal, SRS, configuration information to indicate an SRS resource allocation, wherein the SRS configuration information includes a partial frequency sounding indicator and additional information to indicate a size of an SRS subband; determine a group of contiguous resource blocks, RBs, in a symbol in a first slot based on the size of the SRS subband and the partial frequency sounding indicator, wherein the group is one of a plurality of groups of contiguous RBs in the SRS subband; and transmit an SRS based on the SRS configuration information and using the determined group of contiguous RBs. receive one or more messages that include sounding reference signal, SRS, configuration information to indicate an SRS resource allocation, wherein the SRS configuration information includes a partial frequency sounding indicator and additional information to indicate a size of an SRS subband; determine a group of contiguous resource blocks, RBs, in a symbol in a first slot based on the size of the SRS subband and the partial frequency sounding indicator, wherein the group is one of a plurality of groups of contiguous RBs in the SRS subband; and transmit an SRS based on the SRS configuration information and using the determined group of contiguous RBs.
A sheet having dead-fold properties, wherein said sheet comprises cellulose fibers whereof at least 75%, preferably at least 90%, or more preferably at least 95% of said cellulose fibers have a fiber length of less than 1 mm, and wherein the tensile strength ratio (MD/CD) of the sheet is above 1.4, preferably higher than 1.6 and most preferably higher than 1.8, wherein said cellulose fibers having a length of < 1 mm are highly refined cellulose fibers being microfibrillated cellulose having a Schopper-Riegler (SR) value of above 92 characterized in that the remaining 0-25% of the cellulose fibers in the sheet comprise cellulose fibers having a length of > 1 mm, and of at least 2 mm, or at least 2.5 mm, or at least 3 mm and in that the moisture content of the sheet is below 8 weight-%.
Driving device for driving a fastening element into a base material, the driving device comprising a power unit and a driving element , formed in particular as a piston, which is driven by the power unit from a starting position into a setting position, in order to drive a fastening element into the base material, the driving device comprising an apparatus comprising a control element , which stops in a stopping position during a recurring sequence of movements, a control device , which is intended for controlling stopping of the control element in the stopping position by means of at least one control parameter, characterized by a detection device for detecting an actual stopping position of the control element at the time of a stopping of the control element , the control device being suitable for forming a difference between the actual stopping position and a desired stopping position of the control element and adapting the control parameter for a subsequent sequence of movements of the control element if the difference exceeds a predetermined desired value, the control element returning the driving element from the setting position into the starting position, characterized in that the driving device also comprises a clutch device with an open state and a closed state, the clutch device temporarily arresting the driving element in the starting position in a closed state of the clutch device , and a detection device for detecting a transition of the clutch device from the open state into the closed state, the control unit being configured for calculating a distance covered by the control element between a transition of the clutch device from the open state into the closed state and a stopping of the control element , in order to detect the actual stopping position of the control element .
A method in a wireless device , the method comprising: performing (S202) Quality of Experience, QoE, measurements in a cell served by a source radio network node ; receiving (S204) a handover command message from a target radio network node via the source radio network node , the handover command message indicating to the wireless device to handover to the target radio network node ; and determining (S206) whether to report the QoE measurements to the target radio network node based, at least in part, on a presence or absence of a QoE measurement reporting support indication in the handover command message, wherein determining (S206) whether to report the QoE measurements further comprises determining to report the QoE measurements if the QoE measurement reporting support indication is present in the handover command message and indicates that QoE measurement reporting is supported, and wherein the method further comprises determining (S206) whether to start new QoE measurements in a cell served by the target radio network node based, at least in part, on a presence or absence of a QoE measurement area indication in the handover command message. performing (S202) Quality of Experience, QoE, measurements in a cell served by a source radio network node ; receiving (S204) a handover command message from a target radio network node via the source radio network node , the handover command message indicating to the wireless device to handover to the target radio network node ; and determining (S206) whether to report the QoE measurements to the target radio network node based, at least in part, on a presence or absence of a QoE measurement reporting support indication in the handover command message, wherein determining (S206) whether to report the QoE measurements further comprises determining to report the QoE measurements if the QoE measurement reporting support indication is present in the handover command message and indicates that QoE measurement reporting is supported, and wherein the method further comprises determining (S206) whether to start new QoE measurements in a cell served by the target radio network node based, at least in part, on a presence or absence of a QoE measurement area indication in the handover command message.
