mhurhangee/patent-ind-claim-en huggingface dataset:
A method for upgrading a current version of an operating system of a router, the method comprising: acquiring (S11) upgrade files; selecting (S12) one upgrading version proximate the current version as a reference version, and upgrading the current version to the reference version by using the upgrade file corresponding to the reference version; and on the basis of the reference version, selecting (S13) one upgrading version proximate the reference version as a next reference version, and upgrading the reference version to the next reference version till upgrading to a target version, characterized in that the upgrade files correspond to a plurality of upgrading versions higher than the current version, the target version being the highest version in the plurality of upgrading versions, and in that the step (S12) of selecting one upgrading version proximate the current version as the reference version comprises: acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list. acquiring (S11) upgrade files; selecting (S12) one upgrading version proximate the current version as a reference version, and upgrading the current version to the reference version by using the upgrade file corresponding to the reference version; and on the basis of the reference version, selecting (S13) one upgrading version proximate the reference version as a next reference version, and upgrading the reference version to the next reference version till upgrading to a target version, characterized in that the upgrade files correspond to a plurality of upgrading versions higher than the current version, the target version being the highest version in the plurality of upgrading versions, and in that the step (S12) of selecting one upgrading version proximate the current version as the reference version comprises: acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list. acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list.
A method for forming a biocomposite thin film or three-dimensional scaffold comprising a polymeric matrix and a magnesium filler incorporated into the polymeric matrix, wherein the magnesium filler comprises 10 wt%, 11 wt%, 12% wt%, 13% wt%, 14% wt%, 15% wt%, 16% wt%, 17% wt%, 18% wt%, 19% wt%, or 20 wt% based on the total weight of the biocomposite, of a soluble magnesium salt that leaches or dissolves upon contact with body fluid to create a biocomposite thin film or three-dimensional scaffold with gradually increasing porosity, the method comprising: mixing the polymeric matrix and magnesium filler; processing the mixture of the polymeric matrix and magnesium filler in a cryomill to obtain fine powder without a solvent or heat; processing the fine powder to form the biocomposite thin film or the biocomposite three-dimensional scaffold; and wherein processing the mixture of the polymeric matrix and magnesium filler in a cryomill to obtain fine powder comprises loading pre-weighed mixture into a cryogenic vial with a ball-to-mass ratio of 30:1, pre-cooling the cryogenic vial in liquid nitrogen for 6 to 8 minutes, and continuous milling for one cycle for 20 minutes. mixing the polymeric matrix and magnesium filler; processing the mixture of the polymeric matrix and magnesium filler in a cryomill to obtain fine powder without a solvent or heat; processing the fine powder to form the biocomposite thin film or the biocomposite three-dimensional scaffold; and wherein processing the mixture of the polymeric matrix and magnesium filler in a cryomill to obtain fine powder comprises loading pre-weighed mixture into a cryogenic vial with a ball-to-mass ratio of 30:1, pre-cooling the cryogenic vial in liquid nitrogen for 6 to 8 minutes, and continuous milling for one cycle for 20 minutes.
A method of providing hack protection in an autonomous vehicle, the method comprising: generating , by a hack protection system, a random power ON sequence, wherein the random power ON sequence is in an encrypted format and generated during power ON of the autonomous vehicle; detecting , by the hack protection system, current flow to one or more sensors in the autonomous vehicle, wherein the one or more sensors are controlled by a power switching circuitry in the autonomous vehicle, the power switching circuitry responsive to one or more power switching control signals generated by a system software module of the autonomous vehicle in response to the random power ON sequence, the random power ON sequence being converted from the encrypted format into a decrypted format by the system software module; determining , by the hack protection system, an actual power ON sequence of the one on more sensors in response to the current flow; and comparing , by the hack protection system, the actual power ON sequence with the random power ON sequence to control power of the autonomous vehicle. generating , by a hack protection system, a random power ON sequence, wherein the random power ON sequence is in an encrypted format and generated during power ON of the autonomous vehicle; detecting , by the hack protection system, current flow to one or more sensors in the autonomous vehicle, wherein the one or more sensors are controlled by a power switching circuitry in the autonomous vehicle, the power switching circuitry responsive to one or more power switching control signals generated by a system software module of the autonomous vehicle in response to the random power ON sequence, the random power ON sequence being converted from the encrypted format into a decrypted format by the system software module; determining , by the hack protection system, an actual power ON sequence of the one on more sensors in response to the current flow; and comparing , by the hack protection system, the actual power ON sequence with the random power ON sequence to control power of the autonomous vehicle.
