mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fetching a target bin stored in a storage system , wherein the storage system includes a three-dimensional storage grid containing a plurality of bins stacked in vertical stacks, supporting rails on the grid structure, and a plurality of vehicles , controllably arranged to move individually on the supporting rails , the method comprising: - controlling a plurality of non-target vehicles , such that each non-target vehicle operates as an intermediate storage for a single bin located vertically above a target bin; - controlling a target vehicle to pick up the target bin, and - controlling the plurality of non-target vehicles and the target vehicle to be positioned adjacent to each other in a linear manner on the supporting rails , the plurality of non-target vehicles and the target vehicle are the same type of vehicle able to lift only a single bin at a time, wherein the step of controlling each of the plurality of non-target vehicles to operate as intermediate storage for a single bin located vertically above the target bin further comprises: - controlling a non-target vehicle to move to a target location above the target bin; - controlling the non-target vehicle to pick up a single bin from the vertical stack at the target location; - controlling the non-target vehicle to rest at a neighbor location; and - determining if the target bin has become the upper bin in the vertical stack at the target location, and if this is not true, repeating the controlling steps until the target bin has become the upper bin in the vertical stack at the target location. - controlling a plurality of non-target vehicles , such that each non-target vehicle operates as an intermediate storage for a single bin located vertically above a target bin; - controlling a target vehicle to pick up the target bin, and - controlling the plurality of non-target vehicles and the target vehicle to be positioned adjacent to each other in a linear manner on the supporting rails , the plurality of non-target vehicles and the target vehicle are the same type of vehicle able to lift only a single bin at a time, - controlling a non-target vehicle to move to a target location above the target bin; - controlling the non-target vehicle to pick up a single bin from the vertical stack at the target location; - controlling the non-target vehicle to rest at a neighbor location; and - determining if the target bin has become the upper bin in the vertical stack at the target location, and if this is not true, repeating the controlling steps until the target bin has become the upper bin in the vertical stack at the target location.
A method of performing a non-isothermal nucleic acid amplification reaction, the method comprising the steps of: (a) mixing a target sequence with one or more complementary single stranded primers in conditions which permit a hybridisation event in which the primers hybridise to the target, which hybridisation event, directly or indirectly, leads to the formation of a duplex structure comprising two nicking sites disposed at or near opposite ends of the duplex; and performing an amplification process by; (b) using a nicking enzyme to cause a nick at each of said nicking sites in the strands of the duplex; (c) using a polymerase to extend the nicked strands to as to form newly synthesised nucleic acid, which extension with the polymerase recreates nicking sites; (d) repeating steps (b) and (c) as desired so as to cause the production of multiple copies of the newly synthesised nucleic acid; characterised in that the temperature at which the method is performed is non-isothermal, and subject to shuttling, a plurality of times, between an upper temperature and a lower temperature during the amplification process of steps (b)-(d), wherein at the upper temperature, one of said polymerase or nicking enzyme is more active than the other of said enzymes, such that there is a disparity in the activity of the enzymes, and at the lower temperature the disparity in the activity of the enzymes is reduced or reversed. (a) mixing a target sequence with one or more complementary single stranded primers in conditions which permit a hybridisation event in which the primers hybridise to the target, which hybridisation event, directly or indirectly, leads to the formation of a duplex structure comprising two nicking sites disposed at or near opposite ends of the duplex; and performing an amplification process by; (b) using a nicking enzyme to cause a nick at each of said nicking sites in the strands of the duplex; (c) using a polymerase to extend the nicked strands to as to form newly synthesised nucleic acid, which extension with the polymerase recreates nicking sites; (d) repeating steps (b) and (c) as desired so as to cause the production of multiple copies of the newly synthesised nucleic acid;
A composite semipermeable membrane, comprising: a substrate; a porous support layer disposed on the substrate; and a separation functional layer disposed on the porous support layer, wherein the separation functional layer includes, from the porous support layer side, a first layer containing a crosslinked aromatic polyamide that is a polymer of a polyfunctional aromatic amine and a polyfunctional aromatic acid chloride, and a second layer present on the surface of the first layer, the second layer containing an aliphatic polyamide that is present on the first layer, and is a polymer of a polyfunctional aliphatic carboxylic acid and a polyfunctional aliphatic amine, characterized in that the polyfunctional aliphatic carboxylic acid is a polymer containing a monomer unit derived from at least one compound selected from the group consisting of acrylic