mhurhangee/patent-ind-claim-en huggingface dataset:
A passenger seat including: - a base , - at least one backrest , - the base including various frame members and at least one seat pan , the base defining a storage compartment including a top opening facing in an upwards direction, - wherein the seat pan is hingedly connected to the frame members of the base such that the seat pan can pivot between a stowed position and an open position, - the seat pan serving as a lid or cover to the top opening of the storage compartment , so that the top opening can be accessed when the corresponding seat pan is in the open position, characterized by a headrest on the at least one backrest , and in that the headrest is movable between an open position and a seated position in which lateral ends of the headrest extend forward relative to the seat back compared to the open position, and - wherein the headrest is configured to move with the seat pan . - a base , - at least one backrest , - the base including various frame members and at least one seat pan , the base defining a storage compartment including a top opening facing in an upwards direction, - wherein the seat pan is hingedly connected to the frame members of the base such that the seat pan can pivot between a stowed position and an open position, - the seat pan serving as a lid or cover to the top opening of the storage compartment , so that the top opening can be accessed when the corresponding seat pan is in the open position, characterized by a headrest on the at least one backrest , and in that the headrest is movable between an open position and a seated position in which lateral ends of the headrest extend forward relative to the seat back compared to the open position, and - wherein the headrest is configured to move with the seat pan .
A method , comprising: determining that a computing device (102-1, 102-2, 202) is connected to a first network; altering a transmission power of the computing device (102-1, 102-2, 202) to a first transmission power level based on a network type of the first network; determining that the computing device (102-1, 102-2, 202) is disconnected from the first network and connected to a second network; altering the transmission power of the computing device (102-1, 102-2, 202) to a second transmission power level based on a network type of the second network, wherein the network type of the first network is an infrastructure network connection and the network type of the second network is a peer to peer network connection ; and querying a service set identifier, SSID, connection of the first network, wherein determining that the computing device (102-1, 102-2, 202) is connected to the first network is based on querying the SSID connection of the first network. determining that a computing device (102-1, 102-2, 202) is connected to a first network; altering a transmission power of the computing device (102-1, 102-2, 202) to a first transmission power level based on a network type of the first network; determining that the computing device (102-1, 102-2, 202) is disconnected from the first network and connected to a second network; altering the transmission power of the computing device (102-1, 102-2, 202) to a second transmission power level based on a network type of the second network, wherein the network type of the first network is an infrastructure network connection and the network type of the second network is a peer to peer network connection ; and querying a service set identifier, SSID, connection of the first network,
A method for generating a sedation level estimate, the method comprising: receiving an electroencephalography, EEG, signal from a sensor electrode attached to a patient, the EEG signal comprising a plurality of channels; segmenting the EEG signal into smaller epochs for each channel; extracting features of the EEG signal in each epoch, the features comprising time domain features, frequency domain features, and entropy domain features; determining a median of features among the plurality of channels for each epoch; determining, by a classifier, a probabilistic estimate of a patient sedation; generating, using a determined correlation, a sedation level estimate, the sedation level estimate comprising a continuous sedation score; and displaying an indication of the sedation level estimate. receiving an electroencephalography, EEG, signal from a sensor electrode attached to a patient, the EEG signal comprising a plurality of channels; segmenting the EEG signal into smaller epochs for each channel; extracting features of the EEG signal in each epoch, the features comprising time domain features, frequency domain features, and entropy domain features; determining a median of features among the plurality of channels for each epoch; determining, by a classifier, a probabilistic estimate of a patient sedation; generating, using a determined correlation, a sedation level estimate, the sedation level estimate comprising a continuous sedation score; and displaying an indication of the sedation level estimate.
