mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting an imminent read failure in a non-volatile memory array, which is applicable for user mode diagnostics, the method comprising: applying a bulk read stress to a plurality of cells of a non-volatile memory array; performing an array integrity check at a margin read verify voltage level subsequent to the bulk read stress, wherein the margin read verify voltage level is different from a normal read verify voltage level for the plurality of cells; and providing an indication of an imminent read failure for the plurality of cells, characterized in that the applying of the bulk read stress to the plurality of cells further comprises: applying a gate bias that is higher than a normal read voltage on all even gates of the plurality of cells and a drain bias on all even drains of the plurality of cells for a predetermined duration; and applying the gate bias on all odd gates of the plurality of cells and the drain bias on all odd drains of the plurality of cells for the predetermined duration; and the performing of the array integrity check at the margin read verify voltage level further comprises: determining whether the plurality of cells exhibit an uncorrectable error correcting code, ECC, read during said array integrity check, wherein the indication of the imminent read failure for the plurality of cells is provide when the plurality of cells exhibit the uncorrectable ECC read during the array integrity check. applying a bulk read stress to a plurality of cells of a non-volatile memory array; performing an array integrity check at a margin read verify voltage level subsequent to the bulk read stress, wherein the margin read verify voltage level is different from a normal read verify voltage level for the plurality of cells; and providing an indication of an imminent read failure for the plurality of cells, characterized in that the applying of the bulk read stress to the plurality of cells further comprises: applying a gate bias that is higher than a normal read voltage on all even gates of the plurality of cells and a drain bias on all even drains of the plurality of cells for a predetermined duration; and applying the gate bias on all odd gates of the plurality of cells and the drain bias on all odd drains of the plurality of cells for the predetermined duration; and applying a gate bias that is higher than a normal read voltage on all even gates of the plurality of cells and a drain bias on all even drains of the plurality of cells for a predetermined duration; and applying the gate bias on all odd gates of the plurality of cells and the drain bias on all odd drains of the plurality of cells for the predetermined duration; and the performing of the array integrity check at the margin read verify voltage level further comprises: determining whether the plurality of cells exhibit an uncorrectable error correcting code, ECC, read during said array integrity check, wherein the indication of the imminent read failure for the plurality of cells is provide when the plurality of cells exhibit the uncorrectable ECC read during the array integrity check.
A ventilated adjustable headrest, comprising: an adjustable insert, wherein the adjustable insert comprises two or more adjustable portions hingedly connected to a center portion; a nozzle fixedly attached to the adjustable insert, wherein the nozzle is configured to receive forced air from a ventilation system; a mesh pad, wherein the nozzle is configured to deliver the forced air to the mesh pad; a cushion; a perforated covering enclosing the mesh pad and the cushion, wherein the mesh pad is configured to allow the forced air to flow through the mesh pad to the perforated covering, wherein the perforated covering comprises a plurality of perforations on a front side of the perforated covering, wherein the plurality of perforations are configured to permit a fluid transfer of the forced air through the front side of the perforated covering, wherein the adjustable insert is coupled to the perforated covering. an adjustable insert, wherein the adjustable insert comprises two or more adjustable portions hingedly connected to a center portion; a nozzle fixedly attached to the adjustable insert, wherein the nozzle is configured to receive forced air from a ventilation system; a mesh pad, wherein the nozzle is configured to deliver the forced air to the mesh pad; a cushion; a perforated covering enclosing the mesh pad and the cushion, wherein the mesh pad is configured to allow the forced air to flow through the mesh pad to the perforated covering, wherein the perforated covering comprises a plurality of perforations on a front side of the perforated covering, wherein the plurality of perforations are configured to permit a fluid transfer of the forced air through the front side of the perforated covering, wherein the adjustable insert is coupled to the perforated covering.
Use of the DNA or mRNA encoding ROR gamma t, or of the corresponding protein, and of at least one distinct marker chosen from IL-6, IL-17 A, IL-17 F, IL-21, IL-22, IL-26, TNF alpha, and CCL20, as markers for rosacea.