acid, methacrylic acid, and maleic acid, the polyfunctional aliphatic amine includes at least one selected from the group consisting of polyethyleneimine, polyallylamine, polyvinylamine, polydialkylaminoalkyl (meth) acrylate, polydialkylaminoalkyl (meth) acrylamide, polydiallylalkylamine, polydiallylamine, chitosan, and salts thereof, each of the polyfunctional aliphatic carboxylic acid and the polyfunctional aliphatic amine has molecular weight of 1,000 or more, the molecular weight being determined gel permeation chromatography as described herein, and each of the polyfunctional aliphatic carboxylic acid and the polyfunctional aliphatic amine has solubility in pure water at 25°C under atmospheric pressure of 100 g/1 L or more. a substrate; a porous support layer disposed on the substrate; and a separation functional layer disposed on the porous support layer, wherein the separation functional layer includes, from the porous support layer side, a first layer containing a crosslinked aromatic polyamide that is a polymer of a polyfunctional aromatic amine and a polyfunctional aromatic acid chloride, and a second layer present on the surface of the first layer, the second layer containing an aliphatic polyamide that is present on the first layer, and is a polymer of a polyfunctional aliphatic carboxylic acid and a polyfunctional aliphatic amine, characterized in that the polyfunctional aliphatic carboxylic acid is a polymer containing a monomer unit derived from at least one compound selected from the group consisting of acrylic acid, methacrylic acid, and maleic acid, the polyfunctional aliphatic amine includes at least one selected from the group consisting of polyethyleneimine, polyallylamine, polyvinylamine, polydialkylaminoalkyl (meth) acrylate, polydialkylaminoalkyl (meth) acrylamide, polydiallylalkylamine, polydiallylamine, chitosan, and salts thereof, each of the polyfunctional aliphatic carboxylic acid and the polyfunctional aliphatic amine has molecular weight of 1,000 or more, the molecular weight being determined gel permeation chromatography as described herein, and each of the polyfunctional aliphatic carboxylic acid and the polyfunctional aliphatic amine has solubility in pure water at 25°C under atmospheric pressure of 100 g/1 L or more.
A method to operate an aerial vehicle having a first set of propellers and a second set of propellers , the method comprising: initiating a first operation of each of a first set of motors at a first time, wherein each of the first set of motors is mounted to a frame of the aerial vehicle and coupled to one of the first set of propellers; and initiating a second operation of each of a second set of motors at a second time, wherein each of the second set of motors is mounted to the frame of the aerial vehicle and coupled to one of the second set of propellers, wherein each of the first set of propellers is of a first type, wherein each of the second set of propellers is of a second type, wherein the first type is different from the second type and wherein at least one of the first set of propellers is not statically balanced or is not dynamically balanced. initiating a first operation of each of a first set of motors at a first time, wherein each of the first set of motors is mounted to a frame of the aerial vehicle and coupled to one of the first set of propellers; and initiating a second operation of each of a second set of motors at a second time, wherein each of the second set of motors is mounted to the frame of the aerial vehicle and coupled to one of the second set of propellers, wherein each of the first set of propellers is of a first type, wherein each of the second set of propellers is of a second type, wherein the first type is different from the second type and wherein at least one of the first set of propellers is not statically balanced or is not dynamically balanced.
A method performed by a user equipment for transmitting semi-persistent Channel State Information, SP CSI, on a physical uplink shared channel, PUSCH, the method comprising: receiving a control signaling message, the control signaling message configuring the user equipment with at least one SP CSI report configuration on the PUSCH, and the message identifying a SP CSI reporting periodicity (S144); and receiving physical layer control signaling identifying and activating the at least one SP CSI report configuration (S146); and transmitting a plurality of SP CSI reports, the reports being transmitted with the periodicity and according to the physical layer control signaling and the control signaling message (S148), wherein the physical layer control signaling is a downlink control information, DCI, signaling on a physical downlink control channel, PDCCH, wherein at least one of the activating or deactivating is implicitly indicated by a combination of bits corresponding to the downlink control information, DCI. receiving a control signaling message, the control signaling message configuring the user equipment with at least one SP CSI report configuration on the PUSCH, and the message identifying a SP CSI reporting periodicity (S144); and receiving physical layer control signaling identifying and activating the at least one SP CSI report configuration (S146); and transmitting a plurality of SP CSI reports, the reports being transmitted with the periodicity and according to the physical layer control signaling and the control signaling message (S148), wherein the physical layer control signaling is a downlink control information, DCI, signaling on a physical downlink control channel, PDCCH, wherein at least one of the activating or deactivating is implicitly indicated by a combination of bits corresponding to the downlink control information, DCI.