A torque obtaining method, comprising: obtaining a rotation speed of a motor ; obtaining a current of the motor ; obtaining a flux linkage of the motor ; determining an electromagnetic torque of the motor based on the current and the flux linkage; and inputting the rotation speed and the electromagnetic torque into a preset status observer, and obtaining an observed value of an actual output torque of the motor , wherein the observed value is output by the status observer characterized in that the preset status observer outputs the observed value of the actual output torque of the motor based on the following calculation formula: w ^ ̇ m = 1 J ∗ T elc - T ^ load - B ∗ w ^ m + J ∗ L 1 ∗ w m - w ^ m , T ^ ̇ load = L 2 ∗ w m - w ^ m , wherein, w m is the rotation speed, T elc is the electromagnetic torque, ŵ m is an observed value of the rotation speed, B is a damping coefficient of the motor , J is a moment of inertia of the motor , w ^ ̇ m is a derivative of the observed value of the rotation speed, T̂ load is the observed value of the actual output torque, T ^ ̇ load is a derivative of the observed value of the actual output torque, L1 is a preset first control parameter, and L2 is a preset second control parameter; and the observed value of the rotation speed is determined by integrating the derivative of the observed value of the rotation speed. obtaining a rotation speed of a motor ; obtaining a current of the motor ; obtaining a flux linkage of the motor ; determining an electromagnetic torque of the motor based on the current and the flux linkage; and inputting the rotation speed and the electromagnetic torque into a preset status observer, and obtaining an observed value of an actual output torque of the motor , wherein the observed value is output by the status observer characterized in that the preset status observer outputs the observed value of the actual output torque of the motor based on the following calculation formula: w ^ ̇ m = 1 J ∗ T elc - T ^ load - B ∗ w ^ m + J ∗ L 1 ∗ w m - w ^ m , T ^ ̇ load = L 2 ∗ w m - w ^ m , wherein, w m is the rotation speed, T elc is the electromagnetic torque, ŵ m is an observed value of the rotation speed, B is a damping coefficient of the motor , J is a moment of inertia of the motor , w ^ ̇ m is a derivative of the observed value of the rotation speed, T̂ load is the observed value of the actual output torque, T ^ ̇ load is a derivative of the observed value of the actual output torque, L1 is a preset first control parameter, and L2 is a preset second control parameter; and the observed value of the rotation speed is determined by integrating the derivative of the observed value of the rotation speed.
A method for evaluating a subject's risk of developing type 2 diabetes and/or of having prediabetes, comprising: providing an in vitro biosample from a subject, wherein the biosample comprises blood, plasma or serum; performing Nuclear Magnetic Resonance on the in vitro biosample, obtaining an NMR spectrum of the biosample; programmatically calculating, using a processor, a diabetes risk index score of the subject using a mathematical model of risk of developing type 2 diabetes that includes a measurement of a lipoprotein component, a measurement of a branched chain amino acid, and a measurement of GlycA, each obtained from the NMR spectrum of the in vitro biosample, wherein GlycA is a composite NMR signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the diabetes risk index score has a defined numerical range. providing an in vitro biosample from a subject, wherein the biosample comprises blood, plasma or serum; performing Nuclear Magnetic Resonance on the in vitro biosample, obtaining an NMR spectrum of the biosample; programmatically calculating, using a processor, a diabetes risk index score of the subject using a mathematical model of risk of developing type 2 diabetes that includes a measurement of a lipoprotein component, a measurement of a branched chain amino acid, and a measurement of GlycA, each obtained from the NMR spectrum of the in vitro biosample, wherein GlycA is a composite NMR signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the diabetes risk index score has a defined numerical range.
A method for controlling pouring of laundry detergent, comprising: after being started, a washing machine calculating a first pouring amount of a laundry detergent based on acquired information and displaying the first pouring amount of the laundry detergent, characterized in that the washing machine detecting and judging a variable of the first pouring amount of the laundry detergent to form a second pouring amount of the laundry detergent, starting washing procedure, and the washing machine pouring the laundry detergent at the first pouring amount or the second pouring amount of the laundry detergent wherein the first pouring amount of the laundry detergent is calculated by a computer board of the washing machine based on acquired washing procedure information, and/or set water level information, and/or clothes smudginess degree information; wherein the variable of the first pouring amount of the laundry detergent is an increased or reduced pouring amount of the laundry detergent set by users, wherein the computer board of the washing machine detects and judges the increased or reduced pouring amount of the laundry detergent and recalculates based on the first pouring amount of the laundry detergent to obtain the second pouring amount of the laundry detergent. after being started, a washing machine calculating a first pouring amount of a laundry detergent based on acquired information and displaying the first pouring amount of the laundry detergent, characterized in that the washing machine detecting and judging a variable of the first pouring amount of the laundry detergent to form a second pouring amount of the laundry detergent, starting washing procedure, and the washing machine pouring the laundry detergent at the first pouring amount or the second pouring amount of the laundry detergent wherein the first pouring amount of the laundry detergent is calculated by a computer board of the washing machine based on acquired washing procedure information, and/or set water level information, and/or clothes smudginess degree information; wherein the variable of the first pouring amount of the laundry detergent is an increased or reduced pouring amount of the laundry detergent set by users, wherein the computer board of the washing machine detects and judges the increased or reduced pouring amount of the laundry detergent and recalculates based on the first pouring amount of the laundry detergent to obtain the second pouring amount of the laundry detergent.
