mhurhangee/patent-ind-claim-en huggingface dataset:
A method for control of a moving utility land vehicle having one or more GPS receivers for receiving data, one or more sensors , and an automated navigation system comprising a speed control and a steering control , the method comprising: detecting an alarm condition , said step of detecting an alarm condition comprising detecting that said vehicle is malfunctioning, that said vehicle has become unstable, that the one or more sensors or the automated navigation system is acting outside of prescribed parameters, or that data provided by the one or more sensors deviates from expected norms; determining, by a controller , a radius of a curved path that said vehicle is following at a time when said alarm condition is detected, wherein the determining is based on the curved path that said vehicle is following, a wheel angle of said vehicle , or the data received via the one or more GPS receivers; and in response to said alarm condition , maintaining forward motion of said vehicle along the radius of the curved path , wherein maintaining the forward motion of said vehicle is based at least in part on the data received via the one or more GPS receivers . detecting an alarm condition , said step of detecting an alarm condition comprising detecting that said vehicle is malfunctioning, that said vehicle has become unstable, that the one or more sensors or the automated navigation system is acting outside of prescribed parameters, or that data provided by the one or more sensors deviates from expected norms; determining, by a controller , a radius of a curved path that said vehicle is following at a time when said alarm condition is detected, wherein the determining is based on the curved path that said vehicle is following, a wheel angle of said vehicle , or the data received via the one or more GPS receivers; and in response to said alarm condition , maintaining forward motion of said vehicle along the radius of the curved path , wherein maintaining the forward motion of said vehicle is based at least in part on the data received via the one or more GPS receivers .
Process for manufacturing an ophthalmic lens having at least one optical function and including: - the step of additively manufacturing said ophthalmic lens , by depositing a plurality of predetermined volume elements of at least one material having a predetermined refractive index, in accordance with a target geometric envelope ; - the step of determining an actual geometric envelope at least once during the implementation of said additive manufacturing step ; and - the step of triggering a corrective action if there is in a zone (P) a difference (Ecdif) larger than a predetermined threshold (Sl, S2) between said target geometric envelope and said actual geometric envelope; characterized in that said step of triggering a corrective action includes: - implementing a first corrective action if there is, in said zone (P), between said target geometric envelope and said actual geometric envelope, a difference (Ecdif) larger than a first predetermined threshold (S1) and lower than a second predetermined threshold (S2); and - implementing a second corrective action different from the first corrective action if there is, in said zone (P), between said target geometric envelope and said actual geometric envelope, a difference (Ecdif) larger than said second predetermined threshold (S2); said first corrective action including depositing, on said zone (P), at least one additional predetermined volume element without replacing the target geometric envelope , this deposition being said to be an altitude addition, whereas the second corrective action includes determining a modified target geometric envelope replacing said target geometric envelope . - the step of additively manufacturing said ophthalmic lens , by depositing a plurality of predetermined volume elements of at least one material having a predetermined refractive index, in accordance with a target geometric envelope ; - the step of determining an actual geometric envelope at least once during the implementation of said additive manufacturing step ; and - the step of triggering a corrective action if there is in a zone (P) a difference (Ecdif) larger than a predetermined threshold (Sl, S2) between said target geometric envelope and said actual geometric envelope; - implementing a first corrective action if there is, in said zone (P), between said target geometric envelope and said actual geometric envelope, a difference (Ecdif) larger than a first predetermined threshold (S1) and lower than a second predetermined threshold (S2); and - implementing a second corrective action different from the first corrective action if there is, in said zone (P), between said target geometric envelope and said actual geometric envelope, a difference (Ecdif) larger than said second predetermined threshold (S2);
Copper nanoclusters for use in the treatment of multiple sclerosis, wherein said copper nanoclusters comprise a ligand, and said ligand-modified copper nanoclusters have a diameter in a range of 0.5-5 nm, wherein the ligand is one selected from the group consisting of L-cysteine, N-isobutyryl-L-cysteine, N-acetyl-L-cysteine, D-cysteine, N-isobutyryl-D-cysteine, N-acetyl-D-cysteine, and L-glutathione.