A method of managing a plurality of Quality of Service, QoS, models for traffic flows in a network , the method comprising: storing the plurality of QoS models; analysing at least one of the plurality of QoS models to determine whether the at least one QoS model satisfies a suitability test, wherein the analysis is based on a characteristic of the or each QoS model and the analysis comprises determining a measure of stability of the QoS model over time, further comprising: identifying a plurality of routes for traffic flow through the network having parameters with values corresponding with values of parameters associated with the QoS model at a time, t; and determining, for each of the plurality of routes, a duration T over which the values of the parameters for the route are expected to continue to correspond with the values of the parameters associated with the QoS model; selecting one or more QoS model from the plurality of QoS models based on the analysis; offering the one or more selected QoS models to a client for use with a traffic flow in the network . storing the plurality of QoS models; analysing at least one of the plurality of QoS models to determine whether the at least one QoS model satisfies a suitability test, wherein the analysis is based on a characteristic of the or each QoS model and the analysis comprises determining a measure of stability of the QoS model over time, further comprising: identifying a plurality of routes for traffic flow through the network having parameters with values corresponding with values of parameters associated with the QoS model at a time, t; and determining, for each of the plurality of routes, a duration T over which the values of the parameters for the route are expected to continue to correspond with the values of the parameters associated with the QoS model; selecting one or more QoS model from the plurality of QoS models based on the analysis; offering the one or more selected QoS models to a client for use with a traffic flow in the network .
A battery comprising an anode; a cathode; and wherein at least one of the anode, and the cathode comprise a solid, ionically conducting, electrically non-conductive polymer material having an ionic conductivity greater than 1×10 -4 S/cm at room temperature and having a crystallinity index of at least 30 %, wherein the polymer material includes a base polymer, a dopant and at least one compound including an ion source, and wherein ionic conductivity is measured according to the description.
A portable electronic lock , comprising a lock body and a securing part which is movable relative to the lock body between a closed position and an open position, wherein the lock body comprises an electromechanical locking device which has an electric motor having a rotor, a latch coupled to the rotor, and a control circuit , wherein the latch can be electrically driven by means of the electric motor from a locking position, in which the securing part located in the closed position is locked to the lock body , into an unlocking position in which the securing part is released for a movement into the open position, characterized in that a mechanical driving of the latch can be effected by a moving of the securing part from the open position into the closed position, with the latch being drive-effectively coupled to the rotor of the electric motor such that the mechanical driving of the latch effects a forced rotational movement of the rotor, with the electric motor being configured to generate an electrical voltage on the basis of the forced rotational movement of the rotor. wherein the latch can be electrically driven by means of the electric motor from a locking position, in which the securing part located in the closed position is locked to the lock body , into an unlocking position in which the securing part is released for a movement into the open position, characterized in that a mechanical driving of the latch can be effected by a moving of the securing part from the open position into the closed position, with the latch being drive-effectively coupled to the rotor of the electric motor such that the mechanical driving of the latch effects a forced rotational movement of the rotor, with the electric motor being configured to generate an electrical voltage on the basis of the forced rotational movement of the rotor.