A rechargeable battery comprising: an electrode assembly configured to charge and discharge a current; a case accommodating the electrode assembly therein; a cap plate configured to seal an opening of the case; an electrode terminal (21, 22) electrically connected to the electrode assembly and externally drawn out through the cap plate; a first valve assembly installed in an electrolyte injection opening of the cap plate to open and close the electrolyte injection opening; a gas removal opening formed in the cap plate to remove a gas; and a second valve assembly installed in the gas removal opening to open and close the gas removal opening, wherein the first valve assembly includes: a first fixing protrusion formed on an outer surface of the cap plate at an outer circumference of the electrolyte injection opening; a first cap member coupled to the first fixing protrusion and having an opening and closing hole; a first elastic member disposed on an outer surface of the cap plate inside the first fixing protrusion; and a first opening and closing member disposed between the first elastic member and the first cap member to open and close the opening and closing hole. an electrode assembly configured to charge and discharge a current; a case accommodating the electrode assembly therein; a cap plate configured to seal an opening of the case; an electrode terminal (21, 22) electrically connected to the electrode assembly and externally drawn out through the cap plate; a first valve assembly installed in an electrolyte injection opening of the cap plate to open and close the electrolyte injection opening; a gas removal opening formed in the cap plate to remove a gas; and a second valve assembly installed in the gas removal opening to open and close the gas removal opening, wherein the first valve assembly includes: a first fixing protrusion formed on an outer surface of the cap plate at an outer circumference of the electrolyte injection opening; a first cap member coupled to the first fixing protrusion and having an opening and closing hole; a first elastic member disposed on an outer surface of the cap plate inside the first fixing protrusion; and a first opening and closing member disposed between the first elastic member and the first cap member to open and close the opening and closing hole. a first fixing protrusion formed on an outer surface of the cap plate at an outer circumference of the electrolyte injection opening; a first cap member coupled to the first fixing protrusion and having an opening and closing hole; a first elastic member disposed on an outer surface of the cap plate inside the first fixing protrusion; and a first opening and closing member disposed between the first elastic member and the first cap member to open and close the opening and closing hole.
Isolated strain of Carnobacterium maltaromaticum selected from Carnobacterium maltaromaticum, deposited under the number CNCM I-5242 and Carnobacterium maltaromaticum, deposited under the number CNCM I-5243.
A transmission method comprising: a transmission method determining step at a reception apparatus for determining any one of a first transmission method whereby a transmission apparatus provided with a plurality of antennas transmits a plurality of signals including the same data from the plurality of antennas and a second transmission method whereby the transmission apparatus transmits a plurality of signals including different data from the plurality of antennas; a modulation scheme determining step at the reception apparatus for determining any one of a plurality of modulation schemes; a control step at the reception apparatus for performing control so that determining any one of the first transmission method and the second transmission method in said transmission method determining step is carried out at longer time intervals than determining any one of the plurality of modulation schemes carried out in said modulation scheme determining step; and a request step at the reception apparatus for requesting the determined transmission method and modulation scheme from the transmission apparatus. a transmission method determining step at a reception apparatus for determining any one of a first transmission method whereby a transmission apparatus provided with a plurality of antennas transmits a plurality of signals including the same data from the plurality of antennas and a second transmission method whereby the transmission apparatus transmits a plurality of signals including different data from the plurality of antennas; a modulation scheme determining step at the reception apparatus for determining any one of a plurality of modulation schemes; a control step at the reception apparatus for performing control so that determining any one of the first transmission method and the second transmission method in said transmission method determining step is carried out at longer time intervals than determining any one of the plurality of modulation schemes carried out in said modulation scheme determining step; and a request step at the reception apparatus for requesting the determined transmission method and modulation scheme from the transmission apparatus.
A delivery device for delivering elements to nerve tissue on different spinal levels, the device comprising: an elongate structure (200, 404, 420, 430) shaped for positioning within an epidural space, wherein the elongate structure has a first opening (234, 406, 422) alignable with a first spinal level and a second opening (234, 406, 422) concurrently alignable with a second spinal level; a first element (232, 238, 410, 412) extendable through the first opening and positionable so as to treat nerve tissue on the first spinal level, said first element comprising a lead having at least one electrode; a second element (232, 238, 410, 412) extendable through the second opening and positionable so as to treat nerve tissue on the second spinal level; wherein the elongate structure includes at least one lumen (233, 411, 433) configured to allow passage of the first element through the first opening toward nerve tissue on the first spinal level and passage of the second element through the second opening toward nerve tissue on the second spinal level; and wherein the elongate structure comprises a first portion having the first opening and a second portion having the second opening, wherein the first and second portions can move relative to each other so as to adjust a distance between the openings. an elongate structure (200, 404, 420, 430) shaped for positioning within an epidural space, wherein the elongate structure has a first opening (234, 406, 422) alignable with a first spinal level and a second opening (234, 406, 422) concurrently alignable with a second spinal level; a first element (232, 238, 410, 412) extendable through the first opening and positionable so as to treat nerve tissue on the first spinal level, said first element comprising a lead having at least one electrode; a second element (232, 238, 410, 412) extendable through the second opening and positionable so as to treat nerve tissue on the second spinal level; wherein the elongate structure includes at least one lumen (233, 411, 433) configured to allow passage of the first element through the first opening toward nerve tissue on the first spinal level and passage of the second element through the second opening toward nerve tissue on the second spinal level; and wherein the elongate structure comprises a first portion having the first opening and a second portion having the second opening, wherein the first and second portions can move relative to each other so as to adjust a distance between the openings.