A poppet valve comprising: an inlet port , a first outlet port , a second outlet port , a first exhaust port , and a second exhaust port ; a spindle ; a first poppet element and a second poppet element that each float relative to the spindle ; a first piston and a second piston that are each fixed relative to the spindle , wherein the spindle moves from an initial centered closed position to a first actuated position or a second actuated position to direct air flowing from the inlet port to the first outlet port or the second outlet port , respectively, and the initial centered closed position is located between the first actuated position and the second actuated position; and a housing that contains the spindle , the first poppet element , the second poppet element , the first piston , and the second piston , characterised by a first mid-piston and a second mid-piston that float on the spindle and that seal against the first piston and the second piston , respectively, and the first mid-piston and the second mid-piston include a first circumferential flange and a second circumferential flange , respectively, and the first piston and the second piston include a first seal and a second seal , respectively, that can contact the first mid-piston and the second mid-piston , respectively. an inlet port , a first outlet port , a second outlet port , a first exhaust port , and a second exhaust port ; a spindle ; a first poppet element and a second poppet element that each float relative to the spindle ; a first piston and a second piston that are each fixed relative to the spindle , wherein the spindle moves from an initial centered closed position to a first actuated position or a second actuated position to direct air flowing from the inlet port to the first outlet port or the second outlet port , respectively, and the initial centered closed position is located between the first actuated position and the second actuated position; and a housing that contains the spindle , the first poppet element , the second poppet element , the first piston , and the second piston , characterised by a first mid-piston and a second mid-piston that float on the spindle and that seal against the first piston and the second piston , respectively, and the first mid-piston and the second mid-piston include a first circumferential flange and a second circumferential flange , respectively, and the first piston and the second piston include a first seal and a second seal , respectively, that can contact the first mid-piston and the second mid-piston , respectively.
Use of oat bran as an additive or main component of plant substrates, in particular soils, potting soils, composts and special soils.
A method performed by a user equipment, UE, in a wireless communication system , the method comprising: transmitting (D05) a random access preamble to a base station, BS ; receiving (D10) a random access response from the BS; and performing (D15) a scheduled uplink, UL, transmission in a first period including a channel occupancy time, COT, and an idle time, based on the random access response, wherein, the scheduled UL transmission is associated with channel occupancy initiated by the BS and the UE is indicated to perform the scheduled UL transmission based on channel sensing in shared spectrum, characterized in that wherein, based on the random access response being received in a second period different from the first period, the scheduled UL transmission in the first period is performed after determining, through a downlink, DL, signal detection procedure, that the channel occupancy of the first period is initiated by the BS , and wherein, based on the random access response being received in the first period, the scheduled UL transmission in the first period is performed without the DL signal detection procedure. transmitting (D05) a random access preamble to a base station, BS ; receiving (D10) a random access response from the BS; and performing (D15) a scheduled uplink, UL, transmission in a first period including a channel occupancy time, COT, and an idle time, based on the random access response, wherein, the scheduled UL transmission is associated with channel occupancy initiated by the BS and the UE is indicated to perform the scheduled UL transmission based on channel sensing in shared spectrum, characterized in that wherein, based on the random access response being received in a second period different from the first period, the scheduled UL transmission in the first period is performed after determining, through a downlink, DL, signal detection procedure, that the channel occupancy of the first period is initiated by the BS , and wherein, based on the random access response being received in the first period, the scheduled UL transmission in the first period is performed without the DL signal detection procedure.