Multilayer film comprising - a base layer based on polyvinyl chloride (PVC) which comprises a plasticizer, - securely adhering to the base layer , an outer layer comprising a UV stabilizer, characterized in that a PVC-free copolymer based on acrylates is used as plasticizer in the base layer . - a base layer based on polyvinyl chloride (PVC) which comprises a plasticizer, - securely adhering to the base layer , an outer layer comprising a UV stabilizer,
Assembly station of Venetian blinds with complete support ladders, comprising three or more stacking units of slats on complete support ladders, wherein said stacking units are aligned with each other along an insertion axis (X) of the slats and are slidably associated to a shared support structure which extends parallel to said insertion axis (X) between two opposite ends (1', 1") of said assembly station , in use the slats (L) entering said assembly station at a first of said opposite ends, wherein said stacking units jointly define a sliding lane of the slat (L) along said insertion axis (X) inside the assembly station , characterized in that said assembly station comprises a first end stop device which engages said sliding lane to stop a slat (L) moving along said insertion axis (X) and is slidably associated with said shared support structure downstream of said three or more stacking units with respect to said first end , and in that each of the stacking units arranged downstream of the first two stacking units with respect to said first end is equipped with a second end stop device movable between an active position, in which it engages said sliding lane to stop the sliding of a slat (L), and a passive position, in which it does not engage said sliding lane allowing the sliding of a slat (L) through the respective stacking unit , wherein, according to the operating needs of the assembly station , the stroke of a slat (L) along said sliding lane may be stopped selectively by said first end stop device or by one of the stacking units arranged downstream of the first two stacking units with respect to said first end , configured with said second end stop device in the active position.
A vehicle driving assistance apparatus comprising: a sensor that is configured to detect an object around an own vehicle; and a processing apparatus that is configured to determine whether the object detected by the sensor is a static vehicle or a roadside static object, carry out driving assistance if a first driving assistance carrying-out condition is satisfied when determining the object as a static vehicle, and carry out the driving assistance if a second driving assistance carrying-out condition is satisfied when determining the object as a roadside static object, wherein a threshold concerning the first driving assistance carrying-out condition is lower than a threshold concerning the second driving assistance carrying-out condition, characterized in that when determining that the object as a roadside static object, the processing apparatus is configured to calculate an index value indicating a probability that the object is a roadside static object, determine based on a third driving assistance carrying-out condition whether to carry out the driving assistance if the calculated index value is less than a predetermined reference value, and determine based on the second driving assistance carrying-out condition whether to carry out the driving assistance if the calculated index value is greater than or equal to the predetermined reference value, and a threshold concerning the second driving assistance carrying-out condition is higher than a threshold concerning the third driving assistance carrying-out condition. a sensor that is configured to detect an object around an own vehicle; and a processing apparatus that is configured to determine whether the object detected by the sensor is a static vehicle or a roadside static object, carry out driving assistance if a first driving assistance carrying-out condition is satisfied when determining the object as a static vehicle, and carry out the driving assistance if a second driving assistance carrying-out condition is satisfied when determining the object as a roadside static object, wherein a threshold concerning the first driving assistance carrying-out condition is lower than a threshold concerning the second driving assistance carrying-out condition, characterized in that when determining that the object as a roadside static object, the processing apparatus is configured to calculate an index value indicating a probability that the object is a roadside static object, determine based on a third driving assistance carrying-out condition whether to carry out the driving assistance if the calculated index value is less than a predetermined reference value, and determine based on the second driving assistance carrying-out condition whether to carry out the driving assistance if the calculated index value is greater than or equal to the predetermined reference value, and a threshold concerning the second driving assistance carrying-out condition is higher than a threshold concerning the third driving assistance carrying-out condition.
A nucleic acid for use as a medicament, wherein the nucleic acid encodes a monomer unit of a dimeric recombinant antibody-based molecule which lacks a CH2 domain and with no FcR binding, said recombinant antibody-based molecule comprising two of said monomer units connected through a dimerization motif including an Ig-derived hinge region and a CH3 domain present in each monomer unit, wherein the Ig-derived hinge region contributes to dimerization via disulfide bridging and the C H 3 domain is a C H 3 domain of an immunoglobulin which contributes to dimerization via hydrophobic interactions and wherein each of said monomer units consists of a targeting unit with specificity for a surface molecule on an antigen presenting cell, connected through said hinge region and C H 3 domain of the dimerization unit to an antigenic unit, wherein said antigenic unit is in the COOH terminus of each monomer unit and said targeting unit is in the NH 2 -terminus of each monomer unit.