A neuropharmaceutical selected from the group consisting of a serotonergic drug, a dopaminergic drug, a noradrenergic drug, a GABAergic drug, and glycinergic drug for use in a method of neurological treatment by inducing locomotor activity in a mammal with a spinal cord injury or a brain injury, said method comprising applying transcutaneous electrical spinal cord stimulation (tSCS) simultaneously paraspinally over C4-C5, T11-T12 and L1-L2 vertebrae at a frequency and intensity that induces said locomotor activity.
A system for an aircraft, the system comprising: a low profile pneumatic sensing system comprising: a first pneumatic sensor (30; 52a, 52b) configured to be positioned to sense first sensed data of an airflow about an exterior of the aircraft, wherein the first pneumatic sensor (30; 52a, 52b) comprises a low profile bump that is configured to protrude from the aircraft exterior and to not extend beyond a boundary layer of the aircraft and a first port for sensing a total pressure, and wherein the first sensed data is used to determine first air data parameters; and the system further comprising an acoustic sensing system configured to emit acoustic signals about the exterior of the aircraft and sense the acoustic signals as second sensed data, wherein the second sensed data is used to determine second air data parameters. a first pneumatic sensor (30; 52a, 52b) configured to be positioned to sense first sensed data of an airflow about an exterior of the aircraft, wherein the first pneumatic sensor (30; 52a, 52b) comprises a low profile bump that is configured to protrude from the aircraft exterior and to not extend beyond a boundary layer of the aircraft and a first port for sensing a total pressure, and wherein the first sensed data is used to determine first air data parameters; and the system further comprising an acoustic sensing system configured to emit acoustic signals about the exterior of the aircraft and sense the acoustic signals as second sensed data, wherein the second sensed data is used to determine second air data parameters.
Granulocyte colony-stimulating factor (GCSF) for use in the treatment of neurogenic immune depression syndrome, wherein GCSF is to be administered to a human patient and wherein neurogenic immune depression syndrome is due to a brain injury.
Device comprising: a substrate; a first layer resting on the substrate, the first layer comprising a first part and a second part mobile with respect to each other; an annular optical resonator defined in a second layer, the device being characterized in that the resonator comprises a first portion fixed to a first anchor pad connected to the first part of the first layer and a second portion fixed to a second anchor pad connected to the second part of the first layer. a substrate; a first layer resting on the substrate, the first layer comprising a first part and a second part mobile with respect to each other; an annular optical resonator defined in a second layer, the device being characterized in that the resonator comprises a first portion fixed to a first anchor pad connected to the first part of the first layer and a second portion fixed to a second anchor pad connected to the second part of the first layer.
An angiopoietin-like protein 3 (ANGPTL3) inhibitor for use in a method of reducing the progression of atherosclerosis in a subject, the method comprising selecting a subject who has atherosclerosis and administering one or more doses of the angiopoietin-like protein 3 inhibitor to the subject, wherein the ANGPTL3 inhibitor is an antibody or antigen-binding fragment thereof that specifically binds ANGPTL3 which comprises heavy and light chain CDR amino acid sequences having SEQ ID NOs:4, 5, 6, 7, 8, and 9.
An optical inspection device comprising: a wafer support unit configured to support a wafer; the wafer (100, 600), wherein the wafer (100, 600) includes a substrate layer (110, 611) and a plurality of Fabry-Perot interference filter portions (1A, 650A) being formed in the wafer (100, 600) and two-dimensionally arranged on the substrate layer (110, 611), each of the plurality of Fabry-Perot interference filter portions (1A, 650A) having a first mirror portion (31, 612) and a second mirror portion (32, 622), and having a gap formed between the first mirror portion (31, 612) and the second mirror portion (32, 622) facing each other and a distance between the first mirror portion (31, 612) and the second mirror portion (32, 622) facing each other varies by an electrostatic force, the wafer support unit configured to support the wafer (100, 600) such that a direction in which the first mirror portion (31, 612) and the second mirror portion (32, 622) face each other follows along a reference line; a light emission unit configured to emit light to be incident on each of the plurality of Fabry-Perot interference filter portions (1A, 650A) along the reference line; and a light detection unit configured to detect light transmitted through each of the plurality of Fabry-Perot interference filter portions (1A, 650A) along the reference line, wherein the wafer support unit has a light passage region through which light is allowed to pass along the reference line. a wafer support unit configured to support a wafer; the wafer (100, 600), wherein the wafer (100, 600) includes a substrate layer (110, 611) and a plurality of Fabry-Perot interference filter portions (1A, 650A) being formed in the wafer (100, 600) and two-dimensionally arranged on the substrate layer (110, 611), each of the plurality of Fabry-Perot interference filter portions (1A, 650A) having a first mirror portion (31, 612) and a second mirror portion (32, 622), and having a gap formed between the first mirror portion (31, 612) and the second mirror portion (32, 622) facing each other and a distance between the first mirror portion (31, 612) and the second mirror portion (32, 622) facing each other varies by an electrostatic force, the wafer support unit configured to support the wafer (100, 600) such that a direction in which the first mirror portion (31, 612) and the second mirror portion (32, 622) face each other follows along a reference line; a light emission unit configured to emit light to be incident on each of the plurality of Fabry-Perot interference filter portions (1A, 650A) along the reference line; and a light detection unit configured to detect light transmitted through each of the plurality of Fabry-Perot interference filter portions (1A, 650A) along the reference line, wherein the wafer support unit has a light passage region through which light is allowed to pass along the reference line.