A method of analyzing a chirp signal generated by a frequency modulated continuous wave FMCW radar, the method comprising: down-converting the chirp signal to quadrature signals using an local oscillator which is not located within the radar; digitizing the quadrature signals to yield an IF signal ; determining the instantaneous frequencies of the IF signal ; comparing the instantaneous frequencies of the IF signal to predetermined instantaneous frequencies of the chirp signal to determine frequency linearity of the chirp signal ; wherein the local oscillator is fed from an external source and is not the local oscillator of the FMCW radar; determining dynamic phase noise by calculating the derivative of the phase of the IF signal to yield the instantaneous frequency samples of the IF signal; determining the difference between the instantaneous frequency samples and predetermined frequency samples to yield frequency error samples; integrating the frequency error samples to yield the phase error samples; and calculating the power spectral density function of the phase error samples to yield the dynamic phase noise. down-converting the chirp signal to quadrature signals using an local oscillator which is not located within the radar; digitizing the quadrature signals to yield an IF signal ; determining the instantaneous frequencies of the IF signal ; comparing the instantaneous frequencies of the IF signal to predetermined instantaneous frequencies of the chirp signal to determine frequency linearity of the chirp signal ; wherein the local oscillator is fed from an external source and is not the local oscillator of the FMCW radar; determining dynamic phase noise by calculating the derivative of the phase of the IF signal to yield the instantaneous frequency samples of the IF signal; determining the difference between the instantaneous frequency samples and predetermined frequency samples to yield frequency error samples; integrating the frequency error samples to yield the phase error samples; and calculating the power spectral density function of the phase error samples to yield the dynamic phase noise.
A medication delivery device, comprising: a cylindrical barrel having an opening at a proximal end, and an opening at a distal end; a plunger disposed in the distal opening of the cylindrical barrel for sealing the distal opening of the cylindrical barrel ; a needle hub at the proximal opening of the cylindrical barrel for sealing the cylindrical barrel and having a cylindrical flange ; a needle disposed in the needle hub for injecting liquids by operation of the plunger in the axial direction; and a needle safety shield for removable attachment to the needle hub ; characterized in that a circumferential surface of the cylindrical flange comprises a colored mark extending substantially around an entire circumference of the cylindrical flange , wherein the colored mark : is entirely visible to a user when the needle safety shield is attached and interfaces with the cylindrical flange and when the needle safety shield is removed in the use condition of the medication delivery device; and corresponds to a characteristic of the medication delivery device or its content. a cylindrical barrel having an opening at a proximal end, and an opening at a distal end; a plunger disposed in the distal opening of the cylindrical barrel for sealing the distal opening of the cylindrical barrel ; a needle hub at the proximal opening of the cylindrical barrel for sealing the cylindrical barrel and having a cylindrical flange ; a needle disposed in the needle hub for injecting liquids by operation of the plunger in the axial direction; and a needle safety shield for removable attachment to the needle hub ; characterized in that a circumferential surface of the cylindrical flange comprises a colored mark extending substantially around an entire circumference of the cylindrical flange , wherein the colored mark : is entirely visible to a user when the needle safety shield is attached and interfaces with the cylindrical flange and when the needle safety shield is removed in the use condition of the medication delivery device; and corresponds to a characteristic of the medication delivery device or its content. is entirely visible to a user when the needle safety shield is attached and interfaces with the cylindrical flange and when the needle safety shield is removed in the use condition of the medication delivery device; and corresponds to a characteristic of the medication delivery device or its content.
A rubber composition based on at least: - an elastomer matrix; - an anti-ozone wax; and - a crumb rubber; wherein the elastomer matrix comprises an isoprene elastomer; wherein the total amount of the isoprene elastomer is more than 27.00% by weight per 100.00% by weight of the rubber composition; wherein the total amount of the anti-ozone wax is more than 0.60% by weight and less than 1.70% by weight per 100.00% by weight of the rubber composition; wherein the crumb rubber comprises crumb rubber particles having a particle size of less than 74μm; and wherein a ratio by weight of the total amount of the crumb rubber particles having the particle size of less than 74μm to the total amount of the anti-ozone wax is more than 0.65; the total amount by weight of the crumb rubber particles having the particle size of less than 74μm being measured according to the methods defined in the description. - an elastomer matrix; - an anti-ozone wax; and - a crumb rubber; wherein the elastomer matrix comprises an isoprene elastomer; wherein the total amount of the isoprene elastomer is more than 27.00% by weight per 100.00% by weight of the rubber composition; wherein the total amount of the anti-ozone wax is more than 0.60% by weight and less than 1.70% by weight per 100.00% by weight of the rubber composition; wherein the crumb rubber comprises crumb rubber particles having a particle size of less than 74μm; and wherein a ratio by weight of the total amount of the crumb rubber particles having the particle size of less than 74μm to the total amount of the anti-ozone wax is more than 0.65; the total amount by weight of the crumb rubber particles having the particle size of less than 74μm being measured according to the methods defined in the description.