A transmission apparatus comprising: a data-block generating unit configured to generate a data block by performing Fourier transform, interpolation, and inverse Fourier transform on a pre-interpolation data block that is a symbol sequence in which fixed sequence symbols having signal values formed of a fixed sequence are divided and the divided fixed sequence symbols are arranged on a head and a tail of data symbols; a pilot-block generating unit including a storing unit configured to store a pilot block, wherein the pilot-block generating unit is configured to generate the pilot block by performing Fourier transform, interpolation, and inverse Fourier transform on a pre-interpolation pilot block that is a symbol sequence in which divided fixed sequence symbols are arranged on a head and a tail of pilot symbols that are fixed symbols known on a reception side, to output the pilot block; and an output control unit configured to receive as input the data block and the pilot block, and further configured to perform control for outputting either one of the data block and the pilot block. a data-block generating unit configured to generate a data block by performing Fourier transform, interpolation, and inverse Fourier transform on a pre-interpolation data block that is a symbol sequence in which fixed sequence symbols having signal values formed of a fixed sequence are divided and the divided fixed sequence symbols are arranged on a head and a tail of data symbols; a pilot-block generating unit including a storing unit configured to store a pilot block, wherein the pilot-block generating unit is configured to generate the pilot block by performing Fourier transform, interpolation, and inverse Fourier transform on a pre-interpolation pilot block that is a symbol sequence in which divided fixed sequence symbols are arranged on a head and a tail of pilot symbols that are fixed symbols known on a reception side, to output the pilot block; and an output control unit configured to receive as input the data block and the pilot block, and further configured to perform control for outputting either one of the data block and the pilot block.
A water dispenser, comprising: a main body having a cabinet forming an appearance of the water dispenser, the cabinet including a front cover and a rear cover that form a front surface and a rear surface of the water dispenser, respectively, side panels forming side surfaces of the water dispenser to connect the front cover and the rear cover , and a top cover forming an upper surface of the water dispenser; a rotator rotatably installed within the main body ; a water discharger protruding from one side of the rotator and through an opening formed between a first front cover and a second front cover (11 la") of the front cover , and configured to be rotatable in a horizontal direction, the water discharger having a water discharge port to dispense water; an operation module rotatably provided on a front side of the top cover , and having a water discharge button configured to be pushed, and configured to receive a control command related to the discharging of water through the water discharge port ; and a connector provided in each of the operation module and the rotator connecting the rotator and the operation module such that the operation module and the rotator are rotated together. a main body having a cabinet forming an appearance of the water dispenser, the cabinet including a front cover and a rear cover that form a front surface and a rear surface of the water dispenser, respectively, side panels forming side surfaces of the water dispenser to connect the front cover and the rear cover , and a top cover forming an upper surface of the water dispenser; a rotator rotatably installed within the main body ; a water discharger protruding from one side of the rotator and through an opening formed between a first front cover and a second front cover (11 la") of the front cover , and configured to be rotatable in a horizontal direction, the water discharger having a water discharge port to dispense water; an operation module rotatably provided on a front side of the top cover , and having a water discharge button configured to be pushed, and configured to receive a control command related to the discharging of water through the water discharge port ; and a connector provided in each of the operation module and the rotator connecting the rotator and the operation module such that the operation module and the rotator are rotated together.
A joining material for laser welding , the joining material comprising: a needle-like inorganic filler and a polymer matrix comprising a polypropylene resin characterized in that the polypropylene resin has a melt index of 80 g /10 min or more to 95 g/10 min or less as measured at a temperature of 230 °C and a load of 2.16 kg, and that the needle-like inorganic filler has an aspect ratio of 10:1 to 20:1. a needle-like inorganic filler and a polymer matrix comprising a polypropylene resin characterized in that the polypropylene resin has a melt index of 80 g /10 min or more to 95 g/10 min or less as measured at a temperature of 230 °C and a load of 2.16 kg, and that the needle-like inorganic filler has an aspect ratio of 10:1 to 20:1.
A nozzle management machine which is configured to manage suction nozzles (N), used to hold an electrical component (P) in an electrical component mounting machine , for the electrical component mounting machine and another electrical component mounting machine, the nozzle management machine comprising: a nozzle storing device that is configured to store a plurality of suction nozzles (N), the nozzle management machine further comprising a nozzle washing device that is configured to wash the suction nozzles (N).