A method for implementing a billing process between a first Public Land Mobile Network, PLMN1, and a second Public Land Mobile Network, PLMN2, for a subscriber of the PLMN1 that visits the PLMN2, the method comprising: establishing (S102, S202, S302) a smart contract (240, 340, 440, 520) between the PLMN1, the PLMN2, and a Data Clearance House, DCH; sending (S104, S204) a subscriber usage record, represented by a distributed ledger, of the subscriber from the PLMN2 to the DCH using a blockchain upon the subscriber having visited the PLMN2, wherein the blockchain is based on the smart contract (240, 340, 440, 520); and sending (S106, S304) the subscriber usage record from the DCH to the PLMN1 using the blockchain, wherein the smart contract (240, 340, 440, 520) acts as, or is part of, a genesis block of the blockchain and the smart contract (240, 340, 440, 520) holds information of agreed rate plans between the PLMN1 and the PLMN2 for the PLMN2 to process transaction data, as represented by the subscriber usage record, for the subscriber. establishing (S102, S202, S302) a smart contract (240, 340, 440, 520) between the PLMN1, the PLMN2, and a Data Clearance House, DCH; sending (S104, S204) a subscriber usage record, represented by a distributed ledger, of the subscriber from the PLMN2 to the DCH using a blockchain upon the subscriber having visited the PLMN2, wherein the blockchain is based on the smart contract (240, 340, 440, 520); and sending (S106, S304) the subscriber usage record from the DCH to the PLMN1 using the blockchain,
A method of using a spatial controller to teleoperate a legged vehicle comprising: receiving, from a spatial controller, angular displacement data generated from a movement of the spatial controller with respect to a global reference frame, wherein the movement of the spatial controller is representative of one or more target velocities of a legged vehicle; transforming the angular displacement data into a spatial controller reference frame defined with respect to the spatial controller; identifying, from the angular displacement data, a first subset of the angular displacement data included in a first horizontal plane of the spatial controller reference frame; identifying, from the angular displacement data, a second subset of the angular displacement data that is perpendicular to the first horizontal plane; computing, using the first subset of the angular displacement data, a target linear velocity of the vehicle in a second horizontal plane in a user interface reference frame of a user interface device controlling the vehicle; computing, using the second subset of the angular displacement data, a target angular velocity of the vehicle in the second horizontal plane; transforming the target linear velocity and the target angular velocity into a vehicle reference frame defined with respect to the vehicle; and sending data indicating the target linear velocity and the target angular velocity to the vehicle such that the vehicle moves in accordance with transformed values of the target linear velocity and the target angular velocity. receiving, from a spatial controller, angular displacement data generated from a movement of the spatial controller with respect to a global reference frame, wherein the movement of the spatial controller is representative of one or more target velocities of a legged vehicle; transforming the angular displacement data into a spatial controller reference frame defined with respect to the spatial controller; identifying, from the angular displacement data, a first subset of the angular displacement data included in a first horizontal plane of the spatial controller reference frame; identifying, from the angular displacement data, a second subset of the angular displacement data that is perpendicular to the first horizontal plane; computing, using the first subset of the angular displacement data, a target linear velocity of the vehicle in a second horizontal plane in a user interface reference frame of a user interface device controlling the vehicle; computing, using the second subset of the angular displacement data, a target angular velocity of the vehicle in the second horizontal plane; transforming the target linear velocity and the target angular velocity into a vehicle reference frame defined with respect to the vehicle; and sending data indicating the target linear velocity and the target angular velocity to the vehicle such that the vehicle moves in accordance with transformed values of the target linear velocity and the target angular velocity.