An electrical protection assembly comprising: a semiconductive gap-assisted (SGA) fuse assembly forming an overcurrent protection circuit and including: a fuse element ; and a semiconductive gap assembly electrically connected in series with the fuse element, wherein the semiconductive gap assembly includes: a first gap electrode and an opposing second gap electrode ; a trigger gap defined between the first and second gap electrodes; and a semiconductive member disposed in the trigger gap; wherein the semiconductive member is configured to assist in initiation of an electrical arc flashover (AF) across the trigger gap between the first and second gap electrodes responsive to an overvoltage developed across the first and second gap electrodes. a fuse element ; and a semiconductive gap assembly electrically connected in series with the fuse element, wherein the semiconductive gap assembly includes: a first gap electrode and an opposing second gap electrode ; a trigger gap defined between the first and second gap electrodes; and a semiconductive member disposed in the trigger gap; wherein the semiconductive member is configured to assist in initiation of an electrical arc flashover (AF) across the trigger gap between the first and second gap electrodes responsive to an overvoltage developed across the first and second gap electrodes. a first gap electrode and an opposing second gap electrode ; a trigger gap defined between the first and second gap electrodes; and a semiconductive member disposed in the trigger gap; wherein the semiconductive member is configured to assist in initiation of an electrical arc flashover (AF) across the trigger gap between the first and second gap electrodes responsive to an overvoltage developed across the first and second gap electrodes.
Compensation device for retaining specifiable target positions of a load that can be handled using a cable hoist and is attached to a cable on said cable hoist, said load changing its respective specifiable target position involuntarily to a different actual position as a result of disruptive influences, consisting of at least - one sensor device for directly or indirectly determining the respective actual position of the load ; - one rotary drive for specifying an effective cable length of the cable of the cable hoist ; - at least one control device , which changes the effective cable length after determining the respective actual position of the load until the load regains its specifiable target position, wherein the respective rotary drive can at least partially be controlled by at least one hydraulic motor with opposing directions of rotation, said hydraulic motor being connected to an actuating device such as to convey fluids, said actuating device comprising at least two separate pressure chambers (250, 252, 282-288) with different pressure levels during operation to form a drive element for the respective hydraulic motor and being able to be actuated and controlled by the control device , characterised in that the one pressure chamber of the actuating device in each case is operated in a form of high-pressure mode and at least one other pressure chamber of the drive element in each case is operated correspondingly in a form of low pressure mode, said chamber being permanently connected to a low-pressure accumulator in the form of a hydraulic accumulator. - one sensor device for directly or indirectly determining the respective actual position of the load ; - one rotary drive for specifying an effective cable length of the cable of the cable hoist ; - at least one control device , which changes the effective cable length after determining the respective actual position of the load until the load regains its specifiable target position,
Process for the preparation of colloidal suspensions for veterinary use with sizes ranging between 100 and 800 nm which carry cloxacillin benzathine with application in the treatment or prophylaxis of mastitis in animals during the dry period by intramammary administration, characterized in that said process comprises reservoir type coated nanocarriers containing an oily or pasty core of submicron dimensions covered by a polymeric membrane of chitosan which gives rise to nanoreservoirs, nanoshells and nanocarriers dispersed in an external aqueous medium, wherein the process comprises: - preparing a solution containing (a) a hydrophobic poly-s-caprolactone which is insoluble in water, (b) oil and (c) surfactant dissolved in water-miscible organic solvents; - preparing a neutral aqueous solution comprising cloxacillin benzathine and chitosan as cationic polymer in the form of water soluble salt; - the simultaneous combination of the aqueous and oily phase which forms nanodroplets that are coated with polymer film; further characterized in that the adsorption of the cationic polymer to the particle occurs by electrostatic attraction between the hydrophobic polymer and the cationic polymer to deliver particles with positive surface charge. - preparing a solution containing (a) a hydrophobic poly-s-caprolactone which is insoluble in water, (b) oil and (c) surfactant dissolved in water-miscible organic solvents; - preparing a neutral aqueous solution comprising cloxacillin benzathine and chitosan as cationic polymer in the form of water soluble salt; - the simultaneous combination of the aqueous and oily phase which forms nanodroplets that are coated with polymer film;