An electrical facial brush which designed as a hand held device, for the care of skin portions of the face by means of a care brush and for carrying out at least one electrically operated facial care function, containing a grip body for holding the facial brush , moreover comprising an electronics part for the control of the at least one electrically operated facial care function, characterised in that the electronics part comprises a data transmission module for the wireless, bidirectional data transmission with an electronic mobile device by means of near field communication (NFC), and the data transmission module comprises: - a microcontroller, - at least one memory for storing data and - an antenna arranged in the grip part , wherein the data transmission module is designed so as to obtain at least a part of the electrical energy necessary for its operation, in a contact-free manner via electromagnetic waves which are produced by the mobile device and in the influence region of which the associated antenna lies. - a microcontroller, - at least one memory for storing data and - an antenna arranged in the grip part ,
A Luneburg lens antenna with a position-electrically adjustable feed, comprising: a reflecting plate , a feed , a Luneburg lens , and a position adjusting mechanism ; wherein, the position adjusting mechanism comprises a mounting plate , a motor , a guide rail , a sliding block , a connecting base, a screw and a moving base ; a position of the mounting plate is relatively fixed to a position of the Luneburg lens , and a surface, facing the Luneburg lens , of the mounting plate is a mounting surface ; the guide rail is mounted on the mounting plate and between the mounting surface and the Luneburg lens ; both ends of the screw are rotationally mounted on the mounting plate , and orthographic projections, on the mounting surface , of an axis of the screw and an axis of the guide rail are parallel to each other; the motor is fixed on the mounting plate and configured for driving the screw to rotate; the moving base is provided with a screw hole , and the screw hole of the moving base is in threaded connection with the screw ; the reflecting plate is arranged between the Luneburg lens and the guide rail ; the sliding block is mounted on the reflecting plate and in sliding fit connection with the guide rail ; one end of the connecting base is connected with the moving base , and the other end of the connecting base is connected with the reflecting plate ; and the feed is mounted on a surface, facing the Luneburg lens , of the reflecting plate .
A fast charging method, the method being applied to a charger, comprising: in response to detecting a successful handshake with a to-be-charged device, monitoring a voltage request from the to-be-charged device, wherein the voltage request comprises at least a Quick Charge 3.0 (QC3.0) voltage request; when the voltage request is the QC3.0 voltage request, determining a voltage combination of a first data line and a second data line according to respective voltage data of the first data line and the second data line in the QC3.0 voltage request; and characterized in that , when the voltage combination of the first data line and the second data line belongs to a first category valid voltage combination, adjusting a voltage transmitted via an output power line of the charger in a preset fine-tuning charging mode, wherein a voltage adjustment step size of the fine-tuning charging mode is less than a voltage adjustment step size of a QC3.0 charging mode, the fine-tuning charging mode is in a continuous mode of the QC3.0 charging mode, and the first category valid voltage combination corresponds to an invalid voltage combination in the QC3.0 charging mode. in response to detecting a successful handshake with a to-be-charged device, monitoring a voltage request from the to-be-charged device, wherein the voltage request comprises at least a Quick Charge 3.0 (QC3.0) voltage request; when the voltage request is the QC3.0 voltage request, determining a voltage combination of a first data line and a second data line according to respective voltage data of the first data line and the second data line in the QC3.0 voltage request; and characterized in that , when the voltage combination of the first data line and the second data line belongs to a first category valid voltage combination, adjusting a voltage transmitted via an output power line of the charger in a preset fine-tuning charging mode, wherein a voltage adjustment step size of the fine-tuning charging mode is less than a voltage adjustment step size of a QC3.0 charging mode, the fine-tuning charging mode is in a continuous mode of the QC3.0 charging mode, and the first category valid voltage combination corresponds to an invalid voltage combination in the QC3.0 charging mode.