A component supply unit set-up system comprising: a container warehouse configured to store multiple component containers for containing multiple components; a unit storage shed configured to store multiple component supply units used when the components, which are contained in the component containers , are supplied in a mounting operation performed by a component mounter ; an operation table disposed between the container warehouse and the unit storage shed and configured to be used for a loading operation to load one of the multiple component supply units with one of the multiple component containers ; a movement guide provided from the unit storage shed to the operation table , a container conveyance robot configured to convey one of the multiple component containers between the container warehouse and the operation table without using the movement guide ; and a unit conveyance robot configured to move along the movement guide and convey one of the multiple component supply units between the unit storage shed and the operation table , wherein the container conveyance robot is a non-moving robot that does not need to move between the container warehouse and the operation table disposed close to each other. a container warehouse configured to store multiple component containers for containing multiple components; a unit storage shed configured to store multiple component supply units used when the components, which are contained in the component containers , are supplied in a mounting operation performed by a component mounter ; an operation table disposed between the container warehouse and the unit storage shed and configured to be used for a loading operation to load one of the multiple component supply units with one of the multiple component containers ; a movement guide provided from the unit storage shed to the operation table , a container conveyance robot configured to convey one of the multiple component containers between the container warehouse and the operation table without using the movement guide ; and a unit conveyance robot configured to move along the movement guide and convey one of the multiple component supply units between the unit storage shed and the operation table , wherein the container conveyance robot is a non-moving robot that does not need to move between the container warehouse and the operation table disposed close to each other.
A blow molding device, including - a blow molding mold adapted to be fitted with a bottomed tubular preform (PF), - a blow nozzle that is adapted to be fitted to a mouth tubular portion (PFb) of the preform (PF) fitted to the mold , and - a pressurized liquid supply unit configured to supply a pressurized liquid (L) to the blow nozzle , - the device being adapted for molding the preform (PF) into a shape conforming to a cavity of the mold by filling the liquid (L) into the preform (PF) through the blow nozzle , wherein - the blow nozzle includes a central hole arranged on an axis of the blow nozzle , the device being characterized in comprising - a plurality of peripheral holes extending straight through the blow nozzle in a direction parallel with the axis of the blow nozzle and having an inner diameter smaller than an inner diameter of the central hole and arranged to surround the central hole , - the device being adapted for filling the liquid (L) into the preform (PF) through the central hole and the plurality of peripheral holes . - a blow molding mold adapted to be fitted with a bottomed tubular preform (PF), - a blow nozzle that is adapted to be fitted to a mouth tubular portion (PFb) of the preform (PF) fitted to the mold , and - a pressurized liquid supply unit configured to supply a pressurized liquid (L) to the blow nozzle , - the device being adapted for molding the preform (PF) into a shape conforming to a cavity of the mold by filling the liquid (L) into the preform (PF) through the blow nozzle , wherein - the blow nozzle includes a central hole arranged on an axis of the blow nozzle , the device being characterized in comprising - a plurality of peripheral holes extending straight through the blow nozzle in a direction parallel with the axis of the blow nozzle and having an inner diameter smaller than an inner diameter of the central hole and arranged to surround the central hole , - the device being adapted for filling the liquid (L) into the preform (PF) through the central hole and the plurality of peripheral holes .
Multicomposite material (R1, R2) including at least one monofilament made of glass-resin composite including glass filaments embedded in a thermoset polyester resin , characterized in that said monofilament is coated with at least one layer of benzoxazine.
A method for nucleic acid sequencing, comprising: (a) disposing a plurality of template polynucleotide strands in a plurality of defined spaces of a sensor array, the template polynucleotide strands comprising a predetermined set of homopolymer recalibration template polynucleotide strands; (b) exposing a plurality of the template polynucleotide strands, including the predetermined set of homopolymer recalibration template polynucleotide strands in the defined spaces, to a series of flows of nucleotide species flowed according to a predetermined ordering; and (c) determining sequence information for the plurality of the template polynucleotide strands, including the predetermined set of homopolymer recalibration template polynucleotide strands in the defined spaces, based on the flows of nucleotide species, to generate a plurality of sequencing reads corresponding to the template polynucleotide strands, wherein the predetermined set of homopolymer recalibration template polynucleotide strands comprises amplicon sequences that together comprise at least a predetermined minimal threshold number of homopolymers of each homopolymer length between a predetermined minimal homopolymer length and a predetermined maximal homopolymer length for one or more of homopolymer types A, T, C, and G. (a) disposing a plurality of template polynucleotide strands in a plurality of defined spaces of a sensor array, the template polynucleotide strands comprising a predetermined set of homopolymer recalibration template polynucleotide strands; (b) exposing a plurality of the template polynucleotide strands, including the predetermined set of homopolymer recalibration template polynucleotide strands in the defined spaces, to a series of flows of nucleotide species flowed according to a predetermined ordering; and (c) determining sequence information for the plurality of the template polynucleotide strands, including the predetermined set of homopolymer recalibration template polynucleotide strands in the defined spaces, based on the flows of nucleotide species, to generate a plurality of sequencing reads corresponding to the template polynucleotide strands,