A galley monument for a cabin area of an aircraft, comprising: a first monument stack ; a second monument stack adjacent to the first monument stack ; and a system within the second monument stack , the system including: a rapid pathogen tester ; a tray configured to secure the rapid pathogen tester ; a plurality of tools; a slideable support located below the tray , configured to secure the plurality of tools to use along with the rapid pathogen tester ; and at least one light within the tray to irradiate the tools placed within the support . a first monument stack ; a second monument stack adjacent to the first monument stack ; and a system within the second monument stack , the system including: a rapid pathogen tester ; a tray configured to secure the rapid pathogen tester ; a plurality of tools; a slideable support located below the tray , configured to secure the plurality of tools to use along with the rapid pathogen tester ; and at least one light within the tray to irradiate the tools placed within the support . a rapid pathogen tester ; a tray configured to secure the rapid pathogen tester ; a plurality of tools; a slideable support located below the tray , configured to secure the plurality of tools to use along with the rapid pathogen tester ; and at least one light within the tray to irradiate the tools placed within the support .
Optical component for generating laser pulses with time offset, comprising - a fiber-optic distribution element which distributes a laser pulse supplied to the distribution element via an input fiber between at least two fiber arms , and - a fiber-optic combining element which superimposes the laser pulses supplied to the combining element via the at least two fiber arms , in an output fiber, wherein the at least two fiber arms have a difference in length such that the laser pulses are superimposed, in the output fiber, by the fiber-optic combination element with a time offset in a burst , wherein the fiber arms are formed by optical fibers that have different dispersion, characterized in that the optical fibers of the fiber arms are adapted to one another in terms of dispersion and length so that the laser pulses supplied to the combining element via the fiber arms differ from one another in the chirps generated by the respective dispersion by less than 4 fs, preferably less than 1 fs, per 1 nm of spectral bandwidth of the laser pulses normalized to one meter difference in length of the fiber arms . - a fiber-optic distribution element which distributes a laser pulse supplied to the distribution element via an input fiber between at least two fiber arms , and - a fiber-optic combining element which superimposes the laser pulses supplied to the combining element via the at least two fiber arms , in an output fiber, wherein the at least two fiber arms have a difference in length such that the laser pulses are superimposed, in the output fiber, by the fiber-optic combination element with a time offset in a burst , wherein the fiber arms are formed by optical fibers that have different dispersion, characterized in that the optical fibers of the fiber arms are adapted to one another in terms of dispersion and length so that the laser pulses supplied to the combining element via the fiber arms differ from one another in the chirps generated by the respective dispersion by less than 4 fs, preferably less than 1 fs, per 1 nm of spectral bandwidth of the laser pulses normalized to one meter difference in length of the fiber arms .
A system comprising: a stimulation generator configured to generate stimulation pulses deliverable via at least one electrical lead comprising at least one electrode ; and processing circuitry configured to: determine a first set of stimulation parameters that define entrainment stimulation pulses configured to entrain electrical activity in a brain of a patient; control the stimulation generator to generate the entrainment stimulation pulses according to the first set of stimulation parameters, characterized in that the processing circuitry configured to: determine a second set of stimulation parameters that define at least one desynchronization stimulation pulse configured to disrupt at least a portion of electrical activity of the brain entrained by the entrainment stimulation pulses, the second set of stimulation parameters being different from the first set of stimulation parameters; and subsequent to generating the entrainment stimulation pulses, control the stimulation generator to generate the at least one desynchronization stimulation pulse according to the second set of stimulation parameters. a stimulation generator configured to generate stimulation pulses deliverable via at least one electrical lead comprising at least one electrode ; and processing circuitry configured to: determine a first set of stimulation parameters that define entrainment stimulation pulses configured to entrain electrical activity in a brain of a patient; control the stimulation generator to generate the entrainment stimulation pulses according to the first set of stimulation parameters, determine a first set of stimulation parameters that define entrainment stimulation pulses configured to entrain electrical activity in a brain of a patient; control the stimulation generator to generate the entrainment stimulation pulses according to the first set of stimulation parameters, determine a second set of stimulation parameters that define at least one desynchronization stimulation pulse configured to disrupt at least a portion of electrical activity of the brain entrained by the entrainment stimulation pulses, the second set of stimulation parameters being different from the first set of stimulation parameters; and subsequent to generating the entrainment stimulation pulses, control the stimulation generator to generate the at least one desynchronization stimulation pulse according to the second set of stimulation parameters.