An endoscopic surgical device, comprising: a rotating spool assembly having a hub, an arm contiguous with the hub, and a rotating spool inserted through the arm, the hub having an opening formed therein; a valve assembly having a mating stem member, a sealing member, and a flushing port member, the mating stem member having a lumen extending through a longitudinal center thereof and having the sealing member extending thereacross, the lumen being aligned on a proximal end of the mating stem member with the opening in the rotating spool assembly, and the valve assembly being coupled to a distal end of the rotating spool assembly; characterised by a braided cord having first and second single filaments, the single filaments being braided together at a proximal end of the braided cord and separated at a distal end of the braided cord, the proximal end of the braided cord being configured to attach to the rotating spool, the distal end of the braided cord being configured to pass through the lumen of the mating stem member, a plurality of beads being formed along a length of each of the first and second single filaments at the distal end of the braided cord, the plurality of beads being positioned such that no two beads are at a same distance from the proximal end of the braided cord. a rotating spool assembly having a hub, an arm contiguous with the hub, and a rotating spool inserted through the arm, the hub having an opening formed therein; a valve assembly having a mating stem member, a sealing member, and a flushing port member, the mating stem member having a lumen extending through a longitudinal center thereof and having the sealing member extending thereacross, the lumen being aligned on a proximal end of the mating stem member with the opening in the rotating spool assembly, and the valve assembly being coupled to a distal end of the rotating spool assembly; characterised by a braided cord having first and second single filaments, the single filaments being braided together at a proximal end of the braided cord and separated at a distal end of the braided cord, the proximal end of the braided cord being configured to attach to the rotating spool, the distal end of the braided cord being configured to pass through the lumen of the mating stem member, a plurality of beads being formed along a length of each of the first and second single filaments at the distal end of the braided cord, the plurality of beads being positioned such that no two beads are at a same distance from the proximal end of the braided cord.
An article of footwear , comprising: an upper formed from one or more upper parts , wherein at least one upper part defines an ankle-containing portion of the upper and at least one upper part defines an instep-containing portion of the upper ; and a closure system engaged with the upper , wherein the closure system includes: (a) a track that extends from a first end located at a first side of the ankle-containing portion to a second end located at the instep-containing portion , wherein the track extends around a rear ankle area of the ankle-containing portion , along a second side of the ankle-containing portion , to the instep-containing portion of the upper , and wherein the second end of the track is located at a first side of the instep-containing portion of the upper and the track extends across a central longitudinal axis of the upper at a forefoot portion of the upper , and (b) a slider engaged with the track , wherein the slider is movable along the track to change the closure system between an open condition and a closed condition. an upper formed from one or more upper parts , wherein at least one upper part defines an ankle-containing portion of the upper and at least one upper part defines an instep-containing portion of the upper ; and a closure system engaged with the upper , wherein the closure system includes: (a) a track that extends from a first end located at a first side of the ankle-containing portion to a second end located at the instep-containing portion , wherein the track extends around a rear ankle area of the ankle-containing portion , along a second side of the ankle-containing portion , to the instep-containing portion of the upper , and wherein the second end of the track is located at a first side of the instep-containing portion of the upper and the track extends across a central longitudinal axis of the upper at a forefoot portion of the upper , and (b) a slider engaged with the track , wherein the slider is movable along the track to change the closure system between an open condition and a closed condition. (a) a track that extends from a first end located at a first side of the ankle-containing portion to a second end located at the instep-containing portion , wherein the track extends around a rear ankle area of the ankle-containing portion , along a second side of the ankle-containing portion , to the instep-containing portion of the upper , and wherein the second end of the track is located at a first side of the instep-containing portion of the upper and the track extends across a central longitudinal axis of the upper at a forefoot portion of the upper , and (b) a slider engaged with the track , wherein the slider is movable along the track to change the closure system between an open condition and a closed condition.