A method performed by a master node control plane to provide dual connectivity to a user terminal in a wireless communication network, the method comprising: transmitting , to a secondary node control plane , a secondary node addition request message if the master node control plane determines to add the secondary node control plane for dual connectivity while a user terminal is in a radio resource control, RRC, connected state; transmitting , to a common anchored user plane , a radio bearer control request message including a keep indicator if a bearer configured to the user terminal is a master cell group, MCG, bearer or MCG split bearer; transmitting , to the user terminal, a RRC connection reconfiguration message in response to receiving a radio bearer control response message from the common anchored user plane and in response to a secondary node addition request response message from the secondary node control plane; transmitting , to the secondary node control plane, a secondary node reconfiguration complete message based on receiving a RRC connection reconfiguration complete message from the user terminal; and performing a path update procedure for the user terminal with an access and mobility function entity , wherein the common anchored user plane operates in common with the radio protocol layer of the master node control plane, and the radio protocol layer of the secondary node control plane. transmitting , to a secondary node control plane , a secondary node addition request message if the master node control plane determines to add the secondary node control plane for dual connectivity while a user terminal is in a radio resource control, RRC, connected state; transmitting , to a common anchored user plane , a radio bearer control request message including a keep indicator if a bearer configured to the user terminal is a master cell group, MCG, bearer or MCG split bearer; transmitting , to the user terminal, a RRC connection reconfiguration message in response to receiving a radio bearer control response message from the common anchored user plane and in response to a secondary node addition request response message from the secondary node control plane; transmitting , to the secondary node control plane, a secondary node reconfiguration complete message based on receiving a RRC connection reconfiguration complete message from the user terminal; and performing a path update procedure for the user terminal with an access and mobility function entity , wherein the common anchored user plane operates in common with the radio protocol layer of the master node control plane, and the radio protocol layer of the secondary node control plane.
Plant for manufacturing a pouch for medical purposes, comprising a tubing transfer station with a transfer means for transferring a tubing advancing to the tubing transfer station to a holder and for separating there a piece of tubing transferred to the holder from a residual tubing of the advancing tubing in order to be able to subsequently make the separated piece of tubing connectable to two sheets of film so as to form an access to the pouch; characterized in that the tubing transfer station comprises at least one air nozzle , an effective range of the at least one air nozzle being directed at a designated site for separating so that an air flow forced by air which is blown out and/or air which is aspirated is adjustable for separating at the designated site in order to remove tubing material residual particles from the designated site or from the piece of tubing, respectively, and also from the residual tubing by means of the forced air flow during separation of the piece of tubing from the advancing tubing .
A chamber for real-time analysis of a generated gas in a secondary battery , comprising: a first housing ; a second housing which is thermally conductive and surrounding the first housing ; an inlet for connecting a pump module for generating a flow of an induction medium into the chamber , and an outlet for connecting an analysis module for analyzing the generated gas in the secondary battery by the flow of the induction medium; a temperature sensor for detecting temperature of the secondary battery or temperature inside the chamber ; and a heating member for heating the secondary battery , wherein the heating member is inserted in the second housing , characterized in that the first housing is insulative, wherein a secondary battery is mounted in an inner space surrounded by the first housing . a first housing ; a second housing which is thermally conductive and surrounding the first housing ; an inlet for connecting a pump module for generating a flow of an induction medium into the chamber , and an outlet for connecting an analysis module for analyzing the generated gas in the secondary battery by the flow of the induction medium; a temperature sensor for detecting temperature of the secondary battery or temperature inside the chamber ; and a heating member for heating the secondary battery , wherein the heating member is inserted in the second housing , characterized in that the first housing is insulative, wherein a secondary battery is mounted in an inner space surrounded by the first housing .