Hob apparatus, in particular an induction hob apparatus, having at least five heating elements (12a-b, 14a-b, 16a-b, 18a-b, 20a-b, 22a-b, 24a-b, 26a-b, 28a-b, 30a-b) at least for heating cookware that is placed on said hob apparatus and having at least two heating frequency units (32a-b, 34a-b, 36a-b, 38a-b) that are respectively allocated at least two of the heating elements (12a-b, 14a-b, 16a-b, 18a-b, 20a-b, 22a-b, 24a-b, 26a-b) and that respectively generate an oscillating electrical signal having a frequency of at least 10 kHz for at least one heating element (12a-b, 14a-b, 16a-b, 18a-b, 20a-b, 22a-b, 24a-b, 26a-b, 28a-b, 30a-b), and having at least one circuit arrangement (40a-b) that is provided so as in different operating modes to connect at least one further heating element of the heating elements (28a-b, 30a-b) to different heating frequency units (32a-b, 34a-b, 36a-b, 38a-b).
A bottom hole assembly located on a work string for cutting and recovering inner casing located within outer casing from a wellbore , comprising: a spear for casing removal, the spear comprising an anchor mechanism configured to grip a section of the inner casing in the wellbore for removal thereof; a casing cutter having a cutting mechanism configured to cut the inner casing; and characterised in that : the bottom hole assembly includes at least one first clean-up tool configured to remove material from inside the outer casing above the inner casing. a spear for casing removal, the spear comprising an anchor mechanism configured to grip a section of the inner casing in the wellbore for removal thereof; a casing cutter having a cutting mechanism configured to cut the inner casing; and characterised in that : the bottom hole assembly includes at least one first clean-up tool configured to remove material from inside the outer casing above the inner casing.
A molybdenum complex of the following formula I: A1 m -[Mo 2 O 2 E 2 ]-L n , I wherein: - A1 is cation selected from alkali metal cations, alkaline earth metal cations, transition metal cations, or a PPh 4 + organic cation - E is selected from O or S, - L is a ligand selected from the amino acids such as glycine (gly), cysteine (L-cys 2- ) or histidine (L-his - ) or polycarboxylate ligands such as oxalate (Ox 2- ), citrate (Cit 3- ), ethylenediaminetetraacetate (EDTA 4- ), nitrilotriacetate (HNTA 2- ), and iminodiacetate (IDA 2- ), - m is the number of cations and is selected from 0, 1, 2, 3 and 4; - n is the number of ligands and is selected from 1 and 2, for use in preventing the infestation of bees and/or larvae by the Varroa Destructor mite. - A1 is cation selected from alkali metal cations, alkaline earth metal cations, transition metal cations, or a PPh 4 + organic cation - E is selected from O or S, - L is a ligand selected from the amino acids such as glycine (gly), cysteine (L-cys 2- ) or histidine (L-his - ) or polycarboxylate ligands such as oxalate (Ox 2- ), citrate (Cit 3- ), ethylenediaminetetraacetate (EDTA 4- ), nitrilotriacetate (HNTA 2- ), and iminodiacetate (IDA 2- ), - m is the number of cations and is selected from 0, 1, 2, 3 and 4; - n is the number of ligands and is selected from 1 and 2,